Name: Mixed reality-technologie en driedimensionaal printen in het onderwijs: hartanatomie als voorbeeld (Video) | JoVE Journal
Uploaded: 2025-04-18T13:40:00.000+00:00
Duration: 6 min 18 s
Description: Verken mixed reality-technologie voor medisch onderwijs met 3D-geprinte hartmodellen en hologrammen. Deze methode verbetert de anatomische kennis van studenten door interactieve visualisatie met Microsoft HoloLens.

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<table><tbody><tr><td>3D Slicer</td><td>The Slicer Community</td><td>https://www.slicer.org</td><td>Versie 5.6.0</td></tr><tr><td>CarnaLifeHolo&nbsp;</td><td>MedApp S.A.</td><td>https://carnalifeholo.com</td><td>3D visualisatiesoftware</td></tr><tr><td>Meshmixer</td><td>Autodesk Inc.</td><td>https://www.research.autodesk.com/projects/meshmixer/</td><td>prototype ontwerpsoftware</td></tr><tr><td>Ender 3&nbsp;</td><td>Creality&nbsp;</td><td>https://www.creality.com/products/ender-3-3d-printer</td><td>3D printer</td></tr><tr><td>Cura</td><td>UltiMaker&nbsp;</td><td>https://ultimaker.com/software/ultimaker-cura/</td><td>3D printsoftware</td></tr></tbody></table>

mixed reality-technologie en driedimensionaal printen in het onderwijs: hartanatomie als voorbeeld

Mixed Reality Technology and Three-Dimensional Printing in Teaching: Heart Anatomy as an Example

Mixed reality-technologie en driedimensionaal printen in het onderwijs: hartanatomie als voorbeeld

Mixed reality technology and three-dimensional (3D) printing are becoming more and morecommon in the field of medicine. During the COVID-19 pandemic and ...

mixed-reality-technology-three-dimensional-printing-teaching-heart

Research

JoVE Journal

Medicine

Geneeskunde

Met behulp van moderne kunststof extrusie en printtechnologieën, is het nu mogelijk om snel en goedkoop te produceren fysische modellen van de X-ray CT-gegevens die in een laboratorium. De drie-dimensionale afdrukken van tomografische gegevens is een krachtige visualisatie, onderzoek, en een educatief instrument dat nu kan worden benaderd door de preklinische beeldvorming gemeenschap.

3D Printing van preklinisch X-ray computertomografie tomografische gegevens Sets

Een methode wordt beschreven voor het weergeven anatomische beeldgegevens binnen kristallen. Wij creëren geschaald driedimensionale modellen van biomedische beeldvorming gegevens voor gebruik in Sub-Surface Laser Gravure (SSLE) van kristalglas. Deze tool biedt een nuttige aanvulling op computational beeldscherm of driedimensionaal gedrukte modellen die binnen de klinische of educatieve instellingen.

Scaled anatomisch model Creatie van biomedische tomografieafbeeldingssysteem gegevens en bijbehorende labels voor volgende Sub-surface Gravure van de Laser (SSLE) of Glass Crystals

Dit protocol beschrijft een procedure voor het maken van functionele neonatale kunsthart modellen met behulp van een combinatie van magnetische resonantie beeldvorming, 3D printen en spuitgieten. Het doel van deze modellen is voor integratie in de volgende generatie van neonatale patiënt simulatoren en als een instrument voor de fysiologische en anatomische studies.

Anatomisch realistische neonatale hart Model voor gebruik in neonatale patiënt simulatoren

Hier presenteren we een protocol voor het gebruik van drie dimensionale gedrukte modellen voor pre-operatieve planning en intraoperatieve reorganisatie van ingewikkelde vasculaire locaties bij de behandeling van een aangeboren aorta anomalie.

Drie-dimensionale afdrukken van een complexe aorta anomalie

Het protocol beschrijft de fabricage van volledig gekleurde driedimensionale afdrukken van patiënt-specifieke, anatomische schedel modellen te gebruiken voor chirurgische simulatie. De cruciale stappen van het combineren van verschillende beeldvormings modaliteiten, beeldsegmentatie, driedimensionale model extractie en de productie van de prints worden toegelicht.

Multicolor 3D printen van complexe intracraniële tumoren in Neurochirurgie

Spin coating, polyjet Printing, en gesmolten afzetting Modeling zijn geïntegreerd om gelaagde heterogene Phantoms te produceren die structurele en functionele eigenschappen van biologisch weefsel simuleren.

Multimodale 3D-printen van Phantoms om biologisch weefsel te simuleren

Hier gepresenteerd is een methode om een Augmented Reality smartphone applicatie te ontwerpen voor de visualisatie van anatomische driedimensionale modellen van patiënten die een 3D-gedrukte referentie marker gebruiken.

Augmented Reality en 3D-printen combineren om patiënt modellen op een smartphone weer te geven

Hier presenteren we de ontwikkeling van een mock circulation setup voor multimodale therapie evaluatie, pre-interventionele planning en arts-training over cardiovasculaire anatomieën. Met de toepassing van patiëntspecifieke tomografische scans is deze opstelling ideaal voor therapeutische benaderingen, training en onderwijs in geïndividualiseerde geneeskunde.

Ontwikkeling en evaluatie van 3D-geprinte cardiovasculaire phantoms voor interventionele planning en training

Patiëntspecifieke modellen verbeteren het vertrouwen van de chirurg en collega bij het ontwikkelen of leren van chirurgische plannen. Driedimensionale (3D) printers genereren voldoende details voor chirurgische voorbereiding, maar slagen er niet in om de haptische getrouwheid van weefsel te repliceren. Er wordt een protocol gepresenteerd met details over de creatie van patiëntspecifieke, siliconen cardiale modellen, waarbij 3D-printprecisie wordt gecombineerd met gesimuleerd siliconenweefsel.

Creatie van patiëntspecifieke siliconen cardiale modellen met toepassingen in pre-chirurgische plannen en hands-on training

Deze methode demonstreert een voxel-gebaseerde 3D-printworkflow, die rechtstreeks vanuit medische beelden afdrukt met exacte ruimtelijke getrouwheid en ruimtelijke / contrastresolutie. Dit maakt de precieze, gegradueerde controle van materiaalverdelingen mogelijk door morfologisch complexe, gegradueerde materialen gecorreleerd aan radiodensiteit zonder verlies of wijziging van gegevens.

Voxel Printing Anatomy: Ontwerp en fabricage van realistische, prechirurgische planningsmodellen door bitmapafdrukken

Dit protocol presenteert een uitgebreide pijplijn voor het analyseren van monsters die zijn verkregen uit menselijke harten die de microscopische en macroscopische schaal overspannen.

Pijplijn voor driedimensionale anatomische studie op meerdere schaal van het menselijk hart

Verken mixed reality-technologie voor medisch onderwijs met 3D-geprinte hartmodellen en hologrammen. Deze methode verbetert de anatomische kennis van studenten door interactieve visualisatie met Microsoft HoloLens.

Mixed reality-technologie en driedimensionaal printen in het onderwijs: hartanatomie als voorbeeld

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