aspen-summary file toolkit

Aspen Plus

Summary File Toolkit

Version Number: V7.1 January 2009

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Contents iii

Contents

Who Should Read this Guide ...................................................................................1

Introducing Summary File Toolkit ...........................................................................2 Related Documentation................................................................................... 2 Technical Support .......................................................................................... 3

1 Getting Started....................................................................................................4 The Summary File and Toolkit .......................................................................... 5 Initializing the Toolkit ..................................................................................... 5

Accessing the Required Files .................................................................. 6 Getting the Summary File Name....................................................................... 6

Getting Property and Units File Names .................................................... 6 Defining Units of Measurement............................................................... 7 Specifying a Value for Missing Results ..................................................... 7

Determining the Data Dimensions .................................................................... 8 Retrieving Data for an Object........................................................................... 8 Using the Toolkit With a Hierarchical Aspen Plus Run..........................................10 Linking Toolkit Subroutines into Your Module.....................................................10 Creating a Toolkit Application for Windows........................................................10

About the Windows Version ..................................................................11 Linker Directive Commands for Windows ..........................................................11 Calling Summary File Toolkit Routines..............................................................12

Opening and Closing Files Using the Summary File Toolkit.........................12 Using Fortran to Call Routines ...............................................................13

Changes in the Toolkit ...................................................................................13

2 General Subroutines..........................................................................................14 Initializing the Summary File Toolkit ................................................................15 Closing the Summary File Toolkit.....................................................................16 Opening and Closing Files...............................................................................17 Retrieving Run Information.............................................................................18

Standard Run Information ....................................................................18 Run Titles...........................................................................................19 Accounting Information ........................................................................20

Retrieving Flowsheet Balance Results ...............................................................20 Units Conversion...........................................................................................21

Changing Units Sets ............................................................................21 Converting Units for Real Numbers ........................................................22 Determining Units Labels......................................................................23

Component Information Retrieval ....................................................................23 Number of Components........................................................................23

iv Contents

Component IDs...................................................................................24 Component Alias Names.......................................................................24 Component Properties..........................................................................25

Sensitivity Block Results.................................................................................25 Identifying Sensitivity Blocks ................................................................25 Determining Sensitivity Dimensions .......................................................26 Retrieving Sensitivity Results ................................................................26

3 Block Result Subroutines...................................................................................28 Block Identification........................................................................................29

Block IDs ...........................................................................................29 Next Block..........................................................................................29

Block Connectivity Information........................................................................30 Number of Inlet and Outlet Streams.......................................................30 Stream Names and Types.....................................................................30 Additional Port Information ...................................................................31

Standard Block Results ..................................................................................33 Dimensions of Standard Scalar Results ...................................................33 Standard Scalar Block Results ...............................................................34

Compressor Results.......................................................................................35 Dimensions of Performance Results........................................................35 Stage-by-Stage Performance Results .....................................................36 Dimensions of Wheel-by-Wheel Performance Results ................................37 Wheel-by-Wheel Performance Results ....................................................37

Compressor Profile Results .............................................................................38 Dimensions of MCompr Profile Results ....................................................38 MCompr Profile Results ........................................................................38 MCompr Cooler Profile Results...............................................................39

Heat Exchanger Results .................................................................................40 Number of Detailed Results...................................................................40 Detailed Results ..................................................................................40 Velocity and Pressure Results................................................................41 Heat Exchanger Results Dimensions.......................................................41 Heat Exchanger Zone Results................................................................42 Heat Exchanger Shell Results ................................................................43 Heat Exchanger Tube Results ................................................................43 Heat Exchanger Baffle Results...............................................................44 Heat Exchanger Nozzle Results..............................................................44

Heat Exchanger Profiles .................................................................................45 Heat Exchanger Profile Size ..................................................................45 Heat Exchanger Profile Properties ..........................................................46 Heat Exchanger Profile Results ..............................................................46

Column Results.............................................................................................47 Number of Columns.............................................................................47 Column Profile Dimensions ...................................................................48 Column Profile Properties .....................................................................48 Non-Component-Dependent Column Profiles ...........................................49 Component-Dependent Column Profiles ..................................................49 RadFrac Thermosiphon Reboiler Results..................................................50 Interconnecting Stream and Pumparound Results ....................................51

Additional Data for PetroFrac Models................................................................53 Dimensions of Additional Data...............................................................53

Contents v

Additional Scalar Results Data...............................................................54 Additional PetroFrac Profile Properties ....................................................55 Additional Property Profiles ...................................................................55 Furnace Data for PETROFRAC................................................................56 Component-Dependent Properties for the PetroFrac Furnace......................57 Pumparound Results for PetroFrac Columns ............................................57 Connectivity Data for PetroFrac Strippers................................................58 Additional Data for RateFrac Models .......................................................59 Dimensions of Additional Scalar Data .....................................................59 Additional Scalar Results Data...............................................................59 Dimensions of Component Split Fractions................................................60 Component Split Fractions ....................................................................60 Number of Liquid Phases ......................................................................61

Tray Reports ................................................................................................61 Tray Report Dimensions .......................................................................61 Sequential Tray Report Properties..........................................................62 Specific Tray Report Properties..............................................................63

Tray/Packing Sizing and Rating .......................................................................63 Number of Columns.............................................................................64 Number of Column Sections..................................................................64 Column Section Types and Numbers ......................................................64 Size of a Column Section......................................................................65 Scalar Results for a Column Section .......................................................66 Column Section Profile Properties ..........................................................66 Column Section Profiles........................................................................67

Reactor Results.............................................................................................68 Number of Reactor Substreams .............................................................68 Reactor Profile Dimensions ...................................................................68 Reactor Profile Properties .....................................................................69 Non-Component-Dependent Reactor Profiles ...........................................69 Component-Dependent Reactor Profiles ..................................................70 Number of Components with Component Attribute Results ........................71 Number of Attributes for a Component ...................................................71 Details of a Component Attribute...........................................................71 Component Attribute Results ................................................................72 Number of Continuous Feed Streams .....................................................72 Continuous Feed Stream Results ...........................................................73 RBATCH Vent Accumulator Results.........................................................73 RBatch Vent Profile Results ...................................................................76 Reaction Data .....................................................................................78

Reactor Property Reports ...............................................................................81 Number of Reports for a Reactor Block ...................................................81 Size of a Reactor Property Report ..........................................................81 Sequential Reactor Report Properties .....................................................82 Specific Reactor Report Properties .........................................................83

Pipeline Results.............................................................................................83 Pipeline Results Dimensions ..................................................................84 Non-Component-Dependent Pipeline Inlet and Outlet Conditions ................84 Component-Dependent Pipeline Inlet and Outlet Property Names ...............85 Component-Dependent Pipeline Inlet and Outlet Conditions.......................86 Segment Data Property Names .............................................................86 Pipeline Segment Data .........................................................................87 Pipeline Node Property Names...............................................................87

vi Contents

Pipeline Node Results...........................................................................88 Pipeline Profile Property Names .............................................................88 Pipeline Profile Results .........................................................................89

Pipe Results .................................................................................................89 Pipe Standard Profile Dimensions...........................................................90 Pipe Standard Profile Property Names ....................................................90 Pipe Standard Profile Properties.............................................................90 Pipe Property Reports ..........................................................................91

Block VLE Results..........................................................................................93 Heating/Cooling Curves..................................................................................93

Number of Heating/Cooling Curves for a Block.........................................94 Heating/Cooling Curves for a Block ........................................................94 Size of a Heating/Cooling Curve ............................................................95 Standard Heating/Cooling Curve Results.................................................96 Sequential Heating/Cooling Curve Properties ...........................................96 Specific Heating/Cooling Curve Properties ...............................................97 Interconnecting Stream IDs ..................................................................98

4 Stream Result Subroutines................................................................................99 Stream Identification .....................................................................................99

Listing Stream IDs...............................................................................99 Determining the Next Stream..............................................................100

Material Stream Results ...............................................................................100 Retrieving Basic Stream Information ....................................................100 Listing Substream IDs........................................................................101 Retrieving Stream Results ..................................................................101 Retrieving a Single Stream Property.....................................................102

Heat and Work Stream Results......................................................................102 Component Attribute Results ........................................................................103

Determining the Number of Components with Attributes .........................103 Determining Number of Attributes for a Component ...............................104 Determining Component Attribute Size.................................................104 Retrieving Component Attribute Values ................................................105

Substream Attribute Results .........................................................................105 Determining the Number of Substream Attributes ..................................105 Determining Substream Attribute Size..................................................106 Retrieving Substream Attribute Values .................................................106

Stream Property Set Results .........................................................................107 Determining Dimensions of Stream Property Values ...............................107 Retrieving Stream Property Results......................................................107

5 Physical Property Table Results Subroutines...................................................109 Property Table Identification .........................................................................110 Property and Flashcurve Table Results ...........................................................110

Determining Property Table Dimensions ...............................................110 Retrieving Sequential Properties in a Table............................................111 Retrieving Specific Properties from a Table............................................111

Pressure-Temperature Envelope Results .........................................................112 Determining Dimensions for Properties in the Envelope...........................112 Determining Envelope Dimensions .......................................................113 Retrieving Temperature and Pressure for Envelope Branch ......................113 Retrieving Sequential Envelope Properties.............................................114

Contents vii

Retrieving Specific Envelope Properties.................................................115

6 Costing Results Subroutines............................................................................116 Equipment Item Identification.......................................................................117

Determining Number of Equipment Items .............................................117 Listing Equipment Items.....................................................................117 Determining Next Equipment Item.......................................................117

Equipment Item Results ...............................................................................118 Retrieving Equipment Item Costing Results ...........................................118 Determining Equipment Item Sizing Results ..........................................118 Retrieving Equipment Item Sizing Results .............................................119

7 Pressure Relief Subroutines ............................................................................120 Pressure Relief Block Identification ................................................................121

Determining the Number of Pressure Relief Blocks .................................121 Listing Pressure Relief Blocks ..............................................................121 Determining the Next Pressure Relief Block ...........................................122

Pressure Relief Results.................................................................................122 Determining the Number of Substreams ...............................................123 Determining Dimensions of Pressure Relief Arrays..................................123 Listing Profile Properties .....................................................................124 Retrieving Dynamic Scalar Results .......................................................125 Retrieving Steady-State Scalar Results .................................................126 Retrieving Non-Component-Dependent Dynamic Profiles .........................126 Retrieving Dynamic Component-Dependent Profiles................................127 Retrieving Steady-State Profiles ..........................................................128 Determining Vent Accumulator Profile Dimensions..................................128 Listing Vent Accumulator Profile Properties............................................129 Retrieving Non-Component-Dependent Vent Accumulator Profiles ............129 Retrieving Component-Dependent Vent Accumulator Profiles ...................130 Determining Pressure Relief Vent Profile Dimensions ..............................130 Listing Vent Profile Properties..............................................................131 Retrieving Position-Dependent Vent Profiles ..........................................131 Retrieving Component-Dependent Vent Profiles .....................................132

8 Examples.........................................................................................................133 Example 1: Stream Heat and Material Balance Table Generation ........................133

Declaring Variables and Dimensioning ..................................................133 Initializing the Toolkit ........................................................................134 Finding Number of Streams ................................................................135 Finding Component Molecular Weight ...................................................135

Writing Stream Table...................................................................................136 Example 2: Interactive Heating/Cooling Curve Table Generation ........................139

Declaring Variables............................................................................139 Initializing the Toolkit ........................................................................139 Finding Number of Blocks ...................................................................139 Finding Blocks with Heating/Cooling Curves ..........................................140 Prompting for Block Name ..................................................................141 Finding Heating/Cooling Curves for Selected Block .................................141 Finding Dimensions of Heating/Cooling Curve........................................142 Retrieving Standard Heating/Cooling Curve Results ................................142

viii Contents

Retrieving Property Sets.....................................................................143 Example 3: Column Profile Results Written to Plot File ......................................146

Opening Files and Initializing Toolkit ....................................................146 Finding List of Blocks .........................................................................147 Finding List of Properties ....................................................................147 Retrieving Selected Property Profile .....................................................148 Closing the Application.......................................................................148

Example 4: Distillation Column Diagram Generation.........................................150 Initializing the Toolkit ........................................................................150 Retrieving Basic Block Results .............................................................150 Retrieving Inlet and Outlet Stream Flows ..............................................151 Finding Inlet and Outlet Stream IDs.....................................................152

9 XML Summary File...........................................................................................154

A Units ...............................................................................................................156 Table A.1 - Units Options .............................................................................158

B Property Names ..............................................................................................167 Table B.1 - Standard Property Names ............................................................168 Table B.2 - Mixture Thermodynamic Properties................................................180

Volume............................................................................................180 Flow Rates, Fractions .........................................................................180 Enthalpy, Entropy, Gibbs Energy, Heat Capacity ....................................180 Other properties................................................................................181

Table B.3 - Thermodynamic Properties of Components in Mixtures .....................182 Table B.4 - Pure Component Thermodynamic Property Sets ..............................183 Table B.5 - Electrolyte Property Sets..............................................................184 Table B.6 - Transport Properties....................................................................185

Mixture............................................................................................185 Component in a Mixture .....................................................................185 Pure Components..............................................................................185

Table B.7 - Petroleum-Related Properties for Mixtures ......................................185 Distillation Curves .............................................................................186 Distillation Temperature .....................................................................186 Distillation Volume and Weight Percent.................................................187 Bulk Petroleum Property Values from Assay Curves ................................187 Petroleum Cuts .................................................................................188 Petroleum Property Curves .................................................................189

Table B.8 - Elemental Analysis of Mixtures ......................................................190 Table B.9 - Nonconventional Component Properties..........................................191 Table B.10 - Property Names for Costing Results .............................................191

Equipment Type: HEATX ....................................................................191 Equipment Type: AIRCOOL .................................................................191 Equipment Type: FIRED-HEATER .........................................................192 Equipment Type: PUMP ......................................................................192 Equipment Type: COMPR....................................................................193 Equipment Type: BLOWER..................................................................193 Equipment Type: TRAY-TOWER ...........................................................194 Equipment Type: TRAY-TOWER Section Results .....................................194 Equipment Type: USER ......................................................................194

Contents ix

Equipment Type: V-VESSEL ................................................................195 Equipment Type: H-VESSEL................................................................195 Equipment Type: TANK ......................................................................196

Index ..................................................................................................................197

x Contents

Who Should Read this Guide 1

Who Should Read this Guide

The intended audience for this toolkit is application developers who need to get information from Aspen Plus simulations into their applications, and prefer a file based data transfer to data transfer through OLE Automation.

2 Introducing Summary File Toolkit

Introducing Summary File Toolkit

An Aspen Plus summary file is an ASCII file produced by Aspen Plus for every simulation run, containing all the results for that run. The Summary File Toolkit is a set of Fortran subroutines that you can use to build a program to extract results from an Aspen Plus summary file.

This reference manual describes the Summary File Toolkit and how to build programs using the toolkit.

The manual assumes that you are familiar with Fortran, Aspen Plus, and the results of an Aspen Plus simulation.

There is also an XML Results file available from Aspen Plus which can be processed by standard XML tools. See Chapter 9 for some information about this file.

Related Documentation Title Content

Aspen Plus Getting Started Building and Running a Process Model

Tutorials covering basic use of Aspen Plus. A prerequisite for the other Getting Started guides

Aspen Plus Getting Started Modeling Processes with Solids

Tutorials covering the Aspen plus features designed to handle solids

Aspen Plus Getting Started Modeling Processes with Electrolytes

Tutorials covering the Aspen plus features designed to handle electrolytes

Aspen Plus Getting Started Using Equation-Oriented Modeling

Tutorials covering the use of equation-oriented models in Aspen Plus

Aspen Plus Getting Started Customizing Unit Operation Models

Tutorials covering the development of custom unit operation models in Aspen Plus

Aspen Plus Getting Started Modeling Petroleum Processes

Tutorials covering the Aspen Plus features designed to handle petroleum

Introducing Summary File Toolkit 3

Title Content

Aspen Plus User Guide Procedures for using Aspen Plus

Aspen Plus Reference Manual Series Detailed information about Aspen Plus

Aspen Plus Application Examples A suite of examples illustrating capabilities of Aspen Plus

Aspen Engineering Suite Installation Manual

Instructions for installing Aspen Plus and other Aspen Engineering Suite products

Technical Support AspenTech customers with a valid license and software maintenance agreement can register to access the online AspenTech Support Center at:

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Customer support is also available by phone, fax, and email. The most up-to-date contact information is available at the AspenTech Support Center at http://support.aspentech.com.

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4 1 Getting Started

1 Getting Started

This chapter describes how to build an application program using the Aspen Plus Summary File Toolkit. It contains information on:

• The summary file and toolkit.

• Initializing the toolkit.

• Determining data dimensions.

• Retrieving data for an object.

• Using the toolkit with a hierarchical Aspen Plus run.

• Linking toolkit subroutines into your module.

• Creating a toolkit application for Windows.

• Transferring the toolkit to another computer.

1 Getting Started 5

The Summary File and Toolkit The summary file is an ASCII file produced by Aspen Plus for every simulation run. This file contains the summary of simulation results, such as block results, stream values, tray profiles, heating/cooling curves, and property tables. The information in a summary file is also contained within the Aspen Plus backup file. Summary files are named according to the form runid.SUM. Backup files are named according to the form runid.BKP.

The summary file toolkit is a set of Fortran subroutines that retrieve results information from the Aspen Plus summary file and backup file. (Use the backup file with results, in place of the summary file, in procedures throughout this manual.)

The subroutines are organized around the logical structure of the data. You can retrieve selected results. Or you can retrieve all the results of a simulation or simulation object (such as unit operation blocks or streams). The Fortran source code for the subroutines is provided so that you can build applications on any computer.

The Fortran source code is delivered in a self-extracting zip archive named toolkit.exe in the Engine\Utl directory of the Aspen Physical Property System installation (typically C:\Program Files\APrSystem <version>\Engine\Utl\toolkit.exe).

The DLL is stored in the Engine\xeq directory of the Aspen Physical Property System installation (typically C:\Program Files\APrSystem <version>\Engine\xeq\zetoolkit.dll).

To use the summary file toolkit, an application program must perform three steps:

1 Initialize the toolkit for a summary file.

2 Get the dimensions of the data to be retrieved.

3 Retrieve the data.

These three steps are described in the following sections.

Initializing the Toolkit You must initialize the toolkit for a summary file before you can retrieve data. The initialization process consists of:

1 Accessing the required files and setting up directories for fast data access.

2 Defining the units of measurement for all values retrieved from the toolkit.

3 Specifying a value to substitute for missing results.

6 1 Getting Started

Accessing the Required Files You need to include file definitions for the following files during the initialization process. The unit numbers for these files must match those specified in the call to toolkit initialization routine TKINIT or TKINI2.

File Description

Summary file The summary file

Properties file A file defining the names of results within the summary file

Units file A file containing units conversion information

Scratch file A temporary direct access file for fast access to summary file results

Defining the Summary File To define the summary file, use the subroutine TKOPEN. See Chapter 2 for more information.

Getting the Summary File Name Because the summary file may be different each time the toolkit application is executed, some input to the program is required to determine the summary file name. If the application program has an existing method of passing information into the program, use this method to pass the summary file name to the program.

Otherwise, the three principal ways the program can get the file name are by:

1 Prompting the user at the terminal.

2 Reading the file name from the command line.

3 Reading the file name from a file.

Prompting the user is the easiest method for most operating systems. Fortran READ and WRITE statements are used to get the file name.

Getting Property and Units File Names The properties file, RCPROPNU.DAT, and the units file, RCUNITS.DAT, are installed in the toolkit subdirectory of the Aspen Plus Simulation Engine installation. The Engine directory should be set as the value of the %asptop% environment variable.

1 Getting Started 7

Example of Environment Variable for Windows

When running in an Aspen simulation engine window, the environment variable ASPTOP points to the top level supplementary directory for Aspen Plus. The TOOLKIT directory is a subdirectory of this directory. You can use the following code to expand the file specification:

GETENV('ASPTOP', ASPTOP) DO 50 I = 80, 1, -1 TOP(I:I) .NE. ' ') GO TO 55 V(‘ASPTOP’, ASPTOP) 80, 1, -1 ASPTOP(I:I) .NE. ' ') GO TO 55 ASPTOP(1:I) // '\TOOLKIT\RCPROPNU.DAT' ASPTOP(1:I) // '\TOOLKIT\RCUNITS.DAT'

Scratch File Units Number The direct access file is used to provide fast access to data in the summary file after initialization. The units number you specify for this file should not be used by the application program.

Defining Units of Measurement As part of the toolkit initialization process, you must specify a base units set in which the results will be returned. The base units set defines the units of measurement for each physical quantity (units type).

The base units sets available are SI, ENG, MET, and OUT. To customize a units set to change the output units of measurement for one or more physical quantities, or convert a result to another unit of measurement, use the subroutines described in Chapter 2. See Appendix A for other conversion options.

Specifying a Value for Missing Results If you make calls to the toolkit to retrieve results, and a requested result is missing, the toolkit returns a special value in place of the result. As part of the toolkit initialization process, you specify this value by assigning it to the argument RMISS in the call to routine TKINIT or TKINI2. Choose a value that will not be mistaken for a real result. A very large value (greater than 1E20) is recommended.

8 1 Getting Started

Determining the Data Dimensions The toolkit data retrieval routines require you to know the data dimensions before a retrieval is done. With these dimensions in mind, you must allocate space inside your application program for the data before retrieving it. Determining data dimensions includes:

1 Querying the summary file for the existence of simulation objects and data within an object.

2 Defining the size of the data for a simulation object.

The subroutine TKINFO returns the number of blocks, streams, property tables, and sensitivity tables in the summary file.

Each type of simulation object has a subroutine to find the next object in sequence. These subroutines are:

Object Type Subroutine to Find Next Object

Blocks TKNBLK

Streams TKNSTR

Property tables TKNPPT

Sensitivity tables TKNEXT

Equipment item TKNEQP

Pressure relief TKNXPR

Each of these subroutines has a sequence number as an argument. The sequence number identifies the position of the object within the summary file. For example, a sequence number of five for TKNBLK indicates the fifth unit operation block in the summary file. Except for sensitivity objects and pressure relief, the subroutine also returns information about the type of object: the unit operation model type for a block, the type of stream (MATERIAL, HEAT, or WORK), or the type of property table.

The data available for an object are organized by the type of data. For example, block data is organized into a standard results set, connectivity information, heating/cooling curve data, profile data, and property set profile data. Each type of data has a routine that returns the dimensions of the data. Chapters 2 through 7 describe the toolkit routines for determining the dimensions of data and retrieving it. If a type of data is not available for an object, dimension values of zero are returned.

Retrieving Data for an Object Once the dimensions for data are known, you can retrieve the data by calling the appropriate routine. Each result returned is identified by a property name. Appendix B contains a list of property names and their descriptions.

In addition to property names, some results have qualifiers to further identify the data. For example, for an FSPLIT block, the split fractions for each outlet

1 Getting Started 9

stream are returned. The stream ID of the outlet stream is returned as a qualifier for the result.

You can use single subroutine calls to retrieve standard results for blocks, streams, heating/cooling curves, and pressure-temperature envelopes. Standard tray or reactor profiles are retrieved one profile at a time. You can identify property set results by the property set qualifiers:

Qualifier Description

PNAME Property name. See Appendix B for a description.

SUBSID Substream ID

PHASE Phase (VAPOR, LIQUID, LIQUID1, LIQUID2, TOTAL, SOLID)

COMPID Component ID

WETDRY Wet/dry basis (WET or DRY) †

BASIS Unit basis for properties with multiple units ††

† Can be left unspecified. †† Valid values for the basis are MOLE, MASS and FLOW. MOLE and MASS apply to density (specifying mole density and mass density), entropy (specifying mole entropy and mass entropy), and heat capacity (specifying mole heat capacity and mass heat capacity). MOLE and FLOW apply to volume (specifying mole volume and volume flow). MOLE, MASS and FLOW apply to enthalpy (specifying mole enthalpy, mass enthalpy, and enthalpy flow).

Before calling a subroutine, make sure that all the qualifiers are set to the desired values or unset. If you do not unset a qualifier from a previous value, unexpected results may be returned.

All values with physical dimensions are returned in the units you specify during the initialization process. The units label and the units type are usually returned with the value. When the physical dimensions of a property are always known, the units information may not be returned. You can call the utility routine TKLABL to return the units label for a value not returned. In addition, you can use the utility routine TKCNVT to convert a value from default units to user-specified units.

Sometimes the retrieved data values are two-dimensional. For example, the column profile routine TKPRO2 returns values for every stage and component combination in a column. The dimension for the results then appears as two dimensions multiplied together. This figure yields the total number of results returned. It also shows the sequence of the results data in the array.

The results array is ordered so that the first dimension can scroll before the second dimension. In the TKPRO2 example, the results are returned in RVALS, which is dimensioned as NCP*NSTAGE (the number of components * the number of stages). The values returned in the RVALS array are ordered so that the results for every component on the first stage are given first, followed by all the results for every component on the second stage, and so on.

10 1 Getting Started

Using the Toolkit With a Hierarchical Aspen Plus Run Most Aspen Plus objects, including hierarchies, can exist within hierarchies. In such cases it is not sufficient to reference an object by type and eight character ID. The object’s ID must contain the full hierarchical path to the object, with each hierarchy name separated by a period (.). For example, if a run contains hierarchy H1, which contains hierarchy H2, which contains block B1, refer to the block as H1.H2.B1.

All toolkit subroutines that accept or return an object ID declare the argument as CHARACTER *(*). When passing such an argument, set up the dimension large enough to hold the hierarchical ID. If referencing a non-hierarchical problem, declaring the ID arguments as CHARACTER*8 is sufficient.

Note: The length must be larger for hierarchical problems. A declaration of CHARACTER*128 is always sufficient.

The toolkit always returns IDs with full path name. For example, TKNBLK, which lists the blocks in a run, cycles through all blocks in all hierarchy levels, returning IDs with full path name.

Block, stream, pressure relief, property table, and sensitivity IDs are hierarchical. Property name, substream, phase, and component IDs are not.

Note: It is not possible to cycle through all blocks in a single hierarchy level.

Linking Toolkit Subroutines into Your Module After you write or modify your application program to call the appropriate toolkit subroutines to retrieve the data, you must build an executable module, including the toolkit routines. The object code for the toolkit subroutines is stored in a dynamic link library for Windows, which is delivered with Aspen Plus.

To link to this library, include %asptop%\toolkit\zetoolkit.lib in the linker directive, where %asptop% represents the Engine installation directory.

Creating a Toolkit Application for Windows The source code, in the form of a self-extracting executable, and dynamic link library (DLL) for the summary file toolkit are located in the toolkit directory of the Aspen Plus Simulation Engine installation.

1 Getting Started 11

About the Windows Version The Windows version of the summary file toolkit consists of two files:

File Name Description

zetoolkit.dll The summary file toolkit dynamic-link library. This file is stored in the Engine\xeq subfolder of the APrSystem installation, typically C:\Program Files\APrSystem <version>\Engine\xeq\zetoolkit.dll

zetoolkit.lib Import library. This file contains the external references to the summary file toolkit routines in zetoolkit.dll. This file is stored in the Engine\toolkit subfolder of the Aspen Plus installation, along with the Fortran source files.

The DLL and LIB are compiled and linked with Intel Fortran 9.1.

If you are using the summary file toolkit as part of a full installation of Aspen Plus, you can compile and link toolkit applications with the Fortran compiler for your Operating System. Make sure you are set up for running Aspen Plus. Aspen Plus provides procedures to help use the Aspen Plus Fortran utilities. The following table summarizes these procedures:

To do this Enter these commands

Compile a Fortran routine ASPCOMP appname

Link an application executable link @appname.opt

Run a previously linked executable appname.exe

Where:

appname = The file name of the main Fortran application. Do not include the file extension when specifying the file name. ASPCOMP will accept Fortran files with the extension .for.

appname.opt = Text file containing the linker directive commands. For more information, see the following section, Linker Directive Commands for Windows.

Linker Directive Commands for Windows The linker directive file contains a set of commands that control the generation of the linked executable. Any object files or libraries you want to be included in the linked executable must be listed in the linker directive file.

The standard set of commands required to link a toolkit application are shown for a toolkit application named tkexampl.

Example of Linker Directive File nCRTStartup -entry:mainCRTStartup msvcrt.lib -nodefaultlib:libc.lib

12 1 Getting Started

dfordll.lib -nodefaultlib:dfor.lib c:\Engine\toolkit\zetoolkit.lib tkexample.obj -out:tkexample.exe

Substitute c:\Engine with the appropriate drive and directory location where the Aspen Plus Simulation Engine is installed. Replace tkexample with the name of your application. Add any additional object files and libraries you need to this directive file.

After creating the linker directive file for your application, you can use the link and run commands to generate and run your application's executable program.

Calling Summary File Toolkit Routines The files are compiled so that the summary file toolkit routines use the default calling and naming conventions for the Fortran compiler. These are similar to the stdcall convention, except:

• All routine names are in uppercase.

• All arguments are passed by reference.

• There is a hidden string length argument when character strings are passed.

Applications calling the DLL should use this convention. Please see your compiler documentation about calling Fortran routines and hidden string length arguments.

Fortran applications can call the routines in the Summary File Toolkit without any code modifications. If you want to call the Summary File Toolkit from another language, you will have to modify the code to work with the Fortran conventions adopted, but this is not recommended. Instead, export an XML summary file and use standard XML tools to process it.

Opening and Closing Files Using the Summary File Toolkit You must be careful with file input and output when using the Summary File Toolkit. You must observe the following practices:

• Open and close the summary file with TKOPEN and TKCLFL.

• Open and close the log file optionally used in TKINI2, with TKOPEN and TKCLFL.

• Close the toolkit with TKCLOS, at the end of each run.

• Close the summary file and the log file with TKCLFL, at the end of each run.

• Do not use TKOPEN and TKCLFL for opening and closing the files your application reads from or writes to.

1 Getting Started 13

Using Fortran to Call Routines Use the Fortran default naming and calling conventions for calls to the summary file toolkit shared library, when compiling code. You do not have to carry out any special steps to call the summary file toolkit routines.

When linking the application, make sure a reference to the zetoolkit shared library is included in the list of libraries, and that its pathname is included in the list of library directories.

You must write your code and any setup procedures so that the zetoolkit shared library is in your run time path.

Changes in the Toolkit AspenTech tries to avoid changing the arguments to these routines but occasionally changes are necessary. Sometimes these changes are made to support changes in Aspen Plus; because of this, sometimes old versions of the toolkit will not work with newer summary files. However, the latest version of the toolkit should always work with all older Aspen Plus summary files.

The changes likely to affect users are listed here:

In version 11.1, all of the arguments holding stream IDs and block IDs (including sensitivity blocks and the like) became variable length, changing from CHARACTER*8 to CHARACTER*(*) to support hierarchy. See Using the Toolkit With a Hierarchical Aspen Plus Run on page 10 for more info.

In version 12.1, the filename argument in TKOPEN changed from CHARACTER*80 to CHARACTER*(*) to support using the toolkit with summary files with long file paths, although the documentation was not updated to reflect this change until version 2006. We recommend using a CHARACTER of length 256 to hold this filename, as there may be other problems with a longer file path.

14 2 General Subroutines

2 General Subroutines

This chapter describes the purpose and use of subroutines in the Aspen Plus Summary File Toolkit. Use the subroutines described in this chapter for:

• Initializing the summary file toolkit.

• Retrieving run information.

• Retrieving flowsheet balance results.

• Setting and changing units of measurement.

• Retrieving component information.

• Retrieving sensitivity results.

2 General Subroutines 15

Initializing the Summary File Toolkit Before you can retrieve any results from a summary file, you must call subroutine TKINIT or TKINI2 to initialize the summary file toolkit.

TKINIT assigns Fortran unit numbers and unit names for files used by the toolkit. See Initializing the Toolkit, Chapter 1, for information on identifying the necessary files.

The scratch file is a direct access file used by the toolkit to store intermediate data. You must supply a Fortran unit number for the scratch file.

To open the summary file and connect it to a unit number, you can:

• Use a Fortran OPEN statement in your program.

• Call TKOPEN routine (see Opening and Closing Files, this chapter), if using the Windows DLL.

The property number file and the unit definition file are delivered with Aspen Plus. The file names you specify to call TKINIT depend on the computer and operating system you are using (see Getting Property and Units File Names, Chapter 1).

TKINIT sets the default units set for all results data to the value of UNISET. This can be one of four values: SI, ENG, MET, or OUT. The first three values correspond to the Aspen Plus units sets with these names. OUT can be used to retrieve the results from the summary file without any UOM conversion. The data is retrieved in the same units as the Aspen Plus out units for the run.

Calling Sequence for TKINIT CALL TKINIT (UNISET, IDIRAC, ISUMMF, IPROPN, RCPROP, IUNITS, RCUNIT, RMISS, IERR)

Argument List Descriptions for TKINIT Variable I/O † Type Dimension Description

UNISET I CHARACTER*4 — Units set for retrieved values (SI, ENG, MET, or OUT)

IDIRAC I INTEGER — Fortran unit number for scratch file

ISUMMF I INTEGER — Fortran unit number for summary file

IPROPN I INTEGER — Fortran unit number for property numbers file

RCPROP I CHARACTER*80 — File name for property numbers file

IUNITS I INTEGER — Fortran unit number for units definition file

RCUNIT I CHARACTER*80 — File name for units definition file

RMISS I REAL*8 — Real value flag for missing values


Variable I/O † Type Dimension Description

IERR O INTEGER — Error flag (0=No error)

† I = Input to subroutine, O = Output from subroutine

If you initialize the toolkit with TKINIT, Aspen Plus writes errors or warnings from the toolkit run to the screen. TKINI2 works in the same way as TKINIT, except that it allows you to specify a Fortran unit number for error and warning messages. This is useful for applications where messages should not be written directly to the screen. Like the summary file, this file should already be opened before calling TKINI2. If you specify a negative unit number for the error and warning messages, they are turned off.

Calling Sequence for TKINI2 CALL TKINI2 (UNISET, IDIRAC, ISUMMF, IPROPN, RCPROP, IUNITS, RCUNIT, RMISS, IERR, ILOG)

Argument List Descriptions for TKINI2 Variable I/O † Type Dimension Description

UNISET I CHARACTER*4 — Units set for retrieved values (SI, ENG, MET or OUT)




RCPROP I CHARACTER*80 — File name for property numbers file


RCUNIT I CHARACTER*80 — File name for units definition file

RMISS I REAL*8 — Real value flag for missing values


ILOG I INTEGER — Fortran Unit number for log file. Negative for no messages.


Closing the Summary File Toolkit Call subroutine TKCLOS to close a summary file toolkit run. TKCLOS closes files opened by TKINIT or TKINI2, so the argument list should use the corresponding values passed to TKINIT or TKINI2. The summary file is not closed by this routine, but is instead rewound to its first record. Use TKCLFL to close it.


Calling Sequence for TKCLOS CALL TKCLOS (ISUMMF, IDIRAC, IPROPN, IUNITS)

Argument List Descriptions for TKCLOS Variable I/O † Type Dimension Description






Opening and Closing Files Two routines are provided to open and close files with a specified Fortran unit number. If you are using a DLL version of the summary file toolkit, you must use these routines to open and close the summary file, and any log file used by TKINI2. Unless you do so, the summary file toolkit DLL will not recognize the Fortran unit numbers you pass it for these files. When using the DLL, you should not call these routines to open and close files your code accesses.

