AI Summary & Key Takeaways
AI InsightConclusion: Acoustic radiation force impulse imaging is a non-invasive and cost-effective, promising adjunct modality that enablesobjective quantitative measurement, which may contribute to the diagnosis of malignant cervical masses.
📌 3 Key Takeaways
Abstract
Aim: To investigate the diagnostic value of acoustic radiation force impulse imaging in the detection of cervical cancer, and toassess the contribution of this imaging method in distinguishing histological subtypes of cervical carcinoma. Materials and Methods: Twenty four patients with malignant cervical mass and 25 healthy volunteers were included in this prospectivestudy. Ultrasonographic evaluation were performed using a 3.5–6-MHz convex abdominal transducer and adequate software forperforming elastographic examinations in quantitative acoustic radiation force impulse mode (Virtual Touch Quantification®). Everyexamination consisted of at least three independent shear wave velocity measurements. The mean shear wave velocity values werecalculated, and used for statistical analysis. Postoperative pathology results of the lesions were used as the reference standard. Results: The mean shear wave velocity values were calculated as 2.79±1.03 m/s in cervical carcinomas, and as 1.86±0.62 m/s incontrol group. The mean shear wave velocity value of cervical carcinomas was significantly higher than the control group (p=0.003).The mean shear wave velocity values in squamous carcinoma, adenocarcinoma, and adenosquamous carcinoma subtypes werecalculated as 2.78±0.93 m/s, 3.16±1.46 m/s, and 1.90±0.21 m/s, respectively. There were no significant differences between cervicalcarcinoma subtypes in terms of their shear wave velocity values (p=0.247). Conclusion: Acoustic radiation force impulse imaging is a non-invasive and cost-effective, promising adjunct modality that enablesobjective quantitative measurement, which may contribute to the diagnosis of malignant cervical masses.