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nanoagents aim at converting optical energy into heat to induce hyperthermia and a stress response in targeted biological tissues. From an external optical excitation, the energy is absorbed by the nanoagents
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spectroscopy with this equipment. Photothermal therapeutic nanoagents aim at converting optical energy into heat to induce hyperthermia and a stress response in targeted biological tissues. From an external
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, geothermal heat, and industrial waste heat all play critical roles. One promising solution for harnessing these energy sources is the supercritical CO2 (sCO2) Brayton cycle, which offers high thermodynamic
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high cycle efficiency, compact equipment size and their applicability to the exploitation of industrial waste heat sources. In project REVCO2, four research laboratories (CETHIL, Lafset, LMFA and LUSAC
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the melting of the metal wire by a concentrated electric arc to the droplet-by-droplet deposition of material into the molten pool generated by the same electric arc heat source. In situ and ex situ
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, one aspect could be overlooked: heat transfer and the risk of thermal runaway. Thermal runaway remains a significant safety risk in the chemical industry, accounting for nearly 25% of accidents [1
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., Dziri, A., Sirvin, Q., & Legros, M. (2024). Increase in elastic and hardness anisotropy of titanium with oxygen uptake due to high temperature oxidation: A multimodal framework using high speed
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are challenging to control in turbulent burners. An alternative investigated in this PhD is the use of porous burner technology. The recirculation of heat within the porous material can stabilize flames at low FAER
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pollutants, thus limiting their migration, but, likely, its degradation by high temperatures or by smoldering fires spreading in peat soils will cause pollutants to be released into surface or groundwater
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optical properties is important. The PhD thesis aims at developing the deposition process to get ultra-high purity amorphous-SiC thin films by HWCVD (Hot Wire Chemical Vapor Deposition) and PVD (Magnetron