Renewable Energy Systems Technology (Full-time) MSc
- Entry requirements:
- 2:1 +
- 1 year
- See separate listing
- Start date:
- October 2018
- UK/EU fees:
- International fees:
by major UK engineering institutions
including the IET, IMechE and Energy Institute.
Our Renewable Energy Systems Technology MSc programme is designed to prepare you for a rewarding career in the rapidly expanding global renewable energy sector.
This is a practical industry-focused programme which is backed up by strong theoretical understanding of the principles and methods behind renewable energy production, distribution, economics and policy.
Delivered by our academic team of international standing together with industrial experts, each bespoke module is informed by our world-class research programme and the latest industry developments. All modules are regularly reviewed to ensure that the Renewable Energy Systems Technology (Full-time)programme is kept up-to-date and maintains relevance in this fast-changing sector.
Our Renewable Energy Systems Technology (Full-time) programme is fully accredited by major UK engineering institutions, including the IET, IMechE and Energy Institute, and fulfils the educational requirements for registration as a Chartered Engineer when presented with a CEng accredited Bachelor’s Degree.
The Centre for Renewable Energy Systems Technology (CREST) is one of the UK’s leading sustainable energy research centres. Our world-class state-of-the-art experimental and simulation laboratories are available for you to use for your project work and coursework assignments. Project work in the labs gives you a chance to work side by side with leading academics and researchers on industrially-relevant problems.
What makes this programme different?
- Practical and industry-focused
- Fulfils the educational requirements for registration as a Chartered Engineer
Who should study this programme?
Our Renewable Energy Systems Technology (Distance Learning) MSc aims to develop a thorough knowledge of the viable renewable energy technologies.
An honours degree (2:1 or above) or equivalent overseas qualification in any engineering or physical science. Other disciplines may be considered if they include strong mathematical, technological and analytical skills. Applicants with a good lower second class (2:2) honours degree may also be considered.
English language requirements
All applicants for admission to Loughborough University must have a qualification in English Language before they can be admitted to any course or programme, whether their first language is English or not. Find out more on our English Language requirements webpage
IELTS: overall 6.5 with minimum 6.0 in each component.
What you'll study
Our modules in our Renewable Energy Systems Technology (Full-time) programme have been carefully developed to provide the breadth and depth of knowledge and skills required by a wide range of employers in the global renewable energy sector.
The Renewable Energy Systems Technology (Full-time) programme covers a wide range of topics; to give you a taster we have expanded on some of the core modules affiliated with this programme and the specific assessment methods associated with each module.
Sustainability and Energy Systems
In this module, you will explore the environmental, technical, political and socio-economic issues associated with world energy use. The causes of climate change are examined, along with the policies and mechanisms designed to mitigate its impacts. Carbon emissions resulting from energy used are evaluated, and various policies for emission reduction are explored.
Aspects of sustainable development in terms of energy security, costs and value of renewable energy are introduced in the context of energy markets. The module is assessed via a multi-disciplinary group project, and includes discussion seminars and workshops that examine the relationships between markets, economics and policy instruments with respect to current renewable energy technologies.
- Climate Change and environmental impacts of energy use
- World energy use and future energy scenarios
- Carbon footprint of electricity systems
- Environmental and social impacts of energy use
- Energy security
- External economic costs and value of renewable energy
- Policies and strategies on carbon reduction (Kyoto, CDM, RE, carbon capture, efficiency measures)
The aim of this module is to examine key factors governing the nature, availability and characteristics of the solar resource and the fundamental concepts of photovoltaics and solar thermal conversion. The fundamental concepts of light are presented, along with the properties of the solar energy resource available for terrestrial energy conversion.
Solar thermal and passive solar systems are mathematically analysed and latest technological developments are discussed. The physics, operation principles and manufacturing procedures of photovoltaic devices are studied analytically. The design and performance of PV systems are analysed, and solar conversion technologies are examined critically in terms of design, efficiency, manufacturing options and costs.
