One approach to expanding the performance envelope for polymers in this domain is through high temperature manufacturing processes, supporting the use of polymers with increased mechanical strength, lighter weight, and a favorable ability to sterilize for medical applications.
Especially in the case of ceramic matrix composites (CMCs) and metal matrix composites (MMCs), the protection of the fiber is very important to avoid hot corrosion, fiber oxidation or formation of carbides during high temperature manufacturing processes or high temperature application.
Since mid-1990s there was an impressive progress in manufacturing high-temperature superconducting (HTS) wires.
Such tasks are relevant, for example, in control of high-temperature fuel cells, in manufacturing of semiconductor devices, control and modeling of welding processes, and for a reliable description of tube-like gas heater structures.
As a primary task at the Central Institute of Engineering, Electronics and Analytics, development and manufacturing of high-temperature components for experimental setups are essentially demanded using new technologies and materials.
The paper presents the design, manufacturing and postproduction analysis of a novel high-temperature spacecraft resistojet heat exchanger manufactured through selective laser melting to validate the manufacturing approach.
These films may have potential applications in high-temperature (over 400 °C) electronic and optoelectronic manufacturing processes as a flexible transparent substrate.
Such systems can occur in brazing, soldering, welding, and a variety of layered manufacturing applications, where high-temperature material deposition can result in a mismatch in mechanical properties between the deposited material and the substrate.
The goal of this case study is to determine for the first time the feasibility of using concentrated solar radiation as the source of thermal energy for the various high-temperature thermal processes involved in the manufacturing of construction ceramics.
