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Masters Degrees (Energy Consumption)

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Effective use of renewable energy and improvements in the efficiency of power generation facilities will enable better energy management in the future and help reduce environmental impact. Read more

Why take this course?

Effective use of renewable energy and improvements in the efficiency of power generation facilities will enable better energy management in the future and help reduce environmental impact. This course responds to an urgent need for specialists in energy and power systems management, as well as a growing skills shortage of people with core knowledge in this field.

The course provides relevant, up-to-date skills that will equip both graduates and working professionals in the advanced concepts of sustainable electrical power and energy generation. It offers skills for operation, control, design, regulation and management of power systems and networks of the future. You will also receive training in and understanding of energy production, delivery, consumption and efficiency.

What will I experience?

On this course you will:

Benefit from experts in the industry who will deliver part of the course as visiting lecturers, bringing professional expertise and industry-relevant material
Be encouraged to reach a level of competence and professionalism where you can effectively integrate your technical and non-technical knowledge to solve a range of problems of a complex nature
Learn in a challenging and stimulating study environment
Develop a range of key skills by means of opportunities provided in the study units
Being an MSc course, you are encouraged and expected to be able to reach a level of competence and professionalism where you can effectively integrate your technical and non-technical knowledge to solve a range of problems of a complex nature.

What opportunities might it lead to?

The course will help to maximise your career potential in this field and equips you to work as an engineer, at an advanced level, in the fields of energy and power systems management.

Module Details

You will study several key topics and complete a four-month individual project in which you apply your knowledge to a significant, in-depth piece of analysis or design. Projects are tailored to your individual interests and may take place in our own laboratories or, by agreement, in industry. Experts from Industry (STS Nuclear) deliver part of the course as visiting lecturers, bringing professional expertise and industry-relevant material to the programme.

Here are the units you will study:

Power Systems Technology: This unit provides an in-depth overview of contemporary electrical power systems. It covers the elements of electrical power systems including generation, transmission and distribution in the mixed energy source paradigm.

Electrical Machines and drives: Provides an in-depth overview of the operational principles and physical design of DC and AC electrical machines as well as broad understanding of concepts of power electronics and power electronic converters, so that you can describe their application and selection criteria. You will develop an understanding of the issues present in converter design, including the impact of physical layout and heat dissipation.

Energy Systems: Focuses on the techniques and principles of operation of thermodynamics and combustion systems, as well as the provision and management of energy. It also focuses on power generation and combined systems, BioMass processers application of heat and fluid transfer.

Renewable and Alternative Energy: Provides an in-depth coverage of the principles of renewable and alternative energy systems: Winds, Solar, BioMass, Geothermal, Fuel Cells, Hydrogen Technologies and Nuclear Energy.

Nuclear Technology: A study of nuclear engineering including the theory of atomic and nuclear physics, methods and benefits of generating electricity from nuclear power plants, and the effects of ionising radiation. The nuclear fuel cycle and the associated environmental impacts are also considered. The development of international guidance on nuclear and radiological safety and a comparison of national regulatory structures are analysed. The importance of safety cultures, safety behaviours and safety cases is a key element throughout this module.

Energy Management: The unit is specifically designed to provide the students with the basic of economical analysis and evaluation of energy projects and asset management as well as risk and hazard assessment, comprising legislation, hazard identification and quantification, quantified risk analyses, methods of elimination/mitigation, economic appraisal of integrated renewable, and petroleum projects; with numerous pertinent case studies.

Programme Assessment

You will be taught through a mixture of lectures, seminars, tutorials (personal and academic), laboratory sessions and project work. The course has a strong practical emphasis and you will spend a significant amount of time in our Energy, Power systems and Electronic laboratories.

A range of assessment methods encourages a deeper understanding of engineering and allows you to develop your skills. Here’s how we assess your work:

Written examinations
Coursework
Laboratory-based project work
A major individual project/dissertation

Student Destinations

This course is designed to respond to a growing skills shortage of people with core knowledge in energy and power systems management. It is an excellent preparation for a successful career in this ever expanding and dynamic field.

On successful completion of the course, you will have gained the skills and knowledge that will make you attractive to a wide variety of employers with interests ranging from overall system design to the more detailed development of subsystems. You will acquire the ability to critically evaluate methodologies, analytical procedures and research methods in energy and power systems management and in the use of state-of-the-art computational tools, the design of sustainable electrical power systems and networks and regulatory frameworks. For practicing engineers with professional business experience, the course is an opportunity to update your knowledge of current design practice and also to familiarise themselves with developments in codes and methods of analysis.

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This programme provides state-of-the-art education in the fields of sustainable energy generation, distribution and consumption. It is intended to respond to a growing skills shortage for engineers with a high level of training in renewable energy, smart grids and sustainability. Read more
This programme provides state-of-the-art education in the fields of sustainable energy generation, distribution and consumption. It is intended to respond to a growing skills shortage for engineers with a high level of training in renewable energy, smart grids and sustainability.

By the time you graduate, you will have a thorough understanding of sustainability standards, various renewable energies, smart grid and power electronics for renewable energy and energy use management in buildings, urban design and other areas. Research on sustainable energy technology has opened up many job opportunities in industry, government institutions and research centres.

What are benefits of the programme?

• studying at international university recognised throughout the world
• close cooperation with world-famous universities and research centres to solve major technical challenges including energy crises and environmental pollution
• excellent research opportunities, using advanced experimental equipment including a network analyser, power analyser, Dspace controller, wind turbine and PV testing system
• continuous development of core modules to meet the requirement of industrial innovation
• cutting-edge research in the intelligent and efficient utilisation of solar, wind energy and other renewable energy sources

Lab Facilities

Power electronics laboratory equipped with advanced experimental equipment
• Sustainable energy laboratory equipped with advanced experimental equipment including a 600W wind turbine, two 270W solar modules, batteries, an inverter with sinusoidal output and main controller
• Electric machine and power system laboratory

Modules

• Sustainable Energy and Environment
• Nuclear Energy Technology
• Power System Network and Smart Grid
• Integration of Energy Strategies in the Design of Buildings
• Photovoltaic Energy Technology
• Renewable Kinetic Energy Technologies
• Power Electronics and Applications for Renewable Energy
• Sustainable Urban Planning Strategies
• Msc Project

What are my career prospects?

