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SUBMONITOR CONNECTInstallation and Operation Manual

COPYRIGHT INFORMATION


Copyright © 2019, Franklin Electric, Co., Inc. All rights reserved.

The entire contents of this publication are copyrighted under United States law and protected by worldwide copyright laws and treaty provisions. No part of this material may be copied, reproduced, distributed, republished, downloaded, displayed, posted or transmitted in any form by any means, including electronic, mechanical, photocopying, recording, or otherwise, without prior writ-ten permission of Franklin Electric. You may download one copy of the publication from 35TUwww.franklinwater.com onto a single com-puter for your personal, non-commercial internal use only. This is a single copy, single use license, not a transfer of title, and is subject to the following restrictions: you may not modify the materials, use them for any commercial purpose, display them pub-licly, or remove any copyright or other proprietary notices from them.

The information in this publication is provided for reference only and is subject to change without notice. While every effort has been made to ensure the accuracy of this manual at the time of release, ongoing product improvements and updates can render copies obsolete. Refer to 35TUwww.franklinwater.com for the current version.

This publication is provided “as is” without warranties of any kind, either express or implied. To the fullest extent possible pursuant to applicable law, Franklin Electric disclaims all warranties, express or implied, including but not limited to, implied warranties of merchantability, fitness for a particular purpose, and non-infringement of intellectual property rights or other violation of rights. Franklin Electric does not warrant or make any representations regarding the use, validity, accuracy, or reliability of the material in this publication.

Under no circumstances, including but not limited to, negligence, shall Franklin Electric be liable for any direct, indirect, special, inci-dental, consequential, or other damages, including, but not limited to, loss of data, property damage, or expense arising from, or in any way connected with, installation, operation, use, or maintenance of the product based on the material in this manual.

Trademarks used in this publication:

The trademarks, service marks, and logos used in this publication are registered and unregistered trademarks of Franklin Electric and others. You are not granted, expressly, by implication, estoppel or otherwise, any license or right to use any trademark, service mark, or logo displayed on this site, without the express written permission of Franklin Electric.

FE Logo and Design® and SubMonitor Connect™ are registered trademarks of Franklin Electric.NEMA is a trademark of The Association of Electrical Equipment and Medical Imaging Manufacturers.Apple App Store™ is a service mark of Apple Inc.iOS® is a registered trademark of Cisco Systems, Inc. and is used under license.Google Play™ store is a trademark of Google LLC.Android™ is a trademark of Google LLC.Bluetooth is a registered trademark of Bluetooth SIG, Inc.Modbus is a registered trademark of Schneider Electric USA, Inc.

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TABLE OF CONTENTS PRODUCT INFORMATION - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 5

DESCRIPTION - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 5FEATURES - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 5MODELS - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 6APPLICATIONS - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 6COMPONENT IDENTIFICATION - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 7TYPICAL SYSTEM SETUP - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 8

INSTALLATION AND SETUP - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 9INSTALLATION PROCESS - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 9PHYSICAL INSTALLATION - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 10

ENVIRONMENTAL REQUIREMENTS - - - - - - - - - - - - - - - - - - - - - - - - - - - 10DIMENSIONS - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 10MOUNTING THE MT1111/MT6111 SUBMONITOR CONNECT - - - - - - - - - - - - - - - - - 11DISPLAY OPTION - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 11

ELECTRICAL INSTALLATION - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 12WIRING GUIDELINES - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 12TERMINAL CONNECTIONS - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 13

START-UP PROGRAMMING - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 17USING THE CONTROL INTERFACE - - - - - - - - - - - - - - - - - - - - - - - - - - - - 17MENU NAVIGATION - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 18ENTER BASIC PARAMETERS - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 19

PROGRAMMING MENUS - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 20 OPERATION - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 29

CONTROL FUNCTIONS - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 29MONITORING FUNCTIONS - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 30PROTECTION FEATURES - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -33

MOTOR OVERLOAD PROTECTION - - - - - - - - - - - - - - - - - - - - - - - - - - - -33MOTOR TEMPERATURE PROTECTION WITH PT100/PT1000 - - - - - - - - - - - - - - - -33MOTOR TEMPERATURE PROTECTION WITH SUBTEMP (MT6111 ONLY) - - - - - - - - - - -33INSULATION CHECK - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -35NEGATIVE POWER - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 36

COMMUNICATIONS - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -37FE CONNECT MOBILE APP - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -37MODBUS RTU COMMUNICATION - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 39

PRIMARY MODBUS MAP - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 40SECONDARY MODBUS MAP - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 41

MAINTENANCE - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 51TROUBLESHOOTING - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 51PERIODIC MAINTENANCE - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 54

SPECIFICATIONS - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 55TRIP CURVES - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -57SMS3R RATINGS - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 58SMS3R RV RATINGS - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 59WIRING DIAGRAMS FOR PANELS - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 61APPLICABLE STANDARDS - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 69GLOSSARY - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - 71

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SAFETY INSTRUCTIONSHazard Messages

SAFETY INSTRUCTIONSHazard MessagesThis manual includes safety precautions and other important information in the following formats:

IMPORTANT: Identifies information that controls correct assem-bly and operation of the product.

NOTE: Identifies helpful or clarifying information.

This symbol alerts the user to the presence of dangerous voltage inside the product that might cause harm or elec-trical shock.

This symbol alerts the user to the presence of hot sur-faces that might cause fire or personal injury.

Before Getting StartedThis equipment should be installed and serviced by technically qualified personnel who are familiar with the correct selection and use of appropriate tools, equipment, and procedures. Failure to comply with national and local electrical and plumbing codes and within Franklin Electric recommendations may result in elec-trical shock or fire hazard, unsatisfactory performance, or equip-ment failure.

Know the product’s application, limitations, and potential haz-ards. Read and follow instructions carefully to avoid injury and property damage. Do not disassemble or repair unit unless described in this manual.

Failure to follow installation or operation procedures and all applicable codes may result in the following hazards:

Indicates an imminently hazardous situation which, if not avoided, will result in death or serious injury.

Indicates a potentially hazardous situation which, if not avoided, could result in death or serious injury.

Indicates a potentially hazardous situation which, if not avoided, could result in minor or moderate personal injury.

Indicates a potentially hazardous situation which, if not avoided could result in damage to equipment or other property.

High voltages capable of causing severe injury or death by electrical shock are present in this unit.

• To reduce risk of electrical shock, disconnect power before working on or around the system. More than one disconnect switch may be required to de-energize the equipment before servicing

• Make sure the ground terminal is connected to the motor, control enclosures, metal plumbing, and other metal near the motor or cable using wire no smaller than motor cable wires.

Risk of bodily injury, electric shock, or equipment damage.• This equipment must not be used by children or persons

with reduced physical, sensory or mental abilities, or lacking in experience and expertise, unless supervised or instructed. Children may not use the equipment, nor may they play with the unit or in the immediate vicinity.

• Equipment can start automatically. Lockout-tagout before servicing equipment.

• Read entire manual before starting installation and operation.

• End user should receive and retain manual for future use.

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PRODUCT INFORMATIONDescription

PRODUCT INFORMATIONDescription

The SubMonitor Connect is a motor and pump protection relay for three-phase motors and pumps. SubMonitor Connect is available as a stand-alone component (MT1111 and MT6111), and is also integrated into Franklin Electric SMS Starter and Soft Starters panels (MT1311 and MT2211). The SubMonitor Connect provides real-time performance monitoring and protection against adverse conditions such as dry well conditions, clogging, bound pumps, and electrical power issues. It features programmable control of inputs and outputs through an integrated, removable NEMA 4X rated display, as well as Modbus and Bluetooth connectivity.

FeaturesConfiguration

• Easy 9-step setup wizard with built-in application defaults

• Preset protection parameters for submersible and sur-face motor types

• Easy access to input and output terminals• Detachable 32 character back-lit NEMA 4X, wash-

down rated display can be mounted on the front panel to allow for safe viewing of conditions while motor is operating.

Operation• Multiple language support• Integrated 32 character display with simplified menus• Real-time fault logging with date/time stamps• Hand/Off/Auto (HOA) switch (MT1311 and MT2211 models)

Protection• Protects motors from overloads, underpower, over-voltage, under-voltage, unbalanced currents and

voltages, phase reversal, and insulation leakage.• Monitors and displays three-phase voltages, currents, and power, accurate to 1% • Motor winding insulation check• Dry well protection• Rapid Cycling• Records and displays a history of 150 faults, last 25 setting changes, and 25 start information, all with

real-time clock date and time stamping accurate to one second.

Communication• Bluetooth connectivity with the FE Connect mobile application for setup, monitoring, mobile control,

and troubleshooting.• Built in Modbus RTU communication protocol capable of baud rates up to 115200 for remote monitor-

ing or control.

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PRODUCT INFORMATIONModels

Models

ApplicationsThe SubMonitor Connect serves as a:• Component motor protection relay (installed into a customer-provided NEMA 3R panel),• Starter incorporated into a panel,• Soft starter incorporated into a panel.

Component ModelsThe SubMonitor Connect component devices serve as a motor protection relay for pump systems. These devices are installed into a customer’s existing NEMA 3R panel.

The MT1111 (American UL listed version) and MT6111 (European CE listed version) are each groundwater products sold as an individual component. This Pump Protection Overload Relay monitors amperages from 1 A to 135 A. Currents up to 1000 A can be monitored with external current transformers (CTs). The Overload Relay includes RS-485 Modbus communication, fault relay output, and PT100/PT1000 inputs. The model MT6111 Overload Relay is also compatible with SubTemp motor temperature sensors.

IMPORTANT: SubMonitor Connect is not compatible with variable frequency drives, electronic phase con-verters, or solid state soft starters. These devices will cause nuisance tripping of the motor overheat fault, or may cause damage to SubMonitor Connect components.

Reduced voltage starters may be used with the SubMonitor Connect if the starting time does not exceed 3 seconds. The motor must be up to full voltage in less than three seconds to prevent excessive wear on the motor bearings, and also prevents the SubMonitor Connect from faulting. When the soft starter has the motor up to full voltage, the soft starter must be switched out of the circuit (bypassed). Refer to, reduced Voltage Starters in the Franklin Electric AIM manual for more information.

Panel ModelsThe SubMonitor Connect products installed in Starter panels and Soft Starter panels are advanced motor protection relays for pump systems, and have more features. There are two starter types: one type using a Triac output, and one type using PWM output. This Pump Protection Relay monitors amperages from 1 A to 135 A. Using external current transformers (CTs), it can monitor currents up to 1000 A.

The MT1311 is a full-featured SubMonitor Connect that is installed into the SMS and SMS-RV family of panels rated for over 135 A.

The MT2211 is a full-featured SubMonitor Connect that is installed into the SMS and SMS-RV family of pan-els rated at 135 A and below.

Model Part Number DescriptionMT1111 250001901 SubMonitor Connect (American) Pump Protection Overload Relay

MT6111 250001914 SubMonitor Connect (EU) Pump Protection Overload Relay

MT1311 250001903 SMS Pump Protection Starter/Soft Starter with TRIAC Output

MT2211 250001906 SMS Pump Protection Starter/Soft Starter with PWM Output

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PRODUCT INFORMATIONComponent Identification

Component IdentificationThis image shows all possible connectors available.

NOTE: The connectors shown above are model-dependent. Your device might not have all the connectors shown here.

1. Voltage Input2. Control Circuit (TRIAC Switch) to Contactor (Models MT1111, MT6111, MT1311 only)3. RS-485 Modbus Communication4. Relay Outputs5. PT100/PT1000 Connector6. Voltage Inputs (Models MT1311 and MT2211 only)7. Dry Inputs (Models MT1311 and MT2211 only)8. Pilot Device Inputs (Models MT1311 and MT2211 only)9. Motor Insulation Check Output10. Integrated Current Transformers11. Contactor Power Output (Model MT2211 only)

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PRODUCT INFORMATIONTypical System Setup

Typical System SetupYour system setup may vary from that shown.

1. SubMonitor Connect 2. External Pilot (HOA) Switch (external control switch)3. Contactor (connection point between motor and starter)4. Circuit Breaker (molded case type) or Terminal Block for Input Power5. Voltage Input L1, L2, and L3 from Disconnect (power for the SubMonitor Connect)6. Motor Wires from Disconnect to Contactor routed through SubMonitor Connect sensor tunnels7. SubMonitor Connect remote display connection

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INSTALLATION AND SETUPInstallation Process

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INSTALLATION AND SETUPInstallation Process

Refer to the following table when planning the installation of the SubMonitor Connect Component Relay, Starter, or Soft Starter.

1. The planned usage of the overall system determines which options and control methods are appropri-ate, as well as how the SubMonitor Connect should be installed and programmed. Refer to “Operation” on page 29 for examples of how the system might be used.

2. System options define and automate features that support the intended operation. These features may require specialized control methods and programming. For more details, refer to “Control Functions” on page 29, and “Protection Features” on page 33.

3. The SubMonitor Connect supports many different methods for pump operation. Refer to “Control Functions” on page 29 for possible monitoring setups.

4. The overall function of the system directly affects where and how the SubMonitor Connect should be mounted. Refer to “Physical Installation” on page 10 for guidelines.

5. The selected motor application, along with the control method(s), determines how the SubMonitor Connect should be connected. Refer to “Electrical Installation” on page 12 for more information.

6. The SubMonitor Connect can be quickly and easily programmed for most standard operations. Refer to “Start-Up Programming” on page 17. Advanced features or options may require additional parameter adjustments to achieve the desired performance.

1 2 3 4 5Plan System Goals

Identify Options

Select Control Methods

Install Hardware Install Wiring ProgPara

Intended Function• Tank level

maintenance• Irrigation• De-watering

Hardware Application• Three phase• Submersible• Surface pump• Specialized pump

types

Standard Protection• Temperature

• PT100/1000

• SubTemp (Model 6111 only)

• Over current and over voltage

• Motor winding insulation check

• Phase reversal• Unbalanced

current and voltage

• Dry pump protection

Hand/Off/Auto• Panel mounted

Communications• Remote

monitors• Computer

control• Irrigation

system• BMS/PLC

Switches• Pressure• Float• On/Off

Location• Inside• Outside

Climate control• Temperature• Moisture

Distance• Wire sizes

Measurements• Clearance• Drilling

Conduit• Routing• Separation

High Voltage• Grounding• Inputs

Control circuits• Switched

inputs• Voltage inputs• Programmable

outputs• Communication

Basic• Ap• Mo• Lim

I/O s• Inp• Ou

fun• Sc

Optio• En• Se

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INSTALLATION AND SETUPPhysical Installation

Physical InstallationEnvironmental Requirements

The SubMonitor Connect must be installed and used in a controlled environment that meets the following requirements:

Dimensions

Risk of damage or malfunction to SubMonitor Connect, can occur due to improper handling, installation, or environment.• Handle with care to prevent damage to the components.• Do not mount on equipment with excessive vibration.• Install in a location where temperature is within the range of product rating.• Do not mount in direct sunlight or near other heat sources.• MT1111/MT6111: Install SubMonitor Connect on a non-combustible surface. The SubMonitor Connect

generates some heat during normal operation.

