#Repost @btechmedical
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Thanks to the customized prostheses designed by Btechâs experienced engineering team with 3D planning, the prosthesis contributes in a positive manner to the aesthetic appearance and quality of life of the patients. Contact us to have more insights! #3dmedicalprinting #preoperativeplanning #3dprinting #segmentation #CT #MRI #CTtoprint #ananatomy #patientcare #planningaid #medicalmodelling #anatomicalmodels #implantsurgery #guidedsurgery
#repost @organonchip #cbc_news
Donald Ingber, Boyang Zhang, Chris Moraes
#wyss #heart_on_chip #mcgilluniversity #universityoftoronto #harvarduniversity #harvardmedicalschool
#organonchip #organ_on_chip #lung_on_chip #gut_on_chip #intestine_on_chip #multiorgans_on_chip #organoid_on_chip #kidney_on_chip #in_vitro #brain_in_chip #liver_on_chip #cancer_on_chip #tissue_engineering #microbiology #3dbioprinting #oncology #microfabrication #microfluidic #biotechnology #technology
#Repost @regenhu3d
We have come a long way since 2015!
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The 3D Discovery evolution, pictured above, made waves in the bioprinting industry as a revolutionary instrument and recognized us as pioneers in the sector.
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We are proud to say that this instrument is still going strong for our customers today in the world of regenerative medicine and tissue engineering.
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#bioprinting #3dbioprinting #bioprinter #3dprinted #tissueengineering #regenerativemedicine #biofabrication #biomaterials #medtech #biotech #drugdiscovery #innovation
#repost @dhruv.bhate dhruv.bhate Grid of Inconel 718 single bead tracks melted with laser powder bed fusion. Two different laser powers in each picture. Courtesy PhD student Cameron Noe. #AdditiveManufacturing #3dprinting
#Repost @dhruv.bhate
#3dprinting of lattice cylinders inspired by the Venus flower basket, courtesy Yash Mistry (PhD student, @yash_mistry_ ) #additivemanufacturing #bioinspired #biomimicry
#Repost @graphene_x
Electronic Skin Mimics Stretchability of Human Skin
Cai and colleague Jie Shen have now engineered a new more realistic e-skin using a hydrogel reinforced with silica nanoparticles and a 2D titanium carbide MXene bound together with nanowires.
"Hydrogels are more than 70 percent water, making them very compatible with human skin tissues," explained Shen. The resulting e-skin managed to remain intact even when stretched to 28 times its original size, could sense objects from almost 8 inches (20 centimeters) away, respond to stimuli in less than one-tenth of a second, and when used as a pressure sensor, could distinguish handwriting written upon it.
https://interestingengineering.com/new-electronic-skin-mimics-stretchability-of-human-skin
#bioniclimbs #bionic #softrobotics #biomechanical #biomimicry #mechatronic #robot #design #industrialdesign #3dprint #follow #cyborg #mechatronics #medical #technology #ironman #maker #inspiration #look #instagood #cybernetics #biohacking #additivemanufacturing #newtechnology #cyberpunk #transhumanism #exoskeleton
#repost @saumyamdwivedi @saumyamdwivedi #howitsmade
#layerbylayer
#resin3dprinting
#vatphotopolymerization
@formlabs @formlabslife #form3
Realising complex #patientspecific #anatomy
#repost @aytasarim @aytasarim ĂalıĆma Adı: Farklı Ä°mplant Planlamalarının YapıldıÄı Tam DiĆsiz Yarık Damaklarda OklĂŒzal Kuvvetler Altında OluĆan Gerilimin Sonlu Elemanlar Analizi ile DeÄerlendirilmesi
Doktor Adı: Gökçe SOÄANCI
#digitaldentistry #implantology #implant #runyes #ackuretta #realguide #freeshape120 #dijitaldishekimligi #dental3dprinter #3dprinter #guidedsurgery #computerguidedsurgery #dikissizcerrahi #finiteelementanalysis #sonluelemananalizi #stresanalizi #stressanalysis #oklĂŒzyon #occlusion #dentureoverlay #protez
#Repost @formlabs
Heart Model: Printed in Elastic 50A Resinâ â
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#cardiacsurgery #medicalmodels #medical3DP #Heart #Hearts #HeartModel #preoperative #healthcare #medical #medicine #Medical3DP #3Dprinting #formlabs #form3B #WhiteResin #3Dprinted #3DP #AdditiveManufacturing #MedicalTechnology
#Repost @thewellbio
3D culture of Mesenchymal Stem Cells (MSC) and scale-up without microcarriers! Plus, harvest cells without enzyme! VitroGel MSC, a xeno-free hydrogel, provides high-quality MSC for small labs to industrial scale-up applications.
Learn more: https://zcu.io/cyVP
#stemcells #biotechnology #cellculture #celltherapy #3dcellculture #cancerresearch #pharmaceuticalindustry #innovation #precisionmedicine #genetherapy #drugdiscovery
The Latest...
Metal 3D Printing Implants With Fabio Sant'Ana Instagram Live Recording Show Notes
This is a recording of our recent Instagram Live session with Fabio SantâAna, focusing on metal 3D printing implants, the importance of feedstock, and what are the major differences in...
The Lattice 72: Healthcare 3D Printing Newsletter
The Lattice is 3DHEALS weekly recap of the latest news, publications, events in the world of healthcare 3D printing, and 3D Bioprinting. Have a cool 3D printed Lattice...
