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#bioprinting — Public Fediverse posts

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  1. Nature-inspired tech accelerates living tissues growth | News | CORDIS

    PRISM-LT has pioneered a revolutionary 3D bioprinting technique that grows living bone, fat and muscle tissue in the…
    #Europe #EU #EuropeanCommission #3D #Biomedicine #bioprinting #healthcare #leukaemia #livingtissue #Meat #PRISM-LT #stemcell
    europesays.com/europe/141235/

  2. Forschung, die weiterführt: #Bioprinting eröffnet neue Möglichkeiten. Was einst Grundlagenforschung war, verändert die Medizin und die Therapien der Zukunft. Zum Beispiel, wenn es um menschliche Organe geht. Wie weit die Wissenschaft aktuell ist, zeigen die Slides kurz auf den Punkt. 👇

    Dieser Beitrag ist Teil der Aktion der #AllianzWissenschaft "Wie uns Wissen weiterbringt": @HRK_aktuell @fraunhofergesellschaft @HumboldtStiftung @helmholtz @leibnizgemeinschaft @maxplanckgesellschaft @WissRat

  3. Forschung, die weiterführt: #Bioprinting eröffnet neue Möglichkeiten. Was einst Grundlagenforschung war, verändert die Medizin und die Therapien der Zukunft. Zum Beispiel, wenn es um menschliche Organe geht. Wie weit die Wissenschaft aktuell ist, zeigen die Slides kurz auf den Punkt. 👇

    Dieser Beitrag ist Teil der Aktion der #AllianzWissenschaft "Wie uns Wissen weiterbringt": @HRK_aktuell @fraunhofergesellschaft @HumboldtStiftung @helmholtz @leibnizgemeinschaft @maxplanckgesellschaft @WissRat

  4. Forschung, die weiterführt: #Bioprinting eröffnet neue Möglichkeiten. Was einst Grundlagenforschung war, verändert die Medizin und die Therapien der Zukunft. Zum Beispiel, wenn es um menschliche Organe geht. Wie weit die Wissenschaft aktuell ist, zeigen die Slides kurz auf den Punkt. 👇

    Dieser Beitrag ist Teil der Aktion der #AllianzWissenschaft "Wie uns Wissen weiterbringt": @HRK_aktuell @fraunhofergesellschaft @HumboldtStiftung @helmholtz @leibnizgemeinschaft @maxplanckgesellschaft @WissRat

  5. Forschung, die weiterführt: #Bioprinting eröffnet neue Möglichkeiten. Was einst Grundlagenforschung war, verändert die Medizin und die Therapien der Zukunft. Zum Beispiel, wenn es um menschliche Organe geht. Wie weit die Wissenschaft aktuell ist, zeigen die Slides kurz auf den Punkt. 👇

    Dieser Beitrag ist Teil der Aktion der #AllianzWissenschaft "Wie uns Wissen weiterbringt": @HRK_aktuell @fraunhofergesellschaft @HumboldtStiftung @helmholtz @leibnizgemeinschaft @maxplanckgesellschaft @WissRat

  6. Forschung, die weiterführt: #Bioprinting eröffnet neue Möglichkeiten. Was einst Grundlagenforschung war, verändert die Medizin und die Therapien der Zukunft. Zum Beispiel, wenn es um menschliche Organe geht. Wie weit die Wissenschaft aktuell ist, zeigen die Slides kurz auf den Punkt. 👇

    Dieser Beitrag ist Teil der Aktion der #AllianzWissenschaft "Wie uns Wissen weiterbringt": @HRK_aktuell @fraunhofergesellschaft @HumboldtStiftung @helmholtz @leibnizgemeinschaft @maxplanckgesellschaft @WissRat

  7. Surgeons in Israel have used 3D printing to create a custom chest implant for a cancer patient. The team at Clalit-Beilinson Hospital printed a polyetherketoneketone (PEKK) sternum and rib implant to replace bone removed during tumour surgery. The high-performance material combines flexibility with strength similar to natural bone, allowing tissue integration. 3dprint.com/330446/3d-printing #3Dprint #3Dprinting #Bioprinting

