NG1S210 - Thermofluids 1 22 Jan 2025 - 31 Aug 2027 | Version 7

Associated Module Information

Module Code: NG1S210
Module Title: Thermofluids 1
Faculty: Faculty of Computing, Engineering and Science
Faculty Group: Aerospace and Mechanical Engineering
Faculty Sub Group: Aerospace and Mechanical Engineering
Module Leader: Shee-Meng Thai
Module Team: Howard Jones, James Neal, Liam Richards, Matthew Wilmington, Nathan Thomas, Paul Curnick, Alun Williams, Carl Elliott, Richard Cooper, Grant Sheppard, Alexis Dabee-Saltmarsh, Seyedali Azimifar, David Dawkins
First Intended Intake: NOV 2015 Final Year of Intake:
Date Closed:
Credit Value: 20 Credit Level: 4
Language: English
Percentage of Module Taught in Welsh: 0
Equivalent Module:
HECOS codes: 100431 - thermodynamics
HECOS Code Weighting: 100

Document Version Information

Version 7
Valid From 22 Jan 2025
Valid To 31 Aug 2027

Module Aims

To give students a basic understanding of thermodynamic and fluid mechanic properties of both liquids and gases.

To provide a firm foundation for work in engineering design and a basis for more advanced study.

Content Summary

Thermodynamics

1. Introduction to the Module, and definition of basic concepts, such as:
a. Definition of intensive and extensive properties.
b. The concept of “system” and “surroundings”.
c. The concept of “process”, “state” and “state equilibrium”.
d. The concept of “internal energy” and “enthalpy”.
e. Introducing the concepts of Heat and Work.

2. Introduction to the 1st law of thermodynamics – conservation of energy
a. Non flow and steady flow energy equations.
b. Application of the 1st law to different processes (turbines, compressors, nozzles, etc).

3. Perfect/Ideal gases
a. The characteristic gas equation/equation of state PV = mRT.
b. Definition of the specific heats of a perfect gas and the relationship between them.
c. Formulae for enthalpy and internal energy involving the specific heats.
d. Internal energy and enthalpy of an ideal gas.

4. Thermodynamics processes
a. Reversible processes: polytropic, isothermal, adiabatic, constant volume and constant
b. Work transfer in Non flow and Steady flow processes
c. Work expressions for these processes. Calculations of Work transfer in the above processes.

Fluid mechanics

1. Hydrostatics
a. Definitions of mass density, specific weight, relative density.
b. Hydrostatic Pressure.
c. Manometers.

2. Fluid dynamics
a. Definition of pressure, showing different types of pressure and the relationship between them.
b. Relationship between pressure and pressure head.
c. Calculation of pressure at a depth in a fluid.
d. Measurement of pressure from different instruments.

3. The Bernoulli equation
a. Application of the Bernoulli equation to flow measurement.
b. Applying the equation to flow measurement devices.

 

Learning and Teaching Methods

Activity Type Hours
Lecture 24
Tutorial 24
Practical classes and workshops 4
Directed Study 63
Independent Study 85
Total Hours Selected 200

Learning Outcomes

# Learning Outcome
LO1 Be able to describe the basic principles of thermodynamic and fluid systems and able to solve a range of engineering problems associated with them.
LO2 Apply basic knowledge of Thermofluids in a controlled laboratory environment.

Module Requisites

N/A

Assessment Criteria

Assessment Category Assessment Type Description Duration Word Count Weight (%) Best of? Pass Mark
Synchronous Onsite Assessment (Exam) Onsite Closed Book Examination 1 Exam 120 N/A 50 No 40
Written Assignment (CW) Report (CW) 1 Conduct two laboratories and write two reports examining the processes in a thermodynamic and fluid mechanics systems 0 1500 50 No 40

Assessment Matrix

Assessment Type Learning Outcomes
LO1 LO2
Onsite Closed Book Examination 1
Report (CW) 1

Reading List

Cengel, Y. and Cimbala, J. (2018) Fluid mechanics: fundamentals and applications. 4th edn. New York: McGraw Hill.

Cengel, Y., Cimbala, J., Turner, R. and Kanoglu, M. (2017) Fundamentals of thermal-fluid sciences. 5th edn. New York: McGraw Hill.

Cengel, Y. (2010) Introduction to thermodynamics and heat transfer. 2nd edn. London: McGraw-Hill.

Eastop, T and McConkey, A. (1993) Applied thermodynamics for engineering technologists. 5th edn. New York: Longman.

Cengel, Y. and Boles, M. (2015) Thermodynamics – an engineering approach. 8th edn. New York: McGraw-Hill.