SBIR-STTR Award

Surgical Simulation for Combat Trauma Training
Award last edited on: 4/17/2002

Sponsored Program
STTR
Awarding Agency
DOD : DARPA
Total Award Amount
$344,178
Award Phase
2
Solicitation Topic Code
ST97-007
Principal Investigator
Howard R Champion

Company Information

Image Medical Communications

1010 Gallows Road 10th Floor
Vienna, VA 22182
   (410) 626-0322
   N/A
   N/A

Research Institution

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Phase I

Contract Number: ----------
Start Date: ----    Completed: ----
Phase I year
1997
Phase I Amount
$98,500
The project proposes to develop a haptic interface fro virtual reality simulator that can be used fro the training of medics, surgeons and other health personnel in trauma procedures. The challenge will be to develop a single finger-based haptics display that can be used to convey tactile and proprioceptive sensation, allowing the trainee to feel the forces associated with actual trauma procedures. The major effort in Phase I will be to prepare requirements for the design of haptics interface devices, based on a task analysis of chest tube insertion, central venous line placement, and other manual manipulations associated with trauma surgery. It is anticipated that development of the haptics display will lead to a reduction in the number of animals used for trauma training, increase the readiness of military medical personnel and improve the performance of physicians, nurses and allied health personnel by providing a platform for practice and performance assessment.

Phase II

Contract Number: ----------
Start Date: ----    Completed: ----
Phase II year
1999
Phase II Amount
$245,678
The project proposes to develop virtual reality-based surgical simulators for training medics, surgeons and other health personnel in trauma procedures. The current state of surgical simulation technology will be assessed using a combination of surgical, human factors and engineering expertise, involving usability analysis and validation studies. Performance metrics will be created by a committee of senior surgeons for the evaluation of surgical skill. A virtual reality-based simulation workstation will be developed to serve as a testbed for examining surgical performance using surgeons and residents. A procedural simulator for chest tube insertion, based on task analysis and employing physics-based modeling, will be engineered for training in ATLS and trauma. It is anticipated that development of an efficacious simulation training system will lead to a reduction in the number of animals used for trauma training, increase the readiness of military medical personnel and improve the performance of physicians, nurses and allied health personnel by providing a platform for practice and performance assessment.