Graduates of this programme will typically work on professional tasks including the implementation of sustainable energy technologies within existing or new systems, and modelling and evaluation of the impact on ecosystems, economics and society. Graduates may be employed as electric power system engineers, electric power system consultants, sustainable technology consultants, electric power projects managers, sustainable cities and building design consultants, managers and team leaders in government.

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The MSc in Smart Grid Demand Management (See http://www.postgraduate.hw.ac.uk/prog/msc-smart-grid-demand-management/ ) has been designed to progress students with an Electrical or Mechanical Engineering background to an expert in the understanding of a smart grid. Read more

Overview

The MSc in Smart Grid Demand Management (See http://www.postgraduate.hw.ac.uk/prog/msc-smart-grid-demand-management/ ) has been designed to progress students with an Electrical or Mechanical Engineering background to an expert in the understanding of a smart grid. By following a carefully selected set of courses covering energy resources (fossil and renewable), conversion technologies, electrical power generation, energy storage technologies, demand management, and energy economics. Graduates of this programme will be confident in all aspects of this subject. With a clear focus on smart Grid and Demand Management the programme provides;
- Knowledge and understanding of advanced scientific and mathematical principles relevant to the understanding, analysis and modelling of a smart grid.
- An understanding of fundamental facts, concepts, and technologies for demand management and energy storage.
- Knowledge and skill to apply engineering principles to design a system, component or process
- An ability to undertake independent research.
- Professional attitudes to implementation of safety and concepts embodied by sustainability.
- An ability to communicate effectively
- Familiarity with the application of relevant computer tools to the profession.

All aspects of the smart grid are integrated in a dedicated smart grid modelling course, which provides the mathematical and computational skills to model a smart grid. This course is unique to this programme and will give graduates the skills they need to enhance their career prospects.

The Scottish Funding Council has made available 20 scholarships covering fees only to students with Scottish backgrounds. 5 of these places are reserved for applicants to this programme in the first instance. The remaining places are spread over all our Energy based MSc programmes. There is no separate application process for this. If you are eligible, you will be considered automatically. You will be notified through the summer if you have been selected.

Scholarships available

We have a number of fully funded Scottish Funding Council (SFC) scholarships available for students resident in Scotland applying for Smart Grid Demand Management MSc. Find out more about this scholarship and how to apply http://www.hw.ac.uk/student-life/scholarships/postgraduate-funded-places.htm .

Programme content

Semester One - All courses are Mandatory
- B51ET Foundations of Energy
This course provides the foundations for the quantitative analysis of energy resources and conversion efficiencies through various technologies. It also places energy production and consumption into the wider field of environmental and socio-economic factors

- B51GE Renewable Energy Technologies
This course introduces the range of Renewable Energy resources together with established and emerging technologies. It provides the skills for a quantitative assessment of the Renewable Energy resources and the expected energy and power output from typical or specific installations.

- B31GA Electrical Power Systems
This course covers the operation of interconnected electrical power systems. Such interconnected power systems combine a number of different components, generators, transmission lines, transformers and motors, which must be appreciated to understand the operation of the interconnected system.

- C21EN Environmental and Energy Economics
This course introduces students to the core concepts and methods of modern economics, and environmental and energy economics in particular.

Semester Two – All courses are Mandatory
- B31GG Smart grid modeling
This course introduces the mathematical skills to model the operation of an electricity or energy network at a statistical and dynamical level, incorporating key elements of a smart grid, including technological constraints, economic drivers and information exchange.

- B31GB Distributed Generation
This course equips students with an understanding of the role of distributed generation in electrical energy networks. It provides students with an overview of distributed generation techniques and describes the contribution of distributed generation to network security. The course introduces the economics of distributed generation and the assessment of distributed generation schemes. It introduces students to the concept of intermittent sources and their contribution to capacity in electrical power systems and provides a detailed review of the reliability, fault and stability studies of distributed generation schemes.

- B51GK Demand Management and Energy Storage
This course provides students with an overview of demand-side management and its contribution to network capacity and security. It reviews energy storage technologies and their contribution to the integration of renewable generation and the operation of large-scale electrical network. It introduces students to the methods of interfacing energy storage mechanisms to electrical networks. The course describes the contribution energy storage technology can make to transportation and industry

- B81EZ Critical Analysis and Research Preparation
This course provides research training and addresses literature review skills, project planning, data analysis and presentation with a focus to critically discuss literature, and use data to support an argument.

- B31VZ MSc Project
An individual project led by a research active member of staff or an industrial partner on a topic relevant to smart grid technology, demand management technologies or approaches or smart grid/ electricity / energy systems modelling.

English language requirements

If you are not from a UKBA recognised English speaking country, we will need to see evidence of your English language ability. If your first degree was taught in English a letter from them confirming this will be sufficient. Otherwise the minimum requirement for English language is IELTS 6.5 or equivalent, with a minimum of 5.5 in each skill.

The University offers a range English language courses (See http://www.hw.ac.uk/study/english.htm ) to help you meet the English language requirement prior to starting your masters programme:
- 14 weeks English (for IELTS of 5.5 with no more than one skill at 4.5);
- 10 weeks English (for IELTS of 5.5 with minimum of 5.0 in all skills);
- 6 weeks English (for IELTS 5.5 with minimum of 5.5 in reading & writing and minimum of 5.0 in speaking & listening)
- 3 weeks English refreshers course (for students who meet the English condition for the MSc but wish to refresh their English skills prior to starting).

Find information on Fees and Scholarships here http://www.postgraduate.hw.ac.uk/prog/msc-smart-grid-demand-management/

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This internationally renowned degree, based within a world-leading renewable energy research group, equips graduates and professionals with a broad and robust training. Read more

Programme description

This internationally renowned degree, based within a world-leading renewable energy research group, equips graduates and professionals with a broad and robust training.

Wind, marine and solar energy technologies are covered, as well as the wider environment in which they are to fit, including: resource assessment; energy production, delivery and consumption; efficiency; sustainability; economics, policy and regulation.

