📋 Browse Articles

🔍 Search 📋 Browse 🏷️ Tags ❤️ Favourites ➕ Add 🧬 Extraction
Filtered by: LMOD1 ✕ clear all
🏷️ Tags (31969 usages)
📦 Other 1510
▸ Other (850)
brain-derived neurotrophic factor (39)neuroplasticity (32)exercise (20)neurobiology (19)neurotoxicity (18)trkb (16)traditional chinese medicine (15)genetics (15)neurotrophic factors (14)hippocampal (13)central nervous system (12)neuroprotective (11)gut-brain axis (10)neurology (10)stroke (10)obesity (9)neurotrophic (9)psychology (9)dementia (9)zebrafish (8)bipolar disorder (8)neurotrophins (8)blood-brain barrier (8)aging (7)anti-inflammatory (7)neuropsychiatric disorders (7)memory (7)nanoparticles (7)neuropathic pain (7)neurotransmission (6)neurological disorders (6)mental health (6)neurotrophin (6)rats (6)stem cells (6)neuromodulation (6)astrocytes (6)neurodevelopmental disorders (6)psychiatry (6)cns (5)neuronal cells (5)meta-analysis (5)bioavailability (5)biochemistry (5)pathology (5)psychedelics (5)probiotics (5)amyloid-β (5)epilepsy (5)neurodevelopment (5)polymorphism (5)akt (5)aerobic exercise (5)astrocyte (4)nutrition (4)metabolomics (4)toxicity (4)neuroimmune (4)amyloid beta (4)myokines (4)brain health (4)rat model (4)physical exercise (4)neurotransmitter (4)ischemic stroke (4)neuropathology (4)physical activity (4)ngf (4)mesenchymal stem cells (4)neurodevelopmental disorder (4)physiological (3)overactive bladder (3)neuroblastoma (3)amyloid-beta (3)pathophysiology (3)extracellular vesicles (3)immune cells (3)microbiota (3)pi3k (3)neurotransmitters (3)pain management (3)camp (3)il-6 (3)neuronal survival (3)erk (3)hypoxia (3)interleukin-6 (3)estrogen (3)amyloid (3)neural development (3)intervention (3)neurobehavioral (3)voiding dysfunction (3)bioinformatics (3)metabolic (3)immunomodulation (3)ischemia (3)mitophagy (3)long-term potentiation (3)extracellular matrix (3)chemotherapy (3)brain function (3)psilocybin (3)microbiome (3)neuroendocrine (3)endocrine (3)cytokines (3)mouse model (3)neuropsychiatric (3)gastrointestinal (3)psychiatric disorders (3)sciatic nerve injury (3)anxiety disorders (3)hyperlipidemia (3)neurobiological (3)nerve growth factor (2)neuronal function (2)developmental toxicity (2)neural (2)gut health (2)biological (2)immunology (2)camkii (2)excitotoxicity (2)electrophysiological (2)urinary biomarkers (2)val66met polymorphism (2)behavioral (2)neuronal development (2)sleep deprivation (2)alpha-synuclein (2)neurological deficits (2)neuropsychiatry (2)empagliflozin (2)p2x4r (2)psychiatric disorder (2)cytokine (2)physiology (2)polyphenol (2)western diet (2)amnesia (2)calcium (2)multi-omics (2)gene therapy (2)neural stem cells (2)magnetic stimulation (2)exercise interventions (2)generalized anxiety disorder (2)serotonergic (2)yoga (2)microglial polarization (2)ischemic brain injury (2)mdd (2)in vivo (2)suicide (2)pathogenesis (2)anesthesia (2)cell death (2)substance use disorders (2)skeletal muscle (2)lead (2)radiotherapy (2)cardiology (2)5-ht (2)lactate (2)lipopolysaccharide (2)inflammatory (2)intermittent fasting (2)brain-gut axis (2)microgravity (2)mindfulness (2)hippocampal bdnf (2)hypertension (2)immunomodulatory (2)flavonoid (2)bone marrow (2)polyunsaturated fatty acids (2)ganoderma lucidum (2)pain (2)high-fat diet (2)gsk-3β (2)tissue engineering (2)adhd (2)il-10 (2)ampk (2)pink1 (2)microglial activation (2)muscle atrophy (2)amplitude (2)peripheral neuropathy (2)tissue plasminogen activator (2)metabolic health (2)healthy aging (2)wild (1)protein kinase (1)pesticide (1)brain abnormalities (1)immune (1)neural health (1)apoe (1)plant-based (1)cellular models (1)neurodevelopmental trajectories (1)synthesis (1)neurobehavioral toxicity (1)cas9 (1)histology (1)electrical stimulation (1)microglial dysfunction (1)hippocampal neurogenesis (1)plasticity (1)glutamatergic (1)phytochemical (1)urinary ngf (1)muscle weakness (1)gα (1)probdnf (1)stem cell therapy (1)nogo-a (1)schwann cell (1)diabetic neuropathy (1)blood biomarker (1)memantine (1)gs3kβ pathway (1)akt1 (1)nssi (1)ect (1)matrix metalloproteinases (1)nme3 (1)biology (1)platelet activation (1)whole-body vibration (1)gestation (1)neuronal plasticity (1)brain barriers (1)neurotransmitter systems (1)biomedicine (1)excipient selection (1)misa (1)genetic polymorphism (1)gsк-3β (1)bayesian network meta-analysis (1)addictive behaviors (1)motor neurons (1)chemical (1)tlr4 (1)psychotherapy (1)plga (1)atrazine (1)induced pluripotent stem cells (1)processed products (1)mental illness (1)nr2b (1)dendritic atrophy (1)domestication (1)adverse childhood experiences (1)hydrophobic interior (1)gestational intermittent hypoxia (1)neuropathy (1)calcineurin (1)sepsis-associated brain injury (1)gdnf (1)crispr (1)becn1 (1)appetite (1)derivatives (1)pediatric (1)nanocage (1)fibromyalgia (1)omega-3 fatty acids (1)paroxetine (1)mri (1)methyl donor (1)neuromodulatory (1)embryo development (1)case management (1)brain aging (1)bcl-2 (1)mettl3 (1)htr2c (1)psychological disorders (1)neurite outgrowth (1)erythropoietin (1)mastication (1)proteolytic processing (1)brain distribution (1)methylation (1)mental disorder (1)intestinal flora (1)pet (1)histone deacetylase (1)gut microbiome (1)proteome (1)klotho (1)attention deficit hyperactivity disorder (1)synthetic cannabinoid (1)human health (1)gene (1)metaplasticity (1)pkb (1)neurotherapeutics (1)sciatic nerve ligation (1)play behaviour (1)pediatric motor disorder (1)eeg (1)mood (1)cxcr4 (1)de novo lipogenesis (1)ultrasound (1)psychiatric therapies (1)nf-kappa b (1)excitatory synapses (1)hap1 (1)therapy (1)il6 (1)neat1 (1)pppar (1)surgical management (1)biochemical role (1)interleukins (1)agrochemical (1)calcium channels (1)neuronal activation (1)protein (1)pathophenotypes (1)glycation (1)dyspnea (1)genomics (1)epidemiology (1)acetylcholinesterase (1)polymorphic variants (1)thiazole (1)perinatal programming (1)neural pathways (1)degradation (1)uveitis (1)synthetic opioid (1)nanocarriers (1)vitamin d3 (1)metabolic dysfunction (1)astroglia (1)pparα (1)pfas (1)glial cells (1)ace2 (1)muscle (1)network (1)uhplc-q-tof-ms/ms (1)sglt2 inhibitor (1)biological aging (1)biochemical analysis (1)astrobiology (1)microbiota-gut-brain axis (1)local translation (1)wharton's jelly (1)essential oil (1)upper motor neuron (1)vulnerability (1)visceral pain (1)adolescence (1)histological damage (1)amyk (1)systemic (1)neural alterations (1)maoa (1)neuroprotectants (1)metabolic flexibility (1)polycystic ovary syndrome (1)neuroprotectors (1)trk (1)genotype (1)migration (1)brain metastases (1)jak2 (1)neuron-microglia interactions (1)behavioral disorders (1)hsd10 (1)aging brain (1)neurotoxicants (1)cell biology (1)neurological function (1)pkr inhibition (1)mict (1)antipsychotic (1)child mental disorder (1)blood brain barrier (1)stat3 (1)ipsc-derived neurons (1)cannabis (1)sepsis-associated encephalopathy (1)functional (1)olfaction (1)protein design (1)neurons (1)genetic background (1)axon growth (1)metformin (1)atf4 (1)blood-based biomarkers (1)multisystem (1)neutrophil extracellular traps (1)cd4 (1)phenolic acid (1)tissue inhibitors of metalloproteinases (1)inflammasome (1)obstetrics (1)fat oxidation (1)ondansetron (1)physical function (1)ipsc (1)ythdf1 (1)glymphatic function (1)immune system (1)nutritional strategies (1)anesthetics (1)ich (1)electroencephalogram (1)rodent models (1)in vivo study (1)phthalates (1)physiotherapy (1)nlrp3 (1)electroporation (1)older adults (1)sexual dysfunction (1)mice (1)sesquiterpenoid (1)fibrinolytic (1)gut-brain interactions (1)n-acetylcysteine (1)body weight (1)mfn2 (1)rat brain (1)hiit (1)inflammatory process (1)spinal disc (1)pacap (1)opioid use (1)ayahuasca (1)genetic risk factor (1)pkc delta (1)endothelial cells (1)lactation (1)hepatocellular carcinoma (1)cell viability (1)necrotic cell death (1)offspring behavior (1)cholinergic dysfunction (1)neurobiomarkers (1)neurotrophin-3 (1)canagliflozin (1)anxiety disorder (1)orthopedic fixation (1)neurodevelopmental biology (1)fragile x syndrome (1)npas4 (1)mesoporous silica (1)cardioprotective (1)hydrocephalus (1)neurological disorder (1)microbiomics (1)nanotherapeutics (1)tubulin (1)neuroinflammatory signalling (1)sineup (1)p75ntr (1)8-iso-pgf2α (1)diabetic neuropathic pain (1)lumbrokinase (1)nlrp3 inflammasome (1)neural organoid (1)neurobiochemistry (1)photoplethysmography (1)cadmium (1)fibroblast-growth factor-21 (1)bulimia (1)calcium-binding protein (1)nursing intervention (1)lipid rafts (1)hallucinogens (1)immune checkpoint (1)trka (1)biological markers (1)social interaction (1)systemic inflammation (1)passive smoking (1)atp production (1)nad (1)biological pathways (1)endocrine disorder (1)decline (1)anxiolytic (1)translation (1)kinases (1)personalized medicine (1)protein formulation (1)vagus nerve (1)carbon dots (1)aerobic (1)in vivo efficacy (1)polyphenols (1)motivational behaviors (1)gonadal hormones (1)nanotechnology (1)neurological growth (1)mitogen-activated protein kinase (1)cannabidiol (1)neuronal degeneration (1)oxidative damage (1)public health (1)radiation-induced brain injury (1)cholinergic (1)therapeutics (1)meditation (1)salmon (1)gut brain axis (1)chemokines (1)toxoplasma gondii (1)omics (1)bdnf/trkb pathway (1)neuroanatomy (1)hepatoprotective (1)nanofibers (1)growth factor (1)dietary triglyceride (1)eating behavior (1)tgf-β (1)homing (1)neuropsychology (1)visual stimulation (1)histone (1)t cells (1)diabetic ischemic brain injury (1)bax (1)behavioral performance (1)prkn (1)metabolic alterations (1)stem cell (1)axon guidance (1)sumoylation (1)acd (1)erbb4 inhibitor (1)two-hit model (1)perk (1)tug1 (1)gene activation (1)tea polyphenols (1)tcm (1)developmental neurotoxicity (1)hormonal (1)plasmin (1)emotion axis (1)bdnf pathway (1)mmp-9 (1)heavy metal (1)histologic analysis (1)platelet factor 4 (1)fisetin (1)neurobehavioral deficits (1)anaerobic exercise (1)hypoxanthine (1)motor function (1)hippocampal neurons (1)psychedelic (1)nutritional psychiatry (1)nerve injury (1)brain-derived neurotrophic factors (1)behaviors (1)mct oil (1)hippocampal plasticity (1)hippocampal development (1)kcc2 (1)peripheral blood mononuclear cells (1)ecb (1)pcl (1)exercise intervention (1)glial scarring (1)ovine (1)lung-brain axis (1)hyperventilation syndrome (1)hbv (1)endocannabinoid pathways (1)geriatrics (1)neonatal brain proteomics (1)muscle pain (1)etiology (1)weightlessness (1)biodegradable materials (1)ho-1 (1)pain subtypes (1)cxcl12 (1)bdnf signalling (1)p2x7r (1)salivary gland (1)cholesterol (1)vitamin d (1)behavior (1)nmda (1)genetic (1)sociodemographic factors (1)neuroprotective properties (1)ethanol (1)oral delivery (1)suicidal ideation (1)neurophysiology (1)synovial fibroblasts (1)translational (1)bioactivity (1)function (1)neural stimulation (1)muscle function (1)ophthalmology (1)gene-tbi interactions (1)macrophages (1)cannabinoid (1)fatty acids (1)piezoelectric (1)tms (1)hepatic encephalopathy (1)mood disorders (1)tph2 (1)cardiometabolic disease (1)psychological (1)single-nucleotide variants (1)schwann cells (1)euglena gracilis (1)inflammatory bowel disease (1)intestinal barrier (1)emotional disorders (1)hyperammonemia (1)5-ht pathway (1)app (1)sleep (1)olfactory system (1)neurovegetative (1)beta-glucan (1)lithium chloride (1)psychobiotics (1)brainstem (1)neuronal growth (1)glioma (1)apolipoprotein e (1)psychotropic (1)substance use disorder (1)neurobiological alterations (1)dendritic morphology (1)b-cell lymphoma 2 (1)puberty (1)cmd (1)electromagnetic field (1)neurochemicals (1)pgc1α (1)low back pain (1)dheas (1)biological sciences (1)intranasal delivery (1)neurotrophic hypothesis (1)cbt (1)sik1 (1)magnetically targeted (1)motor neuron disease (1)visceral hypersensitivity (1)psychiatric genetics (1)drp1 (1)butyrate (1)six3 (1)triclocarban (1)proteomic clustering (1)pharmaceutical (1)cellular nerve damage (1)parkin (1)sciatic nerve (1)pediatrics (1)sepsis (1)pcr (1)traditional uyghur medicine (1)murine model (1)bace1 (1)liquid crystalline (1)gwas (1)neuroblastoma cells (1)signalling pathway (1)brain oxygenation (1)paxillin (1)inflammatory markers (1)neural damage (1)mass spectrometry (1)sleep-promoting (1)monocytes (1)mh (1)sex hormones (1)brain biomarkers (1)immune activation (1)glutamatergic system (1)akt pathway (1)pituitary gland (1)neurochemistry (1)phytochemical analysis (1)plant (1)behavioral deficits (1)tnfα (1)psychiatric (1)peripheral nerve injury (1)clearance system (1)acrylamide (1)behavioral dysfunction (1)gut-hippocampus axis (1)neonatal development (1)vitamin c (1)ppparα (1)uflc-q-tof-ms/ms (1)stagnant phlegm syndrome (1)neurodelivery (1)cav1 (1)metabolic processes (1)gpr40 (1)na/k-atpase (1)nuclear translocation (1)nanoemulsion (1)pericytes (1)p2y1r (1)next-generation sequencing (1)neuroactive lignan (1)food intake (1)neuronal injury (1)muscle denervation (1)inflammatory pathways (1)sox5 (1)herbicide (1)neuroma (1)maya-mestizo population (1)dexras1 (1)msc (1)microcystin (1)amyloid plaque (1)cardiometabolic (1)rat models (1)val66met (1)rock1 (1)plasma technology (1)statins (1)bdnf-trkb pathway (1)mendelian randomization (1)protein kinase b (1)neural plasticity (1)oxidative balance (1)spleen-kidney deficiency (1)prisma (1)metabolic function (1)proinflammatory cytokines (1)antioxidative (1)multiple system atrophy (1)neurobehavior (1)mcao (1)herbal medicine (1)eating disorders (1)brain plasticity (1)hyperglycemia (1)visual function (1)peripheral brain-derived neurotrophic factor (1)lithium (1)dry eye model (1)hepatocyte (1)tnf-α (1)proteases (1)neurological health (1)steroid hormones (1)dendritic spine (1)uhplc-qtof-ms (1)social memory (1)perineuronal networks (1)phytoestrogen (1)childhood obesity (1)lc-ms (1)microvesicles (1)caspase-4 (1)inflammaging (1)muscle-brain axis (1)spions (1)therapeutic implications (1)adolescent brain (1)rotenone (1)metabolic syndrome (1)no (1)lineage (1)neural network (1)phq-9 (1)lipid-lowering (1)gene mutations (1)biochemical (1)pka (1)central sensitization (1)matrix metalloproteases (1)risperidone (1)morphological deficits (1)panax ginseng (1)bioprinted (1)neurotoxicity-associated metabolic alterations (1)polymorphisms (1)minocycline (1)ntrk (1)lcn2 (1)behavioral science (1)liver injury (1)pituitary (1)biophysics (1)cholinergic function (1)orthopedics (1)neural tissue (1)hippocampal injury (1)gastric ulcer (1)vitality (1)space medicine (1)igf-1 (1)intrinsic capacity (1)central nervous system disorders (1)neurodevelopmental studies (1)single-nucleotide polymorphisms (1)fasd (1)polygalae radix (1)exerkines (1)pathophysiological interactions (1)walking (1)chemobrain (1)neural function (1)ingestion (1)bangladeshi population (1)urodynamics (1)aβ plaques (1)immuno-modulation (1)pathway (1)neuroendocrinology (1)supplementation (1)brain tissue (1)cardiotoxicity (1)mglur5 (1)acetylation (1)microplastic (1)therapeutic perspectives (1)methylxanthine (1)naphthoquinone (1)myokine (1)analgesia (1)gst (1)choroid plexus (1)plasma biomarkers (1)glutamatergic pathways (1)biomaterials (1)global health (1)inhibitor (1)
⚗️ Metals 1041
▸ Metals — Other (620)
neuroscience (64)cognitive function (30)synaptic plasticity (25)stress (15)antidepressant (14)pharmacology (11)cognitive dysfunction (10)toxicology (9)cognition (9)serotonin (8)major depressive disorder (7)molecular biology (7)spinal cord injury (7)prefrontal cortex (7)chronic stress (6)autism spectrum disorder (6)chronic pain (6)exosomes (6)ptsd (6)cognitive (6)irisin (5)pregnancy (5)memory impairment (5)network pharmacology (5)cognitive performance (5)endoplasmic reticulum stress (5)neuropharmacology (5)environmental enrichment (4)homeostasis (4)oncology (4)neuroprotective effects (4)traumatic brain injury (4)molecular mechanisms (4)depressive disorder (4)cardiovascular (4)psychopharmacology (4)neuroregeneration (4)resveratrol (4)post-traumatic stress disorder (4)chitosan (4)affective disorders (3)osteoporosis (3)insomnia (3)high-intensity interval training (3)neurobiological mechanisms (3)serum (3)treatment-resistant depression (3)mirna (3)nerve regeneration (3)animal model (3)transcriptomics (3)acupuncture (3)sarcopenia (3)molecular dynamics (3)molecular (3)molecular docking (3)autism (3)rehabilitation (3)electroconvulsive therapy (3)regenerative medicine (3)bioactive compounds (3)prenatal stress (3)melatonin (3)cums (2)tau protein (2)cancer progression (2)er stress (2)glucocorticoid receptor (2)insulin resistance (2)preclinical (2)metabolic regulation (2)quality of life (2)docosahexaenoic acid (2)pharmacogenomics (2)neuroprotective mechanisms (2)gene regulation (2)heart failure (2)alcohol consumption (2)amyotrophic lateral sclerosis (2)ketogenic diet (2)neural circuitry (2)antidepressants (2)trauma (2)retina (2)neurovascular (2)mir-34a-5p (2)ginsenosides (2)stroke recovery (2)transcriptome (2)transcranial magnetic