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Controlled and uniform cooling of steel and ceramics products to reduce residual stresses and defects.

The successful applicant will look closely into the current existing methods of controlled cooling of products derived from the ceramic and steel production facilities. After building a state of the art of the up-to-today reported controlled cooling techniques such as heat pipes, the most efficient and recommended technologie(s) will be identified. Then, based on theoretical, computational (using design, CFD and simulation software), and experimental analyses, the researcher will investigate how, through an appropriate uniform cooling technique, residual stresses and other defects within the production can be eliminated. The research will focus on developing and modelling an efficient method of controlled cooling for the mentioned industries to show how an effective design can be developed to achieve better thermal and metallurgical specifications. To investigate the effectiveness of the develop model, the behaviour of the system under different thermal loads and conditions will be further simulated. Theoretical models and numerical simulations will later be validated through both lab scale test rigs and on-site experiments in the factories facilities. The researcher will have the opportunity to present the outcome of the research by publishing in international conferences and journals.

The applicant must be willing to work in a team-based and dynamic environment and show an intensive interest in developing new ideas and self-thought approaches to solve the research question. In this regard, it is expected from the student to indicate why the topic is of their interest and how the conducting the research will potentially satisfy their future prospects and career plans.

[1] B. Delpech, B. Axcell, and H. Jouhara, “Experimental investigation of a radiative heat pipe for waste heat recovery in a ceramics kiln,” Energy, vol. 170, pp. 636–651, Mar. 2019.

[2] B. Delpech et al., “Energy efficiency enhancement and waste heat recovery in industrial processes by means of the heat pipe technology: Case of the ceramic industry,” Energy, vol. 158, pp. 656–665, Sep. 2018.

[3] H. Jouhara, B. Fadhl, and L. C. Wrobel, “Three-dimensional CFD simulation of geyser boiling in a two-phase closed thermosyphon,” Int. J. Hydrogen Energy, vol. 41, no. 37, pp. 16463–16476, Oct. 2016.

[4] N. Khordehgah, V. Guichet, S. P. Lester, and H. Jouhara, “Computational study and experimental validation of a solar photovoltaics and thermal technology,” Renew. Energy, vol. 143, pp. 1348–1356, Dec. 2019.

[5] A. Chauhan, J. Trembley, L. C. Wrobel, and H. Jouhara, “Experimental and CFD validation of the thermal performance of a cryogenic batch freezer with the effect of loading,” Energy, vol. 171, pp. 77–94, Mar. 2019.

[6] S. Almahmoud and H. Jouhara, “Experimental and theoretical investigation on a radiative flat heat pipe heat exchanger,” Energy, vol. 174, pp. 972–984, May 2019.

[7] B. Fadhl, L. C. Wrobel, and H. Jouhara, “Numerical modelling of the temperature distribution in a two-phase closed thermosyphon,” Appl. Therm. Eng., vol. 60, no. 1–2, pp. 122–131, Oct. 2013.

[8] H. Jouhara and R. Meskimmon, “Experimental investigation of wraparound loop heat pipe heat exchanger used in energy efficient air handling units,” Energy, vol. 35, no. 12, pp. 4592–4599, Dec. 2010.

[9] J. Ramos, A. Chong, and H. Jouhara, “Experimental and numerical investigation of a cross flow air-to-water heat pipe-based heat exchanger used in waste heat recovery,” Int. J. Heat Mass Transf., vol. 102, pp. 1267–1281, Nov. 2016.

[10] V. Guichet, S. Almahmoud, and H. Jouhara, “Nucleate pool boiling heat transfer in wickless heat pipes (two-phase closed thermosyphons): A critical review of correlations,” Therm. Sci. Eng. Prog., vol. 13, 2019.

[11] V. Guichet and H. Jouhara, “Condensation, evaporation and boiling of falling films in wickless heat pipes (two-phase closed thermosyphons): A critical review of correlations,” Int. J. Thermofluids, p. 100001, Oct. 2019.

[12] A. Chauhan, J. Herrmann, T. Nannou, J. Trembley, L. Wrobel, and H. Jouhara, “CFD model of a lab scale cryogenic batch freezer with the investigation of varying effects on the heat transfer coefficient,” Energy Procedia, vol. 123, pp. 256–264, Sep. 2017.

[13] H. Jouhara et al., “Experimental investigation on a flat heat pipe heat exchanger for waste heat recovery in steel industry,” in Energy Procedia, 2017, vol. 123, pp. 329–334.

[14] O. Obeid, G. Alfano, H. Bahai, and H. Jouhara, “A parametric study of thermal and residual stress fields in lined pipe welding,” Therm. Sci. Eng. Prog., vol. 4, pp. 205–218, Dec. 2017.

How to apply

If you are interested in applying for the above PhD topic please follow the steps below:

  1. Contact the supervisor by email or phone to discuss your interest and find out if you woold be suitable. Supervisor details can be found on this topic page. The supervisor will guide you in developing the topic-specific research proposal, which will form part of your application.
  2. Click on the 'Apply here' button on this page and you will be taken to the relevant PhD course page, where you can apply using an online application.
  3. Complete the online application indicating your selected supervisor and include the research proposal for the topic you have selected.

Good luck!

This is a self funded topic

Brunel offers a number of funding options to research students that help cover the cost of their tuition fees, contribute to living expenses or both. See more information here: https://www.brunel.ac.uk/research/Research-degrees/Research-degree-funding. The UK Government is also offering Doctoral Student Loans for eligible students, and there is some funding available through the Research Councils. Many of our international students benefit from funding provided by their governments or employers. Brunel alumni enjoy tuition fee discounts of 15%.