Operating Temperature -4 to 140 °F (-20 to 60 °C)Storage Temperature -40 to 158 °F (-40 to 70 °C)Relative Humidity 5% to 95% (non-condensing)

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INSTALLATION AND SETUPPhysical Installation

Mounting the MT1111/MT6111 SubMonitor ConnectThe Starter/Soft Starter version SubMonitor Connect is already installed inside a panel.

Mount the component version of the SubMonitor Connect on a vertical surface with the line terminals (L1, L2, and L3) facing up. The device should be installed inside an enclosure with UL/NEMA (USA) or IEC (EU) environmental rating suitable for the environment.

The SubMonitor Connect base may be installed using the integrated mounting feet or snapped onto a 35 mm DIN rail.

Mounting FeetThe SubMonitor Connect has four integrated feet that allow for mounting with #8, #10, or M4 screws inside an enclosure. When using the mounting feet, tighten the fasteners to 10 in-lb (1.1 Nm). Do not over-tighten.

DIN RailTo use the DIN rail mount, locate the DIN rail clip on the bottom of the SubMonitor Connect base.

1. Push the clip out as shown.2. Attach the SubMonitor Connect onto the top rail first. 3. While holding the SubMonitor Connect firmly against the DIN

rail, push the DIN rail clip back in to secure the SubMonitor Connect to the bottom of the DIN rail.

4. Gently pull on the bottom of the SubMonitor Connect to ensure the clip is properly in place on the DIN rail.

Display OptionFor a SubMonitor Connect installed inside a panel, the detachable display may be mounted to the front of the panel for easy access using the accessory kit Remote Display Assembly, P/N 5860015160.

11

INSTALLATION AND SETUPElectrical Installation

Electrical InstallationWiring Guidelines

Branch Circuit ProtectionSome SubMonitor Connect models provide branch circuit protection, varying by SKU and motor voltage. For branch circuit protection ratings, refer to “SMS3R Ratings” on page 58.

Short circuit rating is 600 VAC, 200,000 A.

Maintain proper clearances and verify that no possibility of an electrical short exists between the power conductors or enclosure. Ensure that wires are not under stress and all insulation is intact.

All control wiring — sensors, switches, etc. — should be in a separate conduit routed individually, not parallel, from high voltage wiring. Additionally, any shielded cables should be properly grounded.

Control terminals accept 26-14 AWG wire tightened to a torque of 3.5 in-lb (4 kg-cm). Strip insulation from wires to a length of 5/16" (8 mm).

Special Consideration for Electromagnetic Compatibility (EMC)SubMonitor Connect conforms to EN60947-4-1 (for EMC). Some installations might need additional EMC filtering.

High voltages capable of causing severe injury or death by electrical shock are present in this unit.

• To reduce risk of electrical shock, disconnect power before working on or around the system. More than one disconnect switch may be required to de-energize the equipment before servicing

• Make sure the panel’s ground terminal is connected to the motor, control enclosures, metal plumb-ing, and other metal near the motor or cable using wire no smaller than motor cable wires.

• Install and wire in accordance with all applicable local and national electrical construction codes.

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Terminal Connections

NOTE: The connectors shown are model-dependent. Your device might not have all the connectors shown.

1. Voltage Inputs – (L1, L2, and L3). These connections provide external power to the SubMonitor Connect and must match the phase relationship with phase A, B, and C respectively. L1, L2, and L3 come from the output of the power disconnect or from the line side of the contactor, before the cables to the motor pass through the SubMonitor Connect sensors.

2. Pilot Device (D3, D4) MT1311/ MT2211 only. HOA switch inputs. These dry inputs are wired to a door-mounted pilot device such as an HOA switch.

• SG - Common• D3 - Hand Signal• D4 - Auto Signal

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3. Dry Inputs - (D1, D2) MT1311/ MT2211 only. These connections provide input for a wide selection of switches or programmable controls, such as use of float switch (High Float/Low Float) inputs.

• SG - Common• D1 - Auto Run/Low Float• D2 - Shut Down/High Float

4. Voltage (Wet) Inputs - (V1, V2) MT1311/ MT2211 only. These connections provide input for various types of voltage control signals. This wet input can be used for remote start/stop of a pump motor, such as in an irrigation system, building management control, or programmable logic control. Refer to “Fill/Drain using Float Switches” on page 29 for further information.

• Voltage input pairs accept AC/DC voltages 12 V to 240 V± 10%, up to 5 mA.• Inputs can be programmed to be activated by either an incoming voltage signal (Active High) or a

loss of voltage (Active Low). Default state is Active High.

5. Contactor Control Circuit - (M2, M1) MT1311/ MT2211 only. Provides a factory-wired TRIAC signal capable of closing up to 2 A contactors at 24 VAC to 600 VAC.

6. Contactor Power Output - (C+, C-) MT2211 only. This factory-wired circuit provides 24 V AC PWM output to close only FCS manufactured contactors 100AF frame size and smaller.

7. Relay Output - (01, 02) The O1/O2 connectors are the connections for a programmable relay output. This relay can be configured to close in various situations. Connect an external light, horn, or other signaling device to the relay output to indicate the fault condition. By default, O1/O2 closes when the SubMonitor Connect is in the fault condition. These relay contacts are rated for up to 1 A at 240 VAC/VDC.

8. PT100/PT1000 - (I+, V+, I-/V-) Analog input reading of motor winding and lower bearing temperature from external sensors.• I+ Positive connection for excitation current circuit for two, three, and four wire PT100/PT1000 RTD

sensors.• V+ Positive connection for voltage sensing circuit for two, three, and four wire PT100/PT1000 RTD

sensors.• I-/V- Negative connection for both the excitation circuit and voltage sensing circuit for two, three,

and four wire PT100/PT1000 RTD sensors.

9. Insulation Check - (Ground, W) This output puts a small voltage across a motor winding (W) and ground. A fault occurs if the measured resistance on the motor winding is less than insulation check resistance trip threshold setting. The default setting is off; the Fault trigger default setting is 500 kΩ; the Alarm trigger default setting is 1000 kΩ. Refer to “Insulation Check” on page 35 for further information.

10. RS-485 Modbus - (-, +, SG) This RS-485 connection is for Modbus RTU communications I/O using shielded twisted pair cable.These connections provide access for external computer-based monitoring and control.

• + Positive RS-485 wire• - Negative RS-485 wire• SG Used for the shield wire• Termination Switches (above this connector) Leave both 1 and 2 in the OFF position.

14


MT1111/MT6111: Route Motor Wires Through SensorsFor MT1311/MT2211, go to “Start-Up Programming” on page 17.

The SubMonitor Connect input power is connected at the terminal block on top of the device. The phase order (relationship) to the motor must match the phase order to the power connection, i.e. connections directly match to the phases that pass through the sensors:

L1-Phase A/T1 | L2-Phase B/T2 | L3-Phase C/T3.

Route the T1, T2, and T3 motor power leads through the sensors in the SubMonitor Connect from top (power side) to bottom (motor side).

IMPORTANT: The SubMonitor Connect has a built in phase sequence meter. If upon initial power up, the SubMonitor Connect displays a Phase Reversal, Low Power Factor, Low Power, or Negative Power fault, the incoming voltages at L1, L2, and L3 terminals are in a negative sequence (compared to the phase sequence of the sensors), and the contactor is locked out until the phase sequence is corrected. Default phase order is A-B-C, but you can change it to A-C-B.

Refer to “Programming: Advanced Setup > Motor Protection > Voltage” on page 23. Look for Phase Order at Modbus address 451.

High Current Installations using Current Transformers (CT) High current installations (above 135 A) require the use of external Current Transformers (CT) for the SubMonitor Connect to accurately monitor the motor current. Ground Fault protection is disabled when using external current transformers.

1. Ensure that all system power is off. More than one disconnect may be required.

2. Locate three identical turn ratio CTs. The turn ratio (or transform ratio) is usually printed on the exterior of each CT.

15


3. Run a (motor) wire from the Disconnect through the center of a CT before connecting to the Contactor. The arrow label on the CT points to the line side of supplied power. Repeat for the other two wires. NOTE: Current in the wires routed through the SubMonitor Connect internal CT sensors shall not exceed 135 A. Use higher capacity CTs for motor wire current exceeding 135 A to avoid a safety issue and/or product damage.

4. Maintaining phase relationships, L1 to Phase A, L2 to Phase B, and L3 to Phase C, route one of the two CT wires through the SubMonitor Connect sensors.

5. Connect each CT wire to it’s other CT wire via the grounded terminal block (inset photo on previous page).

CT Kits available:

• 5860015170 - SubMonitor Connect CT Kit, 120-270A• 5860015180 - SubMonitor Connect CT Kit, 200-400A• 5860015210 - SubMonitor Connect CT Kit, 320-720A• 5860015190 - SubMonitor Connect CT Kit, 400-900A

When using CTs as part of the SubMonitor Connect system, be sure to program the SubMonitor Connect appropriately. Refer to “Programming: Advanced Setup > Administration” on page 28 for External CT Ratio setup, or make this setting using the FE Connect mobile app.

An example for CT use:

An installation is using 500:5 ratio CTs with 500 A on the power lines.

The SubMonitor Connect measures 5 A. The SubMonitor Connect resolution is 0.1 A, which equates to ±10 A reading on the motor power lines. This means that the SubMonitor Connect reading difference can be between 505 A and 495 A.

Refer to “Wiring Diagrams for Panels” on page 61 for schematics.

16

INSTALLATION AND SETUPStart-Up Programming

Start-Up ProgrammingUsing the Control Interface

1. Display: Shows system status information and programming menu items.

2. SHIFT: Press SHIFT to move the blinking cursor left one position for each button press. When the cursor reaches the left-most editable position, another SHIFT button press moves the cursor to the right-most position of the parame-ter.

3. UP and DOWN: Use to navigate menus and adjust parame-ters.

4. ENTER: Executes menu selection and confirms any changes made to parameter settings. Also allows user to access sub-menus and selected parameters.

5. ESC: Pressing the ESC button moves the menu back one level.6. Run LED: This green LED lights to alert the user to water flow (the pump motor is running).

Remove the detachable display for access to these items:7. Fault LED: Off (when not lighted) indicates normal operation. A blinking LED indicates the measured

current is higher than the Overload setting, and will trip soon if the condition persists. A solid on LED indicates an active fault condition.

8. TEST/RESET: Pressing this button resets a fault condition, if present. In a non-fault condition, pressing this button puts the SubMonitor Connect into a fault state.

17


Menu Navigation

Press ESC to go back a level when in the programming menu. ESC can be pressed repeatedly to get to the Home display.

NOTE: The UP button can also be used to cycle through the displays.

Note: The FE Connect Mobile Application can also be used to adjust SubMonitor Connect programmed operating features. Refer to “FE Connect Mobile App” on page 37.

If you wish to make programming changes, press the DOWN arrow from the Home display until you see the desired programming menu Basic Setup or Advanced Setup in the display.

1. Press ENTER to go into the sub-menus.2. Pressing the DOWN button cycles you through the available

sub-menus. When the desired sub-menu is displayed, press ENTER to view the current setting. Press ENTER again to change the parameter. You will notice a blinking cursor indicating that the parameter is able to be changed.

3. Use the UP and DOWN arrow buttons to view the available choices. For parameters that contain numerical data, use the UP or DOWN button to adjust the number in that position. Use the SHIFT button to move the cursor one position to the left.

4. When the parameter setting is satisfactory, press the ENTER button to save the setting in SubMonitor Connect memory.

5. Use the ESC button to back up one menu level or to cancel editing a parameter.

18


Enter Basic ParametersThe first time the SubMonitor Connect is powered up, it goes to the Basic Setup menu. Each subsequent power up goes to the Home display.

From the Home display, press the Down arrow several times to see Basic Setup.

1. Press ENTER to go into the Basic Setup menu.2. Use the UP and DOWN arrow keys to select the type of pump applica-

tion for the site.

When a selection is made, some system parameters are automatically updated to defaults based upon the chosen pump application. Choices are: Surface Pump, Submersible Pump, or Custom. Choosing Submersible Pump automatically sets protection parameters to defaults listed in the Franklin Electric AIM manual. Press ENTER to save the choice to memory. Press DOWN to go to the next menu item.

3. Nominal Voltage: Enter the rated voltage from the motor nameplate.4. FLA or SFA (based upon motor type selected): Enter the FLA (Full Load Amps) or SFA rating from the

motor nameplate.5. Power Fail Mode: Set whether the SubMonitor Connect device to returns to the last state it was in prior

to a power failure or set to Off.6. Overvoltage: This setting determines how the device reacts to a detected Overvoltage event. The Off

setting disables the Overvoltage protection. The Alarm only setting displays the event on the display, but does not stop the device. The Fault and Alarm setting opens the motor control circuit and puts the device into a fault state. If there is a different fault active, the fault is reported as an Alarm.

7. Overvoltage%: This setting determines the threshold for when the device will fault under this condi-tion. Range is 101% to 125%. Default setting is 110%.

8. Underpower: This setting determines how the device reacts when the measured kW is less than the kW trip point setting. The Off setting disables the Underpower protection. The Alarm only setting dis-plays the event on the display, but does not stop the device. The Fault and Alarm setting opens the motor control circuit and puts the device into a fault state. If there is a different fault active, the fault is reported as an Alarm.

9. Underpower%: This setting determines the threshold for when the device will fault under this condi-tion. Range is 1% to 99%. Default setting is 65%.

10. Current Unbalance: This setting determines how the device reacts to a detected current unbalance event. The Off setting disables the Current Unbalance protection. The Alarm only setting displays the event on the display, but does not stop the device. The Fault and Alarm setting opens the motor control circuit and puts the device into a fault state. If there is a different fault active, the fault is reported as an Alarm.

11. Current Unbalance%: This setting determines the threshold for when the device will fault under this condition. Range is 1% to 50%. Default setting is 5%.

12. Date: Set the date. Used to record the date of data for faults, parameter changes, etc.13. Time: Set the time. Used to record the time of data for faults, parameter changes, etc.14. Name Tag of the Device: Name of this device that is displayed over communication protocols.

