Ground truth,
applied.
Computational modeling, physical testing, surgical workshops, and device development in one lab, with evidence across all four domains, from in silico to in vivo. Validated models return results in hours and are trusted by regulators, clinicians, and device manufacturers across the innovation lifecycle.
One lab, three ways.
Biomechanical data across four cross-validated domains, from computational models to clinical results.
The four domains →Device workshops, usability evaluation, and cadaveric technique work in our surgical wet lab, 30 minutes from DFW.
Explore the lab →Devices, instruments, and surgical techniques designed and optimized from the evidence generated.
Explore development →Results in hours, not months.
Computational tools and models, validated one-to-one against their composite, cadaveric, and clinical counterparts. When your study fits one, the specimen work is already done, and testing your next design is computation, not another study.
Biomechanical evidence, generated and validated.
Across the musculoskeletal system and every specialty our published work reaches. Every result across the four domains is validated and produced in accordance with ISO/IEC 17025.
Sequence Cross-validation
Validate once. Iterate forever.
Digital twins of physical models, validated against the source: in vitro, in situ, or in vivo, depending on the experiment. Many already validated and ready to run. Custom validated models built to order. Once a model is validated, testing the next design, technique, or anatomy runs in software. Upload a device and imaging, and we return results.
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Repeatable, at any volume.
Non-cadaveric testing on synthetic bone, metal, and other analogs gives high-volume, repeatable mechanical evaluation. Validated against in situ and in vivo evidence, so synthetic results map to real tissue and real physiology.
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Bespoke science. Standardized protocols.
Human cadaveric biomechanics is the highest-fidelity physical model there is. Custom models designed for novel devices with no existing standard. Regulatory protocols are tightly controlled and standardized across all devices, so results are comparable from device to device and submission to submission. Validated against in vivo evidence.
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Proof, in living physiology.
Biomechanical validation in the living. It spans motion and kinematics, load and stress transfer, fixation and migration, fusion, alignment, and the full range of a device's behavior in the body, as measured by clinical imaging and follow-up. In vivo evidence is what the other three domains are ultimately checked against.
Start a projectNew studies start in days.
When your device needs a model that doesn't exist yet, or physical testing, we start in days.
Evidence for every decision.
The same evidence supports decisions from first design through post-market. One source, across the innovation lifecycle.
Peer-reviewed, and presented widely.
Validated biomechanical evidence across musculoskeletal specialties, from cadaveric and computational studies through clinical results. Peer-reviewed, and presented at the field's major meetings.
The engineers behind the work.
A team of engineers and scientists generating biomechanical evidence, led by its founders, Jeremi Leasure and Richard Raji, whose backgrounds span computational and physical biomechanics.
Co-Founder & Chief Executive Officer
Jeremi M. Leasure
A licensed professional engineer, Jeremi holds a master's in mechanical engineering from Drexel University and a bachelor's in mechanical engineering from Temple University, with research fellowships in orthopaedic biomechanics at the University of Tübingen and in clinical orthopaedics through the San Francisco Orthopaedic Residency Program. He has led engineering at Aurora Spine, Benvenue Medical, and Stress Engineering Services.
Co-Founder & Chief Technology Officer
Richard O. Raji
A licensed professional engineer, Richard holds a master's in bioengineering from UC Berkeley and a bachelor's in mechanical engineering from Afe Babalola University, with doctoral work in translational health sciences at George Washington University. He has directed orthopaedic research programs at UCSF Health (Stanyan Hospital) and Dignity Health (St. Mary's Hospital), and led Hyperloop stability-subsystem design and simulation at UC Berkeley.
In the field, and in the record.
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