11318 modules
Page 531
-
CHEG2004 2028-29
Heat and Mass Transfer
This course is designed to introduce the phenomena of heat and mass transfer, to develop methodologies for solving a wide variety of practical engineering problems, and to provide useful information concerning the performance and design of particular systems and processes. A knowledge-based design problem requiring the formulations of solid conduction and fluid convection and numerical computation will be assigned and studied in detail. -
CHEG2004 2027-28
Heat and Mass Transfer
This course is designed to introduce the phenomena of heat and mass transfer, to develop methodologies for solving a wide variety of practical engineering problems, and to provide useful information concerning the performance and design of particular systems and processes. A knowledge-based design problem requiring the formulations of solid conduction and fluid convection and numerical computation will be assigned and studied in detail. -
SESM6046 2031-32
Heat Transfer and Applications
This module gives a comprehensive coverage of the classical heat transfer syllables, including steady and transient heat conduction, convection and radiation. While the underlying mathematics are properly elaborated, their conceptual significance and physical interpretations are emphasised and enforced through in-class examples. Numerical methods are introduced for problems in 2-3 dimensions and the use of commercial software such as AnsysTM is introduced. In addition to the traditional analysis of heat exchangers, the application section is expanded to introduce heat transfer engineering at different heat flux and/or temperature differences, with emphasis on energy systems and the thermal management of electronic components/devices. -
SESM3032 2030-31
Heat Transfer and Applications
Efficient heat transfer is fundamental to the performance of engineering systems, from aircraft engines and renewable energy technologies to batteries, electronics and industrial processes. This module develops an advanced understanding of the mechanisms that govern heat transfer, equipping you with the knowledge and analytical skills needed to design effective thermal management solutions.
You will explore conduction, convection and radiation under both steady and transient conditions, developing the mathematical and physical understanding needed to analyse complex thermal systems. Alongside analytical methods, you will learn numerical techniques for solving multidimensional heat transfer problems and gain practical experience of industry-standard simulation software such as ANSYS. Applications extend beyond traditional heat exchangers to include modern challenges such as high-performance energy systems and the thermal management of electronic devices.
By the end of the module, you will be able to analyse and model complex heat transfer processes using both analytical and computational approaches, preparing you for careers in energy engineering, aerospace, electronics, manufacturing and thermal systems design. -
SESM6046 2029-30
Heat Transfer and Applications
This module gives a comprehensive coverage of the classical heat transfer syllables, including steady and transient heat conduction, convection and radiation. While the underlying mathematics are properly elaborated, their conceptual significance and physical interpretations are emphasised and enforced through in-class examples. Numerical methods are introduced for problems in 2-3 dimensions and the use of commercial software such as AnsysTM is introduced. In addition to the traditional analysis of heat exchangers, the application section is expanded to introduce heat transfer engineering at different heat flux and/or temperature differences, with emphasis on energy systems and the thermal management of electronic components/devices. -
SESM3032 2027-28
Heat Transfer and Applications
Efficient heat transfer is fundamental to the performance of engineering systems, from aircraft engines and renewable energy technologies to batteries, electronics and industrial processes. This module develops an advanced understanding of the mechanisms that govern heat transfer, equipping you with the knowledge and analytical skills needed to design effective thermal management solutions.
You will explore conduction, convection and radiation under both steady and transient conditions, developing the mathematical and physical understanding needed to analyse complex thermal systems. Alongside analytical methods, you will learn numerical techniques for solving multidimensional heat transfer problems and gain practical experience of industry-standard simulation software such as ANSYS. Applications extend beyond traditional heat exchangers to include modern challenges such as high-performance energy systems and the thermal management of electronic devices.
By the end of the module, you will be able to analyse and model complex heat transfer processes using both analytical and computational approaches, preparing you for careers in energy engineering, aerospace, electronics, manufacturing and thermal systems design. -
SESM3032 2026-27
Heat Transfer and Applications
Efficient heat transfer is fundamental to the performance of engineering systems, from aircraft engines and renewable energy technologies to batteries, electronics and industrial processes. This module develops an advanced understanding of the mechanisms that govern heat transfer, equipping you with the knowledge and analytical skills needed to design effective thermal management solutions.
You will explore conduction, convection and radiation under both steady and transient conditions, developing the mathematical and physical understanding needed to analyse complex thermal systems. Alongside analytical methods, you will learn numerical techniques for solving multidimensional heat transfer problems and gain practical experience of industry-standard simulation software such as ANSYS. Applications extend beyond traditional heat exchangers to include modern challenges such as high-performance energy systems and the thermal management of electronic devices.
By the end of the module, you will be able to analyse and model complex heat transfer processes using both analytical and computational approaches, preparing you for careers in energy engineering, aerospace, electronics, manufacturing and thermal systems design. -
SESM3032 2028-29
Heat Transfer and Applications
Efficient heat transfer is fundamental to the performance of engineering systems, from aircraft engines and renewable energy technologies to batteries, electronics and industrial processes. This module develops an advanced understanding of the mechanisms that govern heat transfer, equipping you with the knowledge and analytical skills needed to design effective thermal management solutions.
You will explore conduction, convection and radiation under both steady and transient conditions, developing the mathematical and physical understanding needed to analyse complex thermal systems. Alongside analytical methods, you will learn numerical techniques for solving multidimensional heat transfer problems and gain practical experience of industry-standard simulation software such as ANSYS. Applications extend beyond traditional heat exchangers to include modern challenges such as high-performance energy systems and the thermal management of electronic devices.
By the end of the module, you will be able to analyse and model complex heat transfer processes using both analytical and computational approaches, preparing you for careers in energy engineering, aerospace, electronics, manufacturing and thermal systems design. -
SESM3032 2029-30
Heat Transfer and Applications
Efficient heat transfer is fundamental to the performance of engineering systems, from aircraft engines and renewable energy technologies to batteries, electronics and industrial processes. This module develops an advanced understanding of the mechanisms that govern heat transfer, equipping you with the knowledge and analytical skills needed to design effective thermal management solutions.
You will explore conduction, convection and radiation under both steady and transient conditions, developing the mathematical and physical understanding needed to analyse complex thermal systems. Alongside analytical methods, you will learn numerical techniques for solving multidimensional heat transfer problems and gain practical experience of industry-standard simulation software such as ANSYS. Applications extend beyond traditional heat exchangers to include modern challenges such as high-performance energy systems and the thermal management of electronic devices.
By the end of the module, you will be able to analyse and model complex heat transfer processes using both analytical and computational approaches, preparing you for careers in energy engineering, aerospace, electronics, manufacturing and thermal systems design. -
SESM3032 2025-26
Heat Transfer and Applications
This module gives a comprehensive coverage of the classical heat transfer syllables, including steady and transient heat conduction, convection and radiation. While the underlying mathematics are properly elaborated, their conceptual significance and physical interpretations are emphasised and enforced through in-class examples. Numerical methods are introduced for problems in 2-3 dimensions and the use of commercial software such as AnsysTM is introduced. In addition to the traditional analysis of heat exchangers, the application section is expanded to introduce heat transfer engineering at different heat flux and/or temperature differences, with emphasis on energy systems and the thermal management of electronic components/devices.