19

INSTALLATION AND SETUPProgramming Menus

ameters described

he Custom applica-

by 0.01; 100 = ed for Submersible

ould be set to the as listed in the

t according to the anual.

tor Connect to power. If “Last” is re the power fail, en power resumes.lculated average of the user set ercentage (next ceeding the trip etup > Motor ime to Trip.

Programming MenusRW = Read and Write, R = Read Only, W = Write Only

RC = Adjustable parameter while the pump is running (Running Change).

Some of the ranges below are scaled by a Modbus multiplier (shown in the table as multi = x.x). For exam-ple, a voltage of 100 V is reported by Modbus as 1000, so the user has to multiply the Modbus value by 0.1 for the actual reading value.

Programming: Basic Setup MenuModbus RW RC Menu / Parameter

Name Range Description

400 RW N Application 0 - Custom

1 - Submersible Pump

2 - Surface Pump

Selecting an application resets the parbelow to default values.

Custom defaults:

There are no defaults when choosing ttion.

Submersible Pump defaults:

Service Factor = 100 (multiplier scaled1.00) This parameter cannot be changpumps.

Trip Class = S (Submersible)Underpower Level = 65 (65%)

Surface Pump defaults:

Service Factor = 115 (1.15)Trip Class = 10 (Class 10)Underpower Level = 20 (20%)

430

431

RW N Nominal Voltage

120.0 to 7200; 208.0 (default) multi = 0.1

The motor nameplate voltage rating.

401 RW N FLA/SFA 1.0 to 1000.0; 1.0 (default) multi = 0.1

Surface Pump: FLASubmersible Pump: SFACustom: FLA

For surface motor applications, this shFLA listed on the motor nameplate, orFranklin Electric AIM manual.

For submersible motor applications, seSFA listed in the Franklin Electric AIM m

506 RW Y Power Fail Mode 0 - Off (default) 1 - Last

The operational state for the SubMonireturn to after recovery from a loss of selected, and motor was running befothe motor may start running again wh

432 RW N Overvoltage (enable)

0 - Off

1 - Fault and Alarm (default)

2 - Alarm Only

An overvoltage alarm triggers if the cathe three line-to-line voltages exceedsnominal voltage by the over voltage pmenu item) continuously for a time extime. The trip time is set in Advanced SProtection > Voltage > Overvoltage > T

20

INSTALLATION AND SETUPProgramming: Advanced Setup > Motor Protection > Current

ltage that triggers eached. For

110% of the nominal

larm, this trips if trip point setting me that exceeds trip time is set in Voltage >

ted nominal power level is reached.

ans 110% of the lt. As the ing is automatically

Alarm, an alarm e three line-to-line urrent Unbalance

rrents deviate from than or equal to le, setting a value

significant bytes t byte: year, day,

significant bytes t byte: second,

or Connect when

ould be set to the

et according to the

s the industry

Programming: Advanced Setup > Motor Protection > Current

433 RW N Overvoltage (level)

101 to 125; 110 (default) This sets the percentage of nominal voa fault when over voltage trip level is rexample, setting a value of 110 means voltage value will trigger a fault.

452 RW N Underpower (enable)

0 - Off

1 - Fault and Alarm (default)

2 - Alarm Only

When set to Alarm Only or Fault and Athe measured kW is less than the kW (next menu item) continuously for a tithe under power trip time setting. TheAdvanced Setup > Motor Protection > Undervoltage > Time to Trip.

453 RW N Underpower (level)

1 to 99;

SMS default = 65

Reduced Voltage SMS default = 50

This sets the percentage of the calculalevel that triggers a fault when the tripFor example, setting a value of 110 menominal power value will trigger a faupercentage changes, the wattage settcalculated.

418 RW N Current Unbalance (enable)

0 - Off1 - Fault and Alarm (default)2 - Alarm Only

When set to Alarm Only or Fault and triggers if the calculated average of thcurrents exceed the user set nominal Cpercentage (next menu item).

419 RW N Current Unbalance (level)

1% to 50%; 5% (default) Trips if any of the 3 measured phase cuthe average current by a value greaterthe trip percentage setting. For exampof 5 means 5% of current unbalance.

106

107

W

W

Y

Y

Date MM/DD/YY Sets the system date. Only the 3 leastare used. From least to most significanmonth (0x00MMDDYY).

108

109

W

W

Y

Y

Time HH:MM:SS Sets the system time. Only the 3 leastare used. From least to most significanhour, day (0x00HHMMSS).

N/A RW N Name Tag 16 characters maximum The name tag identifies this SubMonitusing communication protocols.

Modbus RW RC Menu / Parameter




Overload MenuFLA/SFA Motor 1.0 A to 1000.0 A For surface motor applications, this sh

FLA listed on the motor nameplate.

For submersible motor applications, sSFA listed in the Franklin AIM manual.

403 RW N Trip Class 5 10 20 30 S - Submersible Motor

Sets the overload trip class. This followstandard I2t trip curve.Surface Pump default = 10Submersible Pump default = S

21

INSTALLATION AND SETUPProgramming: Advanced Setup > Motor Protection > Current

r nameplate for this

ethod.

sets how many

matic resets.run prevention fea-

seconds

ed rotor detection.

r stall detection.

urrent detection.

in percentage of

rcurrent situation e fault.d.

sets how many

matic resets.

t unbalance detec-

t will trigger a fault

alanced current sit-igger the fault.t method.

sets how many

matic resets.

404 RW N Service Factor 1.0 to 2.0; 1.15 (Surface motor and Custom default) 1.00 (Submersible motor default) multi = 0.01

Motor service factor; refer to the motosetting.

405 RW N Fault Reset Type 0 - Manual 1 - Automatic (default)

Sets the current overload fault reset m

406 RW N Reset Re-tries 1 to 10; default is 3 When automatic reset is enabled, thistimes to attempt resetting the fault.

407 RW N Reset Delay 0 to 43,200; default = 900 The number of seconds between auto408 RW N Cooldown 0 - Disabled (default)

1 - EnabledTurn on or off the overload cool down ture.

409 RW N Cooldown Time 1 to 43,200; default = 300 Amount of overload cool down time inLocked Rotor Menu

410 RW N Trip/Alarm 0 - Off 1 - Fault and Alarm (default)

Choose the type of response for a lock

Stall Menu411 Trip/Alarm 0 - Off

1 - Fault and Alarm (default)2 - Alarm Only

Choose the type of response for moto

Overcurrent Menu412 RW N Trip/Alarm 0 - Off

1 - Fault and Alarm (default)Choose the type of response for overc

413 RW N Current Level 100% to 200%; default = 110%

Overcurrent threshold to signal a faultnominal current setting.

414 RW N Time to Trip 1 s to 120 s; default = 30 s Amount of time in seconds for the oveto subside. If exceeded, then trigger th


Sets the overcurrent fault reset metho

416 RW N Reset Retries 1 to 10; default = 3 When automatic reset is enabled, thistimes to attempt resetting the fault.

417 RW N Reset Delay 0 to 43,200; default = 900 The number of seconds between autoCurrent Unbalance Menu

418 RW N Trip/Alarm 0 - Off 1 - Fault and Alarm (default) 2 - Alarm only

Choose the type of response for currention.

419 RW N Unbalance Level 1% to 50%; default = 5% Percentage of unbalanced current thacondition.

420 RW N Time to Trip 1 s to 120 s; default = 30 s Amount of time in seconds for the unbuation to subside. If exceeded, then tr


Sets the unbalanced current fault rese


423 RW N Reset Delay 0 to 43,200; default = 900 The number of seconds between auto



22

INSTALLATION AND SETUPProgramming: Advanced Setup > Motor Protection > Voltage

d fault current pro-

ill trigger a fault

rrent detected

unexpected cur-

measured peak of 400% to 1400%

the start time for

sets how many

matic resets.

Programming: Advanced Setup > Motor Protection > Voltage

Ground Fault Menu424 RW N Trip/Alarm 0 - Off

1 - Fault and Alarm (default) 2 - Alarm only

Choose the type of response for grountection.

425 RW N Current Level 1 A to A; default = 1.0 A Amount of ground fault current that wcondition.

No Current426 RW N Trip/Alarm 0 - Off (default)

1 - Fault and Alarm 2 - Alarm only

Choose the type of response for no cuwhen current is expected.

Unexpected Current427 RW N Trip/Alarm 0 - Off (default)


Choose the type of response for whenrent is detected.

Out of Calibration Menu428 RW N Trip/Alarm 0 - Off

1 - Fault and Alarm (default) 2 - Alarm only

Choose the type of response when theinrush current is outside of the range of the user-set FLA.

Max Start Time Menu429 RW N Trip/Alarm 0 - Off (default)


Choose the type of response for whenthe motor is exceeded.



Modbus RW RC Display Name Range Description

Overvoltage Menu432 RW N Trip/Alarm 0 - Off


Overvoltage Protection Enable

433 RW N Overvoltage Level 101 to 125; default = 110 Overvoltage Level Percentage430431

RW N Nominal Voltage 120.0 to 7,200.0; default = 208.0 multi = 0.1

Nominal Voltage setting

434 RW N Time to Trip 1 to 120; default = 10 Overvoltage Delay Time in seconds435 RW N Fault Reset Type 0 - Manual

1 - Automatic (default)Overvoltage Reset Method


437 RW N Reset Delay 1 to 43,200; default = 900 The number of seconds between autoUndervoltage Menu

438 RW N Trip/Alarm 0 - Off1 - Fault and Alarm (default)2 - Alarm Only

Undervoltage Protection Enable

439 RW N Undervoltage Level

75 to 99; default = 90 Undervoltage Level Percentage

430431

RW N Nominal Voltage 120.0 to 7200; default = 208.0 multi = 0.1


23

INSTALLATION AND SETUPProgramming: Advanced Setup > Motor Protection > Power

sets how many

matic resets.

a Voltage Unbal-

cted to cause a

alanced voltage trigger the fault.ethod.

sets how many

matic resets.

a voltage phase

reset is performed

sets how many

matic resets.

Programming: Advanced Setup > Motor Protection > Power

440 RW N Time to Trip 1 to 120; default = 10 Undervoltage Delay Time in seconds441 RW N Fault Reset Type 0 - Manual

1 - Automatic (default)Undervoltage Reset Method


443 RW N Reset Delay 1 to 43,200; default = 900 The number of seconds between autoVoltage Unbalance Menu


Choose the type of response for whenance is detected.

445 RW N Unbalance Level 1% to 25%; default = 1% Percentage of voltage unbalance detefault condition.

446 RW N Time to Trip 1 to 120; default = 10 Amount of time in seconds for the unbsituation to subside. If exceeded, then


Choose the Voltage Unbalance reset m


449 RW N Reset Delay 1 to 43,200; default = 900 The number of seconds between autoPhase Reversal Menu


Choose the type of response for whenreversal condition is detected.

451 RW N Phase Order 0 - A B C (default) 1 - A C B

Phase Order

Voltage Loss Menu487 RW N Fault Reset Type 0 - Manual (default)

1 - AutomaticChoose whether the Voltage Loss faultmanually or automatically.


489 RW N Reset Delay 1 to 43,200; default = 900 The number of seconds between auto



Underpower menu452 RW N Trip/Alarm 0 - Off


Underpower Protection Enable

453 RW N Underpower Level 1 to 99; default = 50/65 Underpower Level Percentage SMS default = 65 Reduced Voltage SMS default = 50

454 RW N Underpower Delay 1 to 120; default = 2/3 Underpower Delay Time in seconds SMS default = 3 Reduced Voltage SMS default = 2

24

INSTALLATION AND SETUPProgramming: Advanced Setup > Motor Protection > System

nitor Connect ondition based on

ts

an Overpower con-

s

Negative Power is

Underpower is

ts

an approximate rth ground.

g in °Cg in °C

Programming: Advanced Setup > Motor Protection > System

455 RW N Underpower Reset 0 - Manual 1 - Automatic 2 - Well Recovery (Submers-ible Pump only)

Underpower Reset MethodWhen set to well recovery, the SubMoinfinitely resets an Underpower fault cthe user-selected reset delay.

456 RW N Underpower Retry 1 to 10; default = 3 Underpower Automatic Reset Attemp457 RW N Underpower Reset

Delay1 to 43,200; default = 900 Underpower Reset Delay in seconds

Overpower menu458 RW N Trip/Alarm 0 - Off


Choose the type of response for whendition is detected.

459 RW N Overpower Level 101 to 200; default = 125 Over Power Level Percentage460 RW N Time to Trip 1 to 120; default = 3 Over Power Delay Time in seconds461 RW N Fault Reset Type 0 - Manual

1 - Automatic (default)Over Power Reset Method

462 RW N Reset Retries 1 to 10; default = 3 Over Power Automatic Reset Attempt463 RW N Reset Delay 1 to 43,200; default = 900 Over Power Reset Delay in seconds

Negative Power menu464 RW N Trip/Alarm 0 - Off (default)

1 - Fault and Alarm2 - Alarm Only

Choose the type of response for whendetected.

Underpower menu452 Trip/Alarm 0 - Off

1 - Fault and Alarm (default) 2 - Alarm Only

Choose the type of response for whendetected.

453 Underpower Level 101 to 200; default = 125 Underpower Level Percentage454 Time to Trip 1 to 120; default = 3 Underpower Delay Time in seconds455 Fault Reset Type 0 - Manual


456 Reset Retries 1 to 10; default = 3 Underpower Automatic Reset Attemp457 Reset Delay 1 to 43,200; default = 900 Underpower Reset Delay in seconds



Insulation Check menu465 RW N Trip/Alarm 0 - Off (default)


Insulation Check Enable. This measures resistance between the W circuit and ea

466 RW N Fault Resistance 1 to 2000; default = 500 Insulation Resistance Fault Level467 RW N Alarm Resistance 1 to 3000; default = 1000 Insulation Resistance Alarm Level

SubTemp menu468 RW N Trip/Alarm 0 - Off (default)

1 - Fault and Alarm 2 - Alarm Only

SubTemp Motor Protection Enable

469 RW N Trip Temp 0 to 150; default = 40 SubTemp Fault Trip Temperature settin470 RW N Alarm Temp 0 to 150; default = 30 SubTemp Alarm Trip Temperature settin

25

INSTALLATION AND SETUPProgramming: Advanced Setup > I/O Terminals (MT1311/MT2211 only)

llowed in seconds

of Attemptse in seconds

a cycle fault condi-

ble

larm

r RTD Over Tem-

t Delay Time in sec-

itch connected to

itch connected to

s connected to D1

Programming: Advanced Setup > I/O Terminals (MT1311/MT2211 only)

For further information regarding D1/D2 use, refer to “Fill/Drain using Float Switches” on page 29.

