Literature DB >> 11336927

Incorporation and distribution of strontium in bone.

S G Dahl1, P Allain, P J Marie, Y Mauras, G Boivin, P Ammann, Y Tsouderos, P D Delmas, C Christiansen.   

Abstract

The distribution and incorporation of strontium into bone has been examined in rats, monkeys, and humans after oral administration of strontium (either strontium chloride or strontium ranelate). After repeated administration for a sufficient period of time (at least 4 weeks in rats), strontium incorporation into bone reaches a plateau level. This plateau appears to be lower in females than in males due to a difference in the absorption process. Steady-state plasma strontium levels are reached more rapidly than in bones, and within 10 days in the rat. The strontium levels in bone vary according to the anatomical site. However, strontium levels at different skeletal sites are strongly correlated, and the strontium content of the lumbar vertebra may be estimated from iliac crest bone biopsies in monkeys. The strontium levels in bone also vary according to the bone structure and higher amounts of strontium are found in cancellous bone than in cortical bone. Furthermore, at the crystal level, higher concentrations of strontium are observed in newly formed bone than in old bone. After withdrawal of treatment, the bone strontium content rapidly decreases in monkeys. The relatively high clearance rate of strontium from bone can be explained by the mechanisms of its incorporation. Strontium is mainly incorporated by exchange onto the crystal surface. In new bone, only a few strontium atoms may be incorporated into the crystal by ionic substitution of calcium. After treatment withdrawal, strontium exchanged onto the crystal is rapidly eliminated, which leads to a rapid decrease in total bone strontium levels. In summary, incorporation of strontium into bone, mainly by exchange onto the crystal surface, is dependent on the duration of treatment, dose, gender, and skeletal site. Nevertheless, bone strontium content is highly correlated with plasma strontium levels and, in bone, between the different skeletal sites.

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Year:  2001        PMID: 11336927     DOI: 10.1016/s8756-3282(01)00419-7

Source DB:  PubMed          Journal:  Bone        ISSN: 1873-2763            Impact factor:   4.398


  73 in total

Review 1.  Is the calcium receptor a molecular target for the actions of strontium on bone?

Authors:  Edward M Brown
Journal:  Osteoporos Int       Date:  2003-03-12       Impact factor: 4.507

2.  Comparison study of biomimetic strontium-doped calcium phosphate coatings by electrochemical deposition and air plasma spray: morphology, composition and bioactive performance.

Authors:  Ling Li; Xia Lu; Yizhi Meng; Christopher M Weyant
Journal:  J Mater Sci Mater Med       Date:  2012-04-18       Impact factor: 3.896

3.  Effect of strontium ions substitution on gene delivery related properties of calcium phosphate nanoparticles.

Authors:  A Hanifi; M H Fathi; H Mir Mohammad Sadeghi
Journal:  J Mater Sci Mater Med       Date:  2010-07-10       Impact factor: 3.896

4.  Addition of Zn to the ternary Mg-Ca-Sr alloys significantly improves their antibacterial property.

Authors:  Guanping He; Yuanhao Wu; Yu Zhang; Ye Zhu; Yang Liu; Nan Li; Mei Li; Guan Zheng; Baohua He; Qingshui Yin; Yufeng Zheng; Chuanbin Mao
Journal:  J Mater Chem B       Date:  2015-07-27       Impact factor: 6.331

5.  In vitro evaluation of bioactive strontium-based ceramic with rabbit adipose-derived stem cells for bone tissue regeneration.

Authors:  Beena Gopalan Mohan; Sivadasan Suresh Babu; Hari Krishna Varma; Annie John
Journal:  J Mater Sci Mater Med       Date:  2013-08-29       Impact factor: 3.896

6.  25-Hydroxyvitamin D level does not reflect intestinal calcium absorption: an assay using strontium as a surrogate marker.

Authors:  Marília Brasilio Rodrigues Camargo; Tatiane Vilaça; Lilian Fukusima Hayashi; Olguita G Ferreira Rocha; Marise Lazaretti-Castro
Journal:  J Bone Miner Metab       Date:  2014-05-24       Impact factor: 2.626

7.  The in vitro and in vivo performance of a strontium-containing coating on the low-modulus Ti35Nb2Ta3Zr alloy formed by micro-arc oxidation.

Authors:  Wei Liu; Mengqi Cheng; Tuerhongjiang Wahafu; Yaochao Zhao; Hui Qin; Jiaxing Wang; Xianlong Zhang; Liqiang Wang
Journal:  J Mater Sci Mater Med       Date:  2015-07-08       Impact factor: 3.896

8.  Osteoblasts play key roles in the mechanisms of action of strontium ranelate.

Authors:  T C Brennan; M S Rybchyn; W Green; S Atwa; A D Conigrave; R S Mason
Journal:  Br J Pharmacol       Date:  2009-06-25       Impact factor: 8.739

Review 9.  Substituted hydroxyapatite coatings of bone implants.

Authors:  Daniel Arcos; María Vallet-Regí
Journal:  J Mater Chem B       Date:  2020-03-04       Impact factor: 6.331

10.  Controlling the strontium-doping in calcium phosphate microcapsules through yeast-regulated biomimetic mineralization.

Authors:  Miaojun Huang; Tianjie Li; Ting Pan; Naru Zhao; Yongchang Yao; Zhichen Zhai; Jiaan Zhou; Chang Du; Yingjun Wang
Journal:  Regen Biomater       Date:  2016-07-31
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