In addition, our MSc students actively engage in research as part of their dissertation projects either within the Institute for Energy Systems or with industry, with some joining our PhD community afterwards.

This programme is affiliated with the University's Global Environment & Society Academy.

Programme structure

This programme is run over 12 months, with two semesters of taught courses followed by a research project leading to a masters thesis.

Semester 1
Technologies for Sustainable Energy
Energy Innovation Governance and Strategy
Sustainable Energy Contexts
Either Electrical Engineering Fundamentals of Renewable Energy or Mechanical Engineering Fundamentals of Renewable Energy

Semester 2
Principles of Wind Energy
Marine Energy
Solar Energy and Photovoltaic Systems
An MSc Dissertation project from May to August

Depending on quotas and timetabling, we can offer further courses from the Schools of Engineering, GeoSciences, Mathematics, and Social and Political Science, and from Scotland's Rural College.

Career opportunities

Graduates go on to a wide range of activities in industry, public organisations or academia. The MSc has well established links with industry, with many graduates finding employment with leading national and international companies involved with energy, consultancy and engineering.

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This programme is aimed at anyone interested in learning more about the design and operation of low energy buildings with the added attraction of three modules dedicated to computer modelling of building performance – an essential skill for anyone wishing to work in today’s rapidly changing world of building engineering consultancy. Read more
This programme is aimed at anyone interested in learning more about the design and operation of low energy buildings with the added attraction of three modules dedicated to computer modelling of building performance – an essential skill for anyone wishing to work in today’s rapidly changing world of building engineering consultancy.

Modules are taught by world-leading experts in the field who have designed some of the world’s most innovative low energy buildings. These design experiences provide unique case study material which students find exciting and invaluable for their own research and design work.

The programme is accredited for further learning for CEng and professional membership by CIBSE and the Energy Institute and benefits from its links with the Royal Academy of Engineering Centre of Excellence in Sustainable Building Design.

The course attracts students from all over the world, including countries such as Greece, Iran, China, France, Germany and Colombia. This is attractive to potential employers who often have international offices around the world.

Key Facts

- An outstanding place to study. The School of Civil and Building Engineering is ranked 2nd in the UK for Building in the Times Good University Guide 2015

- Research-led teaching from international experts. 75% of the School’s research was rated as world-leading or internationally excellent in the latest Government Research Excellence Framework.

- The programme is accredited by the two main institutions representing energy and buildings – the Chartered Institution of Building Services Engineers and the Energy Institute. On successful completion of the course, students are deemed to meet the education requirements for both institutions and their applications can be endorsed by course tutors.

See the website http://www.lboro.ac.uk/study/postgraduate/programmes/departments/civil/low-carbon-building-design/

Programme modules

- Building Energy Consumption [70% exam, 10 credits]
The aim of this module is for the student to understand the impact that climate, people, equipment selection and design have on energy consumption on a range of building sizes from domestic to large commercial.

- Renewable Energy and Low Carbon Technologies [70% exam, 15 credits]
The aims of this module are for the student to understand the principles of renewable energy and low carbon technologies and their integration into buildings, and to be given a perspective on the potential benefits and applications of these technologies.

- Building Control & Commissioning [70% exam, 10 credits]
The aims of this module are for the student to understand the application of automatic control in energy monitoring and commissioning and to examine the control problems in buildings and develop control strategies that will improve thermal comfort and building energy use.

- Concept Design [0% exam, 15 credits]
The aims of this module are for the student to be introduced to the process within which buildings are conceived and designed by undertaking the architecture design of a major building using multi-disciplinary input. Students will develop team skills through working in design groups to generate schematic concepts before developing the best. They will apply previous knowledge of building services and low carbon design in the selection process and carry out performance analysis. Students will work with 3D architectural and 3D mechanical, electrical and plumbing (MEP) systems within BIM software to further develop their concepts.

- Low Carbon Building Design [50% exam, 15 credits]
The module aims to introduce the principles of low and zero carbon building with special attention to the process of design and decision-making.

- Advanced Thermal Modelling [50% exam, 15 credits]
The aims of this module are for the student to understand the principles of building thermal modelling and HVAC plant simulation, and be given a perspective on the applications of these techniques to the design process.

- Advanced Airflow Modelling [50% exam, 15 credits]
The aims of this module are for the student to understand the principles of building airflow and ventilation modelling with respect to comfort and energy efficiency, and be given a perspective on the applications of these techniques to the design process.

- Advanced Lighting Modelling [50% exam, 15 credits]
The aims of this module are for the student to understand the principles of lighting modelling in buildings with respect to comfort and energy efficiency, and be given a perspective on the application of these techniques to the design process.

- Research Project [0% exam, 60 credits]
The aim of this module is to provide the student with experience of the process and methodology of research by defining and studying (on an individual basis) a complex problem in a specialised area relating to Building Energy

- Research Methods in Building Performance [0% exam, 10 credits]
The aims of this module are for the student to become familiar with and comprehend the wide range of research methods and skills needed to investigate, understand and communicate building performance.

Facilities

All masters students have access to a wide range of building simulation codes which include commercial software, as well as bespoke codes developed in-house. Students can run these codes on their personal laptops or access any one of our computer laboratories, including access to our recently commissioned 2000-node high performance computer cluster.

One of our key strengths at Loughborough is our experimental facilities which enable us to validate computer models. Our masters students have access to a vast range of experimental facilities, some of which are used during the taught modules and all of which are available for use by students during their research dissertations.

These include: a fully controllable environmental chamber; sophisticated thermal and breathing manikins; an indoor solar simulator; a 'darkroom' facility to carry out optical and high dynamic range measurements; and full-scale houses for pressure testing and studying innovative heating and control strategies. A recent investment of £360k was made to purchase an extensive array of monitoring and measuring equipment for use during field studies.

How you will learn

You will learn through a carefully balanced combination of lectures, in-class guided workshops, hands-on computer modelling, field measurements and independent research. Students have access to a wide range of air flow, thermal and daylight modelling software as well as extensive laboratory facilities. Following nine taught modules, students pursue a research dissertation of their choice which draws on the skills developed during the taught modules.

