1) extracorporeal shock wave lithotriptor
体外冲击波碎石机
1.
Fluoroscopy guided percutaneous nephrolithotomy using an extracorporeal shock wave lithotriptor in the treatment of upper urinary tract calculi;
体外冲击波碎石机下经皮肾镜治疗上尿路结石
2) Extracorporeal shock wave lithotripsy
体外冲击波碎石
1.
Effect of music therapy on comfort degree of patients undergoing extracorporeal shock wave lithotripsy;
音乐疗法对行体外冲击波碎石患者舒适度的影响
2.
The multivariate logistic regression analysis in patients with extracorporeal shock wave lithotripsy;
影响体外冲击波碎石效果的多因素分析
3.
Extracorporeal shock wave lithotripsy for treatment of urinary tract calculi in children (Report of 62 cases);
体外冲击波碎石治疗儿童尿路结石的疗效观察(附62例报告)
3) Extracorporeal shock-wave lithotripsy
体外冲击波碎石
1.
Objective To evaluate curative effects of extracorporeal shock-wave lithotripsy(ESWL) for treatment of upper urinary tract stones.
目的评价上尿路结石体外冲击波碎石(ESWL)的治疗效果。
4) ESWL
体外冲击波碎石
1.
ESWL with Page Kidney-report of 10 Cases and Paper Review;
体外冲击波碎石后Page肾10例报告并文献复习
2.
Impairment of multiple re-treatment of ESWL on renal function;
多次重复体外冲击波碎石对肾脏的影响
3.
Treatment of solitary renal stone by ESWL with ureteroscopy;
体外冲击波碎石联合输尿管镜治疗孤立肾上尿路结石48例疗效分析
5) Extracorporeal shockwave lithotripsy
体外冲击波碎石
1.
Objective To summarize the experience of locating ureteral calculi by delayed filling of involved ureter from 4h to 48h after intravenous urography (IVU) and carrying out extracorporeal shockwave lithotripsy (ESWL) under X-ray in patients with renal colic.
在解痉治疗的同时 ,延时 4～ 4 8hX光下观察“白肾”及尔后出现的结石以上肾盂输尿管显影 ,明确输尿管结石及梗阻部位 ,立即在体外冲击波碎石机上准确定位碎石。
2.
Objective: To evaluate the clinical results of laparoscopy and ureteroscopy for upper urinary calculi after failed (Extracorporeal Shockwave lithotripsy, ESWL).
目的评价腹腔镜及输尿管镜治疗体外冲击波碎石(ESWL)失败的上尿路结石的疗效。
3.
Objective: To observe the clinical effect of extracorporeal shockwave lithotripsy on 84 cases of complicated renal lithiasis.
结论 :体外冲击波碎石是复杂性肾结石较为安全、有效的理想治疗方法 ,碎石治疗时对不同类型结石所采用的方法应有所区
6) extracorporeal shock wave lithotrite
体外冲击碎石机
补充资料：体外冲击波碎石术
体外冲击波碎石术
extracorporeal sh?ock wave lithotripsy,ESWL
利用高电压、大储能电容通过在水中瞬间放电，产生冲击波，经半椭圆反射体的反射聚焦于半椭圆反射体的第二焦点处(放电处为第一焦点)，能量增大230倍，可将置于该点之结石粉碎。由于冲击波以声学特性传播，在空气中会大大削减其能量，故需在水中进行，又由于对上述波人体与水的阻抗相似，因此，冲击波可经人体各层软组织作用于结石。
说明：补充资料仅用于学习参考，请勿用于其它任何用途。
参考词条