Use of a potent, long acting agonist of gonadotropin-releasing hormone in the treatment of precocious puberty. 1986

P A Boepple, and M J Mansfield, and M E Wierman, and C R Rudlin, and H H Bode, and J F Crigler, and J D Crawford, and W F Crowley

Studies utilizing the administration of GnRH in various GnRH-deficient models have revealed the critical importance of the dose and mode of delivery of this releasing factor in determining the subsequent pituitary response. Chronic administration of long acting GnRH agonists (GnRHa), like continuous infusion of high doses of the native peptide, results in suppression of pituitary gonadotropin secretion. This selective and reversible suppression of gonadotropin secretion suggested several therapeutic applications for these analogs, particularly in the treatment of central precocious puberty (CPP), a disorder for which the previously available therapies lacked uniform efficacy and were associated with potential side effects. In our series, 74 children with CPP have been treated during the last 5 yr with the potent GnRH agonist, [D-Trp6, Pro9-ethylamide(NEt)]GnRH. Having selected a dose and route of administration that produced uniform suppression of spontaneous and stimulated pituitary gonadotropin secretion, GnRHa therapy resulted in a fall of gonadal sex steroid levels into the prepubertal range, a halting or regression of secondary sexual development, and a complete cessation of menses. Growth velocity slowed during therapy, with this slowing more pronounced during prolonged treatment periods and among those patients with more advanced chronological and skeletal ages. Skeletal maturation was retarded to a greater degree than linear growth, with resultant increases in the predictions for adult stature. Moreover, these benefits have been achieved in the absence of significant side effects. Complete reversal of the suppression of gonadarche has followed discontinuation of therapy; however, patterns of growth and skeletal maturation after discontinuation of GnRHa administration remain to be characterized. Thus, the impact of GnRHa therapy on final height must await further longitudinal study. The selective nature of GnRHa suppression of gonadarche also permits an investigation of the natural history of adrenarche and its discrete influences upon skeletal growth and maturation. In addition, GnRHa therapy of CPP provides a unique opportunity to study the effects of gonadal sex steroids on GH secretion and somatomedin-C (Sm-C) generation during sexual maturation. Finally, the detailed characterization of children with precocious puberty has helped to define more precisely a subset of patients whose precocity occurs in the absence of demonstrable gonadotropin secretion.(ABSTRACT TRUNCATED AT 400 WORDS)

