scholarly journals Adult Height in Patients with Permanent Growth Hormone Deficiency with and without Multiple Pituitary Hormone Deficiencies

2006 ◽  
Vol 91 (8) ◽  
pp. 2900-2905 ◽  
Author(s):  
Mohamad Maghnie ◽  
Linda Ambrosini ◽  
Marco Cappa ◽  
Gabriella Pozzobon ◽  
Lucia Ghizzoni ◽  
...  

Abstract Context: It has been reported that patients with multiple pituitary hormone deficiencies (MPHDs) achieve a greater final height, compared with patients with isolated GH deficiency (IGHD). However, the outcome of patients with permanent GH deficiency (GHD) has not yet been reported. Objectives: The objectives of the study were to evaluate and compare adult height data and the effect of spontaneous or induced puberty after long-term treatment with GH in young adults with either permanent IGHD or MPHD. Design and Setting: This was a retrospective multicenter study conducted in university research hospitals and a tertiary referral endocrine unit. Patients and Methods: Thirty-nine patients with IGHD (26 males, 13 females) and 49 with MPHD (31 males, 18 females), diagnosed at a median age of 7.7 and 6.9 yr, respectively, were reevaluated for GH secretion after adult height achievement (median age 17.6 and 19.8 yr). The diagnosis of permanent GHD was based on peak GH levels less than 3 μg/liter after an insulin tolerance test or peak GH levels less than 5 μg/liter after two different tests. Fifteen subjects had idiopathic GHD and seventy-three had magnetic resonance imaging evidence of congenital hypothalamic-pituitary abnormalities. Height sd score (SDS) was analyzed at diagnosis, the onset of puberty (either spontaneous or induced), and the time of GH withdrawal. Results: The subjects with IGHD entered puberty at a median age of 12.6 yr (females) and 13.4 yr (males). Puberty was induced at a median age of 13.5 and 14.0 yr, respectively, in males and females with MPHD. Median height SDS at the beginning of puberty was similar in the IGHD and MPHD subjects. Total pubertal height gain was similar between patients with IGHD or MPHD. Median adult height was also not significantly different between IGHD and MPHD patients (males, 168.5 vs. 170.3 cm; females, 160.0 vs. 157.3 cm). The adult height SDS of the IGHD subjects was positively correlated with height at the time of diagnosis and with total pubertal height gain. Conversely, the adult height SDS of the MPHD subjects was positively correlated with both the duration of GH treatment and height SDS at the time of GHD diagnosis. Conclusions: Adult height in patients with permanent IGHD and spontaneous puberty is similar to adult height in patients with MPHD and induced puberty.

2020 ◽  
Vol 11 ◽  
pp. 204201882094337
Author(s):  
Paolo Beck-Peccoz ◽  
Charlotte Höybye ◽  
Robert D Murray ◽  
Suat Simsek ◽  
Markus Zabransky ◽  
...  

Background: To assess the safety (particularly the occurrence of malignancies) of growth hormone (GH) replacement (Omnitrope®) in adults with GH deficiency, using data from the ongoing PATRO Adults post-marketing surveillance study. Methods: PATRO Adults is being conducted in hospitals and specialized endocrinology clinics across Europe. All enrolled patients who receive ⩾1 dose of Omnitrope® are included in the safety population. Malignancies are listed as adverse events under the MedDRA System Organ Class ‘neoplasms, benign, malignant and unspecified (including cysts and polyps)’. Results: As of July 2018, 1293 patients had been enrolled in the study and 983 (76.0%) remained active in the study. Approximately half [ n = 637 (49.3%)] of the patients were GH treatment-naïve on study entry. The majority of enrolled patients had multiple pituitary hormone deficiency ( n = 1128, 87.2%). A total of 41 on-study malignancies were reported in 33 patients (2.6%; incidence rate 7.94 per 1000 patient-years). The most common cancers were basal cell carcinoma ( n = 13), prostate ( n = 6), breast, kidney and malignant melanoma (each n = 3). Treatment with Omnitrope® was discontinued following diagnosis of malignancy in 16 patients. The tumors occurred after a mean of 79.4 months of recombinant hormone GH (rhGH) treatment overall. Conclusion: Based on this snapshot of data from PATRO Adults, Omnitrope® treatment is tolerated in adult patients with GH deficiency in a real-life clinical practice setting. Our results do not generally support a carcinogenic effect of rhGH in adults with GH deficiency, although an increased risk of second new malignancies in patients with previous cancer cannot be excluded based on the current dataset.


