Material Analysis for the Automotive and Aerospace Industries
Analysis of High-Performance Materials for Mobility, Aviation, and Aerospace Under Extreme Operating Conditions
The demands placed on modern materials in the automotive, aviation, and aerospace industries are constantly increasing. Electrification, lightweight construction, higher operating temperatures, and increasing safety requirements call for materials with optimized thermal, mechanical, and structural properties.
Materials analysis provides crucial insights for the development, qualification, and quality assurance of metals, ceramics, polymers, composites, and high-performance alloys. Modern analytical methods enable the investigation of thermal conductivity, thermal stability, expansion behavior and aging processes under realistic conditions.
With over 69 years of experience, LINSEIS supports research institutions, suppliers, and manufacturers in developing innovative materials for the mobility of tomorrow.
Typical Applications for the Automotive and Aerospace Industries
Select your specific application and gain detailed insights into material characterization, measurement methods, and innovative solutions for demanding operating conditions.
Materials for High-Temperature Applications
Thermal Stability and Material Behavior Under Extreme Temperatures and Loads
Cryotechnology
Analysis of Materials and Components for Applications at Extremely Low Temperatures and Cryogenic Conditions
Alloys and Lightweight Construction
Development and Characterization of High-Performance Materials for Efficient and Safe Mobility Solutions
Measurement Methods for the Automotive and Aerospace Industries
Thermal conductivity
Characterization of Thermal Conductivity, Temperature Conductivity, and Heat Diffusion for Efficient Thermal Management
Dilatometer (DIL)
Determination of Thermal Expansion and Dimensional Changes in Metals, Ceramics, and Composite Materials
Dynamic Differential Scanning Calorimetry (DSC)
Analysis of phase transitions, curing reactions, and thermal properties of polymers, resins, and composite materials
Simultaneous Thermal Analysis (STA)
Simultaneous Analysis of Mass Changes and Thermal Effects for High-Performance Materials and High-Temperature Applications
Thermogravimetry (TGA)
Investigation of decomposition, oxidation, and aging processes
Battery Calorimetry
Investigation of Heat Generation, Safety, and Thermal Runaway in Batteries and Electrified Propulsion Systems
Recommended Devices for Automotive and Aerospace Applications
Top Devices
Other Devices
PLH L53 - Periodic Laser Heating
Selected Real-World Measurement Examples
Real-world measurements demonstrate how modern analytical methods are used to solve real-world problems in the automotive, aerospace, and aviation industries.
Thermal Conductivity Stability of Cryogenic Polyurethane Foams During Long-Term Storage
Transformation Behavior of Ultrasonically Treated ADI Materials Using Dilatometry
Dilatometer measurements using the Linseis DIL L78 RITA show the transformation behavior of conventionally solidified and ultrasonically treated ADI materials during heat treatment. The results provide valuable insights into transformation kinetics, microstructural development, and the optimization of heat treatment processes for high-stress cast materials.
