ALDAVER develops high-fidelity surgical training models using innovative materials that mimic human tissue properties. The company leverages 3D printing technology to create realistic, multi-layered organ simulations for medical professionals. This approach provides an affordable and accessible alternative to traditional training environments like cadavers or animals.
Funding
$7.8M 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 surgical training methods often rely on animal models or cadavers, which present ethical concerns, logistical challenges, and limitations in replicating the realistic feel and response of living human tissue. These methods can also be expensive and may not accurately simulate the complexities of specific surgical procedures.
Solution
ALDAVER develops high-fidelity surgical training models using a combination of biopolymer materials and 3D printing technology to mimic the mechanical properties and anatomical accuracy of human tissues. Their models simulate bleeding, vessel sealing, and tissue dissection, and they respond realistically to energy-based devices like electrosurgery units and lasers. This allows surgeons to practice procedures in a safe, repeatable, and realistic environment, improving their skills and reducing the risks associated with real-world surgeries. ALDAVER's technology enables customized models based on patient-specific CT or MRI data, offering a tailored training experience.
Target Audience
ALDAVER's primary customers include surgeons, medical residents, and medical device companies seeking realistic and repeatable surgical training solutions.
Features
- Biopolymer materials that replicate the texture, appearance, and mechanical properties of human tissues
- Simulation of bleeding, vessel sealing, and tissue dissection during surgical procedures
- Realistic response to energy devices, such as electrosurgery, harmonic scalpel, and lasers
- 3D printing technology for precise anatomical accuracy and multi-layered organ generation
- Reverse engineering technology using machine learning for rapid development of customized tissue properties
- Customization options based on patient-specific CT or MRI data
- Models available for various procedures, including RIRS, ECIRS, BPH (including HoLEP), vascular surgery, and skin procedures