Tag: Biochemistry and Molecular Genetics
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Investigators Explore Cellular Response to Stress
Northwestern Medicine investigators have discovered novel mechanisms that regulate cellular stress response, according to findings published in the Proceedings of the National Academy of Sciences.
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Targeting Bicarbonate in Cancer
Bicarbonate ions are required for cell growth in some cancers, according to a Northwestern Medicine study.
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Exploring New Roles for Non-coding RNA
Recent studies have pointed to an expanded role for non-coding RNA, according to a Northwestern Medicine review.
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Mitochondrial Respiratory Chain Sustains Inflammation
A Northwestern Medicine study published in Nature Immunology has discovered that mitochondria control the activation of a specific protein complex linked to inflammation and the progression of chronic diseases.
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New Regulator of Prostate Cancer Metastasis Discovered
A transcription factor associated with androgen receptor activity in prostate cancer has a newly discovered role in controlling lipid biosynthesis.
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Identifying Mechanisms of Methylation in Stem Cells
Northwestern Medicine scientists identified critical regulatory processes that govern differentiation in embryonic stem cells.
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Transcription Factors Cooperate to Promote Cancer Growth
A well-established cancer cell transcription factor and its newly identified co-factor work together to drive cancer cell proliferation, according to a Northwestern Medicine study published in Science Advances.
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Glucocorticoids Enhance Muscles Through Sex-Specific Pathways
Glucocorticoid steroids improved muscle performance through distinct, sex-specific mechanisms, according to a Northwestern Medicine study.
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Investigators Identify New Connections Between Circadian Rhythm and Muscle Repair
Northwestern Medicine investigators have discovered a novel mechanism that connects circadian rhythm-controlled cellular metabolism and regeneration with muscle repair after injury.
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Genetic Variant of High-risk Childhood Leukemia Revealed
A genetic mutation changing just one base pair of nucleotides greatly increases risk of a lethal subtype of childhood acute lymphoblastic leukemia, according to a recent study.
