Literature DB >> 29234857

High frequency and wide range of human kidney papillary crystalline plugs.

Léa Huguet1,2, Marine Le Dudal1,2, Marine Livrozet1,2, Dominique Bazin3,4, Vincent Frochot5, Joëlle Perez1,2, Jean-Philippe Haymann1,2,5, Isabelle Brocheriou6, Michel Daudon1,2,5, Emmanuel Letavernier7,8,9,10.   

Abstract

Most of kidney stones are supposed to originate from Randall's plaque at the tip of the papilla or from papillary tubular plugs. Nevertheless, the frequency and the composition of crystalline plugs remain only partly described. The objective was to assess the frequency, the composition and the topography of papillary plugs in human kidneys. A total of 76 papillae from 25 kidneys removed for cancer and without stones were analysed by immunohistochemistry combined with Yasue staining, field emission-scanning electron microscopy and Fourier transformed infrared micro-spectroscopy. Papillary tubular plugs have been observed by Yasue staining in 23/25 patients (92%) and 52/76 papillae (68%). Most of these plugs were made of calcium phosphate, mainly carbonated apatite and amorphous calcium phosphate, and rarely octacalcium phosphate pentahydrate. Calcium and magnesium phosphate (whitlockite) have also been observed. Based upon immunostaining coupled to Yasue coloration, most of calcium phosphate plugs were located in the deepest part of the loop of Henle. Calcium oxalate monohydrate and dihydrate tubular plugs were less frequent and stood in collecting ducts. At last, we observed calcium phosphate plugs deforming and sometimes breaking adjacent collecting ducts. Papillary tubular plugging, which may be considered as a potential first step toward kidney stone formation, is a very frequent setting, even in kidneys of non-stone formers. The variety in their composition and the distal precipitation of calcium oxalate suggest that plugs may occur in various conditions of urine supersaturation. Plugs were sometimes associated with collecting duct deformation.

Entities:  

Keywords:  Calcium; Crystal; Kidney stone; Papilla; Phosphate; Plug

Mesh:

Substances:

Year:  2017        PMID: 29234857     DOI: 10.1007/s00240-017-1031-9

Source DB:  PubMed          Journal:  Urolithiasis        ISSN: 2194-7228            Impact factor:   3.436


  20 in total

1.  Study on the prevalence and incidence of urolithiasis in Germany comparing the years 1979 vs. 2000.

Authors:  A Hesse; E Brändle; D Wilbert; K-U Köhrmann; P Alken
Journal:  Eur Urol       Date:  2003-12       Impact factor: 20.096

2.  Urine calcium and volume predict coverage of renal papilla by Randall's plaque.

Authors:  Ramsay L Kuo; James E Lingeman; Andrew P Evan; Ryan F Paterson; Joan H Parks; Sharon B Bledsoe; Larry C Munch; Fredric L Coe
Journal:  Kidney Int       Date:  2003-12       Impact factor: 10.612

3.  Stone formation and pregnancy: pathophysiological insights gained from morphoconstitutional stone analysis.

Authors:  Paul Meria; Haider Hadjadj; Paul Jungers; Michel Daudon
Journal:  J Urol       Date:  2010-02-20       Impact factor: 7.450

Review 4.  Histological aspects of the "fixed-particle" model of stone formation: animal studies.

Authors:  Saeed R Khan
Journal:  Urolithiasis       Date:  2016-11-28       Impact factor: 3.436

5.  Crystalline phase differentiation in urinary calcium phosphate and magnesium phosphate calculi.

Authors:  L Maurice-Estepa; P Levillain; B Lacour; M Daudon
Journal:  Scand J Urol Nephrol       Date:  1999-10

Review 6.  Role of renal epithelial cells in the initiation of calcium oxalate stones.

Authors:  Saeed R Khan
Journal:  Nephron Exp Nephrol       Date:  2004

Review 7.  Three pathways for human kidney stone formation.

Authors:  Fredric L Coe; Andrew P Evan; Elaine M Worcester; James E Lingeman
Journal:  Urol Res       Date:  2010-04-22

8.  Endoscopic mapping of renal papillae for Randall's plaques in patients with urinary stone disease.

Authors:  R K Low; M L Stoller
Journal:  J Urol       Date:  1997-12       Impact factor: 7.450

9.  Calcium oxalate crystal deposition in kidneys of hypercalciuric mice with disrupted type IIa sodium-phosphate cotransporter.

Authors:  Saeed R Khan; Patricia A Glenton
Journal:  Am J Physiol Renal Physiol       Date:  2008-03-12

10.  Contrasting histopathology and crystal deposits in kidneys of idiopathic stone formers who produce hydroxy apatite, brushite, or calcium oxalate stones.

Authors:  Andrew P Evan; James E Lingeman; Elaine M Worcester; Andre J Sommer; Carrie L Phillips; James C Williams; Fredric L Coe
Journal:  Anat Rec (Hoboken)       Date:  2014-01-30       Impact factor: 2.064

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  2 in total

1.  Claudin-2 deficiency associates with hypercalciuria in mice and human kidney stone disease.

Authors:  Joshua N Curry; Matthew Saurette; Masomeh Askari; Lei Pei; Michael B Filla; Megan R Beggs; Peter Sn Rowe; Timothy Fields; Andre J Sommer; Chizu Tanikawa; Yoichiro Kamatani; Andrew P Evan; Mehdi Totonchi; R Todd Alexander; Koichi Matsuda; Alan Sl Yu
Journal:  J Clin Invest       Date:  2020-04-01       Impact factor: 14.808

2.  Raman chemical imaging, a new tool in kidney stone structure analysis: Case-study and comparison to Fourier Transform Infrared spectroscopy.

Authors:  Vincent Castiglione; Pierre-Yves Sacré; Etienne Cavalier; Philippe Hubert; Romy Gadisseur; Eric Ziemons
Journal:  PLoS One       Date:  2018-08-03       Impact factor: 3.240

  2 in total

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