1,152 results on '"Evan, Andrew P."'
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52. In Vitro Assessment of a Novel Dual Probe Ultrasonic Intracorporeal Lithotriptor
53. The Role of Randall’s Plaques in the Pathogenesis of Calcium Stones
54. Ultracal-30 gypsum artificial stones for research on the mechanisms of stone breakage in shock wave lithotripsy
55. Insights on the pathology of kidney stone formation
56. A concerted protocol for the analysis of mineral deposits in biopsied tissue using infrared microanalysis
57. Nephrolithiasis and nephrocalcinosis in rats with small bowel resection
58. Impaired expression of an organic cation transporter, IMPT1, in a knockout mouse model for kidney stone disease
59. Disorders of renal calcium handling, urinary stones, and nephrocalcinosis
60. Detection of Significant Variation in Acoustic Output of an Electromagnetic Lithotriptor
61. Renal Function in Patients With Nephrolithiasis
62. Endoscopic Evidence of Calculus Attachment to Randall’s Plaque
63. Optimising an escalating shockwave amplitude treatment strategy to protect the kidney from injury during shockwave lithotripsy
64. Evaluation of shock wave lithotripsy injury in the pig using a narrow focal zone lithotriptor
65. Effect of shock wave number on renal oxidative stress and inflammation
66. Multimodal imaging reveals a unique autofluorescence signature of Randall’s plaque
67. Discrepancy Between Stone and Tissue Mineral Type in Patients with Idiopathic Uric Acid Stones
68. In Vivo Renal Tubule pH in Stone-Forming Human Kidneys
69. In idiopathic calcium oxalate stone-formers, unattached stones show evidence of having originated as attached stones on Randallʼs plaque
70. Renal functional effects of simultaneous bilateral single-tract percutaneous access in pigs
71. An acoustically matched high pressure chamber for control of cavitation in shock wave lithotripsy: Mechanisms of shock wave damage in vitro
72. Aprt/Opn double knockout mice: Osteopontin is a modifier of kidney stone disease severity
73. Apatite plaque particles in inner medulla of kidneys of calcium oxalate stone formers: Osteopontin localization
74. Shock wave lithotripsy: advances in technology and technique
75. Extracorporeal shock wave lithotripsy at 60 shock waves/min reduces renal injury in a porcine model
76. Localization of renal oxidative stress and inflammatory response after lithotripsy
77. A formal test of the hypothesis that idiopathic calcium oxalate stones grow on Randallʼs plaque
78. Clinical and laboratory characteristics of calcium stone-formers with and without primary hyperparathyroidism
79. Urine pH in renal calcium stone formers who do and do not increase stone phosphate content with time
80. Effect of initial shock wave voltage on shock wave lithotripsy-induced lesion size during step-wise voltage ramping
81. Crystal-associated nephropathy in patients with brushite nephrolithiasis
82. Cavitation detection during shock-wave lithotripsy
83. SHOCK WAVE LITHOTRIPSY OF STONES IMPLANTED IN THE PROXIMAL URETER OF THE PIG
84. STONE FORMATION IS PROPORTIONAL TO PAPILLARY SURFACE COVERAGE BY RANDALL'S PLAQUE
85. OSTEOPONTIN AND TAMM-HORSFALL PROTEIN ARE FUNCTIONALLY SYNERGISTIC IN PREVENTING RENAL CALCIFICATION: 1653
86. IN COMMON CALCIUM OXALATE STONE FORMERS, UNATTACHED STONES SHOW EVIDENCE OF HAVING ORIGINATED AS ATTACHED STONES ON RANDALLʼS PLAQUE: A MICRO CT STUDY: 1715
87. RENAL HEME OXYGENASE-1 UPREGULATION AFTER SHOCK WAVE LITHOTRIPSY: 1645
88. STRUCTURAL CLUES TO EARLY EVENTS IN CALCIUM OXALATE (CaOX) STONE FORMATION. HIGH-RESOLUTION MICRO CT ANALYSIS: 1654
89. RESISTIVE INDEX MEASUREMENTS OF RENAL PERFUSION DURING SWL: 1487
90. CYSTINE UROLITHIASIS CHARACTERIZED BY MICROCOMPUTED TOMOGRAPHY (µCT) IN A KNOCKOUT MOUSE MODEL OF CYSTINURIA TYPE I: 1483
91. TUMOR NECROSIS FACTOR-ALPHA RESPONSE TO SHOCK WAVE LITHOTRIPSY-INDUCED RENAL INJURY: 1485
92. ALLOWING TIME FOR THE KIDNEY TO RESPOND TO A PRIMING DOSE OF SHOCK WAVES IS KEY TO PROTECTION AGAINST ESWL INJURY: 1348
93. Independent assessment of a wide-focus, low-pressure electromagnetic lithotripter: absence of renal bioeffects in the pig
94. Erratum to: Intraluminal measurement of papillary duct urine pH, in vivo: a pilot study in the swine kidney
95. A new animal model of hyperoxaluria and nephrolithiasis in rats with small bowel resection
96. Renal injury during shock wave lithotripsy is significantly reduced by slowing the rate of shock wave delivery
97. Dual-head lithotripsy in synchronous mode: acute effect on renal function and morphology in the pig
98. Reduced renal function and benefits of treatment in cystinuria vs other forms of nephrolithiasis
99. Prevention of Lithotripsy-Induced Renal Injury by Pretreating Kidneys with Low-Energy Shock Waves
100. Kidney Stones: Medical and Surgical Management
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