471 RW N Fault Reset Type 0 - Manual (default) 1 - Automatic

SubTemp Reset Method

472 RW N Reset Retries 1 to 10; default = 3 SubTemp Automatic Reset Attempts a473 RW N Reset Delay 1 to 43,200; default = 900 SubTemp Automatic Reset Delay Time

False Start menu474 RW N Trip 0 - Disabled (default)

1 - EnabledFalse Start Protection Enable

475 RW N Fault Reset Type 0 - Manual (default) 1 - Automatic

False Start Reset Method

476 RW N Reset Retries 1 to 10; default = 3 False Start Automatic Reset - Number477 RW N Reset Delay 1 to 43,200; default = 900 False Start Automatic Reset Delay Tim

Cycle Fault menu478 RW N Trip 0 - Disabled

1 - Enabled (default)Choose the type of response for whention is detected.

Motor Over Temp menu479 RW N Trip/Alarm 0 - Off (default)


RTD Over Temperature Protection Ena

480 RW N Sensor Type 0 - PT100 (default) 1 - PT1000

Set the Type of RTD Sensor used

481 RW N Trip Temp 0 to 200; default = 40 Temperature in °C to Trip a RTD Fault482 RW N Alarm Temp 0 to 200; default = 30 Temperature in °C to Trip a RTD Alarm483 RW N Time to Trip 1 to 120; default = 5 Delay Time in seconds for RTD Fault/A484 RW N Fault Reset Type 0 - Disabled (default)

1 - EnabledRTD Over Temperature Reset Method

485 RW N Reset Retries 1 to 10; default = 3 Number of Automatic Reset Attempts foperature Fault/Alarm

486 RW N Reset Delay 1 to 43,200; default = 900 RTD Over Temperature Automatic Reseonds.



518 RW N D1 Contact Type Normally Open (default)Normally Closed

Choose the intended function of the swD1 and SG.

520 RW N D2 Contact Type Normally OpenNormally Closed (default)

Choose the intended function of the swD2 and SG.

524 RW N D1/D2 Function Auto run / Shutdown (default)LO/HI Fill ModeLO/HI Drain Mode

Choose the type of action the switcheand D2 perform.

505 RW N Control Input HOA (default)HOA W/ Start pushbuttonStart/Stop pushbuttons

Choose the Pilot device type

26

INSTALLATION AND SETUPProgramming: Advanced Setup > Communications

mmunications

er or master ds to one of onses. Other it data without and do not

munication for

e (for use with

seconds.

e (for use with

seconds.

ime (for use with

in seconds.

Time (for use with

in seconds.

Programming: Advanced Setup > Communications

Programming: Advanced Setup > Timers


Modbus menuN/A Com Control Enabled

Disabled (default)Use these setting to set up Modbus cofor the SubMonitor Connect.

In Modbus communications, a computcommunication device issues commanthe network nodes and processes respdevices on the network do not transma request from the master computer, communicate with each other.

Write Access Enabled (default)Disabled

Com Loss Fault EnabledDisabled (default)

Com Loss Time 1 to 120 seconds (default = 10)

Baud Rate 960019200 (default)384005760076800115200

Parity None; 1 StopOddEvenNone; 2 Stop (default)

Modbus Address 1 to 247; default = 247Bluetooth menu

N/A Bluetooth Enabled (default)Disabled

Choose Enabled to use Bluetooth comthe FE Connect mobile app.


(MT1311/MT2211 only)529 RW N Start Delay Enable Enabled

Disabled (default)Enables or disables the Start Delay TimHand Mode and Auto Mode).

530 RW N Start Delay Time (setting)

1 to 43,200; default = 1 Sets the amount of start delay time in

531 RW N Stop Delay Time EnabledDisabled (default)

Enables or disables the Stop Delay TimAuto Mode only).

532 RW N Stop Delay Time (setting)

1 to 43,200; default = 1 Sets the amount of stop delay time in

(All models)533 RW N Min Off Time Enabled

Disabled (default)Enables or disables the Minimum Off THand Mode and Auto Mode).

534 RW N Min Off Time (setting)

1 to 43,200; default = 1 Sets the amount of minimum off time

535 RW N Min Run Time Enable

EnabledDisabled (default)

Enables or disables the Minimum RunHand Mode and Auto Mode).

536 RW N Min Run Time (setting)

1 to 43,200; default = 1 Sets the amount of minimum run time

27

INSTALLATION AND SETUPProgramming: Advanced Setup > Security

e SubMonitor o Basic Setup and 0000 disables the cessible.

nt Transformers

mmunications Loss

y..

Connect to return or to the power

H counter to zero.otor Time counter

tings to Factory

ce for using the

Programming: Advanced Setup > Security

Programming: Advanced Setup > Administration


N/A Edit Passcode 00000 to 99999; default = 00000

Set a five-digit passcode to protect thConnect from unauthorized changes tAdvanced Setup menus. A setting of 0passcode feature, making all menus ac


500 RW N Hardware > External CT Ratio

0 - NONE (default)1 - 150:52 - 200:53 - 250:54 - 300:55 - 500:56 - 600:57 - 800:58 - 1000:5

Turns Ratio for Installed External Curre(CT)

N/A RW N Display Com Trip Enabled (default) or Disabled

Choose whether to use the Display Coalarm or not.

N/A RW N Backlight 0% to 100%; default,=,80% Set the level of backlight for the displaN/A RW N Contrast 0% to 100%; default,=,50% Set the level of contrast for the display506 RW Y Return States Power Fail Mode:

Last or Off (default)

Choosing Last causes the SubMonitor to the last state it was operating in prifailure.

102 RW N Reset Parameters

Reset KWH: Press Enter to confirm resetting the KW103 RW N Reset Motor Time: Press Enter to confirm resetting the M

to zero.104 RW N Reset Settings: Press Enter to confirm resetting all set

Defaults.N/A RW N Language Choose from:

• English (default)• Spanish• Italian• Portuguese• German• French

Choose the preferred language interfaSubMonitor Connect.

28

OPERATIONControl Functions

OPERATIONControl FunctionsHand/Off/Auto (HOA) Controls

Placing the HOA switch into the Hand position manually starts the motor.

Placing the HOA switch in the off position stops the motor and also serves as a manual fault reset when left in this position for 5 seconds.

Placing the HOA switch in Auto mode allows for remote starting and stopping of the motor.

Fill/Drain using Float Switches(MT1311/MT2211 only)

Connect optional float (or other) switching devices to the Dry Input connector. Low Float or Auto Run leads connect to D1 and SG. High Float or Shutdown leads connect to D2 and SG.• SG - Common/Signal Ground• D1 - Auto Run/Low Float (empty tank level indicator)• D2 - Shut Down/High Float (full tank level indicator)

Together, the two dry inputs can be utilized for float switch operation. The float switch can operate in either Fill Mode or Drain Mode. The float switches should be configured to be open/off when the sensor is floating on the water, and closed/on when not floating.

Examples of uses:• Tanks• Pond/lagoon levels• Pumping stations (Irrigation, BMS Control)• Industrial applications (Programmable Logic Controller)• Water treatment systems

Fill Mode refers to using the pump to fill a storage tank.

Drain Mode refers to using the pump to empty a storage tank.

Fill Mode OperationD1/SW1 Status D2/SW2 Status Operation

closed closed Start Commandopen closed Continue Last Stateopen open Stop Command

closed open Invalid State (fault condition)

Drain Mode OperationD1/SW1 Status D2/SW2 Status Operation

open open Start Commandopen closed Continue Last State

closed closed Stop Commandclosed open Invalid State (fault condition)

29

OPERATIONMonitoring Functions

Monitoring FunctionsMain Menu Displays

Real-time system status can be viewed from the main display by scrolling through the Quick View screens. Scrolling further will cycle through the other monitoring and programming menus, eventually returning to the Home screen.

Note: The FE Connect mobile app can also be used to view real-time SubMonitor Connect system status. Refer to “FE Connect Mobile App” on page 37.

Display upon Power On

Press ENTER to start the SubMonitor Connect, and the next display is:

Home Display

Shows that the device is running or stopped, average voltages and amps.

Press DOWN to see the next display:

Quick View 1

Shows the voltage and amperages for the three phases of power.


Quick View 2

Shows the wattage, power factor, and kilowatt hours.


30


Quick View 3

Shows the PT100/PT1000 or SubTemp measured temperature in °C. This display shows SubTemp enabled.


Basic Setup

Press ENTER to go into the Basic Setup submenus. Refer to “Enter Basic Parameters” on page 19.

Or press DOWN to see the next display:

Fault History

Press ENTER to go into the Fault History submenus. Refer to “” on page 52.


View Menus

Press ENTER to go into the View Menus submenus. Refer to “Advanced Setup Menu > View Menus” on page 32.


Advanced Setup

Press ENTER to go into the Advanced Setup submenus. Refer to “Programming: Advanced Setup > Motor Protection > Current” on page 21.

Or press DOWN to return to the Home Display (shown on the previous page).

31


o see the current nd Insulation

1 through #25.

the number of

ime the motor is

e the SubMonitor

is open or closed.ed here. The ction between the e or other such

, Time, Serial very Code.ses for Serial Code.tric to recover a

numbers for the

al digits from the

Advanced Setup Menu > View Menus


N/A R N View Meter View VoltageView CurrentView PowerInsulation (in kΩ)

Use the read-only View Meter menus treadings for Voltage, Current, Power, aResistance.

227228229230231

R N View Events View Start History

View Power Loss Count (Modbus 227)

View Motor Run Time (Modbus 228, 229)

View Power-On Time (Modbus 230, 231)

Start History records starting events #Each starting event records:• A-B Voltage• B-C Voltage• C-A Voltage• Min A-B Voltage• Min B-C Voltage• Min C-A Voltage• Line A Current• Line B Current• Line C Current• Peak Current• Power Factor• System State• HOA Mode• Motor State• Date• TimePower Loss Count is a running total ofrecorded power losses (until reset).Motor Run Time is a running total of trunning (until reset).Power On Time is a running total of timConnect is powered up.

N/A R N View I/O Status 01/02 StatusBluetooth MAC IDBluetooth NameBluetooth KeyBluetooth Error

This shows if the Relay Output (01/02)Bluetooth parameters are also displayBluetooth key is used to make a conneSubMonitor Connect and a smart phondevice.Cycle power to clear a Bluetooth error.

219 to

222

R N View System System Date (Modbus 219, 220)System Time (Modbus 221, 222)Serial NumberModel NumberRecovery Code

This reads and shows the current DateNumber, Model Number, and the RecoThere are no available Modbus addresNumber, Model Number, and RecoveryRecovery Code is used by Franklin Elecforgotten password.

232 to

245

R N View SW Versions Meter Device (234, 235)I/O Device (232, 233)Display Device (236, 237)I/O Boot LDR (238, 239)Meter Boot LDR (240, 241)Bluetooth Module (242, 243)Gate Drive (244, 245)

This menu shows the software versionlisted items.

Periods are implied after 2 and 4 decimright (10203 = v01.02.03).

32

OPERATIONProtection Features

Protection FeaturesMotor Overload Protection

The SubMonitor Connect electronics provide motor overload protection by preventing motor current from exceeding the maximum Service Factor Amps (SFA).

Motor Temperature Protection with PT100/PT1000Overheating is the most common cause of electrical motor failure. Adequate protection against overheating is necessary for all electrical motors.

The PT100/PT1000 input is capable of measuring a thermistor resistance from 0 to 5 kΩ with an accuracy of ±1%. This covers the entire applicable temperature range for the PT100 and PT1000 PTC thermistors. The temperature is displayed to the nearest 1 °C.

PT100/PT1000 requires a separate wire harness routed to the pump motor for temperature readings.

Typical PT100/PT1000 PTC thermistor wiring diagrams:

Motor Temperature Protection with SubTemp (MT6111 Only)The SubTemp sensor is a pre-installed electronic temperature sensor inside some submersible motors. SubTemp continuously measures the temperature of the motor’s electrical windings. SubTemp is only available in SubMonitor Connect model MT6111.

The temperature data is transmitted from the SubTemp using two of the three motor power phases in the power lead/drop cable (300 m maximum cable length). The SubMonitor Connect’s main current sensors read the signal. No additional cabling or communication device is needed for this feature. The temperature data is displayed to the nearest 1 °C on the SubMonitor Connect’s Quick View 3 display and the FE Connect mobile app.

The SubMonitor Connect may take up to one minute to read the signal from the SubTemp. The display shows “—” until the signal is detected.

NOTE: The SubMonitor Connect is not compatible with legacy SubTrol temperature sensors.

SubTemp SetupMotors installed with a SubTemp sensor need to have a 1.0 uF capacitor, approved for phase-to-phase operation, connected between each phase pair (total of three) to improve the electromagnetic compatibility (EMC) system performance. The capacitors must be connected on the motor power lines (T1, T2, and T3), preferably at the Contactor.

If you see “No Sig” or “Low Sig” in the display, verify that the motor phase lead sequence is correct going through the SubMonitor Connect sensors.

33


If the sequence of motor leads is correct (matches Starting Sequence in the following table), reroute the sequence of motor wires going through the sensors (and L1, L2, and L3) to match the Rotate Clockwise 1 column. If “No Sig” or “Low Sig” continue to display, reroute the motor leads and L1, L2, and L3 to match the Rotate Clockwise 2 column.

SubTemp Temperature ProgrammingModbus Addresses for SubTemp• 329 - SubTemp Temperature• 330 - SubTemp Receiver Status

SubTemp Temperature Setpoint1. Set the SubTemp temperature Alarm to 70 °C.2. Set the SubTemp temperature Fault to 85 °C.3. If SubMonitor Connect (under normal operating conditions) faults at 85 °C, check the following before

contacting your installer.a. Proper water flow around motorb. Verify all other SubMonitor Connect protective features are set correctly (SFA, Power, Current

Imbalance, etc.c. If setup of Pump-Motor-Assembly (PMA) and the SubMonitor Connect appear to be in accordance

with Franklin Electric recommendations, please contact your installer and Franklin Electric repre-sentative.

If the SubMonitor Connect faults at 85 °C, check the following:• Discharge valve open• Water flow around motor• Other protective features are properly set (i.e. SFA, Power, Current Imbalance, etc.)

Refer to “Programming: Advanced Setup > Motor Protection > System” on page 25 for programming the SubMonitor Connect for SubTemp use.

Starting Sequence Rotate Clockwise 1 Rotate Clockwise 2Motor

Lead IDSensor

Phase IDIncoming Power ID

Motor Lead ID

Sensor Phase ID

Incoming Power ID

Motor Lead ID

Sensor Phase ID

IncomingPower ID

T1 A L1 T1 C L1 T1 B L1T2 B L2 T2 A L2 T2 C L2T3 C L3 T3 B L3 T3 A L3

34


Insulation CheckInsulation check is performed when the motor is off, just prior to a motor start command.

