Materials Analysis for Metals & Metallurgy
Precise characterization of metals, alloys, and high-temperature materials for research, development, and industrial quality control
Metals and alloys form the basis of numerous key industrial technologies—from the automotive and aerospace industries to mechanical engineering, energy, electronics, and materials science. Their performance is largely determined by their thermal, thermophysical, and mechanical properties.
The development of modern metallic materials requires a deep understanding of phase transitions, thermal expansion, thermal conductivity, heat capacity as well as oxidation and high-temperature behavior. Precise analytical methods provide crucial information for optimizing alloys, heat treatments, manufacturing processes, and component properties.
With over 69 years of experience, LINSEIS offers high-performance measurement systems for characterizing metallic materials—from basic research and product development to industrial quality control.
Typical Applications in Metallurgy
Select your specific application and gain detailed insights into material characterization, measurement methods, and innovative solutions for metallic materials.
Alloys & Phase Diagrams
Analysis of melting and solidification processes, phase transitions, and the thermodynamic properties of modern metal alloys.
High-Temperature Materials
Characterization of thermal stability, oxidation behavior, and material properties under extreme operating conditions.
Metal Forming & Microstructure Technology
Analysis of thermal expansion, material behavior, and process parameters for heat treatment, welding, and forming processes.
Measurement Methods for Metals & Metallurgy
Dilatometry (DIL)
Determination of thermal expansion, phase transitions, and dimensional changes during thermal loading.
Differential Scanning Calorimetry (DSC)
Analysis of phase transitions, melting and solidification processes, and the heat capacities of metallic materials.
Simultaneous Thermal Analysis (STA)
Simultaneous analysis of mass changes and thermal effects to evaluate thermal stability and oxidation processes.
Laser Flash Analysis (LFA)
Characterization of thermal conductivity, temperature conductivity, and heat diffusion in metallic materials.
Thermogravimetry (TGA)
Analysis of oxidation behavior, corrosion, mass changes, and thermal stability under various atmospheres.
Thermomechanical Analysis (TMA)
Investigation of thermomechanical properties and minute dimensional changes under defined loads.
Recommended Equipment for Metals & Metallurgy
Top Devices
Other Devices
HCS L36
LSR-3 (LSR L33)
Selected Real-World Measurement Examples
Real-world measurements demonstrate how modern analytical methods are used in the development, optimization, and quality assurance of metallic materials.
Phase Transformations in Martensitic Stainless Steel
The LINSEIS DIL L75 Vertical was used to investigate the transformation behavior of a martensitic 12Cr–1Mo stainless steel during a simulated stress-relief annealing process. Dilatometry measurements enable the precise determination of phase transformations and dimensional changes during the heat treatment process and provide valuable insights for optimizing welding and heat treatment processes in metallurgy.
Optimizing Quenching and Partitioning Heat Treatments
The LINSEIS DIL L78 RITA was used to investigate the transformation behavior of medium- and high-carbon steels during a quenching-and-partitioning process. Dilatometry measurements enable the precise analysis of phase transformations and dimensional changes during complex heat treatments and provide valuable insights for the development of high-strength and wear-resistant steels.