1992 ◽  
Vol 127 (5) ◽  
pp. 392-396 ◽  
Author(s):  
Jürgen R Bierich ◽  
Klaus Nolte ◽  
Konrad Drews ◽  
Gerd Brügmann

During recent years numerous reports on the favourable results of short-term trials with GH in patients with constitutional delay of growth and adolescence (CDGA) have been published, but it has been unclear whether such treatment affects final height. In the present study, the results of long-term therapy with GH in replacement doses have been evaluated in 15 patients who were treated with GH for several years (three years on average). At the start of treatment, 10 of the children were prepubertal and 5 were in puberty. All patients were followed up until final height was reached. Mean final height of the 13 male patients was 170.0±4.4 cm, i.e. −1.58 sds. In the two female patients, final height was 150.0 cm (−3.5 sds) and 164.0cm (−0.8 sds), respectively. Adult height of the patients lagged behind target height by 5.4±3.2 cm (mean±sd), Measured adult height corresponded to adult height as predicted prior to treatment. In conclusion, GH treatment of patients with CDGA did not increase final height.


2021 ◽  
Vol 12 ◽  
Author(s):  
Saartje Straetemans ◽  
Raoul Rooman ◽  
Jean De Schepper

ObjectiveThe first year response to growth hormone (GH) treatment is related to the total height gain in GH treated children, but an individual poor first year response is a weak predictor of a poor total GH effect in GH deficient (GHD) children. We investigated whether an underwhelming growth response after 2 years might be a better predictor of poor adult height (AH) outcome after GH treatment in GHD children.Design and methodsHeight data of GHD children treated with GH for at least 4 consecutive years of which at least two prepubertal and who attained (near) (n)AH were retrieved from the Belgian Register for GH treated children (n = 110, 63% boys). In ROC analyses, the change in height (ΔHt) SDS after the first and second GH treatment years were tested as predictors of poor AH outcome defined as: (1) nAH SDS <−2.0, or (2) nAH SDS minus mid-parental height SDS <−1.3, or (3) total ΔHt SDS <1.0. The cut-offs for ΔHt SDS and its sensitivity at a 95% specificity level to detect poor AH outcome were determined.ResultsEleven percent of the cohort had a total ΔHt SDS <1.0. ROC curve testing of first and second years ΔHt SDS as a predictor for total ΔHt SDS <1.0 had an AUC >70%. First-year ΔHt SDS <0.41 correctly identified 42% of the patients with poor AH outcome at a 95% specificity level, resulting in respectively 5/12 (4.6%) correctly identified poor final responders and 5/98 (4.5%) misclassified good final responders (ratio 1.0). ΔHt SDS after 2 prepubertal years had a cut-off level of 0.65 and a sensitivity of 50% at a 95% specificity level, resulting in respectively 6/12 (5.5%) correctly identified poor final responders and 5/98 (4.5%) misclassified good final responders (ratio 1.2).ConclusionIn GHD children the growth response after 2 prepubertal years of GH treatment did not meaningfully improve the prediction of poor AH outcome after GH treatment compared to first-year growth response parameters. Therefore, the decision to re-evaluate the diagnosis or adapt the GH dose in case of poor response after 1 year should not be postponed for another year.


