X-Rotor PhD Studentship Opportunity: The University of Strathclyde invites applications for a fully funded PhD studentship focusing on the innovative X-Rotor offshore wind turbine concept. This scholarship is part of the Engineering Hydrogen NetZero (EnerHy) CDT program, aimed at enhancing research and training in hydrogen and wind energy technologies.
Designation
PhD Studentship in Wind Energy Research
| Detail | Information |
|---|---|
| Opening Date | Friday, 13 June 2025 |
| Application Deadline | Tuesday, 30 September 2025 |
| Number of Places | 1 |
| Duration | 4 years |
| Funding Includes | Home Fee, Stipend, Travel Costs |
Research Area
The research focuses on the development and optimization of the X-Rotor concept, emphasizing aerodynamics, turbine spacing, and the potential for high-density offshore wind farms.
Location
University of Strathclyde, Glasgow, Scotland
Eligibility/Qualification
- Applicants must have a first-class or upper second-class degree (or equivalent) in any Engineering discipline, Physics, or Maths.
Description
This scholarship provides a comprehensive four-year fully funded studentship, enabling candidates to explore the X-Rotor’s capabilities in revolutionizing offshore wind energy. The program seeks to quantify the benefits of reduced turbine spacing, considering its impact on the levelized cost of energy. The PhD will involve aerodynamic and Computational Fluid Dynamics (CFD) modeling, with potential wind tunnel testing.
Key Objectives:
- Assess the feasibility of reduced turbine spacing.
- Evaluate the aerodynamic performance of the X-Rotor concept.
- Analyze its implications on cost and efficiency in offshore wind energy production.
How to Apply
Interested candidates should submit the following documents via email to:
- Emails: j.carroll@strath.ac.uk and drew.smith@strath.ac.uk
- CV
- Cover Letter
- Academic Transcripts
Last Date to Apply
Tuesday, 30 September 2025
This is an exciting opportunity for graduates looking to contribute to innovative research in renewable energy with potential global impacts on sustainability and energy efficiency.