The SubMonitor Connect checks the resistance of a motor winding (W) to ground by applying a DC voltage to the motor winding just prior to motor start. Leakage current is measured by the SubMonitor Connect and a resistance measurement is calculated.

This output trips if the measured insulation resistance on the motor winding is less than the resistance trip threshold setting.

The default setting is off; the default alarm activation is at a reading of 1000 kΩ; a default Fault is indicated when the reading is 500 kΩ.

Insulation Check connection diagrams for MT1111/6111 (left) and MT1311/2211 (right):

35


Negative PowerThe SubMonitor Connect continuously monitors the power passing through the sensors and produces an alarm or fault if it senses the voltages and currents do not align. Generally, this indicates a mis-wiring in the system.

Verify that the motor power leads are routed through the sensors going into the top and exiting from the bottom of the SubMonitor Connect.

Verify the power lead passing through the phase A sensor is the same connecting to the L1 input terminal, phase B is connected to L2, and phase C is connected to L3. If external CTs are installed, verify their orientation as well.

36

COMMUNICATIONSFE Connect Mobile App


The FE Connect mobile app is an intuitive way to wirelessly configure and control your SubMonitor Connect. It provides features such as:

• Simple, application-based setup for quick and easy startup• Informational dashboard for visual monitoring of system performance• In-app troubleshooting with fault time and date logging• Email system logs directly to FE support

The FE Connect mobile app can be downloaded from either the Apple App Store™ or the Google Play™ store.

Setup Bluetooth Connection

After installing the FE Connect app on your mobile device, use the following procedure to pair the app with your SubMonitor Connect:

1. Upon entry into the FE Connect app, you might see a quick Downloading Firmware message.2. From the FE Connect Home display, tap Connect to a Product, and then tap + New Connection.3. On the next display, tap either Scan QR Code or Type in key.4. If using the scanning tool, center the QR code on the front of the SubMonitor Connect in the display.5. If using the Bluetooth key, enter the key found in View Menus > View I/O Status > Bluetooth Key.6. Tap inside the white box that says, “Name this connection” and a keyboard appears. Enter a name and

location to identify the connected device within the app.

The app establishes a connection to the device and goes to the Monitoring display. When you use the app at a later time, all you have to do is choose the named connection for the device you want to observe.

37


Setup SubMonitor Connect

Use the following procedure to program a SubMonitor Connect that has been paired with the FE Connect mobile app.

1. On the app Home display, tap the desired product family to enter the Connections display.2. Tap one of the listed Previous Connections to choose a previously connected device or tap +New Connection

(see previous page). You will see a message, “Connecting to Device...” and a progress bar. You have the ability to Cancel if necessary.

3. The app establishes a connection to the device and shows the Monitoring display. 4. Tap Setup at the upper left of the display. Choose each option under Setup to verify that all SubMonitor

Connect settings are correct. Refer to “Enter Basic Parameters” on page 19 for more information about settings. The white right-facing arrowhead indicates further programming is available when pressed. Use the left-facing arrowhead at the top of the display to go back a menu level.

When setup programming is complete, many more features are available within the app for both controlling the SubMonitor Connect and fine-tuning its performance.

38

COMMUNICATIONSModbus RTU Communication

Modbus RTU CommunicationThe SubMonitor Connect can be controlled and monitored through the Modbus RTU protocol over an RS-485 connection. Modbus follows a simple client-server model. Server devices perform data read/write requests which are issued from a client device such as a Programmable Logic Controller (PLC) or Building Management System (BMS). Assignable addresses for server devices range from an address of 1 to a theoretical maximum of 247.

As a server device, the SubMonitor Connect communicates all data using only 16-bit holding registers. Addressing for the registers is partitioned into blocks that are multiples of 100 to group functionally similar data. If the monitor is configured to accept commands via remote communications, it can be commanded to start, stop, and reset faults.

Modbus addresses can be found in the parameter tables throughout this publication.

The Modbus connector provides RS-485 connection for Modbus Remote Terminal Unit (RTU) communication. This interface is capable of supporting 128 total devices at a maximum baud rate of 115200, at a maximum distance of 2000 feet. Refer to the table below for maximum baud rates and their respective maximum distances.

Maximum Distance Maximum Baud Rate 2000 ft. 115200 3000 ft. 76800 4000 ft. 19200

39


Auto mode. Need bled.

o mode. Need to d.ed to have Modbus

of the motor. Need bled.e. default values. " enabled.significant bytes t byte: year, day,

significant bytes t byte: second,

Primary Modbus MapRW = Read and Write, R = Read Only, W = Write OnlyRC = Running Change (adjustable while motor is running).

Modbus R/W RC Address Name Range/Format/Information Description

100 RW Y Auto Run 0 - Off

1 - On

Commands the starter to run when in to have Modbus "COM CONTROL" ena

101 RW Y Reset Fault Write a 1 to reset this param-eter.

Resets the fault condition when in Authave Modbus "COM CONTROL" enable

102 RW N Reset kWH Write a 1 to reset kWH Resets the total accumulated kWh. Ne"COM CONTROL" enabled.

103 RW N Reset Run Time (Motor Time)

Write a 1 to reset Run Time Resets the total accumulated run timeto have Modbus "COM CONTROL" ena

104 Reserved Item; address is not availabl105 RW N Reset Settings Write a 1 to reset parameters

back to factory defaultsResets all user settings back to factoryNeed to have Modbus "COM CONTROL

106107

W Y Set Date MMDDYY Sets the system date. Only the 3 least are used. From least to most significanmonth (0x00MMDDYY)

108109

W Y Set Time HHMMSS Sets the system time. Only the 3 least are used. From least to most significanhour, day (0x00HHMMSS)

40


rrent motor state.

Secondary Modbus MapRW = Read and Write, R = Read Only, W = Write OnlyRC = Running Change (adjustable while motor is running).

ModBus R/W RC Address Name Choices/Range Description

200 R N System State 0 - Off1 - Fault2 - Shutdown3 - Override4 - Run

System state

201 R N HOA Mode 0 - Off1 - Hand2 - Auto

Mode of operation

202 R N Motor State 0 - Off1 - Across the Line2 - Part Windings3 - All Windings4 - Wye5 - Delta6 - Low Speed7 - High Speed8 - Ramp Up9 - Ramp Pause10 - SCR On11 - Bypass12 - Ramp Down13 - Fault

Read this address to determine the cu

41


203 R Y Fault 0 - None1 - Locked Rotor2 - Stall3 - Overload4 - Over Current5 - No Current6 - Unexpected Current7 - Current Loss8 - Current Unbalance9 - Ground Fault10 - Out of Calibration11 - Max Start Time12 - Over Voltage13 - Under Voltage14 - Voltage Loss15 - Low Voltage16 - Voltage Unbalance17 - Phase Order18 - Over Power19 - Under Power20 - Negative Power21 - False Start22 - Insulation Check23 - Subtemp24 - Meter Hardware25 - Meter Firmware26 - Meter EEPROM27 - Invalid Calibration33 - Cycle Fault34 - RTD Over Temperature35 - Limit Switch36 - Float Switch37 - RS-485 Comm Loss38 - Contactor Coil Over

Current39 - Contactor Not Selected40 - Damper Over Current41 - Pilot Device42 - Processor Fault43 - I/O EEPROM44 - Button Jam50 - Frequency Check51 - SCR Temperature52 - SCR Short53 - Zero Crossing Detection59 - Meter Comm Loss60 - Display Communica-

tions Loss61 - Gate Drive Comm Loss62 - Bluetooth Module Fault68 - Undefined Fault

Currently tripped fault.204 R N Alarm 1 Currently active alarm #1.205 R N Alarm 2 Currently active alarm #2.206 R N Alarm 3 Currently active alarm #3.207 R N Alarm 4 Currently active alarm #4.208 R N Alarm 5 Currently active alarm #5.

Reserved faults not currently used:28 - Reserved 129 - Reserved 230 - Reserved 331 - Reserved 432 - Reserved 545 - Reserved 646 - Reserved 747 - Reserved 848 - Reserved 949 - Reserved 1054 - Reserved 1155 - Reserved 1256 - Reserved 1357 - Reserved 1458 - Reserved 1563 - Reserved 1664 - Reserved 1765 - Reserved 1866 - Reserved 1967 - Reserved 20


42


input terminal D1.

input terminal D2.

input terminal D3.

input terminal D4.

input terminal D5.

input terminals V1/

t input terminals

put Relay terminal

t significant bytes t byte: year, day,

t significant bytes t byte: second,

it was power-

or run time in sec-

on time in seconds.

Periods are implied 03 = v01.02.03).n. Periods are its (10203 =

ion. Periods are its (10203 =

ods are implied 03 = v01.02.03).ds are implied after

ion. Periods are 0203 = v01.02.03).iods are implied

209 R N D1 Status 0 - Open 1 - Closed

Read this address for the status of dry









214 R N V1/V2 Status 0 - De-energized 1 - Energized

Read this address for the status of wetV2.

215 R N V3/V4 Status 0 - De-energized 1 - Energized

Read this address for the status of weV3/V4.

216 R N O1 Status 0 - Open 1 - Closed

Read this address for the status of outO1.

219220

R N Date MMDDYY Read the system date. Only the 3 leasare used. From least to most significanmonth (0x00MMDDYY).

221222

R N Time HHMMSS Read the system time. Only the 3 leasare used. From least to most significanhour, day (0x00HHMMSS).

227 R N Power Loss Count 0 to 4,294,967,295 Read the total number of times the uncycled.

228229

R N Motor Run Time 0 to 4,294,967,295 Read the accumulated amount of motonds.

230231

R N Power On Time 0 to 4,294,967,295 Read the accumulated system power-

232233

R N I/O Version 0 to 999,999 View the I/O device firmware version. after 2 and 4 right decimal digits (102

234235

R N Meter Version 0 to 999,999 View the Meter device firmware versioimplied after 2 and 4 right decimal digv01.02.03).

236237

R N Display Version 0 to 999,999 View the Display device firmware versimplied after 2 and 4 right decimal digv01.02.03).

238239

R N I/O Boot Version 0 to 999,999 View the I/O boot loader version. Periafter 2 and 4 right decimal digits (102

240241

R N Meter Boot Version 0 to 999,999 View Meter boot loader version. Perio2 and 4 decimal digits (10203 = v01.02.03).

242243

R N Bluetooth Version 0 to 999,999 View Bluetooth module firmware versimplied after 2 and 4 decimal digits (1

244245

R N Gate Drive Version 0 to 999,999 View Gate drive firmware version. Perafter 2 and 4 decimal digits (10203 = v01.02.03).


43


s multi = x.x). For r has to multiply

ing the last start

ing the last start

ing the last start

rt

The following ranges are scaled by a multiplier (shown in this table aexample, if a voltage of 100 V is reported by Modbus as 1000, the usethe Modbus value by 0.1 for the actual value of the reading.

300 R N Average Voltage 0 to 9000.0 multi = 0.1

Average voltage across all phases.

301 R N A-B Voltage 0 to 9000.0 multi = 0.1

Phase A to Phase B voltage reading

302 R N B-C Voltage 0 to 9000.0 multi = 0.1

Phase B to Phase C voltage reading

303 R N C-A Voltage 0 to 9000.0 multi = 0.1

Phase C to Phase A voltage reading

304 R N L-N Voltage 0 to 9000.0 multi = 0.1

Line-to-neutral voltage reading

305 R N Frequency 45.0 to 66.0 multi = 0.1

Line frequency measurement

306 R N Phase Order 0 - Undefined1 - A-B-C2 - A-C-B

Phase Order

307 R N Voltage Unbalance 0 to 100.0 multi = 0.1

Voltage unbalance percentage

308 R N A-B Min Voltage 0 to 1320.0 multi = 0.1

Minimum phase-to-phase voltage dur

309 R N B-C Min Voltage 0 to 1320.0 multi= 0.1


310 R N C-A Min Voltage 0 to 1320.0 multi = 0.1


311 R N Average Current 0 to 14000.0 multi = 0.1

Average current among all phases

312 R N Phase A Current 0 to 14000.0 multi = 0.1

Phase A current

313 R N Phase B Current 0 to 14000.0 multi = 0.1

Phase B current

314 R N Phase C Current 0 to 14000.0 multi = 0.1

Phase C current

315 R N Ground Current 0 to 14000.0 multi = 0.1

Ground current

316 R N Current Unbalance 0 to 100.0 multi = 0.1

Current unbalance percentage

317 R N Peak Current 0 to 14000.0 multi = 0.1

Peak inrush current during the last sta

318 R N Present Real Power

-2000.0 to 2000.0 multi = 0.1

Real power in kW

319 R N Present Apparent Power

-2000.0 to 2000.0 multi = 0.1

Apparent power in kVA

320 R N Present Reactive Power

-2000.0 to 2000.0 multi = 0.1

Reactive power in kVAR

321 R N Average PF -1.00 to 1.00 multi = 0.0 1

Power Factor


44


ignal in °C

eter presets based

conds)able

322 R N Phase A PF -1.00 to 1.00 multi = 0.0 1

Phase A Power Factor

323 R N Phase B PF -1.00 to 1.00 multi = 0.0 1

Phase B Power Factor

324 R N Phase C PF -1.00 to 1.00 multi= 0.0 1

Phase C Power Factor

325326

R N kWh 0 to 4,294,967,295 Accumulated kWh

327 R N Motor Insulation 0 to 65,535 Measured insulation resistance in kΩ328 R N RTD Temperature -50 to 120 Temperature reading from RTD in °C329 R N SubTemp

Temperature0 to 150 Temperature reading from SubTemp s

330 R N SubTemp Status 0 - Good1 - Searching2 - Low Signal3 - No Signal4 - Off

Status of the SubTemp Receiver

331 Not Used Not Used Not Used332 R N SCR Temperature 0 to 200 Temperature reading from SCR in °C400 RW N Application 0 - Custom

1 - Submersible Pump2 - Surface Pump

Motor application - Sets specific paramon the selected pump application.

