ieb 1011 engineering mathematics i - hs-karlsruhe · schmidt: grundlagen der geotechnik, teubner...
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IEB 1011 Engineering Mathematics I
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
First
First / winter semester
ECTS credits: 6 ECTS
Prerequisites: None
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Functions of one and multiple variables Differential and Integral Calculus of one and multiple
variables Financial Mathematics
Learning outcomes: After having successfully completed the course, the students should have background knowledge of mathematical methods, have practical experience in using mathematical methods, be able to interpret mathematical results, be able to deal with abstract problems, be able to utilise the gained data in software environments.
Work placements: n/a
Recommended reading: script Papula, L.: Mathematik für Ingenieure und
Naturwissenschaftler Dürrschnabel, K..: Mathematik für Ingenieure
IEB 1021 Mechanics
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
First
First / winter semester
ECTS credits: 6 ECTS
Prerequisites: High school Mathematics and Physics
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Loads on structures, force vectors, static friction, coplanar force systems, parallel force systems, general force systems, center of gravity and centroid, structural supports, statical determinancy, internal forces (straight, sloped and kinked beams, pin-jointed beams, frames), pin-jointed systems and trusses. Strength of Materials: Basic terms, tension and compression, moment of an area, bending, torsion, shear loads, composite loads, stability.
Learning outcomes: After having successfully completed the course, the students should understand the basics of Statics, be able to qualitatively and quantitatively determine
reactions and internal forces of statically determinate systems,
be able to model statical systems and to formulate the necessary equilibrium conditions,
be able to determine internal forces and to calculate reaction forces, hinge forces and internal forces of statically determinate structures such as trusses, beams and frames, understand the performance of components under various loads such as uniaxial and biaxial bending and thrust, shear and torsion,
be able to handle an assignment ranging from the studies in an appropriate time.
Work placements: n/a
Recommended reading: Will be announced in the lecture.
IEB 1031 Geomatics
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
First
First / winter semester
ECTS credits: 6 ECTS
Prerequisites: None
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and Field Work
Face-to-face
Attendance:
Workload:
4 hours/week
60 contact hours, 120 hours of independent study
Assessment methods and criteria:
Written exam: 120 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: definition of geometrical data and co-ordinate plains methods of measurement (e.g. tachymetric survey,
levelling, photogrammetry, remote sensing, navigation systems)
basics of cartography and topography geo-information systems (overview), infrastructure and
handling of geometrical data earth representation in planes systems of measurement tolerances in measurements practical exercises for geometrical data collection
Learning outcomes: After having successfully completed the course, the students should be familiar with quality, reference area, collection,
infrastructure, handling and presentation of geometrical data,
be able to interpret and determine geometrical data as to their quality and quantity,
be able to conduct basic geometrical measuring and data collection
Work placements: n/a
Recommended reading: Bauer, M.: Vermessung und Ortung mit Satelliten, Wichmann Bernard, L. et al.: Geodateninfrastruktur, Wichmann Hake, G. und Grünreich, D.: Kartographie, de Gruyter Hennermann, K.: Kartographie und GIS, Wiss. Buchgesellschaft Kahmen, H.: Vermessungskunde, de Gruyter Kohlstock, P.: Topographie, de Gruyter Kohlstock, P.: Kartographie Matthews, V.: Vermessungskunde, 2 Bände, Teubner Resnik, B. und Bill, R.: Vermessungskunde für den Planungs-,
Bau- und Umweltbereich, Wichmann Witte, B. und Schmidt, H.: Vermessungskunde und Grundlagen
der Statistik, Wittwer
IEB 1032 Natural Sciences
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
First
First / winter semester
ECTS credits: 6 ECTS
Prerequisites: None
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: dispersal of chemical and biological contaminants in the ground, water and atmosphere
impacts on humans, environment and infrastructure facilities
avoidance and minimisation of contaminants
Learning outcomes: After having successfully completed the course, the students should have background knowledge of the dispersal of chemical
and biological contaminants in the ground, water and atmosphere,
have background knowledge of the impacts on humans, environment and infrastructure facilities of contaminants.
Work placements: n/a
Recommended reading: V. Koß: Umweltchemie - Eine Einführung für Studium und Praxis, Springer Verlag, 1. Auflage, 1997
K. Fent: Ökotoxikologie – Umweltchemie, Toxikologie, Ökologie, Thieme Verlag, 2. Auflage, 2007
G. Schwendt: Taschenatlas der Umweltchemie, Wiley-VCH-Verlag, 1. Auflage 1996
C. Bliefert: Umweltchemie, Wiley-VCH-Verlag, 3. Auflage, 2002 W. Reineke, M. Schlömann: Umweltmikrobiologie, Spektrum
Akademischer Verlag, 1. Auflage, 2006 H.-D. Janke: Umweltbiotechnik, UTB Verlag, 1. Auflage, 2002 H. Cypionka: Grundlagen der Mikrobiologie, Springer Verlag, 4.
Auflage, 2010
IEB 1041 Construction Materials
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
First
First / winter semester
ECTS credits: 6 ECTS
Prerequisites: None
Language of instruction: German
Teaching method / learning activities: Mode of delivery:
Lecture and practical exercises Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Material structure Macroscopic and microscopic observations Material production, material behaviour and properties Corrosion Physical properties of materials Basics for durability and serviceability Optimal selection of materials Introduction to concrete technology Metals and Wood in Construction Building within existing structures
(supplemented by demonstration lectures in the laboratories of the Construction Materials Testing Center)
Learning outcomes: After having successfully completed the course, the students should
be acquainted with the topics mentioned above. be able to carry out a prognosis of durability for
different locations have an overview of construction materials which can
be used for refurbishment and conservation of buildings or parts of buildings.