stimulation (2)systematic review (2)molecular pathways (2)regulatory mechanisms (2)executive function (2)postoperative care (2)neuroprotective effect (2)corticosterone (2)post-stroke depression (2)retinal ganglion cells (2)premature ejaculation (2)cognitive recovery (2)selenium (2)learning (2)pharmacological (2)glucagon-like peptide-1 (2)functional recovery (2)circadian rhythms (2)endocrine disruptors (2)early-life stress (2)axonal regeneration (2)naringenin (2)cognitive deficits (2)endoplasmic reticulum (2)alcohol (2)depressive behaviors (2)peripheral nerve regeneration (2)nmda receptor (2)cognitive health (2)cortisol (2)cytoskeleton (2)postoperative cognitive dysfunction (2)infralimbic cortex (2)cerebrum (2)cortical neurons (2)synaptic dysfunction (2)molecular targets (2)benzalkonium chloride (2)prebiotics (2)mild cognitive impairment (2)ethnopharmacology (2)cognitive functions (2)regeneration (2)tau (1)viral infections (1)stress responses (1)physicochemical characterization (1)brain immunity (1)correction (1)retinoic acid (1)post-translational modification (1)exposure (1)lucidenic acid a (1)hepatic steatosis (1)dietary regulation (1)nerve conduits (1)environmental pollutants (1)perigestational opioid exposure (1)meta-regression (1)mechanosensory hair cells (1)hippocampal ca2 region (1)neural precursors (1)photoreceptors (1)anaerobic glycolytic flux (1)respiratory (1)randomized controlled trials (1)ischemic postconditioning (1)molecular changes (1)growth cones (1)total abdominal irradiation (1)cardiovascular disease (1)aggression (1)gold nanoparticles (1)circrna (1)preclinical evidence (1)traumatic injury (1)dopamine d2 receptor (1)progressive (1)psychological trauma (1)drug metabolism (1)neural structure (1)synaptic transmission (1)laquinimod (1)preterm birth (1)resilience (1)peptide design (1)fermented food (1)spatial learning (1)complications (1)allergic contact dermatitis (1)particulate matter (1)corticospinal tract (1)chronic restraint stress (1)cerebellum (1)hepatitis b virus (1)copd (1)post-stroke cognitive impairment (1)tryptophan metabolism (1)ginsenoside (1)auricular vagus nerve stimulation (1)biosynthesis (1)scoping review (1)vascular endothelium (1)opioid prescription (1)mir-381-3p (1)learning-memory (1)fetal alcohol spectrum disorders (1)emotion perception (1)hippocampal structure (1)cell communication (1)sedative-hypnotic effects (1)amniotic fluid stem cell (1)cardiovascular disorders (1)nerve guidance conduits (1)regulatory network (1)synaptic impairment (1)peroxisome proliferator-activated receptor alpha (1)neurocognitive impairment (1)aquatic ecosystems (1)fibronectin type iii domain-containing protein 5 (1)phosphorylated tau (1)oxygen-glucose deprivation (1)chronicity (1)intracerebral hemorrhage (1)osteosarcopenia (1)behavioral responses (1)anorexia (1)selective serotonin reuptake inhibitors (1)stable love relationships (1)psychological treatment (1)hippocampal regeneration (1)redox homeostasis (1)neuroprotective molecules (1)neurovascular plasticity (1)neuropeptide (1)irradiation (1)hemorheological parameters (1)cellular mechanisms (1)cognitive flexibility (1)astrocytic disruption (1)alcohol dependence (1)stroke treatment (1)irritable bowel syndrome (1)seizure susceptibility (1)immune reactions (1)tumor necrosis factor alpha (1)mirnas (1)menopausal (1)microbiota dysbiosis (1)bed rest (1)nicotine (1)bone loss (1)cubosome formulation (1)post traumatic stress disorder (1)vascular dysfunction (1)hyperandrogenism (1)pd-1 (1)hippocampal neuronal apoptosis (1)prenatal exposure (1)pyroptosis (1)withaferin a (1)glycolysis (1)microenvironment (1)redox balance (1)circadian rhythm (1)olfactory exposure (1)nose-to-brain delivery (1)neurocognitive outcomes (1)sex differences (1)neuro-osteogenic microenvironment (1)acute ischemic stroke (1)psychedelic drugs (1)sinomenine (1)secretory protein (1)maladaptive neuroplasticity (1)facial recognition (1)stress disorder (1)carnosine (1)synaptic deficits (1)mir-146a-3p (1)regulation (1)ferritin (1)protein secretion (1)scopolamine-induced amnesia (1)randomized controlled trial (1)principal component analysis (1)appetite regulation (1)psychiatric comorbidities (1)environmental toxicology (1)gynecology (1)hif-1α-epo/camp-creb-bdnf pathway (1)depressive states (1)learning process (1)neural regeneration (1)cardiac arrest (1)psychological outcomes (1)affective states (1)gut dysbiosis (1)long non-coding rnas (1)prefrontal-limbic connectivity (1)psychological reaction (1)extremely low-frequency magnetic field (1)clinical assessment (1)microglial exosomes (1)neurotoxicology (1)epileptogenesis (1)clinical trial (1)anabolic-androgenic steroid (1)ethnic medicine (1)mitochondrial calcium uniporter (1)weight loss (1)amitriptyline (1)stress responsivity (1)serotonergic circuit (1)lps-induced depression (1)locomotion (1)steroidal saponin (1)aquatic organisms (1)correlation (1)drug response (1)transcriptomic (1)long non-coding rna (1)rheumatoid arthritis (1)rem theta (1)absorption (1)chronic heart failure (1)fentanyl administration (1)molecular toxicology (1)vascular cognitive impairment (1)motor impairment (1)adipose-derived stem cells (1)neuro-related disorders (1)emotional regulation (1)restraint stress (1)regenerative capabilities (1)antinociceptive (1)cerebral palsy (1)cerebral infarction (1)normal pressure hydrocephalus (1)positron emission tomography (1)bioengineered delivery system (1)adenosine (1)connexin43 (1)immunoregulation (1)comorbid (1)cerebrovascular disease (1)in silico (1)moderate-intensity continuous training (1)cognitive improvement (1)stress-induced depressive behaviors (1)drug delivery (1)lycopene delivery (1)host-virus interactions (1)phosphatidic acid (1)sirt1 (1)neuroserpin (1)heat stress (1)macular degeneration (1)medial prefrontal cortex (1)intranasal drug delivery (1)early diagnosis (1)rem sleep behavior disorder (1)seizures (1)psychosocial (1)prenatal supplementation (1)adeno-associated virus (1)neurotoxic effects (1)proanthocyanidins (1)neurocognitive (1)anti-inflammatory effects (1)gestational opioid exposure (1)nociceptive sensitization (1)stress axis regulation (1)anthocyanins (1)pruritus (1)phlorotannin (1)high intensity interval training (1)prosopis cineraria (1)psychosis (1)constipation (1)psychedelic compounds (1)delphinidin (1)myostatin (1)triterpenoid saponins (1)limbic structures (1)osteoblast (1)bdnf expression (1)poly(lactic-co-glycolic acid) (1)korean population (1)neuroimmune crosstalk (1)chronic diseases (1)low birthweight (1)α7 nicotinic acetylcholine receptor (1)protein quality control (1)peptide hydrogel (1)fecal calprotectin (1)metabolic adaptation (1)single-cell transcriptomics (1)cell differentiation (1)neurogenic bladder (1)hippocampal synaptic proteins (1)chemoresistance (1)herb pair (1)chronotropic incompetence (1)autism-like behavior (1)testicular health (1)aggressive behavior (1)allodynia (1)obstructive sleep apnea (1)opioid overdose (1)gold coast criteria (1)n-methyl-d-aspartate receptor (1)psychological stress (1)betulinic acid (1)retinal degeneration (1)depressive pathologies (1)traumatic event (1)ros (1)extremely low-frequency electromagnetic field (1)cognitive impairments (1)chronic toxoplasmosis (1)dacomitinib (1)serotonin 5-ht2a receptor (1)pulmonary fibrosis (1)psychostimulant (1)chronic unpredictable mild stress (1)tobacco smoke (1)radiofrequency electromagnetic fields (1)fetal brain development (1)sedative-hypnotic effect (1)social buffering (1)depressive disorders (1)epigenetic dysregulation (1)neuroimmune circuits (1)childhood growth restriction (1)resolvin d1 (1)molecular design (1)glp-1 receptor agonists (1)brain-gut homeostasis (1)neurotrophic adaptation (1)liver failure (1)creb pathway (1)diclofenac (1)n6-methyladenosine (1)immune mechanisms (1)laminin (1)cerebrovascular accidents (1)suicide attempt (1)neural repair (1)synaptic (1)adverse outcome pathway (1)opioid receptors (1)memory impairments (1)fibrotic remodeling (1)neuronal communication (1)appetite control (1)outcomes (1)hypothalamus-pituitary-adrenal axis (1)serum bdnf levels (1)lung homeostasis (1)perioperative neurocognitive disorders (1)cognitive training (1)melatonin receptor (1)adolescent social isolation stress (1)cognitive therapy (1)fear memory (1)osseointegration (1)musculoskeletal system (1)colitis (1)autoimmune uveitis (1)light treatment (1)cerebral protection (1)neurotrophic