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New explanation for autosomal dominant high bone mass: Mutation of low-density lipoprotein receptor-related protein 6.常染色体显性遗传性骨量增多症的新解释:载脂蛋白 E 受体相关蛋白 6 基因突变。
Bone. 2019 Oct;127:228-243. doi: 10.1016/j.bone.2019.05.003. Epub 2019 May 11.
3
Skeletal fluorosis in a resettled refugee from Kakuma refugee camp.来自卡库马难民营的一名重新安置难民的骨氟中毒
Lancet. 2019 Jan 19;393(10168):223-225. doi: 10.1016/S0140-6736(18)32842-3.
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Acute skeletal fluorosis in the setting of 1,1-difluoroethane abuse.1,1 - 二氟乙烷滥用情况下的急性骨氟中毒
Clin Toxicol (Phila). 2019 May;57(5):374-375. doi: 10.1080/15563650.2018.1527034. Epub 2018 Nov 17.
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Skeletal Fluorosis Due To Inhalation Abuse of a Difluoroethane-Containing Computer Cleaner.因滥用含二氟乙烷的电脑清洁剂吸入导致的骨氟中毒
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非地方性骨氟中毒:病因及相关继发性甲状旁腺功能亢进(病例报告与文献综述)

Non-endemic skeletal fluorosis: Causes and associated secondary hyperparathyroidism (case report and literature review).

作者信息

Cook Fiona J, Seagrove-Guffey Maighan, Mumm Steven, Veis Deborah J, McAlister William H, Bijanki Vinieth N, Wenkert Deborah, Whyte Michael P

机构信息

Division of Endocrinology, Brody School of Medicine, East Carolina University, Greenville, NC 27834, USA.

Division of Bone and Mineral Diseases, Department of Internal Medicine, Washington University School of Medicine at Barnes-Jewish Hospital, St Louis, MO 63110, USA; Center for Metabolic Bone Disease and Molecular Research, Shriners Hospitals for Children - St. Louis, St. Louis, MO 63110, USA.

出版信息

Bone. 2021 Apr;145:115839. doi: 10.1016/j.bone.2021.115839. Epub 2021 Jan 6.

DOI:10.1016/j.bone.2021.115839
PMID:33418099
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC8142331/
Abstract

Skeletal fluorosis (SF) is endemic primarily in regions with fluoride (F)-contaminated well water, but can reflect other types of chronic F exposure. Calcium (Ca) and vitamin D (D) deficiency can exacerbate SF. A 51-year-old man with years of musculoskeletal pain and opiate use was hypocalcemic with secondary hyperparathyroidism upon manifesting recurrent long bone fractures. He smoked cigarettes, drank large amounts of cola beverage, and consumed little dietary Ca. Then, after 5 months of Ca and D supplementation, serum 25(OH)D was 21 ng/mL (Nl, 30-100), corrected serum Ca had normalized from 7.8 to 9.4 mg/dL (Nl, 8.5-10.1), alkaline phosphatase (ALP) had decreased from 1080 to 539 U/L (Nl, 46-116), yet parathyroid hormone (PTH) had increased from 133 to 327 pg/mL (Nl, 8.7-77.1). Radiographs revealed generalized osteosclerosis and a cystic lesion in a proximal femur. DXA BMD Z-scores were +7.4 and +0.4 at the lumbar spine and "1/3" radius, respectively. Bone scintigraphy showed increased uptake in two ribs, periarticular areas, and proximal left femur at the site of a subsequent atraumatic fracture. Elevated serum collagen type I C-telopeptide 2513 pg/mL (Nl, 87-345) and osteocalcin >300 ng/mL (Nl, 9-38) indicated rapid bone turnover. Negative studies included hepatitis C Ab, prostate-specific antigen, serum and urine electrophoresis, and Ion Torrent mutation analysis for dense or high-turnover skeletal diseases. After discovering markedly elevated F concentrations in his plasma [4.84 mg/L (Nl, 0.02-0.08)] and spot urine [42.6 mg/L (Nl, 0.2-3.2)], a two-year history emerged of "huffing" computer cleaner containing difluoroethane. Non-decalcified histology of a subsequent right femur fracture showed increased osteoblasts and osteoclasts and excessive osteoid. A 24-hour urine collection contained 27 mg/L F (Nl, 0.2-3.2) and <2 mg/dL Ca. Then, 19 months after "huffing" cessation and improved Ca and D intake, yet with persisting bone pain, serum PTH was normal (52 pg/mL) and serum ALP and urine F had decreased to 248 U/L and 3.3 mg/L, respectively. Our experience combined with 15 publications in PubMed concerning unusual causes of non-endemic SF where the F source became known (19 cases in all) revealed: 11 instances from high consumption of black tea and/or F-containing toothpaste, 1 due to geophagia of F-rich soil, and 7 due to "recreational" inhalation of F-containing vapors. Circulating PTH measured in 14 was substantially elevated in 2 (including ours) and mildly increased in 2. The severity of SF in the cases reviewed seemed to reflect cumulative F exposure, renal function, and Ca and D status. Several factors appeared to influence our patient's skeletal disease: i) direct anabolic effects of toxic amounts of F on his skeleton, ii) secondary hyperparathyroidism from degradation-resistant fluorapatite bone crystals and low dietary Ca, and iii) impaired mineralization of excessive osteoid due to hypocalcemia.