Work placements: n/a
Recommended reading: established scientific works on construction materials, Issues of trade associations of the building materials
industry Guidelines and Data sheets dealing with repair products
(e. g. of the DAfStb) Current Journals
IEB 2011 Engineering Mathematics II
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
First
Second / summer semester
ECTS credits: 6 ECTS
Prerequisites: None
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Statistics Differential Equations Excel / VBA
Learning outcomes: After having successfully completed the course, the students should have background knowledge of mathematical and
statistical methods, have practical experience in using mathematical and
statistical methods,
be able to interpret mathematical results, have experience in and be able to use a modern
programming language, be able to apply the acquired knowledge be able to interpret statistical results be able to deal with abstract problems
Work placements: n/a
Recommended reading: Skriptum zur Vorlesung Papula, L.: Mathematik für Ingenieure und Naturwissenschaftler Dürrschnabel, K..: Mathematik für Ingenieure
IEB 2021 Dynamics
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
First
Second / summer semester
ECTS credits: 6 ECTS
Prerequisites: High school Mathematics and Physics
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Dynamics Kinematics and Kinetics Moving Mechanics Loads on structures
Learning outcomes: After having successfully completed the course, the students should
have background knowledge of kinematics and kinetics,
be able to apply the acquired knowledge for civil engineering-related problems.
Work placements: n/a
Recommended reading: Will be announced in the lecture.
IEB 2051 Geotechnics
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
First
Second / summer and winter semester
ECTS credits: 6 ECTS
Prerequisites: Mechanics I, Construction Materials, Hydromechanics, Load on Structures
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Subsoil investigations Water in subsoil: flow-pressure and permeability Settlement analyses Shear Strength Bearing capacity and stability of Shallow and deep
foundations Stability against ground failure, overturning and sliding Stability of position retaining structures mechanical slope stabilisations, securing excavation calculation of earth pressure (theories, active earth
pressure, at-rest earth pressure, earth resistance and special cases
bored and displacement piles groundwater maintenance
Learning outcomes: After having successfully completed the course, the students should
have background knowledge of geotechnical methods,
have practical experience in using theoretical methods,
be able to classify subsoil as to physical, mechanical and hydraulic characteristics,
be able to interpret results from subsoil investigations, be able to apply the acquired knowledge,
be able to implement norms and technical regulations be able to use standard methods of construction
(foundations, structural support).
Work placements: n/a
Recommended reading: Gudehus: Physical Soil Mechanics, Springer Verlag Verlag Gudehus: Bodenmechanik, Enke Verlag Ziegler: Geotechnische Nachweise an Beispielen Lang/Huder/Amann: Bodenmechanik und Grundbau, Springer
Verlag Möller: Geotechnik, Werner Verlag Schmidt: Grundlagen der Geotechnik, Teubner Verlag Schulze/Simmer: Grundbau, Teuber Verlag Smoltzyk [Herausgeber]: Grundbautaschenbuch, Ernst & Sohn Arbeitsblätter und Skriptum zur Vorlesung Dörken/Dehne: Grundbau in Beispielen, Werner Verlag Smoltzyk [Herausgeber]: Grundbautaschenbuch, Ernst& Sohn Skriptum Bodenmechanik (BIB 2061) Arbeitsblätter und
Skripten Grundbau Worksheets and handout
IEB 2061 Fluid Mechanics
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
First
Second / summer semester
ECTS credits: 6 ECTS
Prerequisites: None
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
4 hours/week
60 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 120 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Main principles of fluid mechanics Main principles of gas dynamics Main principles of thermodynamics Main principles of channel and pipe hydraulics
Learning outcomes: After having successfully completed the course, the students should
know the fundamental principles of fluid mechanics, be able to use fluid mechanics to analyse and solve
practical problems.
Work placements: n/a
Recommended reading: Heinemann/Paul: Hydromechanik für Bauingenieure, Teubner-
Verlag, 1998 Schröder: Grundlagen des Wasserbaus, Werner-Verlag1999 Strybny: Keine Panik-Strömungsmechanik, Vieweg-Verlag
2003 Bollrich: Technische Hydromechanik 1-2, Verlag Bauwesen
1996 Egon Krause: Strömungslehre, Gasdynamik und Aerodyna-
misches Laboratorium, Teubner-Verlag, 2003 Ernst Doering et al.: Grundlagen der technischen Thermo-
dynamik. Lehrbuch für Studierende der Ingenieurwissen-schaften. Teubner-Verlag, 2005
For further information, see handout
IEB 2041 Building Physics and Building Construction
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
First
Second / summer semester
ECTS credits: 6 ECTS
Prerequisites: None
Language of instruction: German
Teaching method / learning activities: Mode of delivery:
Lecture and practical exercises Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Building Physics: Heat: heat transport, heat resistance, U-value of building
constructions, thermal bridges, basics of EnEV (German Energy Saving Regulation)
Humidity: fundamental terms (relative humidity, water content, ...), dew point, condensation, transport of humidity (capillar transport, diffusion, …)
Sound: fundamental terms (sound as a wave, sound level,
frequency spectrum,…), technical terms (sound insulation, sound absorption, reverberation time)
Building Construction: Main Principles in structural design Structural components walls, ceilings, ring beams slabs, beams, sidings, balconies, loggias floor constructions, screeds, stairs, windows, doors, roofs structural physics construction in existing contexts
Learning outcomes: After having successfully completed the course, the students should have background knowledge of building physics (heat,
humidity, sound and fire protection), have practical experience in using calculation methods, have background knowledge of the main principles of
performance and selection of construction materials, be able to estimate construction materials under various
conditions due to bearing strength, serviceability and durability.
