Overview
Renewable energy capacity grows faster than any other source — engineers must integrate intermittent generation into reliable grids. This MSc covers photovoltaic and wind system design, energy storage, grid codes, and project finance basics. Labs use simulation tools for resource assessment and yield prediction. Graduates work for utilities, developers, consultancies, and government energy departments.
MSc Renewable Energy Engineering is taught as one award, not a list of unrelated modules. The published length is 24 months, and the credit total is 36. Students move from Energy Systems & Policy through Energy Systems & Policy; Solar Photovoltaic Engineering; Wind Energy Technology; Energy Storage & Hydrogen; Power Electronics & Grid Codes; Energy Economics & Finance, and finish on MSc Renewable Energy Capstone.
Each course has a question, a method, and a submission. In this field, students draw the system, name the constraint that binds it, and compare two responses. Reading is a system description, an indicator note, and a project option paper. The artefact a marker expects is a recommendation for one decision, with the evidence and the downside.
The award is built so that a graduate can do the following in practice: Size solar and wind installations using resource data Model battery storage and hybrid system performance Evaluate LCOE and project finance viability
Teaching assumes the student can read a source, attempt a problem before the seminar, and revise after feedback. Attendance at live seminars is part of the design. The capstone or final course must use the methods of the earlier courses; a project that ignores them does not pass.
This course does not confer a professional engineering licence.
The pages for each course name the topics that are examined. Those topics are the syllabus. A brochure line is not a substitute for them.
Who This Programme Is For
- ✦Electrical and mechanical engineers entering renewables
- ✦Energy analysts moving into technical project roles
- ✦Policy professionals needing engineering literacy
Faculty spotlight
Dr. Yuki Tanaka leads grid integration research; Professor Marcus Chen manages offshore wind feasibility projects for Scottish waters.
Programme Structure & Delivery
Coursework
Interactive modules, weekly readings, recorded and live seminars, and collaborative discussions with peers worldwide.
Assessment
Module assignments, proctored examinations, and capstone projects designed to demonstrate mastery of the field.
Learning Outcomes
- ✦Size solar and wind installations using resource data
- ✦Model battery storage and hybrid system performance
- ✦Evaluate LCOE and project finance viability
- ✦Apply grid connection standards and safety codes
- ✦Assess environmental impact and community consent processes
Career Pathways
- ✦Renewable Energy Engineer
- ✦Grid Integration Specialist
- ✦Energy Project Manager
- ✦Sustainability Consultant
- ✦Policy Technical Advisor
Assessment
Modules are assessed through a published mix of coursework, applied projects, and examinations. Exam windows are announced in advance so students in other time zones are not forced into overnight sittings. Alternative arrangements are available where documented.
Curriculum
Year 1 — Technology
RE501Energy Systems & Policy- RE501-M1 · Forum, rule, and parties — Energy Systems & Policy
- RE501-M2 · Claim, counterclaim, and the facts that would change the result — Energy Systems & Policy
- RE501-M3 · A clause, briefing, or policy note for a named audience — Energy Systems & Policy
- RE501-M4 · Sources, revision, and the strength of the authority — Energy Systems & Policy
- RE501-M5 · Institutions and the limit of the award — Energy Systems & Policy
- RE501-M6 · A supervised paper: question, sources, argument, and defence — Energy Systems & Policy
3 creditsRE502Solar Photovoltaic Engineering- RE502-M1 · System boundary, constraint, and actors — Solar Photovoltaic Engineering
- RE502-M2 · Indicators, sources of error, and a better measure — Solar Photovoltaic Engineering
- RE502-M3 · Two options on cost, time, and downside — Solar Photovoltaic Engineering
- RE502-M4 · Safety, environmental limit, and who bears the risk — Solar Photovoltaic Engineering
- RE502-M5 · A site, grid, or product decision — Solar Photovoltaic Engineering
- RE502-M6 · A recommendation with evidence and residual risk — Solar Photovoltaic Engineering
3 creditsRE503Wind Energy Technology- RE503-M1 · System boundary, constraint, and actors — Wind Energy Technology
- RE503-M2 · Indicators, sources of error, and a better measure — Wind Energy Technology
- RE503-M3 · Two options on cost, time, and downside — Wind Energy Technology
- RE503-M4 · Safety, environmental limit, and who bears the risk — Wind Energy Technology
- RE503-M5 · A site, grid, or product decision — Wind Energy Technology
- RE503-M6 · A recommendation with evidence and residual risk — Wind Energy Technology
3 creditsRE504Energy Storage & Hydrogen- RE504-M1 · System boundary, constraint, and actors — Energy Storage & Hydrogen
- RE504-M2 · Indicators, sources of error, and a better measure — Energy Storage & Hydrogen
- RE504-M3 · Two options on cost, time, and downside — Energy Storage & Hydrogen
- RE504-M4 · Safety, environmental limit, and who bears the risk — Energy Storage & Hydrogen
- RE504-M5 · A site, grid, or product decision — Energy Storage & Hydrogen
- RE504-M6 · A recommendation with evidence and residual risk — Energy Storage & Hydrogen
3 creditsYear 1 — Integration
RE505Power Electronics & Grid Codes- RE505-M1 · System boundary, constraint, and actors — Power Electronics & Grid Codes
- RE505-M2 · Indicators, sources of error, and a better measure — Power Electronics & Grid Codes
