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CME2023 : Transfer Processes 2

  • Offered for Year: 2023/24
  • Module Leader(s): Dr Jonathan Lee
  • Lecturer: Dr Fernando Russo Abegao
  • Owning School: Engineering
  • Teaching Location: Newcastle City Campus
Semester 1 Credit Value: 20
ECTS Credits: 10.0


This module reinforces and adds to the knowledge of heat transfer and fluid mechanics gained in Stage 1. The study of heat transfer is extended to systems which are no longer steady state and have changes in phase. Heat exchanger design is greatly extended from the simple counter and cocurrent designs to numerous designs. Radiative heat transfer is introduced. The fluid mechanics of pumps are studied in detail, and again the course extends the knowledge to analyse new types of fluids and flow, including gas flows and flows containing multiple phases.

1. Fluid Mechanics:
CME1023 provided a fundamental understanding of fluid flow and properties. This course aims to generalise fluid mechanics so that at a later stage, the knowledge gained can easily be used in numerical simulations, such that the students understand the meaning and implications of exact/approximate solutions in the description of fluids, flow geometry and flow kinematics. Governing fluid flow equations, including the equations of state, are obtained in 3D form in tensor notation and applied to the flow of Newtonian and non-Newtonian fluid flows in simple geometries. More complex fluid systems such as compressible and multi-phase fluids are also examined and related to the process industries.

2. Heat Transfer:
i. To extend the knowledge of the principles of heat transfer gained in CME1023 and to provide a fundamental knowledge of design criteria for typical forms of heat exchangers used in the process industries.
ii. To enable the students to analyse heat transfer in systems where there is change of phase.
iii. To introduce and analyse transient heat transfer.
iv. To allow the students to analyse systems where radiative heat transfer is significant/dominant.
v. To ensure that students can design and choose appropriate equipment in their design projects.

Outline Of Syllabus

Heat Transfer
1.       Review of heat transfer aspects of CME1023.
2.       Thermal circuits: combinations of heat transfer modes in series and parallel, including radiation.
3.       Boiling and condensing heat transfer. Nucleate and film boiling. Film and dropwise condensation.
4.       Analysis of transient phenomena. 1D conductivity equation. The lumped capacitance method.
5.       Heat exchanger design. Design methodology. Effectiveness-NTU and F-factor methods. Design and applicability of various heat exchanger forms: multipass, plate fin and compact heat exchangers.
6.       Basic concepts of radiation. Planck equation. View factors. View factor algebra. Grey enclosures. Radiosity. Radiation shields.

1.       Review of fluid flow concepts from Transport Processes 1 .
2.       Momentum balances, 1 dimensional + examples, two dimensional, stresses in fluids flows, non- Newtonian fluids.
3.       Design of pumping systems, pipe networks, pump selection, NPSH.
4.       Compressible flow, compresser characteristics and selection.
5.       Multiphase flows, gas-liquid and liquid-liquid.
6.       Mixing, power curves for single phase mixing. Solids suspension.

Teaching Methods

Teaching Activities
Category Activity Number Length Student Hours Comment
Scheduled Learning And Teaching ActivitiesLecture531:0053:00Present in Person – Lectures and tutorials in Fluid Dynamics (31hrs) and Heat Transfer (22hrs).
Scheduled Learning And Teaching ActivitiesLecture101:0010:00Tutorials in Heat Transfer (10hrs)
Structured Guided LearningLecture materials401:0040:00Study of materials for fluids (20hrs) and heat transfer (20hrs), to help students engage with lectures.
Guided Independent StudyProject work401:0040:00Individual project work. May include collection and analysis of materials and design calculations.
Scheduled Learning And Teaching ActivitiesWorkshops31:003:00Present in Person help sessions for the design assignment.
Guided Independent StudyIndependent study129:0029:00Independent work, covering writing up lecture notes, revision and general reading.
Guided Independent StudyIndependent study251:0025:00Time for revision and preparation for exam, writing and preparation of the design assignment.
Teaching Rationale And Relationship

Lectures convey the mathematical concepts and techniques in fluid mechanics and heat transfer; tutorials (given within lecture slots) are used to provide supervised problem solving; assignments are for independent study and research.

Assessment Methods

The format of resits will be determined by the Board of Examiners

Description Length Semester When Set Percentage Comment
Written Examination1801A753 hour PiP invigilated written exam.
Other Assessment
Description Semester When Set Percentage Comment
Report1M25Transfer Processes assignment. Design problem - fluid flow and heat transfer.
Assessment Rationale And Relationship

The invigilated written exam will test:
1.       The understanding of the basic principles of fluid mechanics and heat transfer.
2.       The ability to solve fluid flow and heat transfer problems by applying:
a.       Energy balances.
b.       Momentum balances
c.       Heat transfer circuit analysis
d.       Principles of radiative exchange

The transfer processes assignment assesses the students’ ability to combine their knowledge of heat transfer and fluid flow to a chemical engineering design problem.
s’ ability to combine their knowledge of heat transfer and fluid flow to a chemical engineering design problem.

Reading Lists