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This module will explore the fundamental basis of intermolecular interactions and illustrate how these can be exploited to form diverse supramolecular assemblies ranging from small molecules, soft gels and hard extended inorganic solids. The course will provide a research-led overview of the current state-of-the-art in supramolecular systems and give students an awareness and appreciation of the wider aspects of chemistry and functional materials accessible through combination and assembly of organic, inorganic, coordination and biological molecules and higher-level building units.

From reducing friction in engines to improving corrosion resistance in offshore structures, surface engineering plays a critical role in enhancing reliability, efficiency and durability. The performance and lifetime of many engineering components are determined not by the bulk material, but by the properties of their surfaces. This module explores the principles and applications of modern surface engineering technologies.

You will investigate how surface treatments, coatings and material modifications are used to improve wear resistance, reduce friction and protect components from oxidation and corrosion. Alongside the scientific principles underpinning surface engineering, you will examine the practical selection of surface technologies, considering both engineering performance and economic factors. Industrial case studies will demonstrate how these techniques are applied across a wide range of engineering sectors to improve product performance and extend service life.

By the end of the module, you will be able to evaluate and select appropriate surface engineering solutions for demanding engineering applications, developing specialist knowledge that supports advanced materials design, tribology and structural integrity engineering.

From reducing friction in engines to improving corrosion resistance in offshore structures, surface engineering plays a critical role in enhancing reliability, efficiency and durability. The performance and lifetime of many engineering components are determined not by the bulk material, but by the properties of their surfaces. This module explores the principles and applications of modern surface engineering technologies.

You will investigate how surface treatments, coatings and material modifications are used to improve wear resistance, reduce friction and protect components from oxidation and corrosion. Alongside the scientific principles underpinning surface engineering, you will examine the practical selection of surface technologies, considering both engineering performance and economic factors. Industrial case studies will demonstrate how these techniques are applied across a wide range of engineering sectors to improve product performance and extend service life.

By the end of the module, you will be able to evaluate and select appropriate surface engineering solutions for demanding engineering applications, developing specialist knowledge that supports advanced materials design, tribology and structural integrity engineering.

From reducing friction in engines to improving corrosion resistance in offshore structures, surface engineering plays a critical role in enhancing reliability, efficiency and durability. The performance and lifetime of many engineering components are determined not by the bulk material, but by the properties of their surfaces. This module explores the principles and applications of modern surface engineering technologies.

You will investigate how surface treatments, coatings and material modifications are used to improve wear resistance, reduce friction and protect components from oxidation and corrosion. Alongside the scientific principles underpinning surface engineering, you will examine the practical selection of surface technologies, considering both engineering performance and economic factors. Industrial case studies will demonstrate how these techniques are applied across a wide range of engineering sectors to improve product performance and extend service life.

By the end of the module, you will be able to evaluate and select appropriate surface engineering solutions for demanding engineering applications, developing specialist knowledge that supports advanced materials design, tribology and structural integrity engineering.

From reducing friction in engines to improving corrosion resistance in offshore structures, surface engineering plays a critical role in enhancing reliability, efficiency and durability. The performance and lifetime of many engineering components are determined not by the bulk material, but by the properties of their surfaces. This module explores the principles and applications of modern surface engineering technologies.

You will investigate how surface treatments, coatings and material modifications are used to improve wear resistance, reduce friction and protect components from oxidation and corrosion. Alongside the scientific principles underpinning surface engineering, you will examine the practical selection of surface technologies, considering both engineering performance and economic factors. Industrial case studies will demonstrate how these techniques are applied across a wide range of engineering sectors to improve product performance and extend service life.

By the end of the module, you will be able to evaluate and select appropriate surface engineering solutions for demanding engineering applications, developing specialist knowledge that supports advanced materials design, tribology and structural integrity engineering.

This module covers the aspects of surface engineering, to develop fundamental understanding and the role of materials to allow surface selection for mechanical contacts and their surrounding environmental conditions.

The module will explore a range of surface treatments and advanced coatings that are designed minimise wear, friction and surface oxidation / corrosion. Applications and economics of surface treatments will be addressed by means of industrial case studies.

This module covers the aspects of surface engineering, to develop fundamental understanding and the role of materials to allow surface selection for mechanical contacts and their surrounding environmental conditions.

The module will explore a range of surface treatments and advanced coatings that are designed minimise wear, friction and surface oxidation / corrosion. Applications and economics of surface treatments will be addressed by means of industrial case studies.

From reducing friction in engines to improving corrosion resistance in offshore structures, surface engineering plays a critical role in enhancing reliability, efficiency and durability. The performance and lifetime of many engineering components are determined not by the bulk material, but by the properties of their surfaces. This module explores the principles and applications of modern surface engineering technologies.

You will investigate how surface treatments, coatings and material modifications are used to improve wear resistance, reduce friction and protect components from oxidation and corrosion. Alongside the scientific principles underpinning surface engineering, you will examine the practical selection of surface technologies, considering both engineering performance and economic factors. Industrial case studies will demonstrate how these techniques are applied across a wide range of engineering sectors to improve product performance and extend service life.

By the end of the module, you will be able to evaluate and select appropriate surface engineering solutions for demanding engineering applications, developing specialist knowledge that supports advanced materials design, tribology and structural integrity engineering.

This module provides the students with the opportunity to develop the knowledge, skills and attitudes which are necessary to practice in Surgery as a newly qualified doctor. This module builds on earlier Surgical attachments and the Acute Care and Ethics & Law modules. This module focuses on the knowledge and understanding, practitioner and professional skills required of a newly qualified doctor in Surgery, and the assessments within this module will focus on these areas. The BM programmes are however highly contextualised and integrated programmes in which the application of knowledge and understanding, clinical skills and professional practice applicable to medicine are learned through a range of modules none of which are stand alone modules and therefore this module should be recognised by teachers and students alike as part of the whole year and programme.

The module will normally take the format of a 6 week placement in one or more partner trusts. The timing will vary for different student groups and the teaching staff will vary for different practices and student groups. As is the nature of clinical placements, the exact learning experiences of each student will be variable however all students will have access to equivalent learning opportunities to achieve the learning outcomes. Students are expected to be pro-active in securing experiences in areas in order to achieve the programme learning outcomes unique to their needs.

This module provides the students with the opportunity to develop the knowledge, skills and attitudes which are necessary to practice in Surgery as a newly qualified doctor. This module builds on earlier Surgical attachments and the Acute Care and Ethics & Law modules. This module focuses on the knowledge and understanding, practitioner and professional skills required of a newly qualified doctor in Surgery, and the assessments within this module will focus on these areas. The BM programmes are however highly contextualised and integrated programmes in which the application of knowledge and understanding, clinical skills and professional practice applicable to medicine are learned through a range of modules none of which are stand alone modules and therefore this module should be recognised by teachers and students alike as part of the whole year and programme.

The module will take the format of a 7 week placement in one or more partner trusts. The timing will vary for different student groups and the teaching staff will vary for different practices and student groups. As is the nature of clinical placements, the exact learning experiences of each student will be variable however all students will receive the same broad opportunities sufficient to achieve the learning outcomes of the module and it is expected that students will take responsibility for making the most of the opportunities provided and being pro-active in securing experiences in areas in which they feel they are weak and/or they have had least learning experiences.
Further details will be provided on Blackboard.