  8. Surgeons in Israel have used 3D printing to create a custom chest implant for a cancer patient. The team at Clalit-Beilinson Hospital printed a polyetherketoneketone (PEKK) sternum and rib implant to replace bone removed during tumour surgery. The high-performance material combines flexibility with strength similar to natural bone, allowing tissue integration. 3dprint.com/330446/3d-printing #3Dprint #3Dprinting #Bioprinting

  9. Surgeons in Israel have used 3D printing to create a custom chest implant for a cancer patient. The team at Clalit-Beilinson Hospital printed a polyetherketoneketone (PEKK) sternum and rib implant to replace bone removed during tumour surgery. The high-performance material combines flexibility with strength similar to natural bone, allowing tissue integration. 3dprint.com/330446/3d-printing #3Dprint #3Dprinting #Bioprinting

  10. Surgeons in Israel have used 3D printing to create a custom chest implant for a cancer patient. The team at Clalit-Beilinson Hospital printed a polyetherketoneketone (PEKK) sternum and rib implant to replace bone removed during tumour surgery. The high-performance material combines flexibility with strength similar to natural bone, allowing tissue integration. 3dprint.com/330446/3d-printing #3Dprint #3Dprinting #Bioprinting

  11. Surgeons in Israel have used 3D printing to create a custom chest implant for a cancer patient. The team at Clalit-Beilinson Hospital printed a polyetherketoneketone (PEKK) sternum and rib implant to replace bone removed during tumour surgery. The high-performance material combines flexibility with strength similar to natural bone, allowing tissue integration. 3dprint.com/330446/3d-printing #3Dprint #3Dprinting #Bioprinting

  12. Researchers have bioprinted kidney and liver tissue in space for the first time. Auxilium Biotechnologies conducted the experiment aboard the ISS using its AMP-1 orbital bioprinter, marking a milestone in space-based regenerative medicine. The samples returned to Earth in June. 3dnatives.com/en/bioprinting-k #3Dprint #3Dprinting #Bioprinting

  13. Researchers have bioprinted kidney and liver tissue in space for the first time. Auxilium Biotechnologies conducted the experiment aboard the ISS using its AMP-1 orbital bioprinter, marking a milestone in space-based regenerative medicine. The samples returned to Earth in June. 3dnatives.com/en/bioprinting-k #3Dprint #3Dprinting #Bioprinting

  14. Researchers have bioprinted kidney and liver tissue in space for the first time. Auxilium Biotechnologies conducted the experiment aboard the ISS using its AMP-1 orbital bioprinter, marking a milestone in space-based regenerative medicine. The samples returned to Earth in June. 3dnatives.com/en/bioprinting-k #3Dprint #3Dprinting #Bioprinting

  15. Researchers have bioprinted kidney and liver tissue in space for the first time. Auxilium Biotechnologies conducted the experiment aboard the ISS using its AMP-1 orbital bioprinter, marking a milestone in space-based regenerative medicine. The samples returned to Earth in June. 3dnatives.com/en/bioprinting-k #3Dprint #3Dprinting #Bioprinting

  16. Researchers have bioprinted kidney and liver tissue in space for the first time. Auxilium Biotechnologies conducted the experiment aboard the ISS using its AMP-1 orbital bioprinter, marking a milestone in space-based regenerative medicine. The samples returned to Earth in June. 3dnatives.com/en/bioprinting-k #3Dprint #3Dprinting #Bioprinting

  17. Spacewalk Preps, Bioprinting, and Exercise Research Top Station Schedule
    atlas.whatip.xyz/post.php?slug
    <p>Expedition 75 is gearing up for a busy August with three spacewalks planned at the International Space
    #bioprinting #exercise #research #schedule