401 RW N FLA1 1.0 to 1000.0; default = 1; multi = 0.1

FLA/SFA/high speed FLA

402 RW N FLA2 1.0 to 1000.0; default = 1; multi = 0.1

Low-speed FLA

403 RW N OL Trip Class 0 - 4; default = 0/1 0 - 5 seconds or less 1 - 10 seconds or less 2 - 20 seconds or less 3 - 30 seconds or less 4 - Submersible Motor

Sets the overload trip class:Reduced Voltage SMS default = 0SMS (Surface Pump) default = 1SMS (Submersible Pump) default = 4

404 RW N Service Factor 1.00 to 2.00; default = 1.15 multi = 0.01

Motor service factor

405 RW N OL Reset 0 - Manual 1 - Automatic (default)

Overload Reset Method

406 RW N OL Retry 1 to 10; default = 3 Overload automatic reset attempts407 RW N OL Reset Delay 0 to 43,200; default = 900 Overload automatic reset delay (in se408 RW N OL Cooldown

Enable0 - Disabled (default) 1 - Enabled

Overload cooldown run prevention en

409 RW N OL Cooldown Time 1 to 43,200; default = 300 Overload cooldown time410 RW N Lock Rotor Fault 0 - Off

1 - Fault (default)Locked Rotor Enable

411 RW N Stall Enable 0 - Off1 - Fault and Alarm (default)2 - Alarm Only

Stall Enable

412 RW N Over Cur Enable 0 - Off 1 - Fault (default)

Over current protection enable


45


t of motor FLA/an setting for Over

fault/alarm. Timer otor Over Current

e

larm in seconds

emptslay in seconds

e

Attempts seconds

413 RW N Over Cur Level 100 to 200; default = 110 Over current level percentage. PercenSFA. If any phase current is greater thCurrent Delay, SMC faults/alarms.

414 RW N Over Cur Delay 1 to 120; default = 30 Over current delay, in seconds, to trip is reset if the current drops below the mLevel.

415 RW N Over Cur Reset 0 - Manual 1 - Automatic (default)

Over current reset method

416 RW N Over Cur Retry 1 to 10; default = 3 Over current automatic reset attempts417 RW N Over Cur Reset

Delay1 to 43,200; default = 900 Over current automatic reset delay tim

418 RW N Unbl Cur Enable 0 - Off1 - Fault and Alarm (default)2 - Alarm Only

Current unbalance protection enable

419 RW N Unbl Cur Level 1 to 50; default = 5 Current unbalance level percentage420 RW N Unbl Cur Delay 1 to 120; default = 10 Current unbalance delay to trip fault/a421 RW N Unbl Cur Reset 0 - Manual

1 - Automatic (default)Current Unbalance Reset Method

422 RW N Unbl Cur Retry 1 to 10; default = 3 Current unbalance automatic reset att423 RW N Unbl Cur Rst Dly 1 to 43,200; default = 900 Current unbalance automatic reset de424 RW N Grnd Flt Enable 0 - Off


Ground Fault Protection Enable

425 RW N Grnd Flt Level 1.0 to 10.0; default = 1.0 multi = 0.1

Ground Fault Level in amperes

426 RW N No Cur Enable 0 - Off (default)1 - Fault and Alarm2 - Alarm Only

No Current Protection Enable

427 RW N Unexp Cur Enable 0 - Off (default)1 - Fault and Alarm (default)2 - Alarm Only

Unexpected Current Protection Enable

428 RW N Out Cal Enable 0 - Off (default)1 - Fault and Alarm (default)2 - Alarm Only

Out of Calibration Protection Enable

429 RW N Max Str Enable 0 - Off (default)1 - Fault and Alarm (default)2 - Alarm Only

Maximum Start Time Protection Enabl

430431

RW N Nominal Voltage 120.0 to 72,000; default = 208.0 multi = 0.1


432 RW N Ovr Vlt Enable 0 - Off1 - Fault and Alarm (default)2 - Alarm Only

Overvoltage Protection Enable

433 RW N Ovr Vlt Level 101 to 125; default = 110 Overvoltage Level Percentage434 RW N Ovr Vlt Delay 1 to 120; default = 10 Overvoltage Delay Time in seconds435 RW N Ovr Vlt Reset 0 - Manual

1 - Automatic (default)Overvoltage Reset Method

436 RW N Ovr Vlt Retry 1 to 10; default = 3 Overvoltage Automatic Reset Allowed437 RW N Ovr Vlt Rst Dly 1 to 43,200; default = 900 Overvoltage Automatic Reset Delay in


46


d Attemptsin secondse

onds

Allowed Attempts Delay in seconds

ts

ts

438 RW N Undr Vlt Enable 0 - Off1 - Fault and Alarm (default)2 - Alarm Only

Undervoltage Protection Enable

439 RW N Undr Vlt Level 75 to 99; default = 90 Undervoltage Level Percentage440 RW N Undr Vlt Delay 1 to 120; default = 10 Undervoltage Delay Time in seconds441 RW N Undr Vlt Reset 0 - Manual

1 - Automatic (default)Undervoltage Reset Method

442 RW N Undr Vlt Retry 1 to 10; default = 3 Undervoltage Automatic Reset Allowe443 RW N Undr Vlt Rst Dly 1 to 43,200; default = 900 Undervoltage Automatic Reset Delay 444 RW N Unbl Vlt Enable 0 - Off (default)


Unbalanced Voltage Protection Enabl

445 RW N Unbl Vlt Level 1 to 25; default = 1 Unbalanced Voltage Level Percentage446 RW N Unbl Vlt Delay 1 to 120; default = 10 Unbalanced Voltage Delay Time in sec447 RW N Unbl Vlt Reset 0 - Manual

1 - Automatic (default)Unbalanced Voltage Reset Method

448 RW N Unbl Vlt Retry 1 to 10; default = 3 Unbalanced Voltage Automatic Reset449 RW N Unbl Vlt Rst Dly 1 to 43,200; default = 900 Unbalanced Voltage Automatic Reset450 RW N Rev Phase Enable 0 - Off


Phase Reversal Protection Enable

451 RW N Phase Order 0 - A B C (default) 1 - A C B

Phase Order

452 RW N Underpower Enable

0 - Off1 - Fault and Alarm (default)2 - Alarm Only

Under Power Protection Enable

453 RW N Underpower Level 1 to 99; default = 50/65 Under Power Level Percentage SMS default = 65 Reduced Voltage SMS default = 50

454 RW N Underpower Delay 1 to 120; default = 2/3 Under Power Delay Time in seconds SMS default = 3 Reduced Voltage SMS default = 2

455 RW N Underpower Reset 0 - Manual1 - Automatic2- Well Recovery (Pump only)

Under Power Reset Method

456 RW N Underpower Retry 1 to 10; default = 3 Under Power Automatic Reset Attemp457 RW N Underpower Rst

Dly1 to 43,200; default = 900 Under Power Reset Delay in seconds

458 RW N Ovr Pwr Enable 0 - Off1 - Fault and Alarm (default)2 - Alarm Only

Over Power Protection Enable

459 RW N Ovr Pwr Level 101 to 200; default = 125 Over Power Level Percentage460 RW N Ovr Pwr Delay 1 to 120; default = 3 Over Power Delay Time in seconds461 RW N Ovr Pwr Reset 0 - Manual


462 RW N Ovr Pwr Retry 1 to 10; default = 3 Under Power Automatic Reset Attemp463 RW N Ovr Pwr Rst Dly 1 to 43,200; default = 900 Under Power Reset Delay in seconds


47


g

ng

ed

in seconds

of Attemptse

ble

larm

for RTD Over Tem-

et Delay Time in

eset Attemptsnds

464 RW N Neg Pwr Enable 0 - Off (default)1 - Fault and Alarm2 - Alarm Only

Negative power protection enable

465 RW N Insul Chk Enable 0 - Off (default)1 - Fault and Alarm2 - Alarm Only

Insulation Check Enable

466 RW N Insul Flt Resist 1 to 2000; default = 500 Insulation Resistance Fault Level467 RW N Insul Alrm Resist 1 to 3000; default = 1000 Insulation Resistance Alarm Level468 RW N SubTemp Enable 0 - Off (default)


SubTemp Motor Protection Enable

469 RW N SubTemp Fault Temp

0 to 150; default = 40 SubTemp Fault Trip temperature °C settin

470 RW N SubTemp Alarm Temp

0 to 150; default = 30 SubTemp Alarm Trip temperature °C setti

471 RW N SubTemp Reset Type

0 - Manual (default) 1 - Automatic

SubTemp Reset Method

472 RW N SubTemp Retries 1 to 10; default = 3 SubTemp Automatic Reset Attempts allow

473 RW N SubTemp Reset Delay

1 to 43,200; default = 900 SubTemp Automatic Reset Delay time

474 RW N Flse Str Enable 0 - Disabled (default) 1 - Enabled

False Start Protection Enable

475 RW N Flse Str Reset Type 0 - Manual (default) 1 - Automatic

False Start Reset Method

476 RW N Flse Str Retry 1 to 10; default = 3 False Start Automatic Reset - Number477 RW N Flse Str Rst Dly 1 to 43,200; default = 900 False Start Automatic Reset Delay Tim478 RW N Cycle Fault Enable 0 - Disabled

1 - Enabled (default)Cycle Fault Protection Enable

479 RW N Ovr Temp Enable 0 - Off (default)1 - Fault and Alarm2 - Alarm Only

RTD Over Temperature Protection Ena

480 RW N Ovr Temp RTD Type

0 - PT100 (default) 1 - PT1000

Set the Type of RTD Sensor used

481 RW N Ovr Temp Fault 0 to 200; default = 40 Temperature in °C to Trip a RTD Fault482 RW N Ovr Temp Alarm 0 to 200; default = 30 Temperature in °C to Trip a RTD Alarm483 RW N Ovr Temp Delay 1 to 120; default = 5 Delay Time in seconds for RTD Fault/A484 RW N Ovr Temp Reset

Type0 - Disabled (default) 1 - Enabled

RTD Over Temperature Reset Method

485 RW N Ovr Temp Retry 1 to 10; default = 3 Number of Automatic Reset Attemptsperature Fault/Alarm

486 RW N Ovr Temp Rst Dly 1 to 43,200; default = 900 RTD Over Temperature Automatic Resseconds

487 RW N Volt Loss Reset Type

0 - Manual (default) 1 - Automatic

Voltage Loss Reset Method

488 RW N Volt Loss Retry 1 to 10; default = 3 Voltage Loss: Number of Automatic R489 RW N Volt Loss Rst Dly 1 to 43,200; default = 900 Voltage Loss Reset Delay Time in seco


48


ion is Cleared

oaded soft starting

500 RW N External CT Ratio 0 - NONE (default)1 - 150:52 - 200:53 - 250:54 - 300:55 - 500:56 - 600:57 - 800:58 - 1000:5

Turns Ratio for Installed External CTs

503 RW N Contactor 0 - NONE (default)1 - MRC-92 - MRC-123 - MRC-184 - MRC-225 - MRC-326 - MRC-407 - MRC-508 - MRC-659 - MRC-7510 - MRC-8511 - MRC-10012 - MRC-13013 - MRC-150

LS Brand Contactor Model Type

504 R N SCR Model 0 - NONE1 - SKKT 106 (default)2 - SKKT 1723 - SKKT 3304 - SKKT 570

SCR Model

505 RW N Pilot Devices 0 - HOA (default)1 - HOA with Start2 - Start/Stop

Pilot Device Type

506 RW Y Power Fail Return 0 - Off (default) 1 - Last

Return Mode after a Power Failure

507 RW Y Shutdown Return 0 - Off (default) 1 - Last

Return Mode after a Shutdown Condit

508 RW N Soft Start Mode 0 - Linear Ramp (default)1 - Exponential Ramp2 - Current Limit3 - Disabled

Soft Start Mode Setting

509 RW N Soft Start Ramp Time

1 to 30; default = 3 Soft Start Ramp Time in seconds

510 RW N Soft Start Voltage Level

30 to 90; default = 70 Soft Start Voltage Level percentage

511 RW N Soft Start Current Limit

200 to 500; default = 400 Soft Start Current Limit percentage

512 RW N Smart Ramp 0 - Disabled 1 - Enabled (default)

This setting enables compensation for unlmotors.

513 RW N Soft Stop Mode 0 - Coast to Stop (default)1 - Linear Ramp2 - Exponential Ramp

Soft Stop Mode

514 RW N Soft Stop Ramp Time 1 to 30; default = 3 Soft Stop Ramp Time


49


otors equipped with

r Label

) for use in Hand

s.y)

s.ith Hand Mode and

elow) for use in Auto

515 RW N Soft Stop Voltage Level

10 to 90; default = 70 Soft Stop Voltage Level percentage

516 RW N Soft Start Inside Delta

0 - Disabled (default) 1 - Enabled

When enabled, allows for soft starting of minside delta setup.

517 RW N Soft Start Motor PF 0.60 to 0.99; default = 0.80 multi = 0.01

Power Factor setting from Soft Start Moto

518 RW N D1 Type 0 - Normally Open (default) 1 - Normally Closed

D1 Contact Type Setting

519 RW N D1 Function 0 - Auto Run (default) 1 - Permissive 1

D1 Function Setting

520 RW N D2 Type 0 - Normally Open 1 - Normally Closed (default)

D2 Contact Type Setting

521 RW N D2 Function 0 - Shutdown (default) 1 - Permissive 2

D2 Function Setting

524 RW N D1/D2 Function 0 - Auto Run/Shutdown (default)1 - Fill Mode - Low/High Float2 - Drain Mode - Low/High Float

Intended use for D1/D2 connection

526 RW N Limit Sw Delay 1 to 120; default = 30 Limit Switch Delay Time in seconds527 RW N O1 Function 0 - General Fault (default)

1 - Shunt TripOutput Relay O1 Function

528 RW N O2 Status Level 1 to 99; default = 60 Output Relay O2 Status Level Threshold529 RW N Start Delay Enable 0 - Disabled (default)

1 - EnabledEnables the Start Delay time period (belowMode and Auto Modes

530 RW N Start Delay Time 1 to 43,200; default = 1 Sets the Start Delay time period in second531 RW N Stop Delay Enable 0 - Disabled (default)

1 - EnabledEnables the Stop Delay (in Auto Mode onl

532 RW N Stop Delay Time 1 to 43,200; default = 1 Sets the Stop Delay time period in second533 RW N Min Off Time Enable 0 - Disabled (default)

1 - EnabledEnables the Minimum Off Time (for use wAuto Mode)

534 RW N Min Off Time 1 to 43,200; default = 1 Sets the Minimum Off Time in seconds535 RW N Min Run Time Enable 0 - Disabled (default)

1 - EnabledEnables the Minimum Run Time setting (bMode only.

536 RW N Min Run Time 1 to 43,200; default = 1 Sets the Minimum Run Time in seconds


50

MAINTENANCETroubleshooting


The SubMonitor Connect includes extensive self-diagnostic features that can identify faults when there is a problem. The Fault History menu maintains a running list of the last 150 recorded faults, along with time-stamped data about the system status when the fault occurred.

NOTE: The FE Connect mobile app can also be used to access the fault log in Fault History.

To access Fault History from the HOME screen:

1. Press the DOWN button repeatedly until you see the menu item Fault History and then press the ENTER

button.

