Module Catalogues, Xi'an Jiaotong-Liverpool University   
 
Module Code: CEN405
Module Title: Sustainable Drainage Systems
Module Level: Level 4
Module Credits: 5.00
Academic Year: 2019/20
Semester: SEM1
Originating Department: Civil Engineering
Pre-requisites: N/A
   
Aims
The aim of the module is to provide the theoretical, technical and legal framework necessary for the incorporation of sustainable practices in urban drainage systems.
Learning outcomes 
A. On the basis of firm understanding of advanced hydraulic and hydrological concepts, to be able to predict the frequency and magnitude of extreme storm events for the design and optimization of urban drainage systems

B. To assess the functionality, application and selection of Sustainable Urban Drainage Systems (SUDS) and appreciate the significance of water re-usage and utilization.

C. To appreciate the impacts of flooding, estimate flood risks and apply flood estimation procedures for flood protection and control

D. To design permeable pavements and appraise the importance of road drainage

E. To appraise the importance of consulting the local and international regulations and directives (Environmental Agencies and Local Authorities).

F. To be able to appreciate the significance of sustainability in water resources engineering and sustainable urban drainage systems



Method of teaching and learning 
Lectures and problem solving sessions will be given to provide the underlying knowledge of the subject. Learners will, in general work individually but group work will be beneficial for tutorials. Presentation work will make use of a case study. The delivery of this module will be enhanced by site visits and local flood case studies.
Syllabus 
1 Stormwater and foul drainage: Introduction to Low Impact Development (LID); Sustainability in urban drainage; Conventional drainage systems (Separate, Combined); Combined sewer overflows; Components of piped systems; Elements of drainage systems, Pipe material selection; Rainfall to runoff Transformation; Hydrographs; Infiltration: Horton’s Method, Green-Ampt Method, Performance requirements.


2 - 3 Hydraulic Analysis: (Navier-Stokes equations, laminar & turbulent flows, losses in pipe systems, Darcy-Weisbach formula, Hazen-Williams formula, Newton-Raphson Method for pipe networks, Uniform flow Chezy and Manning equations, Critical Flow, Gradually varied flow, Hydraulic Jump, Saint-Venant Equations, Flow Routing: Kinematic Wave method, Dynamic Wave method


4 Stochastic Hydrology: Hydrologic Statistics and Probabilities, Discrete Distribution Functions, Continuous Distribution Functions, Probability Density Functions (PDFs) and Cumulative Distribution Functions (CDFs), Properties of PDFs and CDFs, Statistical Parameters of PDFs, Fitting PDFs to a set of Data, Method of Moments, Method of Maximum Likelihood, Testing the Goodness of Fits, Chi – squared test.


5 Frequency analysis: Plotting position method, Return period, Binomial distribution, Risk & reliability, Gumbel’s extreme value – Type I distribution, T-year design storm determination, Log-Pearson III Distribution for flood frequency analysis, Partial duration series, Standard error of the estimate.


6 Storm Sewer Design & Modelling: Storm Water Management Model (SWWM) software, Application of hydraulic modelling techniques, Infiltration models, Modelling limitations.


7 - 8 Sustainability in water resource engineering: Coastal and river erosion, Coastal/sea/river flood defense, Water and wastewater systems and Sustainable Urban Drainage Systems (SUDS) - techniques, policy and design, BMP (Best Management Practices).
Delivery Hours  
Lectures Seminars Tutorials Lab/Prcaticals Fieldwork / Placement Other(Private study) Total
Hours/Semester 52     7  6    85  150 

Assessment

Sequence Method % of Final Mark
1 Exam 60.00
2 Coursework 1 20.00
3 Coursework 2 20.00

Module Catalogue generated from SITS CUT-OFF: 8/22/2019 5:53:50 PM