A 26-Year-Old Male with a 14-Year History of Left Intermittent Testicular Torsion Treated with Self-Manual Reduction

Role of ultrasound in manual detorsion for testicular torsion

PURPOSE

Manual detorsion can be performed for testicular torsion before scrotal exploration. Using sonographic findings, this study investigated the need for additional treatments after manual detorsion for testicular torsion.

METHODS

This study evaluated 13 retrospective cases of testicular torsion subjected to manual detorsion. Manual detorsion was classified as failure or success based on residual spermatic cord twist. The following sonographic findings of the affected testis were compared using the Fisher exact test: whirlpool sign, horizontal or altered lie, and hypoperfusion.

RESULTS

Manual detorsion failed in five patients. There was a significant difference in the incidence of the whirlpool sign between the two groups (present/absent sign in the failure vs. success groups: 4/1 vs. 0/8, p = 0.007). Horizontal or altered lie and hypoperfusion in the affected testis were not significantly different between groups (5/0 vs. 3/4, p = 0.07, one case excluded, and 5/0 vs. 4/4, p = 0.10, respectively).

CONCLUSIONS

Ultrasound findings after manual detorsion, particularly, the whirlpool sign, were useful for planning subsequent treatment such as additional manual detorsion or surgical intervention. The testicular axis and the perfusion of the twisted testis may not recover to normal after successful manual detorsion, but if they recover, this procedure could be judged a success.

Diagnostic Accuracy of Ultrasound for the Directionality of Testicular Rotation and the Degree of Spermatic Cord Twist in Pediatric Patients With Testicular Torsion

OBJECTIVES

To evaluate the diagnostic accuracy of ultrasound (US) to diagnose the directionality of testicular rotation and the degree of spermatic cord twist in pediatric patients with testicular torsion.

METHODS

A retrospective review of 14 pediatric patients with testicular torsion was conducted. The directionality of testicular rotation was classified as an inner or outer direction (inner, counterclockwise in the left testis [viewed from below] and clockwise in the right testis; and outer, counterclockwise in the right testis and clockwise in the left testis). The Clopper-Pearson method and the Fisher exact, Mann-Whitney U, and Wilcoxon signed rank sum tests were used for the statistical analyses.

RESULTS

The diagnostic accuracy of US in the directionality of testicular rotation and the degree of spermatic cord twist were 78.6% (11 of 14; 95% confidence interval, 49.2%-95.3%) and 36.4% (4 of 11; 95% confidence interval, 10.9%-69.2%), respectively. Outer rotation was seen in 50.0% of the cases. The directionality of testicular rotation and the degree of spermatic cord twist as determined by US were not significantly different between the patients with salvaged testis and those with testicular loss (inner/outer direction, 4/2 versus 4/4; P = .627; mean twist ± SD, 330.0° ± 73.5° versus 337.5° ± 115.4°; P > .999). There was no significant difference in the degree of spermatic cord twist determined by US and surgical results (343.0° ± 97.1° versus 458.2° ± 168.2°; P = .063).

CONCLUSIONS

The accuracy of US in determining the directionality of testicular rotation was relatively high in our small cohort. This information may be useful for pediatric surgeons and urologists when performing early manual reduction for testicular torsion.