The challenge in material science is our ability to evaluate heat flow within a material and monitor temperature with time. This research studies fluidic geometry aligned to elevated temperatures for enhanced cooling to specific multiple hot spot regions. To manage thermal stresses within a metal by modulating volumetric flows using structured channel networks. To regulate conductance point load characterised through fluxes in studying the effects of heat transport within 5754 grade aluminium, Using a kinetic mixing strategy of unified heat dissipation within channel structures for real time response to conduct heat as a function of Re regime scales. The characteristic aspect of the approach is to induce the mixing reaction rate as a turbulent kinetic system to fold the flow, redirect the flow, stretch the flow and combine streams to disperse and dissipate thermal energy. The temperature dependence is determined by; circuit channel geometry, fluidic thermal capture and precise hydrodynamic control for increased cooling power in monitoring temperature heat loss to time through flow generation.
Alston, M., & Barber, R. (2022). Fluidic circuits as a kinetic system for modulation of multiple hot spots as a thermally functional reactor. TechConnect Briefs, 2022, 29-32