Level 6 Graduate Diploma in Engineering (9210-01) - City & Guilds
Level 6 Graduate Diploma in Engineering (9210-01) - City & Guilds
Level 6 Graduate Diploma in Engineering (9210-01) - City & Guilds
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Unit 103 Hydraulics and hydrology<br />
Assessment Criteria<br />
Outcome 1 Identify and process solutions for problems <strong>in</strong> fluid<br />
mechanics, pipe flow, rotodynamic mach<strong>in</strong>es and open<br />
channel flow<br />
The learner can:<br />
1. Determ<strong>in</strong>e fluid cont<strong>in</strong>uity and solve problems us<strong>in</strong>g Bernoulli’s equation.<br />
2. Apply energy and momentum pr<strong>in</strong>ciples <strong>in</strong> an eng<strong>in</strong>eer<strong>in</strong>g context.<br />
3. Assess free and forced vortex flow.<br />
4. Assess steady flow <strong>in</strong> pipes <strong>in</strong> respect of:<br />
a pipe friction<br />
b velocity distributions<br />
c lam<strong>in</strong>ar and turbulent flows <strong>in</strong> smooth and rough pipes<br />
d Poiseuille’s law<br />
e Darcy’s law<br />
5. Exam<strong>in</strong>e the relationship between friction factor, Reynolds number and relative roughness.<br />
6. Exam<strong>in</strong>e local losses <strong>in</strong> pipe systems due to friction.<br />
7. Analyse pipe networks us<strong>in</strong>g Hardy Cross method and Cornish method.<br />
8. Determ<strong>in</strong>e the reasons for unsteady pipe flow <strong>in</strong> respect of:<br />
a frictionless <strong>in</strong>compressible behaviour<br />
b frictionless compressible behaviour<br />
c surge tanks<br />
9. Describe the one-dimensional theory of:<br />
a pumps<br />
b turb<strong>in</strong>es<br />
10. Classify pumps and turb<strong>in</strong>es.<br />
11. Assess pumps and turb<strong>in</strong>es with respect to:<br />
a characteristics<br />
b specific speed<br />
c cavitations<br />
12. Select a pump for a range of pipe systems.<br />
13. Assess steady flow <strong>in</strong> an open channel us<strong>in</strong>g Chezy and Mann<strong>in</strong>g equations.<br />
14. Design non-erodible channels.<br />
15. Recognise the effect of sediment transportation <strong>in</strong> open channels.<br />
16. Analyse gradual varied non-uniform flow <strong>in</strong> channels.<br />
17. Apply energy and momentum pr<strong>in</strong>ciples to rapidly varied flow <strong>in</strong> open channels <strong>in</strong> respect of:<br />
a hydraulic structures<br />
b short channel transitions<br />
c th<strong>in</strong> weirs<br />
d flow gaug<strong>in</strong>g structures<br />
e hydraulic jump<br />
18. Derive formulae us<strong>in</strong>g dimensional analysis.<br />
19. Investigate the criteria, parameters and scales for physical models of:<br />
a hydraulic structures.<br />
b rivers etc.<br />
20. Ascerta<strong>in</strong> the relative merits of physical and mathematical models.<br />
<strong>Level</strong> 6 <strong>Graduate</strong> <strong>Diploma</strong> <strong>in</strong> Eng<strong>in</strong>eer<strong>in</strong>g (<strong>9210</strong>-<strong>01</strong>) 33