Call subroutine TKOPEN to open the file with the specified Fortran unit number.

Calling Sequence for TKOPEN CALL TKOPEN (IUNIT, FILNAM, ACCESS, FORM, IRECL, STATUS, MODE, IERR)

Argument List Descriptions for TKOPEN Variable I/O † Type Dimension Description

IUNIT I INTEGER — Unit number of the file being opened

FILNAM I CHARACTER*(*) — Name of file to open

ACCESS I CHARACTER*16 — File access (SEQUENTIAL, DIRECT)

FORM I CHARACTER*16 — I/O format (FORMATTED, UNFORMATTED)

IRECL I INTEGER — Record length

STATUS I CHARACTER*16 — File status (SCRATCH, OLD, NEW, UNKNOWN)

MODE I CHARACTER*16 — Open mode (READ, WRITE)

IERR O INTEGER — Error flag (0=No error, 1=Invalid argument, >0= IOSTAT error)



Call subroutine TKCLFL to close the file with the specified Fortran unit number.

Calling Sequence for TKCLFL CALL TKCLFL (IUNIT, IERR)

Argument List Descriptions for TKCLFL Variable I/O † Type Dimension Description

IUNIT I INTEGER — Unit number of the file being closed



Retrieving Run Information Use the subroutines in this section to retrieve general information about the run.

• Call TKINFO to obtain standard information about a run.

• Call TKTITL to obtain the run title.

• Call TKACCT to obtain run accounting information.

Standard Run Information Call subroutine TKINFO to retrieve the following standard information about a run:

• Aspen Plus release name.

• Run ID of the Aspen Plus run.

• Date of the run.

• Input file name.

• Input translator status.

• Simulation program status.

• Number of simulation objects (blocks, streams, property tables, sensitivity tables).

Calling Sequence for TKINFO CALL TKINFO (VERSN, RUNID, DATE, INFILE, ISSTAT, ISTAT, NBLOCK, NSTRM, NTABLE, NSENS)


Argument List Descriptions for TKINFO Variable I/O † Type Dimension Description

VERSN O CHARACTER*20 — Aspen Plus release name

RUNID O CHARACTER*8 — Aspen Plus run ID

DATE O CHARACTER*80 — Date of Aspen Plus run

INFILE O CHARACTER*80 — Aspen Plus input file name

ISSTAT O INTEGER — Input translator completion code

ISTATF O INTEGER 6 Simulation status flags for each element. See ISTATF, below.

NBLOCK O INTEGER — Number of blocks

NSTRM O INTEGER — Number of streams

NTABLE O INTEGER — Number of property tables

NSENS O INTEGER — Number of sensitivity tables


ISTATF

The values are: 0 = Completed without errors, 1 = Completed with errors, 2 = None in this simulation,

The elements represent: ISTATF(1): Block status, (2): Convergence status, (3): Sensitivity status, (4): Case study status, (5): Stream calculation status, (6): Fortran and transfer status

Run Titles Call subroutine TKTITL to retrieve the run title.

Calling Sequence for TKTITL CALL TKINFO (TITLE)

Argument List Descriptions for TKTITL Variable I/O † Type Dimension Description

TITLE O CHARACTER*64 — Run title



Accounting Information Call subroutine TKACCT to obtain accounting information for a run. Accounting information is only available if requested in the Aspen Plus input.

Calling Sequence for TKACCT CALL TKACCT (ACCNT, PROJID, PRNAME, USER, IERR)

Argument List Descriptions for TKACCT Variable I/O † Type Dimension Description

ACCNT O CHARACTER*8 — Account number

PROJID O CHARACTER*8 — Project ID

PRNAME O CHARACTER*32 — Project name

USER O CHARACTER*20 — User name



Retrieving Flowsheet Balance Results Call subroutine TKFLWB to retrieve the absolute and relative differences for:

• Total mole balance.

• Total mass balance.

• Enthalpy balance.

• Mole balance for each conventional component.

• Mass balance for each nonconventional component.

Calling Sequence for TKFLWB CALL TKFLWB (ABSMOL, RELMOL, ABSMAS, RELMAS, ABSENT, RELENT, NCC, ABSCON, RELCON, NNCC, ABSNC, RELNC, IERR)


Argument List Descriptions for TKFLWB Variable I/O † Type Dimension Description

ABSMOL O REAL*8 — Absolute mole balance difference (UNITS=MOLE-FLOW)

RELMOL O REAL*8 — Relative mole balance difference

ABSMAS O REAL*8 — Absolute mass balance difference (UNITS=MASS-FLOW)

RELMAS O REAL*8 — Relative mass balance difference

ABSENT O REAL*8 — Absolute enthalpy balance difference (UNITS=ENTHALPY-FLOW)

RELENT O REAL*8 — Relative enthalpy balance difference

NCC I INTEGER — Number of conventional components

ABSCON O REAL*8 NCC Absolute mole balance difference for each conventional component (UNITS=MOLE-FLOW)

RELCON O REAL*8 NCC Relative mole balance for each conventional component

NNCC I INTEGER — Number of nonconventional components

ABSNC O REAL*8 NNCC Absolute mass balance difference for each nonconventional component (UNITS=MASS-FLOW)

RELNC O REAL*8 NNCC Relative mass balance difference for each nonconventional component



Units Conversion Use the subroutines in this section to:

• Change the units set for results.

• Convert units for individual results.

• Find units labels for results.

Changing Units Sets Values retrieved from the summary file are converted to the current units set. The variable SETID takes the same values as UNISET does in TKINIT and TKINI2. The units set is initially defined in the call to subroutine TKINIT or TKINI2. You can change the units set at any point in your program, by calling subroutine TKUNIT.

Use TKUNIT to define a new base units set and any units' options that should override the units' options in the base set.


Calling Sequence for TKUNIT CALL TKUNIT (SETID, NTYPES, TYPES, LABELS, IERR)

Argument List Descriptions for TKUNIT Variable I/O † Type Dimension Description

SETID I CHARACTER*4 — Base units set (SI, ENG, MET, or OUT)

NTYPES I INTEGER — Number of units types to change from the base set

TYPES I CHARACTER*12 NTYPES List of units' types to change from the base set. See Appendix A for a list of valid units' types.

LABELS I CHARACTER*16 NTYPES List of units labels for the units types to change from the base set. See Appendix A for a list of valid units' labels.



Converting Units for Real Numbers Call subroutine TKCNVT to perform units conversion on a result or an array of results. TKCNVT converts values from the current units set to units specified by a unit's label. TKCNVT will not convert a result if the current units set is OUT units. (There is no such thing as a current unit for a particular units type with OUT units.)

Calling Sequence for TKCNVT CALL TKCNVT (TYPE, LABEL, NVAL, RVALI, RVALO)

Argument List Descriptions for TKCNVT Variable I/O † Type Dimension Description

TYPE I CHARACTER*12 — Units type. Valid units' types are shown in Appendix A.

LABEL I CHARACTER*16 — Units label for output. See Appendix A for a list of valid units' labels.

NVAL I INTEGER — Number of values to convert

RVALI I REAL*8 NVAL Array of values to be converted. These values are assumed to be in the current units set.

RVALO O REAL*8 NVAL Array of converted values



Determining Units Labels Call subroutine TKLABL to determine the units' labels for a list of units' types in the current units set. TKLABL will not retrieve a label for a type if the current units set is OUT units. (There is no such thing as a current unit for a particular units type with OUT units.)

Calling Sequence for TKLABL CALL TKLABL (NTYPES, TYPES, LABELS)

Argument List Descriptions for TKLABL Variable I/O † Type Dimension Description

NTYPES I INTEGER — Number of units types

TYPES I CHARACTER*12 NTYPES Units types. See Appendix A for a list of valid units' types.

LABELS O CHARACTER*16 NTYPES Units labels


Component Information Retrieval Use the subroutines in this section to retrieve information about the components in the simulation:

• TKCOMP gets the number of components in the simulation.

• TKCIDS gets the list of component IDs.

• TKALIS gets lists of conventional components and their formulas (alias names).

• TKCPRP retrieves component properties, such as molecular weight, boiling point, and standard volume.

Number of Components Call subroutine TKCOMP to determine the number of components in a simulation. TKCOMP returns the number of both conventional and nonconventional components.

Calling Sequence for TKCOMP CALL TKCOMP (NCC, NNCC)


Argument List Descriptions for TKCOMP Variable I/O † Type Dimension Description

NCC O INTEGER — Number of conventional components

NNCC O INTEGER — Number of nonconventional components


Component IDs Call subroutine TKCIDS to retrieve the component IDs for conventional and nonconventional components.

Calling Sequence for TKCIDS CALL TKCIDS (NCC, NNCC, COMPID, COMPNC)

Argument List Descriptions for TKCIDS Variable I/O † Type Dimension Description


NNCC I INTEGER — Number of nonconventional components

COMPID O CHARACTER*8 NCC Component IDs for conventional components

COMPNC O CHARACTER*8 NNCC Component IDs for nonconventional components


Component Alias Names Call subroutine TKALIS to retrieve conventional component IDs and their formulas (aliases).

Calling Sequence for TKALIS CALL TKALIS (NCC, COMPID, ALIAS, IERR)

Argument List Descriptions for TKALIS Variable I/O † Type Dimension Description


COMPID O CHARACTER*8 NCC Conventional component IDs

ALIAS O CHARACTER*12 NCC Alias corresponding to component IDs




Component Properties Call subroutine TKCPRP to retrieve component properties for conventional components. The properties that you can retrieve are molecular weight, boiling point, and standard volume.

Calling Sequence for TKCPRP CALL TKCPRP (PROP, NCC, RVALS, LABEL)

Argument List Descriptions for TKCPRP Variable I/O † Type Dimension Description

PROP I CHARACTER*8 — Property name (MW, TB, or VSTD)

NCC I INTEGER — Number of components

RVALS O REAL*8 NCC Property values (units are TEMPERATURE for TB and MOLE-VOLUME for VSTD)

LABEL O CHARACTER*16 — Units label


Sensitivity Block Results You can retrieve sensitivity table results from the summary file, using the following three-step process:

1 Call TKNEXT to identify the next sensitivity block.

2 Call TKNSEN to retrieve the number of points and the number of columns in the table.

3 Call TKSENS to retrieve the values for the table and the headers for the columns.

Identifying Sensitivity Blocks Call subroutine TKNEXT to find the name of the next sensitivity block.

To find the block ID of the first sensitivity block, set IOFF to 1. To find the name of the second block, set IOFF to 2, and so on.

Calling Sequence for TKNEXT CALL TKNEXT (TYPE, IOFF, ID1, ID2, IERR)

Argument List Descriptions for TKNEXT Variable I/O † Type Dimension Description

TYPE I CHARACTER*12 — Object type (set to SENSITIVITY for sensitivity blocks)

IOFF I INTEGER — Sequence number



ID1 O CHARACTER*(*) — First ID of the object. For sensitivity blocks, it is the block ID. Returns complete hierarchy specification.

ID2 O CHARACTER*12 — Second ID of the model name, for the object. For sensitivity blocks, it is blank.



Determining Sensitivity Dimensions Call subroutine TKNSEN to determine the number of points and number of columns in the sensitivity table.

Calling Sequence for TKNSEN CALL TKNSEN(SENSID, NPOINT, NCOL, IERR)

Argument List Descriptions for TKNSEN Variable I/O † Type Dimension Description

SENSID I CHARACTER*(*) — Sensitivity block ID

NPOINT O INTEGER — Number of points in table

NCOL O INTEGER — Number of columns in table



Retrieving Sensitivity Results Call subroutine TKSENS to retrieve the results for a sensitivity table. The columns are identified by the variable HEADER. The actual argument to RVALS should be declared as a one-dimensional array of length, equal to or greater than (NPOINT * NCOL). The results in each column are stored consecutively.

Calling Sequence for TKSENS CALL TKSENS (SENSID, NPOINT, NCOL, HEADER, RVALS, IERFLG, IERR)

Argument List Descriptions for TKSENS Variable I/O † Type Dimension Description

SENSID I CHARACTER*(*) — Sensitivity block ID (Full hierarchical path)

NPOINT I INTEGER — Number of points in table

NCOL I INTEGER — Number of columns in table

HEADER O CHARACTER*8 6, NCOL Table header of each table column



RVALS O REAL*8 NPOINT* NCOL

Results for sensitivity table

IERFLG O INTEGER NPOINT Error flag for each row of table (0=No error)



28 3 Block Result Subroutines

3 Block Result Subroutines

This chapter describes the use of block result retrieval subroutines in the summary file toolkit. Use the subroutines described in this chapter for:

• Block identification, connectivity, and results.

• Compressor results.

• Heat exchanger results.

• Column results.

• Tray reports and tray/packing sizing and rating.

• Reactor results and property reports.

• Pipeline results.

• Block vapor-liquid equilibrium (VLE) results.

• Heating/cooling curves.

3 Block Result Subroutines 29

Block Identification The following subroutines are used to identify blocks in the summary file:

• TKBIDS returns a list of blocks in the summary file.

• TKNBLK retrieves the next block ID in sequence.

Both routines return the model type for each block.

Block IDs Call subroutine TKBIDS to get the list of blocks and model types.

Calling Sequence for TKBIDS CALL TKBIDS (NBLOCK, BLKID, BLKTYP, IERR)

Argument List Descriptions for TKBIDS Variable I/O † Type Dimension Description

NBLOCK I INTEGER — Number of blocks. You can find the value of NBLOCK by calling TKINFO.

BLKID O CHARACTER*(*) NBLOCK Block ID (Full hierarchical path)

BLKTYP O CHARACTER*12 NBLOCK Model type



Next Block Call subroutine TKNBLK to find the name of the next unit operation block.

To find the block ID of the first block, set IBLOCK to 1. To find the name of the second block, set IBLOCK to 2, and so on.

Calling Sequence for TKNBLK CALL TKNBLK (IBLOCK, BLKID, BLKTYP, IERR)

Argument List Descriptions for TKNBLK Variable I/O † Type Dimension Description

IBLOCK I INTEGER — Block number

BLKID O CHARACTER*(*) — Block ID

BLKTYP O CHARACTER*12 — Model type




Block Connectivity Information Use the subroutines in this section to retrieve the inlet and outlet stream connectivity for a block. Retrieving the inlet and outlet streams of a block is a two-step process:

1 Call subroutine TKCNTN to find the number of inlet and outlet streams.

2 Call subroutine TKCNCT to retrieve the list of inlet and outlet stream names.

Some blocks have additional connectivity information, such as stage number and column number. For these blocks you can obtain the additional information by calling TKPORT.

Number of Inlet and Outlet Streams Call subroutine TKCNTN to determine the number of inlet streams and outlet streams for a particular block.

Calling Sequence for TKCNTN CALL TKCNTN (BLKID, NIN, NOUT, IERR)

Argument List Descriptions for TKCNTN Variable I/O † Type Dimension Description

BLKID I CHARACTER*(*) — Block ID

NIN O INTEGER — Number of inlet streams

NOUT O INTEGER — Number of outlet streams



Stream Names and Types Call subroutine TKCNCT to retrieve the names of the inlet and outlet streams for a block, along with the stream types (MATERIAL, HEAT, or WORK).

Calling Sequence for TKCNCT CALL TKCNCT (BLKID, NIN, NOUT, BLKIN, TYPIN, BLKOUT, TYPOUT,

IERR)

Argument List Descriptions for TKCNCT Variable I/O † Type Dimension Description


NIN I INTEGER — Number of inlet streams

NOUT I INTEGER — Number of outlet streams

BLKIN O CHARACTER*(*) NIN Inlet stream IDs



TYPIN O CHARACTER*8 NIN Stream type of inlet streams (MATERIAL, HEAT, or WORK)

BLKOUT O CHARACTER*(*) NOUT Outlet stream IDs

TYPOUT O CHARACTER*8 NOUT Stream type of outlet streams (MATERIAL, HEAT, or WORK)



Additional Port Information Call subroutine TKPORT to obtain additional port information on inlet and outlet streams for a block. The additional information includes the port name (for example, F indicating a feed port) and additional identifiers, such as column number and stage number. Only the blocks with the model types shown in Table 3.1 need this subroutine. The outlet types for the other blocks are implicit in the order that the streams are returned by TKCNT. For example, vapor streams are returned before liquid streams.

Calling Sequence for TKPORT CALL TKPORT (BLKID, NIN, NOUT, INPORT, IDIN1, IDIN2, IOPORT,

IDOUT1, IDOUT2, IERR)

Argument List Descriptions for TKPORT Variable I/O † Type Dimension Description


NIN I INTEGER — Number of inlet streams

NOUT I INTEGER — Number of outlet streams

INPORT O CHARACTER*4 NIN Inlet port names

IDIN1 O INTEGER NIN ID1 for inlet streams

IDIN2 O INTEGER NIN ID2 for inlet streams

IOPORT O CHARACTER*4 NOUT Outlet port names

IDOUT1 O INTEGER NOUT ID1 for outlet streams

IDOUT2 O INTEGER NOUT ID2 for outlet streams

IERR O INTEGER — Error flag: 0 = No error 1 = Block ID not found 2 = Block has no port information



Port Information Returned by TKPORT Model Type Port Name Description ID1 ID2

Extract TF BF SF TP BP SP

Top feed Bottom feed Side feed Top product Bottom product Side product

Stage number

—

HeatX HF CF HP CP HWD CWD

Hot feed Cold feed Hot product Cold product Hot water decant Cold water decant

— —

Mcompr S1F IF WS HS FLS LK WD WS HS

Stage1 feed Stage feed Work feed Heat feed Product Liquid knockout Water draw Work out Heat out

Stage number

—

MheatX HF CF HP CP HWD CWD

Hot feed Cold feed Hot product Cold product Hot water decant Cold water decant

Stream number

—

MultiFrac F HS VD LD R SP CWD HS

Feed Heat feed Vapor distillate Liquid distillate Residue Side product Water distillate Heat product

Column number

Stage number

PetroFrac MF SF MHF SHF PHF VD LD B SP CWD SB PS CHS RHS MHP SHP PHP

Main column feed Stripper steam feed Main column heat feed Stripper heat feed Pumparound heat feed Main column vapor distillate Main column liquid distillate Main column bottoms product Main column side product Main column condenser water decant Stripper bottom product Pseudo stream Condenser heat stream Reboiler heat stream Main column heat product Stripper heat product Pumparound heat product

Column number †

Stage number


Model Type Port Name Description ID1 ID2

RadFrac F HS VD LD R SP WD CHS RHS

Feed Heat feed Vapor distillate Liquid distillate Residue Side product Water distillate Condenser heat Reboiler heat

Stage number

—

RateFrac F HS VD LD R SP CWD HS

Feed Heat feed Vapor distillate Liquid distillate Residue Side product Water distillate Heat product

Column number

Section number

SCFrac F SF D B SP

Feed Steam feed Distillate Bottoms Side product

— —

† The PetroFrac column number for the main column is one. The strippers are numbered sequentially, starting with two.

Standard Block Results All unit operations have standard scalar block results. For example, Flash2 results include the outlet temperature and pressure, the vapor fraction, and the heat duty.

You can retrieve standard scalar results using a two-step process:

1 Call subroutine TKNRES to determine the dimensions of the results.

2 Call subroutine TKBRES to retrieve the results.

Dimensions of Standard Scalar Results Call subroutine TKNRES to determine the dimensions of the standard results for a block. TKNRES returns the number of results and the maximum number of qualifiers for results. You can use this information to dimension arrays for calling subroutine TKBRES, which retrieves the results.

Calling Sequence for TKNRES CALL TKNRES (BLKID, NRES, NQUAL, IERR)


Argument List Descriptions for TKNRES Variable I/O † Type Dimension Description


NRES O INTEGER — Number of results

NQUAL O INTEGER — Maximum number of qualifiers for a result ††


† I = Input to subroutine, O = Output from subroutine †† Some results have qualifiers needed to identify the result, such as the stream ID or substream ID. NQUAL is the maximum number of qualifiers for the results of a block.

Standard Scalar Block Results Call subroutine TKBRES to retrieve the standard scalar results of a block. Treat the QUALS array as a one-dimensional array, with all the values for each qualifier type stored consecutively.

Calling Sequence for TKBRES CALL TKBRES (BLKID, NRES, NQUAL, PNAMES, QUALS, ITYPE, IVALS,

CVALS, RVALS, TYPES, LABELS)

Argument List Descriptions for TKBRES Variable I/O † Type Dimension Description


NRES I INTEGER — Number of results

NQUAL I INTEGER — Maximum number of qualifiers ††

PNAMES O CHARACTER*12 NRES Property name. See Appendix B for a description.

QUALS O CHARACTER*8 NRES* NQUAL Qualifiers ††

ITYPE O INTEGER NRES Data type of results (1=Integer, 2=Real, 3=Character) †††

IVALS O INTEGER NRES Integer results †††

CVALS O CHARACTER*8 NRES Character results †††

RVALS O REAL*8 NRES Real results †††

TYPES O CHARACTER*12 NRES Units types

LABELS O CHARACTER*16 NRES Units labels

† I = Input to subroutine, O = Output from subroutine †† Some results have qualifiers needed to identify the result, such as the stream ID or substream ID. NQUAL is the maximum number of qualifiers for the results of a block. ††† For each result, the value in ITYPE specifies which array contains the result (IVALS, CVALS or RVALS). For example, if ITYPE(4) is 2, then IVALS(4) is 0, CVALS(4) is blank and RVALS(4) contains the result.


Compressor Results If you use the Compr or MCompr model with scalar specifications, you can retrieve the standard block results. Retrieving these results is described in Standard Block Results, this chapter.

If you use Compr with performance curves for a stage, or MCompr with stage-by-stage performance curves, additional results are available. These results include:

• Percentage above surge.

• Percentage below stonewall.

• Speed of compressor shaft.

If you use Compr with performance curves for a wheel, or MCompr with wheel-by-wheel performance curves, the following additional results are available:

• Head coefficient.

• Flow coefficient.

• Rotor tip Mach number.

You can retrieve compressor performance results from the summary file for the Compr and MCompr models. You can consider Compr results as belonging to a single stage. The MCompr performance results can be retrieved for each stage of the MCompr model. In addition, you can retrieve the performance results for the wheels within each stage of the MCompr model when wheel-by-wheel performance is modeled.

Use this two-step process to retrieve the stage-by-stage performance results:

1 Call subroutine TKNPER to determine the number of stage-by-stage performance results in the Compr/MCompr model, and the number of stages in the MCompr model.

2 Call subroutine TKPERF to retrieve the stage-by-stage performance data for all stages.

Use these additional two steps to retrieve the wheel-by-wheel performance results:

3 Call subroutine TKNWHL to determine the number of wheels and the number of wheel-by-wheel performance results in the MCompr model.

4 Call subroutine TKWHLP to retrieve the wheel-by-wheel performance data for each stage.

Dimensions of Performance Results Call subroutine TKNPER to determine the number of properties in the stage-by-stage compressor performance results. TKNPER also returns NSTAGE, the number of compressor stages for MCompr. TKNPER returns a NSTAGE value of 1 for Compr. TKNPER returns a NSTAGE value of 0 for all other models.


When there are no performance results, TKNPER may still return the number of stages. TKNPER will do this if there are wheel-by-wheel performance results available. Use NPROP (not NSTAGE) to check if there any performance results available.

Calling Sequence for TKNPER CALL TKNPER (BLKID, NPROP, NSTAGE)

Argument List Descriptions for TKNPER Variable I/O † Type Dimension Description


NPROP O INTEGER — Number of stage-by-stage performance results properties

NSTAGE O INTEGER — Number of compressor stages


Stage-by-Stage Performance Results Call subroutine TKPERF to retrieve the stage-by-stage compressor performance results. Use 1 as the value of NSTAGE with the Compr model. The results for the MCompr model are ordered in the RVALS array, so that all the properties for a stage are sequential.

Calling Sequence for TKPERF CALL TKPERF (BLKID, NPROP, NSTAGE, PNAMES, RVALS, TYPES,

LABELS, IERR)

Argument List Descriptions for TKPERF Variable I/O † Type Dimension Description


NPROP I INTEGER — Number of properties

NSTAGE I INTEGER — Number of stages (1 for Compr)

PNAMES O CHARACTER*12 NPROP Property name. See Appendix B for a description.

RVALS O REAL*8 NPROP* NSTAGE

Real results

TYPES O CHARACTER*12 NPROP Units types

LABELS O CHARACTER*16 NPROP Units labels




Dimensions of Wheel-by-Wheel Performance Results Call subroutine TKNWHL to determine the number of wheels in a particular stage of MCompr. The number of properties in the wheel-by-wheel performance results is also returned. Call TKNPER to find the total number of stages.

Calling Sequence for TKNWHL CALL TKNWHL (BLKID, ISTAGE, NWHEEL, NPROP)

Argument List Descriptions for TKNWHL Variable I/O † Type Dimension Description


ISTAGE I INTEGER — Specified compressor stage

NWHEEL O INTEGER — Number of wheels

NPROP O INTEGER — Number of wheel-by-wheel performance results properties


Wheel-by-Wheel Performance Results Call subroutine TKWHLR to retrieve the compressor wheel-by-wheel performance results for the specified stage of the MCompr model. The results are ordered in the RVALS array so that all the properties for a wheel are sequential.

Calling Sequence for TKWHLR CALL TKWHLR (BLKID, ISTAGE, NPROP, NWHEEL, PNAMES, RVALS,

TYPES, LABELS, IERR)

Argument List Descriptions for TKWHLR Variable I/O † Type Dimension Description


ISTAGE I INTEGER — Stage number


NWHEEL I INTEGER — Number of wheels in stage


RVALS O REAL*8 NPROP* NWHEEL

Real results

TYPES O CHARACTER*12 NPROP Units types

LABELS O CHARACTER*16 NPROP Units labels





Compressor Profile Results You can retrieve profile data for each stage and inter-stage cooler of the multi-stage compressor model MCompr. This requires three steps:

1 Call subroutine TKNMCP to determine the number of MCompr stages, cooler stages and profile properties.

2 Call subroutine TKMCPR to retrieve the profile data for the MCompr stages.

3 Call subroutine TKMCCP to retrieve the profile data for the MCompr coolers.

Dimensions of MCompr Profile Results Call subroutine TKNMCP to determine the number of stages, cooler stages, stage profile properties and cooler stage profile properties.

Calling Sequence for TKNMCP CALL TKNMCP (BLKID, NSTAGE, NPROP, NCOOL, NCPROP)

Argument List Descriptions for TKNMCP Variable I/O † Type Dimension Description


NSTAGE O INTEGER — Number of compressor stages

NPROP O INTEGER — Number of stage profile properties

NCOOL O INTEGER — Number of compressor cooler stages

NCPROP O INTEGER — Number of cooler stage profile properties


MCompr Profile Results Call subroutine TKMCPR to retrieve the MCompr profile results. The results are ordered in the RVALS array so that all properties for a stage are sequential.

Calling Sequence for TKMCPR CALL TKMCPR (BLKID, NPROP, NSTAGE, PNAMES, RVALS, TYPES,

LABELS, IERR)


Argument List Descriptions for TKMCPR Variable I/O † Type Dimension Description


NPROP I INTEGER — Number of profile properties

NSTAGE I INTEGER — Number of stages


RVALS O REAL*8 NPROP* NSTAGE

Real results

TYPES O CHARACTER*12 NPROP* NSTAGE

Units types

LABELS O CHARACTER*16 NPROP* NSTAGE

Units labels



MCompr Cooler Profile Results Call subroutine TKMCCP to retrieve the MCompr profile results for the cooler stage. The results are ordered in the RVALS array so that all the properties for a cooler stage are sequential.

Calling Sequence for TKMCCP CALL TKMCCP (BLKID, NCPROP, NCOOL, PNAMES, RVALS, TYPES,

LABELS, IERR)

Argument List Descriptions for TKMCCP Variable I/O † Type Dimension Description


NCPROP I INTEGER — Number of profile properties

NCOOL I INTEGER — Number of cooler stages

PNAMES O CHARACTER*12 NCPROP Property name. See Appendix B for a description.

RVALS O REAL*8 NCPROP* NCOOL Real results

TYPES O CHARACTER*12 NCPROP* NCOOL Units types

LABELS O CHARACTER*16 NCPROP* NCOOL Units labels


†I = Input to subroutine, O = Output from subroutine


Heat Exchanger Results You can retrieve the standard block results and HCURVE data, if you use the HeatX model in SHORTCUT mode. Retrieving these results is described in Standard Block Results and Heating/Cooling Curves, this chapter. Additional data are available, if you use the HeatX model in the RIGOROUS mode. These are more detailed block results, zone, shell, tube, baffle and nozzle data. This section describes how to retrieve these additional rigorous HeatX results.

You can retrieve the detailed block results using a three-step process:

1 Call subroutine TKNHXD to determine the HeatX detailed results dimensions.

2 Call subroutine TKHXD1 to retrieve detailed results.

3 Call subroutine TKHXD2 to retrieve the velocity and pressure drop results.

You can retrieve the zone, shell, tube, baffle and nozzle data using a six-step process:

1 Call subroutine TKNHXT to determine the sizes of the results.

2 Call subroutine TKHXZO to retrieve the zone results.

3 Call subroutine TKHXSH to retrieve the shell results.

4 Call subroutine TKHXTU to retrieve the tube results.

5 Call subroutine TKHXBA to retrieve the baffle results.

6 Call subroutine TKHXNO to retrieve the nozzle results.

Number of Detailed Results Call subroutine TKNHXD to determine the number of HeatX detailed results. If NDET1 is returned as zero, there are no rigorous heat exchanger results for this block ID.

Calling Sequence for TKNHXD CALL TKNHXD (BLKID, NDET1, NDET2)

Argument List Descriptions for TKNHXD Variable I/O † Type Dimension Description


NDET1 O INTEGER — Number of detailed results

NDET2 O INTEGER — Number of velocity-DP results


Detailed Results Call subroutine TKHXD1 to retrieve the first set of detailed results (such as, areas and heat transfer coefficients) for the heat exchanger.


Calling Sequence for TKHXD1 CALL TKHXD1 (BLKID, NDET1, PNAMES, RVALS, TYPES, LABELS,

IERR)

Argument List Descriptions for TKHXD1 Variable I/O † Type Dimension Description


NDET1 I INTEGER — Number of detailed results

PNAMES O CHARACTER*12 NDET1 Property name. See Appendix B for a description.

RVALS O REAL*8 NDET1 Real results

TYPES O CHARACTER*12 NDET1 Units types

LABELS O CHARACTER*16 NDET1 Units labels



Velocity and Pressure Results Call subroutine TKHXD2 to retrieve the velocity and pressure drop results for the heat exchanger.

Calling Sequence for TKHXD2 CALL TKHXD2 (BLKID, NDET2, PNAMES, RVALS, TYPES, LABELS,

IERR)

Argument List Descriptions for TKHXD2 Variable I/O † Type Dimension Description


NDET2 I INTEGER — Number of velocity pressure drop results

PNAMES O CHARACTER*12 NDET2 Property name. See Appendix B for a description.

RVALS O REAL*8 NDET2 Real results

TYPES O CHARACTER*12 NDET2 Units types

LABELS O CHARACTER*16 NDET2 Units labels



Heat Exchanger Results Dimensions Call TKNHXT to retrieve the sizes of the zone, shell, tube, baffle and nozzle results. Because HeatX can be divided into a number of zones, the number of


zones together with the number of results in a zone is returned. A single value is returned for the number of shell, tube, baffle and nozzle results.

Calling Sequence for TKNHXT CALL TKNHXT (BLKID, NZONE, NZORES, NSHRES, NTURES, NBARES,

NNORES)

Argument List Descriptions for TKNHXT Variable I/O † Type Dimension Description


NZONE O INTEGER — Number of Zones

NZORES O INTEGER — Number of Zone results

NSHRES O INTEGER — Number of Shell results

NTURES O INTEGER — Number of Tube results

NBARES O INTEGER — Number of Baffle results

NNORES O INTEGER — Number of Nozzle results


Heat Exchanger Zone Results Call subroutine TKHXZO to retrieve the HeatX zone results. The results for all zones are returned in the RVALS array, with the values for a zone stored at consecutive locations in this array. The first zones results are from element 1 to element NZORES. The second zones results are from NZORES+1 to 2*NZORES, and so on.

Calling Sequence for TKHXZO CALL TKHXZO (BLKID, NZONE, NZORES, PNAMES, RVALS, TYPES,

LABELS, IERR)

Argument List Descriptions for TKHXZO Variable I/O † Type Dimension Description


NZONE I INTEGER — Number of Zones

NZORES I INTEGER — Number of Zone properties

PNAMES O CHARACTER*12 NZORES Property name. See Appendix B for a description.

RVALS O REAL*8 NZORES* NZONE

Real results

TYPES O CHARACTER*12 NZORES Unit types

LABELS O CHARACTER*16 NZORES Unit labels




Heat Exchanger Shell Results Call subroutine TKHXSH to retrieve the shell results.

Calling Sequence for TKHXSH CALL TKHXSH (BLKID, NSHRES, PNAMES, ITYPES, IVALS, CVALS,

RVALS, TYPES, LABELS, IERR)

Argument List Descriptions for TKHXSH Variable I/O † Type Dimension Description


NSHRES I INTEGER — Number of Shell properties

PNAMES O CHARACTER*12 NSHRES Property name. See Appendix B for a description.

ITYPES O INTEGER NSHRES Data type of results (1=Integer 2=Real 3=Character)

IVALS O INTEGER NSHRES Integer results

CVALS O CHARACTER*12 NSHRES Character results

RVALS O REAL*8 NSHRES Real results

TYPES O CHARACTER*12 NSHRES Unit types

LABELS O CHARACTER*16 NSHRES Unit labels



Heat Exchanger Tube Results Call subroutine TKHXTU to retrieve the tube results.

Calling Sequence for TKHXTU CALL TKHXTU (BLKID, NTURES, PNAMES, ITYPES, IVALS,

CVALS, RVALS, TYPES, LABELS, IERR)

Argument List Descriptions for TKHXTU Variable I/O † Type Dimension Description


NTURES I INTEGER — Number of Tube properties

PNAMES O CHARACTER*12 NTURES Property name. See Appendix B for a description.

ITYPES O INTEGER NTURES Data type of results (1=Integer 2=Real 3=Character)



IVALS O INTEGER NTURES Integer results

CVALS O CHARACTER*12 NTURES Character results

RVALS O REAL*8 NTURES Real results

TYPES O CHARACTER*12 NTURES Unit types

LABELS O CHARACTER*16 NTURES Unit labels



Heat Exchanger Baffle Results Call subroutine TKHXBA to retrieve the baffle results.

Calling Sequence for TKHXBA CALL TKHXBA (BLKID, NBARES, PNAMES, ITYPES, IVALS, CVALS,


Argument List Descriptions for TKHXBA Variable I/O † Type Dimension Description


NBARES I INTEGER — Number of Baffle properties

PNAMES O CHARACTER*12 NBARES Property name. See Appendix B for a description.

