This Phase I SBIR effort initiates development of a high-sensitivity low-noise all-silicon CMOS-MEMS accelerometer for quasi-steady measurements of accelerations at sub 1 micro-g levels. The accelerometer module includes integrated low-noise CMOS circuitry with active offset and low-frequency noise… More

This proposed Phase I SBIR effort initiates development of a wireless pressure sensor system for characterizing the temporal evolution of the pressure field during deployment of parachutes and also measuring pressures across different fabric materials. The primary outcome of this project is a… More

In this Phase II SBIR project a high-sensitivity low-noise all-silicon CMOS-MEMS accelerometer for quasi-steady measurements of accelerations at sub 1 micro-g levels will be developed. The outcome of the project is a capacitive microaccelerometer with a resolution of 90ng/sqrt-Hz over +/-0.1g range… More

The proposed Phase I SBIR effort initiates development of a miniature navigation-grade MEMS-based IMU providing 6 DOF angular rate and linear acceleration output with a total size of

The proposed project is to develop a new class of small sensors for routine wear by military, police & security personnel that record the magnitude & duration of exposure to impact, blast waves, and bullets. These sensors are based on Evigia Systems proprietary CMOS-MEMS technology, and an… More

The proposed project is to develop a new class of miniature wireless sensors for routine wear by military, police & security personnel that record the magnitude & duration of exposure to impact, blast waves, and bullets. These sensors are based on Evigia Systems proprietary CMOS-MEMS technology,… More

The proposed Phase II SBIR effort initiates development of a miniature navigation-grade MEMS-based IMU providing 6 DOF angular rate and linear acceleration output with a total size of

This Small Business Innovation Research Phase I research project initiates the development of a new class of wireless miniature smart sensor labels that continuously track and record exposure to the environmental conditions, and directly store the sensed data in digital Complementary Metal Oxide… More

The proposed Phase II SBIR effort results in development of a wireless pressure sensor system for characterizing the temporal evolution of the pressure field during deployment of parachutes and also measuring pressures across different fabric materials. The primary outcome of this project is a… More

This proposed SBIR Phase I project initiates the development of a miniature light-weight high-functionality multi-sensor system that meets the requirements for prognostics and health management of military equipment, and their life cycle management and condition-based maintenance. The system… More

This Small Business Innovation Research Phase II project continues the development of a new class of wireless miniature smart sensor labels that continuously track and record exposure to the environmental conditions, and directly store the sensed data in digital CMOS non volatile memory (NVM)… More

The proposed SBIR Phase II project is to develop miniature light-weight high-functionality multi-sensor systems that meet the requirements for prognostics and health management of military equipment, and their life cycle management and condition-based maintenance. The systems integrate temperature,… More

SBIR/STTR ERC Collaborative Proposal: #1128726 SBIR PI: Navid Yazdi (Evigia Systems, Inc); Phase II Proposal #0956908; SBIR PD: Murali Nair ERC: Wireless Integrated Microsystems (WIMS) Engineering Research Center; University of Michigan; Yogesh Gianchandani, Director NSF invites funding requests… More

The proposed SBIR Phase II project is to develop miniature light-weight high-functionality multi-sensor systems that meet the requirements for prognostics and health management of military equipment, and their life cycle management and conditionbased maintenance. The systems integrate temperature,… More