Virtual Human Twins Real Design Confidence
Test Early – Learn Faster – Reduce Risk
Implementation Support
Seamless onboarding and expert support to integrate DARERL effortlessly into your existing workflows.
Corporate License Benefits
Scalable access for your entire organization, ensuring optimal utilization of our technology across all teams.
Preferred Partner Support Package
Priority assistance and exclusive pricing that recognizes your vital contribution to our early growth phase.
Training Workshops
Comprehensive education and hands-on workshops so your end-users can achieve true design confidence.
The Device Development Paradox
The Core Paradox: Development timelines are shrinking due to technological advances. However, the expertise and clinical evidence required to achieve successful regulatory clearance are deeper and more complex than ever before.
The Reality: Innovators must constantly balance rigorous clinical testing with practical necessity. Relying on traditional, rigid development pipelines creates a critical bottleneck—where discovering a flaw during late-stage physical testing causes severe timeline delays and exponentially growing costs if sudden changes are introduced.
We break the paradox. DARERL gives you the tools to virtually test, analyze, compare, and iterate with Virtual Human Twins long before physical prototypes are ever built. By shifting into a high-fidelity digital environment, you bypass legacy bottlenecks and drastically reduce your reliance on costly animal models, scarce cadaver studies, and oversimplified bench tests or physical phantoms. Your organization gets knowledge into the development process early and fast, enabling rapid iterations, scaling across teams and drastically reducing risk.
A Seamless 3-Step Workflow
Import
Upload your native CAD prototypes directly into the DARERL environment. No complex file conversions or steep software learning curves required to get started.
Interact
Interact dynamicly, using realtime physics-based human interactions. Let your device interact with living tissue across varying demographics using broadcast.
Iterate
Analyze high-fidelity stress data, friction maps, and acoustic seals. Spot the failure points, refine your geometry, and test again in minutes—not months.
The Science Behind
Our Virtual Human Twins are not just static visual representations; they are dynamic, data-driven models built to bridge the gap between human complexity and digital product design.
Interactive Physics & Gamification
Utilizing high-fidelity physics and mathematical principles combined with interactive environments you can simulate dynamic human-device interactions, allowing you to interactively and intuitively test limits and scenarios.
Verified Data Collection
Built on robust data collection pipelines and rigorous verification protocols, ensuring that every interaction and movement of the twin is grounded in accurate, real-world observations.
Population-Based Analytics
Applying advanced statistical methods to analyze human variance, enabling your teams to make data-driven decisions about designs accommodate and scale to the full diversity of your target anatomy and demographics.
Engineered for Informed Decisions
Seamless CAD Integration
Import your existing hardware prototypes directly into the DARERL environment. Test your geometry against living, breathing digital anatomy without altering your native engineering workflows.
Real-time Soft Tissue Interaction
Simulate device-tissue interactions. Our engine maps the physical interaction of your device with skin, fat, and muscle in real-time.
Broadcast & Replays
Interact with your device on a single anatomy, then instantly replay that same interaction across your entire target population. Effortlessly repeat tests whenever a device modification is made.
Analyze the Effect of Variability
Select individuals based on specific demographic data. Use broadcast and replay to collect data, then leverage our analytics tool to explore the evidence generated throughout your selected population.
Where Virtual Twins Shine
Wearables & Hearables
Optimize acoustic sealing and map skin interaction for continuous-wear devices. Guarantee comfort and prevent audio leakage by testing exact hardware geometries against tissue specific models of the human ear canal. Modelling skin contact for a wrist worn device or formfactor of other hand worn devices.
Surgical Instruments
Perfect your grip ergonomics. Measure simulated surgeon hand strain, optimize handle designs, and account for the tissue resistance your devices will face—without requiring physical tissue.
Catheters & Endoscopy
Validate vascular navigation with confidence. Test catheter flexibility, track insertion trajectories, and estimate tissue strain as your devices navigate through complex, patient-specific vascular and airway topologies.
Respirators & Masks
Ensure airtight seals across global demographics. Map strap tension and soft-tissue deformation against diverse facial bone structures to eliminate air leaks, pressure sores, and user discomfort before molding a single physical prototype.
Verified Human Data
Our Virtual Human Twins are not artistic interpretations. They are the result of a strict, well-documented computational pipeline that translates living human biology into actionable engineering data.
Specialized Human Scanning
High-resolution volumetric data is captured directly from diverse, living human subjects using a proprietary clinical scanning protocol, ensuring true anatomical reality and variability rather than theoretical averages.
Processing
Raw medical imaging is processed to isolate distinct biological structures such bone, cartilage, fat, vessels, ligaments, GI-tract parts, ureter, urethra muscle etc. to ensure accurate multi-layered tissue behavior.
Topological Validation
The extracted geometries undergo strict validation statically and dynamically. This ensure that tissue boundaries are perfectly preserved, error are eliminated and uncertainties are mapped.
Quality Assurance (Q/A)
Every model is calibrated against real-world data. The deformation benchmark against the properties of the real data to ensure that model can represent real physical deformation.