ITYPES O INTEGER NBARES Data type of results (1=Integer 2=Real 3=Character)

IVALS O INTEGER NBARES Integer results

CVALS O CHARACTER*16 NBARES Character results

RVALS O REAL*8 NBARES Real results

TYPES O CHARACTER*12 NBARES Unit types

LABELS O CHARACTER*16 NBARES Unit labels



Heat Exchanger Nozzle Results Call subroutine TKHXNO to retrieve the nozzle results.

Calling Sequence for TKHXNO CALL TKHXNO (BLKID, NNORES, PNAMES, RVALS, TYPES,

LABELS, IERR)


Argument List Descriptions for TKHXNO Variable I/O † Type Dimension Description


NNORES I INTEGER — Number of Nozzle properties

PNAMES O CHARACTER*12 NNORES Property name. See Appendix B for a description.

RVALS O REAL*8 NNORES Real results

TYPES O CHARACTER*12 NNORES Unit types

LABELS O CHARACTER*16 NNORES Unit labels



Heat Exchanger Profiles The rigorous HeatX model may have up to four different profiles. They are:

• Zone profile.

• Shell profile.

• Tube profile.

• Temperature/Duty profile.

You can retrieve the HeatX profile results using a three-step process.

1 Call subroutine TKHXPF to determine the size of a profile.

2 Call subroutine TKHXPP to get the names of the properties in a profile.

3 Call subroutine TKHXPR to get the results for a property in a profile.

The PRFTYP argument for these functions uses the following profile types:

PRFTYP Value Profile Type

ZONE_PRF Zone Profile

SHEL_PRF Shell Profile

TUBE_PRF Tube Profile

TQ_PRF Temperature-Duty Profile

Heat Exchanger Profile Size Call subroutine TKHXPF to determine the size of a profile. TKHXPF returns the size of the profile for the specified profile type. A size of zero indicates the profile is not present.

Calling Sequence for TKHXPF CALL TKHXPF (BLKID, PRFTYP, NPOINT, NPROP)


Argument List Descriptions for TKHXPF Variable I/O † Type Dimension Description


PRFTYP I CHARACTER*8 — Profile type (see above)

NPOINT O INTEGER — Number of profile points

NPROP O INTEGER — Number of profile properties


Heat Exchanger Profile Properties Call subroutine TKHXPP to retrieve the names of the properties for the specified profile type. The properties may have additional labels, which further describe them. For example, PNAMES = HX_SMCV, LABEL1 = Crossflow, LABEL2 = Velocity.

Calling Sequence for TKHXPP CALL TKHXPP (BLKID, PRFTYP, NPROP, PNAMES, LABEL1, LABEL2,

IERR)

Argument List Descriptions for TKHXPP Variable I/O † Type Dimension Description





LABEL1 O CHARACTER*12 NPROP First property label

LABEL2 O CHARACTER*12 NPROP Second property label



Heat Exchanger Profile Results Call subroutine TKHXPR to retrieve the results for the specified property in a profile. The profile data consists of a number of points within a number of zones. The zone of each value is returned in IZONE, and the point number is returned in IPOINT.

The results in RVALS are ordered so that all the points for the first zone are followed by the points for the second zone, and so on.

Calling Sequence for TKHXPR CALL TKHXPR (BLKID, PRFTYP, PNAME, NPOINT, IZONE, IPOINT,

RVALS, TYPE, LABEL, IERR)


Argument List Descriptions for TKHXPR Variable I/O † Type Dimension Description



PNAME I CHARACTER*12 — Property name from TKHXPP

NPOINT I INTEGER — Number of profile points

IZONE O INTEGER NPOINT Number of zone

IPOINT O INTEGER NPOINT Point number within zone

RVALS O REAL*8 NPOINT Real results

TYPE O CHARACTER*12 — Unit types

LABEL O CHARACTER*16 — Unit labels



Column Results You can retrieve column profile results from the summary file for the rigorous distillation models RadFrac, MultiFrac, Extract, PetroFrac, and RateFrac. You can retrieve most column results using the following four-step process. See also RadFrac Thermosiphon Reboiler Results, Additional Data for PetroFrac Models, and Additional Data for RateFrac Models, this chapter.

1 Call subroutine TKNCOL to determine the number of columns for MultiFrac, PetroFrac, and RateFrac.

2 Call subroutine TKPROF to determine the dimensions of the profile.

3 Call subroutine TKPROP to list the properties.

4 Call subroutine TKPRO1 to retrieve the property values for non-component-dependent properties, or subroutine TKPRO2 to retrieve the property values for component-dependent properties.

Most of the column subroutines take the argument ICOL, which represents the column number. This is always 1 for RadFrac and Extract. For MultiFrac and RateFrac this is the column number: 1, 2, and so on. With PetroFrac the main column is numbered 1 and the strippers are numbered starting with 2. The actual name of a stripper can be retrieved using TKPTRS.

RateFrac models have segments rather than stages. The references to NSTAGE used in the descriptions of the column routines, apply to the number of segments in a RateFrac column.

Number of Columns Call subroutine TKNCOL to determine the number of columns in a block using a staged separation model. TKNCOL returns a value of 1 for Aspen Plus models RadFrac and Extract. It returns the number of columns for MultiFrac and RateFrac. For PetroFrac, NCOL equals the number of strippers plus 1 for the main column. All other models return 0.


Calling Sequence for TKNCOL CALL TKNCOL (BLKID, NCOL)

Argument List Descriptions for TKNCOL Variable I/O † Type Dimension Description


NCOL O INTEGER — Number of columns


Column Profile Dimensions Call subroutine TKPROF to determine the sizes of column profile arrays. TKPROF returns the number of:

• Stages.

• Components present.

• Properties.

Calling Sequence for TKPROF CALL TKPROF (BLKID, ICOL, NSTAGE, NCP, NPROP)

Argument List Descriptions for TKPROF Variable I/O † Type Dimension Description


ICOL I INTEGER — Column number

NSTAGE O INTEGER — Number of stages

NCP O INTEGER — Number of components present

NPROP O INTEGER — Number of properties


Column Profile Properties Call subroutine TKPROP to list the profile properties available for a block. Each property is identified as component-dependent or not.

Calling Sequence for TKPROP CALL TKPROP (BLKID, ICOL, NPROP, ITYPES, PNAMES, IERR)

Argument List Descriptions for TKPROP Variable I/O † Type Dimension Description






ITYPES O INTEGER NPROP Property type (1=Non-component-dependent, 2=Component-dependent)




Non-Component-Dependent Column Profiles Call subroutine TKPRO1 to retrieve the profile for a non-component-dependent property. This includes hydraulic properties. TKPRO1 returns a single units type and label for the entire profile.

Calling Sequence for TKPRO1 CALL TKPRO1 (BLKID, PNAME, ICOL, NSTAGE, RVALS, TYPE, LABEL,

IERR)

Argument List Descriptions for TKPRO1 Variable I/O † Type Dimension Description


PNAME I CHARACTER*12 — Property name returned by TKPROP



RVALS O REAL*8 NSTAGE Property values

TYPE O CHARACTER*12 — Units type




Component-Dependent Column Profiles Call subroutine TKPRO2 to retrieve the profile for a component-dependent property. The results are in the RVALS array, which returns NCP * NSTAGE results. Treat RVALS as a one-dimensional array. All property results for a stage are stored consecutively. TKPRO2 returns a single units type and label for the entire profile.

Calling Sequence for TKPRO2 CALL TKPRO2 (BLKID, PNAME, ICOL, NCP, COMPID, NSTAGE, RVALS,

TYPE, LABEL, IERR)


Argument List Descriptions for TKPRO2 Variable I/O † Type Dimension Description


PNAME I CHARACTER*12 — Property name returned by TKPROP


NCP I INTEGER — Number of components present

COMPID O CHARACTER*8 NCP Component IDs


RVALS O REAL*8 NCP* NSTAGE Property values

TYPE O CHARACTER*12 — Units types

LABEL O CHARACTER*16 — Units labels



RadFrac Thermosiphon Reboiler Results A RadFrac unit may optionally have a thermosiphon reboiler. You can retrieve this data using two steps:

1 Call TKTRNR to determine the numbers of results and components.

2 Call TKTRRS to retrieve the property names, results, and list of components.

Number of Components Call subroutine TKTRNR to determine the number of components present, the number of component-dependent properties with results, and the number of properties with results that are non-component-dependent. If the unit does not have a thermosiphon reboiler, NRES, NCPROP, and NCP are all returned as 0.

Calling Sequence for TKTRNR CALL TKTRNR (BLKID, NRES, NCPROP, NCP)

Argument List Descriptions for TKTRNR Variable I/O † Type Dimension Description


NRES O INTEGER — Number of non-component-dependent results

NCPROP O INTEGER — Number of component-dependent properties

NCP O INTEGER — Number of components present in reboiler



Reboiler Results Call subroutine TKTRRS to retrieve the property names and values for the thermosiphon reboiler. Two sets of property names and values are returned: one for the component-dependent results and one for the non-component-dependent results. Note that the component-dependent data is returned in a single array, with all the results for a single property returned in consecutive elements of the CRVALS array.

Calling Sequence for TKTRRS CALL TKTRRS (BLKID, NRES, NCPROP, NCP, PNAME, RVALS, TYPES,

LABELS, CPNAME, COMPID, CRVALS, IERR)

Argument List for Subroutine TKTRRS Variable I/O † Type Dimension Description


NRES I INTEGER — Number of non-component-dependent results

NCPROP I INTEGER — Number of component-dependent results

NCP I INTEGER — Number of components present in reboiler

PNAMES O CHARACTER*12 NRES Property names for non-component-dependent results. See Appendix B for a description.

RVALS O REAL*8 NRES Results for non-component-dependent properties

TYPES O CHARACTER*12 NRES Results types for non-component-dependent properties

LABELS O CHARACTER*16 NRES Results labels for non-component-dependent properties

CPNAME O CHARACTER*12 NCPROP Property names for component-dependent results

COMPID O CHARACTER*8 NCP Component names

CRVALS O REAL*8 NCP* NCPROP Results for component-dependent properties



Interconnecting Stream and Pumparound Results The MultiFrac and RateFrac models may contain interconnecting streams. The RadFrac model may contain pumparounds. You can retrieve the data for these streams and pumparounds using these two steps:

1 Call TKNICS to determine the number of interconnecting streams or pumparounds in the model.


2 Call TKICST to retrieve the results for all the interconnecting streams or pumparounds in a model.

Number of Interconnecting Streams and Pumparounds Call subroutine TKNICS to determine the number of interconnecting streams present in a MultiFrac or RateFrac model. Also call TKNICS to determine the number of pumparounds in a RadFrac model. The value of NICST is returned as 0 if the model does not have any interconnecting streams or pumparounds.

Calling Sequence for TKNICS CALL TKNICS (BLKID, NICST)

Argument List Descriptions for TKNICS Variable I/O † Type Dimension Description


NICST O INTEGER — Number of interconnecting streams or pumparounds


Retrieving Results for Interconnecting Streams and Pumparounds Call subroutine TKICST to retrieve the results for MultiFrac or RateFrac interconnecting streams. Also call TKICST to retrieve the results for RadFrac pumparounds. The routine returns arrays containing the results for all the interconnecting streams or pumparounds in a model. Source and destination data are not returned for the RateFrac model, and zeros are returned for these properties. The mass and volume flows are also unavailable for the RateFrac model, and values of RMISS are returned for these properties.

Calling Sequence for TKICST CALL TKICST (BLKID, NICST, ISCOL, ISSTG, IDCOL, IDSTG, TEMP,

PRES, DUTY, VFRAC, FMOLE, FMASS, FVOL, IERR)

Argument List Descriptions for TKICST Variable I/O † Type Dimension Description


NICST I INTEGER — Number of interconnecting streams or pumparounds

ISCOL O INTEGER NICST Source Column

ISSTG O INTEGER NICST Source Stage

IDCOL O INTEGER NICST Destination Column



IDSTG O INTEGER NICST Destination Stage

TEMP O REAL*8 NICST Temperature

PRES O REAL*8 NICST Pressure

DUTY O REAL*8 NICST Duty

VFRAC O REAL*8 NICST Vapor Fraction

FMOLE O REAL*8 NICST Mole Flow

FMASS O REAL*8 NICST Mass Flow

FVOL O REAL*8 NICST Standard liquid volume flow



Additional Data for PetroFrac Models The PetroFrac model has a number of additional routines that retrieve the results for the pumparounds, furnace, and connectivity of the model. The PetroFrac model consists of a main column and a number of strippers.

1 Call subroutine TKNPET to determine the dimensions of the additional data.

2 Call subroutine TKPTRS to retrieve additional data for each column.

3 Call TKPTAD to list additional property profiles.

4 Call TKPTPR to retrieve the values of the additional property profiles.

5 Call subroutine TKPTFR to retrieve the PetroFrac furnace data.

6 Call subroutine TKFRCM to retrieve the values for component-dependent properties in the furnace.

7 Call subroutine TKPTPP to retrieve pumparound results for the PetroFrac columns.

8 Call subroutine TKPTCN to retrieve connectivity data for the strippers.

Dimensions of Additional Data Call subroutine TKNPET for each column number in the PetroFrac model to determine the sizes of the additional data. If a type of data is not present for the column number, the size is returned as 0. The main column always returns 0 for NSTRCN and NCNRES. The strippers always return 0 for NPUMP, NPRRES, NFRCON, NFRRES, NFPROP, and NFCOMP.


Calling Sequence for TKNPET CALL TKNPET (BLKID, ICOL, NMOLE, NMASS, NSVOL, NRES, NPUMP,

NPRRES, NFRCON, NFRRES, NFPROP, NFCOMP, NSTRCN, NCNRES)

Argument List Descriptions for TKNPET Variable I/O † Type Dimension Description



NMOLE O INTEGER — Number of molar profile results

NMASS O INTEGER — Number of mass profile results

NSVOL O INTEGER — Number of standard liquid volume profile results

NRES O INTEGER — Number of scalar column results

NPUMP O INTEGER — Number of pumparounds

NPRRES O INTEGER — Number of pumparound results

NFRCON O INTEGER — Number of furnace streams

NFRRES O INTEGER — Number of furnace results

NFPROP O INTEGER — Number of furnace component properties

NFCOMP O INTEGER — Number of furnace components

NSTRCN O INTEGER — Number of connectivity streams

NCNRES O INTEGER — Number of connectivity results


Additional Scalar Results Data TKBRES (see Standard Scalar Block Results, this chapter) returns the convergence data for PetroFrac column numbers.

Call subroutine TKPTRS to retrieve the additional scalar results data for each PetroFrac column number.

Calling Sequence for TKPTRS CALL TKPTRS (BLKID, ICOL, NRES, NAME, PNAMES, RVALS, TYPES,

LABELS, IERR)

Argument List Descriptions for TKPTRS Variable I/O † Type Dimension Description



NRES I INTEGER — Number of column results

NAME O CHARACTER*8 — Side stripper name



PNAMES O CHARACTER*12 NRES Property name. See Appendix B for a description.

RVALS O REAL*8 NRES Results

TYPES O CHARACTER*12 NRES Units type

LABELS O CHARACTER*16 NRES Units label



Additional PetroFrac Profile Properties Call TKPTAD to list the additional profile properties available for each column number. None of these properties is component-dependent (see Column Profile Properties, this chapter). There are three sets of additional properties for PetroFrac. These consist of similar properties. But the results are returned on either a molar, mass, or standard liquid volume basis, depending on the value you give for BASIS. The number of properties differs slightly for each BASIS, so ensure that NPROF is set to the correct value returned from TKNPET. The value of NPROF is NMOLE for MOLE BASIS, NMASS for MASS, and NSVOL for SVOL.

Calling Sequence for TKPTAD CALL TKPTAD (BLKID, ICOL, NPROF, BASIS, PNAMES, IERR)

Argument List Descriptions for TKPTAD Variable I/O † Type Dimension Description



NPROF I INTEGER — Number of profile properties. (Use the value NMOLE, NMASS, or SVOL from TKNPET.)

BASIS I CHARACTER*4 — Basis for profile (MOLE, MASS, or SVOL)

PNAMES O CHARACTER*12 NPROF Property name. See Appendix B for a description.



Additional Property Profiles Call TKPTPR to retrieve profiles for the PetroFrac additional properties.

Calling Sequence for TKPTPR CALL TKPTPR (BLKID, PNAME, ICOL, NSTAGE, BASIS, RVALS, TYPE,

LABEL, IERR)


Argument List Descriptions for TKPTPR Variable I/O † Type Dimension Description


PNAME I CHARACTER*12 — Profile property name from TKPTAD



BASIS I CHARACTER*4 — Basis for profile (MOLE, MASS, or SVOL)

RVALS O REAL*8 NSTAGE Real values





Furnace Data for PETROFRAC Call subroutine TKPTFR to retrieve the furnace data for PetroFrac. Data is returned for each connection between the furnace and a PetroFrac column. Supply the connection number in the ICON parameter. The connections are numbered sequentially, starting at 1. The total number of connections is given by the NFRCON parameter returned in TKNPET.

Calling Sequence for TKPTFR CALL TKPTFR (BLKID, ICON, NFRRES, PNAMES, ITYPES, IVALS,


Argument List Descriptions for TKPTFR Variable I/O † Type Dimension Description


ICON I INTEGER — Connection number

NFRRES I INTEGER — Number of properties

PNAMES O CHARACTER*12 NFRRES Property name. See Appendix B for a description.

ITYPES O INTEGER NFRRES Result type (1=Integer, 2=Real, 3=Character)

IVALS O INTEGER NFRRES Integer values

CVALS O CHARACTER*12 NFFRES Character values

RVALS O REAL*8 NFRRES Real values

TYPES O CHARACTER*12 NFRRES Units type

LABELS O CHARACTER*16 NFRRES Units label




Component-Dependent Properties for the PetroFrac Furnace Call subroutine TKFRCM to retrieve the values for component-dependent properties in the PetroFrac furnace. The property names and the results are returned. The real values are returned. All the data for a property are arranged sequentially in the array, followed by all the data for the second property, and so on. Since all the properties are dimensionless, TYPES and LABELS return blank strings.

Calling Sequence for TKFRCM CALL TKFRCM (BLKID, NFPROP, NFCOMP, PNAMES, COMPID, RVALS,

TYPES, LABELS, IERR)

Argument List Descriptions for TKFRCM Variable I/O † Type Dimension Description


NFPROP I INTEGER — Number of properties

NFCOMP I INTEGER — Number of components

PNAMES O CHARACTER*12 NFPROP Property name. See Appendix B for a description.

COMPID O CHARACTER*8 NFCOMP Component names

RVALS O REAL*8 NFCOMP* NFPROP Real values

TYPES O CHARACTER*12 NFPROP Units type

LABELS O CHARACTER*16 NFPROP Units label



Pumparound Results for PetroFrac Columns Call subroutine TKPTPP to retrieve pumparound results for the PetroFrac columns. Supply the pumparound number in the IPUMP parameter. The pumparounds are numbered sequentially, starting at 1. The total number of pumparounds is given by the NPUMP parameter returned in TKNPET.

Calling Sequence for TKPTPP CALL TKPTPP (BLKID, IPUMP, NPRRES, PNAMES, ITYPES, IVALS,


Argument List Descriptions for TKPTPP Variable I/O † Type Dimension Description


IPUMP I INTEGER — Pumparound number

NPRRES I INTEGER — Number of properties



PNAMES O CHARACTER*12 NPRRES Property name. See Appendix B for a description.

ITYPES O INTEGER NPRRES Result type (1=Integer, 2=Real)

IVALS O INTEGER NPRRES Integer values

RVALS O REAL*8 NPPRES Real values

TYPES O CHARACTER*12 NPRRES Units type

LABELS O CHARACTER*16 NPRRES Units label



Connectivity Data for PetroFrac Strippers Call subroutine TKPTCN to retrieve connectivity data for the PetroFrac strippers. Specify the column number of the stripper in ICOL and the connection number in ICON. The connections are numbered sequentially, starting at 1. The total number of connections for each stripper is given by the NSTRCN parameter in TKNPET.

Calling Sequence for TKPTCN CALL TKPTCN (BLKID, ICOL, ICON, NCNRES, PNAMES, ITYPES, IVALS,


Argument List Descriptions for TKPTCN Variable I/O † Type Dimension Description



ICON I INTEGER — Connection number

NCNRES I INTEGER — Number of properties

PNAMES O CHARACTER*12 NCNRES Property name. See Appendix B for a description.

ITYPES O INTEGER NCNRES Result type (1=Integer, 2=Real)

IVALS O INTEGER NCNRES Integer values

CVALS O CHARACTER*12 NCNRES Character values

RVALS O REAL*8 NCNRES Real values

TYPES O CHARACTER*12 NCNRES Units type

LABELS O CHARACTER*16 NCNRES Units label




Additional Data for RateFrac Models The RateFrac model has additional routines to retrieve further scalar block results, the component split fractions in the outlet streams, and the number of liquid phases in each segment of the column.

You can retrieve the additional scalar results data, using a two-step process:

1 Call subroutine TKRTNR to determine the dimensions of the additional scalar results data.

2 Call subroutine TKRTRS to retrieve the additional scalar results for each column.

You can retrieve the split fractions of each component in the outlet streams, using a two-step process:

1 Call subroutine TKRTSP to determine the dimensions of the split fractions.

2 Call subroutine TKRTSP to retreive the split fraction results.

Call subroutine TKRTNL to determine the number of liquid phases in each segment of a column.

Dimensions of Additional Scalar Data Call subroutine TKRTNR for each column number in the RateFrac model, to determine the sizes for the additional data. NRES is returned as zero if the model has no additional scalar results.

Calling Sequence for TKRTNR CALL TKRTNR (BLKID, ICOL, NRES)

Argument List Descriptions for TKRTNR Variable I/O † Type Dimension Description



NRES O INTEGER — Number of scalar results


Additional Scalar Results Data TKBRES (see Standard Scalar Block Results, this chapter) returns the convergence data for the RateFrac column.

Call subroutine TKRTRS to retrieve the additional scalar data for each RateFrac column.

Calling Sequence for TKRTRS CALL TKRTRS (BLKID, ICOL, NRES, PNAMES, RVALS, TYPES, LABELS,

IERR)


Argument List Descriptions for TKRTRS Variable I/O † Type Dimension Description



NRES O INTEGER — Number of scalar results

PNAMES O CHARACTER*12 — Property names. See Appendix B for a description.

RVALS O REAL*8 NRES Real values

TYPES O CHARACTER*12 NRES Unit types

LABELS O CHARACTER*16 NRES Unit labels



Dimensions of Component Split Fractions Call subroutine TKRTSP to determine the dimensions of the component split fraction results.

Calling Sequence for TKRTSP CALL TKRTSP (BLKID, NCP, NSTREAM)

Argument List Descriptions for TKRTSP Variable I/O † Type Dimension Description


NCP O INTEGER — Number of components in outlet streams

NSTREAM O INTEGER — Number of outlet streams


Component Split Fractions Call subroutine TKRTSR to retrieve the component split fractions in the RateFrac outlet streams. The results are ordered in the SFRACS array so that all the fractions for a component are returned consecutively.

Calling Sequence for TKRTSR CALL TKRTSR (BLKID, NCP, NSTREAM, COMPID, STRMID, SFRACS,

IERR)


Argument List Descriptions for TKRTSR Variable I/O † Type Dimension Description

BLKID I CHARACTER*(*)

— Block ID

NCP I INTEGER — Number of components in outlet streams

NSTREAM I INTEGER — Number of outlet streams


STRMID O CHARACTER*8 NSTREAM Outlet Stream IDs

SFRACS O REAL*8 NSTREAM* NCP Component Split Fractions



Number of Liquid Phases Call subroutine TKRTNL to get the number of liquid phases in each segment of the specified column.

Calling Sequence for TKRTNL CALL TKRTNL (BLKID, ICOL, NSTAGE, NLIQ, IERR)

Argument List Descriptions for TKRTNL Variable I/O † Type Dimension Description



NSTAGE I INTEGER — Number of sections (Use NSTAGE from TKPROF)

NLIQ I INTEGER NSTAGE Number of liquid phases



Tray Reports Tray report results are calculated when the Tray-Report option is chosen for a rigorous distillation model. The user defines the properties calculated and the stages for which they are calculated.

Tray Report Dimensions Call subroutine TKTREP to determine the dimensions of the tray report for a block. TKTREP returns the number of stages for which properties are calculated, and the number of properties in the tray report.


Calling Sequence for TKTREP CALL TKTREP (BLKID, ICOL, NSTAGE, NPROP)

Argument List Descriptions for TKTREP Variable I/O † Type Dimension Description



NSTAGE O INTEGER — Number of stage values

NPROP O INTEGER — Total number of properties


Sequential Tray Report Properties Call subroutine TKNTPR to retrieve the next property from a tray report. Use the property sequence number INUM to specify the property. TKNTPR returns the list of stage numbers, the property value, the property set qualifiers, and the units type and label.

Calling Sequence for TKNTPR CALL TKNTPR (BLKID, ICOL, INUM, NSTAGE, ISTAGE, PNAME, SUBSID,

PHASE, COMPID, WETDRY, BASIS, RVALS, TYPE, LABEL, IERR)

Argument List Descriptions for TKNTPR Variable I/O † Type Dimension Description



INUM I INTEGER — Property sequence number

NSTAGE I INTEGER — Number of stage values

ISTAGE O INTEGER NSTAGE List of stage numbers

PNAME O CHARACTER*12 — Property name. See Appendix B for a description.

SUBSID O CHARACTER*8 — Substream ID

PHASE O CHARACTER*8 — Phase

COMPID O CHARACTER*8 — Component ID

WETDRY O CHARACTER*4 — Wet/dry basis (WET or DRY) ††

BASIS O CHARACTER*4 — Units basis (MOLE, MASS, or FLOW)





† I = Input to subroutine, O = Output from subroutine †† Can be left unspecified.


Specific Tray Report Properties Call subroutine TKTPRP to retrieve a specific property from the tray report for a block. The property is identified by specifying the property set qualifiers (PNAME, SUBSID, PHASE, COMPID, WETDRY, BASIS). Before calling TKTPRP, make sure that all the qualifiers are either set to the desired values or unset. TKTPRP returns the list of stage numbers, the property values, and the units type and label.

Calling Sequence for TKTPRP CALL TKTPRP (BLKID, ICOL, NSTAGE, ISTAGE, PNAME, SUBSID,

PHASE, COMPID, WETDRY, BASIS, RVALS, TYPE, LABEL, IERR)

Argument List Descriptions for TKTPRP Variable I/O † Type Dimension Description



NSTAGE I INTEGER — Number of stage values


PNAME I CHARACTER*12 — Property name. See Appendix B for a list of valid property names.

SUBSID I CHARACTER*8 — Substream ID

PHASE I CHARACTER*8 — Phase

COMPID I CHARACTER*8 — Component ID

WETDRY I CHARACTER*4 — Wet/dry basis (WET or DRY)††

BASIS I CHARACTER*4 — Units basis (MOLE, MASS, or FLOW)






Tray/Packing Sizing and Rating You can retrieve column tray/packing sizing and rating data for the rigorous distillation models RadFrac, MultiFrac, and PetroFrac. You can retrieve the results using a seven-step process:

1 Call subroutine TKNCOL to determine the number of columns where appropriate.

2 Call subroutine TKNSEC to determine the number of sections in the column.


3 Call subroutine TKLSEC to list the column section types and their numbers.

4 Call subroutine TKSSEC to determine the dimensions of a section.

5 Call subroutine TKSCRS to retrieve the scalar results for the column section.

6 Call subroutine TKPSEC to obtain a list of the properties in a section profile.

7 Call subroutine TKSCPR to retrieve the profile data for a named property in a section.

Several subroutines below have a TYPE or TYPES argument for section types. The possible values are:

TYPE value Type of column section

TRAY-SIZE Tray sizing

TRAY-RATE Tray rating

PACK-SIZE Packed sizing

PACK-RATE Packed rating

Number of Columns If you want to retrieve MultiFrac or PetroFrac data, call TKNCOL. (See Column Results, this chapter.) Omit this step if you want to retrieve RadFrac data.

Number of Column Sections Call subroutine TKNSEC to determine the number of Tray/Packing Sizing and Rating calculation sections in the column.

Calling Sequence for TKNSEC CALL TKNSEC (BLKID, ICOL, NSECT, IERR)

Argument List Descriptions for TKNSEC Variable I/O † Type Dimension Description


ICOL I INTEGER — Column number (MultiFrac and PetroFrac)

NSECT O INTEGER — Number of sections



Column Section Types and Numbers Call subroutine TKLSEC to list the section types and numbers used to identify individual sections.


Calling Sequence for TKLSEC CALL TKLSEC (BLKID, ICOL, NSECT, TYPES, NUMBRS, IERR)

Argument List Descriptions for TKLSEC Variable I/O † Type Dimension Description


ICOL I INTEGER — Column number. (MultiFrac and PetroFrac)

NSECT I INTEGER — Number of sections

TYPES O CHARACTER*12 NSECT Types of column sections (see above)

NUMBRS O INTEGER NSECT Section numbers



Size of a Column Section Call subroutine TKSSEC to determine the dimensions of a section. TKSSEC returns the number of:

• Stages in a section.

• Scalar properties.

• Profile properties.

Profile properties have a value for each stage in a section. Scalar properties have a single value for a section as a whole.

Calling Sequence for TKSSEC CALL TKSSEC (BLKID, ICOL, TYPE, NUMBER, NSTAGE, NPROF,

NSCAL, IERR)

Argument List Descriptions for TKSSEC Variable I/O † Type Dimension Description



TYPE I CHARACTER*12 — Section type (see above)

NUMBER I INTEGER — Section number

NSTAGE O INTEGER — Number of stages in the section

NPROF O INTEGER — Number of profile properties

NSCAL O INTEGER — Number of scalar properties




Scalar Results for a Column Section Call subroutine TKSCRS to retrieve the section results for the scalar properties.

Calling Sequence for TKSCRS CALL TKSCRS (BLKID, ICOL, TYPE, NUMBER, NSCAL, PNAMES,

ITYPES, IVALS, CVALS, RVALS, UTYPES, LABELS, IERR)

Argument List Descriptions for TKSCRS Variable I/O † Type Dimension Description





NSCAL I INTEGER — Number of scalar properties

PNAMES O CHARACTER*12 NSCAL Property name. See Appendix B for a description.

ITYPES O INTEGER NSCAL Result types (1=Integer value 2=Real*8 value 3=Character*12 value)††

IVALS O INTEGER NSCAL Integer result

CVALS O CHARACTER*12 NSCAL Character result

RVALS O REAL*8 NSCAL Real result

UTYPES O CHARACTER*12 NSCAL Units types

LABELS O CHARACTER*16 NSCAL Units labels



†† For each result, the value in ITYPE specifies which array contains the result (IVALS, CVALS, or RVALS). For example, if ITYPE(4) is 2, then IVALS(4) is 0, CVALS(4) is blank and RVALS(4) contains the result.

Column Section Profile Properties Call routine TKPSEC to retrieve the list of properties for a specified section profile. TKPSEC returns an array of property names. When you specify a tray rating section type, TKPSEC also returns an array indicating if the property belongs to panel A, B, C, or D.

Calling Sequence for TKPSEC CALL TKPSEC (BLKID, ICOL, TYPE, NUMBER, NPROF, PNAMES,

PANELS, IERR)


Argument List Descriptions for TKPSEC Variable I/O † Type Dimension Description





NPROF I INTEGER — Number of profile properties


PANELS O CHARACTER*1 NPROF Panel identifier (A, B, C, D) (TRAY-RATE only)



Column Section Profiles Call subroutine TKSCPR to retrieve the section profile data for the named property. If the section type is TRAY-RATE, you must specify the panel.

Calling Sequence for TKSCPR CALL TKSCPR (BLKID, ICOL, TYPE, NUMBER, NSTAGE, ISTAGE, PNAME,

PANEL, RVALS, UTYPE, LABEL, IERR)

Argument List Descriptions for TKSCPR Variable I/O † Type Dimension Description





NSTAGE I INTEGER — Number of stages in section


PNAME I CHARACTER*12 — Property name from TKPSEC

PANEL I CHARACTER*1 — Panel identifier (A, B, C, D) (TRAY-RATE only)


UTYPE O CHARACTER*12 — Units type





Reactor Results You can retrieve reactor profile results from the summary file for the reactor models RPlug and RBatch. You can also retrieve the vent accumulator and vent profile results for the RBatch model. (See RBatch Vent Accumulator Results, and RBatch Vent Profile Results, this chapter.) You can retrieve reaction data for the RStoic, REquil and RGibbs models. (See Reaction Data, this chapter.) Retrieving reactor profile results is a four-step process:

1 Call subroutine TKRSUB to determine the number of substreams.

2 Call subroutine TKRPRF to determine the dimensions of the profile.

3 Call subroutine TKRPRP to list the properties.

4 Retrieve the property values. Call subroutine TKRPR1 for non-component-dependent properties. Call subroutine TKRPR2 for component-dependent properties.

Call subroutines TKRNAC, TKRNCA, TKRSCA, and TKRCAT to retrieve the property values for the component attributes of a solid substream. Call subroutines TKRNFS and TKRFSP to retrieve the property values for the continuous feed stream to the RBatch block.

Number of Reactor Substreams Call subroutine TKRSUB to determine the number of substreams in a block modeled using the rigorous reactor models RBatch and RPlug. All other models return a value of 0.

Calling Sequence for TKRSUB CALL TKRSUB (BLKID, NSUB)

Argument List Descriptions for TKRSUB Variable I/O † Type Dimension Description


NSUB O INTEGER — Number of substreams


Reactor Profile Dimensions Call subroutine TKRPRF to determine the sizes of the reactor profile arrays for the specified substream. TKRPRF returns the:

• Substream ID for the requested substream.

• Number of output points.

• Number of components present.

• Number of properties.

Calling Sequence for TKRPRF CALL TKRPRF (BLKID, ISUB, SUBSID, NPOINT, NCP, NPROP)


Argument List Descriptions for TKRPRF Variable I/O † Type Dimension Description


ISUB I INTEGER — Substream number


NPOINT O INTEGER — Number of output points




Reactor Profile Properties Call subroutine TKRPRP to list the reactor profile properties for a specified substream. TKRPRP returns an array of property names. TKRPRP also returns the array ITYPES, which indicates whether the property is component-dependent, not component-dependent, a component attribute, or a continuous feed stream property.

Calling Sequence for TKRPRP CALL TKRPRP (BLKID, SUBSID, NPROP, ITYPES, PNAMES, IERR)

Argument List Descriptions for TKRPRP Variable I/O † Type Dimension Description




ITYPES O INTEGER NPROP Property type: 1=Non-component-dependent 2=Component-dependent 3=Component attributes 4=Continuous feed stream property




Non-Component-Dependent Reactor Profiles Call subroutine TKRPR1 to retrieve reactor profiles for non-component-dependent properties.


Calling Sequence for TKRPR1 CALL TKRPR1 (BLKID, PNAME, SUBSID, NPOINT, RVALS, TYPE,

LABEL, IERR)

Argument List Descriptions for TKRPR1 Variable I/O † Type Dimension Description


PNAME I CHARACTER*12 — Property name from TKRPRP


NPOINT I INTEGER — Number of output points

RVALS O REAL*8 NPOINT Property values





Component-Dependent Reactor Profiles Call subroutine TKRPR2 to retrieve reactor profiles for component-dependent properties. The results are returned in the RVALS array, with all the component data for a point stored consecutively.

