3D Printing Solutions for Medical Innovation

The Faster Way to Better Medical Devices

APPLICATION

PRODUCT

PC-ISO, ABS-M30i, Digital Materials, Connex3, Stratasys J750, Fortus

Validate device performance on patient-derived 3D printed anatomical models versus existing models such as animals and cadavers. Based on real patient imaging, 3D printed models mimic a variety of tissue properties in a single print. Stratasys Medical 3D Printing Solutions can help you accelerate product development from 3D printed concept models to preclinical testing allowing manufacturers to gain certainty, test anywhere, and mitigate cost overruns.

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Vascular models designed by the Jacobs Institute

Innovation That Advances Patient Care

APPLICATION

Clinical Training Models

PRODUCT

Stratasys J750, Digital Materials, Fortus 900

Conduct clinically relevant training anywhere on realistic anatomical models customized for virtually any clinical scenario. Provide a memorable, hands-on experience with customized models that represent specific pathologies and mimic human tissue and bone. Multi-material 3D medical printing creates accurate, versatile models in less time and at a fraction of the cost.

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a doctor performing a practice surgery on a manekin head made for CBMTI using PolyJet materials and a Stratasys Printer

Physicians training using model built from real patient imaging

Rely on Performance

APPLICATION

Medical Manufacturing

PRODUCT

PC-ISO, ABS-M30i, Digital Materials, Stratasys J750, Fortus 900

Support clinical trial and early commercial production by increasing production flexibility. At a fraction of the cost of machining, you can additively manufacture functional parts while eliminating medical manufacturing constraints and making production more agile and responsive. Stratasys 3D printing solutions for medical reduce scrap, provide unmatched design freedom, move quickly from prototype to final product, simplify short production runs, and reduce waste and warehousing costs.

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2 computer monitors that where made using 3D printed parts

Acist Medical creates production flexibility through additive manufacturing

Surgical Planning Programs Save Money

APPLICATION

Surgical Planning Models

PRODUCT

Connex3, Stratasys J750, PolyJet Photopolymers

Surgical planning with 3D patient-specific models can improve clinical outcomes and procedural economics driving significant savings and financial benefit to the hospital. Stratasys Medical Experts developed a Return on Investment (ROI) framework that can be customized to any hospital. The pharmacoeconomic analysis demonstrates how a 3D printing program can positively impact hospital costs, improve efficiencies and provide new revenue opportunities. Find out the true value 3D printing can bring your hospital.

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A young girl, holding a 3D printed medical model of her own heart that was used for Surgical Planning

Physicians at Nicklaus Children’s Hospital use 3D models to improve outcomes

“My team could visualize the operation before we started. We knew the safest approach, and confidently made a smaller incision.”

Dr. Redmond Burke, Nicklaus Children's Hospital

Applications Within Medicine

A person holding a life-like, multi-colored, 3D printed liver made from the Stratasys J750 printer

SURGICAL PLANNING MODELS

Optimize surgical planning with spatially, tactilely, and physically accurate models based on patient scans. Surgical teams can use the 3D printed models to plan therapeutic approaches, and make more efficient use of expensive operating room time. Read More

doctors performing a practice surgery on a manekin head made for CBMTI using PolyJet materials and a Stratasys Printer

EDUCATION AND TRAINING

3D printed multi-material models can replicate the complexity and wide range of patient pathology, making them superior tools for medical education. But how do 3D printed models compare to traditional training methods? Read More

MEDICAL DEVICE PROTOTYPING

Get to market faster with clinically meaningful and marketable products. Use 3D printing solutions to rapidly produce prototypes with the shape, texture, and material properties of any medical device. Test quickly for early feedback and optimize designs for final production. Read More