11312 modules
Page 423
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AUDI2012 2028-29
Facilitating Effective Auditory Rehabilitation 2
The modules Facilitating Effective Auditory Rehabilitation 1 and 2 cover the scientific and clinical foundations of adult audiological assessment and rehabilitation. They build on Professional and Clinical Practice in Audiology 1 and Biopsychosocial Basis of Audiology from Part 1 of the programme, in which you learnt the scientific rationale and the practical skills for basic audiological procedures, and they support Professional and Clinical Practice in Audiology 2, in which you will be consolidating and extending your practical and professional skills. Facilitating Effective Auditory Rehabilitation 2 examines the wider impact of HL and tinnitus and explores interactions with known comorbidities. It considers the entire patient journey evaluating a range of non-technical rehabilitative tools and approaches and how these might be utilised. It introduces specialist technologies such as implantable devices and assistive listening devices. -
AUDI2012 2026-27
Facilitating Effective Auditory Rehabilitation 2
The modules Facilitating Effective Auditory Rehabilitation 1 and 2 cover the scientific and clinical foundations of adult audiological assessment and rehabilitation. They build on Professional and Clinical Practice in Audiology 1 and Biopsychosocial Basis of Audiology from Part 1 of the programme, in which you learnt the scientific rationale and the practical skills for basic audiological procedures, and they support Professional and Clinical Practice in Audiology 2, in which you will be consolidating and extending your practical and professional skills. Facilitating Effective Auditory Rehabilitation 2 examines the wider impact of HL and tinnitus and explores interactions with known comorbidities. It considers the entire patient journey evaluating a range of non-technical rehabilitative tools and approaches and how these might be utilised. It introduces specialist technologies such as implantable devices and assistive listening devices. -
AUDI2012 2027-28
Facilitating Effective Auditory Rehabilitation 2
The modules Facilitating Effective Auditory Rehabilitation 1 and 2 cover the scientific and clinical foundations of adult audiological assessment and rehabilitation. They build on Professional and Clinical Practice in Audiology 1 and Biopsychosocial Basis of Audiology from Part 1 of the programme, in which you learnt the scientific rationale and the practical skills for basic audiological procedures, and they support Professional and Clinical Practice in Audiology 2, in which you will be consolidating and extending your practical and professional skills. Facilitating Effective Auditory Rehabilitation 2 examines the wider impact of HL and tinnitus and explores interactions with known comorbidities. It considers the entire patient journey evaluating a range of non-technical rehabilitative tools and approaches and how these might be utilised. It introduces specialist technologies such as implantable devices and assistive listening devices. -
SESG6040 2030-31
Failure of Materials and Components
Engineering materials must perform safely and reliably throughout their service lives, often under extreme mechanical and environmental conditions. Understanding why materials fail is therefore essential for designing safer, longer-lasting engineering systems. This module examines the performance of structural materials and the mechanisms that govern their degradation and failure.
You will explore the behaviour of metals, ceramics and composite materials across a wide range of engineering applications, investigating how different loading conditions and service environments influence material performance. By studying micromechanical failure mechanisms and engineering failure assessment, you will develop the ability to diagnose material failures, interpret engineering evidence and make informed decisions about material selection and structural design. Real engineering case studies will demonstrate how these principles are applied to improve safety, reliability and performance.
By the end of the module, you will be able to evaluate material performance critically and understand the engineering principles that underpin failure analysis, supporting advanced design, materials selection and structural integrity assessment. -
SESG6040 2028-29
Failure of Materials and Components
Engineering materials must perform safely and reliably throughout their service lives, often under extreme mechanical and environmental conditions. Understanding why materials fail is therefore essential for designing safer, longer-lasting engineering systems. This module examines the performance of structural materials and the mechanisms that govern their degradation and failure.
You will explore the behaviour of metals, ceramics and composite materials across a wide range of engineering applications, investigating how different loading conditions and service environments influence material performance. By studying micromechanical failure mechanisms and engineering failure assessment, you will develop the ability to diagnose material failures, interpret engineering evidence and make informed decisions about material selection and structural design. Real engineering case studies will demonstrate how these principles are applied to improve safety, reliability and performance.