Work placements: n/a
Recommended reading: Current editions of: EnEV Lohmeyer, G. u.a.: Praktische Bauphysik, Teubner Verlag, W. Bläsi, Bauphysik, Europa Lehrmittel-Verlag, Haan Gruiten Fricke / Knöll: Baukonstruktionslehre Teil 1 und 2 – Teubner-
Verlag Dierks / Schneider / Wormuth: Baukonstruktion – Werner-
Verlag Neufert: Bauentwurfslehre – Vieweg-Verlag
IEB 3071 Energy Infrastructure
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Second
Third / winter semester
ECTS credits: 6 ECTS
Prerequisites: None
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Energy sources Fundamentals of power plant technology Fundamentals of regenerative power generation Basics of energy storage Thermic energy: heat store Chemic energy: accumulators, hydrogen technology Mechanic energy: flywheel accumulator, pumped-storage
hydropower plants Fundamentals of energy distribution Electricity grid Gas grid
Basics of Energy Production Energy sources Power plant technology Renewable energies Energy storage Heat reservoir Accumulators, hydrogen technology Mechanical energy Capacitors, superconductors Basics of energy distribution Electricity network Gas distribution system
Learning outcomes: After having successfully completed the course, the students should have background knowledge of the energy sector’s
demands (energy generation, storage and distribution) and relevant constructions and facilities,
have background knowledge of theoretical aspects such as the implementation of the key principles regarding energy supply,
be able to understand the methods of running and maintenance of infrastructure facilities,
be able to apply the acquired knowledge.
Work placements: n/a
Recommended reading: G. Herold: Grundlagen der elektrischen Energieversorgung,
Teubner Verlag, 2. Auflage, 2002 E. Rebhan: Energiehandbuch: Gewinnung, Wandlung und
Nutzung von Energie, Springer Verlag, 1. Auflage, 2002 V. Quaschning: Regenerative Energiesysteme: Technologie –
Berechnung – Simulation, Carl Hanser Verlag, 7. Auflage, 2011 R. Gasch et al.: Windkraftanlagen: Grundlagen, Entwurf,
Planung und Betrieb, Vieweg und Teubner, 7. Auflage, 2011 K. Mertens: Photovoltaik: Lehrbuch zu Grundlagen,
Technologie und Praxis, Carl Hanser Verlag, 1. Auflage, 2006 K. Strauß: Kraftwerkstechnik: zur Nutzung fossiler, nuklearer
und regenerativer Energiequellen, Springer Verlag, 6. Auflage, 2009
G. Cerbe: Grundlagen der Gastechnik: Gasbeschaffung – Gasverteilung – Gasverwendung, Carl Hanser Verlag, 7. Auflage, 2008
P. Konstantin: Praxisbuch Energiewirtschaft: Energieumwandlung, -transport und –beschaffung im liberalisierten Markt, Springer Verlag, 2. Auflage, 2009
IEB 3081 Construction Engineering
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Second
Third / winter semester
ECTS credits: 6 ECTS
Prerequisites: Mechanics, Construction Materials
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Fundamentals: comparison of materials materials’ principle area of application advantages and disadvantages (fire protection, heat and
sound insulation)
Reinforced Concrete Design: main principles of construction design (column, beam, slabs) design / notation of details construction work and structural damage
Steel Design: main principles of construction design (column, beams) design / notation of details
Timber Structures: main principles of construction design (roof structures) design / notation of details construction work and structural damage
Masonry Construction: main principles of construction construction work and structural damage
Learning outcomes: After having successfully completed the course, the students should
have background knowledge of reinforced concrete design, steel design, timber structures and masonry construction,
be able to practically apply the acquired knowledge, comprehend the load-bearing capacity and
serviceability of reinforced concrete, steel, timber and masonry structures in civil engineering.
Work placements: n/a
Recommended reading: DIN-EN 1990 bis 1996 Goris, Stahlbetonbau Praxis Wagenknecht, Stahlbau Praxis Steck /Nebgen Holzbau kompakt Schubert, Schneider Schoch Mauerwerksbau Praxis
IEB 3091 Transport Infrastructure
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Second
Third / winter semester
ECTS credits: 6 ECTS
Prerequisites: None
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: - fundamentals of mobility - demands of traffic participants and public
transportation - planning processes - design of urban street areas - legal frameworks and financing - stopping points and train stations - earthwork and road construction - traffic surveys and analysis
- design of rural traffic facilities - capacity of traffic junctions without a light-signal
system Traffic analysis concept and connection survey of stationary/moving traffic traffic flows surveys organizing and carrying out an analysis Junctions without light-signal systems concept and requirements intersections and crossroads roundabout traffic different levels of service
Learning outcomes: After having successfully completed the course, the students should
have background knowledge of the tasks, constructions and facilities regarding transport infrastructure,
comprehend the fundamental correlations of mobility, urban traffic, public transportation and road construction in civil engineering.
be able to carry out a survey to obtain data to design road infrastructure,
design transport infrastructure, be familiar with and ensure quality assurance
Work placements: n/a
Recommended reading: Richtlinien für die Anlage von Stadtstraßen (RASt) Empfehlungen für Anlagen des öffentlichen Personen-
nahverkehrs (EAÖ) Richtlinien für die Standardisierung des Oberbaus von
Verkehrsflächen (RStO) Skript Technische Lieferbedingungen, Technische Prüfvorschriften
und Zusätzliche Technische Vertragsbedingungen und Richtlinien zum Erdbau, zu Schichten ohne Bindemittel sowie zu Asphalt, Beton- und Pflasterbauweisen
Eisenmann, J.: Leykauf, G.: Betonfahrbahnen. 2. Auflage, Ernst-Verlag, Berlin, 2003.
