Many materials undergo changes of their thermomechanical properties during heating or cooling. For example, phase changes, SinteringSintering is a production process for forming a mechanically strong body out of a ceramic or metallic powder. sintering steps or softening can occur in addition to thermal expansion.
TMA analyses can hereby provide valuable insight into the composition, structure, production conditions or application possibilities for various materials. The application range of instruments for thermomechanical analysis extends from quality control to research and development. Typical domains include plastics and elastomers, paints and dyes, composite materials, adhesives, films and fibers, ceramics, glass, metals, and composite materials.
Thermomechanical Analysis (TMA) determines dimensional changes of solids, liquids or pasty materials as a function of temperature and/or time under a defined mechanical force (DIN 51 005, ASTM E831, ASTM D696, ASTM D3386, ISO 11359 – Parts 1 to 3). It is closely related to Dilatometry (vertical dilatometer), which determines the length change of samples under negligible load (e.g., DIN 51 045).
TMA 402 F1 /F3 Hyperion®®
Thermomechanical Analyzer - Vertical Dilatometer
Modular Concept with interchangeable furnaces (compatible with other NETZSCH instruments) for easy and cost-effective expansion and retrofitting.Gas flows with up to 4 MFCs, controllable via software with programmable atmosphere change for the analysis of e.g. OxidationOxidation can describe different processes in the context of thermal analysis.Oxidation behavior without manual valve operation
TMA 402 F3 Hyperion®® Polymer Edition
Thermomechanical Analysis – TMA - Tailor-Made for Low-Temperature Applications
Polymers undergo changes in their thermomechanical properties during heating and cooling. TMA analyses can give insights into molecular orientation and quenching effects during cooling. It allows the design of adhesives and other hybrid joints and quality control of shrink films.