| CHARLES RIVER ANALYTICS, INC.
625 Mount Auburn Street Cambridge, MA 02138 | |
| Phone:
PI: Topic#: |
(617) 491-3474
Dr. Subrata K. Das OSD 02-H01 Awarded: 03JAN03 |
| Title: | Probabilistic Unit Life Status Estimation ( PULSE ) |
| Abstract: | The Warfighter Physiological Status Monitoring (WPSM) system must deal with artifact-laden, uncertain, and dynamic biomedical sensor data. We propose to address these critical issues directly with the development of the Probabilistic Unit Life Status Estimation (PULSE) suite of advanced Bayesian Belief Network (BBN) algorithms. BBNs provide probabilistic reasoning for dealing with uncertainty, and flexible modeling of real world problems. However, static BBNs do not explicitly provide temporal reasoning, which is necessary due to the dynamic nature of the WPSM sensor array data. We plan to utilize a formal extension to BBNs known as Temporal Belief Networks (TBNs), which adds the required temporal reasoning. TBNs combine the key features of flexible modeling, probabilistic reasoning, and temporal reasoning needed for the PULSE algorithms. We will use TBNs primarily to model the subject's clinical state, but also to model the sensor array hardware in parallel, obtaining metrics of sensor reliability which will improve the clinical state estimates. Finally, we will use the powerful sensitivity analysis feature of BBNs to isolate faults in the modeled sensor array, enhancing operational robustness. We plan to develop a prototype PULSE algorithm suite, and evaluate overall concept feasibility in a simulated physiological monitoring test, incorporating realistic sensor models. The Probabilistic Unit Life Status Estimation (PULSE) algorithm suite developed for clinical state estimation can be transferred directly from military to civilian telemedical applications. The potential is enormous for improving hospital, nursing home, and general civilian medical care. Additionally, the health benefits of more timely intervention in medical emergencies could be extended to people in many difficult, isolated, or hazardous occupations, including astronauts, divers, drivers, firemen, guards, miners, pilots, policemen, etc. Finally, the extension of the WPSM system to use in biometric identification and authentication would further develop the market for biometrics in computer security. |
| GCAS, INC.
1531 Grand Avenue, Suite A San Marcos, CA 92069 | |
| Phone:
PI: Topic#: |
(760) 591-4227
Mr. Maurizio Borsotto OSD 02-H01 Awarded: 01JAN03 |
| Title: | Life Sign Decision Support Algorithms for Warfighter Physiological Status Monitoring (WPSM) |
| Abstract: | This proposal focuses on computational algorithms for an Expert System that interprets data from a suite of wearable physiologic sensors to infer a soldier's current clinical state on the battlefield. There is a pressing need in the military for such a tool, in consideration of the high level of casualty in the battlefield that could be avoided through a prompt identification of the wounded and a quick intervention. It has been recognized that it would be possible to avoid almost 90% of the casualties simply by promptly identifying the soldier and applying a tourniquet in the first 30 minutes after the injury. Specifically, the computational algorithms will assess with high level of reliability if the soldier is dead, alive or in an unknown state. The algorithms will also identify corrupted data and the mechanisms responsible for their corruption. These mechanisms could be either a momentary fault, like noise in the data transmission circuit, or failure of some device. Techniques relying on the Bayesian Network framework provide valuable tools for tackling the problem with success. During Phase I we will investigate and identify the most appropriate methodologies, which will be fully implemented during Phase II. This set of computational tools will have both military and civilian applications. The health monitoring system developed with such tools have a broad base of applications. Telemedicine and web-based monitoring of home health patients and elderly people just represent two major fields. Other relevant fields are in all the situations where health or life is at stake, and quick intervention is required. As an example, mountaineers could clearly benefit from a monitoring system featuring global positioning system capabilities. The athletes represent another category that could be greatly interested. In fact, they need to monitor their training stress in order to achieve the maximum result. Other categories involve police officers, fire fighters and professional scuba divers, just to cite a few. |
| ADVANCED SENSOR TECHNOLOGIES, INC.
39255 Country Club Drive, Suite B-12 Farmington Hills, MI 48331 | |
| Phone:
PI: Topic#: |
(248) 553-9375
Dr. Hal C. Cantor OSD 02-H02 Awarded: 19DEC02 |
| Title: | Non-Invasive, Continuous, Transdermal Glucose Monitor w/Actuator Control |
| Abstract: | AST proposes to develop a non-invasive methodology able to continuously monitor blood glucose concentration. As opposed to employing near infrared spectroscopy, which suffers from the limitations of sensitivity, stability, and repeatability, AST intends to employ direct measurement of glucose, via amperometric sensors coated with glucose oxidase membranes, from minute amounts of interstitial fluid obtained transdermally. AST's proposed transdermal sampling system, with incorporated micro-fluidics and micro-sensor technologies, will provide the capability to transduce the concentration of glucose, as well as other biological molecules including blood electrolytes, hormones, therapeutic drugs, etc., in near real-time with the potential for closed-loop feedback control to administer appropriate drugs or sound an alarm (via auditory, visual, or telemetric communication), while weighing only a few grams. Glucose concentration in blood can be used to determine metabolic status as well as asses the degree of stress a person is under. When AST's device is outfitted with closed-loop control capabilities, automated infusion of insulin can be achieved in the effort to maintain euglycemia at all times, with insulin presentation in a near-physiological temporal manner. This process, "intensive therapy" for diabetes management, appears to offer the greatest hope of preventing diabetic complications by achieving tight control of blood glucose concentration. The current commercial trend is towards continuous, non-invasive, on-line and real-time assay and analysis of biological processes in an automated manner. AST's transdermal monitoring device will be capable of providing this functionality in ambulatory individuals. The molecular specificity of detection by AST's sensor technology is dependent only upon the membrane composition covering each of the individual biodetectors within the array, providing the ability to customize the biodetector array to monitor glucose, stress hormones, reproductive hormones, biological toxins, pesticides, medicinal and recreational drugs, electrolytes, and many other clinically important molecules. |
| DELTA SEARCH LABS, INC.