Students are assessed by a combination of traditional written exams, coursework and assignments. This split is typically 70/30 (exam/coursework) or 50/50, although some modules, such as research methods and concept design are assessed entirely based on coursework which comprises individual presentations and group work.

Careers and further study

Previous students have gone on to work for leading consulting engineering companies such as Arup, Pick Everad, Hoare Lea, Hulley and Kirkwood and SE Controls. Some of these companies offer work placements for students to undertake their research dissertations. Many visit the university to deliver lectures to our MSc students providing ideal opportunities for students to discuss employment opportunities.

Accreditation

The programme is accredited for further learning for CEng and professional membership by the CIBSE and Energy Institute.
The 'SE Controls prize for best overall performance' is awarded to the student graduating from this course with the highest overall mark. This presentation is made on graduation day.

Scholarships

The University offers over 100 scholarships each year to new self-financing full-time international students who are permanently resident in a county outside the European Union. These Scholarships are to the value of 25% of the programme tuition fee and that value will be credited to the student’s tuition fee account.
You can apply for a scholarship once you have received an offer for a place on this programme.

Why choose civil engineering at Loughborough?

As one of four Royal Academy of Engineering designated Centres of Excellence in Sustainable Building Design, the School of Civil and Building Engineering is one of the largest of its type in the UK and holds together a thriving community of over 60 academic staff, 40 technical and clerical support staff and over 240 active researchers that include Fellows, Associates, Assistants, Engineers and Doctoral Students.

Our world-class teaching and research are integrated to support the technical and commercial needs of both industry and society. A key part of our ethos is our extensive links with industry resulting in our graduates being extremely sought after by industry and commerce world-wide,

- Postgraduate programmes
The School offers a focussed suite of post graduate programmes aligned to meet the needs of industry and fully accredited by the relevant professional institutions. Consequently, our record of graduate employment is second to none. Our programmes also have a long track record of delivering high quality, research-led education. Indeed, some of our programmes have been responding to the needs of industry and producing high quality graduates for over 40 years.

Currently, our suite of Masters programmes seeks to draw upon our cutting edge research and broad base knowledge of within the areas of contemporary construction management, project management, infrastructure management, building engineering, building modelling, building energy demand and waste and water engineering. The programmes are designed to respond to contemporary issues in the field such as sustainable construction, low carbon building, low energy services, project complexity, socio-technical systems and socio-economic concerns.

- Research
Drawing from our excellent record in attracting research funds (currently standing at over £19M), the focal point of the School is innovative, industry-relevant research. This continues to nurture and refresh our long history of working closely with industrial partners on novel collaborative research and informs our ongoing innovative teaching and extensive enterprise activities. This is further complemented by our outstanding record of doctoral supervision which has provided, on average, a PhD graduate from the School every two weeks.

- Career Prospects
Independent surveys continue to show that industry has the highest regard for our graduates. Over 90% were in employment and/or further study six months after graduating. Recent independent surveys of major employers have also consistently rated the School at the top nationally for civil engineering and construction graduates.

Find out how to apply here http://www.lboro.ac.uk/study/postgraduate/programmes/departments/civil/low-carbon-building-design/

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Huge energy resources in Siberia, Central Asia, the Caspian Basin, and other regions of Eurasia will shape world politics, security and international relations well into the 21st century. Read more
Huge energy resources in Siberia, Central Asia, the Caspian Basin, and other regions of Eurasia will shape world politics, security and international relations well into the 21st century

Eurasian energy politics is the big issue in global affairs. Cooperation and conflicts over ownership, control, transportation and consumption of energy create multiple challenges for policy makers and analysts.

The new MA in Energy Politics in Eurasia (ENERPO) is designed to meet these challenges. The program (Energy Politics in Eurasia (ENERPO)) covers key energy projects in Eurasia as well as major contentious issues in the development of the energy sphere as seen from the Russian perspective. The curriculum is designed so as to combine the perspectives of political science, anthropology, security studies, political economy with first-hand expertise of the energy sector. ENERPO will provide skills that are highly needed in public policy making, policy analysis, business, political consultancy, and public affairs.

The uniqueness of the ENERPO program rests on a combination of in-class training by leading Russian and international experts, master classes by representatives of the energy business community, and company visits. The duration of the MA is three semesters: two semesters in Russia for training plus one research and writing semester, for a total of 12 months.


Your benefits:

•studying at a compact, internationally renowned private university in Russia devoted solely to the social sciences;
•interdisciplinary curricula with unparalleled breadth of courses that tailor education to specific needs;
•teaching by Russia’s major figures in political science, political economy, and public policy;
•excellent preparation for further research work or for careers in education, public administration, the private sector.

THE PROGRAM COURSES:

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This fresh new programme for 2017 is a collaboration between the School of GeoSciences and the School of Social and Political Sciences. Read more
This fresh new programme for 2017 is a collaboration between the School of GeoSciences and the School of Social and Political Sciences.

The world is facing an ‘energy trilemma’; how to achieve energy security, energy equity and environmental sustainability. Whilst equipping students with an active understanding of low carbon technologies, policies and markets, this new MSc programme is focused squarely on analysing the social, societal and environmental dimensions of energy transitions. You will examine how citizens are involved in and are affected by changes in energy systems.

On a more theoretical level, the programme will enable you to relate supply-side issues to geo-politics and political economy, whilst energy demand will be studied in relation to broader challenges of sustainable consumption.

On a more practical level you will explore the potential of ‘smart’ ICT to affect consumption and inform strategic choices in sustainable living at household and community level. With Scotland being a world leader in renewable electricity generation (especially wind and marine), but also being economically dependent on declining North Sea oil and gas and suffering from high levels of energy poverty, this interdisciplinary MSc. benefits from close access to a high number of insightful case studies, which will serve to examine links between global and local issues, explore international best practices and identify locally suited pathways to more sustainable energy management.

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Climate change, the global consumption of energy and the use of fossil fuels to provide us with heat, power and transportation are all engineering challenges which need addressing now and in the future. Read more
Climate change, the global consumption of energy and the use of fossil fuels to provide us with heat, power and transportation are all engineering challenges which need addressing now and in the future. It is clear that solutions to these long-term problems ­– ensuring the best use of resources, and developing new more sustainable ways to produce and use energy – will require graduates who can work in an increasingly multidisciplinary environment.

