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At six measuring stations across two state-of-the-art laboratories, we use our measurement technology to simulate almost any application scenario.

Low-noise environment for sensitive measurements

A novel method for flow measurements using highly sensitive quantum sensors as detectors.

Raman spectroscopy enables selective hydrogen detection without cross-sensivitivies.

Sensitive measuring technology for quantitative leak testing of gas infrastructure based on laser spectroscopy.

A spectroscopic gas analyzer to quantify regeneratively produced gases

Our spectroscopic analyzer systems are particularly designed for measuring exhaust gases.

Analysing liquids by means of ATR spectroscopy.

Photothermal detection of trace gases in real time

We develop miniaturized, low-power MOX gas sensors, from gas-sensitive material to methods of production.

Cost-effective and energy-efficient gas sensors based on the principle of color change measure various gases selectively.

Selective measurements at low power consumption

Thermal-electrical impedance spectroscopy for multi-parameter measurements of solids, liquids and gases
 

Highly sensitive, contactless temperature measurement with thermopiles based on novel thermoelectric materials

This compact sensor detects H₂ quickly and with a high degree of sensitivity. Thanks to MEMS technology, it uses very little energy.

Catalytic materials for the detection of combustible gases

Solid-state caloric heat pumps are regarded as an alternative to conventional cooling technology.

Refrigerant-free technology for climate-friendly cooling systems of the future: Fraunhofer IPM develops magnetocaloric systems featuring high specific cooling power.

Fraunhofer IPM develops elastocaloric cooling systems that are characterized by unprecedented long-term stability and high specific cooling power.  

In our electrocaloric systems we integrate ceramic multilayer components into heatpipes for highly efficient heat transfer.

Based on caloric systems, Peltier coolers and heat pipes, Fraunhofer IPM develops individual solutions for the cooling of electronic components.

With pulsating heat pipes (PHP), many problems of heat dissipation may be effectively solved.

A new generation of thermal switches for temperature control without sensor technology or control engineering

Thermoelectric waste heat recovery directly on the pipe

Thermoelectric cooling and temperature control – efficient and with no need for harmful refrigerants

Determining the entire range of essential parameters of Peltier modules

Tailor-made measuring technology for thermoelectric modules of different designs and sizes.

Thermoelectric high-temperature modules based on half-Heusler-alloys.

Measuring the efficiency of heat exchangers and systems for waste heat recovery.

Waste heat recovery with thermoelectric generators.

Material and component analysis by means of computer tomography

Material and component analysis by means of computer tomography – for additive manufacturing an other innovative manufacturing methos.

The Time Domain Thermal Reflectance (TDTR) method provides an effective and inexpensive method for measuring the thermal conductivity of thin layers.