From interoperable digital-health systems to patient-specific anatomical models, VisMed-3D turns healthcare ideas into validated tools, devices, simulations, and training assets.
HL7 FHIR-based systems that let health data move safely between platforms.
Design Thinking, personas, stakeholder evaluation, and rapid prototypes that test an idea before scale.
Patient-specific CT and MRI segmentation, pre-surgical guides, anatomical replicas, modeling, animation, and printing.
Custom surgical tools, device components, biocompatible materials, structural supports, and scalable additive manufacturing.
Rapid, precise crowns, bridges, stone models, partial frameworks, and orthodontic appliances.
Custom-fit orthopedic shoes, insoles, prosthetic limbs, patient-specific models, and personalized fitting support.
Performance and safety testing that reduces development cost, saves time, and increases the rate of product innovation.
Structured 3D printing, visualization, biodesign, clinical, and patient education for the next generation of innovators.
People are at the heart of innovation. We bring clinical, technical, and business stakeholders into a practical process that makes complex healthcare tools intuitive, testable, and ready for real-world use.
An archive of patient-specific models, surgical tools, research components, simulations, and additive-manufacturing experiments produced by VisMed-3D.
Showing 16 projects
Surgical planningA 3D craniotomy model is printed and used to make an accurate replica of skull, which is then used to simulate surgery prior to going to the operating room. This allows neurosurgeons to practice and identify what needs to be done during the surgical procedure.
Scanning & modelingX-ray: the limb is X-rayed in order to identify the break and exact position. 3D scan: the arm is scanned to provide the exact dimensions of the limb. 3D print: dimensions and data are fed into the computer, and a cast is generated with optimal support for vulnerable areas and to the exact size for a snug fit.
Anatomical model
Pre-surgical planningA pre-surgery preparation aid print of a patient-specific lower jaw that is accurately sized and contoured to allow the doctor to properly form the titanium reinforcement that will be screwed into the patient’s jaw. This support acts as a life-time structure for the jaw as a whole and specifically for the bone graft being concurrently performed. The advantage to this process is that it reduces the amount of time the patient has to be in the operating room by 20-30 minutes and allows the surgeon to do the physically hard labor of bending the titanium in advance instead of at a time just before complex microsurgery begins.
Anatomical modelThis 3D printed fibula is a true rendering of the fibula that is accurately sized and contoured, including vasculature to allow the doctor to prepare for the bone graft being performed. The key focus of this product is to help the doctor plan the surgery and identify potential issues related to the vasculature. The objective is that this will reduce overall operating time and improve outcomes by allowing for better planning before surgery.
Anatomical modelTo prepare for a complex procedure to correct a bone deformity in the knee that forces the patella out of alignment, VisMed-3D printed a patient-specific knee from a CT scan. The material used was printed in a hardness that approximates bone. The 3D printed knee allowed the surgeon to plan and practice the cut in advance of surgery.
Medical deviceCustom designed tweezers that reduce waste, more comfortably fit a doctor’s hand, and can be used in multiple applications. With its universal base, the sharp tips can be replaced when damaged rather than having to replace the whole tool. The tips can also be exchanged out for different tips to suit the doctor’s changing needs.
Anatomical modelThe full 3D skull is accurate to 16 µm, making it possible to identify even vascular patterns and nerve pathways. The accuracy at this resolution gives surgeons a better sense of what they face in surgery. The clear material makes it possible to see into sinus structures, giving a view not really possible with images presented in a 2D way.
Education & trainingThe 3D articulating, patient-specific spine was produced for a pedicle operation to insert 17 pedicle screws and connecting bars. The full-scale print was placed next to the spine during the procedure to inform the surgeon as he measured and planned the angle of entry and drill hole positioning for the pedicle screws.
Medical deviceThe extremely lightweight with high compression strength Elevate device is an essential solution for airway management and safety. Its unique shape and curvilinear design allows for increased contact surface area as well as multiple orientation use. The Elevate device provides the support needed against the constant downward pull on the endotracheal tube or tracheostomy tube due to the ventilator circuit weight while helping to maintain a secure airway.
Material innovationHex Mesh presents a novel geometry and innovation to print a variety of mesh based products including Hernia Mesh products.
Additive manufacturingBecause it is printed as one piece, there are no breaks in the links, and no weak spots. Consequently, the links can be smaller and still as strong, and the possibilities for new geometries is remarkable.
Prosthetics
Research equipmentResearch hospitals test new drugs and procedures on rats. In order to view results and side effects, the rats have to go through repeated MRI scans. This requires the use of specialized equipment to hold the rat in position. Each aspect of the device has to be machined to extreme resolutions to ensure exact measurements. VisMed-3D was able to produce these highly accurate brackets and parts in a material that is MRI compatible, without distorting the MRI image, at a significantly reduced cost.
Patient-specific replicas and guides turn CT and MRI data into tactile insight for planning, communication, and education.
Interoperable foundations connect patient engagement, care delivery, collaboration, clinical analytics, and personalized medicine.
Custom MRI-safe components, biosensor concepts, simulations, and test fixtures help researchers move faster.
Concept assessment, stakeholder feedback, material guidance, prototyping, and testing reduce risk before manufacturing.
From concept viability and HL7 FHIR interoperability to patient-specific models, surgical tools, and devices manufactured at scale, we build healthcare technology that holds up in the field.