dysregulation (1)ingredient (1)developmental neurotoxicology (1)transcriptional changes (1)neurosteroids (1)environmental conditions (1)orthostatic hypotension (1)pathological microenvironment (1)autologous serum (1)physiological resilience (1)spatial transcriptomics (1)function recovery (1)age-related macular degeneration (1)seizure (1)mangiferin (1)preclinical models (1)herpes simplex virus (1)exosome-based therapy (1)peptides (1)melanocortin (1)tau phosphorylation (1)tumor necrosis factor (1)eicosapentaenoic acid (1)neural circuit (1)hypothalamic-pituitary-adrenal axis (1)brain structure (1)phosphatidylserine (1)irák1 (1)colorectal cancer (1)perinatal depression (1)learning ability (1)allostatic load (1)adolescent depression (1)creatine supplementation (1)affective dysfunction (1)non-pharmacological interventions (1)personal care products (1)diagnosis (1)unfolded protein response (1)antidepressant mechanisms (1)cerebral hemorrhage (1)autophagic pathway (1)nanocomposite hydrogel (1)causal relationship (1)fear extinction (1)neuropeptide s (1)nociceptive responses (1)dpd-4 inhibitors (1)traumatic stress disorder (1)colon cancer (1)tau hyperphosphorylation (1)tyrosine kinase receptor b (1)ecosystems (1)reproductive physiology (1)stress regulation (1)motor learning (1)disease-syndrome combined model (1)methionine-choline-deficient diet (1)s-nitrosylation (1)neurocognitive disorders (1)postmenopausal women (1)neural recovery (1)kaempferol (1)postoperative delirium (1)receptor (1)social cognition (1)neurocognition (1)environmental (1)hcortisolaemia (1)integrated stress response (1)systemic effects (1)antiretroviral therapy (1)adenosine receptor (1)late-life cognitive decline (1)traumatic memories (1)energy homeostasis (1)antidepressant effect (1)physiological adaptations (1)inflammatory responses (1)tissue architecture (1)vascularization (1)neuroimmune responses (1)human respiratory syncytial virus (1)vision loss (1)rapid antidepressant effects (1)tau pathology (1)drug release (1)signal peptide (1)noncommunicable diseases (1)electrospun (1)alcohol-induced cognitive impairment (1)vasoactive intestinal polypeptide (1)cognitive behavior (1)hypothalamic pituitary adrenal axis (1)machine learning (1)hypothalamic-pituitary adrenal axis (1)parkinsonism (1)cognitive resilience (1)impairment (1)experimental autoimmune uveoretinitis (1)precursor state (1)hmg-coa reductase inhibitors (1)tumor necrosis factor-α (1)relationship (1)cognitive aging (1)clinical psychology (1)antidepressant activity (1)optic nerve injury (1)mechanistic (1)vascular maturation (1)biomechanics (1)aerospace medicine (1)oncogenic drivers (1)differentiation (1)resistance training (1)paraventricular nucleus (1)ecotoxicity (1)synaptic homeostasis (1)environmental concern (1)bdnf/creb pathway (1)creb phosphorylation (1)mood dysregulation (1)nitrous oxide (1)dentate gyrus (1)paternal exposure (1)behavioral despair (1)nicotine exposure (1)lactobacillus plantarum (1)electroacupuncture (1)female mice (1)fetal neural development (1)tropomyosin receptor kinase b (1)environmental contaminants (1)differentiation protocols (1)magnetic resonance imaging (1)reward processing (1)arsenic (1)steroid effects (1)diosgenin (1)stress hormone (1)oral administration (1)hemorheology (1)synaptic models (1)reversal learning (1)synaptic signaling (1)cognitive outcomes (1)presynaptic (1)magnetic field exposure (1)ischemia reperfusion injury (1)nitric oxide (1)toxoplasmosis (1)tyrosine kinase inhibitors (1)acute hepatitis (1)glucagon-like peptide-1 receptor agonists (1)somatosensory cortex (1)serotonin pathway (1)biological effects (1)cyanidin (1)breast cancer (1)
💊 Drugs 4

🔍 Filters

82 articles with selected tags
Tory P Johnson, Richa Tyagi, Paul R Lee +15 more · 2017 · Science translational medicine · Science · added 2026-04-24
Nodding syndrome is an epileptic disorder of unknown etiology that occurs in children in East Africa. There is an epidemiological association with
📄 PDF DOI: 10.1126/scitranslmed.aaf6953
LMOD1
Gretchen Vogel · 2017 · Science (New York, N.Y.) · Science · added 2026-04-24
no PDF DOI: 10.1126/science.355.6326.678
LMOD1
Ljubica Perisic Matic, Urszula Rykaczewska, Anton Razuvaev +31 more · 2016 · Arteriosclerosis, thrombosis, and vascular biology · added 2026-04-24
Key augmented processes in atherosclerosis have been identified, whereas less is known about downregulated pathways. Here, we applied a systems biology approach to examine suppressed molecular signatu Show more
Key augmented processes in atherosclerosis have been identified, whereas less is known about downregulated pathways. Here, we applied a systems biology approach to examine suppressed molecular signatures, with the hypothesis that they may provide insight into mechanisms contributing to plaque stability. Muscle contraction, muscle development, and actin cytoskeleton were the most downregulated pathways (false discovery rate=6.99e-21, 1.66e-6, 2.54e-10, respectively) in microarrays from human carotid plaques (n=177) versus healthy arteries (n=15). In addition to typical smooth muscle cell (SMC) markers, these pathways also encompassed cytoskeleton-related genes previously not associated with atherosclerosis. SYNPO2, SYNM, LMOD1, PDLIM7, and PLN expression positively correlated to typical SMC markers in plaques (Pearson r>0.6, P<0.0001) and in rat intimal hyperplasia (r>0.8, P<0.0001). By immunohistochemistry, the proteins were expressed in SMCs in normal vessels, but largely absent in human plaques and intimal hyperplasia. Subcellularly, most proteins localized to the cytoskeleton in cultured SMCs and were regulated by active enhancer histone modification H3K27ac by chromatin immunoprecipitation-sequencing. Functionally, the genes were downregulated by PDGFB (platelet-derived growth factor beta) and IFNg (interferron gamma), exposure to shear flow stress, and oxLDL (oxidized low-density lipoprotein) loading. Genetic variants in PDLIM7, PLN, and SYNPO2 loci associated with progression of carotid intima-media thickness in high-risk subjects without symptoms of cardiovascular disease (n=3378). By eQTL (expression quantitative trait locus), rs11746443 also associated with PDLIM7 expression in plaques. Mechanistically, silencing of PDLIM7 in vitro led to downregulation of SMC markers and disruption of the actin cytoskeleton, decreased cell spreading, and increased proliferation. We identified a panel of genes that reflect the altered phenotype of SMCs in vascular disease and could be early sensitive markers of SMC dedifferentiation. Show less
📄 PDF DOI: 10.1161/ATVBAHA.116.307893
LMOD1
Clint L Miller, Milos Pjanic, Ting Wang +17 more · 2016 · Nature communications · Nature · added 2026-04-24
Coronary artery disease (CAD) is the leading cause of mortality and morbidity, driven by both genetic and environmental risk factors. Meta-analyses of genome-wide association studies have identified > Show more
Coronary artery disease (CAD) is the leading cause of mortality and morbidity, driven by both genetic and environmental risk factors. Meta-analyses of genome-wide association studies have identified >150 loci associated with CAD and myocardial infarction susceptibility in humans. A majority of these variants reside in non-coding regions and are co-inherited with hundreds of candidate regulatory variants, presenting a challenge to elucidate their functions. Herein, we use integrative genomic, epigenomic and transcriptomic profiling of perturbed human coronary artery smooth muscle cells and tissues to begin to identify causal regulatory variation and mechanisms responsible for CAD associations. Using these genome-wide maps, we prioritize 64 candidate variants and perform allele-specific binding and expression analyses at seven top candidate loci: 9p21.3, SMAD3, PDGFD, IL6R, BMP1, CCDC97/TGFB1 and LMOD1. We validate our findings in expression quantitative trait loci cohorts, which together reveal new links between CAD associations and regulatory function in the appropriate disease context. Show less
📄 PDF DOI: 10.1038/ncomms12092
LMOD1
Shuang Li, Kaiqi Mo, Hong Tian +10 more · 2016 · Cell & bioscience · BioMed Central · added 2026-04-24
Leiomodin proteins, Lmod1, Lmod2 and Lmod3, are key regulators of the thin filament length in muscles. While Lmod1 is specifically expressed in smooth muscles, both Lmod2 and Lmod3 are expressed in st Show more
