OsseoLabs utilizes 3D printing, biomechanics, and AI to create patient-specific dental and orthopedic implants with a patented porous architecture that enhances osseointegration and stability. Their solutions reduce surgical time, minimize recovery periods, and lower overall healthcare costs by providing precise, customized surgical guides and implants tailored to individual anatomical needs.
Funding
$1.4M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
Founders
Product
Problem
Traditional methods of creating dental and orthopedic implants often result in generic solutions that may not perfectly fit a patient's unique anatomy. This can lead to longer surgical times, extended recovery periods, and potentially higher healthcare costs due to imperfect implant integration and stability.
Solution
OsseoLabs leverages 3D printing, biomechanics, and AI to produce patient-specific dental and orthopedic implants and surgical guides. Their patented porous architecture enhances osseointegration, promoting better long-term stability compared to conventional implants. By creating customized implants and surgical guides tailored to individual anatomical needs, OsseoLabs aims to reduce surgical time, minimize recovery periods, and lower overall healthcare costs. The company's digital workflow and patient-specific 3D printed surgical guides enable surgeons to achieve highly precise surgeries.
Target Audience
OsseoLabs' primary customers are oral and maxillofacial surgeons, orthopedic surgeons, and hospitals seeking personalized cutting guides and personalized mandible reconstruction plate medical devices.
Features
- Patented TPMS© porous architecture designed to optimize osseointegration with customizable pore size and shape.
- Lattice-infilled implants for improved stability and more uniform stress distribution.
- Digital workflow and patient-specific 3D printed surgical guides for maxillofacial and orthognathic surgery.
- Computational design and finite element analysis for personalized orthopedic devices that perfectly fit the host bone shape.
- Customizable variables including porosity voids, unit cell size, wall thickness, and relative density.