Using oxides to compute with heat

Abstract

One of the most innovative possibilities offered by oxides is the use of heat currents for computational purposes. Towards this goal, phase-change oxides, including ferroelectrics, ferromagnets and related materials, could reproduce sources, logic units and memories used in current and future computing schemes.

References in corpus (4)

• An oxide thermal rectifier
• Electric control of the heat flux through electrophononic effects
• Dynamical response of a radiative thermal transistor based on suspended insulator-metal transition membranes
• Influence of ferroelastic domain walls on thermal conductivity

Cited by in corpus (7)

• Effective reduction in thermal conductivity by high-density dislocations in SrTiO3
• Lead-free room-temperature ferroelectric thermal conductivity switch using anisotropies in thermal conductivities
• Picosecond transfer from short-term to long-term memory in analog antiferromagnetic memory device
• BaTiO${}_3$ -- SrTiO${}_3$ composites: a microscopic study on paraelectric cubic inclusions
• Sub-nanosecond heat-based logic, writing and reset in an antiferromagnetic magnetoresistive memory
• Spatially Mapping Phonon Drag in Ultrascaled 5-nm Silicon Nanowire Field-Effect Transistor Based on a Quantum Hydrodynamic Formalism
• Thermal transport in crystals: from the quantum Dyson equation to mesoscopic phonon hydrodynamics