  18. Spacewalk Preps, Bioprinting, and Exercise Research Top Station Schedule
    atlas.whatip.xyz/post.php?slug
    <p>Expedition 75 is gearing up for a busy August with three spacewalks planned at the International Space
    #bioprinting #exercise #research #schedule

  19. Spacewalk Preps, Bioprinting, and Exercise Research Top Station Schedule
    atlas.whatip.xyz/post.php?slug
    <p>Expedition 75 is gearing up for a busy August with three spacewalks planned at the International Space
    #bioprinting #exercise #research #schedule

  20. Spacewalk Preps, Bioprinting, and Exercise Research Top Station Schedule
    atlas.whatip.xyz/post.php?slug
    <p>Expedition 75 is gearing up for a busy August with three spacewalks planned at the International Space
    #bioprinting #exercise #research #schedule

  21. Spacewalk Preps, Bioprinting, and Exercise Research Top Station Schedule
    atlas.whatip.xyz/post.php?slug
    <p>Expedition 75 is gearing up for a busy August with three spacewalks planned at the International Space
    #bioprinting #exercise #research #schedule

  22. La bioimpresión 3D no es solo crear órganos; revoluciona cómo probamos medicinas.

    💊 Al imprimir tejidos humanos reales en miniatura, las farmacéuticas prueban fármacos de forma más segura, rápida y económica antes de los ensayos clínicos.

    #Bioprinting #Pharma #MedTech #Innovation #BioTech

  23. La bioimpresión 3D no es solo crear órganos; revoluciona cómo probamos medicinas.

    💊 Al imprimir tejidos humanos reales en miniatura, las farmacéuticas prueban fármacos de forma más segura, rápida y económica antes de los ensayos clínicos.

    #Bioprinting #Pharma #MedTech #Innovation #BioTech

  24. La bioimpresión 3D no es solo crear órganos; revoluciona cómo probamos medicinas.

    💊 Al imprimir tejidos humanos reales en miniatura, las farmacéuticas prueban fármacos de forma más segura, rápida y económica antes de los ensayos clínicos.

    #Bioprinting #Pharma #MedTech #Innovation #BioTech

  25. La bioimpresión 3D no es solo crear órganos; revoluciona cómo probamos medicinas.

    💊 Al imprimir tejidos humanos reales en miniatura, las farmacéuticas prueban fármacos de forma más segura, rápida y económica antes de los ensayos clínicos.

    #Bioprinting #Pharma #MedTech #Innovation #BioTech

  26. La bioimpresión 3D no es solo crear órganos; revoluciona cómo probamos medicinas.

    💊 Al imprimir tejidos humanos reales en miniatura, las farmacéuticas prueban fármacos de forma más segura, rápida y económica antes de los ensayos clínicos.

    #Bioprinting #Pharma #MedTech #Innovation #BioTech

  27. #Algen drucken wie Zitronenscheiben. Ein Team der TU Dresden und der Uni Würzburg zeigt, wie volumetrisches #Bioprinting Mikroalgen ins #Hydrogel bringt – mit Fotosynthese inklusive. Anwendung: Abwasserreinigung, Biotreibstoff, Sauerstoffproduktion… 👉 laborjournal.de/editorials/353

  28. #Algen drucken wie Zitronenscheiben. Ein Team der TU Dresden und der Uni Würzburg zeigt, wie volumetrisches #Bioprinting Mikroalgen ins #Hydrogel bringt – mit Fotosynthese inklusive. Anwendung: Abwasserreinigung, Biotreibstoff, Sauerstoffproduktion… 👉 laborjournal.de/editorials/353

  29. #Algen drucken wie Zitronenscheiben. Ein Team der TU Dresden und der Uni Würzburg zeigt, wie volumetrisches #Bioprinting Mikroalgen ins #Hydrogel bringt – mit Fotosynthese inklusive. Anwendung: Abwasserreinigung, Biotreibstoff, Sauerstoffproduktion… 👉 laborjournal.de/editorials/353

