8498 modules
Page 574
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OCCT1038 2026-27
Occupational Therapy Concepts: Extrinsic factors
This module will build on Foundations for Occupational Therapy Practice and introduce you to a range of theories which underpin and support occupational therapy practice. The module also introduces you to systems thinking and how information (data) is used to understand occupational participation. -
OCCT1041 2026-27
Occupational Therapy Concepts: Intrinsic factors
This module builds on your knowledge gained from the Foundations of Occupational Therapy Practice and complements all your semester two modules. It will enable you to understand the bio- psycho-social- behavioural theories, which have an impact on occupational participation and engagement. -
OCCT1041 2025-26
Occupational Therapy Concepts: Intrinsic factors
This module builds on your knowledge gained from the Foundations of Occupational Therapy Practice and complements all your semester two modules. It will enable you to understand the bio- psycho-social- behavioural theories, which have an impact on occupational participation and engagement. -
OCCT2038 2026-27
Occupations by Design
This module will build on the design concepts you were introduced to at level 4 and enable you to apply new knowledge to your understanding of occupational therapy practice to support and enhance occupational engagement for health and well-being.
You will also take part in workshops and receive presentations from external speakers to further your knowledge of design principles and processes. -
OCCT2038 2027-28
Occupations by Design
This module will build on the design concepts you were introduced to at level 4 and enable you to apply new knowledge to your understanding of occupational therapy practice to support and enhance occupational engagement for health and well-being.
You will also take part in workshops and receive presentations from external speakers to further your knowledge of design principles and processes. -
ISVR3070 2026-27
Ocean Acoustics & Biomedical Ultrasound
Sound is a vital tool for exploring and understanding the underwater environment, it also plays a key role in many biomedical applications. This module will describe the underlying physics of sound propagation in liquids and discusses the engineering challenges when designing and assessing underwater acoustic systems.
The module will consider the underlying physical principles explaining the phenomena observed in the ocean. It will consider the basic principles underlying how sound propagates and provide an understanding of some of the basics of understanding rudimentary models of sound transmission.
It will describe the different types of acoustic systems and will consider how man-made systems can be analysed to make design decisions. These design principles are then applied to understand how marine mammals echolocate in the ocean. The role of acoustic systems in the conservation of these animals is also discussed.
Ultrasound is widely used in medicine not only for diagnosis, but also for therapeutic purposes and for treatments. The sound fields employed in such systems typically result in non-linear propagation. This module considers how non-linearity affects sound fields and considers use of ultrasound in a biomedical context. -
ISVR3070 2027-28
Ocean Acoustics & Biomedical Ultrasound
Sound is a vital tool for exploring and understanding the underwater environment, it also plays a key role in many biomedical applications. This module will describe the underlying physics of sound propagation in liquids and discusses the engineering challenges when designing and assessing underwater acoustic systems.
The module will consider the underlying physical principles explaining the phenomena observed in the ocean. It will consider the basic principles underlying how sound propagates and provide an understanding of some of the basics of understanding rudimentary models of sound transmission.
It will describe the different types of acoustic systems and will consider how man-made systems can be analysed to make design decisions. These design principles are then applied to understand how marine mammals echolocate in the ocean. The role of acoustic systems in the conservation of these animals is also discussed.
Ultrasound is widely used in medicine not only for diagnosis, but also for therapeutic purposes and for treatments. The sound fields employed in such systems typically result in non-linear propagation. This module considers how non-linearity affects sound fields and considers use of ultrasound in a biomedical context. -
ISVR3070 2029-30
Ocean Acoustics & Biomedical Ultrasound
Sound is a vital tool for exploring and understanding the underwater environment, it also plays a key role in many biomedical applications. This module will describe the underlying physics of sound propagation in liquids and discusses the engineering challenges when designing and assessing underwater acoustic systems.
The module will consider the underlying physical principles explaining the phenomena observed in the ocean. It will consider the basic principles underlying how sound propagates and provide an understanding of some of the basics of understanding rudimentary models of sound transmission.
It will describe the different types of acoustic systems and will consider how man-made systems can be analysed to make design decisions. These design principles are then applied to understand how marine mammals echolocate in the ocean. The role of acoustic systems in the conservation of these animals is also discussed.
Ultrasound is widely used in medicine not only for diagnosis, but also for therapeutic purposes and for treatments. The sound fields employed in such systems typically result in non-linear propagation. This module considers how non-linearity affects sound fields and considers use of ultrasound in a biomedical context. -
ISVR3070 2028-29
Ocean Acoustics & Biomedical Ultrasound
Sound is a vital tool for exploring and understanding the underwater environment, it also plays a key role in many biomedical applications. This module will describe the underlying physics of sound propagation in liquids and discusses the engineering challenges when designing and assessing underwater acoustic systems.
The module will consider the underlying physical principles explaining the phenomena observed in the ocean. It will consider the basic principles underlying how sound propagates and provide an understanding of some of the basics of understanding rudimentary models of sound transmission.
It will describe the different types of acoustic systems and will consider how man-made systems can be analysed to make design decisions. These design principles are then applied to understand how marine mammals echolocate in the ocean. The role of acoustic systems in the conservation of these animals is also discussed.
Ultrasound is widely used in medicine not only for diagnosis, but also for therapeutic purposes and for treatments. The sound fields employed in such systems typically result in non-linear propagation. This module considers how non-linearity affects sound fields and considers use of ultrasound in a biomedical context. -
ISVR3070 2025-26
Ocean Acoustics & Biomedical Ultrasound
Sound is a vital tool for exploring and understanding the underwater environment, it also plays a key role in many biomedical applications. This module will describe the underlying physics of sound propagation in liquids and discusses the engineering challenges when designing and assessing underwater acoustic systems.
The module will consider the underlying physical principles explaining the phenomena observed in the ocean. It will consider the basic principles underlying how sound propagates and provide an understanding of some of the basics of understanding rudimentary models of sound transmission.
It will describe the different types of acoustic systems and will consider how man-made systems can be analysed to make design decisions. These design principles are then applied to understand how marine mammals echolocate in the ocean. The role of acoustic systems in the conservation of these animals is also discussed.
Ultrasound is widely used in medicine not only for diagnosis, but also for therapeutic purposes and for treatments. The sound fields employed in such systems typically result in non-linear propagation. This module considers how non-linearity affects sound fields and considers use of ultrasound in a biomedical context.