Calling Sequence for TKRPR2 CALL TKRPR2 (BLKID, PNAME, SUBSID, NCP, COMPID, NPOINT,


Argument List Descriptions for TKRPR2 Variable I/O † Type Dimension Description







RVALS O REAL*8 NCP* NPOINT Property values






Number of Components with Component Attribute Results Call subroutine TKRNAC to retrieve the number of components that are reported for the component attribute property.

Calling Sequence for TKRNAC

CALL TKRNAC (BLKID, SUBSID, NCP)

Argument List Descriptions for TKRNAC Variable I/O † Type Dimension Description



NCP O INTEGER — Number of components


Number of Attributes for a Component Call subroutine TKRNCA to determine the number of attributes a property has for a specified component. The component is specified by supplying the sequence number of the component (for example, 1 for the first component). The corresponding component ID is returned.

Calling Sequence for TKRNCA CALL TKRNCA (BLKID, SUBSID, ICP, COMPID, NATT)

Argument List Descriptions for TKRNCA Variable I/O † Type Dimension Description



ICP I INTEGER — Component sequence number


NATT O INTEGER — Number of attributes


Details of a Component Attribute Call subroutine TKRSCA to retrieve the number of elements the component attribute has. The component attribute is specified by supplying the sequence number of the component attribute (for example, 1 for the first attribute). The corresponding component attribute ID is returned.


Calling Sequence for TKRSCA CALL TKRSCA (BLKID, SUBSID, COMPID, IDSEQ, IDATT, NELEM)

Argument List Descriptions For TKRSCA Variable I/O † Type Dimension Description




IDSEQ I INTEGER — Sequence number of attribute

IDATT O CHARACTER*8 — Attribute ID

NELEM O INTEGER — Number of elements


Component Attribute Results Call subroutine TKRCAT to retrieve the results for all the elements of a specified component attribute. (The results are returned in the RVALS array with all the data for a point stored consecutively.) The names of the elements are also returned.

Calling Sequence for TKRCAT CALL TKRCAT (BLKID, SUBSID, COMPID, IDATT, NELEM, NPOINT,

ELEMID, RVALS, IERR)

Argument List Descriptions For TKRCAT Variable I/O † Type Dimension Description




IDATT I CHARACTER*8 — Attribute ID

NELEM I INTEGER — Number of elements

NPOINT I INTEGER — Number of points

ELEMID O CHARACTER*8 NELEM Element names

RVALS O REAL*8 NELEM* POINT Property values



Number of Continuous Feed Streams Call subroutine TKRNFS to determine the number of continuous feed streams to an RBatch block. This number is used for the continuous feed stream properties.


Calling Sequence for TKRNFS CALL TKRNFS (BLKID, SUBSID, NFS)

Argument List Descriptions For TKRNFS Variable I/O † Type Dimension Description



NFS O INTEGER — Number of continuous feed streams


Continuous Feed Stream Results Call subroutine TKRFSP to retrieve the results for a continuous feed stream to an RBatch block. The continuous feed stream number is specified (for example, 1 for the first stream). The name of this stream and the property results are returned.

Calling Sequence for TKRFSP CALL TKRSFP (BLKID, SUBSID, IFEED, IDFEED, PNAME, NPOINT,


Argument List Descriptions For TKRFSP Variable I/O † Type Dimension Description



IFEED I INTEGER — Feed stream number

IDFEED O CHARACTER*8 — Continuous feed stream ID








RBATCH Vent Accumulator Results Retrieving the vent accumulator profiles for the RBatch model requires three additional steps:

1 Call subroutine TKVAPF to determine the dimensions of the profile.

2 Call subroutine TKVAPR to list the properties.


3 Call subroutine TKVAR1 to retrieve the property values for non-component-dependent properties, or subroutine TKVAR2 to retrieve the property values for component-dependent properties.

Vent Accumulator Profile Dimensions Call subroutine TKVAPF to determine the sizes of profile arrays for the vent accumulator. TKVAPF returns the number of:

• Output points.


• Properties.

Calling Sequence for TKVAPF CALL TKVAPF (BLKID, NPOINT, NCP, NPROP)

Argument List Descriptions for TKVAPF Variable I/O † Type Dimension Description






Vent Accumulator Profile Properties Call subroutine TKVAPR to list the RBatch vent accumulator profile properties. TKVAPR returns an array of property names, and an array indicating whether or not the property is component-dependent.

Calling Sequence for TKVAPR CALL TKVAPR (BLKID, NPROP, ITYPES, PNAMES, IERR)

Argument List Descriptions for TKVAPR Variable I/O † Type Dimension Description



ITYPES O INTEGER NPROP Property type: 1=Non-component-dependent 2=Component-dependent





Non-Component-Dependent Vent Accumulator Profiles Call subroutine TKVAR1 to retrieve RBatch vent accumulator profiles for non-component-dependent properties.

Calling Sequence for TKVAR1 CALL TKVAR1 (BLKID, PNAME, NPOINT, RVALS, TYPE, LABEL, IERR)

Argument List Descriptions for TKVAR1 Variable I/O † Type Dimension Description


PNAME I CHARACTER*12 — Property name from TKVAPR







Component-Dependent Vent Accumulator Profiles Call subroutine TKVAR2 to retrieve RBatch vent accumulator profiles for component-dependent properties.

Calling Sequence for TKVAR2 CALL TKVAR2 (BLKID, PNAME, NCP, COMPID, NPOINT,


Argument List Descriptions for TKVAR2 Variable I/O † Type Dimension Description


PNAME I CHARACTER*12 — Property name from TKVAPR










RBatch Vent Profile Results Retrieving the vent profiles for the RBatch model requires three steps:

1 Call subroutine TKVTPF to determine the dimensions of the profile.

2 Call subroutine TKVTPR to list the properties.

3 Call subroutine TKVTR1 to retrieve the property values for non-component-dependent properties, or subroutine TKVTR2 to retrieve the property values for component-dependent properties.

Vent Profile Dimensions Call subroutine TKVTPF to determine the sizes of the profile arrays for the vent. TKVTPF returns the number of:

• Output points.


• Properties.

Calling Sequence for TKVTPF CALL TKVTPF (BLKID, NPOINT, NCP, NPROP)

Argument List Descriptions for TKVTPF Variable I/O † Type Dimension Description






Vent Profile Properties Call subroutine TKVTPR to list the RBatch vent profile properties. TKVTPR returns an array of property names, and an array indicating whether or not the property is component-dependent.

Calling Sequence for TKVTPR CALL TKVTPR (BLKID, NPROP, ITYPES, PNAMES, IERR)

Argument List Descriptions for TKVTPR Variable I/O † Type Dimension Description





ITYPES O INTEGER NPROP Property type (1=Non-component-dependent, 2=Component-dependent)




Non-Component-Dependent Vent Profiles Call subroutine TKVTR1 to retrieve RBatch vent profiles for non-component-dependent properties.

Calling Sequence for TKVTR1 CALL TKVTR1 (BLKID, PNAME, NPOINT, RVALS, TYPE, LABEL, IERR)

Argument List Descriptions for TKVTR1 Variable I/O † Type Dimension Description


PNAME I CHARACTER*12 — Property name from TKVTPR







Component-Dependent Vent Profiles Call subroutine TKVTR2 to retrieve RBatch vent profiles for component-dependent properties.

Calling Sequence for TKVTR2 CALL TKVTR2 (BLKID, PNAME, NCP, COMPID, NPOINT, RVALS, TYPE,

LABEL, IERR)

Argument List Descriptions for TKVTR2 Variable I/O † Type Dimension Description


PNAME I CHARACTER*12 — Property name from TKVTPR


COMPID O CHARACTER*8 NCP Component Ids









Reaction Data You can retrieve the reaction equilibrium constants for each reaction in the REquil and RGibbs models. For the RStoic model you can retrieve the reaction extent and the heat of reaction for each reaction. You can also retrieve the component selectivity for RStoic. You can retrieve reaction data using a three-step process:

1 Call subroutine TKRRPF to determine the number of reactions.

2 Call subroutine TKRRPR to retrieve the equilibrium constants or reaction data.

3 Call subroutine TKRRHR to retrieve the heat of reaction data for RStoic.

Use these additional two steps to retrieve the component selectivity results:

4 Call subroutine TKRRNS to determine the number of selectivity results.

5 Call subroutine TKRRSL to retrieve the component selectivity results.

Number of Reactions Call subroutine TKRRPF to determine the number of reactions in the REquil, RGibbs, and RStoic models.

Calling Sequence for TKRRPF CALL TKRRPF (BLKID, NREAC)

Argument List Descriptions for TKRRPF Variable I/O

† Type Dimension Description


NREAC O INTEGER — Number of reactions


Reaction Results Call subroutine TKRRPR to retrieve the reaction results. TKRRPR returns a single property, equilibrium constant for REquil and RGibbs models, and reaction extent for RStoic models. Specify NPROP as 1.


Calling Sequence for TKRRPR CALL TKRRPR (BLKID, NPROP, NREAC, PNAMES, RVALS, TYPES,

LABELS, IERR)

Argument List Descriptions for TKRRPR Variable I/O



NPROP I INTEGER — Use NPROP = 1 Number of properties

NREAC I INTEGER — Number of reactions


RVALS O REAL*8 NPROP* NREAC Real results

TYPES O CHARACTER*12 NPROP Units type

LABELS O CHARACTER*16 NPROP Units label



Heats of Reaction Call subroutine TKRRHR to retrieve the heats of reaction results for RStoic models. The heat of reaction and the ID of the reference component in the reaction are returned for each reaction.

Calling Sequence for TKRRHR CALL TKRRHR (BLKID, NREAC, COMPID, RVALS, TYPE, LABEL, IERR)

Argument List Descriptions for TKRRHR Variable I/O



NREAC I INTEGER — Number of reactions

COMPID O CHARACTER*12 NREAC Reference component ID

RVALS O REAL*8 NREAC Real results





Number of Selectivity Results Call subroutine TKRRNS to determine the number of component selectivity specifications given for the RStoic model.


Calling Sequence for TKRRNS CALL TKRRNS (BLKID, NSEL)

Argument List Descriptions for TKRRNS Variable I/O



NSEL O INTEGER — Number of selectivity specifications


Reactor Component Selectivity Results Call subroutine TKRRSL to retrieve the results of each component selectivity specification. The reference/reactant component and product component, together with their substreams, are returned with the result for each selectivity specification.

Calling Sequence for TKRRSL CALL TKRRSL (BLKID, NSEL, PCOMPS, PSUBS, RCOMPS, RSUBS,

RVALS, IERR)

Argument List Descriptions for TKRRSL Variable I/O



NSEL I INTEGER — Number of selectivity specifications

PCOMPS O CHARACTER*8 NSEL Product component

PSUBS O CHARACTER*8 NSEL Product component substream

RCOMPS O CHARACTER*8 NSEL Reference component (reactant)

RSUBS O CHARACTER*8 NSEL Reference component substream

RVALS O REAL*8 NSEL Component selectivity




Reactor Property Reports Reactor report results are calculated in Aspen Plus when the PROP-REPORT option is used with the RPlug or RBatch models. The RBatch model allows you to choose the property report for the reactor, accumulator, or vent.

You can retrieve each type of reactor property report using a three-step process:

1 Call TKLRRP to determine the number and types of reports available for the reactor.

2 Call TKSRRP to determine the size of a reactor report.

3 Call TKNRRP to retrieve the next property set property calculated for a reactor property report, or call TKRRRP to retrieve a specific property.

The possible types of reports are:

Type of report For

PROP-REACTOR RBatch Reactor

PROP-ACCUM RBatch Vent accumulator

PROP-VENT RBatch Vent

PROP-REPORT RPlug Reactor

Number of Reports for a Reactor Block Call subroutine TKLRRP to determine the number and types of report available for the reactor.

Calling Sequence for TKLRRP CALL TKLRRP (BLKID, NRPRT, TYPES, IERR)

Argument List Descriptions for TKLRRP Variable I/O † Type Dimension Description


NRPRT O INTEGER — Number of reactor property reports

TYPES O CHARACTER*12 3 Types of property reports (see above)



Size of a Reactor Property Report Call subroutine TKSRRP to determine the size of the reactor property report. TKSRRP returns the number of points in the report and the number of property sets calculated.


Calling Sequence for TKSRRP CALL TKSRRP (BLKID, TYPE, NPOINT, NPROP, IERR)

Argument List Descriptions for TKSRRP Variable I/O † Type Dimension Description


TYPE I CHARACTER*12 — Type of property report (see above)

NPOINT O INTEGER — Number of points




Sequential Reactor Report Properties Call subroutine TKNRRP to retrieve the next property set calculated for a reactor property report. Use the property sequence number to identify the property. TKNRRP returns the property set qualifiers, the property values, and the units type and label.

Calling Sequence for TKNRRP CALL TKNRRP (BLKID, TYPE, NPOINT, IPROP, PNAME, SUBSID, PHASE,

COMPID, WETDRY, BASIS, RVALS, UTYPE, LABEL, IERR)

Argument List Descriptions for TKNRRP Variable I/O † Type Dimension Description




IPROP I INTEGER — Property sequence number





WETDRY O CHARACTER*4 — Wet/dry basis ††






† I = Input to subroutine, O = Output from subroutine †† Can be left unspecified


Specific Reactor Report Properties Call subroutine TKRRRP to retrieve a specific property from a reactor property report. The property is identified by specifying the property set qualifiers (PNAME, SUBSID, PHASE, COMPID, WETDRY, BASIS). TKRRRP returns the property values, the units type, and the units label.

Calling Sequence for TKRRRP CALL TKRRRP (BLKID, TYPE, NPOINT, PNAME, SUBSID, PHASE, COMPID,

WETDRY, BASIS, RVALS, UTYPE, LABEL, IERR)

Argument List Descriptions for TKRRRP Variable I/O † Type Dimension Description









BASIS I CHARACTER*4 — Units basis






Pipeline Results You can retrieve all the pipeline model results with the toolkit. Retrieve block results using the standard block result routine TKBRES. Retrieve other results using the routines described in this section.

Retrieving all the additional pipeline results is a ten-step process:

1 Call subroutine TKPLSZ to retrieve the dimensions of the pipeline results.

2 Call subroutine TKPLIO to retrieve the inlet and outlet conditions.

3 Call subroutine TKPLCP to retrieve the inlet and outlet property names for components in a pipeline.


4 Call subroutine TKPLCO to retrieve the inlet and outlet conditions for components in a pipeline.

5 Call subroutine TKPLSP to retrieve the segment data property names.

6 Call subroutine TKPLSG to retrieve the segment data.

7 Call subroutine TKPLNP to retrieve the node property names.

8 Call subroutine TKPLND to retrieve the node results.

9 Call subroutine TKPLPP to retrieve the pipeline profile property names.

10 Call subroutine TKPLPR to retrieve the pipeline profile data.

Pipeline Results Dimensions Call subroutine TKPLSZ to retrieve the dimensions of the pipeline results. TKPLSZ returns the number of each type of pipeline results.

Calling Sequence for TKPLSZ CALL TKPLSZ (BLKID, NIORES, NCC, NCCPRP, NSEG, NSGPRP, NNODE,

NNDPRP, NPOINT, NPROF, IERR)

Argument List Descriptions for TKPLSZ Variable I/O † Type Dimension Description


NIORES O INTEGER — Number of inlet/outlet condition results

NCC O INTEGER — Number of components present

NCCPRP O INTEGER — Number of component properties

NSEG O INTEGER — Number of pipeline segments

NSGPRP O INTEGER — Number of segment properties

NNODE O INTEGER — Number of pipeline nodes

NNDPRP O INTEGER — Number of node properties

NPOINT O INTEGER — Number of pipeline profile points

NPROF O INTEGER — Number of profile properties



Non-Component-Dependent Pipeline Inlet and Outlet Conditions Call subroutine TKPLIO to retrieve the results for the inlet and outlet conditions of a pipeline. The inlet and outlet results share the same property name, units type and label. The type of the result is indicated in the ITYPES array.


Calling Sequence for TKPLIO CALL TKPLIO (BLKID, NIORES, PNAMES, ITYPES, CVALSI, CVALSO,

RVALSI, RVALSO, TYPES, LABELS, IERR)

Argument List Descriptions for TKPLIO Variable I/O † Type Dimension Description


NIORES I INTEGER — Number of results

PNAMES O CHARACTER*12 NIORES Property name. See Appendix B for a description.

ITYPES O INTEGER NIORES Data type of results (2=Real, 3=Character)

CVALSI O CHARACTER*12 NIORES Inlet character results

CVALSO O CHARACTER*12 NIORES Outlet character results

RVALSI O REAL*8 NIORES Inlet real results

RVALSO O REAL*8 NIORES Outlet real results

TYPES O CHARACTER*12 NIORES Units types

LABELS O CHARACTER*16 NIORES Units labels



Component-Dependent Pipeline Inlet and Outlet Property Names Call subroutine TKPLCP to retrieve the names of the component-dependent properties of the pipeline.

Calling Sequence for TKPLCP CALL TKPLCP (BLKID, NCCPRP, PNAMES, IERR)

Argument List Descriptions for TKPLCP Variable I/O † Type Dimension Description


NCCPRP I INTEGER — Number of component properties

PNAMES O CHARACTER*12 NCCPRP Property name. See Appendix B for a description.




Component-Dependent Pipeline Inlet and Outlet Conditions Call subroutine TKPLCO to retrieve the results for a specified component-dependent property in the pipeline. The inlet and outlet results share the same property name, units type and label.

Calling Sequence for TKPLCO CALL TKPLCO (BLKID, NCC, PNAME, RVALSI, RVALSO, TYPE, LABEL,

IERR)

Argument List Descriptions for TKPLCO Variable I/O † Type Dimension Description

BLKID I CHARACTER*(*)

— Block ID

NCC I INTEGER — Number of components

PNAME I CHARACTER*12 — Property name from TKPLCP

RVALSI O REAL*8 NCC Inlet results

RVALSO O REAL*8 NCC Outlet results

TYPE O INTEGER*12 — Units type




Segment Data Property Names Call TKPLSP to retrieve a list of the names of the properties reported for pipeline segments.

Calling Sequence for TKPLSP CALL TKPLSP (BLKID, NSGPRP, PNAMES, IERR)

Argument List Descriptions for TKPLSP Variable I/O † Type Dimension Description


NSGPRP I INTEGER — Number of segments

PNAMES O CHARACTER*12 NSGPRP Property name. See Appendix B for a description.




Pipeline Segment Data Call subroutine TKPLSG to retrieve segment data for the specified property name. The result will be either a character or a real value, indicated by the value of ITYPE.

Calling Sequence for TKPLSG CALL TKPLSG (BLKID, NSEG, PNAME, ITYPE, RVALS, CVALS, TYPE,

LABEL, IERR)

Argument List Descriptions for TKPLSG Variable I/O † Type Dimension Description


NSEG I INTEGER — Number of pipeline segments

PNAME I CHARACTER*12 — Property name from TKPLSP

ITYPE O INTEGER — Data type of results (2=Real, 3=Character) ††

RVALS O REAL*8 NSEG Real results

CVALS O CHARACTER*12 NSEG Character results




† I = Input to subroutine, O = Output from subroutine †† For each result, the value in ITYPE specifies which array contains the result (CVALS or RVALS). For example, if ITYPE(4) is 2, then CVALS(4) is blank and RVALS(4) contains the result.

Pipeline Node Property Names Call TKPLNP to retrieve a list of the reported property names for a pipeline node.

Calling Sequence for TKPLNP CALL TKPLNP (BLKID, NNDPRP, PNAMES, IERR)

Argument List Descriptions for TKPLNP Variable I/O † Type Dimension Description


NNDPRP I INTEGER — Number of node properties

PNAMES O CHARACTER*12 NNDPRP Property name. See Appendix B for a description.




Pipeline Node Results Call subroutine TKPLND to retrieve the node results for the specific property. The type of result is indicated by ITYPE.

Calling Sequence for TKPLND CALL TKPLND (BLKID, NNODE, PNAME, ITYPE, RVALS, CVALS, TYPE,

LABEL, IERR)

Argument List Descriptions for TKPLND Variable I/O † Type Dimension Description


NNODE I INTEGER — Number of nodes

PNAME I CHARACTER*12 — Property name from TKPLNP

ITYPE O INTEGER — Data type of results (2=Real, 3=Character) ††

RVALS O REAL*8 NNODE Segment results

CVALS O CHARACTER*12 NNODE Character segment results




† I = Input to subroutine, O = Output from subroutine †† For each result, the value in ITYPE specifies which array contains the result (CVALS or RVALS). For example, if ITYPE(4) is 2, then CVALS(4) is blank and RVALS(4) contains the result.

Pipeline Profile Property Names Call subroutine TKPLPP to retrieve the names of the properties in the pipeline fluid profile. Since not all pipelines have this profile, make sure that NPROF is greater than zero before calling this routine. TKPLPP will return an error in IERR if NPROF is zero.

Calling Sequence for TKPLPP CALL TKPLPP (BLKID, NPROF, PNAMES, IERR)

Argument List Descriptions for TKPLPP Variable I/O † Type Dimension Description


NPROF I INTEGER — Number of profile properties





Pipeline Profile Results Call subroutine TKPLPR to retrieve the pipeline profile results for the named property. Since not all pipelines have this profile, make sure that NPOINT is greater than zero before calling this routine. TKPLPR will return an error in IERR if NPOINT is zero.

Calling Sequence for TKPLPR CALL TKPLPR (BLKID, NPOINT, PNAME, RVALS, TYPE, LABEL, IERR)

Argument List Descriptions for TKPLPR Variable I/O † Type Dimension Description



PNAME I CHARACTER*12 — Property name from TKPLPP

RVALS O REAL*8 NPOINT Profile results





Pipe Results You can retrieve all the results for the single-segment pipeline model Pipe, using the standard block results routines TKNRES and TKBRES. Retrieve other results using the routines described in this section.

You can retrieve Pipe results using a six-step process:

1 Call subroutine TKPISP to retrieve the dimensions of the standard profiles.

2 Call subroutine TKPINP to retrieve the names of the standard profile properties.

3 Call subroutine TKPIPR to retrieve results for standard profile properties.

4 Call subroutine TKPLSZ to retrieve the number of fluid properties. For a description of TKPLSZ, see Pipeline Results Dimensions, this chapter.

5 Call subroutine TKPLPP to retrieve the names of the fluid properties. For a description of TKPLPP, see Pipeline Profile Property Names, this chapter.

6 Call subroutine TKPLPR to retrieve the fluid properties results. For a description of TKPLPR, see Pipeline Profile Results, this chapter.


Pipe Standard Profile Dimensions Call subroutine TKPISP to retrieve the dimensions of the standard Pipe profiles results. NPOINT returns zero if there are no profile results for this block. TKPISP returns the number of:

• Profile points.

• Profile properties.

Calling Sequence for TKPISP CALL TKPISP (BLKID, NPOINT, NPROP)

Argument List Descriptions for TKPISP Variable I/O † Type Dimension Description





Pipe Standard Profile Property Names Call subroutine TKPINP to retrieve the names of the properties in the standard Pipe profiles results.

Calling Sequence for TKPINP CALL TKPINP (BLKID, NPROP, PNAMES, IERR)

Argument List Descriptions for TKPINP Variable I/O † Type Dimension Description


NPROP I INTEGER — Number of profile properties




Pipe Standard Profile Properties Call subroutine TKPIPR to retrieve the results for the specific property in the standard Pipe profiles results.

Calling Sequence for TKPIPR CALL TKPIPR (BLKID, NPOINT, PNAME, RVALS, TYPE, LABEL, IERR)


Argument List Descriptions for TKPIPR Variable I/O † Type Dimension Description



PNAME I CHARACTER*12 — Property name from TKPINP

RVALS O REAL*8 NPOINT Real results





Pipe Property Reports The Pipe model allows you to get a profile report for the properties in a named property set. You can retrieve these results using a two-step process:

1 Call TKSPIR to determine the size of the property set profile.

2 Call TKNPIP to retrieve the next property set property calculated in the profile report. Call TKRPIP to retrieve a specified property.

Size of a Pipe Property Report Call subroutine TKSPIR to determine the size of the property set report. The number of points in the report and the number of properties are returned.

Calling Sequence for TKSPIR CALL TKSPIR (BLKID, NPOINT, NPROP)

Argument List Descriptions for TKSPIR Variable I/O † Type Dimension Description





Sequential Pipe Report Properties Call subroutine TKNPIP to retrieve the next property calculated for a pipe property report. Use the property sequence number to identify the property. TKNPIP returns the:

• Property qualifiers.

• Property values.

• Units type.

• Units label.


Calling Sequence for TKNPIP CALL TKNPIP (BLKID, NPOINT, IPROP, PNAME, SUBSID, PHASE, COMPID,

WETDRY, BASIS, RVALS, TYPE, LABEL, IERR)

Argument List Descriptions for TKNPIP Variable I/O † Type Dimension Description








WETDRY O CHARACTER*4 — Wet/dry basis (WET or DRY)

BASIS O CHARACTER*4 — Unit basis (MOLE, MASS, or FLOW)






Specific Pipe Report Properties Call subroutine TKRPIP to retrieve a specific property from a pipe property report. The property is identified by specifying the property set qualifiers (PNAME, SUBSID, PHASE, COMPID, WETDRY, BASIS). TKRPIP returns the property values, and the units type and label.

Calling Sequence for TKRPIP Call TKRPIP (BLKID, NPOINT, PNAME, SUBSID, PHASE, COMPID, WETDRY,

BASIS, RVALS, TYPE, LABEL, IERR)

Argument List Descriptions for TKRPIP Variable I/O † Type Dimension Description







WETDRY I CHARACTER*4 — Wet/dry basis (WET or DRY)



BASIS I CHARACTER*4 — Unit basis (MOLE, MASS, or FLOW)






Block VLE Results Call subroutine TKVLE to retrieve vapor-liquid (or vapor-liquid-liquid) equilibrium results for a block. These results are available for the following Aspen Plus models: Heater, Flash2, Flash3, RStoic, and RYield.

Calling Sequence for TKVLE CALL TKVLE (BLKID, NPH, NCP, COMPID, F, X, Y, RK, X2, RK2)

Argument List Descriptions for TKVLE Variable I/O † Type Dimension Description


NPH O INTEGER — Number of phases (2=VLE, 3=VLLE)



F O REAL*8 NCP Feed mole fractions

X O REAL*8 NCP Liquid mole fractions (for VLE) or Liquid1 mole fractions (for VLLE)

Y O REAL*8 NCP Vapor mole fractions

RK O REAL*8 NCP Vapor-Liquid K-value (for VLE) or Vapor-Liquid1 K-value (for VLLE)

X2 O REAL*8 NCP Liquid2 mole fractions

RK2 O REAL*8 NCP Vapor-Liquid2 K-value


Heating/Cooling Curves Aspen Plus can calculate heating/cooling curves for unit operation models Heater, Flash2, Flash3, HeatX, MHeatX, MCompR, RadFrac, MultiFrac, RateFrac, and PetroFrac. A unit operation block can have any number of heating/cooling curves. Many unit operation models allow for multiple types of heating/cooling curves.You can retrieve heating/cooling curve results using a five-step process:


1 Call TKNHCR to determine the number of heating/cooling curves for a block.

2 Call TKLHCR to list the heating/cooling curve types and numbers.

3 Call TKSHCR to determine the size of a heating/cooling curve.

4 Call TKHCUR to retrieve the standard results (temperature, pressure, vapor fraction, and duty) for a heating/cooling curve.

5 Retrieve the property set results by calling either TKNHCP for sequential heating/cooling curve properties or TKHCPR for specific heating/cooling curve properties.

The routines listed above replace the routines TKNHCV, TKLHCV, TKSHCV, TKHCRV, TKNHPR, and TKHPRP. These routines will continue to be supported and updated but cannot be used to access PetroFrac heating/cooling curves.

PetroFrac models have strippers and pumparounds that may have heating/cooling curves. The heating/cooling curve for a particular stripper or pumparound has both a block ID and a second ID for the main column/pumparound/stripper. The heating/cooling curve routines have an argument for this second ID called ID2. This argument is ignored for other models.

You can determine the interconnecting stream ID for MultiFrac heating/cooling curves by calling TKHCID.

Number of Heating/Cooling Curves for a Block Call subroutine TKNHCR to determine the number of heating/cooling curves for a unit operation block.

Calling Sequence for TKNHCR CALL TKNHCR (BLKID, NCURVE)

Argument List Descriptions for TKNHCR Variable I/O † Type Dimension Description


NCURVE O INTEGER — Number of heating/cooling curves


Heating/Cooling Curves for a Block Call subroutine TKLHCR to list the heating/cooling curves for a unit operation block. TKLHCR returns a list of heating/cooling curve types and numbers, which are used to identify individual curves. The IDs of the main column, pumparound, and strippers of the PetroFrac unit are returned in ID2.

Calling Sequence for TKLHCR CALL TKLHCR (BLKID, NCURVE, ID2, TYPES, NUMBER, IERR)


Argument List Descriptions for TKLHCR Variable I/O † Type Dimension Description


NCURVE I INTEGER — Number of heating/cooling curves

ID2 O CHARACTER*8 NCURVE ID of PetroFrac main column, pumparound, or stripper

TYPES O CHARACTER*16 NCURVE Type of heating/cooling curve (see below)

NUMBER O INTEGER NCURVE Heating/cooling curve number of each curve



TYPES value Type of Heating/Cooling Curve

HCURVE Standard

HOT Hot side

COLD Cold side

REBOILER Reboiler

CONDENSER Condenser

ICSTREAM Interconnecting stream heater

PUMPAROUND Pumparound

STRIPPERREBOILER Stripper reboiler

Size of a Heating/Cooling Curve Call subroutine TKSHCR to determine the size of a heating/cooling curve. TKSHCR returns the number of points in the curve, and the number of properties calculated.

Calling Sequence for TKSHCR CALL TKSHCR (BLKID, ID2, TYPE, NUMBER, NPOINT, NPROP)

Argument List Descriptions for TKSHCR Variable I/O † Type Dimension Description


ID2 I CHARACTER*8 — ID of PetroFrac main column, pumparound, or stripper

TYPE I CHARACTER*16 — Type of heating/cooling curve

NUMBER I INTEGER — Heating/cooling curve number

NPOINT O INTEGER — Number of points in curve




Standard Heating/Cooling Curve Results Call subroutine TKHCUR to retrieve the temperature, pressure, vapor fraction, heat duty, and error flag for each point along the curve.

Calling Sequence for TKHCUR CALL TKHCUR (BLKID, ID2, TYPE, NUMBER, NPOINT, IERFLG, TEMP,

PRES, VFRAC, DUTY, IERR)

Argument List Descriptions for TKHCUR Variable I/O † Type Dimension Description


ID2 I CHARACTER*8 ID of PetroFrac main column, pumparound, or stripper




IERFLG O INTEGER NPOINT Status flag for each point 0=OK 1=Errors in this row 2=Dew point 3=Bubble point)

TEMP O REAL*8 NPOINT Temperature at each point

PRES O REAL*8 NPOINT Pressure at each point

VFRAC O REAL*8 NPOINT Vapor fraction at each point

DUTY O REAL*8 NPOINT Duty at each point



Sequential Heating/Cooling Curve Properties Call subroutine TKNHCP to retrieve the next property set calculated for a heating/cooling curve. Use the property sequence number to identify the property. TKNHCP returns the property set qualifiers, the property values, and the units type and label.

Calling Sequence for TKNHCP CALL TKNHCP (BLKID, ID2, TYPE, NUMBER, NPOINT, IPROP, PNAME,

SUBSID, PHASE, COMPID, WETDRY, BASIS, RVALS, UTYPE, LABEL, IERR)


Argument List Descriptions for TKNHCP Variable I/O † Type Dimension Description





NPOINT I INTEGER — Number of points in curve








RVALS O REAL*8 NPOINT Real values





Specific Heating/Cooling Curve Properties Call subroutine TKHCPR to retrieve a specific property for a heating/cooling curve. The property is identified by specifying the property set qualifiers (PNAME, SUBSID, PHASE, COMPID, WETDRY, BASIS). Before calling TKHCPR, make sure that all the qualifiers are either set to the desired value or unset. TKHCPR returns the property values, the units type, and the units label.

Calling Sequence for TKHCPR CALL TKHCPR (BLKID, ID2, TYPE, NUMBER, NPOINT, PNAME,

SUBSID, PHASE, COMPID, WETDRY, BASIS, RVALS, UTYPE, LABEL, IERR)

Argument List Descriptions for TKHCPR Variable I/O † Type Dimension Description







NPOINT I INTEGER — Number of points in curve





WETDRY I CHARACTER*4 — Wet/dry basis (WET or DRY) ††







Interconnecting Stream IDs MultiFrac heating/cooling curves of type ICSTREAM are associated with interconnecting streams. Call subroutine TKHCID to retrieve the ID of the interconnecting streams.

Calling Sequence for TKHCID CALL TKHCID (BLKID, TYPE, NUMBER, INTID, CHARID, IERR)

Argument List Descriptions for TKHCID Variable I/O † Type Dimension Description




INTID O INTEGER — Interconnecting stream ID for MultiFrac

CHARID O CHARACTER*8 — Not currently used



4 Stream Result Subroutines 99

4 Stream Result Subroutines

This chapter describes the use of stream result retrieval subroutines in the Aspen Plus summary file toolkit. Use the subroutines described in this chapter for:

• Stream identification.

• Material stream results.

• Heat and work stream results.

• Component attribute results.

• Substream attribute results.

• Stream property set results.

Stream Identification The following subroutines are used to identify streams in the summary file:

• TKSIDS returns a list of all the streams in the summary file.

• TKNSTR returns the next sequential stream.

Both routines return the stream type (MATERIAL, HEAT, or WORK).

Listing Stream IDs Call subroutine TKSIDS to retrieve the list of streams.

Calling Sequence for TKSIDS CALL TKSIDS (NSTRM, STRMID, STRTYP, IERR)

Argument List Descriptions for TKSIDS Variable I/O † Type Dimension Description

NSTRM I INTEGER — Stream number

STRMID O CHARACTER*(*) NSTRM Stream ID

STRTYP O CHARACTER*12 NSTRM Stream type (MATERIAL, HEAT, or WORK)

100 4 Stream Result Subroutines




Determining the Next Stream Call subroutine TKNSTR to get the next stream in a sequence. The stream is identified by the sequence number. TKNSTR also returns the stream type.

To find the stream ID of the first stream, set ISTRM to 1. To find the name of the second stream, set ISTRM to 2.

Calling Sequence for TKNSTR CALL TKNSTR (ISTRM, STRMID, STRTYP, IERR)

Argument List Descriptions for TKNSTR Variable I/O † Type Dimension Description

ISTRM I INTEGER — Stream number

STRMID O CHARACTER*(*) — Stream ID

STRTYP O CHARACTER*12 — Stream type (MATERIAL, HEAT, or WORK)



Material Stream Results TKSINF returns the source and destination blocks, along with the dimensions of the data for material streams. TKSSID returns the list of substream IDs for a stream. TKSTRM retrieves the results for material streams.