2. Use the UP or DOWN buttons to scroll to the desired fault number, 1-150.3. While viewing the desired fault number, press ENTER to view the captured data for that fault.

51


he most recent fault d fault.through the recorded

lts that can be odes that are not

Fault History > Fault Event #1 - #150


203 R Y Fault 0 - None1 - Locked Rotor2 - Stall3 - Overload4 - Over Current5 - No Current6 - Unexpected Current7 - Current Loss8 - Current Unbalance9 - Ground Fault10 - Out of Calibration11 - Max Start Time12 - Over Voltage13 - Under Voltage14 - Voltage Loss15 - Low Voltage16 - Voltage Unbalance17 - Phase Order18 - Over Power19 - Under Power20 - Negative Power21 - False Start22 - Insulation Check23 - SubTemp24 - Meter Hardware25 - Meter Firmware26 - Meter EEPROM27 - Invalid Calibration33 - Cycle Fault34 - RTD Over Temperature35 - Reserved36 - Reserved37 - RS-485 Comm Loss38 - Reserved39 - Reserved40 - Reserved41 - Pilot Device42 - Processor Fault43 - I/O EEPROM44 - Button Jam50 - Reserved51 - Reserved52 - Reserved53 - Reserved59 - Meter Comm Loss60 - Display Comm Loss61 - Reserved62 - Bluetooth Module Fault68 - Undefined Fault

Currently tripped fault204 R N Alarm 1 Currently active alarm #1205 R N Alarm 2 Currently active alarm #2206 R N Alarm 3 Currently active alarm #3207 R N Alarm 4 Currently active alarm #4208 R N Alarm 5 Currently active alarm #5

In the Fault History List, Fault Event #1 is tand Fault Event #150 is the oldest recordeUse the Up and Down buttons to navigate faults.The list shown here are all the possible faudisplayed. There are some reserved fault cused:28 - Reserved 129 - Reserved 230 - Reserved 331 - Reserved 432 - Reserved 545 - Reserved 646 - Reserved 747 - Reserved 848 - Reserved 949 - Reserved 1054 - Reserved 1155 - Reserved 1256 - Reserved 1357 - Reserved 1458 - Reserved 1563 - Reserved 1664 - Reserved 1765 - Reserved 1866 - Reserved 1967 - Reserved 20

52


Default Setting lass 5

n, 110%, 30 s

n, 125%, 10 s

n, 65%, 1 s

ff, 500 kΩ (Alarm), 00 kΩ (Fault)

n, 110%, 10 s

n, 90%, 10 s

n, 5%, 10 s

n, 60 VAC, N/A

ff, 1%, 10 s

ff

n

ff

ff

ff

ff

n

ff

ff

n, 1 A

Fault and Alarm Descriptions

Fault Type Displayed Text DescriptionOverload Fault OVERLOAD

FAULTSelectable Class 5-30, and S. Trips if the current integrator exceeds the trip point.

C

Over Current Fault OVERCURR FAULT

Trips if the measured current is greater than the trip point setting for a time that exceeds the over current trip time setting.

O

Over Power Fault or Alarm

OVERPOWER FAULT

Trips if the measured kW is greater than the kW trip point setting continuously for a time that exceeds the over power trip time setting.

O

Under Power Fault or Alarm

UNDER-POWER FAULT

Trips if the measured kW is less than the kW trip point setting continuously for a time that exceeds the under power trip time setting.

O

Insulation Check Fault and Alarm

INSULATION FAULT

Trips if the measured resistance of the motor windings is less than insulation check resistance fault/alarm trip threshold.

O2

Over Voltage Fault or Alarm

OVERVOLT FAULT

Trips if the average of the 3 line-to-line voltages exceeds the nominal voltage setting by the over voltage percentage setting continuously for a time exceeding the over voltage trip time setting.

O

Under Voltage Fault or Alarm

UNDERVOLT FAULT

Trips if the average of the 3 line-to-line voltages is lower than the nominal voltage setting by the under voltage percentage continuously for a time exceeding the under voltage trip time setting.

O

Current Phase Unbalanced

Fault or Alarm

CURR UNBL FAULT

Trips if any of the 3 measured phase currents deviates from the average current by a value greater than or equal to the trip percentage setting.

O

Voltage Phase Loss

Fault VOLT LOSS FAULT

Trips if the L-G voltage of any phase is more than 40% lower than the average voltage.

O

Voltage Phase Unbalanced

Fault or Alarm

VOLT UNBL FAULT

Trips if any of the 3 measured line-to-line voltages deviates from the average line-to-line voltage by a value greater than or equal to the voltage phase unbalance trip percentage setting for a time exceeding the voltage phase unbalanced trip time setting.

O

Cycle Fault Fault CYCLE FAULT Trips if run command is triggered at a rate exceeding the start limit divided by the limit period.

O

Locked Rotor Fault LCKD ROTOR FAULT

Trips if the current exceeds 300% of the calculated FLA setting for 0.5 seconds, the current is flat or increasing and the power factor is not changing. This protection is active during the first ten seconds of operation after a start.

O

Stall Fault STALL FAULT Trips if the current exceeds 300% of the FLA for 0.5 seconds, the current is flat or increasing and the power factor is not changing. This protection is active after the first ten seconds of a start event and after the FLA has been determined.

O

Max Time to Start

Fault START TIME FAULT

Trips ten seconds after current is detected following a contactor closure, if the average current is above 200% of the FLA setting and still declining.

O

Out of Calibration

Fault OUT OF CAL FAULT

Trips if the measured peak inrush is outside the range of 400% to 1400% of the FLA/SFA setting. This protection is only active during each start sequence and for 10 seconds after every start.

O

PT100/PT1000 Over Temp

Fault RTD TEMP FAULT Trips if the temperature measured by a PT100 or PT1000 exceeds the trip temperature setting.

O

Reverse Phase Fault PHASE ORDR FAULT

Trips if the phase order detected is different than phase order setting of either A-B-C or A-C-B.

O

No Current Fault or Alarm

NO CURR FAULT Faults if there is no current for three seconds after a start. O

Unexpected Current Flow

Alarm UNEXP CURR FAULT

Alarms if the starter detects current flow above a threshold of 0.2 A while the starter is in the stopped state.

O

Ground Fault Fault GROUND FAULT Trips if the vector sum of the 3 measured phase currents exceeds the ground fault threshold setting.

O

53

MAINTENANCEPeriodic Maintenance

Periodic MaintenanceInternal Lithium Battery

Store new batteries in the manufacturer’s original container only.

Battery ReplacementThe battery is located under the detachable display.

1. Remove the detachable display from the SubMonitor Connect base.2. Slide out the battery holder.3. Remove the old battery.4. Install a new CR 2032 battery to the battery holder.5. Insert the battery holder into the SubMonitor Connect.6. Replace the detachable display.

Risk of bodily injury or equipment damage.• Never place lithium batteries in your mouth. If swallowed, contact your physician or local poison con-

trol center. • If battery is damaged, do not use. • Battery shall be replaced by a qualified technician.• Battery is to be disposed or recycled per national, regional, and local laws and regulations. Do not

place in the trash, in water, or incinerate.

54

SPECIFICATIONS

C)

Purposeose Purpose

ose

, 0.30A)

L contactors.

chosen) 300% FLA

SPECIFICATIONSUser Interface

Settings Adjustments32 character, backlight NEMA 4X displayFE Connect mobile app connected via Bluetooth

Hand/Off/Auto Door mounted 3-position switch

Standard Control Operations

Input

Power Supply 200-600 VAC, 50-60 HzCurrent Range 1-135 APT100/1000 (1 or 2 channels) 24 VAC, 10 mA max. - On/Off, adjustable: 32-212 °F (0-100 °RS-485 Modbus RTU SlaveVoltage Inputs (wet) (MT1311 and MT2211 only) (1 or 2 channels) 12-250 VAC, 5 mA max.

Output

Fault Relay Output, Dry Output

Normally Open Relay Contact: 1A @ 240VACVoltage Current Load Type

110 VDC 0.30 Resistive, General

125 VDC 0.50 General Purp

30 VDC 2.00 Resistive, General

120 VAC 0.50 Resistive

125 VAC 1.00 General Purp

240 VAC 0.25 Resistive

Control Circuit (TRIAC) to contactor (MT1111, MT6111, MT1311 only)

C600 Pilot Duty (120 VAC, 1.5 A | 240 VAC 0.75A | 480 VAC, 0.37 A | 600 VAC

RS485 5 VDCPilot Device and Dry Inputs (MT1311 and MT2211 only)

1, 2, 3, or 4 @ 24 VDC, 10 mA maximum

PWM Connector C+, C- (MT2111 only) 24Vdc, 229 VA inrush, 21 VA max holding. Worst case ratings for connected U

Operational

Overload Types Electronic, simulated I2T trip curveImpulse Rating 6 KV

Enclosure UL Type 3R Open Industrial Control - Type 1 (IP20). External display - Type 4X is mounted on a panel or enclosure.

Overload Overvoltage Category Category III

Overload Pollution Degree Degree 2

Power Fail ModesRestart in last mode (Hand/Off/Auto)Restart in Off mode

Minimum Off Timer (Backspin Delay) On/Off, adjustable: 2 seconds to 60 minutes

Fault Reset Adjustable: manual or automatic (default differs per motor protection featureStarts 6/hour, 20 seconds max start time @ 400% FLA, 30 seconds max start time @Short Circuit Rating 600 VAC, 200,000 amps (units have internal CTs)Dimensions / Weight 4 ¾ x 4 ⅞ x 4 ½ in (120.7 x 123.7 x 114.5 mm) / 2 lbs. (0.91 kg)

55

SPECIFICATIONS

EnvironmentalAmbient Operating Temp -5 ° F to 140 °F (-20 °C to 60 °C)Ambient Storage Temp -5 ° F to 158 °F (-20 °C to 70 °C)Relative Humidity 5% to 95% non-condensing

Motor Protection Adjustment/Description Default SettingOverload Current Setting Range 1-135A, up to 1000A with external CTs 1.0 AOverload Trip Class Adjustable: 5-30 10 - SMS, 5, SMS-RVOverload Service Factor Adjustable: 1.00-2.00 1.15Under Power (Dry Run) On/Off/Alarm, adjustable: 1-99% of nominal On/65%Over Power On/Off/Alarm, adjustable: 101-200% of nominal On/125%Under Voltage On/Off/Alarm, adjustable: 80-99% of nominal On/90%Over Voltage On/Off/Alarm, adjustable: 101-125% of nominal On/110%Voltage Phase Loss Always On On/Trips if below 60VACGround Fault (UL 1053 Certified) On/Off/Alarm, adjustable: 1-10 Amps On/1ACycle Fault On/Off, start limit adjustable: 2-100 On

SMARTSTART™ Protection Adjustment/Description Default SettingCurrent Phase Unbalance On/Off, adjustable: 1-50% On / 5%

Locked Rotor/Stall On/Off, trips if current exceeds 300% max amps for 0.5 second

On

Out of Calibration On/Off, trips after 10 seconds if max amps setting is incorrect

Off

Max Time to Start

On/Off, regardless of max amps or I2T trip curve, always trip at start if starting current is outside of an acceptable range and still decreasing after ten seconds.

Off

56

SPECIFICATIONSTrip Curves

Trip CurvesCircuit breakers must trip quick enough to avoid equipment or wiring failure, but not so fast as to give false, or nuisance trips. To avoid nuisance trips, circuit breakers need to be sized appropriately to compensate for inrush current.

57

SPECIFICATIONSSMS3R Ratings

SubMonitor

Connect Overload

ModelMT2211MT2211MT2211MT2211MT2211MT2211MT1311MT1311MT1311MT1311

n SubMonitor

Connect Overload

ModelMT2211MT2211MT2211MT2211MT2211MT2211MT2211MT2211MT2211MT2211MT2211MT1311MT1311MT1311MT1311MT1311MT1311MT1311

n SubMonitor

Connect Overload

ModelMT1311MT1311MT1311

SMS3R RatingsSMS Ratings - Non-Combination. NEMA 3R

Model:SMS3R-

UL HP / MAX AMPS / SCICProtection

Range3-Phase

200 VAC 208 VAC 230 VAC 460 VAC 575 VACHP A kA HP A kA HP A kA HP A kA HP A kA

S00/M 2 7.8 5 2 7.8 5 3 9.6 5 5 7.6 5 7.5 9 5 1A-DPVS0P/M 7.5 25.3 5 7.5 24.2 5 10 28 5 15 21 5 20 22 5 1A-DPV*S1P/M 15 48.3 5 15 46.2 5 15 42 5 30 40 5 30 32 5 1A-DPV*S2/M 20 62.1 5 20 59.4 5 25 68 5 40 52 5 50 52 5 1A-DPV*S3/M 30 92 10 30 88 10 40 104 10 60 77 10 75 77 10 1A-DPV*S3P/M 30 92 10 30 88 10 40 104 10 75 96 10 75 77 10 1A-DPV*S4/M 40 120 10 40 114 10 50 130 10 100 124 10 100 99 10 1A-DPV*S4P/M 60 177 10 60 169 10 75 192 10 150 180 10 - - - 1A-DPV*S5/M 100 285 18 100 273 18 125 312 18 250 302 18 - - - 1A-DPV*S5P/M 125 359 18 125 343 18 150 360 18 300 361 18 - - - 1A-DPV**DPV = Differs per Motor Voltage

SMS Ratings - Combination. NEMA 3R

Model:SMS3R-

UL HP / MAX AMPS / SCICProtectio

Range3-Phase


S0/M-G15 2 8 50 2 8 50 2 8 50 5 8 25 5 8 14 6A-8AS0/M-G20 3 11 50 3 11 50 3 11 50 7.5 11 25 10 11 14 8A-11AS0P/M-G30 3 17 50 5 17 50 5 17 50 10 17 25 15 17 14 12A-17AS1/M-G40 5 22 50 5 22 50 7.5 22 50 15 22 25 20 22 14 16A-22AS1P/M-G50 7.5 28 50 7.5 28 50 10 28 50 20 28 25 25 28 14 20A-28AS1P/M-G60 10 34 50 10 34 50 10 34 50 25 34 25 30 32 14 24A-DPV*S2/M-G80 10 45 50 10 45 50 15 45 50 30 45 25 40 45 14 32A-45AS2/M-G100 15 57 50 15 57 50 20 57 50 40 52 25 50 52 14 40A-DPV*S3/M-G100 15 57 50 15 57 50 20 57 50 40 57 25 50 57 14 40A-57AS3/M-G125 20 71 65 20 71 65 25 71 65 50 71 35 60 71 18 50A-71AS3P/M-G150 25 85 65 25 85 65 30 85 65 60 85 35 75 77 18 60A-DPV*S4/M-G200 30 114 65 40 114 65 40 114 65 75 114 35 100 99 18 80A-DPV*S4/M-G250 40 120 65 40 114 65 50 130 65 100 124 35 - - - 100A-DPV*S5/M-G300 50 171 65 60 171 65 60 171 65 125 171 35 - - - 120A-171AS5/M-G400 75 228 65 75 228 65 75 228 65 150 228 35 - - - 160A-228AS5P/M-G500 100 285 65 100 285 65 100 285 65 200 285 35 - - - 200A-285AS5P/M-G600 100 342 65 100 342 65 125 342 65 250 342 35 - - - 240A-342AS5P/M-G800 125 359 65 125 343 65 150 360 65 300 361 35 - - - 320A-DPV**DPV = Differs per Motor Voltage