Leiomodin proteins, Lmod1, Lmod2 and Lmod3, are key regulators of the thin filament length in muscles. While Lmod1 is specifically expressed in smooth muscles, both Lmod2 and Lmod3 are expressed in striated muscles including both cardiac and skeletal muscles. We and others have previously shown that Lmod3 mainly function in skeletal muscles and the mutant mice display disorganized sarcomere. Lmod2 protein has been found to act as an actin filament nucleator in both cell-free assays and in cultured rat and chicken cardiomyocytes. To better understand the function of Lmod2 in vivo, we have identified and characterized a piggyBac (PB) insertional mouse mutant. Our analysis revealed that the PB transposon inserts in the first exon of the Lmod2 gene and severely disrupts its expression. We found that Lmod2 (PB/PB) mice exhibit typical dilated cardiomyopathy (DCM) with ventricular arrhythmias and postnatal lethality. Electron microscope reveals that the Lmod2 (PB/PB) hearts carry disordered sarcomere, disarrayed thin filaments, and distorted intercalated discs (ICDs). Those ICDs display not only decreased convolutions, but also reduced electron-dense staining, indicating less ICDs component proteins in Lmod2 (PB/PB) hearts. Consistent with the phenotype, the expression of the ICD component genes, β-catenin and Connexin43, are down-regulated. Taken together, our data reveal that Lmod2 is required in heart thin filaments for integrity of sarcomere and ICD and deficient mice exhibit DCM with ventricular arrhythmias and postnatal lethality. The Lmod2 (PB/PB) mutant offers a valuable resource for interrogation of pathogenesis and development of therapeutics for DCM. Show less
📄 PDF DOI: 10.1186/s13578-016-0101-y
LMOD1
Sanghamitra Sahoo, Daniel N Meijles, Imad Al Ghouleh +6 more · 2016 · PloS one · PLOS · added 2026-04-24
Vascular hyperproliferative disorders are characterized by excessive smooth muscle cell (SMC) proliferation leading to vessel remodeling and occlusion. In pulmonary arterial hypertension (PAH), SMC ph Show more
Vascular hyperproliferative disorders are characterized by excessive smooth muscle cell (SMC) proliferation leading to vessel remodeling and occlusion. In pulmonary arterial hypertension (PAH), SMC phenotype switching from a terminally differentiated contractile to synthetic state is gaining traction as our understanding of the disease progression improves. While maintenance of SMC contractile phenotype is reportedly orchestrated by a MEF2C-myocardin (MYOCD) interplay, little is known regarding molecular control at this nexus. Moreover, the burgeoning interest in microRNAs (miRs) provides the basis for exploring their modulation of MEF2C-MYOCD signaling, and in turn, a pro-proliferative, synthetic SMC phenotype. We hypothesized that suppression of SMC contractile phenotype in pulmonary hypertension is mediated by miR-214 via repression of the MEF2C-MYOCD-leiomodin1 (LMOD1) signaling axis. In SMCs isolated from a PAH patient cohort and commercially obtained hPASMCs exposed to hypoxia, miR-214 expression was monitored by qRT-PCR. miR-214 was upregulated in PAH- vs. control subject hPASMCs as well as in commercially obtained hPASMCs exposed to hypoxia. These increases in miR-214 were paralleled by MEF2C, MYOCD and SMC contractile protein downregulation. Of these, LMOD1 and MEF2C were directly targeted by the miR. Mir-214 overexpression mimicked the PAH profile, downregulating MEF2C and LMOD1. AntagomiR-214 abrogated hypoxia-induced suppression of the contractile phenotype and its attendant proliferation. Anti-miR-214 also restored PAH-PASMCs to a contractile phenotype seen during vascular homeostasis. Our findings illustrate a key role for miR-214 in modulation of MEF2C-MYOCD-LMOD1 signaling and suggest that an antagonist of miR-214 could mitigate SMC phenotype changes and proliferation in vascular hyperproliferative disorders including PAH. Show less
📄 PDF DOI: 10.1371/journal.pone.0153780
LMOD1
Roberto Dominguez · 2016 · Trends in biochemical sciences · Elsevier · added 2026-04-24
Two types of sequences, proline-rich domains (PRDs) and the WASP-homology 2 (WH2) domain, are found in most actin filament nucleation and elongation factors discovered thus far. PRDs serve as a platfo Show more
Two types of sequences, proline-rich domains (PRDs) and the WASP-homology 2 (WH2) domain, are found in most actin filament nucleation and elongation factors discovered thus far. PRDs serve as a platform for protein-protein interactions, often mediating the binding of profilin-actin. The WH2 domain is an abundant actin monomer-binding motif comprising ∼17 amino acids. It frequently occurs in tandem repeats, and functions in nucleation by recruiting actin subunits to form the polymerization nucleus. It is found in Spire, Cordon Bleu (Cobl), Leiomodin (Lmod), Arp2/3 complex activators (WASP, WHAMM, WAVE, etc.), the bacterial nucleators VopL/VopF and Sca2, and some formins. Yet, it is argued here that the WH2 domain plays only an auxiliary role in nucleation, always synergizing with other domains or proteins for this activity. Show less
📄 PDF DOI: 10.1016/j.tibs.2016.03.004
LMOD1
L Perisic, S Aldi, Y Sun +12 more · 2016 · Journal of internal medicine · Blackwell Publishing · added 2026-04-24
Embolism from unstable atheromas in the carotid bifurcation is a major cause of stroke. Here, we analysed gene expression in endarterectomies from patients with symptomatic (S) and asymptomatic (AS) c Show more
Embolism from unstable atheromas in the carotid bifurcation is a major cause of stroke. Here, we analysed gene expression in endarterectomies from patients with symptomatic (S) and asymptomatic (AS) carotid stenosis to identify pathways linked to plaque instability. Microarrays were prepared from plaques (n = 127) and peripheral blood samples (n = 96) of S and AS patients. Gene set enrichment, pathway mapping and network analyses of differentially expressed genes were performed. These studies revealed upregulation of haemoglobin metabolism (P = 2.20E-05) and bone resorption (P = 9.63E-04) in S patients. Analysis of subgroups of patients indicated enrichment of calcification and osteoblast differentiation in S patients on statins, as well as inflammation and apoptosis in plaques removed >1 month compared to <2 weeks after symptom. By prediction profiling, a panel of 30 genes, mostly transcription factors, discriminated between plaques from S versus AS patients with 78% accuracy. By meta-analysis, common gene networks associated with atherosclerosis mapped to hypoxia, chemokines, calcification, actin cytoskeleton and extracellular matrix. A set of dysregulated genes (LMOD1, SYNPO2, PLIN2 and PPBP) previously not described in atherosclerosis were identified from microarrays and validated by quantitative PCR and immunohistochemistry. Our findings confirmed a central role for inflammation and proteases in plaque instability, and highlighted haemoglobin metabolism and bone resorption as important pathways. Subgroup analysis suggested prolonged inflammation following the symptoms of plaque instability and calcification as a possible stabilizing mechanism by statins. In addition, transcriptional regulation may play an important role in the determination of plaque phenotype. The results from this study will serve as a basis for further exploration of molecular signatures in carotid atherosclerosis. Show less
no PDF DOI: 10.1111/joim.12448
LMOD1
Xiangqian Guo, Erna Forgó, Matt van de Rijn · 2015 · Genomics data · Elsevier · added 2026-04-24
Leiomyosarcoma (LMS) is a malignant neoplasm with smooth muscle differentiation. Little is known about its molecular heterogeneity and no targeted therapy currently exists for LMS. We performed expres Show more
Leiomyosarcoma (LMS) is a malignant neoplasm with smooth muscle differentiation. Little is known about its molecular heterogeneity and no targeted therapy currently exists for LMS. We performed expression profiling on 99 cases of LMS with 3'end RNA sequencing (3SEQ) and demonstrated the existence of 3 molecular subtypes in this cohort. We consequently showed that these molecular subtypes are reproducible using an independent cohort of 82 LMS cases from TCGA. Two new formalin-fixed, paraffin-embedded (FFPE) tissue-compatible diagnostic immunohistochemical markers were identified for two of the three subtypes: LMOD1 for subtype I LMS and ARL4C for subtype II LMS. Subtype I and subtype II LMS were associated with good and poor prognosis, respectively. Here, we describe the details of LMS diagnosis, RNA isolation, 3SEQ library construction, 3SEQ sequencing data analysis and molecular subtype determination. The 3SEQ data produced in this study was deposited into Gene Expression Omnibus (GEO) under GSE45510. Show less
