Human 3D Blood-Vessel-On-a-Chip Model Shows Cell Migration for Fibrotic Diseases AM Software

Human 3D Blood-Vessel-On-a-Chip Model Shows Cell Migration for Fibrotic Diseases AM Software

A team of scientists at the Wyss Institute at Harvard University and Boston University has created a 3D blood-vessel-on-a-chip model to investigate endothelial barrier failure, and found that inflammation disrupts the connections between endothelial cells and mural cells, causing the mural cells to retract or even detach from their usual position surrounding blood vessels and leading to further leakage.

Human 3D Blood-Vessel-On-a-Chip Model Shows Cell Migration for Fibrotic Diseases AM Software

Human 3D Blood-Vessel-On-a-Chip Model Shows Cell Migration for Fibrotic Diseases Bioprinting

A team of scientists at the Wyss Institute at Harvard University and Boston University has created a 3D blood-vessel-on-a-chip model to investigate endothelial barrier failure, and found that inflammation disrupts the connections between endothelial cells and mural cells, causing the mural cells to retract or even detach from their usual position surrounding blood vessels and leading to further leakage.

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The purmundus Challenge for “Intelligent 3D Printing” Returns to formnext 2017 3D Printing Events

The purmundus challenge 2017 now has a theme: “Fusion – 3D printing intelligently combined”. This competition is once again teaming up with formnext powered by tct to invite the creative minds out there to enrich our lives with their ideas for innovative 3D-printed products. Organized in collaboration with the german design studio by the same name, the purmundus challenge is geared toward designers, engineers, and programmers, including those from universities, design agencies and studios, start-ups, and SMEs.

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BYU Researchers 3D Print First Truly Microfluidic “Lab On a Chip” Device Research & Education

As reported by Todd Hollingshead on the official University blog, researchers at Brigham Young University (BYU) are the first to 3D print a viable microfluidic device small enough to be effective at a scale much less than 100 micrometers. Microfluidic devices are tiny chips that can sort out disease biomarkers, cells and other small structures in samples like blood by using microscopic channels incorporated into the devices.

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Danish Researchers Implant Most Natural 3D Printed Bone Yet in Mouse Bioprinting

As reported by By Birgitte Dalgaard, on the University’s official blog, researchers from SDU (the University of Southern Denmark) have succeeded in 3D printing artificial bones that grow naturally together with the body’s own bones. In mouse experiments the artificial 3D printed bone even formed marrow. This opens up completely new possibilities for patients who need bone implants.