By the end of the module, you will be able to evaluate material performance critically and understand the engineering principles that underpin failure analysis, supporting advanced design, materials selection and structural integrity assessment. -
SESG6040 2029-30
Failure of Materials and Components
Engineering materials must perform safely and reliably throughout their service lives, often under extreme mechanical and environmental conditions. Understanding why materials fail is therefore essential for designing safer, longer-lasting engineering systems. This module examines the performance of structural materials and the mechanisms that govern their degradation and failure.
You will explore the behaviour of metals, ceramics and composite materials across a wide range of engineering applications, investigating how different loading conditions and service environments influence material performance. By studying micromechanical failure mechanisms and engineering failure assessment, you will develop the ability to diagnose material failures, interpret engineering evidence and make informed decisions about material selection and structural design. Real engineering case studies will demonstrate how these principles are applied to improve safety, reliability and performance.
By the end of the module, you will be able to evaluate material performance critically and understand the engineering principles that underpin failure analysis, supporting advanced design, materials selection and structural integrity assessment. -
SESG6040 2031-32
Failure of Materials and Components
Engineering materials must perform safely and reliably throughout their service lives, often under extreme mechanical and environmental conditions. Understanding why materials fail is therefore essential for designing safer, longer-lasting engineering systems. This module examines the performance of structural materials and the mechanisms that govern their degradation and failure.
You will explore the behaviour of metals, ceramics and composite materials across a wide range of engineering applications, investigating how different loading conditions and service environments influence material performance. By studying micromechanical failure mechanisms and engineering failure assessment, you will develop the ability to diagnose material failures, interpret engineering evidence and make informed decisions about material selection and structural design. Real engineering case studies will demonstrate how these principles are applied to improve safety, reliability and performance.
By the end of the module, you will be able to evaluate material performance critically and understand the engineering principles that underpin failure analysis, supporting advanced design, materials selection and structural integrity assessment. -
SESG6040 2025-26
Failure of Materials and Components
In this module, the emphasis moves away from alloy development and design, and focuses on the performance of structural materials in a range of engineering applications. The lectures draw on examples from applications of ceramics, steel, Al, Ti and Ni based alloys, and compares this with the performance of composites: polymer matrix, metal matrix and ceramic matrix systems. Engineering assessment of each failure problem is described and the associated micromechanical failure modes, understanding of which allows improved materials design and selection for a wide range of service environments. -
SESG6040 2026-27
Failure of Materials and Components
Engineering materials must perform safely and reliably throughout their service lives, often under extreme mechanical and environmental conditions. Understanding why materials fail is therefore essential for designing safer, longer-lasting engineering systems. This module examines the performance of structural materials and the mechanisms that govern their degradation and failure.
You will explore the behaviour of metals, ceramics and composite materials across a wide range of engineering applications, investigating how different loading conditions and service environments influence material performance. By studying micromechanical failure mechanisms and engineering failure assessment, you will develop the ability to diagnose material failures, interpret engineering evidence and make informed decisions about material selection and structural design. Real engineering case studies will demonstrate how these principles are applied to improve safety, reliability and performance.
By the end of the module, you will be able to evaluate material performance critically and understand the engineering principles that underpin failure analysis, supporting advanced design, materials selection and structural integrity assessment. -
SESG6040 2027-28
Failure of Materials and Components
Engineering materials must perform safely and reliably throughout their service lives, often under extreme mechanical and environmental conditions. Understanding why materials fail is therefore essential for designing safer, longer-lasting engineering systems. This module examines the performance of structural materials and the mechanisms that govern their degradation and failure.
You will explore the behaviour of metals, ceramics and composite materials across a wide range of engineering applications, investigating how different loading conditions and service environments influence material performance. By studying micromechanical failure mechanisms and engineering failure assessment, you will develop the ability to diagnose material failures, interpret engineering evidence and make informed decisions about material selection and structural design. Real engineering case studies will demonstrate how these principles are applied to improve safety, reliability and performance.
By the end of the module, you will be able to evaluate material performance critically and understand the engineering principles that underpin failure analysis, supporting advanced design, materials selection and structural integrity assessment.