2010 ◽  
Vol 6 (2) ◽  
pp. 45
Author(s):  
Torben Laursen ◽  

In patients with hypopituitarism, growth hormone (GH) deficiency is almost always present. Lack of other pituitary hormones may require prompt replacement, but lack of GH is also associated with several abnormalities, which can be improved by GH treatment. The aberrations include low bone mass and increased risk of fractures, abnormal body composition, e.g. increased fat mass and reduced lean body mass resulting in reduced muscle mass and strength. Decreased exercise capacity may be influenced by impaired cardiac performance and heat intolerance. Increased abdominal fat results in metabolic disturbancies, such as reduced insulin sensitivity and hyperlipidaemia, increasing the risk of cardiovascular diseases. Patients with hypopituitarism replaced with relevant hormones except GH have increased mortality due to cardiovascular diseases and increased morbidity. Thus, it is important to diagnose GH deficiency, which requires precise diagnostic criteria and methods. Dynamic testing of GH secretion with an insulin tolerance test or arginine plus GH-releasing hormone can be used.


2000 ◽  
pp. 549-556 ◽  
Author(s):  
GI Baroncelli ◽  
S Bertelloni ◽  
C Ceccarelli ◽  
D Cupelli ◽  
G Saggese

OBJECTIVE: To examine the dynamics of bone turnover in children with growth hormone deficiency (GHD) during long-term treatment. DESIGN: We longitudinally measured growth velocity and serum concentrations of osteocalcin (OC), carboxyterminal propeptide of type I procollagen (PICP), and cross-linked carboxyterminal telopeptide of type I collagen (ICTP) in 24 patients with GHD during long-term GH treatment until final height (age: 7.7+/-0.7 and 16.9+/-0.5 years at baseline and at final height respectively). RESULTS: At baseline, OC, PICP, and ICTP levels were significantly (P<0.0001) reduced in comparison with prepubertal bone age-matched controls (10.2+/-2.3 microgram/l and 22.5+/-7.6 microgram/l; 187.8+/-26.2 microgram/l and 328. 4+/-74.3 microgram/l; 7.7+/-2.0 microgram/l and 14.2+/-1.3 microgram/l respectively). During the first year of treatment mean levels of the bone markers increased significantly (P<0.0001) with a peak at 12 months. After the first year of treatment, OC and PICP levels progressively declined, whereas ICTP levels remained stable until the final height; in any case, bone marker levels remained significantly higher (P<0.03-P<0.0001) than baseline. The change in bone marker levels at 6 and 12 months of treatment with respect to the baseline values was not related to growth rate during long-term treatment or final height. CONCLUSIONS: The results show that children with GHD have reduced bone turnover at baseline, and that long-term GH treatment is associated with a stimulation of bone turnover. OC, PICP, and ICTP do not predict growth rate during long-term treatment or final height in children with GHD.


2004 ◽  
pp. S61-S65 ◽  
Author(s):  
MO Savage ◽  
WM Drake ◽  
PV Carroll ◽  
JP Monson

While the benefits of growth hormone (GH) therapy in adult hypopituitary patients with GH deficiency (GHD) are established, the role of continued GH therapy after final height in adolescent GH-deficient patients remains unclear. Preliminary data suggest that cessation of GH on completion of linear growth may be associated with impairment of somatic development and adverse changes in body composition. For the present time, the decision whether to continue GH treatment in adolescent patients with GHD is best made on an individual basis. For such patients, continuity of care is crucial. Children and adults with GHD are usually managed by physicians in separate departments, who may focus on different aspects of treatment and care. Close collaboration between paediatric and adult physicians is essential to ensure smooth transition and to minimize the drop-out rate from follow-up. Given the previous period of treatment during childhood, paediatric physicians should be best placed to discuss the potential benefits of continuing GH therapy and instigate retesting of GH secretion. Many children with isolated idiopathic GHD will produce normal GH responses if retested at adult height. Patients with multiple pituitary hormone deficits are more likely to have ongoing GHD, as are patients who have received CNS irradiation. Quality of life does not appear to be decreased in adolescents with GHD who stop treatment, so achievement of satisfactory bone mass is a major determinant of the decision whether to continue therapy.


2019 ◽  
Vol 64 (6) ◽  
pp. 402-411
Author(s):  
Elena V. Nagaeva ◽  
Tatiana Y. Shiryaeva ◽  
Valentina A. Peterkova ◽  
Olga B. Bezlepkina ◽  
Anatoly N. Tiulpakov ◽  
...  

