SBIR-STTR Award

Individualized, Noninvasive Speech Indicators for Tracking Elevations in Stress (INSITES)
Award last edited on: 3/26/2023

Sponsored Program
SBIR
Awarding Agency
NASA : ARC
Total Award Amount
$884,841
Award Phase
2
Solicitation Topic Code
H12.06
Principal Investigator
Brook Roberts

Company Information

Quasar Group (AKA: Quasar Federal Systems Inc~Quantum Applied Science & Research Inc)

5754 Pacific Center Boulevard Suite 203b
San Diego, CA 92121
   (858) 373-0231
   inquiries@quasarusa.com
   www.quasarusa.com
Location: Single
Congr. District: 51
County: San Diego

Phase I

Contract Number: 80NSSC19C0267
Start Date: 8/19/2019    Completed: 2/18/2020
Phase I year
2019
Phase I Amount
$124,899
The complexity and round-the-clock nature of NASA operations in low Earth orbit and future deep space missions, along with isolation in the hostile environment of space, can induce levels of acute and chronic stress that could compromise astronaut performance, leading to errors that could affect science payloads, crew safety and mission success. For the exploration of space a method is needed to assess operator state, quickly and reliably detect stress, and provide objective feedback to the individual, crew, and ground support, in order to mitigate adverse events and mishaps. We propose to develop a system that makes use of equipment that would be inherent to any spacecraft to identify Individualized, Noninvasive Speech Indicators for Tracking Elevations in Stress (INSITES). The goal of this INSITES project is to develop an unobtrusive, objective, and reliable detector of stress that measures changes in speech and vocalizations from equipment (microphones, communications systems, computers) used during operations, without requiring additional sensors or dedicated processing hardware. Under this project, Quantum Applied Science and Research (QUASAR) and the Florida Institute for Human and Machine Cognition (IHMC) will define features in speech known to indicate stress, develop algorithms to extract these features from recorded audio streams, and adapt QUASAR’s machine learning cognitive state classification software, QStates, to process these speech features in real-time from voice audio streams. We will create models for stress based on these features, and provide a real-time visual output describing an individual’s stress level. The team will also develop the plans for software or hardware integration for a completed tool for implementation in NASA spacecraft and habitats to detect changes in stress acutely and over time. Doing so could potentially provide an opportunity to assess and intervene before it adversely impacts mission safety, effectiveness, or success. Potential NASA Applications (Limit 1500 characters, approximately 150 words) Unobtrusive, low volume, easily-integrated stress detection for all NASA missions involving constrained space and weight, including Earth-based training, low Earth orbit, and deep space. Potential Non-NASA Applications (Limit 1500 characters, approximately 150 words) Multiple markets across both military and civilian mission critical environments where personnel operate and communicate in stressful environments. In particular, this technology could extend to military and commercial pilots, air traffic control operators, security or first response teams, as well as elite performance teams where audio communication is enabled by wearable headsets.

Phase II

Contract Number: 80NSSC20C0118
Start Date: 7/6/2020    Completed: 7/5/2022
Phase II year
2020
Phase II Amount
$759,942
The complexity and round-the-clock nature of NASA operations in low Earth orbit (LEO) and future cis-lunar deep space missions, along with isolation in the extremely hostile environment of space, can induce levels of acute and chronic stress that could compromise astronaut performance, leading to errors that could affect science payloads, crew safety and mission success. For the exploration of space, therefore, a method is needed to assess operator state, quickly and reliably detect stress, and provide objective feedback to the individual, crew, and ground support, in order to mitigate adverse events and mishaps. Due to the unique challenges of NASA missions, Quantum Applied Science and Research (QUASAR) proposes to develop a system to identify Individualized, Noninvasive Speech Indicators for Tracking Elevations in Stress (INSITES). The overall goal of this INSITES project is to develop an unobtrusive, objective, and reliable detector of stress that measures changes in speech and vocalizations using equipment that would be present or used (microphones, communications systems, computers) used during operations, thus not requiring additional sensors or dedicated processing hardware. QUASAR and the Florida Institute for Human and Machine Cognition (IHMC) will build a database of audio stress recordings acquired under laboratory conditions in order to construct normative models of stress, using vocal stress-related features identified in Phase I. A methodology for recalibrating normative models to individuals using minimal additional training data in order to optimize model performance will be developed. QUASAR will also prepare and validate an INSITES prototype that will provide a real-time visual output describing an individual’s stress level. The prototype will be based upon an app that can be readily installed on a mobile device or implemented in NASA spacecraft and habitats to detect changes in stress acutely and over time. Potential NASA Applications (Limit 1500 characters, approximately 150 words) Unobtrusive, low volume, easily-integrated stress detection for all NASA missions involving constrained space and weight, including Earth-based training, low Earth orbit, and deep space. Potential Non-NASA Applications (Limit 1500 characters, approximately 150 words) Multiple markets across both military and civilian mission critical environments where personnel operate and communicate in stressful environments. In particular, this technology could extend to military and commercial pilots, air traffic control operators, security or first response teams, as well as elite performance teams where audio communication is enabled by wearable headsets.