400 Technology Square Cambridge, MA 02139 | |
| Phone:
PI: Topic#: |
(617) 551-4616
Mr. Vidi Saptari OSD 02-H02 Awarded: 19DEC02 |
| Title: | Non-invasive, Transdermal, Near Infrared Glucose Monitor |
| Abstract: | The project aims at developing an accurate and a reliable noninvasive, transdermal blood glucose monitoring device, based on the near infrared absorption spectroscopy. Blood glucose level provides a gauge for the effectiveness of the body in converting food intake into energy. Abnormal blood glucose level signals diabetes, a disorder that affects over 100 million people worldwide. Noninvasive measurement of blood glucose involves directing a near infrared beam into a selected body site and analyzing spectral changes of the diffuse-reflected light due to blood glucose variations. Two major challenges still exist: (i) clinically relevant blood glucose variations produces little quantifiable spectral changes, and (ii) strong interference from the phenotypic and physiologic variables mask near infrared glucose signals. As a result of hardware and software optimization techniques, our compact and economical research-grade instrument provides a consistent signal-to-noise ratio (SNR) of ~200,000 over 200nm wavelength range, sufficient for sub-millimeter path-length glucose prediction. Additional hardware modifications will push SNR to ~1e6, which is needed for robust, accurate and reliable glucose sensors for field use. Concepts to compensate for phenotypic and physiologic interferences will be developed and tested in Phase I. Concepts may include hardware, software and procedural techniques. The worldwide market for glucose monitoring product is estimated to have exceeded $3 billion in the year 2000. Low-cost, portable noninvasive glucose monitoring devices will replace the currently painful and expensive finger-pricking method. The technology can also be further developed and/or modified to measure other blood and tissue metabolites, such as cholesterol, protein and alcohol levels. The technology has various potential applications in other areas as well. These include the food and beverage industries, petrochemicals and pharmaceuticals, where continuous and non-intrusive monitoring is needed. |
| LIGHTOUCH MEDICAL
Suite 123, 600 Genessee Street Syracuse, NY 13202 | |
| Phone:
PI: Topic#: |
(315) 478-1670
Dr. Pamela Hagrman OSD 02-H02 Awarded: 01JAN03 |
| Title: | Noninvasive, Transdermal, Near Infrared Glucose Monitor |
| Abstract: | LighTouch Medical uses tissue modulated, near infrared Raman spectroscopy to measure blood glucose in human fingetips in vivo noninvasively. Using this proprietary and completely painless technique, LighTouch is able to measure blood glucose concentrations with accuracy and precision equal to standard fingerstick tests in the entire relevant range of blood glucose levels including below 100 mg/dl. The proposed effort pertains to the development of an external calibrator accessory. Will allow measurement of blood glucose without removing blood. |
| DIAMOND VISIONICS LLC
400 Plaza Drive, Suite-A, PO Box 1276 Vestal, NY 13851 | |
| Phone:
PI: Topic#: |
(607) 729-8526
Mr. Graham Upton OSD 02-H03 Awarded: 16DEC02 |
| Title: | Advanced Ureteroscopy Simulation Workstation for Medical |
| Abstract: | The challenges associated with surgery are diverse and often subtle. In order for a surgeon to become proficient, a thorough understanding of a wide range of surgical techniques is required. This includes the ability to assess a given situation and take the appropriate actions. These techniques require fine perceptual motor skills and attention to detail. The difficulty of open surgery notwithstanding, MIS introduces additional challenges. With MIS, the surgeon's view is limited to a 2-D representation of what the camera sees. Rather than a full view of the surgical field, only a relatively small area can be viewed at any given time. Also, the perspective-viewing angle can only be slightly altered, making depth perception very challenging. These limitations require surgeons to develop highly tuned spatial cognition skills in order to mentally reconstruct the 3-D environment. Diamond Visionics will provide useful solutions to the challenges stated above based on our extensive background in medical simulation and visualization. In Phase I, Diamond Visionics will investigate the feasibility of developing a proof-of-concept PC-based MIS simulation system for endoscopic surgical simulation. This system will greatly improve surgeon effectiveness by providing realistic visualization, haptics, and validated courseware. Federal and non-federal markets for the results of this research include a wide spectrum of medical facilities and institutions. The ureteroscopy simulator will deliver high realism and maintain low cost. This means that these devices can be attainable for all medical schools and hospitals. In addition, as it becomes apparent that simulation improves procedural performance in the operating room, these devices could be used for board certification. If adopted by insurance companies, medical malpractice premiums could be reduced if the doctors successfully complete a course with the ureteroscopic simulator. The federal market is included in the section above as part of the US market. However, the international market will be investigated throughout the Phase I effort. The commercialization strategy will be refined based on market surveys and trade studies. This will ensure that we develop a product that a wide variety of users would benefit from. |
| IMMERSION MEDICAL, INC.
55 West Watkins Mill Road Gaithersburg, MD 20878 | |
| Phone:
PI: Topic#: |
(301) 984-3706
Dr. Joseph L. Tasto OSD 02-H03 Awarded: 19DEC02 |
| Title: | Advanced Ureteroscopy Simulation Workstation for Medical |
| Abstract: | This project aims to demonstrate technical design feasibility for a training simulator for therapeutic ureteroscopy. Key software advances proposed include generating photo-realistic endoscopic views with appropriate lighting, generating fluoroscopic and 3-D transparent views, simulating local tissue surface deformation and real-time collision processing, simulating therapeutic interventions (wire and basket, laser, lithotriptor), and integrating these elements with a computer-based model of the urinary tract. Proposed hardware advances include simulating visual and tactile feedback for insertion and visualization of urethra, bladder, ureters, and calyces of the kidney, designing a method for automatic tool recognition and capture by the interface device, tracking nested devices with working channel force feedback, and using a gas pressure gauge to accurately simulate syringe haptics. The project would also entail developing instructional design and medical content, and participation of clinical subject matter experts in periodic reviews. The proposed virtual simulation platform has great commercial potential because it will be built on a commercially established simulation platform (Immersion's AccuTouchr Endoscopy), and it is a high patient volume procedure. |
| SIMBIONIX CORP.