Velske,S. et al.: Straßenbautechnik, 5. überarb. Auflage, Werner Verlag, Düsseldorf, 2002
Elsner Handbuch für Straßen- und Verkehrswesen, Otto Elsner Verlagsgesellschaft
Handbuch für die Bemessung von Straßenverkehrsanlagen (HBS)
Empfehlungen für Verkehrserhebungen (EVE) Richtlinien für den Entwurf von Knotenpunkten (RAS-K) Richtlinien für die Anlage von Straßen – Teil: Linienführung
(RAS-L)
IEB 3101 Hydro Infrastructure
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study: Second
Semester when the course is delivered:
Third / winter semester
ECTS credits: 6 ECTS
Prerequisites: Module Fluid Mechanics IEB 2061
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: hydrological planning fundamentals of urban water management
(water supply and sanitation) hydraulic engineering
(flood control, maritime traffic and waterpower engineering)
Learning outcomes: After having successfully completed the course, the students should
have gained all the relevant theoretical background knowledge in the field of water supply and sanitation engineering, flood control, maritime traffic and waterpower engineering.
be able to apply the main principles and methods related to the concept and design hydro infrastructure facilities.
Work placements: n/a
Recommended reading: G. Martz: Siedlungswasserbau – Teil 1 Wasserversorgung /
Abwasserentsorgung DWA (früher ATV-DVWK): ATV-Handbücher zu folgenden
Themen: •Planung, Bau und Betrieb der Kanalisation •Mechanische Abwasserreinigung •Biologische und weitergehende Abwasserreinigung •Klärschlamm •Betriebstechnik, Kosten und Rechtsgrundlagen der Abwasser-
reinigung Karl und Klaus R. Imhoff: Taschenbuch der Stadtentwässe-
rung, 29. Auflage, 1999 W. Hosang, W. Bischof: Abwassertechnik, 11. Auflage, 1998 G. Martz: Siedlungswasserbau – Teil 2 Kanalisation G. Martz: Siedlungswasserbau – Teil 3 Klärtechnik Patt: Hochwasserhandbuch; Springer-Verlag 2001 Giesecke, Mososnyi: Wasserkraftanlagen, Springer-Verlag
1997 Partenscky: Binnenverkehrswasserbau, Springer-Verlag 1986 Bundesanstalt für Wasserbau: Diverse Mitteilungen further references in the script
IEB 3111 Damage Analysis
Lecturer: Prof. Dr. Andreas Gerdes, NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Second
Third / winter semester
ECTS credits: 6 ECTS
Prerequisites: Modules Naturals Sciences and Construction Materials
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture, practical exercises and project work
Face-to-face
Attendance:
Workload:
4 hours/week
60 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 120 minutes, study assignment
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Lecture: Corrosion of building materials:
- selected basics of chemistry (e. g. acid- base reaction, solutions, gases)
- materials in civil engineering: selected properties (e. g. porosity, permeability, chemical reactivity)
- basics of reactive transport of structural damaging connections
- effect of concrete corrosive water (“lime dissolving carbonic acid”, soft water) on mineral materials
- carbonisation of reinforced concrete - chlorine induced corrosion of reinforced concrete
structures - alkali-aggregate reaction - freeze-thaw and freeze-thaw de-icing salt attacks - corrosion processes on masonry and stonework - corrosion of metallic materials (e. g. steel, copper,
aluminium) - corrosion of polymeric materials (e. g. thermosetting
resins, thermoplastics) - organic damaging processes (e. g. organic formations
of sulphuric acid, biofilms of facades) - preventive measures in buildings of technical
infrastructure - selected case studies of the fields of technical
infrastructure (drinking water reservoirs, swimming pools, bridges)
Practical lessons: State Analysis built structures Using modern instruments, selected parameters will be determined in practical lessons.
Material technological parameters: - water absorption coefficient of mineral materials - capillary porosity of mineral materials - permeability of concrete
Mechanical parameters: - pressure resistance of building materials - elastic modulus of building materials - adhesive tensile strength of the system concrete/coat
Evaluation of damaging causes: - carbonisation - structural damaging salts - chloride induced corrosion
Risk assessment/sustainability: - reinforcement cover - measurement of the potential field - Ca(OH)2- and CaCO3-concentration
Instrumental analytical chemistry: - light and electron microscopy - high pressure mercury intrusion - x-ray diffraction - ion chromatography - thermogravimetry - radar and ultrasonic devices
Exercises: Project In the framework of the project the students work on real buildings developing concepts for state analysis, evaluating results and examining sources of structural damage.
Learning outcomes: After having successfully completed the course, the students should
have background knowledge of scientific and technical fundamentals, which are relevant in terms of harming processes to buildings and their analyses.
have background knowledge of scientific and technical basics for the modules or rather activities of “Restoration”, “Energy” and “Construction” in order to refurbish existing damage in sustainable manner or rather to avoid it by preventive measures when planning.
obtain knowledge of chemical, physical and biological structural damaging effects on buildings and their detection on the building using methods and processes on site and in the laboratory for the purpose of preparation of the refurbishment measures.
