January 2022 in “Research Square (Research Square)” High TSPEAR levels in colorectal cancer predict worse outcomes.
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January 2012 The CRABP I gene in cashmere goats is highly conserved but has unique features at specific amino sites.
July 2024 in “Journal of Investigative Dermatology” A new test helps find drugs to treat head and neck cancer by targeting c-Rel.
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February 1991 in “FEBS Letters” Introducing the rat OTC gene partially corrected OTC deficiency in mice.
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May 2017 in “Data in Brief” Five molecular elements identified as potential future targets for hair loss therapy.
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September 2003 in “Molecular & cellular proteomics” The technology can help diagnose and subtype autoimmune diseases by identifying specific autoantibodies.
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January 2016 in “Analytical Chemistry” A new method can quickly and accurately detect drugs in hair.
Dual TCR Treg cells are common in mouse tissues and vary by location.
February 2022 in “Research Square (Research Square)” High TSPEAR levels in colorectal cancer predict worse outcomes.
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February 2002 in “Carcinogenesis” Increasing SSAT makes skin more prone to cancer.
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July 2019 in “PLOS ONE” Certain genetic variations are linked to higher liver enzyme levels in patients treated for chronic hepatitis C with specific drugs.
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May 2020 in “JCI Insight” Alopecia areata involves specific immune cells, offering potential treatment targets.
June 2020 in “Zenodo (CERN European Organization for Nuclear Research)” The DNMT3B -579G>T polymorphism may increase the risk of colorectal cancer.
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May 2019 in “Cytotherapy” The new ddPCR method reliably detects unwanted viruses in CAR-T cell products, ensuring their safety for patients.
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September 2010 in “Genomics” The study found that immune responses disrupt hair growth cycles, causing hair loss in alopecia areata.
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January 1993 in “Clinical Chemistry and Laboratory Medicine (CCLM)” The new method is 1000 times more sensitive for measuring hair growth.
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October 2025 in “Cancer” PROTACs offer a new, precise way to treat cancer by breaking down harmful proteins.
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May 2019 in “Medicine” The C-allele and CC-genotype in the PTPN22 gene lower the risk of alopecia areata.
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April 2006 in “BioTechniques” Protein microarrays are highly sensitive tools useful for disease diagnosis and studying proteins.
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February 2022 in “Frontiers in Genetics” The LncRNA AC010789.1 slows down hair loss by promoting hair follicle growth and interacting with miR-21 and the Wnt/β-catenin pathway.
The scant hair in snthr-1Bao mice is likely caused by a deletion affecting the Plcd1 gene.
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February 2025 in “Scientific Reports” MEGA PROTAC improves prediction and ranking of protein complexes better than existing methods.
June 2020 in “The journal of investigative dermatology/Journal of investigative dermatology” Topical treatments led to hair regrowth in a man with linear morphea.
January 2020 in “Columbia Academic Commons (Columbia University)” Certain genetic changes in the STX17 and KRT82 genes contribute to hair loss in alopecia areata.
October 2021 in “The journal of investigative dermatology/Journal of investigative dermatology” The new aptamer TAGX-0003 shows promise as an effective treatment for hair loss disorder alopecia areata.
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September 2014 in “Orphanet Journal of Rare Diseases” Different STUB1 gene mutations cause varied symptoms in autosomal recessive ataxias.
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June 2022 in “Journal of Cosmetic Dermatology” Two specific genetic markers increase the risk of hair loss in Asian populations.
September 2025 in “OPAL (Open@LaTrobe) (La Trobe University)” Researchers created an efficient method to extract DNA from marmoset hair, reducing blood chimerism.
November 2025 in “OPAL (Open@LaTrobe) (La Trobe University)” A new method helps find proteins in hair to identify fetal growth issues.