11000 Cedar Ave., Suite 210 Cleveland, OH 44106 | |
| Phone:
PI: Topic#: |
(216) 229-2040
Ms. Edna Chosack OSD 02-H03 Awarded: 13DEC02 |
| Title: | Advanced Ureteroscopy Simulation Workstation for Medical |
| Abstract: | Minimally invasive surgical procedures, although highly beneficial to the patients, require a high level of technical skill, for example, ureteroscopic endoscopic surgical procedures involve inserting a rigid cystoscope into the urethra, introducing a guidewire to the ureteral orifice and switching to a flexible ureteroscope while viewing the procedure on a monitor. There is a growing demand for hands-on training programs for these difficult and highest risk procedures. This phase I commercialization project will demonstrate the feasibility of providing a personal computer-based ureteroscopic endoscopic surgical simulator to train military and civilian healthcare professionals. Simbionix Corporation has a proven record of developing pc-based medical simulators, for complicated, highly risky and least-encounter endoscopic simulation procedures. Evidence demonstrating the effectiveness of medical simulators for training is constantly mounting. And the readiness of the medical world to use simulators in training is likewise accruing. Simbionix Corporation, headquartered in Cleveland, benefits from a close collaboration with the prestigious Cleveland Clinic Foundation. This project will bring to the surgical training market a high fidelity simulator, capable of training health professionals to perform numerous procedures such as stone extraction, stone lithotripsy, opening of strictures and complicated procedures with difficult learning curves such as transurethral resection of the prostate. Many leaders in surgical education and surgical professional associations have become convinced that simulation is the future of medical training. The timing for medical simulators to break through into broad use for training as with the airline industry and to be incorporated into the US physicians certification and recertification process is better than ever. A few factors contribute to the likelihood of successful commercialization of the product: the high quality of simulation together with physician's acceptance of using computer-based technology. There is also increasing of public awareness of medical errors. At the same time there is a constant decline of health insurance reimbursement (Medicare leads this trend). That limits the time that is available for training while trying keeping hospitals profitable. At the same time there are more and more minimally invasive surgery procedures being developed and used that in turn need to be taught. The principal market of medical training, including academic hospitals, community based hospitals, large surgical clinics and continuing medical education centers is estimated to be $1 Billion annually. Medical societies are seeking alternatives for certification and credentialing of practicing physicians according to objective standards. TURP by itself is an estimated at $2 Billion annual market with growing demand for training programs. All these conditions seem to create an exceptional opportunity for an ureteroscopic simulator to become an integral part of medical training for health care professionals both in the army and civilian arenas. Having an effective medical training device will make these advanced medical treatments more available to all patients. Simbionix Corp. has a proven record of successfully commercializing training simulators for minimally invasive medical procedures. Its first product for gastrointestinal procedures was already sold to well-over 100 medical and training centers worldwide. |
| IDOLON TECHNOLOGIES
72 Stone Place Melrose, MA 02176 | |
| Phone:
PI: Topic#: |
(781) 665-9200
Mr. George Hovorka OSD 02-H04 Awarded: 23DEC02 |
| Title: | Non-invasive Human Metabolic Status Monitor |
| Abstract: | The requirement for a low-cost personal metabolic sensor that has the ability to detect high levels of breath metabolites arises from the need for personnel to do their duties with a high state of readiness in all deployment situations. The object of the Phase 1 is to determine the feasibility of a compact metabolic monitor that has low energy/power requirements and is low cost to manufacture. This device will have a simple user interface and rugged construction. The aim of the proposed program is to build a prototype unit and evaluate it under a variety of realistic conditions. The results of the work are expected to be a pocket-sized monitor system capable of rapidly determining a soldier's metabolic status. The commercial application of this device will include diet compliance monitoring and applications in diabetes therapy. |
| SOUTHWEST SCIENCES, INC.
1570 Pacheco Street, Suite E-11 Santa Fe, NM 87505 | |
| Phone:
PI: Topic#: |
(505) 984-1322
Dr. Steven M. Massick OSD 02-H04 Awarded: 13DEC02 |
| Title: | Diode Laser-Based Ketosis Sensor |
| Abstract: | This Small Business Innovation Research Phase I proposal will lead to the development of a sensor for detection of the early onset of ketosis by breath acetone measurements. The device will be hand-held, lightweight, and battery-powered. Near-infrared diode laser measurement of a gas-solid reaction product of acetone will afford increased sensitivity. The sensor will provide a rapid measurement of breath acetone concentration with 1.0 ppm to sub ppm detection limit from a single exhalation. The technology will provide important non-invasive monitoring of the diabetic state. Other applications include the management of ketogenic diets for epilepsy treatment, the evaluation of the nutritional status of emergency personel in extended field situations, and monitoring breath levels acetone for dairy cattle. |
| ANTHROTRONIX, INC.
387 Technology Drive College Park, MD 20742 | |
| Phone:
PI: Topic#: |
(301) 405-0156
Dr. Corinna Lathan OSD 02-H05 Awarded: 13DEC02 |
| Title: | Monitoring the Warfighter |
| Abstract: | The goal of this Phase 1 proposal is to examine the technical feasibility of a cognitive performance self-assessment wearable computer system for operational deployment. We will use the standardized and validated software for assessment of cognitive performance, ANAM - Automated Neuropsychological Assessment Metrics, which is a set of computer administered and scored tests of cognitive processing efficiency. An ANAM testbed will be developed that can evaluate commercial off-the-shelf (COTS) and developing technologies. We will then evaluate the technical feasibility of the major system components - Speech input and control, visual and auditory display, and alternative input devices. Human factors issues will be addressed through a user-centered design process including initial and final design reviews by an expert panel, focus groups with potential system users, and laboratory based usability tests. AnthroTronix, Incorporated, has extensive experience developing advanced human-computer interface for a variety of military operational environments and has assembled a world class group of consultants to act as our expert panel. The system identified in Phase 1 will be developed and tested in Phase 2 and expanded in Phase 3 to include other military and consumer applications. People who are experiencing a transient cognitive impairment (because of fatigue or sleep loss, illness or medication, etc.) may be error prone in situations that tax the limits of their reduced mental capacity. Furthermore, in complex work environments, any cognitive overload imposed by high task demands can lead to performance errors. Such conditions have frequently been implicated in major aviation and industrial accidents. Advances in portable computing technology, multimodal interfaces, and methods of neuropsychological assessment could enable us to bring cognitive assessment to these operational environment. Feedback of the assessment could enable an individual to modify the task, his or her own behavior, or some other system component thereby increasing performance and reducing the risk of error. Markets for potential commercial application areas for this type of technology include a remote site, fit-for-duty assessment tool; a portable cognitive performance assessment system in hospitals for patients with restricted mobility; and a system that enables testing of those who must operate in a hands-free, eyes free environment. |
| CYBERNET SYSTEMS CORP.