Work placements: n/a
Recommended reading: H.K. Cammenga, J. Daum, C. Gloistein, U. Gloistein, A. Steer, B. Zielasko: Bauchemie – eine Einführung für das Studium, Vieweg Verlag, Braunschweig, 1996
R. Benedix, Bauchemie: Einführung in die Chemie für Bauingenieure, 2. Aufl., B.G. Teubner, Stuttgart, 2003
Kurt Schönburg, Korrosionsschutz am Bau, Fraunhofer IRB Verlag, 2006, Stuttgart
Silvia Weber, Betoninstandsetzung, Baustoff-Schadensfeststellung – Instandsetzung, Vieweg + Teubner Verlag, Wiesbaden 2009
IEB 4071 Energy Management
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Second
Fourth /summer semester
ECTS credits: 6 ECTS
Prerequisites: Module Energy Infrastructure (IEB 3071)
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Energy Management:
- operation, conservation and maintenance of energy generating infrastructures (gas extraction, power plants, renewable energy sources)
- operation, conservation and maintenance of energy storage and distribution infrastructures (heat stores, accumulators, pumped-storage hydropower plants, condensers, electricity and gas grid)
Learning outcomes: After having successfully completed the course, the students should
have background knowledge of the tasks and methods of operation, conservation and maintenance of energy management infrastructure (energy generation, conversion, storage and distribution)
apply this knowledge to operate, conserve and maintain energy management infrastructure
Work placements: n/a
Recommended reading: K. Heuck, K.-D. Dettmann, D. Schulz: Elektrische Energiever-sorgung: Erzeugung und Verteilung elektrischer Energie für Studium und Praxis, Vieweg und Teubner Verlag, 8. Auflage, 2010
S. Heier: Windkraftanlage: Systemauslegung, Netzintegration und Regelung, Vieweg und Teubner Verlag, 5. Auflage, 2009
H.-J. Allelein, E. Bollin, H. Oehler, U. Schelling, R. Zahoransky: Energietechnik: Systeme zur Energieumwandlung, Vieweg und Teubner Verlag, 5. Auflage, 2010
V. Quaschning: Erneuerbare Energien und Klimaschutz: Hinter-gründe – Techniken – Anlagenplanung – Wirtschaftlichkeit, Carl
Hanser Verlag, 2. Auflage, 2009 R. Flosdorff, G. Hilgarth: Elektrische Energieverteilung, Vieweg
und Teubner Verlag, 9. Auflage, 2005 J. Simon: Technische und wirtschaftliche Struktur der Gasver-
sorgung in Deutschland, Grin Verlag, 1. Auflage, 2008 R. Dolezal: Kombinierte Gas- und Dampfkraftwerke – Aufbau
und Betrieb, Springer Verlag, 1. Auflage, 2001
IEB 4111 Refurbishment
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Second
Fourth /summer semester
ECTS credits: 6 ECTS
Prerequisites: Basics of structural engineering, natural sciences, materials and damage analysis
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and lab work
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: - damage mechanisms in steel, wood and reinforced
concrete structures: - evaluation of existing infrastructure - examination of refurbished structures
- possibilities in refurbishment with an examination of varieties
- testing devices for state analyses (radar, ultrasound,…)
- building site monitoring (measuring technology and sensor systems)
- refurbishment and durability models
Learning outcomes: After having successfully completed the course, the students should
have background knowledge of modern refurbishment methods and their application
be able to examine an appropriate time of refurbishment evaluating the data obtained by a state analysis
able to evaluate the durability of different refurbishment methods
be able to use modern detection devices such as radar and ultrasound in practical lessons
Work placements: n/a
Recommended reading: Refurbishment guidelines e. g. of DBV, DAfStb Further reading on prevention and repair of wood, steel and reinforced concrete structures as well as relevant practical examples.
IEB 4091 Infrastructure Construction
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Second
Fourth /summer semester
ECTS credits: 6 ECTS
Prerequisites: Transport Infrastructure (3rd semester)
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Road Construction: - fundamentals of road construction - state analysis and evaluation of road traffic structures
and facilities - maintenance management and refurbishment of road
traffic constructions and facilities - operation and maintenance of road traffic facilities
Railway Engineering: - fundamentals of railway engineering construction - state analysis and evaluation of railway structures
and facilities - maintenance management and refurbishment of
railway constructions and facilities operation and maintenance of railway structures
Learning outcomes: After having successfully completed the course, the students should
have background knowledge of the tasks and
methods of operation, conservation and maintenance of road traffic structures and railway engineering.
be able to examine state analyses serving as ground for a sustainable maintenance management
be able to design, maintain and evaluate infrastructure facilities of road and railway construction.
Work placements: n/a
Recommended reading: Handbuch für die Bemessung von Straßenverkehrsanlagen (HBS)
Richtlinien für Lichtsignalanlagen (RiLSA) Richtlinien für den Entwurf von Knotenpunkten (RAS-K1) Richtlinien für den Straßenoberbau (RStO) Vorlesungsumdruck
IEB 4101 Water Management
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Second
Fourth /summer semester
ECTS credits: 6 ECTS
Prerequisites: Fluid Mechanics (IEB 2061) and Hydro Infrastructure (IEB 3101)
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Urban Water Management:
- operation, maintenance and conservation of infrastructure facilities for water management (catchment, pumping, treatment, storage and distribution of water)
- operation, maintenance and conservation of infrastructure facilities for sanitation (sewage system and sewage-treatment plant)
Hydraulic Engineering: - operation, maintenance and conservation of
infrastructure facilities for hydraulic engineering (flood control, marine traffic and waterpower engineering)
Learning outcomes: After having successfully completed the course, the students should
have background knowledge in operating, maintaining and conserving infrastructure facilities for water management purposes (water supply, sanitation, flood control, marine traffic and waterpower engineering).
be able to apply the basic principles and methods in order to operate, maintain and conserve constructions and facilities of urban water management and hydraulic engineering.
Work placements: n/a
Recommended reading: G. Martz: Siedlungswasserbau – Teil 1 Wasserversorgung / Abwasserentsorgung:
DWA (früher ATV-DVWK): ATV-Handbücher zu folgenden Themen:
Planung, Bau und Betrieb der Kanalisation Mechanische Abwasserreinigung Biologische und weitergehende Abwasserreinigung Klärschlamm Betriebstechnik, Kosten und Rechtsgrundlagen der Abwasser-
reinigung Karl und Klaus R. Imhoff: Taschenbuch der Stadtentwässe-
rung, 29. Auflage, 1999 W. Hosang, W. Bischof: Abwassertechnik, 11. Auflage, 1998 G. Martz: Siedlungswasserbau – Teil 2 Kanalisation G. Martz: Siedlungswasserbau – Teil 3 Klärtechnik Patt: Hochwasserhandbuch; Springer-Verlag 2001 Giesecke, Mososnyi: Wasserkraftanlagen, Springer-Verlag
1997 Partenscky: Binnenverkehrswasserbau, Springer-Verlag 1986 Bundesanstalt für Wasserbau: Diverse Mitteilungen For further recommended reading, see handout
IEB 4121 Project: Planning Infrastructure
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Second
Fourth /summer and winter semester
ECTS credits: 6 ECTS
Prerequisites:
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Project work including presentations and CAD training
Face-to-face
Attendance:
Workload:
4 hours/week
180 hours of independent study
Assessment methods and criteria:
Presentation Project work
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: The students work in groups on a practice-related project, which can be specialised by a division (structural, traffic or hydraulic engineering) or across all divisions, regarding design, dimensioning and constructional realisation. CAD knowledge
Learning outcomes: After having successfully completed the course, the students should
be able to select codes, guidelines and specific literature for the application in solving the proposed task of the project.
be able to present the results.
