SBIR-STTR Award

Realistic Accurate Dosimulation
Award last edited on: 1/8/18

Sponsored Program
SBIR
Awarding Agency
NIH : NIEHS
Total Award Amount
$490,015
Award Phase
2
Solicitation Topic Code
-----

Principal Investigator
Hans G Schantz

Company Information

Q-Track Corporation

2223 Drake Avenue Southwest 1st Floor
Huntsville, AL 35805
   (256) 489-0075
   info@q-track.com
   www.q-track.com
Location: Single
Congr. District: 05
County: Madison

Phase I

Contract Number: 1R43ES022856-01
Start Date: 4/1/13    Completed: 9/30/13
Phase I year
2013
Phase I Amount
$99,986
The proposed effort aims to dramatically enhance the realism of radiation safety training for Emergency Responders, both First Responders, as well as Skilled Support Personnel. The goal is to develop and evaluate realistic dosimetry simulation or "Dosimulation" tools. These "Realistic, Accurate Dosimulation" (RAD) tools will be the centerpiece for an effective Emergency Responder radiation training curriculum. This Dosimulation concept employs a Real-Time Location System (RTLS) integrated with realistic simulated dosimeters. A sophisticated software algorithm generates a Virtual Radiation Environment (VRE), assigning a particular dose rate to every location within the training area. Dosimulation merges the real-time location of the trainee from the RTLS with the simulated dose rate from the VRE to yield a realistic radiation dose simulation. he proposed Advanced Technology Training (ATT) provides a Virtual Reality simulation of any radiological emergency in a particular training environment. In the proposed RAD effort, the investigators will implement a dynamic and time varying VRE to model the evolution of plumes and spills of interest to Emergency Responders. In addition, they wil work with Radiation Safety and Control Services, Inc. (RSCS), leaders in training Emergency Responders, to select appropriate radiation instrumentation and scenarios to emulate. The impact of the proposed RAD system, if successful, will be to transform emergency responder training with realistic and accurate "hands-on" radiation simulations that will enable Emergency Responders to "practice like they play." The commercial potential is similarly compelling. Q-Track is already a leading vendor of radiation dosimetry simulation products for the nuclear power industry. The substantial improvements in Dosimulation systems made possible by the proposed RAD effort would enable Q-Track to serve the Emergency Responder training market as well.

Public Health Relevance Statement:


Public Health Relevance:
Q-Track proposes to dramatically improve the realism of radiation safety training for Emergency Responders, (both First Responders, as well as Skilled Support Personnel) by employing a Real-Time Location System in conjunction with a time varying Virtual Radiation Environment to create a high-fidelity Virtual Reaity radiation simulation. The proposed "Realistic Accurate Dosimulation" (RAD) project has the potential to enhance radiation training and thus reduce Emergency Responder radiation exposure.

Project Terms:
Adopted; Algorithms; Area; Behavior; Computer software; Data; Disasters; Dose; Dose-Rate; dosimetry; Educational Curriculum; emergency service/first responder; Emergency Situation; Environment; Evaluation; Event; Evolution; Fire - disasters; Goals; Human Resources; improved; Industry; instrument; instrumentation; interest; Law Enforcement; Location; Marketing; Modeling; Monitor; National Institute of Environmental Health Sciences; Nuclear; nuclear power; Paramedical Personnel; Performance; Plants; Play; public health relevance; Qualifying; Radiation; Radiometry; Relative (related person); Research Personnel; response; Safety; Services; Simulate; simulation; System; Technology; Time; tool; Training; Training Technics; Vendor; virtual; virtual reality; Work

Phase II

Contract Number: 2R44ES022856-02
Start Date: 6/7/13    Completed: 4/30/17
Phase II year
2015
(last award dollars: 2016)
Phase II Amount
$390,029

The proposed effort aims to enhance the realism of radiation safety training for Emergency Responders, both First Responders, as well as Skilled Support Personnel. Our goal is to develop and evaluate realistic dosimetry simulation or "Dosimulation" tools. These "Realistic, Accurate Dosimulation" (RAD) tools will be the centerpiece for an effective Emergency Responder radiation training curriculum. Our Dosimulation concept employs a Real-Time Location System (RTLS) integrated with realistic simulated dosimeters. A sophisticated software algorithm generates a Virtual Radiation Environment (VRE), assigning a particular dose rate to every location within the training area. Dosimulation merges the real-time location of the trainee from the RTLS with the simulated dose rate from the VRE to yield a realistic radiation dose simulation. The proposed Advanced Technology Training (ATT) provides a Virtual Reality simulation of any radiological emergency in a particular training environment. In the proposed RAD effort, we will implement a dynamic and time varying VRE to model the evolution of plumes and spills of interest to Emergency Responders. In addition, we will continue our Phase I work with Oak Ridge National Laboratory, leaders in training Emergency Responders, to select appropriate radiation instrumentation and scenarios to emulate. The impact of the proposed RAD system, if successful, will be to transform emergency responder training with realistic and accurate "hands-on" radiation simulations that will enable Emergency Responders to "practice like they play." The commercial potential is similarly compelling. Q-Track is already a leading vendor of radiation dosimetry simulation products for the nuclear power industry. The substantial improvements in Dosimulation systems made possible by the proposed RAD effort would enable Q-Track to serve the Emergency Responder training market as well.

Public Health Relevance Statement:


Public Health Relevance:
Q-Track proposes to improve the realism of radiation safety training for Emergency Responders, (both First Responders, as well as Skilled Support Personnel) by employing a Real-Time Location System in conjunction with a time varying Virtual Radiation Environment to create a high-fidelity Virtual Reality radiation simulation. The proposed "Realistic Accurate Dosimulation" (RAD) research project has the potential to enhance radiation training and thus reduce Emergency Responder radiation exposure.

Project Terms:
Adopted; Algorithmic Software; Area; Behavior; Data; Disasters; Dose; Dose-Rate; dosimetry; Educational Curriculum; emergency service/first responder; Emergency Situation; Environment; Evaluation; Event; Evolution; Exercise; Fire - disasters; Goals; Human Resources; improved; Industry; instrumentation; interest; Laboratories; Law Enforcement; Life; Location; Marketing; meetings; Modeling; Monitor; National Institute of Environmental Health Sciences; Nuclear; nuclear power; Paramedical Personnel; Performance; Phase; Plants; Play; prototype; public health relevance; Qualifying; Radiation; radiation detector; Radioactive; Radiometry; Relative (related person); Research Project Grants; response; Safety; simulation; Source; success; System; Technology; Time; tool; Training; Training Technics; Vendor; virtual; virtual reality; Work