- RE505-M3 · Two options on cost, time, and downside — Power Electronics & Grid Codes
- RE505-M4 · Safety, environmental limit, and who bears the risk — Power Electronics & Grid Codes
- RE505-M5 · A site, grid, or product decision — Power Electronics & Grid Codes
- RE505-M6 · A recommendation with evidence and residual risk — Power Electronics & Grid Codes
3 creditsRE506Energy Economics & Finance- RE506-M1 · Statements: income, position, and cash — Energy Economics & Finance
- RE506-M2 · Recognition, ratios, and what the numbers cannot show — Energy Economics & Finance
- RE506-M3 · Cash flows, discount rates, and sensitivity — Energy Economics & Finance
- RE506-M4 · Market, credit, and operating risk — Energy Economics & Finance
- RE506-M5 · Controls, exceptions, and reporting — Energy Economics & Finance
- RE506-M6 · An investment or operating recommendation — Energy Economics & Finance
3 creditsRE507Environmental Impact Assessment- RE507-M1 · System boundary, constraint, and actors — Environmental Impact Assessment
- RE507-M2 · Indicators, sources of error, and a better measure — Environmental Impact Assessment
- RE507-M3 · Two options on cost, time, and downside — Environmental Impact Assessment
- RE507-M4 · Safety, environmental limit, and who bears the risk — Environmental Impact Assessment
- RE507-M5 · A site, grid, or product decision — Environmental Impact Assessment
- RE507-M6 · A recommendation with evidence and residual risk — Environmental Impact Assessment
3 creditsRE508Research Methods- RE508-M1 · System boundary, constraint, and actors — Research Methods
- RE508-M2 · Indicators, sources of error, and a better measure — Research Methods
- RE508-M3 · Two options on cost, time, and downside — Research Methods
- RE508-M4 · Safety, environmental limit, and who bears the risk — Research Methods
- RE508-M5 · A site, grid, or product decision — Research Methods
- RE508-M6 · A recommendation with evidence and residual risk — Research Methods
3 creditsYear 2
RE601Smart Grids & Demand Response- RE601-M1 · System boundary, constraint, and actors — Smart Grids & Demand Response
- RE601-M2 · Indicators, sources of error, and a better measure — Smart Grids & Demand Response
- RE601-M3 · Two options on cost, time, and downside — Smart Grids & Demand Response
- RE601-M4 · Safety, environmental limit, and who bears the risk — Smart Grids & Demand Response
- RE601-M5 · A site, grid, or product decision — Smart Grids & Demand Response
- RE601-M6 · A recommendation with evidence and residual risk — Smart Grids & Demand Response
3 creditsRE602Renewable Asset Optimization & Storage- RE602-M1 · System boundary, constraint, and actors — Renewable Asset Optimization & Storage
- RE602-M2 · Indicators, sources of error, and a better measure — Renewable Asset Optimization & Storage
- RE602-M3 · Two options on cost, time, and downside — Renewable Asset Optimization & Storage
- RE602-M4 · Safety, environmental limit, and who bears the risk — Renewable Asset Optimization & Storage
- RE602-M5 · A site, grid, or product decision — Renewable Asset Optimization & Storage
- RE602-M6 · A recommendation with evidence and residual risk — Renewable Asset Optimization & Storage
3 creditsRE603MSc Renewable Energy Capstone- RE603-M1 · System boundary, constraint, and actors — MSc Renewable Energy Capstone
- RE603-M2 · Indicators, sources of error, and a better measure — MSc Renewable Energy Capstone
- RE603-M3 · Two options on cost, time, and downside — MSc Renewable Energy Capstone
- RE603-M4 · Safety, environmental limit, and who bears the risk — MSc Renewable Energy Capstone
- RE603-M5 · A site, grid, or product decision — MSc Renewable Energy Capstone
- RE603-M6 · A recommendation with evidence and residual risk — MSc Renewable Energy Capstone
6 creditsAdmission requirements
Academic entry
- Bachelor's degree from an accredited institution (minimum 2:2 or GPA 2.5/4.0)
- Engineering, physics, or related quantitative degree preferred
English language
- English proficiency: IELTS 5.5, TOEFL 46, or equivalent (waived for prior English-medium study)
Documents
- Statement of Purpose (500 words minimum) outlining your goals and fit for the programme
- Two academic or professional references with contact details
- CV or résumé documenting relevant education and professional experience
Programme questions
How long is the MSc Renewable Energy Engineering?+
The published duration is 24 months. Teaching language: English. Actual time-to-complete depends on mode and any recognised prior learning.
Can I study this from my country?+
This is a fully online award. You study from your country. No student visa and no campus relocation are required.
What does it cost?+
Degree tuition for this award is published as £0 / tuition-free on the online pathway. Examination or administrative fees may apply at checkout — never an annual tuition invoice. Check the Fees page for any extras.
What are the entry requirements?+
Requirements are grouped on this page (academic, English, documents). Equivalent qualifications are considered. English may be waived after prior English-medium study.
How is the programme assessed?+
Assessment is typically a mix of coursework, projects, and examinations. Doctoral awards include a thesis or dissertation and an oral examination. Details sit in the programme specification and module outlines.
Will this award be recognised where I live?+
Recognition of the award for local employment, professional licence, or ministry attestation is decided by your employer or regulator. Durham University publishes verification pages for certificates. We do not claim automatic equivalence in every country.
How do I apply?+
Start an application on this website. Progress is saved from the first step. Admissions: admissions@durhm.co.uk.