Work placements: n/a
Recommended reading: • latest codes, guidelines, certifications and product information sheets
• technical books recommended by the lecturer • manuals of the design-software • manuals of the CAD-program
IEB PV Internship Preparation: Language and Presentation
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Third
Fifth /summer and winter semester
ECTS credits: 4 ECTS
Prerequisites: Internship (IEB P)
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Depends on the selected course. The student chooses a 2 SWS course from the international courses offered at HsKA
Face-to-face
Attendance:
Workload:
2 SWS. Special courses in English for civil engineers are offered.
30 contact hours, 90 hours of independent study
Assessment methods and criteria:
The exams are carried out by the Foreign Language Institute. The exam results must be communicated to the Board of
Examiners and are registered as “pass” or “fail”.
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Individual training of language and rhetorical skills due to the student’s interest and preferences. However, courses benefiting for the future career are expected. The IFS exclusively offers two English courses for civil engineers. One course addresses students with very little knowledge (basic course) and the other addresses students with good English knowledge (English for Civil Engineering).
Learning outcomes: After having successfully completed the course, the students should
be able to communicate effectively in a foreign language and in order to manage common situations of working life.
have obtained the practical-related abilities of presenting, taking part in meetings and conferences as well as informal conversations are focused on.
Work placements: n/a
Recommended reading: depends on the selected course
IEB P Internship
Lecturer: Prof. Dr.-Ing. H. J. Walther
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Third
Fifth /summer semester
ECTS credits: 22 ECTS
Prerequisites: successful completion of the 4th semester
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Internship
Attendance:
Workload:
22 weeks (minimum 95 contact days)
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Presentation Written Assignment
Recommended optional programme components:
n/a
Course content: The Internship covers various areas of training: - becoming familiar with the tasks of construction
management - job engineering - building construction and cost accounting - assistance in designing and dimensioning - elaboration of planning and final planning documents
Learning outcomes: After having successfully completed the course, the students should
be able to apply the so far obtained knowledge. have first practical experiences in working as a civil
engineer as well as learning social skills.
Work placements: 22 weeks
Recommended reading: Will be announced in the lecture.
IEB PN Internship Follow-up: technical-scientific reports
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Third
Fifth /summer and winter semester
ECTS credits: 4 ECTS
Prerequisites: None
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
2 hours/week
30 contact hours, 90 hours of independent study
Assessment methods and criteria:
Written assignment
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: The focus will be on the formal requirement of writing technical-scientific reports such as composition, structure, bibliography, appendices and correct literature references.
Learning outcomes: After having successfully completed the course, the students should
be able to write technical-scientific reports such as student research projects, reports on practical experiences and final theses regarding the formal requirements.
Work placements: n/a
Recommended reading: None
IEB 6071 Decentralised Energy Concepts
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Third
Fourth /summer and winter semester
ECTS credits: 6 ECTS
Prerequisites: Energy Infrastructure (IEB 3071) and Energy Management (IEB 4071)
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Decentralised Energy Concepts: German Energy Saving Regulation EnEV Solar Energy, Photovoltaic Geothermal Energy Wind Power Heat Pumps
Learning outcomes: After having successfully completed the course, the students should
have background knowledge of the legal and organisational framework conditions.
have background knowledge of the different technologies and their application in order to operate decentralised energy concepts.
Work placements: n/a
Recommended reading: J. Karl: Dezentrale Energiesystem: Neue Technologien im liberalisierten Energiemarkt, Oldenbourg Verlag, 2. Auflage, 2006
M. Schmidt: Dezentrale Energieversorgung: Potenzial und Wirtschaftlichkeit
dezentraler Energiesysteme in Schwellenländern, VDM Verlag, 1. Auflage, 2011
A. Lange: Dezentrale Energieversorgungssysteme, VDM
Verlag, 1. Auflage, 2008 H. Crome: Handbuch Windenergie-Technik, Ökobuch Verlag,
4. Auflage, 2012 T. Bührke, R. Wengenmayr: Erneuerbare Energie: Alternative
Energiekonzepte für die Zukunft, Wiley – VCH Verlag, 2. Auflage, 2009
H.-J. Geist: Photovoltaik-Anlagen: planen – montieren – prüfen – warten, Elektor Verlag, 1. Auflage, 2007
H. Ladener, F. Späte: Solaranlagen: Handbuch der thermischen Solarenergienutzung, Ökobuch Verlag, 11. Auflage, 2008
R. Hoffmann: Heizen mit Wärmepumpe, Franzis Verlag, 1. Auflage, 2008
IEB 6081 Construction Operations
Lecturer: Prof. Dr.-Ing. Carolin Bahr
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Third
Sixth /summer and winter semester
ECTS credits: 6 ECTS
Prerequisites: Knowledge of principal points of construction processes after Internship in the 5th semester
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: The lecture is divided into four major topics: cost management of building within existing
structures calculation and accounting (in particular regarding
analyses of structures, elaboration of modernisation concepts as well as alternatives)
construction progress scheduling contract management with particular focus on building
within existing structures
Learning outcomes: After having successfully completed the course, the students should
have background knowledge of processes within
conducting companies regarding construction operating focusing on building within existing structures.
have background knowledge of analysing structures, state analyses and elaborating of modernisation concepts.
have background knowledge of construction progress scheduling and accounting.
be able to deal with project requests and have background knowledge of country-specific peculiarities (also non-European).