UI MeSH Term Description Entries
D007029 Hypothalamic Neoplasms Benign and malignant tumors of the HYPOTHALAMUS. Pilocytic astrocytomas and hamartomas are relatively frequent histologic types. Neoplasms of the hypothalamus frequently originate from adjacent structures, including the OPTIC CHIASM, optic nerve (see OPTIC NERVE NEOPLASMS), and pituitary gland (see PITUITARY NEOPLASMS). Relatively frequent clinical manifestations include visual loss, developmental delay, macrocephaly, and precocious puberty. (From Devita et al., Cancer: Principles and Practice of Oncology, 5th ed, p2051) Hypothalamic Tumors,Hypothalamic-Chiasmatic Neoplasms,Hypothalamic-Pituitary Neoplasms,Benign Hypothalamic Neoplasms,Hypothalamic Cancer,Hypothalamic Neoplasms, Benign,Hypothalamic Neoplasms, Malignant,Hypothalamic Teratomas,Hypothalamo-Neurohypophysial Region Neoplasms,Hypothalamus Neoplasms,Malignant Hypothalamic Neoplasms,Neoplasms, Hypothalamic,Neoplasms, Hypothalamic, Benign,Neoplasms, Hypothalamic, Malignant,Neoplasms, Hypothalamic-Chiasmatic,Neoplasms, Hypothalamic-Pituitary,Neoplasms, Hypothalamo-Neurohypophysial Region,Neoplasms, Hypothalamus,Tumors, Hypothalamus,Benign Hypothalamic Neoplasm,Cancer, Hypothalamic,Cancers, Hypothalamic,Hypothalamic Cancers,Hypothalamic Chiasmatic Neoplasms,Hypothalamic Neoplasm,Hypothalamic Neoplasm, Malignant,Hypothalamic Pituitary Neoplasms,Hypothalamic Teratoma,Hypothalamic Tumor,Hypothalamic-Chiasmatic Neoplasm,Hypothalamic-Pituitary Neoplasm,Hypothalamo Neurohypophysial Region Neoplasms,Hypothalamo-Neurohypophysial Region Neoplasm,Hypothalamus Neoplasm,Hypothalamus Tumor,Hypothalamus Tumors,Malignant Hypothalamic Neoplasm,Neoplasm, Benign Hypothalamic,Neoplasm, Hypothalamic,Neoplasm, Hypothalamic-Chiasmatic,Neoplasm, Hypothalamic-Pituitary,Neoplasm, Hypothalamo-Neurohypophysial Region,Neoplasm, Hypothalamus,Neoplasm, Malignant Hypothalamic,Neoplasms, Hypothalamic Chiasmatic,Neoplasms, Hypothalamic Pituitary,Neoplasms, Hypothalamo Neurohypophysial Region,Neoplasms, Malignant Hypothalamic,Teratoma, Hypothalamic,Teratomas, Hypothalamic,Tumor, Hypothalamic,Tumor, Hypothalamus,Tumors, Hypothalamic
D007334 Insulin-Like Growth Factor I A well-characterized basic peptide believed to be secreted by the liver and to circulate in the blood. It has growth-regulating, insulin-like, and mitogenic activities. This growth factor has a major, but not absolute, dependence on GROWTH HORMONE. It is believed to be mainly active in adults in contrast to INSULIN-LIKE GROWTH FACTOR II, which is a major fetal growth factor. IGF-I,Somatomedin C,IGF-1,IGF-I-SmC,Insulin Like Growth Factor I,Insulin-Like Somatomedin Peptide I,Insulin Like Somatomedin Peptide I
D007986 Luteinizing Hormone A major gonadotropin secreted by the adenohypophysis (PITUITARY GLAND, ANTERIOR). Luteinizing hormone regulates steroid production by the interstitial cells of the TESTIS and the OVARY. The preovulatory LUTEINIZING HORMONE surge in females induces OVULATION, and subsequent LUTEINIZATION of the follicle. LUTEINIZING HORMONE consists of two noncovalently linked subunits, alpha and beta. Within a species, the alpha subunit is common in the three pituitary glycoprotein hormones (TSH, LH and FSH), but the beta subunit is unique and confers its biological specificity. ICSH (Interstitial Cell Stimulating Hormone),Interstitial Cell-Stimulating Hormone,LH (Luteinizing Hormone),Lutropin,Luteoziman,Luteozyman,Hormone, Interstitial Cell-Stimulating,Hormone, Luteinizing,Interstitial Cell Stimulating Hormone
D007987 Gonadotropin-Releasing Hormone A decapeptide that stimulates the synthesis and secretion of both pituitary gonadotropins, LUTEINIZING HORMONE and FOLLICLE STIMULATING HORMONE. GnRH is produced by neurons in the septum PREOPTIC AREA of the HYPOTHALAMUS and released into the pituitary portal blood, leading to stimulation of GONADOTROPHS in the ANTERIOR PITUITARY GLAND. FSH-Releasing Hormone,GnRH,Gonadoliberin,Gonadorelin,LH-FSH Releasing Hormone,LHRH,Luliberin,Luteinizing Hormone-Releasing Hormone,Cystorelin,Dirigestran,Factrel,Gn-RH,Gonadorelin Acetate,Gonadorelin Hydrochloride,Kryptocur,LFRH,LH-RH,LH-Releasing Hormone,LHFSH Releasing Hormone,LHFSHRH,FSH Releasing Hormone,Gonadotropin Releasing Hormone,LH FSH Releasing Hormone,LH Releasing Hormone,Luteinizing Hormone Releasing Hormone,Releasing Hormone, LHFSH
D008297 Male Males
D010906 Pituitary Hormone-Releasing Hormones Peptides, natural or synthetic, that stimulate the release of PITUITARY HORMONES. They were first isolated from the extracts of the HYPOTHALAMUS; MEDIAN EMINENCE; PITUITARY STALK; and NEUROHYPOPHYSIS. In addition, some hypophysiotropic hormones control pituitary cell differentiation, cell proliferation, and hormone synthesis. Some can act on more than one pituitary hormone. Hormones, Pituitary Hormone Releasing,Hypophysiotropic Hormones,Hypothalamic Hypophysiotropic Hormone,Hypothalamic Releasing Factor,Hypothalamic Releasing Hormone,Hypothalamic Releasing Hormones,Hormone, Hypothalamic Hypophysiotropic,Hormones, Hypophysiotropic,Hypophysiotropic Hormone, Hypothalamic,Pituitary Hormone Releasing Hormones,Releasing Hormone, Hypothalamic
D011629 Puberty, Precocious Development of SEXUAL MATURATION in boys and girls at a chronological age that is 2.5 standard deviations below the mean age at onset of PUBERTY in the population. This early maturation of the hypothalamic-pituitary-gonadal axis results in sexual precocity, elevated serum levels of GONADOTROPINS and GONADAL STEROID HORMONES such as ESTRADIOL and TESTOSTERONE. Familial Precocious Puberty,Idiopathic Sexual Precocity,Precocious Puberty,Precocious Puberty, Central,Precocious Puberty, Male Limited,Precocious Puberty, Male-Limited,Pubertas Praecox,Sexual Precocity,Testotoxicosis,Central Precocious Puberties,Central Precocious Puberty,Familial Precocious Puberties,Idiopathic Sexual Precocities,Male-Limited Precocious Puberties,Male-Limited Precocious Puberty,Praecox, Pubertas,Precocious Puberties,Precocious Puberties, Central,Precocious Puberties, Familial,Precocious Puberties, Male-Limited,Precocious Puberty, Familial,Precocities, Idiopathic Sexual,Precocities, Sexual,Precocity, Idiopathic Sexual,Precocity, Sexual,Puberties, Central Precocious,Puberties, Familial Precocious,Puberties, Male-Limited Precocious,Puberties, Precocious,Puberty, Central Precocious,Puberty, Familial Precocious,Puberty, Male-Limited Precocious,Sexual Precocities,Sexual Precocities, Idiopathic,Sexual Precocity, Idiopathic
D001846 Bone Development The growth and development of bones from fetus to adult. It includes two principal mechanisms of bone growth: growth in length of long bones at the epiphyseal cartilages and growth in thickness by depositing new bone (OSTEOGENESIS) with the actions of OSTEOBLASTS and OSTEOCLASTS. Bone Growth
D002648 Child A person 6 to 12 years of age. An individual 2 to 5 years old is CHILD, PRESCHOOL. Children
D002675 Child, Preschool A child between the ages of 2 and 5. Children, Preschool,Preschool Child,Preschool Children

