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About the Project An exciting PhD project on the effects of heat transfer of transitional compressible boundary layers will be carried out under the UK Hypersonics Doctoral Network, which has been
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fluxes up to 300 kg/m²·s), gas velocities up to 1000 m/s, and heat transfer coefficients up to 35,000 W/m²·K. Under such conditions, conventional ceramic materials undergo rapid degradation through
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, pressures up to 10 MPa, mass fluxes up to 6500 kg/m²·s (including particulate fluxes up to 300 kg/m²·s), gas velocities up to 1000 m/s, and heat transfer coefficients up to 35,000 W/m²·K. Under
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thermal sciences and the motivation to work across neutronics, heat transfer, and simulation workflows. Eligibility Applicants should have (or expect to achieve) a strong degree, i.e., at least a 2.1
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complex problem that combines radiative heat transfer, optical engineering, and high-temperature system design. While simplified models often assume idealized geometries or perfect emitters and reflectors
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multiphysics models to investigate aquifer-based compressed air energy storage (CAES) systems. The research will involve coupling fluid flow, heat transfer, geomechanics, and potentially reactive transport
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, transformed into heat and then transferred to the surrounding medium. At the macroscopic scale, a continuous laser excitation of a collection of nanoagents leads to a global heating until a steady state is
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solver tailored to prismatic HTGRs, capable of resolving heat transfer at the TRISO particle, fuel compact, and graphite block levels, and tightly coupled to a Monte Carlo neutronics solver. Applicants
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for Separation and Heat Transfer Applications" and the PhD Student will be positioned to the section for “Thermal Engineering”. Your competencies You have a Master’s degree in Energy Engineering or Thermal
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optical excitation, the energy is absorbed by the nanoagents, transformed into heat and then transferred to the surrounding medium. At the macroscopic scale, a continuous laser excitation of a collection of