Retrieving Basic Stream Information Call subroutine TKSINF to retrieve basic stream information. TKSINF returns the source and destination blocks of the stream. In addition, TKSINF returns the number of substreams and the dimensions of the results for material streams.

Calling Sequence for TKSINF CALL TKSINF (STRMID, SOURCE, DEST, NSUBS, LEN, IERR)

Argument List Descriptions for TKSINF Variable I/O † Type Dimension Description

STRMID I CHARACTER*(*) — Stream ID



SOURCE O CHARACTER*(*) — Source block ID

DEST O CHARACTER*(*) — Destination block ID

NSUBS O INTEGER — Number of substreams

LEN O INTEGER — Number of stream results



Listing Substream IDs Call subroutine TKSSID to list the substreams for a stream.

Calling Sequence for TKSSID CALL TKSSID (STRMID, NSUB, SUBSID)

Argument List Descriptions for TKSSID Variable I/O † Type Dimension Description


NSUB I INTEGER — Number of substreams

SUBSID O CHARACTER*8 NSUB Substream IDs


Retrieving Stream Results Call subroutine TKSTRM to retrieve the results for a material stream. The property is identified by its qualifiers. Typical qualifiers are property name, substream, component ID, and units basis.

Calling Sequence for TKSTRM CALL TKSTRM (STRMID, LEN, QUALS, RVALS, TYPES,

LABELS, IERR )

Argument List Descriptions for TKSTRM Variable I/O † Type Dimension Description


LEN I INTEGER — Number of stream results

QUALS O CHARACTER*16 4*LEN Qualifiers for results. For each value they are: • Property name. See Appendix B for a description. • Substream ID • Component ID • Units basis

RVALS O REAL*8 LEN Real results



TYPES O CHARACTER*12 LEN Units type

LABELS O CHARACTER*16 LEN Units label



Retrieving a Single Stream Property Call subroutine TKSVAL to retrieve a single material stream property. RVALS is an array which should be dimensioned to 1 if an overall stream property is requested, or to NCOMP if a component property from Table B.4 is requested.

Calling Sequence for TKSVAL CALL TKSVAL (STRMID, SUBSID, PNAME, BASIS, RVALS, TYPE, LABEL,

IERR)

Argument List Descriptions for TKSVAL Variable I/O † Type Dimension Description





RVALS O REAL*8 1 or NCOMP Real results (Use NCOMP if value is for a component property.)





Heat and Work Stream Results Call subroutine TKSTRA to retrieve the result value from a heat or a work stream. Heat streams return an enthalpy flow. Work streams return a power.

Calling Sequence for TKSTRA CALL TKSTRA (STRMID, STRTYP, VALUE, LABEL)


Argument List Descriptions for TKSTRA Variable I/O † Type Dimension Description


STRTYP I CHARACTER*4 — Stream type (HEAT or WORK)

VALUE O REAL*8 — Result value

LABEL O CHARACTER*16 — Units labels (type is ENTHALPY-FLOW for heat streams, POWER for work streams)


Component Attribute Results You can retrieve component attribute results for a substream using a four-step process:

1 Call TKSNAC to determine the number of components with attributes in the substream.

2 Call TKSNCA to determine the number of attributes for a component in a substream.

3 Call TKSSCA to determine the size of a component attribute.

4 Call TKSCAT to retrieve the component attribute values.

Determining the Number of Components with Attributes Call subroutine TKSNAC to retrieve the number of components with attributes in a specified substream.

Calling Sequence for TKSNAC CALL TKSNAC (STRMID, SUBSID, NAC)

Argument List Descriptions for TKSNAC Variable I/O † Type Dimension Description



NAC O INTEGER — Number of components with attributes



Determining Number of Attributes for a Component Call subroutine TKSNCA to determine the number of attributes for a component. Specify the component number; TKSNCA returns the component ID and the number of attributes.

Calling Sequence for TKSNCA CALL TKSNCA (STRMID, SUBSID, ICOMP, COMPID, NATT)

Argument List Descriptions for TKSNCA Variable I/O † Type Dimension Description



ICOMP I INTEGER — Component sequence number


NATT O INTEGER — Number of attributes


Determining Component Attribute Size Call subroutine TKSSCA to determine the size of a component attribute. Specify the attribute sequence number. TKSSCA returns the attribute name and the number of elements.

Calling Sequence for TKSSCA CALL TKSSCA (STRMID, SUBSID, COMPID, IATT, IDATT, NELEM)

Argument List Descriptions for TKSSCA Variable I/O † Type Dimension Description




IATT I INTEGER — Attribute sequence number

IDATT O CHARACTER*8 — Attribute name




Retrieving Component Attribute Values Call subroutine TKSCAT to retrieve the array of component attribute values and the name of each attribute element.

Calling Sequence for TKSCAT CALL TKSCAT (STRMID, SUBSID, COMPID, IDATT, NELEM, ELEMID,

VALUES, IERR)

Argument List Descriptions for TKSCAT Variable I/O † Type Dimension Description




IDATT I CHARACTER*8 — Attribute name


ELEMID O CHARACTER*8 NELEM Names of elements

VALUES O REAL*8 NELEM Real values



Substream Attribute Results You can retrieve substream attribute results for a substream using a three-step process:

1 Call TKSNSA to get the number of substream attributes in a substream.

2 Call TKSSSA to get the size of a substream attribute.

3 Call TKSSAT to retrieve the substream attribute results.

Determining the Number of Substream Attributes Call subroutine TKSNSA to determine the number of attributes in a substream.

Calling Sequence for TKSNSA CALL TKSNSA (STRMID, SUBSID, NSATT)


Argument List Descriptions for TKSNSA Variable I/O † Type Dimension Description



NSATT O INTEGER — Number of substream attributes


Determining Substream Attribute Size Call subroutine TKSSSA to determine the size of a substream attribute. Specify the attribute sequence number; TKSSSA returns the number of elements and the attribute ID.

Calling Sequence for TKSSSA CALL TKSSSA (STRMID, SUBSID, ISATT, SATID, NELEM)

Argument List Descriptions for TKSSSA Variable I/O † Type Dimension Description



ISATT I INTEGER — Attribute sequence number

SATID O CHARACTER*8 — Attribute ID



Retrieving Substream Attribute Values Call subroutine TKSSAT to retrieve results for substream attributes.

Calling Sequence for TKSSAT CALL TKSSAT (STRMID, SUBSID, SATID, NELEM, VALUES, IERR)

Argument List Descriptions for TKSSAT Variable I/O † Type Dimension Description



SATID I CHARACTER*8 — Attribute ID


VALUES O REAL*8 NELEM Real values




Stream Property Set Results You can retrieve results for additional property sets specified in the standard stream report using a two-step process:

1 Call subroutine TKNSPR to get the number of properties.

2 Call TKSPRP to retrieve the property values.

Determining Dimensions of Stream Property Values Call subroutine TKNSPR to determine the number of property set results for a stream.

Calling Sequence for TKNSPR CALL TKNSPR (STRMID, NVAL, IERR)

Argument List Descriptions for TKNSPR Variable I/O † Type Dimension Description


NVAL O INTEGER — Number of values


Retrieving Stream Property Results Call subroutine TKSPRP to retrieve the property values for a stream. TKSPRP returns the property qualifiers to identify each property value.

Calling Sequence for TKSPRP CALL TKSPRP (STRMID, NVAL, PNAME, SUBSID, PHASE, COMPID, WETDRY,

BASIS, RVALS, TYPES, LABELS, IERR)

Argument List Descriptions for TKSPRP Variable I/O † Type Dimension Description


NVAL I INTEGER — Number of values

PNAME O CHARACTER*12 NVAL Property name. See Appendix B for a description.

SUBSID O CHARACTER*8 NVAL Substream ID

PHASE O CHARACTER*8 NVAL Phase

COMPID O CHARACTER*8 NVAL Component ID

WETDRY O CHARACTER*4 NVAL Wet/dry basis (WET or DRY) ††

BASIS O CHARACTER*4 NVAL Units basis (MOLE, MASS, or FLOW)



RVALS O REAL*8 NVAL Real results

TYPES O CHARACTER*12 NVAL Units types

LABELS O CHARACTER*16 NVAL Units labels



5 Physical Property Table Results Subroutines 109

5 Physical Property Table Results Subroutines

You can retrieve all property table results using a standard set of subroutines. There is a separate set of subroutines for retrieving pressure-temperature envelope results.

This chapter describes:

• Property table identification.

• Property and flashcurve table results.

• Pressure-temperature envelope results.

110 5 Physical Property Table Results Subroutines

Property Table Identification Call subroutine TKNPPT to get the next property table in sequence from the summary file.

Calling Sequence for TKNPPT CALL TKNPPT (ITABLE, TABID, TYPE, IERR)

Argument List Descriptions for TKNPPT Variable I/O † Type Dimension Description

ITABLE I INTEGER — Property table sequence number

TABID O CHARACTER*(*) — Property table ID

TYPE O CHARACTER*12 — Property table type (PROPS, FLASHCURVE, or PTENVELOPE)



Property and Flashcurve Table Results You can retrieve property and flashcurve table results by calling either of the following two subroutines:

• TKNPPR to retrieve the next sequential property.

• TKPPRP to retrieve a specific property.

When you use either of these subroutines, you must call subroutine TKSPPT to determine the dimensions of the property table.

Determining Property Table Dimensions Call subroutine TKSPPT to determine the dimensions of a property table. TKSPPT returns the number of points and the number of properties.

Calling Sequence for TKSPPT CALL TKSPPT (TABID, NPOINT, NPROP, IERR)

Argument List Descriptions for TKSPPT Variable I/O † Type Dimension Description

TABID I CHARACTER*(*) — Property table ID

NPOINT O INTEGER — Number of points






Retrieving Sequential Properties in a Table Call subroutine TKNPPR to retrieve the next property in sequence from the property table. Identify the property using the property sequence number. TKNPPR returns the stream property qualifiers.

Calling Sequence for TKNPPR CALL TKNPPR (TABID, NPOINT, IPROP, PNAME, SUBSID, PHASE, COMPID,

WETDRY, BASIS, RVALS, TYPE, LABEL, IERR)

Argument List Descriptions for TKNPPR Variable I/O † Type Dimension Description



IPROP I INTEGER — Property number












Retrieving Specific Properties from a Table Call subroutine TKPPRP to retrieve a specific property from the property table. Specify the property by listing its qualifiers.

Calling Sequence for TKPPRP CALL TKPPRP (TABID, NPOINT, PNAME, SUBSID, PHASE, COMPID, WETDRY,

BASIS, RVALS, TYPE, LABEL, IERR)


Argument List Descriptions for TKPPRP Variable I/O † Type Dimension Description







WETDRY I CHARACTER*4 — Wet/dry basis (WET or DRY) ††







Pressure-Temperature Envelope Results You can retrieve pressure-temperature envelope results using a four-step process:

1 Call TKNENV to determine the number of envelopes and properties in a property table.

2 Call TKSENV to determine the size of each branch of an envelope.

3 Call TKPTEV to retrieve the temperature and pressure along each branch of an envelope.

4 Retrieve the property set for each branch of an envelope. You can retrieve each property sequentially using TKNPEV, or retrieve a specific property using TKPPEV.

Determining Dimensions for Properties in the Envelope Call subroutine TKNENV to determine the number of envelopes and the number of properties.

Calling Sequence for TKNENV CALL TKNENV (TABID, NENVL, NPROP, IERR)


Argument List Descriptions for TKNENV Variable I/O † Type Dimension Description


NENVL O INTEGER — Number of envelopes




Determining Envelope Dimensions Call subroutine TKSENV to determine the dimensions of an envelope. TKSENV returns the number of points for each branch of the envelope. For an envelope at a vapor fraction of .5, zero is returned as the dimension of the complementary branch.

Calling Sequence for TKSENV CALL TKSENV (TABID, IENVL, NP1, NP2)

Argument List Descriptions for TKSENV Variable I/O † Type Dimension Description


IENVL I INTEGER — Envelope number

NP1 O INTEGER — Number of points in the first branch

NP2 O INTEGER — Number of points in the complementary branch


Retrieving Temperature and Pressure for Envelope Branch Call subroutine TKPTEV to retrieve the temperature and pressure for each branch along an envelope. TKPTEV also returns the vapor fraction values for each branch.

Calling Sequence for TKPTEV CALL TKPTEV (TABID, IENVL, NP1, NP2, VFRAC1, VFRAC2, TEMP1,

PRES1, TEMP2, PRES2)

Argument List Descriptions for TKPTEV Variable I/O † Type Dimension Description



NP1 I INTEGER — Number of points in the first branch



NP2 I INTEGER — Number of points in the complementary branch

VFRAC1 O REAL*8 — Vapor fraction for the first branch

VFRAC2 O REAL*8 — Vapor fraction for the complementary branch

TEMP1 O REAL*8 NP1 Temperature values for the first branch

PRES1 O REAL*8 NP1 Pressure values for the first branch

TEMP2 O REAL*8 NP2 Temperature values for the complementary branch

PRES2 O REAL*8 NP2 Pressure values for the complementary branch


Retrieving Sequential Envelope Properties Call subroutine TKNPEV to retrieve the next sequential property for an envelope. TKNPEV returns the property values for both branches of the envelope and the vapor fraction values.

Calling Sequence for TKNPEV CALL TKNPEV (TABID, IENVL, IPROP, NP1, NP2, VFRAC1, VFRAC2,

PNAME, SUBSID, PHASE, COMPID, WETDRY, BASIS, VALS1, VALS2, TYPE, LABEL)

Argument List Descriptions for TKNPEV Variable I/O † Type Dimension Description

TABID I CHARACTER*(*) — Table ID



NP1 I INTEGER — Number of points along the first branch

NP2 I INTEGER — Number of points along the complementary branch

VFRAC1 O REAL*8 — Vapor fraction for the first branch

VFRAC2 O REAL*8 — Vapor fraction for the complementary branch







VALS1 O REAL*8 NP1 Property values for the first branch



VALS2 O REAL*8 NP2 Property values for the complementary branch




Retrieving Specific Envelope Properties Call subroutine TKPPEV to retrieve a specific property set from a pressure-temperature envelope.

Calling Sequence for TKPPEV CALL TKPPEV (TABID, IENVL, NP1, NP2, PNAME, SUBSID, PHASE,

COMPID, WETDRY, BASIS, VFRAC1, VFRAC2, VALS1, VALS2, TYPE, LABEL)

Argument List Descriptions for TKPPEV Variable I/O † Type Dimension Description

TABID I CHARACTER*(*) — Table ID


NP1 I INTEGER — Number of points along the first branch

NP2 I INTEGER — Number of points along the complementary branch







VFRAC1 O REAL*8 — Vapor fraction of the first branch

VFRAC2 O REAL*8 — Vapor fraction of the complementary branch

VALS1 O REAL*8 NP1 Property values for the first branch

VALS2 O REAL*8 NP2 Property values for the complementary branch




†† Can be left unspecified.

116 6 Costing Results Subroutines

6 Costing Results Subroutines

This chapter describes the use of costing equipment item retrieval subroutines in the summary file toolkit. Use the subroutines described in this chapter for retrieving this information about equipment items:

• Identification.

• Costing and sizing results.

6 Costing Results Subroutines 117

Equipment Item Identification The subroutines used to identify costing equipment items in the summary file are:

Subroutine Returns

TKNEQ Number of equipment items in the summary file

TKEIDS List of equipment items in the summary file

TKNEQP Equipment item IDs sequentially

Determining Number of Equipment Items Call TKNEQ to determine the number of equipment items in the summary file.

Calling Sequence for TKNEQ CALL TKNEQ (NEQUIP)

Argument List Descriptions for TKNEQ Variable I/O † Type Dimension Description

NEQUIP O INTEGER — Number of equipment items


Listing Equipment Items Call subroutine TKEIDS to get the list of equipment items and types.

Calling Sequence for TKEIDS CALL TKEIDS (NEQUIP, EQPID, EQPTYP, IERR)

Argument List Descriptions for TKEIDS Variable I/O † Type Dimension Description

NEQUIP I INTEGER — Number of equipment items

EQPID O CHARACTER*8 NEQUIP Equipment item ID

EQPTYP O CHARACTER*12 NEQUIP Equipment type



Determining Next Equipment Item Call subroutine TKNEQP to find the name of the next equipment item.

To find the ID of the first equipment item, set IEQUIP to 1. To find the name of the second item, set IEQUIP to 2, and so on.

118 6 Costing Results Subroutines

Calling Sequence for TKNEQP CALL TKNEQP (IEQUIP, EQPID, EQPTYP, IERR)

Argument List Descriptions for TKNEQP Variable I/O † Type Dimension Description

IEQUIP I INTEGER — Equipment item number

EQPID O CHARACTER*8 — Equipment item ID

EQPTYP O CHARACTER*12 — Equipment type



Equipment Item Results The following subroutines are used to return results for equipment items in the summary file:

Subroutine Returns

TKEQCR Costing results for an equipment item

TKNEQS Number of sizing results for an equipment item

TKEQSR Sizing results for an equipment item

Retrieving Equipment Item Costing Results Call subroutine TKEQCR to retrieve the calculated number of equipment items, the carbon steel cost, and the purchased cost.

Calling Sequence for TKEQCR CALL TKEQCR (EQPID, EQPTYP, NCALC, CSCOST, PCOST, IERR)

Argument List Descriptions for TKEQCR Variable I/O † Type Dimension Description

EQPID I CHARACTER*8 — Equipment Item ID

NCALC O INTEGER — Calculated number of equipment items

CSCOST O REAL*8 — Carbon steel cost

PCOST O REAL*8 — Purchased cost



Determining Equipment Item Sizing Results Call subroutine TKNEQS to determine the number of equipment item sizing results.

6 Costing Results Subroutines 119

Calling Sequence for TKNEQS CALL TKNEQS (EQPID, NVAL, IERR)

Argument List Descriptions for TKNEQS Variable I/O † Type Dimension Description

EQPID I CHARACTER*8 — Equipment Item ID

NVAL O INTEGER — Number of results



Retrieving Equipment Item Sizing Results Call subroutine TKEQSR to retrieve the equipment item sizing results.

Calling Sequence for TKEQSR CALL TKEQSR (EQPID, NVAL, PNAMES, ITYPES, IVALS, CVALS,

RVALS, UTYPES, LABELS, IERR)

Argument List Descriptions for TKEQSR Variable I/O † Type Dimension Description

EQPID I CHARACTER*8 — Equipment item ID

NVAL I INTEGER — Number of results

PNAMES O CHARACTER*12 NVAL Property names. See Appendix B for a description.

ITYPES O INTEGER NVAL Result type (1 = Integer value, 2 = Real*8 value, 3 = Character value)††

IVALS O INTEGER NVAL Integer result

CVALS O CHARACTER*12 NVAL Character result

RVALS O REAL*8 NVAL Real result

UTYPES O CHARACTER*12 NVAL Units type

LABELS O CHARACTER*16 NVAL Units label



†† For each result, the value in ITYPE specifies which array contains the result (IVALS, CVALS, or RVALS). For example, if ITYPE(4) is 2, then IVALS(4) is 0, CVALS(4) is blank and RVALS(4) contains the result.

120 7 Pressure Relief Subroutines

7 Pressure Relief Subroutines

This chapter describes the use of pressure relief retrieval subroutines in the summary file toolkit. Use the subroutines described in this chapter for:

• Pressure relief model identification.

• Dynamic and steady-state results.

• Scalar results.

• Profile results.

• Vessel results.

• Vent results.

• Accumulator results.

7 Pressure Relief Subroutines 121

Pressure Relief Block Identification The following subroutines are used to identify the pressure relief blocks in the summary file:

• TKNPRS returns the number of pressure relief blocks in the summary file.

• TKPIDS returns a list of pressure relief IDs in the summary file.

• TKNXPR retrieves the pressure relief IDs sequentially.

There is no additional type information, unlike the corresponding block routines.

Determining the Number of Pressure Relief Blocks Call subroutine TKNPRS to determine the number of pressure relief blocks in the summary file.

Calling Sequence for TKNPRS CALL TKNPRS (NPR)

Argument List Descriptions for TKNPRS Variable I/O † Type Dimension Description

NPR O INTEGER — Number of pressure relief blocks


Listing Pressure Relief Blocks Call subroutine TKPIDS to get a list of pressure relief blocks.

Calling Sequence for TKPIDS CALL TKPIDS (NPR, PRID, IERR)

Argument List Descriptions for TKPIDS Variable I/O † Type Dimension Description

NPR I INTEGER — Number of pressure relief blocks

PRID O CHARACTER*(*) NPR Pressure relief IDs




Determining the Next Pressure Relief Block Call subroutine TKNXPR to find the ID of the next pressure relief block in sequence.

To find the first ID, set IPR to 1. To find the ID of the second, set IPR to 2.

Calling Sequence for TKNXPR CALL TKNXPR (IPR, PRID, IERR)

Argument List Descriptions for TKNXPR Variable I/O † Type Dimension Description

IPR I INTEGER — Sequence number of pressure relief blocks

PRID O CHARACTER*(*) — Pressure relief ID



Pressure Relief Results You can retrieve scalar and profile results from the summary file for the pressure relief blocks. Results are either steady state or dynamic. You can also retrieve the vent accumulator and vent profile results for the dynamic case. Retrieving pressure relief results is a five-step process:

1 Call subroutine TKPSUB to determine the number of substreams.

2 Call subroutine TKPSRF to determine the dimensions of the scalar results and profiles.

3 Call TKPSSR to retrieve the dynamic scalar results; call subroutine TKPSSS to retrieve steady-state results.

4 Call subroutine TKPSRP to list the dynamic properties; call subroutine TKPSSP to list the steady-state properties.

5 For dynamic results, call subroutine TKPSR1 to retrieve the non-component-dependent profile properties; call subroutine TKPSR2 to retrieve the component-dependent profile properties.

– Or –

For steady-state results, call subroutine TKPSS1 to retrieve the property values.

Retrieving the vent accumulator profiles for the dynamic results requires three additional steps:

6 Call subroutine TKPVPF to determine the dimensions of the profile.

7 Call subroutine TKPVRP to list the properties.


8 Call subroutine TKPVR1 to retrieve the property values for position-dependent properties. Or call subroutine TKPVR2 to retrieve the property values for component-dependent properties.

Retrieving the vent profiles for the dynamic results requires another three steps:

9 Call subroutine TKPAPF to determine the dimensions of the profile.

10 Call subroutine TKPAPR to list the properties.

11 Call subroutine TKPAR1 to retrieve the property values for non-component-dependent properties. Or call subroutine TKPAR2 to retrieve the property values for component-dependent properties.

Determining the Number of Substreams Call subroutine TKPSUB to determine the number of substreams for which the pressure relief block has results. If the results for the pressure relief model are at steady-state there are no substream dependent results and a value of one is returned.

Calling Sequence for TKPSUB CALL TKPSUB (PRID, NSUB)

Argument List Descriptions for TKPSUB Variable I/O † Type Dimension Description

PRID I CHARACTER*(*) — Block ID

NSUB O INTEGER — Number of substreams


Determining Dimensions of Pressure Relief Arrays Call subroutine TKPSRF to determine the sizes for the pressure relief arrays. TKPSRF returns:

• Number of scalar results.

• Number of profile points.

• Number of components present.

• Number of profile properties.

• Substream ID for the requested substream.

• Whether the results are steady state or dynamic.

Calling Sequence for TKPSRF CALL TKPSRF (PRID, ISUB, SUBSID, ISTATE, NSCAL, NPOINT, NCP,

NPROP)


Argument List Descriptions for TKPSRF Variable I/O † Type Dimension Description


ISUB I INTEGER — Substream number


ISTATE O INTEGER — Results (1=Steady state, 2=Dynamic)

NSCAL O INTEGER — Number of scalar results




† I = Input to subroutine, O = Output from subroutine,

Listing Profile Properties Call subroutine TKPSRP to list the dynamic profile properties for a specified substream. TKPSRP returns an array of property names, and an array indicating whether the property is component-dependent.

Call subroutine TKPSSP to list the steady-state profile properties. TKPSSP returns an array of property names, and the names of the pressure relief positions for each profile point.

Calling Sequence for TKPSRP CALL TKPSRP (PRID, SUBSID, NPROP, ITYPES, PNAMES, IERR)

Argument List Descriptions for TKPSRP Variable I/O † Type Dimension Description




ITYPES O INTEGER NPROP Property type (1=Not component-dependent 2=Component-dependent)

PNAMES O CHARACTER*12 NPROP Property names. See Appendix B for a description.



Calling Sequence for TKPSSP CALL TKPSSP (PRID, NPROP, NPOINT, PNAMES, POSIDS, IERR)


Argument List Descriptions for TKPSSP Variable I/O † Type Dimension Description





POSIDS O CHARACTER*32 NPOINT Position names



Retrieving Dynamic Scalar Results Call subroutine TKPSSR to retrieve the scalar dynamic results for pressure relief blocks.

Calling Sequence for TKPSSR CALL TKPSSR (PRID, NSCAL, PNAMES, ITYPES, IVALS, CVALS, DVALS,


Argument List Descriptions for TKPSSR Variable I/O † Type Dimension Description


NSCAL I INTEGER — Number of scalar results


ITYPES O INTEGER NSCAL Data type of result (1=Integer 2=Real 3=Character 4=Description)

IVALS O INTEGER NSCAL Integer property values

CVALS O CHARACTER*12 NSCAL Character property values

DVALS O CHARACTER*32 NSCAL Descriptive property values

RVALS O REAL*8 NSCAL Real property values

TYPES O CHARACTER*12 NSCAL Units type

LABELS O CHARACTER*16 NSCAL Units label




Retrieving Steady-State Scalar Results Call subroutine TKPSSS to retrieve steady-state scalar results.

Calling Sequence for TKPSSS CALL TKPSSS (PRID, NSCAL, PNAMES, ITYPES, NPOINT, IVALS, CVALS,

DVALS, RVALS, TYPES, LABELS, IERR)

Argument List Descriptions for TKPSSS Variable I/O † Type Dimension Description


NSCAL I INTEGER — Number of scalar results


ITYPES O INTEGER NSCAL Data type of result (1=Integer 2=Real 3=Character 4=Description)

IVALS O INTEGER NSCAL Integer property values

CVALS O CHARACTER*8 NSCAL Character property values

DVALS O CHARACTER*32 NSCAL Descriptive property values

RVALS O REAL*8 NSCAL Real property values

TYPES O CHARACTER*12 NSCAL Units type

LABELS O CHARACTER*16 NSCAL Units label



Retrieving Non-Component-Dependent Dynamic Profiles Call subroutine TKPSR1 to retrieve profiles for non-component-dependent properties. The results are independent of the substream.

Calling Sequence for TKPSR1 CALL TKPSR1 (PRID, PNAME, NPOINT, ITYPES, CVALS, RVALS, TYPE,

LABEL, IERR)


Argument List Descriptions for TKPSR1 Variable I/O † Type Dimension Description




ITYPES O INTEGER — Data type of results (2=Real 3=Character)

CVALS O CHARACTER*8 NPOINT Character property values






Retrieving Dynamic Component-Dependent Profiles Call subroutine TKPSR2 to retrieve profiles for component-dependent properties.

Calling Sequence for TKPSR2 CALL TKPSR2 (PRID, PNAME, SUBSID, NCP, COMPID, NPOINT, RVALS,

TYPE, LABEL, IERR)

Argument List Descriptions for TKPSR2 Variable I/O † Type Dimension Description







RVALS O REAL*8 NCP* NPOINT

Property values






Retrieving Steady-State Profiles Call subroutine TKPSS1 to retrieve profiles for the steady-state results.

Calling Sequence for TKPSS1 CALL TKPSS1 (PRID, PNAME, NPOINT, RVALS, TYPE, LABEL, IERR)

Argument List Descriptions for TKPSS1 Variable I/O † Type Dimension Description









Determining Vent Accumulator Profile Dimensions Call subroutine TKPAPF to determine the sizes of profile arrays for the vent accumulator. TKPAPF returns the number of:

• Output points.


• Properties.

Calling Sequence for TKPAPF CALL TKPAPF (PRID, NPOINT, NCP, NPROP)

Argument List Descriptions for TKPAPF Variable I/O † Type Dimension Description







Listing Vent Accumulator Profile Properties Call subroutine TKPAPR to list the vent accumulator profile properties. TKPAPR returns an array of property names, and an array indicating whether the property is component-dependent.

Calling Sequence for TKPAPR CALL TKPAPR (PRID, NPROP, ITYPES, PNAMES, IERR)

Argument List Descriptions for TKPAPR Variable I/O † Type Dimension Description



ITYPES O INTEGER NPROP Property type (1=Non-component-dependent 2=Component-dependent)




Retrieving Non-Component-Dependent Vent Accumulator Profiles Call subroutine TKPAR1 to retrieve vent accumulator profiles for non-component-dependent properties. The corresponding times for each profile point are retrieved using the property name TIME.

Calling Sequence for TKPAR1 CALL TKPAR1 (PRID, PNAME, NPOINT, RVALS, TYPE, LABEL, IERR)

Argument List Descriptions for TKPAR1 Variable I/O † Type Dimension Description










Retrieving Component-Dependent Vent Accumulator Profiles Call subroutine TKPAR2 to retrieve vent accumulator profiles for component-dependent properties. The corresponding times for each profile point are retrieved using the property name TIME in TKPAR1.

Calling Sequence for TKPAR2 CALL TKPAR2 (PRID, PNAME, NCP, COMPID, NPOINT, RVALS, TYPE,

LABEL, IERR)

Argument List Descriptions for TKPAR2 Variable I/O † Type Dimension Description











Determining Pressure Relief Vent Profile Dimensions Call subroutine TKPVPF to determine the sizes of the profile arrays for the vent. TKPVPF returns the number of:

• Output points.


• Positions.

Calling Sequence for TKPVPF CALL TKPVPF (PRID, NPOINT, NCP, NPROP, NPOS)

Argument List Descriptions for TKPVPF Variable I/O † Type Dimension Description







NPOS O INTEGER — Number of positions


Listing Vent Profile Properties Call subroutine TKPVRP to list the vent profile properties. TKPVRP returns an array of property names, the corresponding times for each profile point, and an array indicating whether the property is position-dependent or component-dependent.

Calling Sequence for TKPVRP CALL TKPVRP (PRID, NPROP, ITYPES, PNAMES, TIMES, TYPE, LABEL,

IERR)

Argument List Descriptions for TKPVRP Variable I/O † Type Dimension Description




ITYPES O INTEGER NPROP Property type (1=Position-dependent 2= Component-dependent)


TIMES O REAL*8 NPOINT Time intervals

TYPE O CHARACTER*12 — Time type

LABEL O CHARACTER*16 — Time label



Retrieving Position-Dependent Vent Profiles Call subroutine TKPVR1 to retrieve vent profiles for properties at the listed positions. The times for each profile point are retrieved in TKPVRP.

Calling Sequence for TKPVR1 CALL TKPVR1 (PRID, PNAME, NPOINT, RVALS, TYPE, LABEL, IERR)


Argument List Descriptions for TKPVR1 Variable I/O † Type Dimension Description



NPOS I INTEGER — Number of positions

POSIDS O CHARACTER*16 NPOS Names of positions


RVALS O REAL*8 NPOS* NPOINT Property values





Retrieving Component-Dependent Vent Profiles Call subroutine TKPVR2 to retrieve vent profiles for component-dependent properties. The times for each profile point are retrieved in TKPVRP.

Calling Sequence for TKPVR2 CALL TKPVR2 (PRID, PNAME, NCP, COMPID, NPOINT, RVALS, TYPE,

LABEL, IERR)

Argument List Descriptions for TKPVR2 Variable I/O † Type Dimension Description




COMPID O CHARACTER*8 NCP Component Ids







8 Examples 133

8 Examples

This chapter presents a series of examples to illustrate the development and use of an application program using the Summary File Toolkit:

Example Title

1 Stream Heat and Material Balance Table Generation

2 Interactive Heating/Cooling Curve Table Generation

3 Column Profile Results Written to Plot File

4 Distillation Column Diagram Generation

The Fortran source code for these examples is in the Engine\user directory of the Aspen Plus installation. They are named sftex#.f where # is the number of the example.A summary file (sftex.sum) and the input file used to generate it (sft.inp) are also in the same directory.

Example 1: Stream Heat and Material Balance Table Generation This example retrieves stream results from the summary file. Both standard stream results and property set results are retrieved. The results are written to a file in table format.

Declaring Variables and Dimensioning The toolkit routines used in this program require a variety of character variables and arrays. Space is needed to store results retrieved from the toolkit routines. This program assumes only 5 streams per printed page of the table, 1000 properties at most for each stream, and a maximum of 100 components.

C C Variable declarations; reals are double precision. C IMPLICIT REAL*8 (A-H, O-Z)

134 8 Examples

CHARACTER*80 SUMFIL, RCPROP, RCUNIT, ASPDIR CHARACTER UNISET*4, VERSN*20, RUNID*8, DATE*80, INFILE*80, + ID*8, TYPE*12, IDS*8, QUALS*16, TYPES*12, + LABELS*16,OLDNAM*16, PLUS*16, EXCL*16, PNAMES*12, + SSID*8,COMPID*8, PHASE*8, WETDRY*4, BASIS*4, + OLDPHS*8, KFF*1,OLDLAB*16, SOURCE*8, DEST*8 C C Dimension arrays for the toolkit routines. C Arrays are dimensioned for 5 streams, 1000 properties, C and 100 components. C DIMENSION QUALS(4,1000), TYPES(1000), LABELS(1000), + PNAMES(1000), SSID(1000), COMPID(1000), + PHASE(1000), WETDRY(1000), BASIS(1000) DIMENSION SVALS(1000, 5), IDS(5) DIMENSION XMW(100)

Initializing the Toolkit The executable section of the application program begins by initializing the summary file toolkit. The steps are:

1 Get the name of the Aspen Plus Simulation Engine directory by prompting the user.

2 Get the name of the summary file by prompting the user.

3 Call TKINIT to perform the initialization.

C C Begin executable code. C C Get file names for the toolkit. C C Get rcpropnu.dat and rcunits.dat by prompting the user C for the name of the directory where the Aspen Plus C Simulation Engine is installed. C WRITE(6, *) ' Enter the Aspen Plus Simulation Engine' // + 'directory name: ' READ(5, FMT='(A)') ASPDIR DO 50 LEN = 80, 1, -1 IF (ASPDIR(LEN:LEN) .NE. ' ') GO TO 55 50 CONTINUE 55 CONTINUE RCPROP = ASPDIR(1:LEN) // '\toolkit\rcpropnu.dat' RCUNIT = ASPDIR(1:LEN) // '\toolkit\rcunits.dat' C C Prompt the user for the name of the summary file: C WRITE(6, *) ' Enter the summary file name: ' READ(5, FMT='(A)') SUMFIL C -------------------------------------------------------- C C Open the summary file and call TKINIT to initialize C the toolkit. If there is an error, end execution. C OPEN(UNIT=2, FILE=SUMFIL, STATUS='UNKNOWN')

8 Examples 135

CALL TKINIT(UNISET, 1, 2, 3, RCPROP, 4, RCUNIT, RMISS,IERR) IF (IERR .NE. 0) GO TO 9999

Finding Number of Streams To find the streams, TKINFO is called to determine the number of simulation objects in the summary file. The variable NSTRM is the total number of streams.

