17 citations
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October 2023 in “Science Progress” Polycaprolactone and barium titanate composites show promise for use in biomedical applications.
22 citations
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August 2015 in “PloS one” Keratin from hair binds well to gold and BMP-2, useful for bone repair.
March 2026 in “Journal of the mechanical behavior of biomedical materials/Journal of mechanical behavior of biomedical materials” Hair cuticles remain stable and resilient under stress due to strong protein content and crosslinking.
January 2019 in “CLINICAL AND EXPERIMENTAL MORPHOLOGY”
The EMG-to-force model accurately predicts hip muscle forces during walking.
41 citations
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July 2020 in “Colloids and surfaces. B, Biointerfaces” Different hair protein amounts change the strength of keratin/chitosan gels, useful for making predictable tissue engineering materials.
6 citations
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April 2025 in “Plastic and Aesthetic Research” Biomaterial characteristics can influence macrophages to promote healing and improve tissue regeneration.
10 citations
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May 2025 in “Cell Biomaterials” New technologies help us understand how the body reacts to medical implants, which can improve implant performance.
99 citations
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July 2005 in “Ultramicroscopy” The research improved understanding of hair and skin properties across different ethnicities and conditions.
Different treatments change the strength and flexibility of human hair.
November 2020 in “Journal of The American Academy of Dermatology” Fluid viscosity affects fracture design and proppant placement in hydraulic fracturing.
97 citations
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January 2005 in “Wear” Human hair and skin friction vary by ethnicity, hair type, and environmental conditions.
March 2026 in “Preprints.org” Chirality affects the structure, strength, and function of peptide-based hydrogels.
April 2018 in “Journal of Investigative Dermatology” The conclusion is that a new method combining magnetic tweezers and traction force microscopy may help understand skin cell interactions and diseases.
3 citations
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January 2022 in “Biomaterials Science” The dressing can track joint movement and speed up healing of joint wounds.
January 2011 in “Hispania Judaica bulletin” Mechanical forces are crucial for hair regeneration in skin organoids.
22 citations
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January 1985 Water makes hair more flexible, especially the outer layer.
49 citations
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June 2004 in “Philosophical Transactions of the Royal Society A Mathematical Physical and Engineering Sciences” Human hair becomes weaker and stretches more easily at higher temperatures.
3 citations
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January 2021 in “Wear” Hair's resistance to wear varies by ethnicity and treatment, with less wear indicating stronger hair.
October 2021 in “Journal of Investigative Dermatology” Skin cell strength decreases significantly as we age.
Hair feels different when touched and rubs together in various ways.
2 citations
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September 2023 in “bioRxiv (Cold Spring Harbor Laboratory)” Tissue stiffness is influenced by contractility, which suppresses collagen breakdown.
156 citations
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March 2022 in “Exploration” Bioactive inorganic particles-based biomaterials show promise for improving skin wound healing.
26 citations
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October 2020 in “Biomedicines” Bioengineered skin models help reduce animal testing and advance research in cosmetics and skin disease.
2 citations
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December 2010 in “PubMed” The new stiffness test works well for gels but not for sprays.
January 2026 in “Advanced Healthcare Materials” The new bioreactor improves skin grafts by evenly stretching cells and monitoring conditions for better growth.
17 citations
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January 2024 in “Journal of Materials Chemistry B” Magneto-responsive biocomposites help heal wounds faster and better.
1 citations
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June 2014 in “[Thesis]. Manchester, UK: The University of Manchester; 2014.” Chemical modifications can alter hair's stability and flexibility, with hydrophobic interactions helping maintain structure in humid conditions.
December 2018 in “International Journal of Research -GRANTHAALAYAH” Biomagnetic forces can deform red blood cells.