Gene/Protein Disease Symptom Drug Enzyme Compound
Pivot Concepts:   Target Concepts:
Query: EC:1.1.1.1 (alcohol dehydrogenase)
9,284 document(s) hit in 31,850,051 MEDLINE articles (0.00 seconds)

A retrospective study analyzing etiological, clinical and hormonal aspects in a population of 45 patients (14 males and 31 females) with permanent hypogonadism was performed, the most important findings were: 1) The most common cause of hypogonadism was gonadal failure (60% of all patients). This included-twenty-three females and four males. Eighteen patients had XO, two XY and two more XX gonadal dysgenesis. In the remaining cases, three patients had bilateral agonadism and two had testicular atrophy secondary to radiochemotherapy. 2) Eighteen patients had hypogonadotropic hypogonadism (40% of the cases). Ten were males and eight females. Eleven patients had gonadotropin deficiency associated with other pituitary dysfunctions. Deficiency of GH was found in all cases. TSH in ten, ACTH in nine and ADH in five. An increase in prolactin was observed in seven patients. The etiology of the hypopituitarism was intracranial tumors in five cases, idiopathic in three, perinatal hypoxemia in two and hypoplastic pituitary in one. In the remaining seven cases, isolated gonadotropin deficiency was found. Four cases were idiopathic, two cases had demyelinating diseases and one beta-thalassaemia. 3) Mean levels of testosterone were 4.20 +/- 6.5 (0, 20) pg/ml. Meal levels of estradiol of the total group, gonadal failure patients and those with hypogonadotropic hypogonadism were 8.51 +/- 14.7 (0, 50), 9 +/- 16 (0, 50) and 7.12 +/- 10.98 (0, 29) pg/ml, respectively. 4) Mean basal levels of LH and FSH in patients with gonadal failure were 35.57 +/- 60.66 (5, 320) and 53.19 +/- 53.92 (4, 230) mUi/ml, respectively. In hypogonadotropic hypogonadism patients, mean basal and peak levels of LH were 0.98 +/- 1.24 (0, 5) and 3.45 +/- 3.94 (0, 12) mUi/ml, respectively. Mean basal and peak levels of FSH after LHRH stimulation were 1.43 +/- 1.88 (0, 6) and 3.85 +/- 4.85 (0, 17) mUi/ml, respectively.
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PMID:[Etiological, clinical and hormonal characteristics of a group of patients with permanent hypogonadism]. 929 97

Dyslipidemia and obesity are common in adult patients with hypopituitarism. Possible contributions of age, sex and hormone deficiencies to hypercholesterolemia and obesity in adult hypopituitary patients were analyzed in 1, 272 Japanese cases based on a database of a national survey on adult hypopituitarism. In patients on routine hormone replacement therapy, 30.5% of male and 40.7% of female subjects were considered hypercholesterolemic. In univariate analysis, hypercholesterolemia was more prevalent in female, aged, untreated Gn-deficient and TSH-deficient groups. In multivariate analysis, sex of female, age older than 40 yr and TSH deficiency were the independent contributing factors to hypercholesterolemia. Obesity (body mass index (BMI) > or = 25 kg/m2) was more prevalent in male, TSH-deficient and ADH-deficient groups. Severe obesity (BMI > or = 30) was observed in high prevalence in the youngest group. These findings suggest that hypercholesterolemia and obesity were prevalent in different age and gender groups in Japanese adult patients with hypopituitarism. Insufficient replacement of thyroid hormone and possibly gonadotropin deficiency might contribute to hypercholesterolemia. In contrast, hypothalamic dysfunction as well as hormone deficiencies might play roles in obesity in these patients.
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PMID:Hypercholesterolemia and obesity in adult patients with hypopituitarism: a report of a nation-wide survey in Japan. 1470 49

Cranial irradiation with or without chemotherapy can cause hypothalamic-pituitary dysfunction. Chemotherapy without cranial irradiation has not been thought to cause such deficiency. In order to determine whether chemotherapy without cranial irradiation can lead to hormonal deficiency, we reviewed the medical records of 362 childhood cancer patients who underwent full hypothalamic-pituitary evaluation because of altered growth and development after oncological therapy (1987-2002). Of these, 31 received chemotherapy but no cranial or total body irradiation and had no CNS tumor: 18 had hematological malignancy and 13 had a solid tumor of the torso or extremity. Duration of follow-up was 13.0 +/- 4.1 years (mean +/- SD). Growth hormone deficiency (GHD) was identified in 15 (48%), central hypothyroidism (TSH-D) in 16 (52%), and pubertal abnormalities in 10 (32%). Pubertal abnormalities included precocious puberty in two (6%), gonadal failure in five of 27 who were old enough to assess puberty (19%), and gonadotropin deficiency in three of 27 (11%). GHD and TSH-D were co-existent in eight patients (26%). Overall, 81% (n = 25) had GHD, TSH-D, precocious puberty, and/or gonadotropin deficiency. None had ACTH or ADH deficiency or primary hypothyroidism. Of note, this was not a study of prevalence, but rather an evaluation of clinically referred patients. In conclusion, hypothalamic dysfunction may occur in survivors of non-CNS tumors who receive chemotherapy but do not receive cranial irradiation. We recommend at least annual observation of growth rate and pubertal development of all children treated for pediatric malignancies, with evaluation for GHD, TSH-D, pubertal abnormalities, and other hypothalamic dysfunction in all poorly-growing cancer survivors, even those not treated with cranial irradiation.
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PMID:Hypothalamic dysfunction after chemotherapy. 1496 22