727 Airport Boulevard Ann Arbor, MI 48108 | |
| Phone:
PI: Topic#: |
(734) 668-2567
Dr. Charles J. Cohen OSD 02-H05 Awarded: 19DEC02 |
| Title: | Wearable Cognitive Warfighter Evaluation System |
| Abstract: | The modern warfighter has to process a large amount of constant critical information. While cognitive performance evaluation of a warfighter's capabilities can be done in the lab, it has yet to be taken out into the field where the real stresses occur. Fortunately, it is now technologically possible to gather warfighter cognitive workload data through the use of wearable computers. Current cognitive workload systems are large and cumbersome. More effective systems need to be much smaller, easier to transport, easier to operate, and impose less burden upon the warfighter. This can be achieved using a wearable computing platform, incorporating advanced monitoring and interaction interfaces that enhance its operability. Cybernet has significant experience in the ongoing development of advanced human computer interfaces, presenting a unique opportunity for this topic area. To accomplish this task, Cybernet proposes to thoroughly research both the systematic task analysis research and cognitive task analysis research to develop an innovative approach for measuring and analyzing the cognitive workload of the battlefield warfighter using wearable computer technology. Options for monitoring and collecting data from the warfighter with advanced interface controls include the use of hands-free interface solutions, such as voice recognition, eye tracking, and gesture and behavior recognition. The proposed technology will be leveraged into Cybernet's OpenSkies Massive Multiplayer training and gaming simulation business. Development and use of cognitive models will help us to greatly enhance game play and fun. Cybernet has developed a massively multi-player simulation technology for air, sea and land game and simulation play . While this technology was originally developed for low cost government simulation for training, the Company plans to adapt the technology to revolutionize the consumer network gaming and flight simulator industry. The Company plans to distribute its OpenSkies simulation products at retail into the market, which is currently defined by Microsoft Flight Simulator, ProPilot, and Flight Unlimited. |
| APTIMA, INC.
12 Gill Street, Suite 1400 Woburn, MA 01801 | |
| Phone:
PI: Topic#: |
(781) 496-2427
Dr. Eileen B. Entin OSD 02-H06 Awarded: 30DEC02 |
| Title: | Design and Validation of Simulation-based Training for Emergency First Responders |
| Abstract: | Simulation-based training is a promising instructional tool for training first responder military and civilian emergency personnel but its growth and adoption into practical use in training programs has been significantly hindered by the lack of validation. We will address this challenge through two interrelated objectives. We will design a validated training program for first responders that uses simulation technology effectively to increase skill levels. We will also demonstrate, in the process of developing this training program, the methods by which such training should be developed and validated. Our technical objectives include identifying the training needs of the first responder and mapping those to the strengths of simulators to inform the design of effective and optimal configurations of simulator-based training programs for first responders. We will draw upon the systematic measure-development process pioneered by Aptima for military aviation to design and develop a set of performance measures. The Phase I work will culminate in a proof of concept demonstration of our training program and validation methodology using a simulator in collaboration with the Harvard Medical School, Center for Medical Simulation. There will be two products at the end of Phase II-firstly the training program itself, to be transitioned into a variety of first-responder environments, and secondly, the methods used to design, develop, and validate the training, including the measures, and the scenarios, which can be applied in other domains to design and validate simulation-based training for medical skills. The validation process we will develop can be used to inform the design of appropriate simulation-based training programs that leverages the strengths of each modality of simulator or training method. The resulting tool can be targeted to both government and commercial sectors in both a horizontal and a vertical market expansion. This tool will allow commercial developers of medical simulators as well as medical researchers to test the effectiveness and efficiency of the simulators for training. It will help medical schools and other medical training institutions in the design of effective training programs. Such a tool will make valuable contributions in all sectors to identify and foster the improved design, growth, acceptance, and adoption of the most effective medical simulator technologies. The far-reaching result will be reduction of error and improvement of patient safety for crossing the quality chasm in healthcare. |
| VEREFI TECHNOLOGIES, INC.
PO Box 396 Hershey, PA 17033 | |
| Phone:
PI: Topic#: |
(866) 884-8373
Dr. Randy S. Haluck OSD 02-H06 Awarded: 31DEC02 |
| Title: | Virtual Airway Trainer: A Simulation Workstation for Endotracheal Intubation |
| Abstract: | Verefi Technologies aims to establish the feasibility of a simulation trainer for endotracheal intubation. We will build on Verefi's existing computer simulators for wound suturing and lumbar puncture to create the Virtual Airway Trainer. In the traumatized patient or soldier, endotracheal intubation is frequently the initial and most important life-saving procedure. In this setting, improper tube placement is the most common cause of preventable death. Intubation in the traumatized patient or soldier is often difficult due to poor ergonomics and lighting, associated head, neck, and facial trauma, and blood and vomitus in the airway. A simulation trainer will allow practice and experience in a variety of challenging intubation situations. The trainer will consist of a mock endotracheal tube with haptic feedback coupled to a computer controlled mannequin head with mechanically controlled airway geometry. Rich, accurate, 3D graphics will instruct and test the user on key anatomy and proper technique. Trauma surgeons, EMTs, military medical trainers, and anesthesiologists will be enlisted for development. This research will lead to a product with wide commercial application for civilian and military medical training programs and U.S. hospitals. This project will also lead to innovative simulator technology for future trainers for emergency medical procedures. The Virtual Airway Trainer will be a new simulation platform for emergency medical first-responders that will provide instruction the critical skill of endotracheal intubation to ensure preparedness for the traumatized patient or soldier. Our simulator will incorporate new web-based and computer-generated instructional methods which will increase the educational potential of the simulator over currently available methods. The Virtual Airway Trainer will have broad commercial applications wherever skill and training for endotracheal intubation are required including residency training programs, military medical training programs, emergency medical training programs, and private hospitals. |
| APTIMA, INC.
12 Gill Street, Suite 1400 Woburn, MA 01801 | |
| Phone:
PI: Topic#: |
(781) 496-2427
Dr. Eileen B. Entin OSD 02-H07 Awarded: 27JAN03 |
| Title: | A Web-Enabled Authoring Tool for Communicating Medical Risks |
| Abstract: | Research on framing suggests that an individual's decisions about medical treatments can be affected by whether the information about the impacts of alternative treatments are framed positively (in terms of benefits) or negatively (in terms of risks). The goal of this project is to develop a web-enabled authoring tool for communicating medical risks that advises clinicians on how risk information should be framed and how the information should be presented so individuals can make treatment decisions that accurately reflect the objective data about risks and are consistent with their own values. In Phase I we will review the research literature on framing and information presentation and develop an experiment plan to conduct research on unresolved issues. We will also develop the requirements and an initial prototype for the authoring tool based on our literature review. In Phase II we will carry out the research program designed in Phase I, and apply the results to the development of the authoring tool. We will test the authoring tool using a range of use cases to insure that it is usable by clinicians and that the risk information that is developed is complete and comprehensible to patients. The value of this work is that it will allow authors to communicate information about risks in a way that is clear and comprehensible, and that allows individuals to make decisions that are in accordance with the objective data and with which they are comfortable. The advantage of a web-enabled tool is that it allows authors to easily update and modify information when necessary and allows end users ready access to the information. In addition to its use for communicating medical risks, the tool can be applied to communication about risks in other public and private sectors such as financial, nuclear, or transportation. The tool will be applicable for any commercial company that needs to communicate risks associated with the use of its products. |
| STOTTLER HENKE ASSOC., INC.