- Solar energy resource
- Solar thermal systems
- Passive solar design for buildings
- Physics and operation of photovoltaic devices
- Basic concepts of semiconductor physics
- Manufacturing of photovoltaic devices
- Applications of pv technology
- Analysing and sizing PV systems
- PV markets
Wind Power 1
The aim of this module is to explore the fundamental concepts of wind power, including wind turbine design, rotor aerodynamics and turbine control. The wind resource is analysed and modelled, and wind energy conversion in terms of the operational principles and characteristics of wind turbines are evaluated.
Aerodynamics, control, design and performance of wind turbines are studied, together with the economic, technical, institutional and environmental aspects of onshore and offshore wind farm development. Practical work includes the use of industry-standard software to design and plan a wind farm.
- Wind characteristics
- Resource assessment and modelling
- Wind turbine aerodynamics
- Turbine design principles, performance assessment and control
- Wind farm development
- Offshore wind power
- Economic, technical, institutional and environmental aspects of on-shore and off-shore wind farms
In this module, students examine a broad range of biomass energy technologies. The principles of biomass metabolisms are discussed, and the current status and the future potential of biomass around the world are considered. Biomass resources and various chemical and biological processes and methodologies that can be used to create biofuels are evaluated.
Energy generation from waste is analysed, along with the physical and chemical nature of municipal waste. The biochemistry processes and engineering involved in anaerobic digestion are presented and practically analysed.
- Bioconversion processes
- Sources of biomass
- Status of biomass as an energy source
- Biomass combustion principles
- Solid waste to energy
- Anaerobic digestion processes
This module is explores the principles governing the availability of hydro power in its onshore form as well as in the form of wave and tidal power. Hydro power resources are analysed and the methodologies for calculating the power available at a hydro site are presented. The features and operation principles of hydropower stations are considered.
The fundamental concepts of different types of water turbines are analysed. Wave energy devices and tidal power schemes are also evaluated, and explored experimentally in a practical laboratory setting.
- Assessment of hydro power resources
- Hydrodynamics principles
- Flow measurement techniques for hydropower sites
- Features of hydropower schemes
- Water turbine types and operational principles
- Conventional hydropower including micro-hydro
- Wave energy and other marine conversion technologies
- Tidal power
- Air turbines
Integration of Renewables
This module provides an insight into the key electrical engineering principles associated with renewable energy systems, particularly in terms of the integration of renewable energy systems into electrical power networks. The module presents internationally applicable principles rather than country-specific regulations and practices.
A simulation-based network analysis coursework activity provide a deep insight into important aspects of grid integration, and provides a solid foundation for future electrical network professional practitioners.
- Architectures for transmission and distribution systems
- Loads, generation and power balance
- Synchronous and induction generators
- Power-electronic converters
- Active, reactive and apparent power
- Three-phase supplies
- Voltage control
- Load flow analysis and fault level assessment
- Distributed generation and islanding
In this module, you will develop specialist knowledge of solar photovoltaic (PV) technologies, blending the fundamental underlying science with practical implementation. Students will gain advanced knowledge of PV technologies, ranging from current research into solar cell materials to the design, implementation and performance assessment of full PV systems. Techniques for characterisation and performance modelling will equip you with the professional-level skills required to assess different PV technologies and optimise system designs.
The physical limits to efficiency of established PV technologies are explored, along with state-of-the-art commercial and research devices and leading-edge approaches that exceed the limitations of established technologies. PV system design, performance assessment and energy yield estimation are covered through lectures and system design coursework. The module is especially useful for those going on to researcher, technologist, designer or consultant roles in the PV sector.