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This is a weekly updated collection of press articles on innovations using 3D printing against COVID-19, complementing our existing COVID19 3D Printing information page, which includes our webinar...
3D Bioprinting Knee, Aneurysm Model, 3D Organization Using Microfluidics
In this issue, three articles related to recent advancements in 3D bioprinting is presented. The first article highlights new ways to bioprint fibrocartilaginous tissues, such as those found in the...
The Lattice 71: Healthcare 3D Printing Newsletter
The Lattice is 3DHEALS weekly recap of the latest news, publications, events in the world of healthcare 3D printing, and 3D Bioprinting. Have a cool 3D printed Lattice...
3D Printing Food and Biomimetic Human Tongue
In this issue, we included three articles related to eating and food using 3D printing. The first article is an overview on 3D printing food and related applications. The second article focuses more...
Expert's Corner
Financial Issues of 3D Printing in Hospitals - Guide 4/5
In the previous section of this guide, we went in-depth about the tactical issues surrounding 3D printing in hospitals, which include an array of contributory elements ranging from talent allocation, hardware/software selection, to material management. In this section of the guide, I will focus on the financial issues of 3D printing in hospitals. To review, financial issues answer the question of âhow muchâ. In the healthcare arena, it includes a discussion of âreimbursementsâ. Doing business in healthcare is not a straightforward âprofit-and-lossâ spreadsheet. The reimbursement pathway of emerging technology is tortuous, and the pricing strategy of devices and services is even more opaque to most.
Materials for Metal 3D Printing Implants
Morphology and composition have a direct effect on the final implant microstructure. The microstructure has great importance in the implant strength. The smaller the material crystals are, the more grains there are, and consequently more internal boundaries. Internal boundaries lead to bigger resistance to the atomâs mobility, which is related to strength When material failures, normally happen by cracking, cracks are generally initiated by irregular pores, rounded pores usually do not initiate cracks, so control feedstock is mandatory to control the process-induced porosity and cracking.
Tactical Issues of 3D Printing in Hospitals - Guide 3/5
In the previous section of this guide, we went in-depth about the strategic issues surrounding 3D printing in hospitals, which included the critical role played by clinical trials, organization and staffing, and regulatory/legal concerns. In this section of the guide, I will focus on the tactical issues in 3D printing in hospitals. To review, tactical issues answer the questions focusing on "how". In other words, tactical consideration refers to how a company plans to get the job done or achieve a strategic objective. Tactical planning considers the resources available (time, money, people) along with the risks or challenges that may be encountered. Based on tactical consideration, the company determines the most efficient way to use resources to achieve strategic goals with quality results.
Mitigating Litigation Risks with 3D Printing in Life Sciences
Before discussing issues specific to each entity in the 3D printing chain, one general issue is exposure created by a lack of established FDA regulations and industry standards. Generally, compliance with FDA, ASTM, and/or ISO regulations and standards are important shields for companies to employ in defense of a lawsuit. Even if your company or entity is not required to comply with FDA regulations, well-established guidance helps companies understand issues and expectations. With 3D printing, however, it does not have the same extensive history or regulatory framework safety net. On December 5, 2017, the FDA adopted the final form of its guidance document on 3D printing entitled âTechnical Considerations for Additive Manufacturing.â The guidance does not cover the point of care printing nor bioprinting issues. The guidance does not establish specific requirements but rather describes issues to be considered and addressed by manufacturers during product testing and manufacturing development stages. While the guidance does suggest having procedures and validation processes to address certain issues unique to 3D printingâsuch as the use of reused materials, software integration, and build path variablesâit does not identify any specific âhow toâsâ for those procedures or tests. Without such guidance or applicable standards, manufacturers are in the unenviable position of having the FDA identify a concern, but not offering any consensus standard for addressing it. ASTM International has developed some consensus standards for additive manufacturing. Committee F42 has developed standards for testing and evaluating methods for the materials used as well for the manufacturing processes. However, there are no specific standards addressing many of the issues and validation processes identified in the FDAâs guidance.
Strategic Issues of 3D Printing in Hospitals - Guide Part 2/5
In part one of this guide, we provided background information on why a beginner's guide to 3D Printing in Hospitals is needed, and how we are organizing our thought process around three main operational management issues. That is, strategic, tactical, and financial issues related to implementing 3D printing in hospitals.
3D Printing In Hospitals: A Beginner's Guide 1/5
Over the last five years, there has been significant growth in the adaption of 3D printing in hospitals. This is a result of a more clarifying regulatory landscape, more governmental supports, and new public and private initiatives. Notable relevant public initiatives are led by RSNA SIG group, Mayo Clinic, ASME/SME, FDA, America Makes, ARMI. Notable private initiatives are led by JNJ/Depuy Synthes, GE, HP, Stryker, Medtronics, Lima Corporate, Materialise, Formlabs. The concerted efforts from the private and public sectors resulted in a rapid increase in hospital-based 3D printing labs all over the world. This is further supported by consistently increasing publications on Pubmed. [Figure 1, Source: Pubmed] Within a hospital setting, current major applications remain to be pre-surgical planning, which will comprise the bulk of our discussion. However, lately, there are two defining momentums: point-of-care 3D printing and mass-produced 3D printed implants in the 3D printing healthcare sector, which makes 3D printed personalized implants a possibility for hospital-based 3D printing services. We will incorporate these into our discussion.