Work placements: n/a
Recommended reading: Examples: • [1] DBV-Merkblatt Rissbildung – Begrenzung der
Rissbildung im Stahlbeton und Spannbetonbau. Deutscher Beton- und Bautechnik-Verein e.V., 2005
• [2] Dehn, F.; Holschemacher, K.; Tue; Nguyen Viet: Sanierung und Verstärkung von Massivbauten. Innovationen im Bauwesen – Beiträge aus Praxis und Wissenschaft Bauwerk Verlag GmbH, Berlin (2007)
• [3] Hankammer, Gunter: Schäden an Gebäuden – Erkennen und Beurteilen. Verlagsgesellschaft Rudolf Müller GmbH, 2. Auflage (2009)
• [4] Beinhauer, P.: Standard-Detail-Sammlung Bauen im Bestand. Verlagsgesellschaft Rudolf Müller GmbH, 2. Auflage (2009)
• [5] Beinhauer, P.: Standard-Detail-Sammlung Bauen im Bestand. Verlagsgesellschaft Rudolf Müller GmbH, 2. Auflage (2009)
• [6] DBV-Merkblatt Beton und Betonstahl Deutscher Beton- und Bautechnik-Verein e.V., 2008
• [7] Wasser- und Feuchteschäden im Stahlbetonbau – Vermeiden, Beurteilen und Instandsetzen. (Tagungsband) Fraunhofer IRB Verlag, 2005
• [8] Häufige Fehlerquellen beim Bauen im Bestand. Heftreihe Deutscher Beton-und Bautechnik-Verein e.V., Heft 17, 2009
• [9] Typische Schäden im Stahlbetonbau – Vermeidung von Mängeln als Aufgabe der Bauleitung. Heftreihe Deutscher Beton- und Bautechnik-Verein e.V., Heft 16, 2009
• [10] Schäden im Betonbau und deren Vermeidung. Heftreihe Deutscher Beton- und Bautechnik-Verein e.V., Heft 13, 2007
• [11] DBV-Merkblatt Bauen im Bestand – Leitfaden. Deutscher Beton- und Bautechnik-Verein e.V., 2008
IEB 6091 Logistics
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the
Third
Sixth /summer semester
course is delivered:
ECTS credits: 6 ECTS
Prerequisites: Transport Infrastructure (IEB 3091) Infrastructure Construction (IEB 4091)
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: transport logistical production processes definition and requirements of logistic nodes planning process and criteria special installations planning exercise rail freight traffic route planning construction with circulating traffic
Learning outcomes: After having successfully completed the course, the students should
be acquainted with the planning processes regarding commercial transportation services focusing the logistical processes.
have background knowledge of freight logistics (combined transport, route planning and construction with circulating traffic).
Work placements: n/a
Recommended reading: • Guidelines and recommendations (ICAO, AH FBF, NfL ….) • Own publications • Oelfke, Wolfgang: Güterverkehr – Spedition – Logistik;
Speditionsbetriebslehre. Verlag Dr. Max Gehlen, Bad Homburg v.d.H., 1995
• Thoma Lothar: City-Logistik; Konzeption – Organisation – Implementierung. Gabler Verlag, Wiesbaden, 1995.
• Schubert, Werner (Hrsg.): Verkehrslogistik – Technik und Wirtschaft Verlag Franz Vahlen, München, 2000.
• Sonntag, Herbert et al.: Städtischer Wirtschaftsverkehr und logistische Knoten –Wirkungsanalyse von Verknüpfungen der Güterverkehrsnetze auf den städtischen Wirtschafts- und Güterverkehr. Berichte der Bundesanstalt für Straßenwesen, Verkehrstechnik Heft V 68, Wirtschaftsverlag NW, Bremerhaven, 1999.
• Script
IEB 6101 Environmental Engineering
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Third
Sixth /summer semester
ECTS credits: 6 ECTS
Prerequisites: Natural Sciences (IEB 1032)
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Sustainability in civil engineering: sustainable construction resource-saving structures and constructions low energy construction
Soil Conservation and Remediation of contaminated sites
requirements of soil conservation risk assessment remediation of soil contamination and contaminated
sites Air Pollution Control:
air properties air quality and air pollution methods of air pollution control
Learning outcomes: After having successfully completed the course, the students should
have background knowledge of main principles and methods to avoid and minimise environmental pollution due to constructional activities respectively construction-related industries.
be able to apply the basic principles and methods of environmental engineering (environmental protection on building sites, soil and air pollution control).
Work placements: n/a
Recommended reading: • C.-A. Graubner, K. Hüske: Nachhaltigkeit im Bauwesen,
Grundlagen – Instrumente – Beispiele, Ernst & Sohn Verlag, 1. Auflage, 2003
• A. Schmidbauer: Nachhaltigkeit im Bauwesen – Prototyp oder Unikat: Definition und Analyse einer nachhaltigen Gebäude-typologie im Wohnungsbau, VDM Verlag, 1. Auflage, 2009
• L. Dorsch, U. Jung: Kursbuch: Von der Energieeffizienz zur Nachhaltigkeit, 1. Auflage, 2012
• U. Jung: Handbuch Energieberatung, 1. Auflage, 2010 • R. Hirschberg: Energieeffiziente Gebäude – Bau- und anlagen-
technische Lösungen, vereinfachte Verfahren zur energe-tischen Bewertung, Rudolf Müller Verlag, 1. Auflage, 2011
• K.-P. Fehlau, B. Hilger, W. König: Vollzugshilfe Bodenschutz und Altlastensanierung, Erich Schmidt Verlag, 1. Auflage, 2000
• A. Hugo, M. Koch, H. Lindemann, H. Robrecht: Altlasten-sanierung und Bodenschutz: Planung und Durchführung von Sanierungsmaßnahmen – Ein Leitfaden, Springer Verlag, 1. Auflage, 1999
• R. Guderian: Handbuch der Umweltveränderungen und Öko-toxikologie, Band 1 A: Atmosphäre, Springer Verlag, 1. Auflage, 2000
• D. Möller: Luft: Chemie – Physik – Biologie – Reinhaltung – Recht, 1. Auflage 2011
• K. Görner, K. Hübner: Gasreinigung und Luftreinhaltung, Springer Verlag, 1. Auflage 2002
IEB 6121 Project: Operation and Maintenance of Infrastructure
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Third
Sixth /summer semester
ECTS credits: 6 ECTS
Prerequisites: None
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Project including report and presentation
Face-to-face
Attendance:
Workload:
2 SWS
180 hours independent study with supervision
Assessment methods and criteria:
Report and presentation
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: The students work in groups self-reliantly on a practice-related project, which can be specialised by a division (structural, traffic, hydraulic or energy engineering) or across
all divisions.