no PDF DOI: 10.1016/j.gdata.2015.06.029
LMOD1
Xiangqian Guo, Vickie Y Jo, Anne M Mills +13 more · 2015 · Clinical cancer research : an official journal of the American Association for Cancer Research · added 2026-04-24
Leiomyosarcoma is a malignant neoplasm with smooth muscle differentiation. Little is known about its molecular heterogeneity and no targeted therapy currently exists for leiomyosarcoma. Recognition of Show more
Leiomyosarcoma is a malignant neoplasm with smooth muscle differentiation. Little is known about its molecular heterogeneity and no targeted therapy currently exists for leiomyosarcoma. Recognition of different molecular subtypes is necessary to evaluate novel therapeutic options. In a previous study on 51 leiomyosarcomas, we identified three molecular subtypes in leiomyosarcoma. The current study was performed to determine whether the existence of these subtypes could be confirmed in independent cohorts. Ninety-nine cases of leiomyosarcoma were expression profiled with 3'end RNA-Sequencing (3SEQ). Consensus clustering was conducted to determine the optimal number of subtypes. We identified 3 leiomyosarcoma molecular subtypes and confirmed this finding by analyzing publically available data on 82 leiomyosarcoma from The Cancer Genome Atlas (TCGA). We identified two new formalin-fixed, paraffin-embedded tissue-compatible diagnostic immunohistochemical markers; LMOD1 for subtype I leiomyosarcoma and ARL4C for subtype II leiomyosarcoma. A leiomyosarcoma tissue microarray with known clinical outcome was used to show that subtype I leiomyosarcoma is associated with good outcome in extrauterine leiomyosarcoma while subtype II leiomyosarcoma is associated with poor prognosis in both uterine and extrauterine leiomyosarcoma. The leiomyosarcoma subtypes showed significant differences in expression levels for genes for which novel targeted therapies are being developed, suggesting that leiomyosarcoma subtypes may respond differentially to these targeted therapies. We confirm the existence of 3 molecular subtypes in leiomyosarcoma using two independent datasets and show that the different molecular subtypes are associated with distinct clinical outcomes. The findings offer an opportunity for treating leiomyosarcoma in a subtype-specific targeted approach. Show less
📄 PDF DOI: 10.1158/1078-0432.CCR-14-3141
LMOD1
Chinedu U Nworu, Robert Kraft, Daniel C Schnurr +2 more · 2015 · Journal of cell science · added 2026-04-24
Precise regulation of thin filament length is essential for optimal force generation during muscle contraction. The thin filament capping protein tropomodulin (Tmod) contributes to thin filament lengt Show more
Precise regulation of thin filament length is essential for optimal force generation during muscle contraction. The thin filament capping protein tropomodulin (Tmod) contributes to thin filament length uniformity by regulating elongation and depolymerization at thin filament ends. The leiomodins (Lmod1-3) are structurally related to Tmod1-4 and also localize to actin filament pointed ends, but in vitro biochemical studies indicate that Lmods act instead as robust nucleators. Here, we examined the roles of Tmod4 and Lmod3 during Xenopus skeletal myofibrillogenesis. Loss of Tmod4 or Lmod3 resulted in severe disruption of sarcomere assembly and impaired embryonic movement. Remarkably, when Tmod4-deficient embryos were supplemented with additional Lmod3, and Lmod3-deficient embryos were supplemented with additional Tmod4, sarcomere assembly was rescued and embryonic locomotion improved. These results demonstrate for the first time that appropriate levels of both Tmod4 and Lmod3 are required for embryonic myofibrillogenesis and, unexpectedly, both proteins can function redundantly during in vivo skeletal muscle thin filament assembly. Furthermore, these studies demonstrate the value of Xenopus for the analysis of contractile protein function during de novo myofibril assembly. Show less
no PDF DOI: 10.1242/jcs.152702
LMOD1
Xiaochun Long, Sarah L Cowan, Joseph M Miano · 2013 · Arteriosclerosis, thrombosis, and vascular biology · added 2026-04-24
Several studies have shown through chemical inhibitors that p38 mitogen-activated protein kinase (MAPK) promotes vascular smooth muscle cell (VSMC) differentiation. Here, we evaluate the effects of kn Show more
Several studies have shown through chemical inhibitors that p38 mitogen-activated protein kinase (MAPK) promotes vascular smooth muscle cell (VSMC) differentiation. Here, we evaluate the effects of knocking down a dominant p38MAPK isoform on VSMC differentiation. Knockdown of p38MAPKα (MAPK14) in human coronary artery SMCs unexpectedly increases VSMC differentiation genes, such as miR145, ACTA2, CNN1, LMOD1, and TAGLN, with little change in the expression of serum response factor (SRF) and 2 SRF cofactors, myocardin (MYOCD) and myocardin-related transcription factor A (MKL1). A variety of chemical and biological inhibitors demonstrate a critical role for a RhoA-MKL1-SRF-dependent pathway in mediating these effects. MAPK14 knockdown promotes MKL1 nuclear localization and VSMC marker expression, an effect partially reversed with Y27632; in contrast, MAP2K6 (MKK6) blocks MKL1 nuclear import and VSMC marker expression. Immunostaining and Western blotting of injured mouse carotid arteries reveal elevated MAPK14 (both total and phosphorylated) and reduced VSMC marker expression. Reduced MAPK14 expression evokes unanticipated increases in VSMC contractile genes, suggesting an unrecognized negative regulatory role for MAPK14 signaling in VSMC differentiation. Show less
no PDF DOI: 10.1161/ATVBAHA.112.300645
LMOD1
Vivek Nanda, Joseph M Miano · 2012 · The Journal of biological chemistry · American Society for Biochemistry and Molecular Biology · added 2026-04-24
Smooth muscle cell (SMC) differentiation is defined largely by a number of cell-restricted genes governed directly by the serum response factor (SRF)/myocardin (MYOCD) transcriptional switch. Here, we Show more
Smooth muscle cell (SMC) differentiation is defined largely by a number of cell-restricted genes governed directly by the serum response factor (SRF)/myocardin (MYOCD) transcriptional switch. Here, we describe a new SRF/MYOCD-dependent, SMC-restricted gene known as Leiomodin 1 (Lmod1). Conventional and quantitative RT-PCRs indicate that Lmod1 mRNA expression is enriched in SMC-containing tissues of the mouse, whereas its two paralogs, Lmod2 and Lmod3, exhibit abundant expression in skeletal and cardiac muscle with very low levels in SMC-containing tissues. Western blotting and immunostaining of various adult and embryonic mouse tissues further confirm SMC-specific expression of the LMOD1 protein. Comparative genomic analysis of the human LMOD1 and LMOD2 genes with their respective mouse and rat orthologs shows high conservation between the three exons and several noncoding sequences, including the immediate 5' promoter region. Two conserved CArG boxes are present in both the LMOD1 and LMOD2 promoter regions, although LMOD1 displays much higher promoter activity and is more responsive to SRF/MYOCD stimulation. Gel shift assays demonstrate clear binding between SRF and the two CArG boxes in human LMOD1. Although the CArG boxes in LMOD1 and LMOD2 are similar, only LMOD1 displays SRF or MYOCD-dependent activation. Transgenic mouse studies reveal wild type LMOD1 promoter activity in cardiac and vascular SMC. Such activity is abolished upon mutation of both CArG boxes. Collectively, these data demonstrate that Lmod1 is a new SMC-restricted SRF/MYOCD target gene. Show less
no PDF DOI: 10.1074/jbc.M111.302224
LMOD1
Heejei Yoon, Dong Jin Lee, Myoung Hee Kim +1 more · 2011 · Anatomy & cell biology · added 2026-04-24
The inner ear is composed of a cochlear duct and five vestibular organs in which mechanosensory hair cells play critical roles in receiving and relaying sound and balance signals to the brain. To iden Show more