The materials of the National Consensus reflect the modern domestic and international experience on this issue. Before conducting a specialized endocrinological examination of a short child, all other causes of short stature should be excluded: severe somatic diseases in a state of decompensation that can affect growth velocity, congenital systemic skeletal diseases, syndromic short stature (all girls with growth retardation require a mandatory study of karyotype, depending on the presence or absence of phenotypic signs of Turner syndrome), endocrine diseases in decompensation. A specialized examination of the state of GH-IGF-I axis is carried out when the proportionally folded child has pronounced short stature: if the child’s height is < –2.0 SDS, if the difference between the child’s height SDS and child’s midparental height SDS exceeds 1.5 SDS and/or a low growth velocity. The consensus reflects clear criteria for the diagnosis of GH-deficiency, central hypothyroidism, central hypocorticosolism, central hypogonadism, diabetes insipidus, hypoprolactinemia, and also the criteria for their compensation. The dose of somatropin with GH-deficiency in children and adolescents is 0.025–0.033 mg/kg/day. With total somatotropic insufficiency, especially in young children, it is advisable to start therapy with somatropin from lower doses: 25–50% of the substitution, gradually increasing it within 3–6 months to optimal. In children with a growth deficit when entering puberty, the dose may be increased to 0.045–0.05 mg/kg/day. With the development of side effects, the dose of somatropin can be reduced (by 30–50%), or temporarily canceled (depending on the severity of the clinical picture) until the complete disappearance of undesirable symptoms. With swelling of the optic nerve, treatment is temporarily stopped until the picture of the fundus of the eye fully normalizes. If therapy has been temporarily discontinued, treatment is resumed in smaller doses (50% of the initial) with a gradual (within 1–3 months) return to the optimum. GH treatment at pediatric doses not continue beyond attainment of a growth velocity below 2–2.5 cm/year, closure of the epiphyseal growth zones, or earlier, when: the achievement of genetically predicted height, but not more than 170 cm in girls, 180 cm in boys, the patient’s desire and his parents / legal representatives satisfied with the achieved result of the final height. Re-evaluation of the somatotropic axis is carried out after reaching the adult height, after 1–3 months GH therapy will be discontinued. Patients with isolated GH-deficiency or patients with 1 (besides GH) pituitary hormone deficiencies in the presence of a normal IGF-1 level (against the background of somatropin withdrawal) and not having molecular genetic confirmation of the diagnosis need re- evaluation. Patients with two or more (besides GH) pituitary hormone deficiencies, acquired hypothalamic-pituitary lesions due to operations on the pituitary and irradiation of the hypothalamic-pituitary area (if the IGF-1 level is low against somatropin withdrawal), specific pituitary/ hypothalamic structural defect on MRI, gene defects of the GH-IGF-I system do not need re- evaluation. If GH deficiency is confirmed, treatment with somatropin is resumed at metabolic doses of 0.01—0.003 mg/kg/day under the control of the IGF-I level in the blood (measurement 1 time in 6 months), the indicator should not exceed the upper limit of the reference value for the corresponding age and floor.


2017 ◽  
Vol 177 (3) ◽  
pp. 267-276 ◽  
Author(s):  
Juliane Léger ◽  
Damir Mohamed ◽  
Sophie Dos Santos ◽  
Myriam Ben Azoun ◽  
Delphine Zénaty ◽  
...  

ContextRegular monitoring of serum IGF-I levels during growth hormone (GH) therapy has been recommended, for assessing treatment compliance and safety.ObjectiveTo investigate serum IGF-I SDS levels during GH treatment in children with GH deficiency, and to identify potential determinants of these levels.Design, patients and methodsThis observational cohort study included all patients (n = 308) with childhood-onset non-acquired or acquired GH deficiency (GHD) included in the database of a single academic pediatric care center over a period of 10 years for whom at least one serum IGF-I SDS determination during GH treatment was available. These determinations had to have been carried out centrally, with the same immunoradiometric assay. Serum IGF-I SDS levels were determined as a function of sex, age and pubertal stage, according to our published normative data.ResultsOver a median of 4.0 (2–5.8) years of GH treatment per patient, 995 serum IGF-I SDS determinations were recorded. In addition to BMI SDS, height SDS and GH dose (P < 0.01), etiological group (P < 0.01) had a significant effect on serum IGF-I SDS levels, with patients suffering from acquired GHD having higher serum IGF-I SDS levels than those with non-acquired GHD, whereas sex, age, pubertal stage, treatment duration, hormonal status (isolated GHD (IGHD) vs multiple pituitary hormone deficiency (MPHD)) and initial severity of GHD, had no effect.ConclusionsThese original findings have important clinical implications for long-term management and highlight the need for careful and appropriate monitoring of serum IGF-I SDS and GH dose, particularly in patients with acquired GHD, to prevent the unnecessary impact of potential comorbid conditions.