- Physics of PV cells
- PV materials analysis (structural, optical and electrical)
- Silicon and thin film PV design and properties
- Characterisation and modelling of PV devices
- PV system design, optimisation, performance assessment and modelling
- PV system losses, failures and degradation issues
Solar Thermal Systems
In this module, you will examine advanced solar thermal applications in considerable depth. Collection and storage of solar energy as well as heat flows in buildings is analysed. The operating principles of solar thermal collectors and heat pumps are studied. The fundamentals and properties of concentrating solar thermal power systems are presented and the Rankine steam cycles for power generation are analysed. Finally, the key principles of energy efficient and passive solar building design are examined
- Concentrating solar power systems
- Solar thermal systems analysis
- Passive solar design
- Heat pump systems
- Passive solar heating of buildings
- Dynamic thermal analysis
- Solar thermal systems advanced analysis
- Concentrating solar thermal systems
- Analysis of Rankine cycle technology
The aim of this module is to provide students with knowledge of the fundamental aspects of hydrogen, thermal and electrochemical energy storage technologies and the integration of energy storage into low carbon energy systems. The characteristics and technology options for hydrogen as an energy storage medium are explored, whilst the key aspects of electrochemistry and its application to devices for energy storage are considered.
The working principles, advantages and limitations of batteries and supercapacitors are studied, along with the characteristics, physics and performance of a variety of current mechanical and thermal energy storage systems. Finally, the role of both thermal and electrical energy storage in providing whole-system flexibility are evaluated.
- Hydrogen production and storage
- Fuel cells
- Electrochemical energy storage
- Mechanical and thermal storage
- Practical applications of energy storage
- Storage system design and integration
Energy System Investment and Risk
This module provides a solid grounding in the knowledge and skills required for effective whole life-cycle investment decision making and risk management for the energy sector. The nature of energy systems is examined, with a focus on electricity generation and use.
Techno-economic parameters for various electrical generation systems are explored including renewable, nuclear and thermal technologies. Economic evaluation skills using cash flow analysis are developed, and competitive electricity markets are analysed using an energy market simulation platform. Key aspects of uncertainty and risk in energy systems are explored, and risk modelling approaches are applied practically using a community-scale energy case study.
- Energy economics
- Due diligence and risk
- Systems lifecycle modelling
- Investment modelling
- Policy aspects and risk
- Regulation and socio-economics
- Energy demand and storage
- Investment case studies
This module includes an in depth analysis of advanced modelling techniques for the wind resource, and examines some of the more detailed aspects of resource assessment and resource modelling in complex terrain and offshore environments. It also explores reliability and health monitoring strategies of wind turbine structures necessary for the design and operation of wind turbines, particularly in offshore contexts, together with an examination of various types of turbine failures during operation. Offshore wind farm grid connection aspects are also covered.
- Resource estimation in complex environments
- Forces and dynamics of wind turbines
- Reliability and condition monitoring
- Offshore wind farm grid connection
- Offshore wind farm project management
- Wind turbine wake analysis
How you will be assessed
Assessment is via examination, coursework, group work and an individual research project.
Examinations are held in January and May/June with coursework and group work milestones set throughout the programme. The individual MSc research project is assessed by a written dissertation and oral presentation. Students receive regular feedback on their progress from on-line support officers, tutors and academic staff.
How you'll study
Your personal and professional development
The School of Mechanical, Electrical and Manufacturing Engineering is committed to helping you develop the skills and attributes you need to progress successfully in your chosen career.
Future career prospects
Our graduates work world-wide in senior posts across fields as diverse as research and manufacturing, project development, consultancy, finance, policy and international development.
Graduate destinations include:
- EDF Energy
- DNV GL
- Mott MacDonald
- PricewaterhouseCoopers Siemens AG
- EDF France
- OST Energy
- Parsons Brinckerhoff
- Petrocon Brunei
- Statnett SF
Your personal development
On successful completion of this programme you should be able to
- Manipulate, sort and present data in a range of forms
- Use evidence based methods in the solution of complex problems
- Work with limited, incomplete and/or contradictory information in the solution of unfamiliar problems
- Use an engineering approach to the solution of problems in unfamiliar situations
- Be creative and innovative in problem solving
- Work effectively as part of a team
- Use a wide range of information and communications technology
- Manage time and resources
- Communicate effectively orally, visually and in writing at an appropriate level
- Learn effectively, continuously and independently in a variety of environments.
Fees and funding
Tuition fees cover the cost of your teaching, assessment and operating University facilities such as the library, IT equipment and other support services. University fees and charges can be paid in advance and there are several methods of payment, including online payments and payment by instalment. Special arrangements are made for payments by part-time students.