Related Publications

P A Boepple, and M J Mansfield, and M E Wierman, and C R Rudlin, and H H Bode, and J F Crigler, and J D Crawford, and W F Crowley
January 1999, Hormone research,
P A Boepple, and M J Mansfield, and M E Wierman, and C R Rudlin, and H H Bode, and J F Crigler, and J D Crawford, and W F Crowley
March 1998, Acta obstetricia et gynecologica Scandinavica,
P A Boepple, and M J Mansfield, and M E Wierman, and C R Rudlin, and H H Bode, and J F Crigler, and J D Crawford, and W F Crowley
May 2008, Zhejiang da xue xue bao. Yi xue ban = Journal of Zhejiang University. Medical sciences,
P A Boepple, and M J Mansfield, and M E Wierman, and C R Rudlin, and H H Bode, and J F Crigler, and J D Crawford, and W F Crowley
January 1991, Hormone research,
P A Boepple, and M J Mansfield, and M E Wierman, and C R Rudlin, and H H Bode, and J F Crigler, and J D Crawford, and W F Crowley
January 1997, Journal of pediatric endocrinology & metabolism : JPEM,
P A Boepple, and M J Mansfield, and M E Wierman, and C R Rudlin, and H H Bode, and J F Crigler, and J D Crawford, and W F Crowley
January 2020, PloS one,
P A Boepple, and M J Mansfield, and M E Wierman, and C R Rudlin, and H H Bode, and J F Crigler, and J D Crawford, and W F Crowley
August 1995, Fertility and sterility,
P A Boepple, and M J Mansfield, and M E Wierman, and C R Rudlin, and H H Bode, and J F Crigler, and J D Crawford, and W F Crowley
August 2015, The Journal of pediatrics,
P A Boepple, and M J Mansfield, and M E Wierman, and C R Rudlin, and H H Bode, and J F Crigler, and J D Crawford, and W F Crowley
October 2019, Journal of pediatric endocrinology & metabolism : JPEM,
P A Boepple, and M J Mansfield, and M E Wierman, and C R Rudlin, and H H Bode, and J F Crigler, and J D Crawford, and W F Crowley
December 2017, Annals of pediatric endocrinology & metabolism,
Copied contents to your clipboard!