C Get the number of streams by calling TKINFO. C CALL TKINFO(VERSN, RUNID, DATE, INFILE, ISTAT, IWORK, + NBLK, NSTRM, NTABLE, NSENS )

Finding Component Molecular Weight For component-dependent properties, the molecular weight is written for each component in the table. Molecular weight is retrieved by calling TKCOMP to determine the number of conventional components, and TKCPRP to retrieve the property values.

C Get the number of components and molecular weight values. C CALL TKCOMP(NCC, NNCC) PNAMES(1) = 'MW' CALL TKCPRP(PNAMES, NCC, XMW, LABELS)

Retrieving Stream Properties For each material stream, both standard and property set results are retrieved. TKSINF determines the dimensions of the standard results, and TKSTRM retrieves them. For property set results, TKNSPR determines the number of results, and TKSPRP retrieves them.

C Call TKSINF and TKSTRM to retrieve the basic stream results. C CALL TKSINF(ID, SOURCE, DEST, NSUBS, LEN, IERR) CALL TKSTRM(ID, LEN, QUALS, SVALS(1, NPPG), TYPES, + LABELS, IERR) C C If an error occurred retrieving the results, skip this C stream. C IF (IERR .NE. 0) THEN WRITE(6, *) ' ERROR ON STREAM ',ID NPPG = NPPG - 1 GO TO 1000 ENDIF C C Call TKNSPR and TKSPRP to retrieve the property sets. C Check for an error, and skip this stream if one occurs. C CALL TKNSPR(ID, NPROP, IERR) IF (IERR .NE. 0) THEN WRITE(6, *) ' ERROR ON STREAM ',ID

136 8 Examples

NPPG = NPPG - 1 GO TO 1000 ENDIF LL = LEN + 1 CALL TKSPRP(ID, NPROP, PNAMES, SSID, PHASE, COMPID, + WETDRY, BASIS, SVALS(LL, NPPG), TYPES(LL), + LABELS(LL), IERR)

Writing Stream Table Every five streams, or when the last stream is processed, the table is written to the file hmbtable.out. The standard results are written first; the molecular weight associated with each component is written with the first component-dependent property. The property sets follow the standard results. An example of one page of output is shown in Figure 8.1.

C If this is the 5th stream, or the last stream, write the C table for the set of streams. C IF (NPPG .NE. 5 .AND. I .NE. NSTRM) GO TO 1000 WRITE(7, 30) KFF WRITE(7, 31) (PLUS,II=1,NPPG), EXCL WRITE(7, 10) (IDS(II),II=1,NPPG) WRITE(7, 31) (PLUS,II=1,NPPG), EXCL OLDNAM = ' ' ICOMP = 1 C C Loop through the basic stream properties. Check to see C if each is component-dependent. C DO 500 J = 1, LEN C C For non-component-dependent properties, write the name, C the unit label, and the values. C IF (QUALS(3,J) .EQ. ' ') THEN WRITE(7, 20) QUALS(1,J), LABELS(J), + (SVALS(J,JJ),JJ=1,NPPG) WRITE(7, 31) (PLUS,II=1,NPPG), EXCL OLDNAM = QUALS(1,J) ELSE C C For component-dependent properties, write the name if C the previous name is different. C IF (QUALS(1,J) .NE. OLDNAM) + WRITE(7, 21) QUALS(1,J),LABELS(J), + (EXCL,II=1,NPPG),EXCL OLDNAM = QUALS(1,J) IF (ICOMP .GT. NCC) THEN C C Write the molecular weight with the component name C if this is the first component-dependent property. C WRITE(7, 22) QUALS(3,J), (SVALS(J,JJ),JJ=1,NPPG)

8 Examples 137

ELSE WRITE(7, 23) QUALS(3,J), XMW(ICOMP), + (SVALS(J,JJ),JJ=1,NPPG) ENDIF IEND = MOD(ICOMP, NCC) IF (IEND .EQ. 0) WRITE(7, 31) (PLUS,II=1,NPPG), EXCL ICOMP = ICOMP + 1 ENDIF 500 CONTINUE C C Loop through the PROP-SET properties. The properties are C sorted by phase. If the current phase is different from C the previous phase, then print a new phase header. C OLDNAM = ' ' OLDPHS = ' ' OLDLAB = ' ' IFIRST = 1 DO 600 J = 1, NPROP L = J + LEN IF (PHASE(J) .NE. OLDPHS) THEN C First item is already preceded by a line IF (IFIRST .EQ. 0) THEN WRITE(7, 31) (PLUS,II=1,NPPG), EXCL ELSE IFIRST = 0 ENDIF WRITE(7, 40) PHASE(J), (EXCL,II=1,NPPG), EXCL ENDIF C C Check for a component qualifier on the property. C IF (COMPID(J) .EQ. ' ') THEN WRITE(7, 31) (PLUS,II=1,NPPG), EXCL WRITE(7, 20) PNAMES(J), LABELS(L), + (SVALS(L,JJ),JJ=1,NPPG) OLDNAM = PNAMES(J) OLDLAB = LABELS (L) ELSE C C For component-dependent properties, write the name for C the set of components only once. C IF (PNAMES(J).NE.OLDNAM .OR. LABELS(L).NE.OLDLAB) THEN WRITE(7, 31) (PLUS,II=1,NPPG), EXCL WRITE(7, 21) PNAMES(J),LABELS(L), + (EXCL,II=1,NPPG),EXCL ENDIF OLDNAM = PNAMES(J) OLDLAB = LABELS(L) WRITE(7, 22) COMPID(J), (SVALS(L,JJ),JJ=1,NPPG) ENDIF OLDPHS = PHASE(J) 600 CONTINUE C Underline the final item WRITE(7,31) (PLUS, II=1, NPG), EXCL

138 8 Examples

Figure 8.1 – Stream Table Results Excerpt

VAP LIQ H2RCY CHRCY PRODUCT

MOLEFLOW KMOL/HR

H2 (MW = 2.02) 13.663 0.25941 12.570 0.77824E-01 0.38241E-11

N2 (MW = 28.01) 6.7132 0.23753 6.1762 0.71260E-01 0.14270E-10

C1 (MW = 16.04) 17.519 2.0170 16.118 0.60509 0.13065E-07

BZ (MW = 78.11) 0.11318E-02 0.89643E-01 0.10412E-02 0.26893E-01 0.62739E-01

CH (MW = 84.16) 0.78883 64.619 0.72573 19.386 45.229

MOLEFLMX KMOL/HR 38.686 67.222 35.591 20.167 45.291

MASSFLMX KG/HR 563.14 5485.0 518.09 1645.5 3811.4

VLSTDMX L/MIN 805.90 131.48 741.43 39.445 123.98

TEMP K 322.04 322.04 322.04 322.04 474.15

PRES ATM 21.094 21.094 21.094 21.094 13.609

VFRAC 1.0000 0.00000E+00 1.0000 0.00000E+00 0.00000E+00

LFRAC 0.00000E+00 1.0000 0.00000E+00 1.0000 1.0000

SFRAC 0.00000E+00 0.00000E+00 0.00000E+00 0.00000E+00 0.00000E+00

HMX CAL/MOL -8542.1 -35492. -8542.1 -35492. -29055.

HMX CAL/GM -586.81 -434.98 -586.81 -434.98 -345.26

HMX CAL/SEC -91794. -0.66274E+06 -84450. -0.19882E+06 -0.36554E+06

SMX CAL/MOL-K -14.579 -138.84 -14.579 -138.84 -125.29

SMX CAL/GM-K -1.0016 -1.7016 -1.0016 -1.7016 -1.4888

RHOMX MOL/CC 0.80005E-03 0.85210E-02 0.80005E-03 0.85210E-02 0.60884E-02

RHOMX GM/CC 0.11646E-01 0.69527 0.11646E-01 0.69527 0.51236

MWMX 14.557 81.595 14.557 81.595 84.154

** VAPOR PHASE **

DMX

H2 0.35103E-01 0.10000E+36 0.35103E-01 0.10000E+36 0.10000E+36

N2 0.16453E-01 0.10000E+36 0.16453E-01 0.10000E+36 0.10000E+36

C1 0.19524E-01 0.10000E+36 0.19524E-01 0.10000E+36 0.10000E+36

BZ 0.69972E-02 0.10000E+36 0.69972E-02 0.10000E+36 0.10000E+36

CH 0.67625E-01 0.10000E+36 0.67625E-01 0.10000E+36 0.10000E+36

MUMX 0.13021E-01 0.10000E+36 0.13021E-01 0.10000E+36 0.10000E+36

** LIQUID PHASE **

DMX SQCM/SEC

H2 0.10000E+36 0.11111E-03 0.10000E+36 0.11111E-03 0.41453E-03

N2 0.10000E+36 0.99235E-04 0.10000E+36 0.99235E-04 0.36919E-03

C1 0.10000E+36 0.91460E-04 0.10000E+36 0.91460E-04 0.35104E-03

BZ 0.10000E+36 0.54343E-04 0.10000E+36 0.54343E-04 0.20117E-03

CH 0.10000E+36 0.20065E-03 0.10000E+36 0.20065E-03 0.14933E-03

MUMX CP 0.10000E+36 0.25699 0.10000E+36 0.25699 0.10380

8 Examples 139

Example 2: Interactive Heating/Cooling Curve Table Generation This example retrieves heating/cooling curve results from unit operation blocks. The summary file is queried for a list of blocks containing curve results. This example uses a toolkit utility routine TKUPPR, that takes a character string as an argument and uppercases it. A sample of the program dialog is shown in Figure 8.2. A sample of the output is shown in Figure 8.3.

Declaring Variables Declarations and dimensions are similar to those in Example 1. But in this example, the paths for the properties and units files are coded into the program.

C C Data statements C DATA UNISET / 'ENG' / DATA PLUS / '-----------------+' / DATA EXCL / '-----------------!'/ DATA RMISS / 1.0D35 / DATA RCPROP / 'C:\Aspen Plus\Engine\Toolkit\RCPROPNU.DAT' / DATA RCUNIT / 'C:\Aspen Plus\Engine\Toolkit\RCUNITS.DAT' /

Initializing the Toolkit The user is prompted for the name of the summary file. The summary file must be opened before TKINIT is called.

C C Prompt the user for the name of the summary file. C WRITE(6, *) ' Enter the summary file name: ' READ(5, FMT='(A)') SUMFIL C C Open the summary file and call TKINIT to initialize C the toolkit. If there is an error, end execution. C OPEN(UNIT=2, FILE=SUMFIL, STATUS='UNKNOWN') CALL TKINIT(UNISET, 1, 2, 3, RCPROP, 4, RCUNIT, RMISS,IERR) IF (IERR .NE. 0) GO TO 9999

Finding Number of Blocks The number of blocks is determined by calling TKINFO.

C Get the number of blocks by calling TKINFO. CALL TKINFO(VERSN, RUNID, DATE, INFILE, ISTAT, IWORK, + NBLK, NSTRM, NTABLE, NSENS )

140 8 Examples

Finding Blocks with Heating/Cooling Curves One method of listing the blocks is to loop through them by calling TKNBLK. This allows a check of each block for the existence of heating/cooling curves.

C C Prompt the user to have Hcurves checked for the block. C To check for Hcurves, loop through all the blocks by C calling TKNHCV. C If the block has an Hcurve, load its ID and model type C into the ID arrays. C 100 CONTINUE NITEM = 0 NSET = 0 DO 200 I = 1, NBLK I1 = NITEM + 1 CALL TKNBLK(I, ID8(I1), ID12(I1), IERR) IF (IERR .NE. 0) GO TO 200 CALL TKNHCV(ID8(I1), NCURVE) IF (NCURVE .EQ. 0) GO TO 200 NITEM = NITEM + 1 C C If there are more than 100 blocks with Hcurves, C the work area will be filled. Write the first 100 blocks C to the list. C IF (NITEM .LT. 100 .OR. I .EQ. NBLK) GO TO 200 IF (NSET .EQ. 0) THEN WRITE(6, *) + ' The following blocks contain Hcurve results:' WRITE(6, *) ' Block ID Model' WRITE(6, *) ' =======================' ENDIF DO 190 J = 1, NITEM WRITE(6, FMT='(1X,A8,2X,A12)') ID8(J), ID12(J) 190 CONTINUE IF (I .NE. NBLK) NSET = 1 NITEM = 0 200 CONTINUE C C If there are any unwritten entries in the list, write C the list of blocks with Hcurves. C IF (NITEM .NE. 0) THEN IF (NSET .EQ. 0) THEN WRITE(6, *) + ' The following blocks contain Hcurve results:' WRITE(6, *) ' Block ID Model' WRITE(6, *) ' =======================' ENDIF DO 210 J = 1, NITEM WRITE(6, FMT='(1X,A8,2X,A12)') ID8(J), ID12(J) 210 CONTINUE ENDIF

8 Examples 141

Prompting for Block Name When the blocks with heating/cooling curves are listed, prompt the user for the block IDs. Since all IDs in the summary file are in uppercase, user-specified IDs must be converted to uppercase. TKNHCV is called for each ID, to check whether or not a valid ID has been entered.

C Prompt the user for the block to be checked; C remember to convert the block ID to uppercase. C WRITE(6, *) ' ' WRITE(6, *) ' Please select a block from the list:' READ(5, FMT='(A)') ID C Uppercase the response using a toolkit utility routine CALL TKUPPR (ID) CALL TKNHCV(ID, NCURVE) IF (NCURVE .LE. 0) THEN WRITE(6, *) ' ',ID,' is not a valid block ID.' WRITE(6, *) ' Please select again.' GO TO 100 ENDIF

Finding Heating/Cooling Curves for Selected Block Once a valid block ID is given, the heating/cooling curves in the block are listed by calling TKLHCV. The routine CHKREP checks that an integer is specified for the heating/cooling curve ID.

C For a valid block with Hcurve data, print a list of C the Hcurves for the block. C 240 CONTINUE WRITE(6, *) ' ',ID,' contains the following Hcurves:' WRITE(6, *) ' ID Type Hcurve No.' WRITE(6, *) ' =======================' CALL TKLHCV(ID, NCURVE, ID16, INTS, IERR) DO 250 I = 1, NCURVE WRITE(6, FMT='(1X,I2,2X,A16,1X,I4)') I, ID16(I), INTS(I) 250 CONTINUE WRITE(6, *) + ' Please select an Hcurve by specifying its ID:' READ(5, '(A4)') REPLY CALL CHKREP (REPLY, II, ISTAT) IF ( ISTAT .EQ. 1 ) THEN WRITE(6, *)'"',REPLY, + '" is not an integer. Please select again:' GO TO 240 ENDIF IF (II .LE. 0 .OR. II .GT. NCURVE) THEN WRITE(6, *) '"',II, + '" is not a valid ID. Please select again:' GO TO 240 ENDIF

142 8 Examples

Finding Dimensions of Heating/Cooling Curve TKSHCV checks the dimensions of the data for the curve that is selected. If the dimensions are larger than the arrays are dimensioned, an exit with an error may occur.

C C For a specific Hcurve, get its size, and C print the standard properties. C IHCNO = INTS(II) CALL TKSHCV(ID, ID16(II), IHCNO, NPOINT, NPROP) C C The TVAL array is dimensioned for 100 points and 100 C properties. C That means only 99 stream properties can be stored. If C there are more than 99, or more than 100 points, print C error. C IF (NPROP .GT. 99 .OR. NPOINT .GT. 100) THEN WRITE(6, *) ' *** Error - This Hcurve is too large ***' GO TO 700 ENDIF

Retrieving Standard Heating/Cooling Curve Results This program allows the user to choose one of the standard results (temperature, pressure, heat duty, or vapor fraction) as the independent variable in the table. The table of these standard results is written, so the user can choose one of them. TKHCRV is called to retrieve the standard results.

C C Call TKHCRV to get the standard properties. C CALL TKHCRV(ID, ID16(II), IHCNO, NPOINT, INTS, TVAL(1,1), + TVAL(1,2), TVAL(1,3), TVAL(1,4), IERR) C C Get unit label information for standard properties. C TYPES(1) = 'TEMPERATURE' TYPES(2) = 'PRESSURE' TYPES(3) = 'ENTHALPY-FLOW' CALL TKLABL(3, TYPES, LABELS) LABELS(4) = LABELS(3) LABELS(3) = ' ' C C Write the table of standard results, so that the user C can select an independent variable. C WRITE(6, 31) (PLUS,JJ=1,3),EXCL

8 Examples 143

WRITE(6, 10) (PROPS(JJ),JJ=1,4) WRITE(6, 10) (LABELS(JJ),JJ=1,4) WRITE(6, 31) (PLUS,JJ=1,3),EXCL DO 500 I = 1, NPOINT WRITE(6, 20) (TVAL(I,JJ),JJ=1,4) 500 CONTINUE WRITE(6, 31) (PLUS,JJ=1,3),EXCL

Retrieving Property Sets The user is prompted for the property sets to be included in the table. TKNHPR is called to retrieve the name of the properties with their qualifiers, and to retrieve the values.

C C Loop through the property sets to create a list of C properties for the user to choose from. Store the C properties in the TVAL array. C WRITE(6, *) ' Select properties from the following list:' WRITE(6, *) ' ID Property Phase Component' WRITE(6, *) ' ===============================' DO 600 I = 1, NPROP CALL TKNHPR(ID, ID16(II), IHCNO, NPOINT, I, + PNAMES(I+1), SSID, PHASE(I+1), COMPID(I+1), + WETDRY, BASIS, TVAL(1,I+1), TYPES(I+1), + LABELS(I+1), IERR) WRITE(6, 11) I, PNAMES(I+1), PHASE(I+1), COMPID(I+1) 600 CONTINUE NCOL = 2 605 CONTINUE WRITE(6, *) ' Please enter the ID number of the property:' READ(5, '(A4)') REPLY CALL CHKREP (REPLY, JCOL, ISTAT) IF ( ISTAT .EQ. 1 ) THEN WRITE(6, *)'"',REPLY, + '" is not an integer. Please select again:' GO TO 605 ENDIF IF (JCOL .LT. 1 .OR. JCOL .GT. NPROP) THEN WRITE(6, *) ' "',JCOL,'" is not a valid ID' GO TO 605 ENDIF ICOL(NCOL) = JCOL + 1 WRITE(6, *) ' Do you want another property (Y/N)?' INFILE = ' ' READ(5, FMT='(A)') INFILE C Uppercase the response using a toolkit utility routine CALL TKUPPR(INFILE)

After the user has chosen the properties to be tabulated, they are written to the file hcurve.out.

144 8 Examples

Figure 8.2 Example 2 Program Dialog Enter the summary filename: MANU.SUM The following blocks contain Hcurve results:

Block ID Model

FEED-MIX HEATER

HP-SEP FLASH2

Please select a block from the list: FEED-MIX FEED-MIX contains the following Hcurves:

ID Type Hcurve No.

1 HCURVE 1

2 HCURVE 2

Select an Hcurve by specifying its ID.

TEMPERATURE (F)

PRESSURE (PSI)

VAPOR FRACTION

DUTY (BTU/HR)

103.76 330.00 0.73446 0.00000E+00

156.99 330.00 0.75237 0.52969E+06

198.86 330.00 0.78232 0.10594E+07

231.90 330.00 0.82372 0.15891E+07

258.28 330.00 0.87527 0.21188E+07

279.65 330.00 0.93567 0.26485E+07

296.36 330.00 1.0000 0.31507E+07

300.00 330.00 1.0000 0.31782E+07

Specify the independent variable – either TEMP, PRES, VFRAC, or DUTY. TEMP Select properties from the following list:

ID Property Phase Component

1 KMX VAPOR

2 KMX LIQUID

3 MUMX VAPOR

4 MUMX LIQUID

Enter the ID number of the property. 1 Do you want another property (Y/N)? Y Enter the ID number of the property. 3 Do you want another property (Y/N)?

8 Examples 145

N Do you want to generate another table (Y/N)? N

Figure 8.3 Sample Output File hcurve.out Temperature (F)

KMX Vapor (BTU-FT/HR-SQFT-R)

MUMX Vapor (CP)

103.76 0.72312E-01 0.10226E-01

156.99 0.71705E-01 0.11065E-01

198.86 0.67680E-01 0.11734E-01

231.28 0.62145E-01 0.12190E-01

258.28 0.56470E-01 0.12467E-01

279.65 0.51312E-01 0.12626E-01

296.36 0.47088E-01 0.12712E-01

300.00 0.47323E-01 0.12763E-01

146 8 Examples

Example 3: Column Profile Results Written to Plot File This example demonstrates retrieving column profile results and writing the results to a plot file. The program prompts the user for the property to be retrieved, along with labels for the axes.

Opening Files and Initializing Toolkit The first step is to identify the file names. The properties and units files are in the TOOLKIT subdirectory of the Aspen Plus supplemental directory on Windows systems. The environment variable ASPTOP points to this top level directory. The environment variable XSUM is used in this example to pass the name of the summary file into the program. Both environment variables are decoded using the subroutine GETENV.

The following example uses subroutine TKOPEN to open the summary file. You must use TKOPEN if the summary file toolkit DLL is called. The plot file is not written by the summary file toolkit DLL, and therefore does not use TKOPEN.

C Open the plot file as HYDRAUL.PLF. C OPEN(UNIT=7,FILE='HYDRAUL.PLF', STATUS='UNKNOWN') C C Set file names and unit set. C CALL GETENV('ASPTOP',ASPTOP) DO 55 I = 255, 1, -1 IF (ASPTOP(I:I) .NE. ' ') THEN ILEN = I GO TO 56 ENDIF 55 CONTINUE 56 CONTINUE RCPROP = ASPTOP(1:ILEN) // '\TOOLKIT\RCPROPNU.DAT' RCUNIT = ASPTOP(1:ILEN) // '\TOOLKIT\RCUNITS.DAT' UNISET = 'ENG' C C Read the summary file name from the environment variable C XSUM. C CALL GETENV ('XSUM', SUMFIL) C Open the summary file with TKOPEN. ACCESS = 'SEQUENTIAL' FORM = 'FORMATTED' MODE = 'READ' STATUS = 'OLD' CALL TKOPEN(1, SUMFIL, ACCESS, FORM, 80, STATUS, MODE,IERR) C C Call TKINI2 to initialize the toolkit.

8 Examples 147

C XMISS = 1D35 CALL TKINI2(UNISET,2,1,3,RCPROP,4,RCUNIT,XMISS,IERR, 6)

Finding List of Blocks One option for listing the blocks is calling TKBIDS to return the list of block IDs and block types. The block types array can be checked for the correct type before prompting the user for the block ID.

C Call TKINFO to get the number of blocks, and TKBIDS to C get the list. Allow the user to choose from RADFRAC C blocks. C CALL TKINFO(VERSN , RUNID , DATE , INFILE, ISTAT , IWORK , + NBLK , NSTRM , NTABLE, NSENS ) CALL TKBIDS(NBLK, BLKID, BLKTYP, IERR) 100 CONTINUE WRITE(6, *) 'Select a block from the following list:' WRITE(6, *) '---------------------------------------' DO 110 I = 1, NBLK IF (BLKTYP(I) .NE. 'RADFRAC') GO TO 110 WRITE(6, *) BLKID(I) 110 CONTINUE

Finding List of Properties This program allows the user to choose from the available properties for those to plot. TKPROF determines the dimensions of the data, including the number of properties. TKPROP lists the properties and identifies them as component- or non-component-dependent.

C C Call TKPROF and TKPROP to get a list of properties. C CALL TKPROF(ID,ICOL,NSTAGE,NCP,NPROP) CALL TKPROP(ID,ICOL,NPROP,ITYPES,PNAMES,IERR) C C Prompt the user for the desired property to plot. C 120 CONTINUE WRITE(6,*) 'Choose from the following properties:' WRITE(6,*) '-------------------------------------' WRITE(6,*) ' ' ITER = ((NPROP-1/5)) DO 130 I = 0,ITER WRITE(6,*) (PNAMES(5*I+J),J=1,5) 130 CONTINUE WRITE(6,*) ' ' WRITE(6,*) 'ENTER THE ABBREVIATED NAME OF THE PROPERTY' READ(5,10) PNAME C Uppercase the response using a toolkit utility routine CALL TKUPPR (PNAME) INDEX = 0 DO 150 I = 1,NPROP

148 8 Examples

IF (PNAMES(I) .EQ. PNAME) THEN INDEX=I GO TO 151 ENDIF 150 CONTINUE IF (INDEX .EQ. 0) THEN WRITE (6,*) + 'PROPERTY NAME NOT FOUND. PLEASE ENTER AGAIN.' WRITE (6,*) GO TO 120 ENDIF 151 CONTINUE

Retrieving Selected Property Profile Once the property has been selected, the data must be retrieved. The value of ITYPES for the property determines whether TKPRO1 is called for non-component- dependent properties, or TKPRO2 for component-dependent properties.

C C Call either TKPRO1 or TKPRO2 to retrieve the results. C IF (ITYPES(INDEX) .EQ. 1) THEN CALL TKPRO1(ID,PNAME,ICOL,NSTAGE,RVALS,TYPE + ,LABEL,IERR) C ELSE CALL TKPRO2(ID,PNAME,ICOL,NCP,COMPID,NSTAGE,RVALS, + TYPE,LABEL,IERR) C ENDIF

After the values are retrieved, they can be written to the plot file. A sample plot file is shown in Figure 8.5.

Closing the Application The following two steps should be used when using the DLL version of the summary file toolkit:

1 Call TKCLOS to close the files opened by the summary file toolkit.

2 Call TKCLFL to close the summary file.

Because the plot file was not opened with TKOPEN, close it with the Fortran CLOSE statement directly:

C Shut down the toolkit. CALL TKCLOS (1, 2, 3, 4) C Close summary file. CALL TKCLFL (2, IERR) C Close the plot file CLOSE (7) C STOP END

8 Examples 149

Figure 8.4 Example 3 Program Dialog Select a block from the following list: COLUMN Please select a block from the list: COLUMN Choose from the following properties: B_TEMP B_PRES DUTY LIQ_FLOW VAP_FLOW FEED_LFLOW FEED_VFLOW FEED_FLOW PROD_LFLOW PROD_VFLOW LIQ_ENTH VAP_ENTH HYD_LMF HYD_VMF HYD_LVF HYD_VVF HYD_RHOL HYD_RHOV HYD_MUL HYD_MUV HYD_STEN HYD_PARM HYD_QR HYD_MWL HYD_MWV HYD_FMIDX HYD_FFR X Y B_K Enter the name of the property HYD-RHOL Enter the title LIQUID DENSITY VS STAGE Enter the label for x-axis STAGE Enter the label for y-axis LIQUID DENSITY Enter the first legend: DENSITY Do you want to choose another property (Y/N) N

Figure 8.5 Sample Plot File ///// ///// ///// BLOCK: COLUMN SENTENCE:PLOT NDEP NPTS LTITLE LHLABEL LVLABEL LEG1 LEG2 LEG3 LEG4 LEG5 1 15 12 10 10 10 0 0 0 0 LIQUID DENSITY VS STAGE STAGE LIQUID DENSITY DENSITY 1 45.872 2 36.130 3 34.708 4 34.474 5 34.434 6 34.427 7 34.425 8 34.007 9 32.150 10 32.000

150 8 Examples

11 31.987 12 31.986 13 31.986 14 31.986 15 31.986

Example 4: Distillation Column Diagram Generation This example uses the summary file toolkit to retrieve basic information about a distillation model. The information retrieved includes feed and product flows, reflux and boilup ratios, condenser and reboiler duties, and stage information. These results are used to create an annotated diagram of the column.

Initializing the Toolkit The first step is getting the file names for toolkit initialization. In this example, the paths to the properties and units files are fixed. The summary file name is read from the file toolkit.dat.

C C Get filenames for the toolkit - rcpropnu.dat and C rcunits.dat C RCPROP = 'C:\Aspen Plus\Engine\Toolkit\RCPROPNU.DAT' RCUNIT = 'C:\Aspen Plus\Engine\Toolkit\RCUNITS.DAT' C C Open the summary file and call TKINIT to initialize C the toolkit. If there is an error, end execution. C OPEN(UNIT=2, FILE='TOOLKIT.DAT',STATUS='UNKNOWN') READ(2,FMT='(A)') SUMFIL CLOSE(2) OPEN(UNIT=2, FILE=SUMFIL, STATUS='OLD') UNISET = 'ENG' CALL TKINIT(UNISET, 1, 2, 3, RCPROP, 4, RCUNIT, RMISS,IERR) IF (IERR .NE. 0) GO TO 9999

Retrieving Basic Block Results After the user has selected a block, the basic results must be retrieved. This is a two-step process:

1 Call TKNRES to determine the dimensions of the data.

2 Call TKBRES to retrieve the results.

Four results are selected from the list of values returned by TKBRES: Q1, QN, RR, and BU_RATIO.

C C Get the basic scalar results for the column, to provide C values for Q1, QN, RR, and BR.

8 Examples 151

C 140 CONTINUE CALL TKNRES(ID, NRES, NQUAL, IERR) IF (NRES .EQ. 0 .OR. IERR .NE. 0) THEN WRITE(6, *) ' *** Error occurred in block' GO TO 9999 ENDIF IF (NQUAL .EQ. 0) NQUAL = 1 CALL TKBRES(ID, NRES, NQUAL, PNAMES, QUALS, ITYPES, INTS, + CW8, TVALS, TYPES, LABELS) C C Search the results array for the values wanted. C DO 150 I = 1, NRES IF (PNAMES(I) .EQ. 'RR') I1=I IF (PNAMES(I) .EQ. 'BU_RATIO') I2=I IF (PNAMES(I) .EQ. 'COND_DUTY') I3=I IF (PNAMES(I) .EQ. 'REB_DUTY') I4=I IF (PNAMES(I) .EQ. 'TOP_LFLOW') I5=I IF (PNAMES(I) .EQ. 'BOT_LFLOW') I6=I 150 CONTINUE RR = TVALS(I1,1) BR = TVALS(I2,1) Q1 = TVALS(I3,1) QN = TVALS(I4,1) TVFLOW = TVALS(I5,1) BLFLOW = TVALS(I6,1)

Retrieving Inlet and Outlet Stream Flows To find the inlet and outlet stream flows, profile results are retrieved for the feed and product properties. TKPROF finds the dimensions of the data, and TKPROP lists the properties. TKPRO1 is called to retrieve the values.

C C Call TKPROF to get the dimensions, and TKPRO1 to C get the values. C CALL TKPROF(ID, 1, NSTAGE, NCP, NPROP) CALL TKPROP(ID,1,NPROP,ITYPES,PNAMES,IERR) PNAME = 'PROD_VFLOW' CALL TKPRO1(ID, PNAME, 1, NSTAGE, RVALS, TYPES, + LABELS, IERR) PNAME='PROD_LFLOW' CALL TKPRO1(ID,PNAME,1,NSTAGE,RLALS,TYPES,LABELS,IERR) II = 0 DO 133 I = 1,NSTAGE IF (RVALS(I) .NE. 0.0) THEN II = II + 1 ISP(II) = I ENDIF IF (RLALS(I) .NE. 0.0) THEN II = II + 1 ISP(II) = I ENDIF 133 CONTINUE

152 8 Examples

PNAMES(1) = 'FEED_LFLOW' CALL TKPRO1(ID, PNAMES, 1, NSTAGE, TVALS(1,6), TYPES, + LABELS, IERR) PNAMES(1) = 'FEED_VFLOW' CALL TKPRO1(ID, PNAMES, 1, NSTAGE, TVALS(1,7), TYPES, + LABELS, IERR)

Finding Inlet and Outlet Stream IDs The connectivity routines are called to list the inlet and outlet streams. TKSTRM is called for each stream to determine the flow rate. The flow rate is matched against the feed or product flow to determine the stage for each stream. The feed stream check follows:

C C Call the connectivity routines. C CALL TKCNTN(ID, NIN, NOUT, IERR) CALL TKCNCT(ID, NIN, NOUT, BLKIN, TYPIN, BLKOUT, TYPOUT, + IERR) C C Feed and products are matched with stage numbers, C by matching flowrates with the streams. C C Loop through the inlet streams and get the moleflows. C DO 200 I = 1, NIN INTS(I) = 0 IF (TYPIN(I) .NE. 'MATERIAL') GO TO 200 CALL TKSINF(BLKIN(I), SOURCE, DEST, NSUBS, LEN, IERR) CALL TKSTRM(BLKIN(I), LEN, QUALS, TVALS(1,8), TYPES, + LABELS, IERR) DO 160 J = 1, LEN IJ = 4*J – 3 IF (QUALS(IJ) .EQ. 'MOLEFLMX') THEN FLOW = TVALS(J,8) FX = TVALS(J,8) L5 = LABELS(J) ENDIF 160 CONTINUE DO 170 J = 1, NSTAGE IF (J .EQ. 1) TFLOW = TVALS(J,6) IF (J .GT. 1) TFLOW = TVALS(J,6) + TVALS(J-1,7) FDIFF = DABS(TFLOW - FLOW) / FLOW IF (FDIFF .GT. 1D-5) GO TO 170 INTS(I) = J NPOS = J 170 CONTINUE 200 CONTINUE

With the values retrieved, and the stages matched to the feeds and products, the diagram can be written. Sample output is shown in Figure 8.5.

8 Examples 153

Figure 8.6 Sample Column Diagram +-------+ ! ! COND-DUTY= -112659.17200 BTU/HR +-----------+ ! ! +---+---+ +----+----+ ! ! -------+ T-PROD= 3.89 LBMOL/HR !------- ! ! -------! !------- ! BOILUP RATIO= 1.55 ! -------! REFLUX RATIO= 1.20 !------- ! ! -------! ->+------- ! FEED = 103.74 LBMOL/HR ! -------! !------- ! ! -------! !------- ! !------- +<-----+ +----+----+ ! REB-DUTY= 1415130.30000 BTU/HR ! +---+----+ +-------+ +-------- B-PROD= 99.85 LBMOL/HR ! ! +--------+

154 9 XML Summary File

9 XML Summary File

The XML Summary File can be saved by selecting File | Export, and in the Save as type box, selecting XML Results File (*.xml). This file is an XML file that can be edited with standard XML tools and viewed with the ability to open and close individual sections in Internet Explorer.

The XML Summary File begins with a top-level <Plant> tag. Within this tag are a number of tags for blocks, streams, convergence blocks, flowsheeting operations, run status, etc. Each of these tags has a dictionary attribute which refers to an XML schema file delivered with Aspen Plus in the Aspen Plus <version>\Engine\Dat or APrSystem <version>\Engine\Dat folder. In the XML file, the variables $ASPTOP and $APRSYS are used to refer to the Aspen Plus <version>\Engine and APrSystem <version>\Engine folders, respectively. Each of these tags also has a name, which is the actual name of the block, stream, etc. wherever such a name is available.

There are a number of status variables with numerical values that appear in the Run-status sections. The most important of these are explained here.

