Literature DB >> 30184053

Effects of Leptin on the Skeleton.

Ian R Reid1,2, Paul A Baldock3, Jillian Cornish1.   

Abstract

Leptin originates in adipocytes, including those in bone marrow, and circulates in concentrations 20 to 90 times higher than those in the cerebrospinal fluid. It has direct anabolic effects on osteoblasts and chondrocytes, but it also influences bone indirectly, via the hypothalamus and sympathetic nervous system, via changes in body weight, and via effects on the production of other hormones (e.g., pituitary). Leptin's role in bone physiology is determined by the balance of these conflicting effects. Reflecting this inconsistency, the leptin-deficient mouse has reduced length and bone mineral content of long bones but increased vertebral trabecular bone. A consistent bone phenotype in human leptin deficiency has not been established. Systemic leptin administration in animals and humans usually exerts a positive effect on bone mass, and leptin administration into the cerebral ventricles usually normalizes the bone phenotype in leptin-deficient mice. Reflecting the role of the sympathetic nervous system in mediating the central catabolic effects of leptin on the skeleton, β-adrenergic agonists and antagonists have major effects on bone in mice, but this is not consistently seen in humans. The balance of the central and peripheral effects of leptin on bone remains an area of substantial controversy and might vary between species and according to other factors such as body weight, baseline circulating leptin levels, and the presence of specific pathologies. In humans, leptin is likely to contribute to the positive relationship observed between adiposity and bone density, which allows the skeleton to respond appropriately to changes in soft tissue mass.

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Year:  2018        PMID: 30184053     DOI: 10.1210/er.2017-00226

Source DB:  PubMed          Journal:  Endocr Rev        ISSN: 0163-769X            Impact factor:   19.871


  40 in total

1.  ΔFosB Requires Galanin, but not Leptin, to Increase Bone Mass via the Hypothalamus, but both are needed to increase Energy expenditure.

Authors:  Anna Idelevich; Kazusa Sato; Kenichi Nagano; Glenn Rowe; Francesca Gori; Roland Baron
Journal:  J Bone Miner Res       Date:  2019-07-30       Impact factor: 6.741

2.  Leptin Concentrations in Non-Obese and Obese Non-Diabetes Nigerian-Africans.

Authors:  Obiageli Uzoamaka Agbogu-Ike; Dimie Ogoina; Geoffrey Chukwubuike Onyemelukwe
Journal:  Diabetes Metab Syndr Obes       Date:  2021-12-21       Impact factor: 3.168

3.  Association between obesity and ossification of spinal ligaments in 622 asymptomatic subjects: a cross-sectional study.

Authors:  Tsutomu Endo; Masahiko Takahata; Yoshinao Koike; Ryo Fujita; Ryota Suzuki; Yuichiro Hisada; Yuichi Hasegawa; Hisataka Suzuki; Katsuhisa Yamada; Akira Iwata; Hideki Sudo; Daisuke Yoneoka; Norimasa Iwasaki
Journal:  J Bone Miner Metab       Date:  2022-01-16       Impact factor: 2.626

4.  Association between metabolic syndrome and osteoporosis among adults aged 50 years and older: using the National Health Information Database in South Korea.

Authors:  Sang Youl Rhee; Dong Keon Yon; Mi Jung Kwon; Ji Hee Kim; Joo-Hee Kim; Woo Jin Bang; Jung Woo Lee; Bong-Cheol Kwon; Hyo Geun Choi; Chanyang Min
Journal:  Arch Osteoporos       Date:  2022-09-16       Impact factor: 2.879

5.  Leptin Potentiates BMP9-Induced Osteogenic Differentiation of Mesenchymal Stem Cells Through the Activation of JAK/STAT Signaling.

Authors:  Bo Zhang; Lijuan Yang; Zongyue Zeng; Yixiao Feng; Xi Wang; Xiaoxing Wu; Huaxiu Luo; Jing Zhang; Meng Zhang; Mikhail Pakvasa; William Wagstaff; Fang He; Yukun Mao; Kevin Qin; Huimin Ding; Yongtao Zhang; Changchun Niu; Meng Wu; Xia Zhao; Hao Wang; Linjuan Huang; Dayao Shi; Qing Liu; Na Ni; Kai Fu; Aravind Athiviraham; Jennifer Moriatis Wolf; Michael J Lee; Kelly Hynes; Jason Strelzow; Mostafa El Dafrawy; Yayi Xia; Tong-Chuan He
Journal:  Stem Cells Dev       Date:  2020-03-09       Impact factor: 3.272

6.  Decrease in leptin mediates rat bone metabolism impairments during high-fat diet-induced catch-up growth by modulating the OPG/RANKL balance.

Authors:  Xiaoling Liu; Yuzhen Liang; Ning Xia; Weiming Liu; Qiong Yang; Caimei Wang
Journal:  3 Biotech       Date:  2021-01-30       Impact factor: 2.406

7.  Effect of Leptin Deficiency on the Skeletal Response to Hindlimb Unloading in Adult Male Mice.

Authors:  Jessica A Keune; Adam J Branscum; Carmen P Wong; Urszula T Iwaniec; Russell T Turner
Journal:  Sci Rep       Date:  2019-06-27       Impact factor: 4.379

Review 8.  Role of Leptin in Non-Alcoholic Fatty Liver Disease.

Authors:  Carlos Jiménez-Cortegana; Alba García-Galey; Malika Tami; Pilar Del Pino; Isabel Carmona; Soledad López; Gonzalo Alba; Víctor Sánchez-Margalet
Journal:  Biomedicines       Date:  2021-06-30

9.  Weight loss since early adulthood, later life risk of fracture hospitalizations, and bone mineral density: a prospective cohort study of 0.5 million Chinese adults.

Authors:  Zewei Shen; Canqing Yu; Yu Guo; Zheng Bian; Yuxia Wei; Huaidong Du; Ling Yang; Yiping Chen; Yulian Gao; Xukui Zhang; Junshi Chen; Zhengming Chen; Jun Lv; Liming Li
Journal:  Arch Osteoporos       Date:  2020-04-19       Impact factor: 2.617

Review 10.  The Bones of Children With Obesity.

Authors:  Danilo Fintini; Stefano Cianfarani; Marta Cofini; Angela Andreoletti; Grazia Maria Ubertini; Marco Cappa; Melania Manco
Journal:  Front Endocrinol (Lausanne)       Date:  2020-04-24       Impact factor: 5.555

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