41 citations
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February 2021 in “Translational research” Non-coding RNAs could help detect and treat radiation damage.
22 citations
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June 2020 in “iScience” Sox21 is crucial for tooth development and enamel formation by preventing cells from changing into a different type.
21 citations
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March 2023 in “Journal of Crohn s and Colitis” Microvascular damage and platelet issues persist in ulcerative colitis remission, helping assess disease states.
13 citations
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February 2023 in “Biology” Cell extracts may effectively and safely repair radiation-damaged salivary glands.
13 citations
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October 2021 in “International Journal of Molecular Sciences” The HATMSC1 cell line from fat tissue can produce helpful factors for regenerative and immune therapies.
11 citations
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April 2022 in “Biophysical Journal” Disulfide bonds in keratin fibers break more easily under stress, especially when wet, affecting fiber strength.
10 citations
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July 2022 in “Journal of Medicinal Chemistry” Adding a second method to PROTACs could improve cancer treatment.
9 citations
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October 2025 in “MedComm” PROTACs offer new ways to treat hard-to-target diseases, with promising drugs for cancer in advanced trials.
4 citations
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August 2024 in “Cells” Inflammasome proteins can predict inflammation and outcomes in aneurysmal subarachnoid hemorrhage.
3 citations
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December 2023 in “Cell proliferation” Stuff from umbilical cord stem cells helps skin heal and look younger.
2 citations
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November 2025 in “Briefings in Bioinformatics” Data-driven methods can effectively identify existing drugs for new uses, especially in cancer, infections, and respiratory diseases.
2 citations
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July 2024 in “Frontiers in Veterinary Science” Apoptosis and ribosomal proteins are key in hair follicle cycle changes in cashmere goats.
2 citations
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February 2023 in “International journal of molecular sciences” Tetrathiomolybdate reduces hair growth marker in skin cells by boosting harmful oxygen molecules, but effects can be reversed.
1 citations
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November 2022 in “DOAJ (DOAJ: Directory of Open Access Journals)” Male and female human hairs have different microscopic structures that can help in forensic analysis.
January 2026 in “Non-coding RNA Research” Exosomal miRNA-218-5p promotes hair growth and development.
December 2024 in “Journal of Cosmetic Dermatology” ME1 and PPAR signaling may influence hair loss in androgenetic alopecia.
October 2024 in “BMC Genomics” Understanding hair follicle development can help improve cashmere quality.
September 2024 in “Stem Cell Research & Therapy” HA-stimulated stem cell vesicles improved hair growth in male mice with androgenetic alopecia.
Calorie restriction changes the elemental and isotopic makeup of mouse hair and bone.
Hair proteins in preschool children and their mothers could indicate developmental changes and health status.
January 2024 in “Metabolites” Standardized procedures are crucial for collecting and preparing biological samples to ensure accurate clinical metabolomics results.
December 2023 in “Redox biology” The substance DMC helps get rid of aging cells by triggering a process that causes cell death, which could treat age-related diseases.
December 2023 in “Animal research and one health” Certain circular RNAs are crucial for wool growth and curvature in goats.
July 2023 in “New phytologist” The BUZZ gene is important for root hair growth and overall root structure in the plant Brachypodium distachyon.
February 2023 in “Molecules” Cactus extract from Notocactus ottonis may help promote hair growth.
Protein profiling of forehead skin can help distinguish between frontal fibrosing alopecia and androgenetic alopecia.
169 citations
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January 2020 in “Burns & Trauma” Platelet-rich plasma speeds up skin wound healing.
63 citations
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May 2015 in “PloS one” GALT5 and GALT2 are important for plant growth and development because they help with protein glycosylation.
58 citations
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February 2013 in “Journal of Biological Chemistry” LGR5 mainly stays inside cells, moving to the trans-Golgi network, and this process is important for its role in cell signaling.
48 citations
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February 2010 in “Molecular biology reports” KAP7.1 and KAP8.2 genes are crucial for cashmere quality in goats.