Innoseis Sensor Technologies develops ultra-sensitive MEMS inertial sensors for demanding applications. Leveraging gravitational wave detection technology, these compact and low-power sensors offer unparalleled sensitivity and stability for precise navigation, guidance, and measurement systems.
Funding
Funding not disclosed
Founders
Product
Problem
Traditional inertial sensors often lack the sensitivity, power efficiency, or miniaturization required for advanced applications in challenging environments. This limitation hinders the development of precise navigation, guidance, and monitoring systems, particularly in sectors like geophysics, aerospace, and autonomous systems.
Solution
Innoseis Sensor Technologies develops ultra-sensitive microelectromechanical systems (MEMS) inertial sensors engineered for high performance and low power consumption. Leveraging technology derived from gravitational wave detection research, these sensors provide unparalleled sensitivity and stability across a 0-200 Hz bandwidth. Their compact and lightweight design, coupled with industry-leading low power demands, enables efficient deployment in demanding applications. Innoseis sensors are designed to power next-generation navigation, guidance, and measurement systems, improving operational efficiencies and data quality for clients.
Target Audience
The primary target audience includes aerospace engineers, geophysicists, autonomous vehicle developers, and infrastructure monitoring specialists who require highly sensitive and power-efficient inertial sensing solutions.
Features
- MEMS accelerometers with sensitivity down to the nano-g level.
- Bandwidth range from 0 to 200 Hz for precise data acquisition.
- Ultra-low power consumption, as low as 20mW.
- Compact form factor measuring 9x9x3mm and weighing 1.5 grams.
- Technology base rooted in gravitational wave detection research, demonstrating world-record performance in its class.
- High bias stability suitable for high-vibration environments.
- Designed for applications requiring high precision positioning and seismic signal detection.