Understanding the distensibility of blood vessels is vital for analyzing cardiovascular function and developing medical treatments. Distensibility refers to the ability of vessels to expand and contract with pressure changes.
Discover how the Stratasys J5 Digital Anatomy™ Printer advances medical practice by mimicking liver tissue, myocardium, and other soft organs. Explore the benefits of realistic anatomical models for research and training.
Experience unparalleled realism in anatomical modeling with the Stratasys J5 Digital Anatomy™ Printer. Our cutting-edge technology offers a cost-effective, ethical, and environmentally friendly alternative to traditional cadaver and porcine labs.
Discover how 3D printing is revolutionizing anatomical models: 3 whitepapers detail the tech, materials & printers for precise vascular and tissue models.
Alongside the shift in healthcare toward personalized medicine, 3D print technology has emerged as an invaluable tool for academic medical centers, hospitals, and medical device manufacturers to create patient-specific anatomical models.
To create the most realistic, patient-specific simulation for surgical training, vascular models must mimic how native tissue responds to pressure, punctures, and stitches
Researchers at the Computational Mechanics and Experimental Biomechanics Lab tested the accuracy and realism of J750 Digital Anatomy printed bone models.
3D anatomical models don’t require regulatory ethical requirements (or a facility to handle the biohazards and sterilization) and offers longevity and reduced cost compared to ex-vivo and in-vivo cadaveric animal testing.
Learn how 3D printed models are used for presurgical planning in neurosurgery.
In this Best Practice White Paper learn how cardiothoracic surgical teams are using 3D printed models to perform surgeries more effectively and safely at less cost.
