THT303 Analysis and design of systems for urban drainage

Credits (ECTS):7.5

Course responsible:Kim Aleksander Haukeland Paus

Campus / Online:Taught campus Ås

Teaching language:Norsk

Course frequency:Annually

Nominal workload:The nominal work load for a 7.5-credit course is 187.5 hours.

Teaching and exam period:This course starts in the autumn parallel. This course has teaching/evaluation in the autumn parallel.

About this course

The course includes methods for analysis, planning and design of urban drainage systems. The course is divided into three sections:

  1. Transport systems for wastewater: System understanding, functional requirements and legislation, efficiency, discharge of pollution via overflows and leaks, risk of flooding and inflow/infiltration, measurement data and measurement technology.
  2. Runoff modelling: Precipitation-runoff models, terrain analyses, precipitation statistics, extreme value statistics and frequency analysis, climate change, infiltration and other catchment processes, groundwater, analysis of uncertainty and sensitivity, calibration and validation of models.
  3. Urban stormwater management: Stormwater in legislation, regulations, application of the three-step strategy, analysis and design of nature-based solutions, calculations of production, dispersion and removal of stormwater contaminants, flow control and detention/retention, floodways, hydraulic surface modeling and erosion, added values ​​and multi-objective optimization.

Relevant analysis tools and methods: SCALGO Live, SWMM, HEC-RAS 2D, Python, R, Excel and machine learning methods (artificial neural networks and evolutionary algorithms).

Compulsory assignments associated with the three modules will give the students a good introduction to the analysis tools.

Learning outcome

1. Transport systems for wastewater

The candidate:

  • Has an in-depth understanding of transport systems for wastewater
  • Can process, analyze and assess the quality of measurements
  • Has knowledge of the consequences of leaks, capacity exceedance and inflow/infiltration water in the wastewater system, and can apply methods to identify and reduce risk
  • Can model drainage systems and analyze results in relation to functional requirements

2. Runoff modelling

The candidate:

  • Has a good understanding of rainfall-runoff modeling and catchment processes
  • Can process observations and carry out frequency analyses
  • Can calculate runoff using several models and assess results against the necessary input data, assumptions, range of validity and uncertainty
  • Can apply machine learning methods for calibrating models

3. Urban stormwater management

The candidate:

  • Can identify requirements in legislation, planning and building matters and propose, assess and design solutions that meet requirements and promote sustainability
  • Can design both single measures and complex stormwater systems for different steps of the three-step strategy, and can identify and reduce weaknesses in such systems
  • Has knowledge of water quality in stormwater and knows methods for assessing sources, dispersion and removal of pollution
  • Knows the added value of stormwater management, can carry out a cost-benefit assessment and apply machine learning to solve multi-objective optimization tasks
  • Learning activities

    (1) Short videos of relevant topics, (2) problem-based solving and discussions in class, (3) exercises and training in analysis tools in class, (4) assignments, (5) field survey, (6) excursions, (7) experiments in the laboratory.

    The course is conducted according to principles of flipped classroom. Teaching time will mainly be used for guidance and problem solving in the classroom. A selection of thematic videos in the following playlists are used as learning support (only in Norwegian):

    A - Transportsystemer for avløpsvann

    B - Modellering av avrenning

    C - Urban overvannshåndtering

  • Teaching support
    Teachers and/or teaching assistants will be available for guidance during lectures and problem solving sessions.
  • Prerequisites

    The following prior knowledge is required:

    • Fluid mechanics/hydraulics (TPS200 or equivalent)
    • Open channel flow (THT211 or equivalent)
    • Water, wastewater and stormwater engineering (THT261 or equivalent)
    • Hydrology (VANN200 or equivalent)
    • Programming (INF120 or equivalent)
    • Water Engineering for Landscape Planners (THT200 or equivalent)
  • Recommended prerequisites

    The following prior knowledge is recommended:

    • Statistics (STAT100 or equivalent)
    • Knowledge of Excel, Python and SWMM
  • Assessment method

    Combined assessment, based on:

    • Assignments during the semester, which count for 40 %
    • Digital campus-based written exam (3.5 hours) during the exam period, which counts for 60 %. The exam can include both multiple-choice questions and other questions. Aids code B1 (distributed calculator, no other aids).

    Grading rule: A - F



  • Examiner scheme
    The external and internal examiner jointly prepare the exam questions and the grading guide. The external examiner reviews the internal examiner's assessment of a random sample of candidates as a calibration at certain intervals according to the faculty's guidelines for exam grading.
  • Mandatory activity
    Three assignments related to the three sections in the course. These count towards the final grade.
  • Teaching hours
    Four hours of teaching per week. The course is conducted according to principles of flipped classroom. Teaching time will mainly be used for guidance and problem solving in the classroom.
  • Admission requirements
    REALFAG (special requirements in science)