  30. #Algen drucken wie Zitronenscheiben. Ein Team der TU Dresden und der Uni Würzburg zeigt, wie volumetrisches #Bioprinting Mikroalgen ins #Hydrogel bringt – mit Fotosynthese inklusive. Anwendung: Abwasserreinigung, Biotreibstoff, Sauerstoffproduktion… 👉 laborjournal.de/editorials/353

  31. #Algen drucken wie Zitronenscheiben. Ein Team der TU Dresden und der Uni Würzburg zeigt, wie volumetrisches #Bioprinting Mikroalgen ins #Hydrogel bringt – mit Fotosynthese inklusive. Anwendung: Abwasserreinigung, Biotreibstoff, Sauerstoffproduktion… 👉 laborjournal.de/editorials/353

  32. Thirty women have now received 3D printed resorbable breast scaffolds in clinical trials. The BellaSeno polycaprolactone scaffolds support natural tissue regeneration, gradually breaking down as the body's own cells replace them. Professor Anand Deva called it the most significant advancement in breast surgery for decades. 3dprint.com/328177/two-more-wo #3Dprint #3Dprinting #Bioprinting

  33. Thirty women have now received 3D printed resorbable breast scaffolds in clinical trials. The BellaSeno polycaprolactone scaffolds support natural tissue regeneration, gradually breaking down as the body's own cells replace them. Professor Anand Deva called it the most significant advancement in breast surgery for decades. 3dprint.com/328177/two-more-wo #3Dprint #3Dprinting #Bioprinting

  34. Thirty women have now received 3D printed resorbable breast scaffolds in clinical trials. The BellaSeno polycaprolactone scaffolds support natural tissue regeneration, gradually breaking down as the body's own cells replace them. Professor Anand Deva called it the most significant advancement in breast surgery for decades. 3dprint.com/328177/two-more-wo #3Dprint #3Dprinting #Bioprinting

  35. Thirty women have now received 3D printed resorbable breast scaffolds in clinical trials. The BellaSeno polycaprolactone scaffolds support natural tissue regeneration, gradually breaking down as the body's own cells replace them. Professor Anand Deva called it the most significant advancement in breast surgery for decades. 3dprint.com/328177/two-more-wo #3Dprint #3Dprinting #Bioprinting

  36. Thirty women have now received 3D printed resorbable breast scaffolds in clinical trials. The BellaSeno polycaprolactone scaffolds support natural tissue regeneration, gradually breaking down as the body's own cells replace them. Professor Anand Deva called it the most significant advancement in breast surgery for decades. 3dprint.com/328177/two-more-wo #3Dprint #3Dprinting #Bioprinting

  37. 💁🏻‍♀️ TIL: 🔥🩹 Every year, millions of people suffer severe burns that lead to permanent, painful scarring.

    Researchers are developing 3D-bioprinted #skin made from a patient’s own #cells and a specialized gel. The living barrier tricks the body into growing healthy new tissue instead of rigid scar tissue.

    👉 smithsonianmag.com/innovation/

    #bioprinting #medicine #3dprinting #stemcells #engineering #scars #innovation #health #science #sweden #australia #southafrica #northcarolina

  38. 💁🏻‍♀️ TIL: 🔥🩹 Every year, millions of people suffer severe burns that lead to permanent, painful scarring.

    Researchers are developing 3D-bioprinted #skin made from a patient’s own #cells and a specialized gel. The living barrier tricks the body into growing healthy new tissue instead of rigid scar tissue.

    👉 smithsonianmag.com/innovation/

    #bioprinting #medicine #3dprinting #stemcells #engineering #scars #innovation #health #science #sweden #australia #southafrica #northcarolina

  39. 💁🏻‍♀️ TIL: 🔥🩹 Every year, millions of people suffer severe burns that lead to permanent, painful scarring.