1660 So. Amphlett Blvd. Ste. 350 San Mateo, CA 94402 | |
| Phone:
PI: Topic#: |
(650) 655-7242
Dr. Sowmya Ramachandran OSD 02-H07 Awarded: 28JAN03 |
| Title: | Intelligent Authoring Tool for Informed Consent |
| Abstract: | We propose to specify, design, and prototype an intelligent authoring tool for informed consent. This limited prototype will demonstrate the feasibility of helping users create complete and accessible informed consent documents. The authoring system will prompt the user for the information required in an informed consent document. This information may contain decision biases, such as framing effects, which will automatically be detected and corrected by the authoring tool. We will use our expertise in intelligent authoring and knowledge acquisition to create this system, while relying on a diverse set of subject matter experts to assist us with domain knowledge. Jon Merz, a bioethicist, and Susan Brown, a regulatory documents specialist, will both be involved in this project. The end results of this Phase I effort will be a prototype authoring tool that creates informed consent documents capable of presenting risk information to the patient in a sufficiently thorough, understandable, and unbiased manner while still providing legal protection to the care provider, as well as the specification and design of the system to be completed in Phase II. The two main benefits for clinical medicine and medical research are a greater understanding of framing effects in informed consent and a method of creating complete, accessible, and unbiased informed consent documents. |
| TEKNOWLEDGE CORP.
1810 Embarcadero Rd Palo Alto, CA 94303 | |
| Phone:
PI: Topic#: |
(703) 378-6001
Dr. Michelle Sams OSD 02-H07 Awarded: 27JAN03 |
| Title: | Effectively Communicating Medical Risks |
| Abstract: | We propose to design and develop an effective medical risk communication tool, called CONSULT. The design will be based on an evaluation of the empirical research and studies that address risk perception factors and methods for improving risk communication. These include addressing issues in understanding probabilities, as well as emotional, social, media, and trust factors. A CONSULT authoring tool will be developed so that medical professionals and researchers can create consultations for new medical issues, as well as update information for existing issues. A key capability of the tool is the ability to build the risk probability models that are graphically displayed and interactive. These are the models that relate the client's personal data and profile (medical history, lifestyle choices) to the various risk outcomes (e.g., probability of side effects, or of recurrence of disease). The authoring tool will be designed so that there will be no requirement for programming languages or scripting. Clients can interact with CONSULT to play out `what-if' scenarios and view alternative consequences of choices. The types of information, multimedia, and presentation style will be customized to the individual based on their personal data and concerns profile. CONSULT is expected to provide benefits for clients, medical professionals, and researchers. Increased compliance with medical policies results in fewer health problems, reduces health care costs, and increases the readiness of personnel and troops for duty. CONSULT assists medical professionals to communicate medical risks to organizations and individual clients, exchange and update risk probability models among scientific community, and provide better patient care and health outcomes. In addition, CONSULT can be used as a research tool for evaluating alternative methods for effective risk communication. |
| BIO-TRACK LLC
800 East Leigh Street Richmond, VA 23219 | |
| Phone:
PI: Topic#: |
(804) 828-9329
Mr. Mark Licata OSD 02-H08 Awarded: 28NOV02 |
| Title: | SOF Critical Care Medical Tools |
| Abstract: | Current commercial market offers many products that may form the basis from which to proceed, these devices were not designed with the original intent to perform in the austere environment of combat by minimally trained personnel where evacuation and access to higher echelons of medical care are likely to be significantly delayed. The overarching challenge will be to design robust light-weight and easy to use critical care medical tools which meet the unique needs of SOF warfighters. Proper design of such devices should allow their application to known salvageable injury patterns with a minimum amount of failure. Successful design and creation of such devices will also provide advances in civilian emergency medical care. I - Development of a tourniquet that: a) Can be carried by each warfighter as a standard issue item. b) Can be easily self-applied using one hand in the event of that one extremity is incapacitated or required for other immediate action. c) Can be easily self-adjusted in terms of placement and in applied circumferential pressure allowing the user to know the pressure applied at any given moment. d) Ability to determine the safe limits of application in terms of tourniquet pressure, time, and perhaps even determine systemic blood pressure. e) Ability to apply the tourniquet directly to the wound with ports in the device for delivery of hemostatic, anesthetic, and antimicrobial agents to the wound without removing the tourniquet. f) Could be potentially incorporated into clothing and be in place at all times during mission. II - Development of an Airway Management Device that: a) Can be blindly placed and in correct position 100% of the time. b) Can be placed with no manipulation of the cervical spine c) Provides protection against aspiration d) Provides for gastric decompression e) Tamponades ororpharyngeal bleeding f) Prevents impending airway occlusion g) Provides adequate ventilation in the face of decreased chest wall compliance/high airway pressure h) Allows for subsequent endotracheal intubation without prior removal of the airway adjunct |
| PI MEDICAL, INC.
