🎓 Discover PhD and Master's programmes at leading universities worldwide — Sign up free to save searches and get email alerts
XJU

Urban Building Cluster Morphology Optimization based on Accumulative Heat Exhaustion from Clustered Photovoltaic Systems on Urban Microclimate

✓ Fully Funded 🎓 Architecture & Planning 🎓 Civil Engineering 🎓 Computer Science 🎓 Design 🎓 Engineering Python numerical simulation MATLAB Urban microclimate building cluster morphology heat exhaust low-carbon urban design photovoltaic systems urban heat island

This PhD investigates the heat exhaust from dense urban photovoltaic (PV) clusters and its effects on local microclimate, aiming to develop multi-scale simulations to optimise building cluster morphology for thermal comfort, PV efficiency, and low-carbon urban design.

Project Description

Photovoltaic panels release waste heat during power generation, and when clustered densely in urban areas, this heat can accumulate and interact with atmospheric processes. This “clustered heat exhaust effect” may counteract cooling benefits and exacerbate urban heat islands. Over four years, the project will integrate building physics and urban climatology to: Develop an efficient multi-scale simulation platform for urban building clusters. Quantify the trade-off between PV heat exhaust and shading effects under varying urban morphologies and climates. Identify dominant mechanisms and thresholds affecting local microclimate and PV performance. Propose optimisation frameworks for urban building cluster morphology to improve thermal comfort and sustainable energy efficiency. Research will involve numerical experiments and computational modelling using MATLAB or Python. Students may conduct research visits to XJTU and University of Liverpool as part of the joint programme.

Entry Requirements

UK first-class or 2:1 Bachelor’s degree + Master’s with Merit in Civil Engineering or related field (exceptional Bachelor’s-only candidates may be considered).
Proficiency in English (IELTS ≥6.5 or equivalent).
Strong written and spoken communication skills and programming experience in MATLAB or Python.
Track record of publications is desirable.

How to Apply

Send the following to Jelena.Andric@xjtlu.edu.cn
(include project title in subject line):

CV
Two reference letters
Personal statement
English language certificates
Academic transcripts
Verified educational certificates
Master’s dissertation or equivalent writing sample

Eligibility

UK/Home
EU
International

Supervisor Profile

DJ
Dr Jelena M. Andrić
Xi’an Jiaotong-Liverpool University (XJTLU) – Design School, Design School

Related Opportunities

AI-Driven Adaptive Mobility for Resilient Transport in Flood-Prone Urban River Basins
Monash University Malaysia Dr Susi Susilawati 🎓 Artificial Intelligence 🎓 Civil Engineering

Explore AI-driven solutions to improve transport resilience during floods in urban river basins. Develop adaptive plans integrating flood data and local insights to enhance equitable evacuation strategies and reduce dis…

This research tackles real-world mobility challenges caused by flooding, which disrupts access to services and disproportionately affects v…

1348+ citations · h17
Traffic Engineering
Multi-Scale Computational Framework for Charge Transport and Thermoelectric Properties in Self-Assembled Monolayer Molecular Junctions
Maynooth University Prof. Pierre Cazade 🎓 Biochemistry 🎓 Chemistry Deadline: 01 May 2026

Develop models to predict charge transport and thermoelectric behavior in molecular junctions. Explore nanoscale thermoelectrics for waste heat recovery. Collaborate internationally to bridge molecular design and device…

This research aims to enable rational design of molecular electronic devices, improving nanoscale energy harvesting technologies such as mo…

Charge Transport Thermoelectric Properties Molecular Junctions Self-Assembled Monolayers
Synergistic acoustic-electrostatic-inertial separation of microplastics from blood: concept and development
Monash University Malaysia Dr Ajay Achath Mohanan 🎓 Biomedical Engineering 🎓 Engineering

Investigate novel separation techniques combining acoustic, electrostatic, and inertial forces to remove microplastics from blood. Develop innovative biomedical devices with potential clinical applications to reduce hea…

This research aims to develop clinically applicable devices to separate microplastics from blood, potentially mitigating associated health …

154+ citations · h7
Microplastics Acoustic Separation Electrostatic Separation Microfluidics
Microwave Quantum Memories for Hybrid Quantum Systems
University College London Prof John JL Morton 🎓 Electronic Engineering 🎓 Engineering

Investigate and enhance microwave quantum memories by optimizing spin coherence and superconducting circuits. Develop technologies for storing and retrieving microwave photons to advance hybrid quantum computing.

Developing spin-based microwave quantum memories addresses the critical need for long-lived quantum information storage in hybrid quantum c…

16129+ citations · h58
Quantum information magnetic resonance