Material Analysis for Electronics & Semiconductors

Precise characterization of semiconductors, thin films, and electronic components for research, development, and manufacturing

Semiconductors and electronic components form the foundation of modern technologies—from microprocessors and power electronics to sensors, LEDs, and photovoltaic systems. As power density increases and miniaturization advances, so do the demands on material quality, heat dissipation, and reliability.

The development of modern electronics requires a deep understanding of the thermal, electrical, and structural properties of materials. Modern analytical methods provide important information about thermal conductivity, thermal stability, electrical properties, layer structures, and aging processes.

With over 69 years of experience, LINSEIS offers solutions for the characterization of semiconductor materials, thin films, and electronic components in research, development, and industrial quality control.

Typical Applications for Electronics & Semiconductors

Select your specific application and gain detailed insights into material characterization, measurement methods, and innovative solutions for modern electronic systems

Wide-bandgap materials

Analysis of SiC, GaN, and other wide-bandgap semiconductors for power electronics, high-temperature applications, and efficient thermal management.

Measurement Methods for Electronics & Semiconductors

Laser Flash Analysis (LFA)

Determination of thermal conductivity, temperature conductivity, and thermal diffusion for efficient thermal management in semiconductors and electronic components.

Thin Film Laser Frequency Analyzer (TF-LFA)

Characterization of the thermal properties of thin films and interfaces for modern microelectronics and semiconductor technologies.

Thin Film Analyzer (TFA)

Analysis of the thermal conductivity of ultrathin layers, coatings, and electronic materials for research and process optimization.

Hall Effect Analysis (HCS)

Determination of charge carrier concentration, mobility, and electrical resistance for the development of modern semiconductor materials.

Dynamic Differential Scanning Calorimetry (DSC)

Analysis of phase transitions, heat capacity, and curing reactions in packaging materials, adhesives, and electronic materials.

Simultaneous Thermal Analysis (STA)

Simultaneous analysis of mass changes and thermal effects to investigate the thermal stability and aging processes of electronic materials.

Recommended Equipment for Polymer Applications

Top Devices

Other Devices

Selected Real-World Measurement Examples

Real-world measurements demonstrate how modern analytical methods are used to solve real-world problems involving polymers.

Optimization of p-GaN Using Hall Effect Measurements

Hall effect measurements allow for the precise determination of charge carrier concentration, mobility, and electrical resistance in semiconductor materials. In this practical example, Mg-doped GaN layers are measured using the LINSEIS HCS L36 to evaluate the influence of doping on the electrical transport properties and performance of modern wide-bandgap semiconductors.

Electrical Transport Properties of Sb₂Te₃ Thin Films

The electrical transport properties of thin films are crucial for the development of modern semiconductor and thermoelectric applications. With the LINSEIS TFA L59 allows for the precise determination of temperature-dependent resistance and charge carrier properties. This practical example demonstrates the characterization of ALD-deposited Sb₂Te₃ thin films and provides important insights into the electrical transport behavior in functional thin-film materials.

Applications – Electronics and Semiconductors