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are conventionally operated as baseload assets, yet coupling HTGRs with large-scale thermal energy storage (TES) could fundamentally alter this paradigm. By storing surplus reactor heat during periods of low demand
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. Empa is a research institution of the ETH Domain. We are looking for a motivated researcher to join an interdisciplinary project focused on heat stress mitigation across multiple application domains
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exposed to very high pressures and temperatures, as well as high shear rates. Reliable measurements under such conditions are essential for the design of efficient, durable and electrified machinery, yet
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of the process, process stability and the interaction between the part and the tooling. This project will develop the fundamental understanding of the thermo-mechanical effects and material flow within the high
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Ionic Thermoelectric–Electronic Bridging (HEAT-BRIDGE)”, which seeks to establish new routes for efficient conversion of low-grade heat into electricity. Low-grade heat is abundant in our surroundings
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produced annually worldwide, allowing their storage for 1 to 3 years. These powders are obtained through a succession of thermal unit operations (heat treatment, concentration, drying) which, given
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performance of materials and devices. Contribution to scalable fabrication of multi-cell devices and their validation using representative low-grade heat sources. Analysis and interpretation of experimental
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Thermal batteries (often termed primary reserve batteries) offer several key advantages over primary and secondary batteries due to their long shelf life, high temperature stability, quick
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micromachining, selective metallisation and new photosensitive materials, without high-temperature sintering and with minimal material waste. The work is experimental, carried out in our own laboratories together
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In a fusion reactor its walls must endure intense heat fluxes as well as a constant bombardment of neutrons and plasma species. Traditionally solid materials such as tungsten have been the primary