This course will offer you the knowledge and expertise you will need in relation to sustainable energy and the environmental impact of energy systems.

The course aims to:

Produce postgraduate specialists who can demonstrate mastery of a broad spectrum of advanced engineering principles to real-life technological, financial, regulatory, managerial and ethical problems encountered in the Sustainable Energy and Environmental profession, and who are equipped to be key professional players in the wider industry, the professions, and public service.
Produce postgraduates with a systematic understanding of knowledge, and a critical awareness of current problems and new insights which are at the forefront of Sustainable Energy Systems and the Environment.
Help students develop a comprehensive understanding of techniques applicable to their own research or advanced scholarship.
Produce individuals who can show originality in application of knowledge, together with a practical understanding of how established techniques of research and enquiry are used to create and interpret knowledge in the area of Sustainable Energy and Environmental Systems.

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The concept of the German “Energiewende” – literally, energy transition – has gained international attention. It includes a variety of measures that aim at making Europe’s largest economy free of fossil fuels and nuclear energy. Read more

Program Background

The concept of the German “Energiewende” – literally, energy transition – has gained international attention. It includes a variety of measures that aim at making Europe’s largest economy free of fossil fuels and nuclear energy. In order to attain this, all areas of energy production and consumption will have to go through a transition process. Besides mobility and industry, buildings are therefore one of the key factors for a successful Energiewende.

Most of all, this implies re-directing from a mainly fossil-fueled energy supply towards renewable energies and a much more energy-efficient use of energy in buildings and urban areas. This is one of the largest and most urgent challenges of current urban development and other social disciplines.

Finding solutions to such a complex challenge means that a multitude of actors from business, society, and public administration take part in the process and influence it with their differing and often conflicting interests. Resulting from this is the need for skilled workers who both understand all stakeholders and are able to work with them.

Building Sustainability

Strategic concepts for communication and cooperation in large-scale projects are crucial for their success. Whereas, “simply” building a house has become a manageable task, things become much more complicated when considering the urban environment and wider interests such as energy efficiency. The Master program, Building Sustainability focuses therefore, not only on technical and economic perspectives, but also aims at imparting relevant knowledge from other disciplines. This means that the scope of the program is both broad and specific at the same time. The combination of technology, management and sustainability-related topics is therefore a unique opportunity for young professionals to extend their skills.

The MBA program Building Sustainability – Management Methods for Energy Efficiency will teach students skills, methods and concepts to consider different approaches, to understand them and to align them for reaching sustainable solutions. Such competences are not only important in the context of the Energiewende but they are indispensable in every building, construction and real estate project that takes energy efficiency and other sustainability criteria into account.

The idea is that sustainable project results that consider economic, ecological and social aspects can only be achieved in extensive cooperation of all stakeholders. Managing and moderating such a cooperation is one of the major challenges of implementing sustainability in building projects of all scales. The program aims therefore on enabling students to understand the complexity of planning and management processes and to develop according solutions. This will happen in modules with different approaches: some will teach facts and numbers, others will facilitate connections between different fields and the softer skills of mediating between them and some are designed to apply these competences to practical projects.

The TU-Campus EUREF is located on the EUREF (European Energy Forum) campus in Berlin-Schöneberg. This former industrial area has been developed into a research hub for energy efficiency, renewable energies and smart grids. Students will gain insight into the numerous real-life examples of building sustainability without having to leave the campus.

Students and graduates

The program addresses a broad group of professionals with varying academic backgrounds, mostly in engineering and technology, management, economics, architecture and urban or environmental planning. However, applicants with other academic backgrounds coupled with working experience in a related field are also encouraged to apply, personal motivation plays an important role in the selection process. Class diversity is one of its greatest assets, as students will not only learn from lecturers with science and business backgrounds, but also from each other.
Graduates will be able to moderate and manage complex projects in the construction, real estate, and planning sector. They will be able to assess the project from technical, ecological and economic perspectives and find solutions which take all stakeholders into account.

Curriculum

The first semester focuses on the basis for successful and sustainable projects. Two comprehensive modules in the fields of building technology and project management will allow students to work on their first, closely guided group project. A lecture series about the sustainable reorganization of building and urban structures with special regard to energy management and the energy market accompanies these modules.

The second semester focuses on the interdisciplinary aspects of building sustainability. It addresses real estate economics and the issue of energy-efficient societies in a global context. Together with the knowledge and skills attained in the first semester, students will conduct a comprehensive and interdisciplinary group project. At the same time, specialization starts and students can choose between deepening their knowledge in either technology and innovation management or in Smart Buildings.

The specialization continues in the third semester, either by completing the technology and innovation module or the technical module with the follow-up course Integration of Renewable Energies. All students take a module in Life Cycle Analysis to complete the holistic approach of sustainability and write their Master thesis. Graduates will earn a degree awarded from the Technische Universität Berlin.

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The aim of the master is to prepare professionals in the field of energy, environment and sustainable production with rigorous scientific and technical… Read more
The aim of the master is to prepare professionals in the field of energy, environment and sustainable production with rigorous scientific and technical background, capable of providing a flexible and multidisciplinary response to the challenges of building a sustainable society through the conception, design, evaluation, implementation and management of environmentally friendly processes, consumption of natural resources and health.

Career Opportunities

The University Master's Degree in Environmental Engineering and Sustainable Energy provides students the training to be qualified for jobs as:
-Responsible of Energy, Enviroment and Quality Departments
-Responsible of Energy Production Plants (cogeneration, combined cycles, wind farms, photovoltaic farms, industrial organization)
-Responsible of Waste Treatment Plants
-Responsible of Wastewater Treatment Plants
-Technician in Engineering, Consulting and Certification Companies
-R&D&I Laboratories and Institutes
-Secondary and High Education Teaching
-Creation of their own enterprises
-Realisation of projects on request

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Beautiful architecture. Solid structure. What else do buildings need?. Try living in one without any heating, cooling, electrical power, lighting, water or drainage. Read more
Beautiful architecture. Solid structure. What else do buildings need?

