2.1a. Modul Handbook of B.Eng Civil Engineering

 

Modul name

Hydraulic Modelling

Level module

6 (undergraduate)

Abbreviation of applicable

SIP 620324

Sub-heading, if applicable

 

Courses included in the module, if applicable

 

Semester

VI

Person in charge

Ir. Ahmad Zakaria, M.T., Ph.D

Lecturer

1.      Ir. Ahmad Zakaria, M.T., Ph.D

2.      Subuh Tugiono, ST., MT

Language

Bahasa Indonesia, English

Classifications within the curriculum

Compulsory/ elective course

Teaching (hours per week during the semester

2 class hour lecture (2´170 minutes lecture) ´ 16 weeks

Workload per semester

340 minutes lecture is divided into 100 minutes face to face interaction, 120 minutes structural activities, 120 minutes independent study

Credit points

2 SKS (3.12 ECTS)

Learning objective

A01

Fulfilling task with moral, ethics and manner (2-S)

A02

Capable to be part of team work and showing social awareness (4a-W)

A03

Being eager to be independent (4b-S)

C04

Capable to design and apply innovative construction, eco-friendly, low-cost, adaptive to climate change (7a-S)

P05

Mastering tools and software, collecting information, and applicable procedure that has been determined (7b-S)

C06

Capable to fulfill task as technician, analyst, and engineer with low-cost approach, emphasizing in coastal building and infrastructure that adaptive to climate change (8-S)

C07

Knowledgeable and skillful to fulfill the requirements of applicable standard incorporating factual and specific expertise emphasizing in coastal building and infrastructure that adaptive to climate change; hence having competencies to complete task properly and thoroughly (9-S).

A08

Responsible and enable to fulfill task holistically (10-S)

A09

Have a willingness to learn throughout lifetime (11-S)

Note: C: cognitive; A: affective; P: psychomotor

Course Learning Outcomes/ Competencies

Being able to:

 

1.      Explain the geometry of river and create a river confluence  (C2;2-C6;18)

2.      Explain data acquisition method, how to create a new model, how to add data to an existing model, how to make synergy liquid (C2;2)

3.      Analyze general hydraulic system, advanced hydraulic analysis, including age and contamination (C4;1)

4.      Analyze steady water depth profiles for the different flow scenarios entering cross sections, on the longitudinal profile of the river and entering it with geometry information to the model (C4;1)

5.      Represent hydraulic analysis of the water depth profiles on cross sections and on the longitudinal profile of the river (C4;3)

6.      Apply hydraulic calculations by adding a hydraulic structure (culvert) to the river system (C6;11-C6;18)

7.      Represent a river model where there exists a river confluence (C4;3)

8.      Use and analysis of the non-steady conditions and make a simulation (C3;5-C4;1-C6;15)

9.      Apply a hydraulic model by adding a bridge into the river system (C6-11).

10.  Develop flood model in 2D (two-dimension) using software, and analysis of the flow conditions (C6;19-C4;1).

11.  Model a channel from a DEM and export results to any GIS software: create a hydraulic model of a channel, adjust Digital Elevation Models (DEM), obtain cross-sections from DEMs,  perform a steady flow simulation, obtain results that can be used in any GIS software (C6;15-C6;11-C3;8-C2;19).

12.  Analyze sediment, geometry, entering quasi unsteady flow data (sediment), setting initial condition and transport parameters, transport of sediment (C4;1-C4;3).

13.  Creating a flood hazard map (C6;20)

14.  Explain the sequence of a code (C6;7)

15.  Create dynamic maps (C6;20)

 

Content

Lecturing:

 

1.      Flow data details: geometry information of the cross sections of the river, river confluence, river system, hydraulic structure (culvert), general hydraulic system, advanced hydraulic analysis, synergy liquid, hydraulic calculations; steady flow, steady water depth profiles, different flow scenarios; model of cross section and longitudinal profile of the river with geometry input.

2.      Hydraulic modeling: river system, reservoir structure and components, evaluate long-time simulation results, inserting geometry information of the cross sections of the river, non-steady conditions

3.      Hydraulic modelling: bridge structure

4.      Developing a flood model in 2D (two-dimension) using software: different flow conditions.

5.      Modeling a channel from a Digital Elevation Models (DEM):

hydraulic model of a channel, adjust DEM, obtain cross-sections from DEMs, steady flow simulation. 

6.      Sediment analysis: geometry preparation, quasi unsteady flow data (sediment), initial condition and transport parameters,

Transport of sediment, flood hazard map, the sequence of a code,  dynamic maps

A.      Practical work

 

 

Study/ exam achievement

Assessment Aspect (%)

A1

A2

A3

C4

P5

C6

C7

A8

A9

Quiz (20%) - writing test

Ö

 

Ö

 

Ö

 

 

Ö

 

Mid test (25%)- writing test

Ö

 

Ö

 

Ö

 

 

Ö

 

Final test (35%)- writing test

Ö

 

Ö

 

Ö

 

 

Ö

Ö

Final Task (20%)

Ö

Ö

Ö

Ö

Ö

Ö

Ö

Ö

Ö

 

 

 

 

 

 

 

 

 

 

Score index

A

A ³76

B+

71 £ B+ < 76

B

66 £ B < 71

C+

61 £ C+< 66

C

56 £ C < 61

D

50 £ D < 56

E

E < 50

Forms of media

Software

Hardware

Ms. Office (PPT, Ms Word, Ms. Excel)

Projector

 

LCD

 

Laptop, computer