Gene/Protein Disease Symptom Drug Enzyme Compound
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Query: UMLS:C0015695 (fatty liver)
 13,941 document(s) hit in 31,850,051 MEDLINE articles (0.00 seconds)

Alcohol-induced diseases of the liver, such as fatty liver, hepatitis and cirrhosis with the potential development of hepato-cellular carcinoma can cause many effects on the skin. Even though they are not caused by excessive alcohol alone, but also by other diseases of the liver or other diseases of internal organs, an experienced person will be able to carry out specific diagnostic procedures. Skin symptoms due to liver diseases include 1. Vascular changes, such as spider nevi, teleangiectasias and palmar erythema. 2. Nail changes, particularly white nails. 3. Changes of the mucous membranes, i.e. glossy tongue. 4. Changes due to altered hormones, particularly gyneco-mastia, female distribution of hair and testicular atrophy and 5. Changes in the color of the skin like icterus and melanosis cutis. Rarely pruritus and other diseases of the skin are seen, such as porphyria cutanea tarda, which is often caused by an altered liver function. In the final stages of alcoholism, the neglect of personal hygiene particularly of the skin is evident (cutis vagantium). Since the exact mechanism of the skin symptoms remains obscure, it is difficult to evaluate the significance. Most often they do not correlate with the severity of the liver disease.
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PMID:[Skin manifestations of alcoholic liver damage]. 1080 82

When specimens of the newt Triturus carnifex, under anaesthesia by submersion in a 0.2% chlorbutol solution for 25 min, are isolated in a respiratory chamber at 18 degrees C containing water with only 1.3 ppm of oxygen, they consume the oxygen completely in about 3 hr, but they can stay alive for many more hours and wake up with no apparent exterior consequences. Hypoxia induces rapid onset of hepatic steatosis and melanosis, as well as a controlled haemolytic process involving a pool of red blood cells of the same order of size as that held as a reserve in the spleen by animals in an aerial habitat. At the origin of the phenomena is an intense response by the hypophysis, histologically detectable 1 hr from the onset of treatment and confirmed 2 hr later by a highly significant increase in the plasma thyroidstimulating hormone (TSH) concentration compared with the controls (41.5 +/- 13.7 microU/L vs. 15.5 +/- 6.2; P < 0.005). The thyroid follicles react by reabsorbing their colloid, but instead of an increase in the plasma free T3 and T4 concentrations, fT3 falls significantly (1.5 +/- 0.3 pg/mL vs., the 2.4 +/- 0.7; P < 0.05), whereas fT4 remains stationary (4.0 +/- 0.5 pg/mL vs. 4.6 +/- 0.8; N.S.). After 6 hr, the plasmatic TSH concentration is still higher than in the controls (27.0 +/- 3.0 microU/L vs. 15.5 +/- 6.2; P < 0.05), whereas fT3 and fT4 remain stable (1.5 +/- 0.3 and 4.4 +/- 0.5 pg/mL, respectively). If T3 or T4 labelled with 125I is administered prior to hypoxia, after 6 hr of treatment the radioactivity is found to be limited exclusively to the liver and kidney; the thyroid, gall bladder and gut result negative, and this does not agree with hypotheses of hormone inactivation by deiodination, sulphation or glucuronidation. This apparently peculiar endocrine path has not been observed in previous studies on hypoxia in vertebrates, because the experiments were always designed to analyse plasma hormone levels after at least 24 hr of hypoxia or during chronic treatments, losing the most interesting phases of the endocrine response. The possibility that the hypoxic newt possesses alternative or complementary metabolic pathways to anaerobic glycolysis to sustain steatogenesis and melanogenesis and maintain the same cardiac activity as the controls is briefly discussed.
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PMID:Thyroid and hypoxic stress in the newt Triturus carnifex. 1643 85