Try living in one without any heating, cooling, electrical power, lighting, water or drainage. What would it be like to work in a tower without lifts? How would you manage without telephones, an IT system or an internet connection? All of these systems and many more are designed by building services engineers. Building Service Engineers turn buildings from empty shells into spaces fit for people to use.

From the very start of the building design, Building Services Engineers are involved helping architects and other members of the design team to get the size, shape and configuration of the building right. They determine strategies for designing energy efficient buildings, making them sustainable in the long term. Buildings are responsible for a large chunk of carbon emissions so this work makes a critical contribution to reducing a building's impact on climate change.

Of all the disciplines working in the built environment today, the building services engineer has the broadest reach and the deepest impact, affecting virtually every aspect of building design. In short, they make buildings work.

This Masters course provides a broad basis of advanced understanding in the technological areas of building services and energy engineering, with particular emphasis on those areas that are relevant to the interaction between the built and natural environments, modern industry, and the analysis of developing technologies.

See the website http://www.lsbu.ac.uk/courses/course-finder/building-services-engineering-msc

Modules

The course provides a practitioner perspective with which we analyse building energy requirements in terms of the external environment and internal space, and the effect on energy resources. We consider the principles and analyse associated building engineering systems to understand control, simulation and modelling techniques.

As well as the core engineering skills, appropriate areas of management and research methods are studied to provide a balance foundation for the specialist units. The MSc dissertation provides an opportunity to develop further research skills by application to problems that require in-depth and innovative thinking.

Module descriptions

- Thermal environment, acoustics and lighting
The module provides an introduction to the processes and characteristics that determine the quality of the internal built thermal, acoustic and visual environment. The aims of this module are to examine the principal parameters that affect the thermal, acoustic and visual environment, and the theory and principles necessary for the design of the internal environment.

- Heating and energy in buildings
This module introduces the key components of building heating and cooling systems, and presents sizing methodologies of central plant and techniques for analysing energy consumption and carbon emissions. System configurations and controls are discussed that ensure optimum safe and efficient operation of the plant.

- Energy resource and use analysis
This module offers the opportunity to develop strategic and operational management skills in the fields of infrastructure asset management and project appraisal. It covers design life extensions, risk and asset management techniques for infrastructure, and techniques for physical appraisal of infrastructure, and their economic, environmental and social impacts.

- Electrical power
The module covers electrical power engineering as applied to the design of systems in buildings. In particular, this includes the connection of, and the effects of, small-scale embedded generation as might be employed to exploit renewable energy sources. The module aims to provide an appreciation and understanding of electrical services design in buildings with particular reference to safety requirements and the effects of embedded generation on the supplier and the consumer.

- Sustainable refrigeration
The module introduces the principles of thermodynamics, and applies them to the study and design of energy efficient refrigeration systems. Vapour compression, absorption and other novel cycles are analysed and modeled. Practical applications of sustainable refrigeration are investigated through case studies.

- Ventilation and air conditioning
This module introduces the theory and principles necessary for the evaluation of ventilation and cooling loads, the selection and design of ventilating and air conditioning systems. It examines the principles of operation and characteristics of contemporary systems and their associated controls and distribution systems with particular emphasis on energy use and heat recovery. It discusses the effect of system balancing and maintenance on the correct and energy efficient operation of the systems.

- Energy engineering project

Employability

Employment prospects are excellent. Construction and engineering activity is expected to accelerate in the UK, Europe and worldwide over the next 20 years and demand for building services engineers continues to outstrip supply.

Graduate success stories

Successful students enter various roles including building services design, management of construction projects, and operation of complex installations.

Professional accreditation

The course is fully accredited by Chartered Institution of Building Services Engineers (CIBSE) and the Energy Institute as meeting the requirements for Further Learning for a Chartered Engineer (CEng) for candidates who have already acquired an Accredited CEng (Partial) undergraduate degree. Potential students are advised to check directly with the CIBSE or EI as to the validity of their first degree for a CEng route.

Accredited on behalf of the Engineering Council as meeting the requirements for Further Learning for registration as a Chartered Engineer. Candidates must hold a CEng accredited BEng/BSc (Hons) undergraduate first degree to comply with full CEng registration requirements.

LSBU Employability Services

LSBU is committed to supporting you develop your employability and succeed in getting a job after you have graduated. Your qualification will certainly help, but in a competitive market you also need to work on your employability, and on your career search. Our Employability Service will support you in developing your skills, finding a job, interview techniques, work experience or an internship, and will help you assess what you need to do to get the job you want at the end of your course. LSBU offers a comprehensive Employability Service, with a range of initiatives to complement your studies, including:

- direct engagement from employers who come in to interview and talk to students
- Job Shop and on-campus recruitment agencies to help your job search
- mentoring and work shadowing schemes.

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Our Masters in Electrical and Electronic Engineering is a specialist course designed for engineering graduates to enhance their skills in this area of high technology. Read more
Our Masters in Electrical and Electronic Engineering is a specialist course designed for engineering graduates to enhance their skills in this area of high technology. The ever increasing pace of developments in all areas of electrical and electronic engineering, (and in particular in the systems that are related to energy and the environment), requires engineers with a thorough understanding of operation principles and design methods for various modern electrical and electronic systems. As a graduate you'll be able to not only respond to the latest changes but also to look ahead and help in shaping future developments.

The unique features of this course are that the traditional electrical and electronic engineering subjects are supported by the more modern topics of computer control and machine learning techniques, which are at the forefront of modern electrical and electronic systems in the industry today. This course offers an integrated systems approach to engineering, incorporating modules in advanced power electronics and renewable energy systems, advanced instrumentation and control with signal processing, real-time systems and machine learning techniques.

There is an increasing demand for skilled engineers who are able to design and maintain electrical and electronic systems that are at the forefront of current technologies. These positions cover many industries, hence graduates from this course can expect significantly enhanced job prospects in electrical, electronic as well as systems engineering.

See the website http://www.lsbu.ac.uk/courses/course-finder/electrical-electronic-engineering-msc

Modules

- Digital signal processing
This module introduces the theory behind digital signal processing and how DSP can be implemented in real-time. You will gain an understanding of how to program hardware to perform fundamental DSP algorithms such as filtering and spectral analysis. You will gain a fundamental understanding of DSP algorithms and how to implement them in hardware for real-time applications.