UOSSTAT2

UOSSTAT2 provides the status message that appears on the Run-Status | Summary sheet. It has the following possible values:

Value Message

2 Simulation was completed normally

3 Simulation was not completed normally, use status button for details

4 Data regression was completed normally

5 Data regression was completed with errors, use status button for details

6 Assay data analysis was completed normally

7 Assay data analysis was completed with errors, use status button for details

8 Calculations were completed normally

9 Calculations were completed with errors, use status button for details

10 Calculations were completed with warnings, use status button for details

9 XML Summary File 155

TOTSTAT

TOTSTAT describes the most severe status of all errors / warnings.

Value Most Severe Status

0 No error/warning

1 Error

2 Warning

ITSTAT

ITSTAT gives the input translation status.

Value Meaning

0 No problems

4 Warnings

UOSSTAT, CVSTAT, SENSSTAT, CSSTAT, SSTAT, FORSTAT

These status variables contain the same information available in ISTATF on page 19.

156 A Units

A Units

Table A.1 lists the most frequently used units of measurement conversion options available in Aspen Plus. A complete, up-to-date list of all units is contained in the file units.lis in the toolkit source directory. See Chapter 1 for the directory name on all operation systems. The entries in the table show the units labels used to identify units of measurement. Most of the units labels in this table are self-explanatory. Labels that may require explanation are:

Prefixes Units Description

MM Used as a prefix meaning million before many units, such as MMBTU = million BTU.

M Used as a prefix meaning thousand with English units, such as Mlb (thousand pounds) and Mscf (thousand standard cubic feet). With metric/SI units, the M prefix represents Mega except with millimeters and millinewtons.

G The standard metric/SI prefix Giga, meaning 109

SQ Used as a prefix meaning squared, as in SQFT (square feet).

CU Used as a prefix meaning cubed, as in CUM (cubic meters). The common abbreviation CC is used for cubic centimeters.

Suffixes Units Description

**.5 Suffix meaning square root of the preceding unit. Used in a few types of units such as dipole moment.

DELTA Prefix on units used for temperature change, used for emphasizing that a value is temperature change and not temperature. Units without delta can also be specified for temperature change and are equivalent to the ones with delta.

G The G at the end of ATMG, BARG, PSIG, PAG, KG/SQCMG, IN-WATER-G and similar pressure units indicates gauge pressure (pressure above standard atmospheric pressure).

VAC Used as a suffix on pressure units such as IN-WATER-VAC, indicating vacuum pressure (pressure below standard atmospheric pressure). Vacuum units are thus exactly negative of the corresponding gauge pressure units.

A Units 157

Full Unit Names Units Description

GAL U.S. liquid gallon, exactly equal to 231 cubic inches

IN-WATER, IN-WATER-60F

These units represent pressure in inches of water. IN-WATER is based on the density of water of 1 g/cc. IN-WATER-60F is based on the density of water at 60 F.

L-TONS Long tons (2240 pounds), the ton formerly used in the United Kingdom and some Commonwealth countries

LB, LBF Pound (mass unit approximately 0.454 kg) and pound force (weight of one pound at standard gravity).

MILE U.S. statute (land) mile, exactly equal to 5280 feet

MMKCAL Million kcal (same as GCAL)

MN MilliNewtons

MLB Thousand lbs

MU micron (micrometer), equal to 10-6 meter.

NCM Normal cubic meters (same as standard cubic meters).

NCMH Normal cubic meters per hour

NCMD Normal cubic meters per day

PCU Pound centrigrade unit

PSIA Absolute pounds per square inch. PSI is a synonym for PSIA.

SCF Standard cubic feet. Standard conditions for all standard cubic feet are ideal gas at 14.696 psi and 60 degrees F.

SCFH Standard cubic feet per hour

SCFD Standard cubic feet per day

SCM Standard cubic meters. Standard conditions for all standard cubic meters are ideal gas at 1 atm and 0 degrees C.

SCMH Standard cubic meters per hour

TCAL Thermodynamic calorie, equal to 4.184 Joules. The standard calorie represented by CAL is the International Steam Table calorie equal to 4.1868 Joules.

TON Short ton (2000 pounds), the ton commonly used in the United States, see also L-TONS.

TONNE Metric ton (1000 kg), the ton commonly used outside the United States

UKGAL Imperial gallon, 4.55 liters

158 A Units

Table A.1 - Units Options Type of Units Code SI Set ENG Set MET Set Other Units Options

ANGLE 32 RAD DEG DEG

AREA 1 SQM SQFT SQM SQCM, SQIN, SQMILE, SQMM

AREA-PRICE 54 $/SQM $/SQFT $/SQM $/SQCM, $/SQIN, $/SQMILE, $/SQMM

AREA-USAGE 62 SQM/SEC SQFT/HR SQM/HR SQM/DAY, SQM/YEAR

BOND-WORK-IN 34 J/KG KWHR/TON KWHR/TON KJ/KG

CHROM-VEL 69 M/SEC FT/SEC CM/HR

COMPOSITION 2 MOL-FR MOL-FR MOL-FR MASS-FR

CONTENTS 85 FRACTION PERCENT FRACTION PPM

COST-RATE 119 $/SEC $/HR $/HR $/MIN, $/DAY, $/YEAR, K$/HR, K$/DAY, K$/YEAR, MM$/DAY, MM$/YEAR

CURRENT 114 AMP AMP AMP MAMP

DELTA-T 31 K F K C, R, DELTA-K, DELTA-F, DELTA-C, DELTA-R

DENSITY 3 KG/CUM LB/CUFT GM/CC LB/GAL, GM/CUM, GM/ML, LB/BBL

DIFFUSIVITY 4 SQM/SEC SQFT/HR SQCM/SEC CS

DIMENSIONLES 44 UNITLESS UNITLESS UNITLESS UNTLESS, UNITLES

DIPOLEMOMENT 45 (J*CUM)**.5 (BTU*CUFT)**.5 DEBYE (KJ*CUM)**.5

ELEC-POWER 47 WATT KW KW

ELEC-PRICE 48 $/J $/KWHR $/KWHR

ENERGY 5 J BTU CAL KCAL, KWHR, FT-LBF, GJ, KJ, N-M, MJ, MCAL, GCAL, MBTU, MMBTU, HP-HR

ENERGY-PRICE 30 $/J $/BTU $/CAL $/KCAL, $/KWHR, $/FT-LBF, $/GCAL, $/MMBTU, $/HP-HR, $/MBTU, $/KJ, $/MJ, $/GJ, $/N-M, $/MCAL

ENERGY-VOL 117 CUM/J BBL/BTU CUM/J BBL/MMBTU

ENTHALPY 6 J/KMOL BTU/LBMOL CAL/MOL J/KG, BTU/LB, CAL/GM, MBTU/LBMOL

ENTHALPY-CYC 105 WATT/CYCLE BTU/CYCLE CAL/CYCLE J/CYCLE, GJ/CYCLE, KCAL/CYCLE, MMKCAL/CYCLE, MMBTU/CYCLE, MMKCAL/CYCLE, MMBTU/CYCLE, PCU/CYCLE, MMPCU/CYCLE, KJ/CYCLE, KW/CYCLE, GCAL/CYCLE

A Units 159

Type of Units Code SI Set ENG Set MET Set Other Units Options

ENTHALPY-FLO 13 WATT BTU/HR CAL/SEC J/SEC, GJ/HR, KCAL/HR, MMKCAL/HR, MMBTU/HR, MMKCAL/DAY, MMBTU/DAY, PCU/HR, MMPCU/HR, KJ/SEC, KW, MW, GW, MJ/HR, GCAL/HR, MBTU/HR, GCAL/DAY

ENTHALPY-OPR 109 WATT/CYCLE BTU/OP-HR CAL/OP-SEC J/OP-SEC, GJ/OP-HR, KCAL/OP-HR, MMKCAL/OP-HR, MMBTU/OP-HR, MMKCAL/OP-DAY, MMBTU/OP-DAY, PCU/OP-HR, MMPCU/OP-HR, KJ/OP-SEC, KW/CYCLE, GCAL/OP-HR, GCAL/OP-DAY

ENTROPY 7 J/KMOL-K BTU/LBMOL-R CAL/MOL-K J/KG-K, BTU/LB-R, CAL/GM-K, MJ/KMOL-K, KCAL/KMOL-K, GCAL/KMOL-K, MBTU/LBMOL-R

F-FACTOR 101 (KG-CUM)**.5/SEC

(LB-CUFT)**.5/HR

(GM-L)**.5/MIN (LB-GAL)**.5/MIN

FILTER-RESIS 35 1/METER 1/FT 1/METER 1/CM, 1/IN

FISCAL 8 $ $ $

FLOW 9 KG/SEC LB/HR KG/HR LB/SEC, MLB/HR, TONS/DAY, MCFH, TONNE/HR, LB/DAY, KG/DAY, TONS/HR, KG/MIN, KG/YEAR, GM/MIN, GM/HR, GM/DAY, MGM/HR, GGM/HR, MGM/DAY, GGM/DAY, LB/MIN, MMLB/HR, MLB/DAY, MMLB/DAY, LB/YEAR, MLB/YEAR, MMLB/YEAR, TONS/MIN, MTONS/YEAR, MMTONS/YEAR, L-TONS/MIN, L-TONS/HR, L-TONS/DAY, ML-TONS/YEAR, MML-TONS/YEAR, KTONNE/YEAR

FLUX 61 CUM/SQM-SEC CUFT/SQFT-SEC L/SQM-SEC L/SQM-HR, GAL/SQFT-MIN

FLUX-HEAT-AR 120 WATT/SQM BTU/HR-SQFT CAL/SEC-SQM J/SEC-SQM, MMBTU/HR-SQFT, KW/SQM

FLUX-MOLE 121 KMOL/SQM-S LBMOL/SQFT-HR KMOL/SQM-HR LBMOL/SQFT-S, MOL/SQCM-S

FORCE 14 NEWTON LBF DYNE

160 A Units


FREQUENCY 28 HZ RPM RPM RAD/SEC, RPS, KRPM, MMRPM, RPH

HEAD 33 J/KG FT-LBF/LB M-KGF/KG SQM/SQSEC, INCH, FT, METER, KJ/KG, KM-KGF/KG, MFT, MJ/KG, MFT-LBF/LB, FT-HEAD, METER-HEAD, INCH-HEAD

HEAT 53 J BTU CAL KCAL, MMKCAL, MMBTU, PCU, MMPCU, KJ, GJ, N-M, MJ, MCAL, GCAL, MBTU, KW-HR

HEAT-FLUX 80 WATT/M BTU/HR-FT CAL/SEC-M J/SEC-M, MMBTU/HR-FT

HEAT-RATE-V 122 WATT/CUM BTU/HR-CUFT CAL/SEC-CUM J/SEC-CUM, MMBTU/HR-CUFT, GJ/HR-CUM

HEAT-TRANS-C 16 WATT/SQM-K BTU/HR-SQFT-R CAL/SEC-SQCM-K

KCAL/SEC-SQM-K, KCAL/HR-SQM-K, PCU/HR-SQFT-K, KW/SQM-K, J/SEC-SQM-K, KJ/SEC-SQM-K, MMBTU/HR-SQFT-R, KJ/SEC-SQM-C, MJ/SEC-SQM-K, MJ/SEC-SQM-C, GJ/HR-SQM-K, GJ/HR-SQM-C, KCAL/HR-SQM-C, BTU/HR-SQFT-F

INVERSE-AREA 78 1/SQM 1/SQFT 1/SQM

INVERSE-HT-C 87 SQM-K/WATT HR-SQFT-R/BTU SEC-SQCM-K/CAL

SEC-SQM-K/KCAL, HR-SQM-K/KCAL, HR-SQFT-K/PCU, SQM-K/KW, SEC-SQM-K/J, SEC-SQM-K/KJ

INVERSE-LENG 68 1/M 1/FT 1/CM 1/IN, 1/MM

INVERSE-PRES 82 SQM/N 1/PSI 1/ATM SQFT/LBF, 1/BAR, 1/TORR, 1/IN-WATER, SQCM/KG, 1/MMHG, 1/KPA, 1/MM-WATER

INVERSE-TEMP 81 1/K 1/R 1/K

INVERSE-TIME 59 1/SEC 1/HR 1/HR 1/MIN, 1/DAY, 1/YEAR

ITEM-PRICE 56 $/ITEM $/ITEM $/ITEM

LENGTH 17 METER FT METER CM, IN, MU, MM, MILE, KM, ANGSTROM, MFT

LN-INV-TIME 60 LN(1/SEC) LN(1/HR) LN(1/HR) LN(1/MIN)

MASS 18 KG LB KG GM, TON, MLB, TONNE, L-TON, MMLB

MASS-CONC 58 KG/CUM LB/CUFT GM/L GM/CC, MG/L, MG/CC

MASS-CYCL 102 KG/CYCLE LB/CYCLE KG/CYCLE LB/CYCLE, MLB/CYCLE, TONS/CYCLE, GM/CYCLE, TONNE/CYCLE, LB/CYCLE, KG/CYCLE, TONS/CYCLE, TONS/CYCLE

MASS-DENSITY 38 KG/CUM LB/CUFT GM/CC LB/GAL, GM/CUM, GM/ML

A Units 161


MASS-ENTHALP 40 J/KG BTU/LB CAL/GM KCAL/KG, MMKCAL/KG, MMBTU/LB, PCU/LB, MMPCU/LB, KJ/KG, MJ/KG, GCAL/KG, MBTU/LB

MASS-ENTROPY 42 J/KG-K BTU/LB-R CAL/GM-K KCAL/KG-K, KJ/KG-K, MJ/KG-K, GCAL/KG-K, MBTU/LB-R

MASS-FLOW 10 KG/SEC LB/HR KG/HR LB/SEC, MLB/HR, TONS/DAY, GM/SEC, TONNE/HR, LB/DAY, KG/DAY, TONS/YEAR, TONS/HR, TONNE/DAY, TONNE/YEAR, KG/MIN, KG/YEAR, GM/MIN, GM/HR, GM/DAY, MGM/HR, GGM/HR, MGM/DAY, GGM/DAY, LB/MIN, MMLB/HR, MLB/DAY, MMLB/DAY, LB/YEAR, MLB/YEAR, MMLB/YEAR, TONS/MIN, MTONS/YEAR, MMTONS/YEAR, L-TONS/MIN, L-TONS/HR, L-TONS/DAY, ML-TONS/YEAR, MML-TONS/YEAR, KTONNE/YEAR

MASS-FLUX 70 KG/SQM-S LB/SQFT-HR KG/SQM-HR LB/SQFT-S, GM/SQCM-S, KG/SQCM-S, MLB/SQFT-HR, TONS/SQFT-HR, L-TONS/SQFT-HR, TONNE/SQFT-HR

MASS-HEAT-CA 49 J/KG-K BTU/LB-R CAL/GM-K KCAL/GM-K, PCU/LB-K, KJ/KG-K

MASS-OPER 106 KG/OP-SEC LB/OP-HR KG/OP-HR LB/OP-SEC, MLB/OP-HR, TONS/OP-DAY, GM/OP-SEC, TONNE/OP-HR, LB/OP-DAY, KG/OP-DAY, TONS/OP-YEAR, TONS/OP-HR

MASS-PER-LEN 116 KG/M LB/FT KG/M

MASS-TRANS-C 66 KG/S-SQM-KG/CUM

LB/HR-SQF-LB/CUF

GM/S-SQCM-GM/CC

MASS-VOLUME 115 CUM/KG CUFT/LB CC/G BPD/MLBPH, CC/KG

MOL-FLOW-LEN 89 KMOL/SEC-M LBMOL/HR-FT KMOL/HR-M MOL/SEC-M, LBMOL/SEC-FT, LBMOL/DAY-FT, KMOL/DAY-M, MOL/MIN-M

MOLE-CONC 64 KMOL/CUM LBMOL/CUFT MOL/CC MOL/L, MMOL/CC, MMOL/L

162 A Units


MOLE-CYCL 103 KMOL/CYCLE LBMOL/CYCLE KMOL/CYCLE MMSCFH/CYCLE, MMSCMH/CYCLE, MOL/CYCLE, LBMOL/CYCLE, SCMH/CYCLE, LBMOL/CYCLE, KMOL/CYCLE, MMSCFD/CYCLE, SCFM/CYCLE

MOLE-DENSITY 37 KMOL/CUM LBMOL/CUFT MOL/CC LBMOL/GAL, MOL/L

MOLE-ENTHALP 39 J/KMOL BTU/LBMOL CAL/MOL KCAL/MOL, TCAL/MOL, MMKCAL/MOL, MMBTU/LBMOL, PCU/LBMOL, MMPCU/LBMOL, KJ/KMOL, GJ/KMOL, MJ/KMOL, KCAL/KMOL, GCAL/KMOL, MBTU/LBMOL, BTU/SCF, GCAL/MOL

MOLE-ENTROPY 41 J/KMOL-K BTU/LBMOL-R CAL/MOL-K KCAL/MOL-K, KJ/KMOL-K, TCAL/MOL-K, MJ/KMOL-K, KCAL/KMOL-K, GCAL/KMOL-K, MBTU/LBMOL-R

MOLE-FLOW 11 KMOL/SEC LBMOL/HR KMOL/HR MMSCFH, MMSCMH, MOL/SEC, LBMOL/SEC, SCMH, LBMOL/DAY, KMOL/DAY, MMSCFD, MSCFD, SCFM, MOL/MIN, KMOL/KHR, KMOL/MHR, MOL/HR, MMOL/HR, MLBMOL/HR, LBMOL/MHR, LBMOL/MMHR, MSCFM, SCFH, MSCFH, SCFD, NCMH, NCMD

MOLE-HEAT-CA 15 J/KMOL-K BTU/LBMOL-R CAL/MOL-K KCAL/MOL-K, TCAL/MOL-K, PCU/LBMOL-K, KJ/KMOL-K

MOLE-OPER 107 KMOL/OP-SEC LBMOL/OP-HR KMOL/OP-HR MMSCF/CYCLE-HR, MMSCM/CYCLE-HR, MOL/OP-SEC, LBMOL/OP-SEC, SCM/CYCLE-HR, LBMOL/OP-DAY, KMOL/OP-DAY, MMSCF/CYCLE-DAY, SCF/CYCLE-MIN

MOLE-RXN-RATE

123 KMOL/CUM-S LBMOL/CUFT-HR KMOL/CUM-HR MOL/CC-S

MOLE-VOLUME 43 CUM/KMOL CUFT/LBMOL CC/MOL ML/MOL, BBL/MSCF

MOLES 51 KMOL LBMOL KMOL SCM, MMSCF, MSCF, MMSCM, MOL, SCF

MOM-INERTIA 112 KG-SQM LB-SQFT KG-SQM GM-SQCM, LB-SQIN

A Units 163


NUM-CON-RATE 77 NO/CUM-SEC NO/CUFT-SEC NO/L-SEC NO/CC-SEC, NO/CUM-SEC, NO/CUM-MIN, NO/CUFT-MIN, NO/L-MIN, NO/CC-MIN, NO/CUM-HR, NO/CUFT-HR, NO/L-HR, NO/CC-HR

NUM-CONC 57 NO/CUM NO/CUFT NO/L NO/CC, 1E6/CC

PACK-FACTOR 76 1/M 1/FT 1/M

PDROP 75 N/SQM PSI ATM LBF/SQFT, BAR, TORR, IN-WATER, KG/SQCM, MMHG, KPA, MM-WATER, MBAR, IN-WATER-60F, IN-HG, LB/FT-SQSEC, KG/M-SQSEC, PA, MPA, PSIA

PDROP-PER-HT 74 N/CUM IN-WATER/FT MM-WATER/M MBAR/M, MMHG/FT

POP-DENSITY 86 NO/M/CUM NO/FT/CUFT NO/M/L NO/MM/L, NO/MU/CC, NO/IN/CUIN

POWER 19 WATT HP KW BTU/HR, CAL/SEC, FT-LBF/SEC, MW, GW, MJ/HR, KCAL/HR, GCAL/HR, MMBTU/HR, MBTU/HR, MHP

POWER-VOLUME

65 WATT/CUM HP/CUFT KW/L KW/CUM

PRESSURE 20 N/SQM PSI ATM LBF/SQFT, BAR, TORR, IN-WATER, KG/SQCM, MMHG, KPA, MM-WATER, MBAR, PSIG, ATMG, BARG, KG/SQCMG, LB/FT-SQSEC, KG/M-SQSEC, PA, MPA, PAG, KPAG, MPAG, MBARG, IN-HG, MMHG-VAC, IN-HG-VAC, IN-WATER-60F, IN-WATER-VAC, IN-WATER-60F-VAC, IN-WATER-G, IN-WATER-60F-G, MM-WATER-G, MM-WATER-60F-G, PSIA

RHO-VSQRD 110 KG/M-SQSEC LB/FT-SQSEC KG/M-SQSEC

SIEMENS-M 118 SIEMENS/M SIEMENS/FT SIEMENS/M SIEMENS/CM

SOLUPARAM 46 (J/CUM)**.5 (BTU/CUFT)**.5 (CAL/CC)**.5 (KCAL/CUM)**.5, (KJ/CUM)**.5, (CAL/ML)**0.5

SOLUTE-PERM 72 SQM/M-S SQFT/FT-HR SQM/M-HR SQCM/CM-S, SQFT/FT-S

SOLVENT-PERM 71 KG/SQM-S-PA LB/SQFT-HR-ATM

KG/SQM-HR-ATM

GM/SQCM-S-ATM, GM/SQCM-S-PA

SOUND-LEVEL 111 DECIBELS DECIBELS DECIBELS

SPEC-FLT-RES 36 METER/KG FT/LB METER/KG CM/GM

SPECIFICAREA 67 SQM/CUM SQFT/CUFT SQCM/CC

SURFACE-TENS 21 N/M DYNE/CM DYNE/CM LBF/FT, MN/M

164 A Units


TEMP-VOLUME 83 CUM-K/KMOL CUFT-R/LBMOL CC-K/MOL

TEMPERATURE 22 K F K C, R

THERMAL-COND 23 WATT/M-K BTU-FT/HR-SQFT-R

KCAL-M/HR-SQM-K

BTU-IN/HR-SQFT-R, C-CM/SEC-SQCM-K, CAL-CM/SEC-SQCM-K, BTU/HR-FT-R, KCAL/HR-M-K, J/SEC-M-K, KW/M-K

TIME 24 SEC HR HR DAY, MIN, YEAR, MONTH, WEEK, NSEC

UA 50 J/SEC-K BTU/HR-R CAL/SEC-K KJ/SEC-K, KCAL/SEC-K, KCAL/HR-K

UNIT-PRICE 29 $/KG $/LB $/KG $/TON, $/MLB, $/GM, $/L-TON, $/TONNE, $/MMLB

USR-DUMMY0 90

USR-DUMMY1 91

USR-DUMMY2 92

USR-DUMMY3 93

USR-DUMMY4 94

USR-DUMMY5 95

USR-DUMMY6 96

USR-DUMMY7 97

USR-DUMMY8 98

USR-DUMMY9 99

VELOCITY 25 M/SEC FT/SEC M/SEC MILE/HR, KM/HR, FT/MIN, MM/DAY, MM/HR, MM/DAY30, IN/DAY

VFLOW-LENGTH 84 SQM/SEC GPM/FT SQCM/SEC SQM/HR, SQFT/MIN

VFLOW-RPM 100 CUM/SEC/RPM CUFT/HR/RPM L/MIN/RPM GAL/MIN/RPM, GAL/HR/RPM, BBL/DAY/RPM, CUM/HR/RPM, CUFT/MIN/RPM, BBL/HR/RPM, CUFT/SEC/RPM, CUM/DAY/RPM, CUM/YEAR/RPM, L/HR/RPM, KBBL/DAY/RPM, MMCUFT/HR/RPM, MMCUFT/DAY/RPM, MCUFT/DAY/RPM, L/SEC/RPM, L/DAY/RPM, CUM/MIN/RPM

VISCOSITY 26 N-SEC/SQM CP CP LB/FT-HR, MN-SEC/SQM, P, GM/SEC-CM, DYN-SEC/SQCM, PA-SEC

VOL-ENTHALPY 88 J/CUM BTU/CUFT CAL/CC KCAL/CUM, KJ/CUM, MMBTU/BBL

VOL-HEAT-CAP 79 J/CUM-K BTU/CUFT-R CAL/CC-K KCAL/CUM-K, KJ/CUM-K

A Units 165


VOLTAGE 113 VOLT VOLT VOLT KVOLT

VOLUME 27 CUM CUFT L CUIN, GAL, BBL, CC, KCUM, MCUM, MCUFT, MMCUFT, ML, KL, MML, MGAL, MMGAL, UKGAL, MUKGAL, MMUKGAL, MBBL, MMBBL, KBBL, CUYD

VOLUME-CYCL 104 CUM/CYCLE CUFT/CYCLE L/CYCLE GAL/CYCLE, GAL/CYCLE, BBL/CYCLE, CUM/CYCLE, CUFT/CYCLE, BBL/CYCLE, CUFT/CYCLE, CUM/CYCLE, CUM/CYCLE, L/CYCLE, KBBL/CYCLE, MMCUFT/CYCLE

VOLUME-FLOW 12 CUM/SEC CUFT/HR L/MIN GAL/MIN, GAL/HR, BBL/DAY, CUM/HR, CUFT/MIN, BBL/HR, CUFT/SEC, CUM/DAY, CUM/YEAR, L/HR, KBBL/DAY, MMCUFT/HR, MMCUFT/DAY, MCUFT/DAY, L/SEC, L/DAY, CUM/MIN, KCUM/SEC, KCUM/HR, KCUM/DAY, MCUM/SEC, MCUM/HR, MCUM/DAY, ACFM, CUFT/DAY, MCUFT/MIN, MCUFT/HR, MMCUFT/HR, MGAL/MIN, MMGAL/MIN, MGAL/HR, MMGAL/HR, MBBL/HR, MMBBL/HR, MBBL/DAY, MMBBL/DAY

VOLUME-OPER 108 CUM/OP-SEC CUFT/OP-HR L/OP-MIN GAL/OP-MIN, GAL/OP-HR, BBL/OP-DAY, CUM/OP-HR, CUFT/OP-MIN, BBL/OP-HR, CUFT/OP-SEC, CUM/OP-DAY, CUM/OP-YEAR, L/OP-HR, KBBL/OP-DAY, MMCUFT/OP-HR

VOLUME-PRICE 55 $/CUM $/CUFT $/L $/CC, $/BBL, $/CUYD, $/KL, $/CUIN, $/ML, $/MML, $/GAL, $/MGAL, $/MMGAL, $/UKGAL, $/MUKGAL, $/MMUKGAL, $/KBBL, $/MCUFT, $/MMCUFT, $/KCUM, $/MCUM, $/MBBL, $/MMBBL

VOLUME-USAGE 63 CUM/SEC CUFT/HR L/HR L/DAY, L/YEAR, CUM/HR, CUM/DAY, CUM/YEAR

WATER-RATE 73 KG/J LB/HP-HR KG/KW-HR

166 A Units


WORK 52 J HP-HR KW-HR FT-LBF, KJ, N-M, MJ, MBTU, MMBTU, MCAL, GCAL

B Property Names 167

B Property Names

This chapter lists the property names that are returned in the PNAME or QUALS arguments of the toolkit routines. It also lists the property names that you can specify where PNAME and QUALS are input arguments.

168 B Property Names

Table B.1 - Standard Property Names Property Name Description

ABVSRG Percentage above surge for a compressor

ACT_AREA Active area/panel for trays

ACT_DPINLET Actual pressure drop reached in inlet pipe

ACT_DPTAIL Actual pressure drop reached in tail pipe

ACT_REFLUX Actual reflux ratio

ACT_STAGES Actual number of stages

ALLW_DPINLET Maximum pressure drop allowed in inlet pipe

ALLW_DPTAIL Maximum pressure drop allowed in tail pipe

ALLW_PRES Maximum pressure allowed in vessel

ALLW_TEMP Maximum temperature allowed in vessel

ANGLE Angle of pipe segment

AREA_CALC Calculated area

AREA_RATIO Ratio of outside finned area to inside tube area

AVGDP_HT Average pressure drop/height

BACKUP_LOC Downcomer location (side/center)

BAFFLE_CUT Baffle cut as a fraction of shell diameter

BAFFLE_TYPE Baffle type (segmental or rod)

BELSWL Percentage below stonewall for a compressor

BOTTHICK Bottom shell thickness

BOTTOM_TEMP Bottoms temperature

BOT_L1FLOW Bottom stage liquid1 flow

BOT_L2FLOW Bottom stage liquid2 flow

BOT_LFLOW Bottom stage liquid flow

BOT_VFLOW Bottom stage vapor flow

BR Boilup ratio

BRAKE_POWER Brake power

BU_RATIO Boilup ratio

BWG Birmingham wire gauge for the tubes

BYPASS Bypass fraction

B_K Block vapor-liquid K-value

B_MASSFLOW Mass flow

B_MASSFRAC Mass fraction

B_MOLEFLOW Mole flow

B_MOLEFRAC Mole fraction

B_PRES Block pressure

B_TEMP Block temperature

B_VFRAC Block vapor fraction


Property Name Description

CALC Variable calculated value

CAPAC_FAC Capacity factor

CAV_INDX Valve cavitation index

CEFF Calculated efficiency

CHOK_STAT Valve choked flow status

CHOKE_POUT Valve outlet pressure for choked flow

CODE_COMPLY Code compliance

COLDIN Cold side inlet stream ID

COLDINP Cold side inlet pressure

COLDINT Cold side inlet temperature

COLDINVF Cold side inlet vapor fraction

COLDOUT Cold side outlet stream ID

COLD_FRAC Cold side vapor fraction

COLD_KODE Cold side flash calculation code

COLD_LRATIO Cold side liquid1/total liquid ratio

COLD_PRES Cold side pressure

COLD_TEMP Cold side temperature

COMP-ATTR Component attribute value

COMP-STAGES Compressor stage

COMPFRAC Component fraction

COMPRESS Compressibility

COMPTYPE Compressor type

COND_DUTY Condenser duty

COND_Q_NSC Condenser duty without subcooling

COND_RES_TIM Residence time of condensed phases (RCSTR)

COND_VOL Volume occupied by the condensed phases (RCSTR)

COOL-PRES Coolant pressure

COOL-TEMP Coolant temperature

COOLANT_TEMP Coolant temperature

COR_PDRP_FAC Pressure drop ratio factor with pipe fittings

COR_PREC_FAC Pressure recovery factor with pipe fittings

COSTID Unit label for user2 sizing result

CPCV_FAC Ratio of specific heats factor

CRIT_PRS_FAC Liquid critical pressure ratio factor

CSCOST Carbon steel cost for the equipment

CSD-PHASE Conventional solid destination phase

CUM_DPACC Cumulative accelerational pressure drop

CUM_DPELEV Cumulative elevational pressure drop

CUM_DPFRIC Cumulative frictional pressure drop

CUM_DPTOTL Cumulative total pressure drop

CYCLE_TIME Cycle time

C_LIQ_FLOW Component liquid mole flow in stream

C_VAP_FLOW Component vapor mole flow in stream



DCAREA Downcomer area/column area ratio

DCBACKUP Downcomer backup

DCBSPACE Backing/tray spacing

DCRATIO Velocity/design velocity ratio

DCVELOC Downcomer velocity

DELT Temperature change

DENSITY Liquid density

DEVICE_TYPE Safety relief device type

DIAM Diameter

DIAM50 50% diameter size

DIAM-RATIO Diameter ratio

DIAM_CYL Cylinder diameter

DIAM_OUT Diameter of outlet

DIAM_SOL Solid diameter

DIS Displacement

DISTIL_TEMP Distillate temperature

DIST_VS_FEED Distillate-to-feed ratio

DPACC Accelerational pressure drop for the segment

DPELEV Elevational pressure drop for the segment

DPFRIC Frictional pressure drop for the segment

DPTOTL Total pressure drop for the segment

DP_SECTION Section pressure drop

DUTY Calculated duty

EFF Efficiency

EFFICIENCY Fin efficiency

ELEC_POWER Electrical power

ENTH_BAL Enthalpy balance difference

ENTH_CYCLE Enthalpy per cycle

ENTH_TIME Enthalpy flow during operation

EPC Polytropic efficiency

EQUIV-LEN Pipe equivalent length

ERO_VEL Erosion velocity at the node

ERR Error

ERR_TOL Error/tolerance

EV Volumetric efficiency

EXHTS Extra height of the vessel

EXP_FAC Expansion factor

EXTENT Reaction extent

F Feed mole fraction

FACTOR Geometric or packing factor

FEED-QUALITY Feed quality

FEED_FLOW Feed flow

FEED_LFLOW Liquid feed flow



FEED_LOCATN Feed stage location

FEED_TRAY_T Feed tray temperature

FEED_VFLOW Vapor feed flow

FHEIGHT Fin height

FILT_DIAM Filter diameter

FILT_RESIST Filter resistance

FINDEX Fractionation index

FIN_PRES Final pressure

FIN_TEMP Final temperature

FIRE-FACTOR Credit factor calculated for the Fire scenario

FLOOD Percentage flooding

FLOOD_FAC Flooding factor

FLOOD_PANEL Panel indicating the flooding regime

FLOW_COEF Valve flow coefficient

FLOW-COF Compressor flow coefficient

FLOWP Flow parameter

FLUID_POWER Fluid power

FTHICKNESS Fin thickness

FWDECANT Free-water decant rate

FWREFLUX Free-water reflux ratio

GAS-VEL Vapor superficial velocity at the node

GAS_FLOW Gas flow rate

HCRATIO Heat capacity ratio

HEAD Head

HEAD-COF Compressor head coefficient

HEAT_FLUX Heat flux

HEAT_RATE Total heat transfer rate

HEAT_REAC Heat of reaction

HEIGHT Height

HETP Stage height equivalent of a theoretical plate

HOLDUP Total liquid holdup

HOTIN Hot side inlet stream ID

HOTINP Hot side inlet pressure

HOTINT Hot side inlet temperature

HOTINVF Hot side inlet vapor fraction

HOTOUT Hot side outlet stream ID

HOT_KODE Hot side flash calculation code

HOT_LRATIO Hot side liquid1/total liquid ratio

HOT_PRES Hot side pressure

HOT_TEMP Hot side temperature

HOT_VFRAC Hot side vapor fraction

HT_FROM_TOP Height from top of section

HX_AREAC Calculated (required) area



HX_AREAP Actual (physical) area

HX_DELT Delta-T between hot and cold streams

HX_DTLM Log-mean temperature difference

HX_DUTY Calculated heat duty

HX_FMTD Log-mean temperature difference correction factor

HX_NTUC Number of transfer units

HX_OVERD Percent over design

HX_PTNO Point number within a zone

HX_SBDP Shell stream baffled flow area pressure drop

HX_SFLM Shellside film coefficient

HX_SMCR Shell stream crossflow Reynolds number

HX_SMCV Shell stream crossflow velocity

HX_SMWR Shell stream window Reynolds number

HX_SMWV Shell stream window velocity

HX_SNDP Shell stream nozzle pressure drop

HX_SPR Shell stream Prandtl number

HX_STDP Shell stream total pressure drop

HX_STMP Shell stream temperature

HX_TBDP Tube stream tube pressure drop

HX_TFLM Tubeside film coefficient

HX_TMR Tube stream Reynolds number

HX_TMV Tube stream velocity

HX_TNDP Tube stream nozzle pressure drop

HX_TPR Tube stream Prandtl number

HX_TTDP Tube stream total pressure drop

HX_TTMP Tube stream temperature

HX_UAVC Average heat transfer coefficient for clean service

HX_UAVD Average heat transfer coefficient for dirty service

HX_WTMP Wall temperature

HX_XIC Thermal effectiveness

HX_ZNNO Exchanger zone number

HYD_FFR Reduced F factor

HYD_FMIDX Marangoni foaming index

HYD_LMF Hydraulic liquid mass flow

HYD_LVF Hydraulic liquid volume flow

HYD_MUL Hydraulic liquid viscosity

HYD_MUV Hydraulic vapor viscosity

HYD_MWV Vapor molecular weight

HYD_PARM Hydraulic flow parameter

HYD_QR Hydraulic reduced vapor throughput

HYD_RHOL Hydraulic liquid density

HYD_RHOV Hydraulic vapor density

HYD_STEN Hydraulic surface tension



HYD_VMF Hydraulic vapor mass flow

HYD_VVF Hydraulic vapor volume flow

H_GAS Vapor phase enthalpy

H_LIQ Liquid phase enthalpy

H_MIX Mixture enthalpy

IN-MACH Compressor inlet Mach number

IND_POWER Indicated horsepower

INIT_PRES Initial pressure in vessel

INIT_TEMP Initial temperature in vessel

INLET_D80 Inlet 80% diameter size

INSIDE_DIAM Tube inside diameter

IN_BFL_SP Inlet baffle spacing for segmental baffles

IN_EROVEL Erosional velocity at inlet

IN_LVFRAC Liquid volume fraction at inlet

IN_NODE Inlet node name

IN_PRES Inlet pressure

IN_REGIME Flow regime at inlet

IN_REYNO Reynolds Number at inlet

IN_TEMP Inlet temperature

IN_VELOC Velocity at inlet

IN_VF Inlet vapor fraction

IN_VVFRAC Vapor volume fraction at inlet

INT_TEMP Interface temperature

INT_X Interface liquid mole fractions

INT_Y Interface vapor mole fractions

ITYPE Type of pump

K Equilibrium constant

K1 Vapor-liquid1 K-value

K2 Vapor-liquid2 K-value

KLL Liquid1-liquid2 K-value

KODE Flash calculation code

L1_ENTH Liquid1 enthalpy

L1_FLOW Liquid1 flow

L1_MW Liquid1 molecular weight

L2_ENTH Liquid2 enthalpy

L2_FLOW Liquid2 flow

L2_MW Liquid2 molecular weight

LENGTH Length

LEN_CONE Cone length

LEN_CYL Length of cylinder

LEN_OUT Length of outlet

LEN_VORTEX Length of vortex

LIQ_ENTH Liquid enthalpy



LIQ_FLOW Liquid flow

LIQ_FRAC Liquid volume fraction at the node

LIQ_MF_TOT Sum of liquid mole fractions in stream

LIQ_RATIO Liquid1/total liquid ratio

LIQ_VEL Liquid superficial velocity at the node

LIQ_VOL Volume occupied by liquid phase (RCSTR)

