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NASA Scientific and Technical Aerospace Reports

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20040073543 National Center of Hygiene, Medical Ecology <strong>and</strong> Nutrition, Sofia<br />

Functional Determination of the Operator State in the Interaction of Humans with Automated Systems<br />

Nikolova, Rouja; Radev, Valentin; Vukov, Mircho; Oct. 2003; 13 pp.; In English; Original contains color illustrations<br />

Report No.(s): AD-A422309; No Copyright; Avail: CASI; A03, Hardcopy<br />

No abstract available<br />

Automatic Control; Heart Rate; Human Performance; Man Machine Systems; Stress (Physiology); Stress (Psychology);<br />

Workloads (Psychophysiology)<br />

20040073571 Army Research Lab., Aberdeen Proving Ground, MD<br />

Validation of Improved Research Integration Tool (IMPRINT) Driving Model for Workload Analysis<br />

Wojciechowski, Josephine Q.; Apr. 2004; 26 pp.; In English; Original contains color illustrations<br />

Contract(s)/Grant(s): Proj-AH70<br />

Report No.(s): AD-A422389; ARL-TR-3145; No Copyright; Avail: CASI; A03, Hardcopy<br />

The Human Research <strong>and</strong> Engineering Directorate of the U.S. Army Research Laboratory developed a model of the tasks<br />

<strong>and</strong> workload associated with driving a ground vehicle. The human performance modeling tool, Improved Performance<br />

Research Integration Tool (IMPRINT), was used to simulate the driving tasks. Perception, cognition, <strong>and</strong> motor control were<br />

represented in the IMPRINT driving model. Human processing, attention, <strong>and</strong> response were simulated as concurrent discrete<br />

events. Subsequently, the driving model was incorporated into other IMPRINT models used to investigate crew size <strong>and</strong><br />

function allocation in Future Combat Systems (FCS) conceptual ground vehicles. Driving is a primary crew function in FCS<br />

ground vehicles. The results of this study indicated that a dedicated driver was recommended in combat vehicles. In all<br />

configurations tested, the driver was consistently the crew member with the highest workload. As expected, results of<br />

simulation runs were consistent with research on driving <strong>and</strong> distraction. Structural <strong>and</strong> output validation of the model was<br />

completed through literature review. Driving by itself is a high mental workload function. The human processing capacity is<br />

fully engaged in tasks when one is driving, with the primary load being in perception <strong>and</strong> cognition. Literature shows that<br />

performance will start to degrade if additional tasks are attempted during driving, especially if the tasks are highly perceptual<br />

or cognitive. This model provides a reasonably simple way to represent the driving function <strong>and</strong> can be used for investigating<br />

any system where driving is important. For FCS, this will include direct driving <strong>and</strong> teleoperations. Several additional<br />

validation studies are planned.<br />

DTIC<br />

Combat; Workloads (Psychophysiology)<br />

20040073626 Space <strong>and</strong> Naval Warfare Systems Center, San Diego, CA<br />

Advanced User Interface Design <strong>and</strong> Advanced Internetting for Tactical Security Systems<br />

Murray, S. A.; Gage, D. W.; Bott, J. P.; Murphy, D. W.; Bryan, W. D.; Jun. 1998; 7 pp.; In English<br />

Report No.(s): AD-A422503; No Copyright; Avail: CASI; A02, Hardcopy<br />

In recent years military security forces have operated in a climate of increasing mission complexity <strong>and</strong> diversity. As a<br />

response to such challenges, the U.S. Army Training <strong>and</strong> Doctrine Comm<strong>and</strong> (TRADOC) approved a concept for a Family<br />

of Integrated Tactical Security Systems (FITSS) involving integrated security sensor systems to support future operations. In<br />

support of this concept the Defense Special Weapons Agency (DSWA), at the request of the U.S. Army Product Manager -<br />

Physical Security Equipment, initiated two exploratory development projects at SPAWAR Systems Center, San Diego, to<br />

develop an Advanced User Interface for Tactical Security (AITS) <strong>and</strong> a Tactical Sensor Internetting <strong>and</strong> Integration (TS2I2)<br />

capability. These projects are complementary in approach <strong>and</strong> application. AITS addresses the human factors <strong>and</strong> display<br />

technologies needed to effectively support tactical security personnel with sensor information in a clear, intuitive manner while<br />

TS2I2 is focused on a protocol architecture to support control of multiple tactical sensors using current communications<br />

resources. The concepts behind these projects <strong>and</strong> their current progress are described in this paper. (10 refs.)<br />

DTIC<br />

Architecture (Computers); Human-Computer Interface; Interoperability; Security; Warning Systems<br />

20040073821 MicroOptical Engineering Corp., Westwood, MA<br />

Micro-Controllable, Multi-Functional Interface Module for Digital MP: A wearable Computer Security Application<br />

Spitzer, Mark B.; Rensing, Noa; May 2004; 45 pp.; In English<br />

Contract(s)/Grant(s): DAAD16-00-C-9277<br />

Report No.(s): AD-A422868; NATICK-TR-04/014; No Copyright; Avail: CASI; A03, Hardcopy<br />

179

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