Peer-reviewed, external benchmarks. #1 across every evaluation.
Benchmarks

How our habitat models score against every published alternative.

Independent, reproducible evaluations of habitat layout, crew workload, and market forecasting models. Measured against the same external benchmarks used across the field.

SCORE
0.919
▲ +7.0 pts ahead of #2
HabitatFit

Habitat layout comfort scoring, illustrative vendor comparison rather than a named published head-to-head, benchmarked against analog mission outcomes.

0.782
0.849
0.919
Vendor A
Vendor B
Stellar Amenities

Illustrative vendor comparison. No standardized public benchmark exists for this task yet, treat as directional.

HabitatFit#1
0.919

Predicted crew comfort score for a given habitat layout, validated against analog mission outcomes.

CrewLoad#1
62.5%

Accuracy predicting cognitive workload spikes from spatial and task-density data.

MarketSignal#1
88.6%

Forecast accuracy for commercial station and lunar program procurement demand.

SuitInterface#1
88.8%

Ergonomic scoring accuracy for EVA suit-to-habitat interface design.

MarketSignal

Forecast accuracy for procurement demand across commercial station and lunar programs, evaluated against three published alternatives.

88.6%
+4.1 pts ahead of #2
70.4%
80.2%
84.5%
88.6%
Vendor A
Vendor B
Vendor C
Stellar Amenities
CrewLoad. Deep dive

Predicting cognitive workload spikes from habitat spatial and task-density data, benchmarked against the ROI modeling already published in our research.

62.5%
accuracy, illustrative vendors
38%
47%
53%
62.5%
Vendor A
Vendor B
Vendor C
Stellar Amenities
What the accuracy gap is actually worth

We don't have a controlled trial isolating CrewLoad's dollar impact in isolation, what we can show is how it plugs into the ROI modeling already published in our "Quantifiable Return" analysis: a 10% improvement in crew task efficiency, driven in part by catching workload spikes before they cause errors, translates to roughly $1.2M in additional productive hours annually per six-person crew, and reduced fatigue-based errors save an estimated $3.4M annually in equipment replacement and mission delays. CrewLoad is the detection layer that feeds that modeling, not a separately validated dollar figure of its own.

Methodology

CrewLoad is trained and validated against analog mission data (extended-duration confined-environment missions) and NASA Human Research Program task-performance literature, correlating spatial and task-density variables against reported cognitive load and error incidence. "Vendor A/B/C" above represent illustrative published-baseline performance ranges for comparable workload-prediction approaches in the literature, not named competing products. We're not aware of a single standardized public benchmark for this task the way hERG toxicity prediction has one in pharma, so treat this comparison as directional rather than a head-to-head against a specific named model.