2800 Patton Road St. Paul, MN 55113 | |
| Phone:
PI: Topic#: |
(651) 634-3118
Dr. Anja Metzger OSD 02-H08 Awarded: 28NOV02 |
| Title: | SOF Critical Care Medical Tools |
| Abstract: | When military personnel are assigned to remote locations, are in combat, and are without a medic, the need for a lightweight and reliable system that stabilizes the airway following trauma is critical. Utilizing our unique understanding of airway compromise, we propose to design a system that can be used to establish an airway successfully and quickly in an unconscious person with an obstructed airway. The proposed system would enable military personnel with little medical training and acting in total darkness to place a device in the wounded soldier's airway to sustain the airway for a period of 60 minutes to 6 hours. The system shall not only serve to maintain the airway, but will also protect the airway from endogenous body fluids. Furthermore, the ability to easily access and deploy the airway maintenance system without compromising one's location by having to visualize the anatomy through illumination is critical to the mission and the persistence in combat of the warfighters. Finally, the system shall be compact, lightweight, include a minimal number of components, and require minimal training. Commercialization potential for a novel airway management system lies in the field of emergency medicine. Highly trained paramedics or emergency physicians sometimes experience difficulty in establishing an airway. Poor lighting in the field, accessibility to accident victims, and major head trauma are some of the situations were the proposed airway maintenance system could be beneficial to emergency medicine in life or death situations. Furthermore, this system could be utilized in situations encountered in remote areas such as the wilderness, bodies of water, in the air, offshore oil platforms, mountains, and in any other emergency situations where access to medical personnel and facilities is delayed. |
| TIAX LLC
15 Acorn Park Cambridge, MA 02140 | |
| Phone:
PI: Topic#: |
(617) 498-6411
Mr. Marc Drucker OSD 02-H08 Awarded: 02DEC02 |
| Title: | SOF Critical Care Medical Tools |
| Abstract: | SOF medics and operators require two pieces of FDA-approved equipment in order to provide critical care on the battlefield in many situations; a one-handed tourniquet, and an airway management device. While there are many devices on the commercial market that provide these functions for civilian applications, there are no products designed to meet the unique requirements of the SOF. This proposal addresses problems that are encountered by Special Operation Forces (SOF) medics with existing emergency medical tourniquets and airway devices. SOF places unique demands on medical equipment, driven by the types of operations they perform, the austere location that they operate in, and their remoteness from conventional military medical support. The performance requirements of equipment used by SOF medics differ significantly from civilian, Emergency Medical Technician (EMT), and hospital practices that drive the design of modern emergency medical equipment. This proposal plans to meet the needs of SOF for specially designed critical care medical tools with an innovative solution. Our approach to this problem combines a COTS-based mechanism that is specifically modified to meet the multiple needs of the SOF with an electronics package that deliver real-time spoken care instructions to potentially untrained users under duress. This solution meets the SOF needs through a medical tool that is lightweight, compact, and engineered for rapid battlefield application. The device shall provide care that is consistent with the SOF needs, recognizing the need to save a soldier who may be many days removed from advanced medical care. The electronics component will provide step-by-step care instructions to assist the untrained operator in the correct application of the device, increasing the patient's chance for survival. |
| GLOBAL EMEDICINE (DBA MEDANTIC TECHNOLOGY)
2710 W. Burbank Blvd. Burbank, CA 91505 | |
| Phone:
PI: Topic#: |
(801) 718-4181
Dr. Gregory Thompson OSD 02-H09 Awarded: 21JAN03 |
| Title: | Global Treatment Protocol Course via Advanced |
| Abstract: | For this Phase I project, Medantic Technology (MT) proposes to develop an algorithmic treatment protocol structure that can be populated with approved treatment protocols and embedded within an intelligent tutoring system, combining both didactic and simulation pedagogical platforms. MT will leverage its experience in Military Medicine, instructional design and Distance Learning, including both didactic and patient simulation technology, to deliver the conceptual design, functional and technical specifications for a complete training solution, as well as sample demonstrations of the new technology. The dual method (demonstration and practice) training system will be fully implemented in Phase II and will be Web-based for worldwide access. Didactic content will be available on handheld devices for remote use. The Web-based solution will include an LMS for tracking and reporting content usage and student performance. By re-purposing Medantic Technology's existing clinical knowledge base along with the new algorithmic data structure and protocol simulation architecture developed in this Phase I, Phase II work can include development of a decision support tool as an operational aid to healthcare personnel when implementing diagnostic and treatment protocols. With simple modification of the protocol simulation platform, this tool could provide synchronous, patient-specific protocol guidance, including via handheld devices. The Institute of Medicine's 1999 report on medical errors resulted in greater emphasis on, and demand for methods that reduce human fallibility. Training and re-training healthcare personnel in the proper implementation of treatment protocols is one important method of promoting standard practices; use of intelligent decision support tools is another. Distance Learning provides an efficient, cost-effective method for training healthcare personnel in non-threatening environments. However, to be effective, the instructional content must be engaging and must adopt optimal instructional design and sound pedagogical methodologies. Through repetition of dual methodology (demonstration and practice) training sessions, in a DL environment, deep memory and knowledge retention can be promoted more effectively than by repetition of a single method alone or by a single cycle of demonstration-practice, as occur in traditional educational settings. The new instructional system to be developed will provide a cost-effective way (build one, deliver many) for educators and learners alike to remotely access such a dual-method DL environment anywhere, anytime, every time. The resulting product will provide both an effective training system and a commercially important decision support tool within federal, academic, and private sector markets. Once developed, the new system's impact on medical error rates can be tested. |
| JXT APPLICATIONS, INC.
1122 Brewster Drive Dayton, OH 45434 | |
| Phone:
PI: Topic#: |
(937) 335-2108
Ms. Roberta S. Gearhardt OSD 02-H09 Awarded: 23JAN03 |
| Title: | Global Treatment Protocol Course via Advanced |
| Abstract: | According to the Institute of Medicine, within the United States an estimated 44,000 to 98,000 deaths occur each year because of preventable medical errors resulting in $29 billion in additional health care burdens. These errors can be traced to human factors despite the best intentions of medical personnel. The types of errors cover a broad range from medication errors, incorrect procedures, equipment misuse, to poor record keeping. They include all personnel involved in patient care. Within the military, medical personnel at all echelons lack formal protocol training for assessing patients and reporting patient conditions to physicians that would allow the latter to make the best possible patient diagnosis and direct the medical personnel to provide the best possible initial treatment until the patient can be transported to a medical facility. Some civilian medical communities are working to overcome this problem but no national standardization of medical treatment protocols for first responder personnel exists at this time. The focus of this program is to develop standardized first responder protocols for military and civilian use and to develop an Advanced Distributive Learning (ADL) web-based training course accessible world wide via PC and palmtop computer to train them. Patients will benefit most from this effort because of standardized protocols which lead to better and more effective communications between first responders, their colleagues, and physicians. The military services will benefit because fewer medical errors will be made that lead to unnecessary loss of personnel, corresponding warfighting capability, and the associated monetary cost. The civilian medical community will benefit because it will be able to take advantage of the work accomplished for the military and adapt it for use at little extra cost. Medical personnel, military and civilian, will benefit because the standardized protocols will enable them to do a better job and the web-based ADL training course will allow them to access timely training and a valuable job aid easily and quickly using PC and palmtop computer technology. Reduced errors will also reduce costs for everyone. |
| ONTAR CORP.
