Applications | Medical devices Glass, Ceramics & Plastics Industry Electrical industry Precision mechanics & Optics Automotive Show all Aircraft & Spacecraft construction Mechanical engineering & Plant construction Metal industry PC, Tablet, Mobile & Wearable Semiconductor industry |
Light spot, dimensions short side | 25 µm |
Measurement frequency | 160 kHz |
Accuracy | 0.02 ‰ |
Aircraft & Spacecraft construction
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Applications | Glass, Ceramics & Plastics Industry Precision mechanics & Optics Aircraft & Spacecraft construction PC, Tablet, Mobile & Wearable Energy Semiconductor industry |
Measurement frequency | 160 kHz |
Repeatability (±) | 0.02 µm |
Accuracy | 0.02 ‰ |
Applications | Precision mechanics & Optics Automotive Aircraft & Spacecraft construction Mechanical engineering & Plant construction Metal industry Show all Rail vehicle construction PC, Tablet, Mobile & Wearable Semiconductor industry |
Measurement frequency | 160 kHz |
Accuracy | 0.02 ‰ |
Repeatability (±) | 0.02 µm |
Applications | Medical devices Heating/ Air conditioning/ Ventilation Electrical industry Aircraft & Spacecraft construction Environmental monitoring / Environmental observation |
Operating temperature range | -25 to 85 °C |
Pressure measurement range | -100 to 100 mbar |
Pressure type | Relative pressure Bidirectional differential pressure Differential pressure |
Applications | Medical devices Glass, Ceramics & Plastics Industry Electrical industry Precision mechanics & Optics Automotive Show all Aircraft & Spacecraft construction Mechanical engineering & Plant construction Metal industry Rail vehicle construction Semiconductor industry Packaging industry |
Repeatability (±) | 0.02 µm |
Accuracy | 0.02 ‰ |
Light spot, dimensions short side | 25 µm |
Applications | Automotive Aircraft & Spacecraft construction Environmental & Energy technology |
Signal output | 1.5 mV/V |
Protection class | IP 65 |
Customized versions | TEDS |
Applications | Medical devices Chemical industry Glass, Ceramics & Plastics Industry Aircraft & Spacecraft construction Rail vehicle construction |
Mounting | Three through-holes |
Customized versions | Other versions on request TEDS |
Typical applications | Friction forces |
Applications | Medical devices Chemical industry Glass, Ceramics & Plastics Industry Aircraft & Spacecraft construction Rail vehicle construction |
Mounting | Three through-holes |
Customized versions | Other versions on request TEDS |
Typical applications | Friction forces |
Applications | Medical devices Chemical industry Glass, Ceramics & Plastics Industry Aircraft & Spacecraft construction Rail vehicle construction |
Mounting | Three through-holes |
Customized versions | Other versions on request TEDS |
Typical applications | Friction forces |
Applications | Automotive Aircraft & Spacecraft construction Environmental & Energy technology |
Signal output | 1.5 mV/V |
Protection class | IP 65 |
Customized versions | TEDS |
Applications | Automotive Aircraft & Spacecraft construction Environmental & Energy technology |
Protection class | IP 65 |
Customized versions | TEDS |
Signal output | 2,2 mV/V |
Applications | Medical devices Glass, Ceramics & Plastics Industry Electrical industry Automotive Aircraft & Spacecraft construction Environmental & Energy technology |
Customized versions | TEDS |
Protection class | IP65 |
Signal output | 2,0 mV/V |
Applications | Medical devices Glass, Ceramics & Plastics Industry Electrical industry Automotive Aircraft & Spacecraft construction Environmental & Energy technology |
Customized versions | TEDS |
Protection class | IP65 |
Signal output | 2,0 mV/V |
Applications | Medical devices Glass, Ceramics & Plastics Industry Electrical industry Automotive Aircraft & Spacecraft construction Environmental & Energy technology |
Customized versions | TEDS |
Protection class | IP65 |
Signal output | 2,0 mV/V |
Applications | Medical devices Glass, Ceramics & Plastics Industry Electrical industry Automotive Aircraft & Spacecraft construction Environmental & Energy technology |
Customized versions | TEDS |
Protection class | IP65 |
Signal output | 2,0 mV/V |
Applications | Medical devices Glass, Ceramics & Plastics Industry Electrical industry Automotive Aircraft & Spacecraft construction Environmental & Energy technology |
Customized versions | TEDS |
Protection class | IP65 |
Signal output | 2,0 mV/V |
Applications | Medical devices Glass, Ceramics & Plastics Industry Electrical industry Automotive Aircraft & Spacecraft construction Environmental & Energy technology |
Customized versions | TEDS |
Protection class | IP65 |
Signal output | 2,0 mV/V |
Applications | Medical devices Glass, Ceramics & Plastics Industry Electrical industry Automotive Aircraft & Spacecraft construction Environmental & Energy technology |
Customized versions | TEDS |
Protection class | IP65 |
Signal output | 2,0 mV/V |
Applications | Medical devices Glass, Ceramics & Plastics Industry Electrical industry Automotive Aircraft & Spacecraft construction Environmental & Energy technology |
Customized versions | TEDS |
Protection class | IP65 |
Signal output | 2,0 mV/V |
Applications | Medical devices Glass, Ceramics & Plastics Industry Electrical industry Automotive Aircraft & Spacecraft construction Environmental & Energy technology |
Customized versions | TEDS |
Protection class | IP65 |
Signal output | 2,0 mV/V |
The use of sensors in aircraft and spacecraft construction has undergone a revolutionary development in recent decades. Today, sensors can be found in almost all areas of the aerospace industry and play a crucial role in monitoring and controlling aircraft and spaceships. One example of the use of sensors is monitoring the structural integrity of aircraft. Sensor systems are used here to measure changes in the tension, elongation and temperature of the aircraft parts. This enables potential problems to be identified and rectified at an early stage, which helps to improve the safety and efficiency of aircraft. Sensors such as GPS, inertial sensors and magnetometers enable aircraft and spaceships to determine their exact position, speed and orientation. This is particularly important for long-haul flights and space missions, where precise navigation is crucial, and sensors are also used in space travel to monitor the environment and the condition of the spacecraft. For example, sensors can be used to measure the pressure, temperature and composition of the atmosphere in a space capsule. This is important to ensure that astronauts can work and live in the right conditions, and overall, sensors in aerospace engineering have a huge impact on the safety, efficiency and performance of aircraft and spacecraft. By continuously developing and improving sensor technology, future aerospace missions can be made even safer and more successful.