- Pattern recognition and machine learning
This module introduces the fundamentals of both statistical learning theory and practical approaches for solving pattern recognition problems. Further, it consolidates lectures with experimental computer-based assignments to inculcate the basics of machine learning and classification. The module covers the fundamentals of pattern recognition and provides the essential background to machine learning and classification.

- Advanced instrumentation and control
This module develops advanced techniques in data acquisition and manipulation required for instrumentation and control applications. Further, it consolidates lectures with experimental computer-based assignments using industry standard hardware and software (NI DAQ and LabView). The module develops your knowledge and experience in data acquisition and virtual instrumentation used in Industry for control purposes.

- Advanced power electronics and renewable energy systems
The material in this module is divided into two parts. The first part covers the analysis and operation of power electronics and machines and their application in the areas of power conversion, power conditioners and electrical machine drives mostly, found on the 'load' side of the electrical power system but sometimes integrated into the supply network. This part will also include elements of computer control systems that are designed to produce non-sinusoidal waveforms and methods of dealing with undesirable harmonics and their effects on the power network. The second part of the module will focus on renewable energy and sustainability. This will include: solar cells, biomass, wind and wave power; intelligent environmental sensing and feedback (in areas of pollution, petroleum, energy consumption, etc.); and renewable design and effectiveness (solar, wind and wave).

- Technology evaluation and commercialization
In this module you will follow a prescribed algorithm in order to evaluate the business opportunity that can be created from a technology's unique advantages. You will be guided towards identifying a technology project idea that you will evaluate for its business potential. To do this you will conduct detailed research and analysis following a prescribed algorithmic model, in order to evaluate the business potential of this technology idea. The outcomes from this will serve as the basis for implementation of the selected technology in the business sense. Thus you will develop the appropriate commercialisation strategy and write the business plan for their high-tech start-up company.

- Technical, research and professional skills
This module provides training for the skills that are necessary for successful completion of the MSc studies in the near future and for professional development in the long-term future. More specifically, the module teaches how to search and gather relevant technical information, how to extract the essence from a piece of technical literature, how to carry out a critical review of a research paper, how to write a feasibility report, how to give presentations and put your thoughts across effectively, and how to manage a project in terms of time and progress in a group project environment. These are designed to enhance the technical and analytical background that is necessary for the respective MSc stream.

- MSc engineering project
This module requires you to undertake a major project in an area that is relevant to their MSc course. You will chose your project and carry it out under the guidance of your supervisor. At the end of the project, you are required to present a dissertation, which forms a major element of the assessment. The dissertation tests your ability to integrate information from various sources, to conduct an in-depth investigation, to critically analyse results and information obtained and to propose solutions. The other element of the assessment includes an oral presentation. The Individual Project carries 60 credits and is a major part of MSc program.

Employability

The acquired skills in computer control and AI techniques offer additional scope for jobs in the design of decision support systems that cross traditional boundaries between engineering and other disciplines. (i.e. medical, finance). Successful graduates will enjoy exciting career opportunities from a wide range of industries, such as electrical energy supply and control, electronics and instrumentation products and services, intelligent systems and automation to include: automotive, aerospace, electrical and electronic consumer products, telecommunications. The students can also pursue PhD studies after completing the course.

Engineering management skills

Engineering employers have expressed their need for engineers with a solid grasp of the business requirements that underpin real engineering projects. Our course incorporates a management-related module focused on entrepreneurship and project management. This management module develops our graduates' commercial awareness and ensures that they have the skill-set valued by industry employers.

LSBU Employability Services

LSBU is committed to supporting you develop your employability and succeed in getting a job after you have graduated. Your qualification will certainly help, but in a competitive market you also need to work on your employability, and on your career search. Our Employability Service will support you in developing your skills, finding a job, interview techniques, work experience or an internship, and will help you assess what you need to do to get the job you want at the end of your course. LSBU offers a comprehensive Employability Service, with a range of initiatives to complement your studies, including:

- direct engagement from employers who come in to interview and talk to students
- Job Shop and on-campus recruitment agencies to help your job search
- mentoring and work shadowing schemes.

Professional links

The School has a strong culture of research and extensive research links with industry through consultancy works and Knowledge Transfer Partnerships (KTPs). Teaching content on our courses is closely related to the latest research work.

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The course has a very distinct ethos based around the theme of environmentally sensitive building design. The aim is to provide you with skills and understanding that would enable you to take a leading professional and specialist role. Read more
The course has a very distinct ethos based around the theme of environmentally sensitive building design. The aim is to provide you with skills and understanding that would enable you to take a leading professional and specialist role. It is also driven by the following key underlying themes that apply across all our architecture courses:

• Critical regionalism;

• Sustainability;

• User Centred Design; and

• Professional Development

Environmental issues rank at the very highest levels in the concerns of the general public and are particularly affected by the impact of the design and construction industry. The scale of influence ranges from building to urban dimensions. These are global problems requiring global and interconnected solutions and the course is designed to address issues from a world perspective. Issues are considered for different climate types and locations, giving a strong international dimension as well as providing opportunities to develop solutions that address local circumstances. The course is designed to give you the chance to acquire a mixture of skills and knowledge that would support roles as integrated and important members of design and construction teams. The course also provides opportunities to understand the specific needs of progression onto research degrees in the subject area.

Buildings consume vast amounts of natural resources during their construction and subsequent operation, accounting for around a third of the total energy used globally, and demand exploitation of natural resources to supply the materials. In use, building emissions add to global warming, damage the environment and create waste disposal problems. Buildings can also cause ill health and discomfort for their occupants due to poor air quality and inadequate internal conditions. This course considers the full range of issues associated with sustainable architecture including:

• Energy You will have the opportunity to understand human comfort and energy use and to examine critically the links between energy consumption and emissions of carbon dioxide. This includes an exploration of energy assessment methods for both domestic and non-domestic buildings in a variety of cultural and climatic contexts.

• Materials and resources You will have the opportunity to be able to examine the relationships between resource use and the design of building fabric, and both passive and active mechanisms for human control of the environment and environmental services.