9 Village Way North Andover, MA 01845 | |
| Phone:
PI: Topic#: |
(978) 689-9622
Dr. John Schroeder OSD 02-H09 Awarded: 08JAN03 |
| Title: | Global Treatment Protocol Course via Advanced |
| Abstract: | There is a need in the modern military to optimize the time physicians interact with patients. For example, a goal is for doctors to spend no more than 15 to 30 minutes with the patient during routine outpatient appointments. A great deal must be accomplished during this time, ranging from a review of the vital signs and assessment of the patient's conditions, through a diagnosis and ordering of prescriptions, laboratory tests, etc. to a possible referral or follow up; and discharge. A significant advancement to improving physician /patient interaction is a set of standardized medical guidelines across both the US military and civilian medical community, and better training in the utilization of the guidelines. The training must be comprehensive ranging from diagnosis, through treatment, to the prevention of future medical conditions. The proposed program will accomplish this objective by combining the recent advances in telemedicine with those of Advanced Distributed Learning (ADL). The combination of telemedicine and ADL will be a powerful tool for training the medical community in the use of medical guidelines and related information such as Electronic Medical Records (EMR). We will accomplish this by utilizing two technologies that we have in place at Ontar. The first is called TENOR (Training and Education Network on Request) which is a highly sophisticated ADL system. The second system is called ComPResS (Computerized Patient Records System). ComPResS assists physician by providing EMRs on handheld devices in a wireless environment. Ontar will use TENOR as the ADL distribution media and interface for the proposed program. It leverages internet/intranet technology to deliver high quality content almost instantly to any location. The system has advantages which make it ideal for this application. We will use ComPResS to access and display DoD EMRs via the CHCS II system. We anticipate commercial products resulting from the proposed work. Ontar has found that there is a large commercial market for products derived from DoD research. Approximately 50% of our total corporate sales are from such products, with 45% of these sales outside the United States. These products are used by over 2500 DoD, industrial and academic institutions. Distance learning is an important part of both the civilian and military medical training. The proposed system will find wide applications in medical school for the basic training of new physician. However, we feel that its most significant use will be as a system that allows practicing physician a convenient way to refresh their medical skill. We have initiate discussion with the Massachusetts Technology Collaborative (MTC) to identify business areas and partners. Our relationship with our subcontractor will allow us access to a major civilian hospital system. |
| SOLUS, INC.
6555 Fort Myer Dr., Suite 700 Arlington, VA 22209 | |
| Phone:
PI: Topic#: |
(202) 333-3175
Dr. Roger von Hanwehr OSD 02-H09 Selected for Award |
| Title: | Distributed Medical Protocol Scenario Training Based on Rosetta Technology |
| Abstract: | SOLUS Inc. proposes an advanced distributive medical protocol 'course assembly' and 'scenario training' technology designed to meet multiple military mission objectives, including global standardization of treatment and decision-making algorithms. The system will be designed around a medical image database-coupled and telemedicine-deployable 'forward and reachback' training module intended for use by medical personnel engaged in professionally-interactive implementation of treatment protocols that guide initial assessment, diagnosis, and treatment of patients throughout local (standard medical facility) and remote (field combat) settings. With an adaptively intelligent tutor embedded in the training system, extensive use of semiotically-based, widget configuration-driven graphic user interface elements will enhance system applicability under performance stress, multi-task decision-making, and linguistically or culturally-variable geopolitical settings. Phase I will include detailed development of sample protocol content (based on approved military medicine practice guidelines) in three areas: closed and penetrating head trauma, intervention for systemic shock of multiple etiologies, and NBC threat exposure or related onset symptomatology. Designed to be internet-accessible on cutting-edge portable computational technologies, system design will utilize a proprietary version of the cutting-edge 'Rosetta' scenario assembly software technology for authoring and generating interactive multimedia training modules, and for running complex high-throughput graphically-driven routines in distributed user environments known for decision-implementation-intensive dynamics. SOLUS Inc. proposes an advanced distributive medical protocol 'course assembly' and 'scenario training' technology designed to meet multiple military mission objectives, including global standardization of treatment and decision-making algorithms. The system will be designed around a medical image database-coupled and telemedicine-deployable 'forward and reachback' training module intended for use by medical personnel engaged in professionally-interactive implementation of treatment protocols that guide initial assessment, diagnosis, and treatment of patients throughout local (standard medical facility) and remote (field combat) settings. With an adaptively intelligent tutor embedded in the training system, extensive use of semiotically-based, widget configuration-driven graphic user interface elements will enhance system applicability under performance stress, multi-task decision-making, and linguistically or culturally-variable geopolitical settings. Phase I will include detailed development of sample protocol content (based on approved military medicine practice guidelines) in three areas: closed and penetrating head trauma, intervention for systemic shock of multiple etiologies, and NBC threat exposure or related onset symptomatology. Designed to be internet-accessible on cutting-edge portable computational technologies, system design will utilize a proprietary version of the cutting-edge 'Rosetta' scenario assembly software technology for authoring and generating interactive multimedia training modules, and for running complex high-throughput graphically-driven routines in distributed user environments known for decision-implementation-intensive dynamics. |
| THE GLOBAL TELEMEDICINE GROUP
1317 Vincent Place McLean, VA 22101 | |
| Phone:
PI: Topic#: |
(703) 448-9640
Dr. Jay Sanders OSD 02-H09 Awarded: 30JAN03 |
| Title: | Global Treatment Protocol Course via Advanced |
| Abstract: | The Department of Defense recognizes a serious void in remote operational health care management and is searching for solutions to pressing medical readiness issues. New threats and new operational environments combined with a rapidly changing scientific database and scarce medical resources accelerate the demand for new tools and methods to enhance and strengthen remote medical management capabilties. Specifically, tools that distribute knowledge and capabilities to aid a range of first-responders in comprehensively evaluating a medical situation, guide the uniform collection and reporting of critical information, and provide a telemedicine clinical reach-back to medical experts are essential components of today's medical preparedness and response plans. The objective of this Phase 1 proposal is to design a framework for the development of a distributive, deployable, protocol-driven, training system with integrated telemedicine capabilities that will enhance and streamline the assessment and management of remote medical situations across military and civilian environments. Ultimately, the creation of this type of system could enhance the transfer of remote clinical and logistical information, expedite appropriate medical intervention, significantly leverage available medical resources and knowledge, reduce mortality, morbidity and the incidence of medical errors and reduce long-term injury related disabilities through rapid remote management of medical conditions. Potential Benefits: Ultimately, the creation of this type of system could enhance the transfer of remote clinical and logistical information, expedite appropriate medical intervention, significantly leverage available medical resources and knowledge, reduce mortality, morbidity and the incidence of medical errors and reduce long-term injury related disabilities through rapid remote management of medical conditions. Commercial Applications: It is now quite clear that the majority of continuing educational requirements for the healthcare provider (physician, nurse, medic etc.) will be done on a "just-in-time" basis both at the "point-of-care" and at the patient location (home or battlefield) utilizing wireless telecommunications infrastructure. Given this new process of care delivery it is apparent that the most critical resource will be the availability of evidence-based content and diagnostic treatment protocols provided over the distributed network infrastructure. The process for protocol development and the design of an infrastructure to support protocol distribution, represented in this proposal, will therefore have tremendous market potential. |
| COMMAND TECHNOLOGIES, INC.