LIQ1_VOL Volume occupied by liquid1 phase (RCSTR)

L_CONDUC Liquid conduction transfer rate

LL_RATIO Liquid/liquid ratio

LMTD Log-mean temperature difference

MASSFLWS Solid mass flow rate

MASSFRC_CAKE Mass fraction of cake

MASS_ABS Absolute mass balance

MASS_CYCLE Mass per cycle

MASS_RATE Mass transfer rate

MASS_REL Relative mass balance

MASS_TIME Mass flow during operation

MATERIAL Tube material of construction

MATFAC Material of construction factor for equipment

MATFAC1 Material of construction factor for the trays

MAXBACKUP Stage with maximum downcomer backup

MAXFLOOD Stage with maximum flooding

MAXSTAGE Stage with maximum diameter

MAXVELOC Stage with max velocity

MAX_MASSFLOW Maximum mass-based vent flow rate reached

MAX_MOLEFLOW Maximum mole-based vent flow rate reached

MAX_PRES Maximum pressure reached in vessel

MAX_TEMP Maximum temperature reached in vessel

MAX_VENTFLOW Maximum mass-based vent flow rate reached

MAX_VOLFLOW Maximum volume-based vent flow rate reached

MF_LIQ Component liquid mole fraction in stream

MF_VAP Component vapor mole fraction in stream

MID_BFL_SP Center baffle spacing for segmental baffles

MIN_REFLUX Minimum reflux ratio

MIN_STAGES Minimum number of equilibrium stages

MODE Filter mode

MOISTURE Moisture content

MOLE_ABS Absolute mole balance

MOLE_CYCLE Moles per cycle

MOLE_REL Relative mole balance

MOLE_TIME Moleflow during operation

MW Molecular weight

MW_LIQ Liquid phase molecular weight



NBAGS Number of bags

NCELLS Number of cells

NCLEAN Number of cells being cleaned

NODENAME Node name

NOMINAL-SIZE Standard tube outside diameter

NPER_LENGTH Number of fins per unit length

NPHASE Number of phases

NPSH-AVAIL Net positive suction head available

NSBAFFLE Number of baffles in the shell

NSEAL_STRIP Number of sealing strip pairs

NTRAIN Number of trains

NTURNS Number of turns

NUMBER Number of cyclones

OIL_FLOW Oil flow rate

OIL_VISC Oil viscosity

OPER_TIME Operating time

ORIENTATION Exchanger physical orientation

OUTLET_D80 Outlet 80% diameter size

OUTSIDE_DIAM Tube outside diameter

OUTSTREAM Outlet stream ID

OUT_BFL_SP Outlet baffle spacing for segmental baffles

OUT_EROVEL Erosional velocity at outlet

OUT_LVFRAC Liquid volume fraction at outlet

OUT_NODE Outlet node name

OUT_PRES Outlet pressure

OUT_REGIME Flow regime at outlet

OUT_REYNO Reynolds Number at outlet

OUT_TEMP Outlet temperature

OUT_VELOC Velocity at outlet

OUT_VVFRAC Vapor volume fraction at outlet

PART_DIAM Particle diameter

PATTERN Tube bank layout pattern

PCOST Purchase cost for the equipment

PDROP Stage pressure drop

PDROP_FAC Pressure drop ratio factor

PDRP Pressure drop

PHASE Phase

PHASE-FRAC Phase fraction

PIPE_FIT_FAC Pipe fittings geometry factor

PITCH Center to center distance between adjacent tubes

PLACED-STRM Stream for phase placement

POC Outlet pressure

POROSITY Porosity



POS Isentropic outlet pressure

POWER Calculated power

PPOINT Pinch point

PPSTAT Property table status

PRES-RATIO Pressure ratio

PROD_L1FLOW Liquid1 product flow

PROD_L2FLOW Liquid2 product flow

PROD_LFLOW Product flow

PROD_VFLOW Vapor product flow

PRREC_FAC Pressure recovery factor

PVOLS Volume per tank

PWGHT Weight of each section of the Tray-Tower

P_OUT Valve outlet pressure

QCALC Calculated duty

QNET Calculated net heat duty

QZONE Duty for zone

Q-FIRE Heat input calculated for the Fire scenario

RADIUS Radius

REAC_LRATE Rates of generation in liquid phase

REAC_VRATE Rates of generation in vapor phase

REB_DUTY Reboiler duty

RECT_STAGES Number of rectification stages

REGIME Flow regime at the node

REL_VOL Relative volatility

RES_TIME Residence time

REYNO Reynolds Number

RHOS Solid density

RHO_GAS Vapor phase density

RHO_LIQ Liquid phase density

RING_INDIAM Baffle ring inside diameter

RING_OUTDIAM Baffle ring outside diameter

ROD_BFL_SP Baffle spacing for rod baffles

ROD_DIAM Support rod diameter

ROD_LENGTH Total length of support rods per rod baffle

ROOT_DIAM Root mean diameter of finned tube

RR Reflux ratio

RUN_TYPE Run type

RXN_GEN Reaction generation

S-SONICV Suction sonic velocity of a compressor

SADD Stream added to outlet

SALT_VOL Volume occupied by the salts (RCSTR)

SAUTER_DIAM Sauter diameter

SCDUTY Subcooled duty



SCENARIO Scenario

SCTEMP Subcooled temperature

SECTION Section ID

SELECT Selectivity

SETPOINT Set point

SH-SPEED Compressor shaft speed

SHELL_BFL_SP Clearance between the shell and the baffles

SHELL_BND_SP Clearance between shell and tube bundle

SHELL_DIAM Shell inside diameter

SHELL_MIXED Is the shell stream unmixed/mixed?

SIDE Heat exchanger side

SIDE_AREA Side downcomer area/panel

SIDE_DRAW Side draw flow rate

SNOZ_INDIAM Shell inlet nozzle diameter

SNOZ_OUTDIAM Shell outlet nozzle diameter

SOL_FLOW Solid flow

SONVEL Sonic velocity

SP-DIAM Specific diameter of a compressor wheel

SP-SPEED Specific shaft speed of a compressor

SPACE Floor space required

SPAREA Packing surface area

SPCHNG Phase change

SPC_MASSFLOW Specified mass-based vent flow rate

SPC_MOLEFLOW Specified mole-based vent flow rate

SPC_VOLFLOW Specified volume-based vent flow rate

SPEC Variable specified value

SPEED Speed

STAGE_NO Stage number

START_STG Number of first stage in section

STATUS Choke status of pressure relief system

STDVFLOW Standard volume flow

STDVFRAC Standard volume fraction

STDVOL_CYCLE Standard volume per cycle

STDVOL_TIME Standard volume flow during operation

STEAM-FLOW Steam flow rate

STEN Surface tension

STICH1 1st Stichlmair constant

STICH2 2nd Stichlmair constant

STICH3 3rd Stichlmair constant

STOP-CRIT Stop criterion

STOP-TIME Stop time

STOP_STG Number of last stage in section

STREAMFRAC Stream fraction



STRENGTH Strength

SUBS-ATTR Substream attribute value

SURFTEN Surface tension

S_LINEAR Linear s-plot value

S_LOG Logarithmic s-plot value

TAMBIENT Ambient temperature at the node

TB Boiling point temperature

TEMA_TYPE Standard TEMA shell type

THGHT Total height of the equipment

THICKNESS Thickness

TH_BETA Thermosiphon liquid1/total liquid ratio

TH_DUTY Thermosiphon duty

TH_MOLEFLOW Thermosiphon mole fraction

TH_PRES Thermosiphon pressure

TH_TEMP Thermosiphon temperature

TH_VFRAC Thermosiphon vapor faction

TH_X Thermosiphon liquid mole fraction

TH_X1 Thermosiphon liquid1 mole fraction

TH_X2 Thermosiphon liquid2 mole fraction

TH_Y Thermosiphon vapor mole fraction

TIME Time

TIP-MACH Rotor tip Mach number for a compressor wheel

TMAX Maximum temperature

TMIN Minimum temperature

TNOZ_INDIAM Tube inlet nozzle diameter

TNOZ_OUTDIAM Tube outlet nozzle diameter

TOC Outlet temperature

TOLERANCE Tolerance

TOPTHICK Top shell thickness

TOP_L1FLOW Top stage liquid1 flow

TOP_L2FLOW Top stage liquid2 flow

TOP_LFLOW Top stage liquid flow

TOP_TEMP Top stage temperature

TOP_VFLOW Top stage vapor flow

TOS Isentropic outlet temperature

TOTAL-MASS Total mass

TOTAL_NUMBER Total number of tubes

TOT_AREA Total tray area

TOT_ENTH_ABS Absolute total enthalpy balance

TOT_ENTH_REL Relative total enthalpy balance

TOT_MASS_ABS Absolute total mass balance

TOT_MASS_REL Relative total mass balance

TOT_MOLE_ABS Absolute total mole balance



TOT_MOLE_REL Relative total mole balance

TRAY_NUMBER Actual number of trays

TRYSPS Tray spacing in the tray-tower

TTLEN Tangent to tangent length of the vessel

TUBES_IN_WIN Are there tubes in the baffle windows?

TUBE_BFL_SP Clearance between the tubes and the baffles

TUBE_FLOW Direction of tubeside flow for vertical exchangers

TUBE_LENGTH Effective tube length

TUBE_MIXED Is the tube stream unmixed/mixed?

TUBE_NPASS Number of tube passes

TUBE_TYPE Bare or finned tubes?

TWGHT Total weight of the equipment

TYPE Type of cyclone

UA Area time heat transfer coefficient

UAZONE Area time heat transfer coefficient for zone

VALVE_DP Delta-P across valve

VALVE_POSN Operating valve position (as percentage of max opening)

VAP_ENTH Vapor enthalpy

VAP_FLOW Vapor flow

VAP_MF_TOT Sum of vapor mole fractions in stream

VAP_RES_TIM Residence time of vapor phase (RCSTR)

VAP_VOL Volume occupied by vapor phase (RCSTR)

VELOCITY Velocity

VELOC_LOC Stage with maximum downcomer velocity

VENT_FLOW Mass-based vent flow

VFLOW Volume flow

VL_RATIO Vapor/liquid ratio

VMIX Mixture velocity at the node

VOIDFR Packing void fraction

VOLFLOW Volumetric flow

VOLTAGE Voltage

VSTD Standard liquid volume

V_CONDUC Vapor conduction transfer rate

V_CONVEC Vapor convection transfer rate

WALL-THICK Tube wall thickness

WATER-FRAC Water volume fraction in stream

WATER_FLOW Water flow rate

WEIRLEN Side weir length

WETTED_AREA Wetted vessel area

WIDTH Width

WNET Calculated net work

X Liquid mole fraction

X1 Liquid1 mole fraction



X2 Liquid2 mole fraction

Y Vapor mole fraction

Table B.2 - Mixture Thermodynamic Properties

Volume Property Name Description

RHOLSTD Standard liquid density

RHOMX Density

VLSTDMX Standard liquid volume

VMX Volume

VVSTDMX Standard vapor volume

Flow Rates, Fractions Property Name Description

BETA Molar fraction of liquid that is L1

LFRAC Liquid fraction

MASSFLMX Mass flow rate

MASSVFRAC Mass vapor fraction

MASSSFRAC Mass solid fraction

MOLEFLMX Mole flow rate

SFRAC Solid fraction

VFRAC Mole vapor fraction

VOLFLMX Volume flow rate

Enthalpy, Entropy, Gibbs Energy, Heat Capacity Property Name Description

AVAILMX Availability, H-ToS To=298.15 K

CPCVMX Heat capacity ratio (CPMX/CVMX)

CPIGMX Ideal gas heat capacity

CPMX Constant pressure heat capacity

CSATMX Specific heat at saturation

CVMX Constant volume heat capacity

DGMIX Gibbs free energy of mixing

DGMX Free energy departure



DHMX Enthalpy departure

DSMX Entropy departure

GIGMX Ideal gas free energy

GMX Free energy

GXS Excess free energy

HIGMX Ideal gas enthalpy

HMX Enthalpy

HXS Excess enthalpy

SIGMX Ideal gas entropy

SMX Entropy

Other properties Property Name Description

ABSHUMID Absolute humidity

COMB-02 Amount of oxygen need to combust a mixture

MWMX Molecular weight

PBUB Bubble point pressure

PCMX Critical pressure

PDEW Dew point pressure

PRES Pressure

PRMX Reduced pressure

RELHUMID Percentage relative humidity

SONVELMX Sonic velocity

TBUB Bubble point temperature

TCMX Critical temperature

TDEW Dew point temperature

TEMP Temperature

TRMX Reduced temperature

VCMX Critical volume

ZCMX Critical compressibility factor

ZMX Compressibility factor


Table B.3 - Thermodynamic Properties of Components in Mixtures Property Name Description

GAMMA Activity coefficient

GAMPC Activity coefficient pressure correction

GAMUS Unsymmetrically normalized activity coefficient

KLL2 Liquid-liquid K-value

KVL Vapor-liquid K-value

KVL2 Vapor-liquid2 K-value

MASSCONC Mass concentration

MASSFLOW Mass flow rate

MASSFRAC Mass fraction

MOLECONC Molar concentration

MOLEFLOW Mole flow rate

MOLEFRAC Mole fraction

PHIMX Fugacity coefficient

PPMX Partial pressure

SSOLFACT Solubility safety factor

SSOLUB Equilibrium solubility of a freeze-out component

TFREEZ Freeze-out temperature of a component

TFRZMARG Temperature safety margin

VLSTD Standard liquid volume

VLSTDFR Standard liquid volume fraction

VVSTD Standard vapor volume

VVSTDFR Standard vapor volume fraction


Table B.4 - Pure Component Thermodynamic Property Sets Property Name Description

AVAIL Availability, H-ToS To=298.15 K

CP Constant pressure heat capacity

CPCV Heat capacity ratio (CP/CV)

CPIG Ideal gas heat capacity

CV Constant volume heat capacity

DG Free energy departure

DGPC Free energy departure pressure correction

DH Enthalpy departure

DHVL Enthalpy of vaporization

DHPC Enthalpy departure pressure correction

DS Entropy departure

G Free energy

GIG Ideal gas free energy

H Enthalpy

HIG Ideal gas enthalpy

PHI Fugacity coefficient

PHIPC Fugacity coefficient pressure correction

PL Vapor pressure

RHO Density

S Entropy

SIG Ideal gas entropy

SONVEL Sonic velocity

V Volume


Table B.5 - Electrolyte Property Sets Property Name Description

FAPP Apparent component molar flow rate

FTRUE True species molar flow rates

GXTRUE Activity coefficient of a true species (mole fraction scale)

GMTRUE Activity coefficient of a true species (molality scale)

IONSM Ionic strength (molality scale)

IONSX Ionic strength (mole fraction scale)

MAPP Apparent component molality

MTRUE True species molality

OSMOT Osmotic coefficient

PH25 pH at 25°C

PH pH

POH25 pOH at 25°C

POH pOH

SOLINDEX Solubility index (ratio of activity in mixture to activity at saturation)

WAPP Apparent component mass flow rate

WTRUE True species mass flow rate

WXAPP Apparent component mass fraction

WXTRUE True species mass fraction

XAPP Apparent component mole fraction

XTRUE True species mole fraction


Table B.6 - Transport Properties

Mixture Property Name Description

KINVISC Kinematic viscosity

KMX Thermal conductivity

MUMX Viscosity

PR Prandtl Number

SIGMAMX Surface tension

THRMDIFF Thermal diffusivity

Component in a Mixture Property Name Description

DMX Diffusion coefficient

Pure Components Property Name Description

K Thermal conductivity

MU Viscosity

SIGMA Surface tension

Table B.7 - Petroleum-Related Properties for Mixtures Property Name Description

ANILPT Aniline point

API API gravity

CETANENO Cetane number

CHRATIO Carbon to hydrogen ratio

FLPT-API Flash point (API method)

MABP Mean average boiling point

PHYDRATE Hydrate formation pressure

PRPT-API Pour point (API method)

QVALGRS Gross heating value

QVALNET Net heating value



REFINDEX Refractive index

RVP-ASTM Reid vapor pressure (ASTM method)

RVP-API Reid vapor pressure (API method)

SG Specific gravity

SGAIR Specific gravity (ref.AIR at 60°F)

THYDRATE Hydrate formation temperature

VABP Volume average boiling point

VISINDEX Liquid viscosity index

WAT Watson UOP K-factor

Distillation Curves Property Name Description

APICRV API gravity curve (liquid volume basis)

APICRVWT API gravity curve (weight basis)

D86CRK ASTM D86 distillation curve with cracking correction (liquid volume basis)

D86CRV ASTM D86 curve (liquid volume basis)

D86CRVWT ASTM D86 curve (weight basis)

D86WTCRK ASTM D86 distillation curve with cracking correction (weight basis)

D1160CRV ASTM D1160 curve (liquid volume basis)

D1160CVW ASTM D1160 curve (weight basis)

D2887CRV ASTM D2887 distillation curve (weight basis)

GRVCRV Gravity curve (liquid volume basis)

GRVCRVWT Gravity curve (weight basis)

MWCRV Molecular weight curve (liquid volume basis)

MWCRVWT Molecular weight curve (weight basis)

TBPCRV True boiling point curve (liquid volume basis)

TBPCRVWT True boiling point curve (weight basis)

VACCRV Vacuum curve (liquid volume basis)

VACCRVWT Vacuum curve (weight basis)

Distillation Temperature Property Name Description

D2887T ASTM D2887 temperature, at a given liquid volume percent

D86TCK ASTM D86 temperature with cracking correction, at a given liquid volume percent

D86TWTCK ASTM D86 temperature with cracking correction, at a given weight percent


D86TWT ASTM D86 temperature, at a given weight percent




D1160TWT ASTM D1160 temperature, at a given weight percent

TBPT True boiling point temperature, at a given liquid volume percent

TBPTWT True boiling point temperature, at a given weight percent

VACT Vacuum temperature, at a given liquid volume percent

VACTWT Vacuum temperature, at a given weight percent

Distillation Volume and Weight Percent Property Name Description

D2887WT ASTM D2887 weight percent

D86LVCK ASTM D86 liquid volume percent with cracking correction

D86WTCK ASTM D86 weight percent with cracking correction

D86LV ASTM D86 liquid volume percent


D1160LV ASTM D1160 liquid volume percent


TBPLV True boiling point liquid volume percent

TBPWT True boiling point weight percent

VACLV Vacuum liquid volume percent

VACWT Vacuum weight percent

Bulk Petroleum Property Values from Assay Curves Property Name Description

ANILPT Aniline point

AROMATIC Aromatic content

BASIC-N2 Basic nitrogen content

CARBON Carbon content

FLASHPT Flash point

FREEZEPT Freeze point

HYDROGEN Hydrogen content

IRON Iron content

KNOCKIDX Anti knock index

KVISC Kinematic viscosity

LUMI-NO Luminometer number

MERCAPTAN Mercaptan content

METAL Metal content

MOC-NO Motor octane number

NAPHTHENE Naphthene content

NICKEL Nickel content



OLEFIN Olefin content

OXYGEN Oxygen content

PARAFFIN Paraffin content

POURPT Pour point

REFINDEX Refractive index

ROC-NO Research octane number

RVP Reid vapor pressure

SMOKEPT Smoke point

SULFUR Sulfur content

TOTAL-N2 Total nitrogen content

VANADIUM Vanadium

VISC Viscosity

VLOCKIDX Vapor lock index

WARMIDX Warm-up index

Petroleum Cuts Property Name Description

<100F Flow rates for petroleum cuts boiling below 100°F

100-200F Flow rates for petroleum cuts boiling between 100 and 200°F









>1000F Flow rates for petroleum cuts boiling above 1000°F

50-100C Flow rates for petroleum cuts boiling between 50 and 100°C












>550C Flow rates for petroleum cuts boiling above 550°C

CUTS-E Flow rates for petroleum cuts in 100°F increments

CUTS-M Flow rates for petroleum cuts in 50°C increments

LT-ENDS Flow rates for light ends

Petroleum Property Curves Property Name Description

ANILCRV Aniline point curve

AROMCRV Aromatic content curve

BAS-NCRV Basic Nitrogen content curve

CARBCRV Carbon content curve

FLASHCRV Flash point curve

FREEZECRV Freeze point curve

HYDROCRV Hydrogen content curve

IRONCRV Iron content curve

KNOCKCRV Antiknock index curve

KVISCCRV Kinematic viscosity curve

LUM-NCRV Luminometer number curve

MERCCRV Mercaptan content curve

METALCRV Metal content curve

MOCNCRV Motor octane number curve

NAPHCRV Naphthene content curve

NICKCRV Nickel content curve

OLEFCRV Olefin content curve

OXYGCRV Oxygen content curve

PARACRV Paraffin content curve

POURCRV Pour point curve

REFICRV Refractive index curve

ROCNCRV Research octane number curve

RVPCRV Reid vapor pressure curve

SMOKCRV Smoke point curve

SULFCRV Sulfur content curve

TOT-NCRV Total nitrogen content curve

UOPKCRV Watson UOP K curve

VANACRV Vanadium content curve

VISCCRV Viscosity curve

VLOCKCRV Vapor knock index curve

WARMICRV Warm-up index curve


Table B.8 - Elemental Analysis of Mixtures Property Name Description

MOLEFLC Mole flow of carbon atom

MOLEFLH Mole flow of hydrogen atoms

MOLEFLN Mole flow of nitrogen atoms

MOLEFLS Mole flow of sulfur atoms

MOLEFLF Mole flow of fluorine atoms

MOLEFLCL Mole flow of chlorine atoms

MOLEFLBR Mole flow of bromine atoms

MOLEFLI Mole flow of iodine atoms

MOLEFLAR Mole flow of argon atoms

MOLEFLHE Mole flow of helium atoms

MASSFLC Mass flow of carbon atoms

MASSFLH Mass flow of hydrogen atoms

MASSFLO Mass flow of oxygen atoms

MASSFLN Mass flow of nitrogen atoms

MASSFLS Mass flow of sulfur atoms

MASSFLF Mass flow of fluorine atoms

MASSFLCL Mass flow of chlorine atoms

MASSFLBR Mass flow of bromine atoms

MASSFLI Mass flow of iodine atoms

MASSFLHE Mass flow of helium atoms

MOLEFRC Mole fraction of carbon atoms

MOLEFRH Mole fraction of hydrogen atoms

MOLEFRO Mole fraction of oxygen atoms

MOLEFRN Mole fraction of nitrogen atoms

MOLEFRS Mole fraction of sulfur atoms

MOLEFRF Mole fraction of fluorine atoms

MOLEFRCL Mole fraction of chlorine atoms

MOLEFRBR Mole fraction of bromine atoms

MOLEFRI Mole fraction of iodine atoms

MOLEFRAR Mole fraction of argon atoms

MOLEFRHE Mole fraction of helium atoms

MASSFRC Mass fraction of carbon atoms

MASSFRH Mass fraction of hydrogen atoms

MASSFRO Mass fraction of oxygen atoms

MASSFRN Mass fraction of nitrogen atoms

MASSFRS Mass fraction of sulfur atoms

MASSFRF Mass fraction of fluorine atoms



MASSFRCL Mass fraction of chlorine atoms

MASSFRBR Mass fraction of bromine atoms

MASSFRI Mass fraction of iodine atoms

MASSFRAR Mass fraction of argon atoms

MASSFRHE Mass fraction of helium atoms

Table B.9 - Nonconventional Component Properties Property Name Description

DENSITY Density

ENTHALPY Enthalpy

HEAT-CAPACITY Heat capacity

Table B.10 - Property Names for Costing Results

Equipment Type: HEATX Property Name Description

NUMBER Total number of heat exchangers

CSCOST Carbon steel cost per exchanger

PCOST Purchased cost per exchanger

VARID Material of construction

BBCOST Total carbon steel cost

TCOST Total purchased cost

MATFAC Material of construction factor

PAREAS Heat transfer area per unit

AREA_CALC Total heat transfer area

SCDUTY Total scaled heat duty

LMTD Log mean temperature difference

FACTOR Exchanger geometry correction factor

Equipment Type: AIRCOOL Property Name Description

NUMBER Total number of air coolers

CSCOST Carbon steel cost per cooler



PCOST Purchased cost per cooler





PAREAS Bare tube area per cooler

AREA_CALC Total bare tube area

SCDUTY Total scaled heat duty

LMTD Log mean temperature difference

Equipment Type: FIRED-HEATER Property Name Description

NUMBER Total number of fired-heaters

CSCOST Carbon steel cost per heater

PCOST Purchased cost per heater





SCDUTY Scaled duty per fired-heater

DUTY Scaled total heat duty

QCALC Energy required per fired-heater

B_PRES Defaulted pressure

Equipment Type: PUMP Property Name Description

NUMBER Total number of pumps

ITYPE Pump type

CSCOST Carbon steel cost per pump

PCOST Purchased cost per pump





PROD_VFLOW Total scaled volumetric flow

L1_FLOW Volumetric flow per pump

B_PRES Pressure rise

HEAD Pump head

DENSITY Liquid density

EFF Pump efficiency

CEFF Motor efficiency



ELEC_POWER Power required per pump

Equipment Type: COMPR Property Name Description

NUMBER Total number of compressors

ITYPE Compressor type

CSCOST Carbon steel cost per compressor

PCOST Purchased cost per compressor




POWER Indicated horsepower


LIQ_FLOW Volumetric flow per compressor

VAP_FLOW Total scaled volumetric flow

B_PRES Pressure rise

HCRATIO Heat capacity ratio

EFF Compressor efficiency

ELEC_POWER Power required per compressor

Equipment Type: BLOWER Property Name Description

NUMBER Total number of blowers

TYPE Blower class

SPEED Motor speed

CSCOST Carbon steel cost per blower

PCOST Purchased cost per blower





PAREAS Outlet area per blower

AREA_CALC Total outlet area

LIQ_FLOW Scaled total volumetric flow

VAP_FLOW Scaled flow per blower

VELOCITY Outlet gas velocity

B_PRES Corrected static pressure

EFF Motor efficiency

CEFF Blower efficiency

ELEC_POWER Power required per blower


Equipment Type: TRAY-TOWER Property Name Description

NUMBER Total Number of Tray-Towers

CSCOST Carbon steel cost per tower

PCOST Purchased cost per tower




MATFAC Tower material factor

MATFAC1 Tray material factor

TWGHT Total shell weight

THGHT Tower tangent-to-tangent length

THICKNESS Average shell thickness

Equipment Type: TRAY-TOWER Section Results Property Name Description

PWGHT Weight

LIQ_FLOW Liquid flow

VAP_FLOW Vapor flow

FLOWP Flow parameter

DIAM Diameter

TRYSPS Tray spacing

EFF Tray efficiency

TRAY_NUMBER Number of trays

EXHTS Extra height

TTLEN Tangent-to-tangent length

Equipment Type: USER Property Name Description

NUMBER Total number of equipment

CSCOST Carbon steel cost per piece

PCOST Purchased cost per piece




VAR_VAL Scaled capacity


Equipment Type: V-VESSEL Property Name Description

NUMBER Total number of v-vessels

CSCOST Carbon steel cost per v-vessel

PCOST Purchased cost per v-vessel





VAP_FLOW Scaled vapor flow

LIQ_FLOW Scaled liquid flow

VOLUME Volume per vessel

DIAMETER Diameter





Equipment Type: H-VESSEL Property Name Description

NUMBER Total number of h-vessels

CSCOST Carbon steel cost per h-vessel

PCOST Purchased cost per h-vessel





VAP_FLOW Scaled vapor flow


VOLUME Volume per vessel

DIAMETER Diameter






Equipment Type: TANK Property Name Description

NUMBER Total number of tanks

TYPE Tank type

CSCOST Carbon steel cost per tank

PCOST Purchased cost per tank






VOLUME Total volume required

PVOLS Volume per tank

Index 197

Index

AspenTech support, 3 AspenTech Support Center, 3 customer support, 3 e-bulletins, 3 help desk, 3 support, technical, 3 technical support, 3 TKACCT, 20 TKALIS, 24 TKBIDS, 29 TKBRES, 34 TKCIDS, 24 TKCLFL, 18 TKCLOS, 17 TKCNCT, 30 TKCNTN, 30 TKCNVT, 22 TKCOMP, 23 TKCPRP, 25 TKEIDS, 117 TKEQCR, 118 TKEQSR, 119 TKFLWB, 20 TKFRCM, 57 TKHCID, 98 TKHCPR, 97 TKHCUR, 96 TKHXBA, 44 TKHXD1, 41 TKHXD2, 41 TKHXNO, 44 TKHXPF, 45 TKHXPP, 46 TKHXPR, 46 TKHXSH, 43 TKHXTU, 43 TKHXZO, 42 TKICST, 52 TKINFO, 18 TKINI2, 16 TKINIT, 15 TKLABL, 23 TKLHCR, 94

TKLRRP, 81 TKLSEC, 65 TKMCCP, 39 TKMCPR, 38 TKNBLK, 29 TKNCOL, 48 TKNENV, 112 TKNEQ, 117 TKNEQP, 118 TKNEQS, 119 TKNEXT, 25 TKNHCP, 96 TKNHCR, 94 TKNHXD, 40 TKNHXT, 42 TKNICS, 52 TKNMCP, 38 TKNPER, 36 TKNPET, 54 TKNPEV, 114 TKNPIP, 92 TKNPPR, 111 TKNPPT, 110 TKNPRS, 121 TKNRES, 33 TKNRRP, 82 TKNSEC, 64 TKNSEN, 26 TKNSPR, 107 TKNSTR, 100 TKNTPR, 62 TKNWHL, 37 TKNXPR, 122 TKOPEN, 17 TKPAPF, 128 TKPAPR, 129 TKPAR1, 129 TKPAR2, 130 TKPERF, 36 TKPIDS, 121 TKPINP, 90 TKPIPR, 90 TKPISP, 90

198 Index

TKPLCO, 86 TKPLCP, 85 TKPLIO, 85 TKPLND, 88 TKPLNP, 87 TKPLPP, 88 TKPLPR, 89 TKPLSG, 87 TKPLSP, 86 TKPLSZ, 84 TKPORT, 31 TKPPEV, 115 TKPPRP, 111 TKPRO1, 49 TKPRO2, 49 TKPROF, 48 TKPROP, 48 TKPSEC, 66 TKPSR1, 126 TKPSR2, 127 TKPSRF, 123 TKPSRP, 124 TKPSS1, 128 TKPSSP, 124 TKPSSR, 125 TKPSSS, 126 TKPSUB, 123 TKPTAD, 55 TKPTCN, 58 TKPTEV, 113 TKPTFR, 56 TKPTPP, 57 TKPTPR, 55 TKPTRS, 54 TKPVPF, 130 TKPVR1, 131 TKPVR2, 132 TKPVRP, 131 TKRCAT, 72 TKRFSP, 73 TKRNAC, 71 TKRNCA, 71 TKRNFS, 73 TKRPIP, 92 TKRPR1, 70 TKRPR2, 70 TKRPRF, 68 TKRPRP, 69 TKRRHR, 79 TKRRNS, 80 TKRRPF, 78 TKRRPR, 79 TKRRRP, 83

TKRRSL, 80 TKRSCA, 72 TKRSUB, 68 TKRTNL, 61 TKRTNR, 59 TKRTRS, 59 TKRTSP, 60 TKRTSR, 60 TKSCAT, 105 TKSCPR, 67 TKSCRS, 66 TKSENS, 26 TKSENV, 113 TKSHCR, 95 TKSIDS, 99 TKSINF, 100 TKSNAC, 103 TKSNCA, 104 TKSNSA, 105 TKSPIR, 91 TKSPPT, 110 TKSPRP, 107 TKSRRP, 82 TKSSAT, 106 TKSSCA, 104 TKSSEC, 65 TKSSID, 101 TKSSSA, 106 TKSTRA, 102 TKSTRM, 101 TKSVAL, 102 TKTITL, 19 TKTPRP, 63 TKTREP, 62 TKTRNR, 50 TKTRRS, 51 TKUNIT, 22 TKVAPF, 74 TKVAPR, 74 TKVAR1, 75 TKVAR2, 75 TKVLE, 93 TKVTPF, 76 TKVTPR, 76 TKVTR1, 77 TKVTR2, 77 TKWHLR, 37 web site, technical support, 3

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