• Global environment The course is suitable for students from a variety of cultural backgrounds and from different climatic regions. You will have the opportunity to consider the differences and similarities of built environments around the globe and to seek innovative approaches to the development of appropriate architecture in widely different contexts.

• Health and well being Central to the course ethos is the notion of user-centred design. All design aims to improve life. But in complex scenarios of construction the user, as the primary beneficiary of architecture, can become overlooked. The course aims to ask you to question the needs of the user and examine human comfort in relation to the quality of the built environment.

In all of these aspects you are asked to develop your own perspective and attitude, as part of your own continuing professional development. A key aspect of the course is that we ask you to become pro-active researchers in a complex field, making connections between a huge range of information and responding innovatively and with enterprise. At the heart of the student experience lie the shared experience of personal growth and development and the acquisition of knowledge, skills and understanding pertinent to the individual in developing their own careers in the field.

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This MSc teaches an international community of students about the latest advances in clean power developments and enables graduates to design and develop benign renewable energy solutions that can be implemented in countries around the world. Read more
This MSc teaches an international community of students about the latest advances in clean power developments and enables graduates to design and develop benign renewable energy solutions that can be implemented in countries around the world.

It is aimed at engineers and natural scientists pursuing or wishing to pursue a career in the renewable energy sector, particularly those in technical positions e.g. systems designers, technical consultants and R&D engineers and scientists.

Core study areas include solar power, wind power, water power, biomass, sustainability and energy systems, integration of renewables and a research project.

Optional study areas include advanced solar thermal, advanced photovoltaics, advanced wind, energy storage, energy system investment and risk management.

See the website http://www.lboro.ac.uk/study/postgraduate/programmes/departments/eese/renewable-energy-systems-tech/

Programme modules

Compulsory Modules:
- Solar Power
- Wind Power 1
- Water Power
- Biomass
- Sustainability and Energy Systems
- Integration of Renewables
- Research Project

Optional Modules (choose three):
- Advanced Solar Thermal
- Advanced Photovoltaics
- Wind Power 2
- Energy Storage
- Energy System Investment and Risk Management

How will you learn

You can select options to develop a chosen specialism in greater depth, including through your individual project which is often carried out with renewable energy companies or alongside the research portfolio of our international experts.

This is a very practical course backed up by strong theoretical understanding of the principles and facts behind renewable energy production.

Assessment is via a mixture of written and practical coursework and examinations. The individual research project is also assessed by viva. Because of its multidisciplinary nature, assessment may be done in collaboration with academic colleagues from Civil Engineering, Mechanical Engineering and Materials.

Facilities

We have current industrial equipment and laboratories for PV cell production, PV module production, qualification testing, PV quality control, energy storage research facilities, vacuum glazing, wind flow measurement, and instrumentation for energy consumption and monitoring.

You will benefit from experience with industrial tools and software for system design (e.g. PV Syst, WASP, ReSoft Windfarm, DNV GL Windfarmer), materials research hardware (e.g. pilot lines for commercial solar cell production) and quality control laboratories.

This enables you to acquire the practical skills that industry uses today and builds the foundations for developing your knowledge base throughout their career.

Careers and further study

There is a world-wide shortage of skilled engineers in this field and so the combination of hands on experience with global industry standard tools and techniques and the strong theoretical knowledge which graduates of this course acquire, makes them highly attractive to employers.

Students may carry out their projects as part of a short-term placement in a company and graduates of this course are often fast-tracked in their applications. Consequently we have an extensive network of alumni, many in top jobs.

Why choose electronic, electrical and systems engineering at Loughborough?

We develop and nurture the world’s top engineering talent to meet the challenges of an increasingly complex world. All of our Masters programmes are accredited by one or more of the following professional bodies: the IET, IMechE, InstMC, Royal Aeronautical Society and the Energy Institute.

We carefully integrate our research and education programmes in order to support the technical and commercial needs of society and to extend the boundaries of current knowledge.

Consequently, our graduates are highly sought after by industry and commerce worldwide, and our programmes are consistently ranked as excellent in student surveys, including the National Student Survey, and independent assessments.

- Facilities
Our facilities are flexible and serve to enable our research and teaching as well as modest preproduction testing for industry.
Our extensive laboratories allow you the opportunity to gain crucial practical skills and experience in some of the latest electrical and electronic experimental facilities and using industry standard software.

- Research
We are passionate about our research and continually strive to strengthen and stimulate our portfolio. We have traditionally built our expertise around the themes of communications, energy and systems, critical areas where technology and engineering impact on modern life.

- Career prospects
90% of our graduates were in employment and/or further study six months after graduating. They go on to work with companies such as Accenture, BAE Systems, E.ON, ESB International, Hewlett Packard, Mitsubishi, Renewable Energy Systems Ltd, Rolls Royce and Siemens AG.

Find out how to apply here http://www.lboro.ac.uk/study/postgraduate/programmes/departments/eese/renewable-energy-systems-tech/

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The MArch in Digital Architecture and Tectonics focuses on the role and application of materials and technology in the creation of contemporary architecture. Read more
The MArch in Digital Architecture and Tectonics focuses on the role and application of materials and technology in the creation of contemporary architecture.

This course is designed to ensure that the most appropriate technologies are integrated into comprehensive design thinking. As such, it provides insight into recent technological developments in the fields of structures morphology, performance orientated design, digital modelling, rapid prototyping technologies, advanced materials and construction methods.

An innovative feature of this course in the interdisciplinary nature where architects, engineering and individuals from associated disciplines work together in the design studio.

Students will develop:

an understanding of the current international challenge to reduce energy consumption
the economical need to enhance user comfort in existing and new buildings
the opportunities offered by novel materials and structures
the ability to communicate ideas effectively in written reports,
verbally and by means of presentations to groups
the ability to exercise original thought
the ability to plan and undertake an individual project
interpersonal, communication and professional skills

Previous research projects completed by students on this MSc have included:

A discourse on structure of adaptive building components
Performance based model in generative design - daylight or solar performance as primary criterion
Facade design and fabrication
The integrated design process: An insight into a holistic methodology towards sustainable design

This course does not convey professional accreditation in the UK.

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