SATPC0040314 Tab 04 4 SOW.pdf
PDF 40 KB Posted
- Attached to
- Models for central spatial orientation vestibular-visual processing Federal contract opportunity
- Solicitation number
- 80NSSC26922679Q
About this file
This is a Statement of Work outlining vendor requirements for developing and refining computational models of vestibular-visual processing for lunar landing astronauts. The vendor must develop models for central spatial orientation that incorporate optimal estimation based on sensory signal-to-noise ratios applicable to moon landing scenarios.
The vendor must demonstrate experience in both human experimental studies and dynamic computational modeling, specifically applying techniques such as perceptual thresholds, trial-to-trial variability analysis in motor responses, and Kalman filters. Additionally, the vendor must have proven expertise in developing computational models of human motion perception that account for pathology and aging effects. The models must be capable of explaining changes in motion perception dynamics when sensory signals vary, particularly in partial gravity environments where otolith organ g-level sensing differs across various mission phases.
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Other files for this federal contract opportunity
| File | Type | Posted |
|---|---|---|
| SATPC0040314 Tab 07 Capability Statement FBO Posting.pdf |
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Statement of Work
Vendor shall develop and refine models for central spatial orientation vestibular-visual processing, including optimal estimation according to sensory signal-to-noise ratio for astronauts landing on the moon. Vendor must have experience in using both human experimental studies and dynamic computational models, applying techniques such as perceptual thresholds, trial-to-trial variability in motor responses and Kalman filters. Vendor must have experience developing computational models of human motion perception that are adapted to pathology and aging. These models explain changes in the dynamics of perception of motion when sensory signals change, as they do in partial gravity, where the g level sensed by the otolith organ varies during different mission phases.
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