The inner ear is composed of a cochlear duct and five vestibular organs in which mechanosensory hair cells play critical roles in receiving and relaying sound and balance signals to the brain. To identify novel genes associated with hair cell differentiation or function, we analyzed an archived gene expression dataset from embryonic mouse inner ear tissues. Since atonal homolog 1a (Atoh1) is a well known factor required for hair cell differentiation, we searched for genes expressed in a similar pattern with Atoh1 during inner ear development. The list from our analysis includes many genes previously reported to be involved in hair cell differentiation such as Myo6, Tecta, Myo7a, Cdh23, Atp6v1b1, and Gfi1. In addition, we identified many other genes that have not been associated with hair cell differentiation, including Tekt2, Spag6, Smpx, Lmod1, Myh7b, Kif9, Ttyh1, Scn11a and Cnga2. We examined expression patterns of some of the newly identified genes using real-time polymerase chain reaction and in situ hybridization. For example, Smpx and Tekt2, which are regulators for cytoskeletal dynamics, were shown specifically expressed in the hair cells, suggesting a possible role in hair cell differentiation or function. Here, by reanalyzing archived genetic profiling data, we identified a list of novel genes possibly involved in hair cell differentiation. Show less
📄 PDF DOI: 10.5115/acb.2011.44.1.69
LMOD1
Pei Liu, Shaohua Liu, Hongshun Qi +3 more · 2009 · Oral oncology · Elsevier · added 2026-04-24
Adenoid cystic carcinoma (ACC) is a slow growing but highly invasive cancer with a high recurrence rate. Id (inhibitor of DNA binding) proteins are dominant regulators of basic helix-loop-helix transc Show more
Adenoid cystic carcinoma (ACC) is a slow growing but highly invasive cancer with a high recurrence rate. Id (inhibitor of DNA binding) proteins are dominant regulators of basic helix-loop-helix transcription factors that control malignant cell behavior in many different tissues. This study aimed to identify the potential role of inhibiting DNA binding-1 (Id-1) in human salivary adenoid cystic carcinoma (SACC) progression. First, we compared the Id-1 protein expression in a human salivary adenoid cystic carcinoma cell line (ACCM) against three other cell lines and found that Id-1 protein expression in ACCM to be significantly higher. Then we measured Id-1 mRNA and protein expression in ACCM before and after RNA interference (RNAi), which showed successful inhibition of Id-1. Further studies then demonstrated that the proliferation and invasiveness of ACCM cells were dramatically down-regulated, and increased numbers of apoptotic cells were detected after Id-1 silencing. Consequently, our data suggest that Id-1 is a potential target in the treatment of human salivary adenoid cystic carcinoma. Show less
no PDF DOI: 10.1016/j.oraloncology.2008.12.008
LMOD1
Chong-zhi Zhou, Guo-qiang Qiu, Xiao-liang Wang +8 more · 2008 · Chinese medical journal · added 2026-04-24
As a model for both multistep and multipathway carcinogenesis, colorectal neoplastic progression provides paradigms for researching both oncogenes and tumor suppressor genes (TSGs). However, the mecha Show more
As a model for both multistep and multipathway carcinogenesis, colorectal neoplastic progression provides paradigms for researching both oncogenes and tumor suppressor genes (TSGs). However, the mechanism of colorectal cancer (CRC) is not completely understood, and many genes may be involved in the colorectal carcinogenesis. The purpose of this study was to screen for the potential TSGs on chromosome 1q31.1-32.1 in Chinese patients with sporadic colorectal cancer, to explore whether colorectal cancer in the Chinese population has unique genetic alterations and determine whether other putative TSGs exist and contribute to colon carcinogenesis. Six polymorphic microsatellite markers, at a density of approximately one marker in every 1.6 cM, were chosen for refined loss of heterozygosity (LOH) mapping of 1q31.1-32.1. Eighty-three colorectal cancer patients' tumor and normal DNA were analyzed via polymerase chain reaction (PCR) for these microsatellite markers. PCR products were eletrophoresed on an ABI 377 DNA sequencer. Genescan 3.1 and Genotype 2.1 software were used for LOH scanning and analysis. On the basis of refined LOH mapping results, we undertook a microarray-based expression screening to identify tumor association genes in 19 of the CRC cases. The average LOH frequency of 1q31.1-32.1 was 24.41%, with the highest frequency of 36.73% (18/49) at D1S2622, and the lowest of 16.42% (11/67) at D1S412. A minimal region of frequent deletion was located within a 2 cM genomic segment at D1S413-D1S2622. There was no significant association between LOH of any marker in the studied regions and the clinicopathological data (patient sex, age, tumor size, growth pattern, or Dukes stage). On the basis of refined mapping results, we chose 25 genes located in the D1S413-D1S2622 (1q31.3-32.1) region and presented a microarray-based high throughput screening approach in 19 sporadic CRC cases to identify candidate CRC related tumor suppressor genes. This study found 4 significantly down-expressed genes, including CSRP1, LMOD1, PPP1R12B and CFHL3. There was no significant association between expression levels of CFHL3, CSRP1, LMOD1, PPP1R12B and the clinicopathological data. By database searching, CSRP1 was hypothesized to be a colorectal cancer related tumor suppressor gene. Through detailed deletion mapping, we found that the 1q31.3-32.1 region might harbor one or more colorectal cancer related tumor suppressor gene (s). And by microarray-based high-throughput screening of candidate genes located in this region and by subsequent database searching, we present the first evidence that CSRP1 might be involved in the progression of CRC. Show less
no PDF
LMOD1
Alla S Kostyukova · 2007 · Archives of biochemistry and biophysics · Elsevier · added 2026-04-24
Leiomodins are larger homologs of tropomodulin, a tropomyosin-binding, actin-capping protein. There are several leiomodin isoforms, one of them found in smooth muscles (Lmod1) and another one found in Show more
Leiomodins are larger homologs of tropomodulin, a tropomyosin-binding, actin-capping protein. There are several leiomodin isoforms, one of them found in smooth muscles (Lmod1) and another one found in cardiac and skeletal muscles (Lmod2). In this work, the tropomyosin-binding abilities of these two isoforms were studied. The tropomyosin-binding sites were localized in the N-terminal regions of Lmod1 and Lmod2. The affinities of the leiomodin fragments containing the tropomyosin-binding sites for tropomyosin peptides containing N-termini of different tropomyosin isoforms, alpha, gamma and delta, were determined and compared using non-denaturing gel-electrophoresis and circular dichroism. It was shown that leiomodin/tropomyosin binding is isoform-specific and differs almost 100-fold for different tropomyosin isoforms. Show less
no PDF DOI: 10.1016/j.abb.2007.05.012
LMOD1
P Hrdá, I Sterzl, S Vána +3 more · 2007 · Casopis lekaru ceskych · added 2026-04-24
Endocrine ophthalmopathy is a chronic eye disease, characterized by inflammation in parabulbar and retrobulbar space, occurring usually in Graves' thyrotoxicosis. Although the pathogenesis of the dise Show more
Endocrine ophthalmopathy is a chronic eye disease, characterized by inflammation in parabulbar and retrobulbar space, occurring usually in Graves' thyrotoxicosis. Although the pathogenesis of the disease has not been clarified until now, it is accepted that this disease is of an autoimmune nature, where the targets of the autoimmune reaction are the antigens shared by thyroid and orbit-tissue. The autoantibodies against recombinant 1D protein are highly specific and sensitive for the diagnosis of endocrine orbitopathy. The aim of our study was to establish, whether the autoantibodies against 1D protein are found predominantly in patients with clinically expressed endocrine orbitopathy. We evaluated in 30 patients with clinically expressed endocrine orbitopathy the thickness of the three retrobulbar eye muscles, damaged by endocrine orbitopathy, determined the parameters of thyroid hormones and anti-TSH receptor autoantibodies. In all patients the detection of circulating autoantibodies against recombinant 1D protein was performed. Autoantibodies against recombinant 1D protein were found in all patients with clinically expressed endocrine orbitopathy. Immunoreactivity did not depend on the duration or severity of the eye disease, neither on patients' age. We did not find any correlation between the thickness of eye muscles and the titre of anti-TSH receptor autoantibodies, levels of ssTSH and free thyroxine and also any correlation between the thickness of eye muscles and the disease duration. Show less