Learning outcomes: After having successfully completed the course, the students should
be able to compile self-reliantly a problem and apply acquainted methods and instruments to operate, maintain respectively refurbish infrastructure facilities.
Work placements: n/a
Recommended reading: Will be announced in the lecture.
IEB 7131 Environmental and Construction Law
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Fourth
Seventh /winter semester
ECTS credits: 6 ECTS
Prerequisites: None
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: public construction law main principles of the construction law code and federal
land utilisation basics of area development planning illustration of the land-use plan and development plan planning admissions of building projects illustration of the construction licensing procedure (in
Baden-Württemberg) main principles of the building regulations law by means of
the BauO BW building law orders VOB protection of ancient monuments European Water Framework Directive environmental risk assessment
laws pertaining to water and waterways Federal Immission Control Ordinance Energy Conservation Act
Learning outcomes: After having successfully completed the course, the students should
have background knowledge of main principles and methods to avoid and minimise environmental pollution due to constructional activities respectively construction-related industries.
be able to apply the basic principles and methods of environmental engineering (environmental protection on building sites, soil and air pollution control).
Work placements: n/a
Recommended reading: • Erbguth/Wagner, Grundzüge des öffentlichen Baurechts, 4.
Auflage 2005 • Finkelnburg/Ortloff, Öffentliches Baurecht Band I: Baupla-
nungsrecht, 6. Auflage 2007 • Finkelnburg/Ortloff, Öffentliches Baurecht Band II: Bauord-
nungsrecht, Nachbarschutz, Rechtsschutz, 5. Auflage 2005 • Gas, Baurecht, 1. Auflage 2006 • Schrödter, Baugesetzbuch, 7. Auflage 2006 • Boeddinghaus, BauNVO Baunutzungsverordnung, 5. Auflage
2005 • Pieper, Skript Öffentliches Baurecht, 3. Auflage 2006 • Kapellman/Langen: Einführung in die VOB/B, Basiswissen für
die Praxis, 15 Auflage 2006 • Kimmich/Bach: VOB für Bauleiter, 2004 • Erbguth et al.: Lehrbuch Umweltrecht • Stuttmann: Alpmann-Schmidt, 2009
IEB 7132 Project Management
Lecturer: Prof. Dr.-Ing. Carolin Bahr, NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Fourth
Seventh /winter semester
ECTS credits: 6 ECTS
Prerequisites: Basics of Construction Operations, Internship
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Lecture and practical exercises
Face-to-face
Attendance:
Workload:
5 hours/week
75 contact hours, 105 hours of independent study
Assessment methods and criteria:
Written exam: 180 minutes
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Next to working on practical-related projects the lecture is structured as follows:
management techniques during the work on a project focusing infrastructure facilities
project development and conception operating models (PPP) analysis of built infrastructure in business and
economic terms
Learning outcomes: After having successfully completed the course, the students should
be able to relate the implementation of building within existing structures of infrastructural projects to business and economic aspects in a worthwhile manner.
be able to manage construction knowing the characteristics of a project in infrastructural building as well as recognise new projects in existing structures.
Work placements: n/a
Recommended reading: Common reading upon Project Management including norms and guideline which are relevant for building in existing structures (e. g. Guideline for Refurbishment of the DAfStb)
IEB 7121 Project Presentation
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Fourth
Seventh /summer and winter semester
ECTS credits: 3 ECTS
Prerequisites: None
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Project presentation, generally thesis project
Face-to-face
Attendance:
Workload:
90 hours
Assessment methods and criteria:
Presentation
Recommended optional Student can choose courses from the General Studies’
programme components: program
Course content: Topics related to Infrastructure Engineering; generally of the final thesis
Learning outcomes: After having successfully completed the course, the students should
present the result of their work. be able to self-reliantly conduct a project with
practical-related methods of civil engineering.
Work placements: n/a
Recommended reading: n/a
IEB BT Bachelor Thesis
Lecturer: NN
Type of course unit: Compulsory
Level of course unit: First-cycle
Year of study:
Semester when the course is delivered:
Fourth
Seventh /summer and winter semester
ECTS credits: 15 ECTS
Prerequisites: 78 ECTS (acquired in the 3rd, 4th and 6th semester)
Language of instruction: German
Teaching method / learning activities:
Mode of delivery:
Individually created thesis supervised by a professor
Face-to-face
Attendance:
Workload:
3 months
Assessment methods and criteria:
Written assignment
Recommended optional programme components:
Student can choose courses from the General Studies’ program
Course content: Topics related to Infrastructure Engineering
Learning outcomes: After having successfully completed the course, the students should
be able to self-reliantly conduct a project on a prescribed topic within a set period of time (3 months).
Work placements: n/a
Recommended reading: n/a