    Researchers are developing 3D-bioprinted #skin made from a patient’s own #cells and a specialized gel. The living barrier tricks the body into growing healthy new tissue instead of rigid scar tissue.

    👉 smithsonianmag.com/innovation/

    #bioprinting #medicine #3dprinting #stemcells #engineering #scars #innovation #health #science #sweden #australia #southafrica #northcarolina

  40. 💁🏻‍♀️ TIL: 🔥🩹 Every year, millions of people suffer severe burns that lead to permanent, painful scarring.

    Researchers are developing 3D-bioprinted #skin made from a patient’s own #cells and a specialized gel. The living barrier tricks the body into growing healthy new tissue instead of rigid scar tissue.

    👉 smithsonianmag.com/innovation/

    #bioprinting #medicine #3dprinting #stemcells #engineering #scars #innovation #health #science #sweden #australia #southafrica #northcarolina

  41. 💁🏻‍♀️ TIL: 🔥🩹 Every year, millions of people suffer severe burns that lead to permanent, painful scarring.

    Researchers are developing 3D-bioprinted #skin made from a patient’s own #cells and a specialized gel. The living barrier tricks the body into growing healthy new tissue instead of rigid scar tissue.

    👉 smithsonianmag.com/innovation/

    #bioprinting #medicine #3dprinting #stemcells #engineering #scars #innovation #health #science #sweden #australia #southafrica #northcarolina

  42. Researchers at EPFL have developed a more efficient holographic volumetric 3D printing method that can produce tissue-like structures at near-clinical scale. The system uses phase-controlled light beams to solidify millimetre-scale objects in seconds and centimetre-scale objects in minutes, enabling cell-compatible 3D printing for biomedical applications. 3dprint.com/327335/3d-printing #3Dprint #3Dprinting #Bioprinting

  43. Researchers at EPFL have developed a more efficient holographic volumetric 3D printing method that can produce tissue-like structures at near-clinical scale. The system uses phase-controlled light beams to solidify millimetre-scale objects in seconds and centimetre-scale objects in minutes, enabling cell-compatible 3D printing for biomedical applications. 3dprint.com/327335/3d-printing #3Dprint #3Dprinting #Bioprinting

  44. Researchers at EPFL have developed a more efficient holographic volumetric 3D printing method that can produce tissue-like structures at near-clinical scale. The system uses phase-controlled light beams to solidify millimetre-scale objects in seconds and centimetre-scale objects in minutes, enabling cell-compatible 3D printing for biomedical applications. 3dprint.com/327335/3d-printing #3Dprint #3Dprinting #Bioprinting

  45. Researchers at EPFL have developed a more efficient holographic volumetric 3D printing method that can produce tissue-like structures at near-clinical scale. The system uses phase-controlled light beams to solidify millimetre-scale objects in seconds and centimetre-scale objects in minutes, enabling cell-compatible 3D printing for biomedical applications. 3dprint.com/327335/3d-printing #3Dprint #3Dprinting #Bioprinting

  46. Researchers at EPFL have developed a more efficient holographic volumetric 3D printing method that can produce tissue-like structures at near-clinical scale. The system uses phase-controlled light beams to solidify millimetre-scale objects in seconds and centimetre-scale objects in minutes, enabling cell-compatible 3D printing for biomedical applications. 3dprint.com/327335/3d-printing #3Dprint #3Dprinting #Bioprinting

  47. Researchers at EPFL have developed a volumetric 3D printing technique that is 70 times more efficient than previous versions and compatible with living cells, potentially enabling 3D printed human tissue implants. 3dnatives.com/en/volumetric-3d #3Dprint #3Dprinting #Bioprinting

  48. Researchers at EPFL have developed a volumetric 3D printing technique that is 70 times more efficient than previous versions and compatible with living cells, potentially enabling 3D printed human tissue implants. 3dnatives.com/en/volumetric-3d #3Dprint #3Dprinting #Bioprinting

