April 2025 in “Journal of Bioscience and Bioengineering” Centrifugal forces can help prepare hair follicle germs for hair regeneration.
July 2024 in “Journal of Investigative Dermatology” A single medium, PRIME AIRLIFT, supports better human hair follicle formation in grafts.
New bio-ink can print complex tissues and organs.
46 citations
,
October 2023 in “Science Advances” 3D bioprinting can now create skin with hair-like structures for medical use.
7 citations
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January 2024 in “Regenerative Biomaterials” The new dressing improves chronic wound healing by preserving and releasing growth factors effectively.
1 citations
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January 2026 in “Science Advances” The 3D skin model mimics pemphigus vulgaris and helps test treatments.
1 citations
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January 2021 in “Journal of Cancer Therapy” Regenerative medicine may help reduce radiotherapy side effects like skin cancer, fibrosis, pain, and hair loss.
November 2025 in “International Journal of Zoology and Applied Biosciences” New technologies like AI, robotics, and stem cells have made hair transplants more effective and natural-looking.
20 citations
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February 2017 in “International Journal of Dermatology” Platelet-based therapies using a patient's own blood show promise for skin and hair regeneration but require more research for confirmation.
8 citations
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January 2023 in “Journal of Clinical and Translational Hepatology” Advancements in cultured models improve understanding and treatment of gallbladder cancer.
4 citations
,
January 2024 in “The Scientific World JOURNAL” Understanding hair follicle development helps create treatments for hair loss and improve hair health.
26 citations
,
June 2023 in “International Journal of Bioprinting” The hydrogel effectively heals infected wounds and kills bacteria.
February 2025 in “International Journal of Bioprinting” 3D-printed scaffolds help regenerate hair follicles in lab-grown skin.
28 citations
,
October 2023 in “Trends in biotechnology”
March 2025 in “International Journal of Trichology” 3D printing can greatly improve hair restoration and scalp treatments but faces challenges in clinical use.
September 2025 in “International Society of Hair Restoration Surgery” Printable templates improve hair transplant accuracy and efficiency.
December 2022 in “Faculty Opinions – Post-Publication Peer Review of the Biomedical Literature”
The bar-cartridge type implanter is the best for implanting dermal papilla cells efficiently and at controlled depths.
1 citations
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June 2012 in “OhioLink ETD Center (Ohio Library and Information Network)” A new 3-D bioreactor system improves drug screening and reduces animal testing.
81 citations
,
October 2023 in “Bioactive Materials” 3D-printed microneedles improve drug delivery and diagnostics but face scalability and regulatory challenges.
20 citations
,
September 2022 in “Journal of Biomedical Optics” PBM helps improve cell survival in 3D tissue engineering.
April 2017 in “The journal of investigative dermatology/Journal of investigative dermatology” Researchers developed a method to grow human hair follicles using 3D-printed skin models and modified cells.
December 2025 in “FEBS Open Bio” Long-term skin biopsy cultures can produce many fibroblasts that remain functional and can be reprogrammed.
3 citations
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November 2020 in “PubMed” Stiffer hydrogels better promote stem cells turning into hair follicle cells.
28 citations
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September 2020 in “Pharmaceutics” 3D-printed mesoporous scaffolds show promise for personalized drug delivery with controlled release.
April 2017 in “Plastic and Reconstructive Surgery – Global Open” Different levels of shear stress affect where cells move and gather in a 3D-printed model, helping to better understand cell behavior in blood vessels.
Stem cells can improve skin grafts by enhancing blood flow and hair growth.
January 2019 in “CLINICAL AND EXPERIMENTAL MORPHOLOGY” 12 citations
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September 2024 in “JID Innovations” Skin-on-a-chip devices better mimic human skin for research.
28 citations
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December 2016 in “Journal of Biomedical Materials Research Part A” Bone-forming cells grow well in 3D polymer scaffolds with 35 µm pores.