Vitruvex Intelligence
A practical knowledge base for the people who design, evaluate, deploy and fund human-centered physical intelligence.
Two lenses. One system.
The technical track helps teams frame the task, test the system and protect the user. The investment track translates that evidence into risk, value, market entry and scale.
01
Technical field notes
Exoskeleton & human performance
Task selection, active and passive architectures, pilot design, ergonomics, safety and connected fleet operations.
02
Capital intelligence
Wearable robotics investment
Risk retirement, evidence-led valuation, market entry, grants, intellectual property and international scale.
Technical field notes
Task selection, active and passive architectures, pilot design, ergonomics, safety and connected fleet operations.
what is an exoskeleton
A decision-oriented introduction to industrial exoskeletons: system types, task fit, evidence limits and the questions a serious pilot should answer.
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active vs passive exoskeleton
Power source is only the beginning. Compare assistance profiles, control, mass, failure behavior, maintenance and task fit before choosing an architecture.
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back support exoskeleton selection
A practical framework for evaluating alignment, assistance, movement freedom, thermal comfort, safety, serviceability and evidence.
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industrial exoskeleton pilot
Move from demonstration to evidence with a staged pilot covering task selection, baseline, safety gates, user acceptance and deployment criteria.
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exoskeleton safety
A safer exoskeleton program looks beyond assistance and tests pressure, balance, mobility, thermal load, hygiene, over-reliance and transferred exposure.
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connected exoskeleton fleet
A practical architecture for device status, maintenance, utilization and privacy-aware operational learning—without turning worker monitoring into surveillance.
Read the analysisCapital intelligence
Risk retirement, evidence-led valuation, market entry, grants, intellectual property and international scale.
wearable robotics investment
A disciplined investment thesis for systems that connect biomechanics, control, sensing, software and industrial operations around human capability.
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deep tech investment risk
Replace vague growth promises with gates for performance, safety, industrial readiness, reference deployment and repeatable commercialization.
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exoskeleton go to market
Define a focused customer, paid learning motion, reference deployment and service architecture before attempting channel scale.
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robotics investment due diligence
Public R&D support and a PCT filing can strengthen diligence, but they do not replace product evidence, granted rights, market validation or execution quality.
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deep tech company value
A practical value architecture connecting protected know-how, verified product behavior, manufacturability, service learning and customer evidence.
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wearable robotics international expansion
Use Türkiye’s engineering and supply advantages, regional partners and a staged US structure to expand without fragmenting product evidence or governance.
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robotics investor data room
Organize product evidence, IP, quality, supply chain, pilots, economics, governance and risks so an investor can verify the company rather than decode it.
Read the analysisEditorial method
Every article begins with a real engineering, deployment or capital-allocation question—not a keyword quota.
Official standards, public programs and occupational-safety research are linked. Product claims are not inferred from general research.
Archive labels describe the R&D or thesis period discussed. WordPress keeps the real publication and update dates.
From reading to evidence
We can frame a use case, pilot question or investment diligence conversation around the evidence that still needs to be produced.
Start a focused conversation