  49. Researchers at EPFL have developed a volumetric 3D printing technique that is 70 times more efficient than previous versions and compatible with living cells, potentially enabling 3D printed human tissue implants. 3dnatives.com/en/volumetric-3d #3Dprint #3Dprinting #Bioprinting

  50. Researchers at EPFL have developed a volumetric 3D printing technique that is 70 times more efficient than previous versions and compatible with living cells, potentially enabling 3D printed human tissue implants. 3dnatives.com/en/volumetric-3d #3Dprint #3Dprinting #Bioprinting

  51. Researchers at EPFL have developed a volumetric 3D printing technique that is 70 times more efficient than previous versions and compatible with living cells, potentially enabling 3D printed human tissue implants. 3dnatives.com/en/volumetric-3d #3Dprint #3Dprinting #Bioprinting

  52. Researchers at the University of Notre Dame and Harvard Medical School are combining AI with bioprinting to create tiny blood vessel networks. The challenge: keeping printed tissues alive requires blood vessels to deliver oxygen and nutrients. Their work, published in Nature Chemical Engineering, tackles one of regenerative medicine's biggest obstacles. 3dprint.com/326484/researchers #3Dprint #3Dprinting #Bioprinting

  53. Researchers at the University of Notre Dame and Harvard Medical School are combining AI with bioprinting to create tiny blood vessel networks. The challenge: keeping printed tissues alive requires blood vessels to deliver oxygen and nutrients. Their work, published in Nature Chemical Engineering, tackles one of regenerative medicine's biggest obstacles. 3dprint.com/326484/researchers #3Dprint #3Dprinting #Bioprinting

  54. Researchers at the University of Notre Dame and Harvard Medical School are combining AI with bioprinting to create tiny blood vessel networks. The challenge: keeping printed tissues alive requires blood vessels to deliver oxygen and nutrients. Their work, published in Nature Chemical Engineering, tackles one of regenerative medicine's biggest obstacles. 3dprint.com/326484/researchers #3Dprint #3Dprinting #Bioprinting

  55. Researchers at the University of Notre Dame and Harvard Medical School are combining AI with bioprinting to create tiny blood vessel networks. The challenge: keeping printed tissues alive requires blood vessels to deliver oxygen and nutrients. Their work, published in Nature Chemical Engineering, tackles one of regenerative medicine's biggest obstacles. 3dprint.com/326484/researchers #3Dprint #3Dprinting #Bioprinting

  56. Researchers at the University of Notre Dame and Harvard Medical School are combining AI with bioprinting to create tiny blood vessel networks. The challenge: keeping printed tissues alive requires blood vessels to deliver oxygen and nutrients. Their work, published in Nature Chemical Engineering, tackles one of regenerative medicine's biggest obstacles. 3dprint.com/326484/researchers #3Dprint #3Dprinting #Bioprinting

  57. Researchers are exploring 3D printed gyroid implants for bone regeneration. Gyroid structures offer optimal pore size and interconnectivity for bone ingrowth, while 3D printing enables precise control over implant geometry. This approach could improve bone graft success rates and reduce reliance on donor tissue.

    fabbaloo.com/news/study-probes #3Dprint #3Dprinting #Bioprinting

  58. Researchers are exploring 3D printed gyroid implants for bone regeneration. Gyroid structures offer optimal pore size and interconnectivity for bone ingrowth, while 3D printing enables precise control over implant geometry. This approach could improve bone graft success rates and reduce reliance on donor tissue.

    fabbaloo.com/news/study-probes #3Dprint #3Dprinting #Bioprinting

  59. Researchers are exploring 3D printed gyroid implants for bone regeneration. Gyroid structures offer optimal pore size and interconnectivity for bone ingrowth, while 3D printing enables precise control over implant geometry. This approach could improve bone graft success rates and reduce reliance on donor tissue.

    fabbaloo.com/news/study-probes #3Dprint #3Dprinting #Bioprinting