405 Belle Air Lane Warrenton, VA 20186 | |
| Phone:
PI: Topic#: |
(210) 520-7973
Mr. Thomas Nicholas Meyer OSD 02-H10 Awarded: 14JAN03 |
| Title: | Generative, Knowledge-based Approaches for Rapid |
| Abstract: | Proposed here is an effort to develop a generative, knowledge-based instructional development and delivery system, Jenny, for simulation-based training. Courseware development with Jenny involves (a) populating a knowledge base representing the structure of subject-matter knowledge and (b) creating simulation-based and other instructional materials that are associated with the knowledge base. At delivery time, Jenny creates and manages instructional interactions that are responsive to a student model. The model is a representation for the knowledge base that is continuously updated based on student performance. Jenny will initially focus on procedure training, but will be designed to conform to a broader standards for interoperability of knowledge bases, instructional procedures, and instructional materials. In addition, the simulation-based delivery system will provide for instructional delivery through a variety of interfaces including the World Wide Web and virtual-reality systems. Jenny's approach will make it possible to fundamentally restructure the division of labor in the design, development, maintenance, and delivery of courseware. The result of this restructuring will be dramatic decreases in the costs and cycle times of instructional development and maintenance, and dramatic increases in the richness and responsiveness of instructional interactions offered to students. The goals are to (1) make it easy for subject-matter experts to develop high-quality interactive courseware, (2) make it possible to tightly couple the courseware to simulations that can vary over a wide range of types and fidelity, and (3) ensure that interactions with students are generated at run time directly from content knowledge and a dynamic model of the student's skills. There are two major groups of customers for authoring systems for simulation-based training. Potential customers include teachers, students, and schools which license applications developed with the tools and training development teams which use the authoring tools |
| STOTTLER HENKE ASSOC., INC.
1660 So. Amphlett Blvd. Ste. 350 San Mateo, CA 94402 | |
| Phone:
PI: Topic#: |
(650) 655-7242
Dr. Sowmya Ramachandran OSD 02-H10 Awarded: 08JAN03 |
| Title: | ADAPT-MD: A Dynamic Adaptive Training System For Simulation-based Medical Training |
| Abstract: Abstract not available... | |
| SCIENTIFIC SYSTEMS CO., INC.
500 West Cummings Park, Suite 3000 Woburn, MA 01801 | |
| Phone:
PI: Topic#: |
(781) 933-5355
Dr. Raman K. Mehra/Lingji Chen OSD 02-H11 Awarded: 27JAN03 |
| Title: | Problem Oriented Information Networking Tool (POINT)-- A Cognitive Integrated Medical Data Display System |
| Abstract: | With voluminous amount of patient data being collected in the process of providing medical services in any modern health care system, information overload has become an increasingly challenging problem that physicians face. In a typical patient-physician encounter, the physician only has limited time to collect relevant data from various sources, and therefore it is highly desirable that the computer system provides appropriate visualization and navigation tools for summarizing, exploring, processing, integrating and rapidly presenting large amount of medical data. Scientific Systems Company Inc., Dr. Qing Zeng from Harvard Medical School, and Dr. Douglas Rosendale from Grand Junction Veterans Affairs Medical Center, jointly propose to develop a knowledge-based, concept-oriented graphical data display system that provides for physicians a cognitive, "Gestalt" view of patients data. The proposed system will consist of four integrated parts: (1) knowledge acquisition and maintenance, (2) knowledge-based relevant data identification (interpretation, inference, analysis) (3) user interface design: graphical representation, customization, learning, and (4) data retrieval from various medical databases. The tasks that will be performed in Phase I are: (1) knowledge acquisition, (2) knowledge representation, (3) user interface design, (4) data retrieval, (5) proof-of-concept implementation, and (6) reports, meetings and Phase II recommendations. The technologies proposed in this effort, on knowledge acquisition, knowledge inference, customizable user graphical interface and universal data retrieval, are readily applicable to provision of health care not only within Department of Defense, but also within civilian settings that have extensive continuum of care business practices. |
| KNOWLEDGE BASED SYSTEMS, INC.
1408 University Drive East College Station, TX 77840 | |
| Phone:
PI: Topic#: |
(979) 260-5274
Dr. Satheesh Ramachandran OSD 02-H12 Awarded: 01FEB03 |
| Title: | Medical Materiel Knowledge Discoverer (MMKD) |
| Abstract: | Improving responsiveness requires continual innovation, and technology has created the opportunity to use knowledge discovery for innovation and continual improvement in supply chain logistics. DMLSS can use knowledge discovery to increase medical logistics support effectiveness while reducing costs in two distinct environments: Military Treatment Facilities (MTFs) and deployed theater forces. The changing composition of military activities, technology, and adversaries increases the possible rapid deployment of forces in a widening variety of scenarios, with more potential medical risks and challenges. Therefore, DMLSS must be able to rapidly deploy knowledge discovery and apply results to supply chain logistics and the early detection of critical events. However, while many excellent data mining tools exist, the process of knowledge discovery and its application is elusive (and frustrating) for most organizations. The main goal of the proposed initiative is to design, develop, and validate a Knowledge Discovery Framework (KDF) for the DoD Medical Logistics community. The main product of this effort will be the Medical Materiel Knowledge Discoverer (MMKD), a configurable, dashboard driven system for knowledge discovery with drill down capability for rapid navigation through data and rapidly deployable to capture knowledge, identify of out of balance conditions, and apply decision optimization techniques. The result of MMKD will be a solution for uncovering mission critical knowledge by users who are not data mining experts. The system will also have dashboard driven monitoring capability with drill down and decision tools based on the knowledge discovered. Immediate beneficiaries include the DOD medical supply chain managers as well as other supply chain managers. In the commercial arena, MMKD will be directly applicable for those in the medical supply chain industry; however, the rapidly configurable nature of MMKD will make it applicable to virtually any data rich environment, particularly when dealing with supply chain logistics. |
| PREMISE DEVELOPMENT CORP.
One Hartford Square West Hartford, CT 06106 | |
| Phone:
PI: Topic#: |
(860) 246-3000
Mr. Joseph Adam OSD 02-H12 Awarded: 24JAN03 |
| Title: | Data Mining for Early Identification of Critical Events/Conditions in Medical Logistics |
| Abstract: | The primary objective of this proposal is to identify critical data mining and analytical tools and emerging technologies and methodologies that can be used to improve the entire military medical logistics/supply chain management. In addition, as part of this research and analysis, Premise Development Corporation will demonstrate the feasibility of creating modern and user-friendly "dashboards" that integrates Defense Medical Logistics Standard Support (DMLSS) data. These dashboards empower users to produce business intelligence and knowledge management on demand and include Statistical Process Control (SPC) methodologies such as control charts, pareto diagrams, histograms, and other advanced data mining and visualization techniques. The architecture and functionality of the proposed |