This project is funded by:
The effects of global warming have impacted people’s daily lives around the world with more frequency in the last 20 years. The heatwave of 2003 in Europe evidenced that overheated houses could increase the excess deaths of people in vulnerable conditions (due to illness and/or advanced age) at a large scale. According to the World Meteorological Organisation (WMO), 2024 has been the year with the highest temperatures recorded around the world on record. It is estimated that by 2050 the global temperature will increase by 3˚C with respect to 2020. These increases in temperature have been noticeable in recent years with heatwaves, extreme temperatures, and draughts.
Rising temperatures from climate change create added challenges, which are often fatal due to the increased load on cardiovascular systems. Cardiovascular diseases are the main cause of deaths in the UK, and hence attention should be given to monitoring and enhancing the spaces inhabitated by its occupants, in particular vulnerable ones.
This PhD project focuses on developing an IoT-based cardiovascular-responsive personalised Thermal Comfort model in Smart Homes. By integrating real-time biofeedback, IoT sensors (ambient and wearable), and advanced Deep Learning algorithms, this model would dynamically adjust indoor environmental conditions to support cardiovascular health of its occupants, and considering the ones who are more vulnerable to temperature fluctuations and their effects on heart rate, blood pressure, and overall vascular stability.
The PhD project would yield a personalized indoor environmental control system for Smart Homes that minimizes cardiovascular risks associated with indoor temperature and humidity variations. By linking thermal comfort with cardiovascular stability, this model would redefine thermal comfort standards for Smart Homes, providing a pioneering tool that not only enhances comfort but also actively promotes cardiovascular health in general and in vulnerable users. This could lead to a new standard for health-focused environmental control systems.
The School of Computing at Ulster University holds Athena Swan Bronze Award since 2016 and is committed to promote and advance gender equality in Higher Education. We particularly welcome female applicants, as they are under-represented within the School.
Applicants should hold, or expect to obtain, a First or Upper Second Class Honours Degree in a subject relevant to the proposed area of study.
We may also consider applications from those who hold equivalent qualifications, for example, a Lower Second Class Honours Degree plus a Master’s Degree with Distinction.
In exceptional circumstances, the University may consider a portfolio of evidence from applicants who have appropriate professional experience which is equivalent to the learning outcomes of an Honours degree in lieu of academic qualifications.
If the University receives a large number of applicants for the project, the following desirable criteria may be applied to shortlist applicants for interview.
The University is an equal opportunities employer and welcomes applicants from all sections of the community, particularly from those with disabilities.
Appointment will be made on merit.
This project is funded by:
Our fully funded PhD scholarships will cover tuition fees and provide a maintenance allowance of £19,237 (tbc) per annum for three years (subject to satisfactory academic performance). A Research Training Support Grant (RTSG) of £900 per annum is also available.
These scholarships, funded via the Department for the Economy (DfE) and the Vice Chancellor’s Research Scholarships (VCRS), are open to applicants worldwide, regardless of residency or domicile.
Applicants who already hold a doctoral degree or who have been registered on a programme of research leading to the award of a doctoral degree on a full-time basis for more than one year (or part-time equivalent) are NOT eligible to apply for an award.
Due consideration should be given to financing your studies.
1. ASHRAE, ANSI/ASHRAE Standard 55-2013, Thermal environmental conditions for human occupancy. 2013: Atlanta, Ga.
2. Brik, B., Esseghir, M., Merghem-Boulahia, L. and Snoussi, H., 2021. An IoT-based deep learning approach to analyse indoor thermal comfort of disabled people. Building and Environment, 203, p.108056.
3. Fanger, P.O., Thermal comfort. Analysis and applications in environmental engineering. Thermal comfort. Analysis and applications in environmental engineering., 1970.
4. Garcia-Constantino, M., Konios, A., Mustafa, M.A., Nugent, C. and Morrison, G., 2020, March. Ambient and wearable sensor fusion for abnormal behaviour detection in activities of daily living. In 2020 IEEE International Conference on Pervasive Computing and Communications Workshops (PerCom Workshops) (pp. 1-6). IEEE.
5. Garcia-Constantino, M., Orr, C., Synnott, J., Shewell, C., Ennis, A., Cleland, I., Nugent, C., Rafferty, J., Morrison, G., Larkham, L. and McIlroy, S., 2021. Design and implementation of a smart home in a box to monitor the wellbeing of residents with dementia in care homes. Frontiers in Digital Health, 3, p.798889.
6. Khraishah, H., Alahmad, B., Ostergard Jr, R.L., AlAshqar, A., Albaghdadi, M., Vellanki, N., Chowdhury, M.M., Al-Kindi, S.G., Zanobetti, A., Gasparrini, A. and Rajagopalan, S., 2022. Climate change and cardiovascular disease: implications for global health. Nature Reviews Cardiology, 19(12), pp.798-812.
7. Kjellstrom, T. and A.J. McMichael, Climate change threats to population health and well-being: the imperative of protective solutions that will last. Global health action, 2013. 6(1): p. 20816.
8. Nicol, J.F. and M.A. Humphreys, Thermal comfort as part of a self-regulating system. Building Research and Practice, 1973. 1(3): p. 174-179.
9. Song, Y., Mao, F. and Liu, Q., 2019. Human comfort in indoor environment: a review on assessment criteria, data collection and data analysis methods. IEEE Access, 7, pp.119774-119786.
10. Zepeda-Gil, C. and S. Natarajan, Thermal comfort in naturally ventilated dwellings in the central Mexican plateau. Building and Environment, 2022. 211: p. 108713.
11. Zepeda-Gil, C., Garcia-Constantino, M. and Konios, A., 2024. Design of low-cost sensor-based solution to support thermal comfort. Proceedings of the International Conference on Ubiquitous Computing & Ambient Intelligence (UCAmI 2024). UCAmI 2024. Lecture Notes in Networks and Systems. Springer, Cham.
12. Zhang, W., Hu, W. and Wen, Y., 2018. Thermal comfort modeling for smart buildings: A fine-grained deep learning approach. IEEE Internet of Things Journal, 6(2), pp.2540-2549.
Submission deadline
Monday 24 February 2025
04:00PM
Interview Date
April 2025
Preferred student start date
15 September 2025
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