摘要

骨氟病(SF)主要流行于饮用氟(F)污染井水的地区,但也可反映其他类型的慢性氟暴露。钙(Ca)和维生素D(D)缺乏会加重骨氟病。一名51岁有多年肌肉骨骼疼痛及使用阿片类药物史的男性,在出现反复长骨骨折时血钙过低并伴有继发性甲状旁腺功能亢进。他吸烟、大量饮用可乐饮料且饮食中钙摄入很少。然后,在补充钙和维生素D 5个月后,血清25(OH)D为21 ng/mL(正常范围,30 - 100),校正后的血清钙从7.8 mg/dL恢复正常至9.4 mg/dL(正常范围,8.5 - 10.1),碱性磷酸酶(ALP)从1080 U/L降至539 U/L(正常范围,46 - 116),然而甲状旁腺激素(PTH)却从133 pg/mL升至327 pg/mL(正常范围,8.7 - 77.1)。X线片显示全身骨质硬化及近端股骨有一个囊性病变。双能X线吸收法(DXA)测量的腰椎和桡骨“1/3”处骨密度Z值分别为 +7.4和 +0.4。骨闪烁显像显示两根肋骨、关节周围区域及左股骨近端在随后无创伤性骨折部位摄取增加。血清I型胶原C末端肽升高至2513 pg/mL(正常范围,87 - 345)及骨钙素>300 ng/mL(正常范围,9 - 38)表明骨转换加快。阴性检查结果包括丙型肝炎抗体、前列腺特异性抗原、血清和尿液电泳以及针对致密性或高转换型骨骼疾病的离子激流突变分析。在发现其血浆[4.84 mg/L(正常范围,0.02 - 0.08)]和随机尿[42.6 mg/L(正常范围,0.2 - 3.2)]中氟浓度显著升高后,了解到他有两年“吸食”含二氟乙烷电脑清洁剂的历史。随后右股骨骨折的未脱钙组织学检查显示成骨细胞和破骨细胞增多以及类骨质过多。24小时尿氟含量为27 mg/L(正常范围,0.2 - 3.2),钙含量<2 mg/dL。然后,在“吸食”停止且钙和维生素D摄入改善19个月后,尽管仍有持续的骨痛,但血清PTH正常(52 pg/mL),血清ALP和尿氟分别降至248 U/L和3.3 mg/L。我们的经验结合PubMed上15篇关于非地方性骨氟病异常病因且已知氟来源的文献(共19例)显示:11例因大量饮用红茶和/或使用含氟牙膏,1例因吞食富氟土壤,7例因“娱乐性”吸入含氟蒸汽。在14例中测量的循环PTH,2例(包括我们的病例)显著升高,2例轻度升高。所回顾病例中骨氟病的严重程度似乎反映了氟的累积暴露、肾功能以及钙和维生素D状态。有几个因素似乎影响了我们这位患者的骨骼疾病:i)有毒剂量的氟对其骨骼的直接合成代谢作用,ii)抗降解的氟磷灰石骨晶体及低饮食钙导致的继发性甲状旁腺功能亢进,以及iii)低钙血症导致过多类骨质矿化受损。