575V SMS Ratings - Non-Combination. NEMA 3R

Model:SMS3R-


Range3-Phase


S4P/6M - - - - - - - - - - - - 150 144 10 1A-144AS5/6M - - - - - - - - - - - - 250 242 18 1A-242AS5P/6M - - - - - - - - - - - - 300 289 18 1A-289A

58

SPECIFICATIONSSMS3R RV Ratings

n SubMonitor

Connect Overload

ModelMT1311MT1311MT1311MT1311

SubMonitor

Connect Overload

ModelMT2211MT2211MT1311MT1311MT1311

n SubMonitor

Connect Overload

ModelMT2211MT2211MT2211MT2211MT2211MT2211MT2211MT2211MT2211MT2211MT2211MT1311MT1311MT1311MT1311MT1311MT1311

SMS3R RV Ratings

575V SMS Ratings - Combination. NEMA 3R

Model:SMS3R-


Range3-Phase


S5/6M-G300 - - - - - - - - - - - - 150 171 18 120A-171AS5/6M-G400 - - - - - - - - - - - - 200 228 18 160A-228AS5P/6M-G500 - - - - - - - - - - - - 250 285 18 200A-285AS5P/6M-G600 300 289 18 240A-289A

SMS RV Ratings - Non-Combination. NEMA 3R

Model:SMS3R-

RV-

UL HP / MAX AMPS / SCICProtection

Range3-Phase


S2/M 15 50 5 15 50 5 15 50 5 30 50 5 40 50 5 1A-DPV*S3P/M 25 85 10 25 85 10 30 85 10 60 85 10 75 77 10 1A-DPV*S4/M 40 120 10 40 114 10 50 130 10 100 124 10 100 99 10 1A-DPV*S5/M 100 285 18 100 273 18 125 312 18 250 302 18 - - - 1A-DPV*S5P/M 100 330 18 100 330 18 125 330 18 250 330 18 - - - 1A-DPV**DPV = Differs per Motor Voltage

SMS RV Ratings - Combination. NEMA 3R

Model:SMS3R-

RV-


Range3-Phase


S0/M-G15 2 8 50 2 8 50 2 8 50 5 8 25 5 8 14 6A-8AS0/M-G20 3 11 50 3 11 50 3 11 50 7.5 11 25 10 11 14 8A-11AS0P/M-G30 3 17 50 5 17 50 5 17 50 10 17 25 15 17 14 12A-17AS1/M-G40 5 22 50 5 22 50 7.5 22 50 15 22 25 20 22 14 16A-22AS1P/M-G50 7.5 28 50 7.5 28 50 10 28 50 20 28 25 25 28 14 20A-28AS1P/M-G60 10 34 50 10 34 50 10 34 50 25 34 25 30 32 14 24A-DPV*S2/M-G80 10 45 50 10 45 50 15 45 50 30 45 25 40 45 14 32A-45AS2/M-G100 15 50 50 15 50 50 15 50 50 30 50 25 40 50 14 40A-50AS3/M-G100 15 57 50 15 57 50 20 57 50 40 57 25 50 57 14 40A-57AS3/M-G125 20 71 65 20 71 65 25 71 65 50 71 35 60 71 18 50A-71AS3P/M-G150 25 85 65 25 85 65 30 85 65 60 85 35 75 77 18 60A-DPV*S4/M-G200 30 114 65 40 114 65 40 114 65 75 114 35 100 99 18 80A-DPV*S4/M-G250 40 120 65 40 114 65 50 130 65 100 124 35 - - - 100A-DPV*S5/M-G300 50 171 65 60 171 65 60 171 65 125 171 35 - - - 120A-171AS5/M-G400 75 228 65 75 228 65 75 228 65 150 228 35 - - - 160A-228AS5P/M-G500 100 285 65 100 285 65 100 285 65 200 285 35 - - - 200A-285AS5P/M-G600 100 330 65 100 330 65 125 330 65 250 330 35 - - - 240A-330A*DPV = Differs per Motor Voltage

59

SPECIFICATIONSSMS3R RV Ratings

n SubMonitor

Connect Overload

ModelMT1311MT1311

SubMonitor Connect

Overload Model

MT1311MT1311MT1311MT1311

575V SMS RV Ratings - Non-Combination. NEMA 3R

Model:SMS3R-

RV-


Range3-Phase


S5/6M - - - - - - - - - - - - 250 242 18 1A-242AS5P/6M - - - - - - - - - - - - 300 289 18 1A-289A

575V SMS RV Ratings - Combination. NEMA 3R

Model:SMS3R-

RV-

UL HP / MAX AMPS / SCICProtection Range

3-Phase200 VAC 208 VAC 230 VAC 460 VAC 575 VAC

HP A kA HP A kA HP A kA HP A kA HP A kAS5/6M-G300 - - - - - - - - - - - - 150 171 18 120A-171AS5/6M-G400 - - - - - - - - - - - - 200 228 18 160A-228AS5P/6M-G500 - - - - - - - - - - - - 250 285 18 200A-285AS5P/6M-G600 300 289 18 240A-289A

60

SPECIFICATIONSWiring Diagrams for Panels

Wiring Diagrams for PanelsStandard SMS Panel with Relay Contactor Output (MT1311)

61


Standard SMS Panel Using Current Transformers, 200-480VAC (MT1311)

62


Standard SMS Panel Using Current Transformers, 600VAC (MT1311)

63


Standard SMS Panel with PWM Contactor Output (MT2211)

64


Reduced Voltage SMS Panel with Relay Contactor Output (MT1311)

65


Reduced Voltage SMS Panel Using Current Transformers, 200-480VAC (MT1311)

66


Reduced Voltage SMS Panel Using Current Transformers, 600VAC (MT1311)

67


Reduced Voltage SMS Panel with PWM Contactor Output (MT2211)

68

SPECIFICATIONSApplicable Standards

Applicable StandardsAgency Listings: • ANSI/UL 60947-1• ANSI/UL 60947-4-1 • CAN/CSA-C22.2 No. 60947-1-13• CAN/CSA-C22.2 No. 60947-4-1-14

Communication: • MODBUS Application Protocol Specification V1.1b3• MODBUS over Serial Line Specification & Implementation Guide V1.02• Bluetooth Contains Transmitter Module FCC ID: SSSBC118-X• Electromagnetic Compatibility (EMC) EN60947-4-1

69

SPECIFICATIONSApplicable Standards

Declaration of Conformity

70

Glossary

mportant for

ldings that nd electrical

en it is running signed voltage.electric power 40 of a second..uman and a

ed as an elec-ith pulse-FD).

l devices and

perature sen-etic device.witch motors tion against

llation of elec-

ent manufac- than 700 stan-t wire, AC

cations requir-

lly industrial

r supplied to trol.at affects an ctrostatic cou-

GlossaryAcronym/

Term Definition Description

AWG American Wire Gauge A standardized measurement of wire diameters idetermining current-carrying capacity.

BMS Building Management System A computer-based control system installed in buicontrols and monitors the building's mechanical aequipment.

BPC Bypass ControllerEMI Electromagnetic Interference See RFI.FLA Full Load Amperes The nameplate amperage rating of the motor wh

at its designed horsepower and on the motors deGFCI Ground Fault Circuit Interrupter A fast-acting circuit breaker designed to shut off

in the event of a ground-fault within as little as 1/GPM Gallons per Minute A unit of volumetric flow rate in the United StatesHMI Human Machine Interface An interface that permits interaction between a h

machine, such as a display and keyboard.HOA Hand/Off/Auto switchingIGBT Insulated Gate Bipolar Transistor A three-terminal power semiconductor device us

tronic switch to synthesize complex waveforms wwidth modulation in a variable-frequency drive (V

IP International Protection rating Used as protection measures for motors, electricamotors.

LDT Load Detection TripMCCB Molded Case Circuit Breaker An MCCB provides protection by combining a tem

sitive device with a current sensitive electromagnMMS Manual Motor Starter An electromechanical protection device used to s

ON/OFF manually and to provide fuseless protecshort-circuit, overload, and phase failures.

MOL Motor OverloadNEC National Electrical Code A regionally adoptable standard for the safe insta

trical wiring and equipment in the United States.NEMA National Electrical Manufacturer Association The largest trade association of electrical equipm

turers in the United States. NEMA publishes moredards for electrical enclosures, motors and magneplugs and receptacles, etc.

PFC Power Factor CorrectionPID Proportional Integral Derivative A control loop feedback mechanism used in appli

ing continuously modulated control. PLC Programmable Logic Controller A digital computer used for automation of typica

electromechanical processes.PMA Pump and Motor AssemblyPSC Permanent Split CapacitorPWM Pulse Width Modulation A modulation technique used to control the powe

electrical devices, especially for motor speed conRFI Radio Frequency Interference A disturbance generated by an external source th

electrical circuit by electromagnetic induction, elepling, or conduction.

71

Glossary

d of defining

client-server

or can operate

mped, taking

echanical ue by varying

RMS Root Mean Square Refers to the most common mathematical methothe effective voltage or current of an AC wave.

RTU Remote Terminal Unit A Modbus RS-485 connection following a simple model.

SFA Service Factor Amperes The amount of a periodic overload at which a motwithout overload or damage.

TDH Total Dynamic Head The total equivalent height that a fluid is to be puinto account friction losses in the pipe.

VAC Voltage Alternating CurrentVDC Voltage Direct CurrentVFD Variable Frequency Drive A type of adjustable-speed drive used in electro-m

drive systems to control AC motor speed and torqmotor input frequency and voltage.

Acronym/Term Definition Description

72

73

STANDARD LIMITED WARRANTYExcept as set forth in an Extended Warranty, for one (1) year from the date of installation, but in no event more than two (2) years from the date of manufacture, Franklin hereby warrants to the purchaser (“Purchaser”) of Franklin’s products that, for the applicable war-ranty period, the products purchased will (i) be free from defects in workmanship and material at the time of shipment, (ii) perform consistently with samples previously supplied and (iii) conform to the specifications published or agreed to in writing between the pur-chaser and Franklin. This limited warranty extends only to products purchased directly from Franklin. If a product is purchased other than from a distributor or directly from Franklin, such product must be installed by a Franklin Certified Installer for this limited warranty to apply. This limited warranty is not assignable or transferable to any subsequent purchaser or user.

a. THIS LIMITED WARRANTY IS IN LIEU OF ALL OTHER WARRANTIES, WRITTEN OR ORAL, STATUTORY, EXPRESS, OR IMPLIED, INCLUDING ANY WARRANTY OF MERCHANTABILITY OR FITNESS FOR A PARTICULAR PURPOSE. PURCHASER’S SOLE AND EXCLU-SIVE REMEDY FOR FRANKLIN’S BREACH OF ITS OBLIGATIONS HEREUNDER, INCLUDING BREACH OF ANY EXPRESS OR IMPLIED WARRANTY OR OTHERWISE, UNLESS PROVIDED ON THE FACE HEREOF OR IN A WRITTEN INSTRUMENT MADE PART OF THIS LIM-ITED WARRANTY, SHALL BE FOR THE PURCHASE PRICE PAID TO FRANKLIN FOR THE NONCONFORMING OR DEFECTIVE PRODUCT OR FOR THE REPAIR OR REPLACEMENT OF NONCONFORMING OR DEFECTIVE PRODUCT, AT FRANKLIN’S ELECTION. ANY FRANK-LIN PRODUCT WHICH FRANKLIN DETERMINES TO BE DEFECTIVE WITHIN THE WARRANTY PERIOD SHALL BE, AT FRANKLIN’S SOLE OPTION, REPAIRED, REPLACED, OR A REFUND OF THE PURCHASE PRICE PAID. Some states do not allow limitations on how long an implied warranty lasts, therefore, the limitations and exclusions relating to the products may not apply.

b. WITHOUT LIMITING THE GENERALITY OF THE EXCLUSIONS OF THIS LIMITED WARRANTY, FRANKLIN SHALL NOT BE LIABLE TO THE PURCHASER OR ANY THIRD PARTY FOR ANY AND ALL (i) INCIDENTAL EXPENSES OR OTHER CHARGES, COSTS, EXPENSES (INCLUDING COSTS OF INSPECTION, TESTING, STORAGE, OR TRANSPORTATION) OR (ii) DAMAGES, INCLUDING CONSEQUENTIAL, SPECIAL DAMAGES, PUNITIVE OR INDIRECT DAMAGES, INCLUDING, WITHOUT LIMITATION, LOST PROFITS, LOST TIME AND LOST BUSINESS OPPORTUNITIES, REGARDLESS OF WHETHER FRANKLIN IS OR IS SHOWN TO BE AT FAULT, AND REGARDLESS OF WHETHER THERE IS OR THERE IS SHOWN TO HAVE BEEN A DEFECT IN MATERIALS OR WORKMANSHIP, NEGLIGENCE IN MANU-FACTURE OR DESIGN, OR A FAILURE TO WARN.

c. Franklin’s liability arising out of the sale or delivery of its products, or their use, whether based upon warranty contract, negligence, or otherwise, shall not in any case exceed the cost of repair or replacement of the product and, upon expiration of any applicable warranty period, any and all such liability shall terminate.

d. Without limiting the generality of the exclusions of this limited warranty, Franklin does not warrant the adequacy of any specifica-tions provided directly or indirectly by a purchaser or that Franklin’s products will perform in accordance with such specifications. This limited warranty does not apply to any products that have been subject to misuse (including use in a manner inconsistent with the design of the product), abuse, neglect, accident or improper installation or maintenance, or to products that have been altered or repaired by any person or entity other than Franklin or its authorized representatives.

e. Unless otherwise specified in an Extended Warranty authorized by Franklin for a specific product or product line, this limited war-ranty does not apply to performance caused by abrasive materials, corrosion due to aggressive conditions or improper voltage supply.

800.348.2420 | franklinwater.com

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Form 250001701 Rev. 002 04/19

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