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3D Printing in Healthcare Simulation, Clinical Education & Medical Applications

Updated: Jul 17, 2023



Healthcare simulation has become an invaluable tool in training healthcare professionals, allowing them to practice critical skills in a safe and controlled environment. One of the key technologies that has revolutionized healthcare simulation is 3D printing. By harnessing the power of 3D printing, healthcare simulation has been elevated to new heights, offering realistic anatomical models, medical devices, and surgical aids that enhance the training experience and improve patient outcomes.


Traditionally, healthcare simulation relied on basic models and manikins that provided limited realism. However, 3D printing has opened up a world of possibilities by allowing the creation of highly accurate and customized models that closely resemble human anatomy. These models can replicate specific patient cases, complex anatomical structures, and even pathologies, providing learners with a realistic representation of the human body.


One of the greatest advantages of 3D printing in healthcare simulation is its ability to create patient-specific models. Medical imaging, such as CT scans or MRIs, can be used to generate detailed 3D models of a patient's anatomy. These models can be printed in various materials that simulate different tissue properties, allowing learners to practice procedures on models that closely resemble real patient anatomy. This patient-specific approach enhances the training experience by enabling learners to develop a deeper understanding of individual variations and complexities in anatomy.


In addition to patient-specific models, 3D printing plays a crucial role in creating medical devices and surgical aids for simulation training. Surgeons can now practice complex procedures using 3D-printed surgical guides, models, and instruments that replicate the specific anatomy and pathology they will encounter in real surgeries. This allows surgeons to refine their techniques, improve procedural planning, and enhance patient safety before entering the operating room.


Moreover, 3D printing enables the creation of functional simulators that replicate the physiological responses of the human body. For instance, the printing of vascular models with flow dynamics can mimic blood flow, providing learners with a realistic experience when practicing procedures such as catheterization or vascular interventions. These functional simulators help bridge the gap between theory and practice, enabling learners to develop the necessary skills and confidence to perform procedures on real patients.


The impact of 3D printing in healthcare simulation extends beyond training healthcare professionals. It has also transformed patient education and communication. With the help of 3D-printed models, healthcare providers can visually explain complex medical conditions to patients, enhancing their understanding and facilitating shared decision-making. Patients can better comprehend their own anatomy, potential treatment options, and expected outcomes, leading to improved patient satisfaction and engagement.


Despite the numerous benefits, challenges remain in the widespread adoption of 3D printing in healthcare simulation. The cost of 3D printers, materials, and expertise in 3D modeling and printing can be a barrier for some institutions. However, as the technology continues to evolve, costs are expected to decrease, making it more accessible to healthcare simulation programs.


Research & Reports

3D printing in medical applications


SprintRay specializes in the development and production of resin-based desktop 3D printers specifically designed for dentistry applications. Among its product lineup, the MoonRay stands out as an SLA and DLP-based 3D printer with a print volume measuring 3.7 x 2.3 x 8 inches. It enables high-resolution printing with a layer thickness of up to 100 microns and a print speed of 100 microns per hour. Primarily utilized in the dental industry, this printer aids practitioners in optimizing their surgical practices by providing 3D models, custom dental models, splints, aligners, and more.


Biomodex focuses on developing 3D printed surgical simulators that serve both medical education and patient-specific preoperative planning purposes. Leveraging advanced 3D printers and three-dimensional modeling techniques, the company produces precise replicas of organs. These replicas are utilized for training medical staff and conducting preoperative simulations. By employing biomedical imaging data from MRI or scanners, Biomodex has streamlined the process of creating virtual 3D models of organs, which can then be printed using 3D printers. The company's product offerings span various areas, including bone drilling, soft tissue suturing, medical device implantation and sizing, pathology specifications, medical imaging segmentation, biomechanical modeling, organ 3D printing, simulation environments, and surgical simulation procedures.


Open Bionics has made significant strides in the development of a cost-effective robotic prosthetic hand through the utilization of 3D printing technology. This lightweight and affordable robotic hand utilizes muscle contraction and expansion sensing to interpret and replicate the subtle nuances of muscle movements, closely resembling the functionality of a natural hand. The company successfully raised $67.5k through an Indiegogo crowdfunding campaign. Open Bionics has been recognized with prestigious accolades, such as the Inclusive Technology Prize and the prosthetic innovation award by Limbless Association Prosthetic and Orthotics Awards. Additionally, it has been listed among the top 50 robotics companies in the international RBR50 list.


CertaScan has developed CertaScan, an infant foot scanning system designed specifically for hospitals. This system aids hospitals in ensuring accurate identification of infants from birth throughout their stay. CertaScan offers a unique pricing model where there are no upfront costs for system installation. Instead, the company charges a fee per newborn foot scan, making it a cost-effective solution for hospitals.


In conclusion, 3D printing has revolutionized healthcare education and medical applications by offering realistic anatomical models, patient-specific training tools, and functional simulators. It has transformed the way healthcare professionals are trained and practice clinical care, allowing for highly realistic and personalized experiences. As the technology continues to advance and become more affordable, 3D printing will play an increasingly vital role in healthcare, ultimately leading to improved patient care and outcomes.



This is a free article courtesy Healthcare Simulation Middle East

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