2019 ◽  
Vol 91 (6) ◽  
pp. 373-379 ◽  
Author(s):  
Jung Min Ahn ◽  
Jung Hwan Suh ◽  
Ah Reum Kwon ◽  
Hyun Wook Chae ◽  
Ho-Seong Kim

Aims: This study aimed to evaluate final adult height (AH) after recombinant human growth hormone (GH) treatment of girls with Turner syndrome (TS) and to elucidate the predicting factors for their growth response. Methods: We enrolled 73 patients with TS who underwent GH treatment and reached AH and 14 patients who did not undergo treatment. To assess the effectiveness of GH therapy, we evaluated final AH, height gain over the predicted AH, and height gain over the projected AH. In addition, to analyze the factors affecting final AH, we studied correlations between final AH (or height SDS, height gain) and treatment variables. Results: GH therapy was started at a mean age of 8.87 ± 3.73 years, and the treatment duration was 6.47 ± 3.02 years. The patients in the treated group reached a final AH of 152.03 ± 4.66 cm (final AH SDS for the general population: –1.93 ± 1.03) with a gain over projected AH at the start of treatment of 12.21 ± 4.33 cm. The untreated control subjects had a final AH of 143.57 ± 4.06 cm with a gain over projected AH at the first visit of 3.89 ± 3.80 cm. Final AH and AH SDS were positively correlated to height SDS at the start of treatment. Thirty-five patients out of the 73 GH-treated patients (47.9%) attained to a normal range of height for Korean girls. The patients having attained to a normal height range after GH treatment had shown a higher height SDS at the start of GH treatment, a higher mid-parental height SDS, and a younger age at initiation of estrogen. Conclusions: Our findings demonstrate that GH treatment at an early age is effective in improving the final height SDS and height SDS gain in TS patients. Therefore, GH administration at an early age is important for final height gain.


2003 ◽  
Vol 88 (12) ◽  
pp. 5784-5789 ◽  
Author(s):  
Martin Lange ◽  
Ulla Feldt-Rasmussen ◽  
Ole Lander Svendsen ◽  
Knud William Kastrup ◽  
Anders Juul ◽  
...  

Abstract The aim was to reevaluate a group of adults treated for idiopathic childhood onset GH deficiency (GHD) after 18 yr without GH treatment. Twenty-six (11 females) patients participated. All but two had isolated GHD. Childhood diagnosis was established by insulin tolerance test (ITT). The patients were retested with an ITT to evaluate adult GH status. In five patients, an arginine and a synacthen test were performed instead of an ITT. Eleven of 25 patients had a subnormal cortisol response to ITT or synacthen. Ten patients had a GH peak less than 3.0 μg/liter (0.5. ± 0.5 μg/liter), whereas 16 patients displayed a normal GH response (12.3 ± 10.6 μg/liter) after ITT. IGF-I values were decreased in the patients with a pathological retest as well as in patients with a normal GH response compared with controls (P &lt; 0.005). In 26 idiopathic childhood onset GHD patients, 44% of the patients had developed adrenal insufficiency; 38.5% had persistent GHD in adulthood, using the same test in both childhood and adulthood. Patients having a normal GH test had decreased IGF-I levels, compared with controls, indicating impaired function of a seemingly normal GH axis. It is imperative that pituitary axes other than the GH axis are tested at regular intervals, even in the absence of GHD in adulthood.


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