no PDF
LMOD1
C A Conley, K L Fritz-Six, A Almenar-Queralt +1 more · 2001 · Genomics · added 2026-04-24
The 64-kDa autoantigen D1 or 1D, first identified as a potential autoantigen in Graves' disease, is similar to the tropomodulin (Tmod) family of actin filament pointed end-capping proteins. A novel ge Show more
The 64-kDa autoantigen D1 or 1D, first identified as a potential autoantigen in Graves' disease, is similar to the tropomodulin (Tmod) family of actin filament pointed end-capping proteins. A novel gene with significant similarity to the 64-kDa human autoantigen D1 has been cloned from both humans and mice, and the genomic sequences of both genes have been identified. These genes form a subfamily closely related to the Tmods and are here named the Leiomodins (Lmods). Both Lmod genes display a conserved intron-exon structure, as do three Tmod genes, but the intron-exon structure of the Lmods and the Tmods is divergent. mRNA expression analysis indicates that the gene formerly known as the 64-kDa autoantigen D1 is most highly expressed in a variety of human tissues that contain smooth muscle, earning it the name smooth muscle Leiomodin (SM-Lmod; HGMW-approved symbol LMOD1). Transcripts encoding the novel Lmod gene are present exclusively in fetal and adult heart and adult skeletal muscle, and it is here named cardiac Leiomodin (C-Lmod; HGMW-approved symbol LMOD2). Human C-Lmod is located near the hypertrophic cardiomyopathy locus CMH6 on human chromosome 7q3, potentially implicating it in this disease. Our data demonstrate that the Lmods are evolutionarily related and display tissue-specific patterns of expression distinct from, but overlapping with, the expression of Tmod isoforms. Show less
no PDF DOI: 10.1006/geno.2000.6501
LMOD1
C A Conley, V M Fowler · 1999 · Current eye research · added 2026-04-24
To evaluate the tissue-specific expression pattern of the 64kD human autoantigen D1, a tropomodulin-related protein that may be involved in thyroid-associated ophthalmopathy. Recombinant 64kD human au Show more
To evaluate the tissue-specific expression pattern of the 64kD human autoantigen D1, a tropomodulin-related protein that may be involved in thyroid-associated ophthalmopathy. Recombinant 64kD human autoantigen D1 was generated in a bacterial expression system and used to immunize rabbits. Specific antibodies were affinity-purified and used for Western blots on normal and hyperthyroid rat and rabbit tissue, and immunofluorescence localization on cryosections of rat tissue. Anti-64kD human autoantigen D1 antibodies recognize specifically a approximately 70kD polypeptide in western blots of extraocular muscle, sternothyroid muscle, and smooth muscle. Immunofluorescence staining demonstrates that the 64kD human autoantigen D1 localizes to myofibrils in slow fibers from rat extraocular and sternothyroid muscle. The level of this protein is not altered in extraocular muscles from hyperthyroid rabbits. The 64kD human autoantigen D1 is expressed in slow fibers of extraocular and sternothyroid muscles as a component of myofibrils, and is not upregulated in conditions of hyperthyroidism. Show less
no PDF DOI: 10.1076/ceyr.19.4.313.5304
LMOD1
A Kromminga, C Hagel, R Arndt +1 more · 1998 · The Journal of clinical endocrinology and metabolism · added 2026-04-24
Thyroid-associated ophthalmopathy (TAO) is a potentially severe autoimmune disease, in and around the orbit, usually accompanied by Graves' disease. It was the goal of this study to develop a serologi Show more
Thyroid-associated ophthalmopathy (TAO) is a potentially severe autoimmune disease, in and around the orbit, usually accompanied by Graves' disease. It was the goal of this study to develop a serological indicator for TAO and to characterize its expression in human thyroid and eye muscle tissue. Thus, we have recloned the full-length 1D-complementary DNA and assessed its expression levels in 90 healthy and diseased human thyroids. Only Graves' patients suffering from TAO (n = 29) displayed a significant, 2.1-fold increase of 1D expression levels (P = 0.029), compared with normal controls (n = 9), as assessed using the Mann-Whitney U-test for paired, nonnormally distributed samples. In contrast, a decrease of 1D expression (to 40% of control normal values) was confined to thyroid autonomy (n = 19, P = 0.032). In all other diseased human thyroids, including Graves' thyroids from patients not suffering from clinically overt TAO (n = 9), 1D expression levels were not different from the healthy controls. 1D gene expression was demonstrated in both healthy (n = 10) and diseased (n = 10) eye muscle tissues. Furthermore, a recombinant protein derived from baculovirus-infected Sf9 insect cells was purified under both nondenaturing and denaturing conditions. While under nondenaturing conditions, the molecular mass of recombinant 1D was determined to be 85 kDa; denaturing isolation yielded the expected 64-kDa protein. Autoantibodies against denatured 1D protein were not detectable in sera of diseased or healthy subjects. Immunoreactivity against the 85-kDa, nondenatured protein, evaluated in a panel of 222 different human sera, showed that 82% of Graves' patients suffering from TAO had autoantibodies against recombinant 1D, whereas only 5% of the healthy controls were positive for antibodies against 1D. Taken together, our results demonstrate a high disease sensitivity and specificity of recombinant, nondenatured 1D, to distinguish Graves' disease with or without TAO from other forms of thyroid and/or eye disease. Prospective studies will have to show whether autoantibodies against 1D can also be used as a prognosticator of TAO. Show less
no PDF DOI: 10.1210/jcem.83.8.5018
LMOD1
J Kiljanski, C Stolarski, A Barsouk +2 more · 1996 · Journal of endocrinological investigation · Springer · added 2026-04-24
We have studied a possible role of T cell sensitization to eye muscle antigens in patients with thyroid-associated ophthalmology (TAO). Peripheral blood mononuclear cell (PBMC) proliferation in respon Show more
We have studied a possible role of T cell sensitization to eye muscle antigens in patients with thyroid-associated ophthalmology (TAO). Peripheral blood mononuclear cell (PBMC) proliferation in response to crude porcine orbital tissue antigens, partially purified porcine eye muscle membrane proteins and predicted epitopic fragments of the recombinant 64 kDa protein 1D, was determined in patients with TAO and thyroid autoimmunity without eye disease. When membrane and cytosol fractions were used as antigen PBMC from 43% of patients with TAO but only 12.5% of normal subjects were responsive to a crude orbital connective tissue membrane fraction, although this difference was not significant. We were unable to demonstrate specific recognition of partially purified eye muscle membrane fractions; although most of the fractions tested were occasionally recognized by T cells from patients with ophthalmopathy, this was also the case for patients with autoimmune thyroid disease without ophthalmopathy and normal subjects. We did not clearly identify epitopic sequences within the 1D protein, most of the predicted peptides tested being recognized not only by T cells from a small proportion of patients with TAO, but also by those from some patients with autoimmune thyroid disease without ophthalmopathy and normal subjects. It is noteworthy however that approximately 22% of TAO patients, but no normal subjects, were positive to one or more of three peptides, suggesting that reactivity to the 1D protein may play a role in the pathogenesis of the eye disorder in some patients with TAO. The inconsistent and generally low T cell responses to crude and purified antigens noted in a few patients with TAO could be explained by low numbers of specifically sensitized lymphocytes in peripheral blood. Show less
no PDF DOI: 10.1007/BF03347864
LMOD1