OBJECTIVE: Three- and four-dimensional transrectal ultrasound transducers are now available from most major ultrasound equipment manufacturers, but currently are incorporated into only one commercial prostate biopsy guidance system. Such transducers offer the benefits of rapid volumetric imaging, but can cause substantial measurement distortion in electromagnetic tracking sensors, which are commonly used to enable 3-D navigation. In this paper, we describe the design, development, and validation of a 3-D-ultrasound-guided transrectal prostate biopsy system that employs high-accuracy optical tracking to localize the ultrasound probe and prostate targets in 3-D physical space. METHODS: The accuracy of the system was validated by evaluating the targeted needle placement error after inserting a biopsy needle to sample planned targets in a phantom using standard 2-D ultrasound guidance versus real-time 3-D guidance provided by the new system. RESULTS: The overall mean needle-segment-to-target distance error was 3.6 ± 4.0 mm and mean needle-to-target distance was 3.2 ± 2.4 mm. CONCLUSION: A significant increase in needle placement accuracy was observed when using the 3-D guidance system compared with visual targeting of invisible (virtual) lesions using a standard B-mode ultrasound-guided biopsy technique.
OBJECTIVE: Three- and four-dimensional transrectal ultrasound transducers are now available from most major ultrasound equipment manufacturers, but currently are incorporated into only one commercial prostate biopsy guidance system. Such transducers offer the benefits of rapid volumetric imaging, but can cause substantial measurement distortion in electromagnetic tracking sensors, which are commonly used to enable 3-D navigation. In this paper, we describe the design, development, and validation of a 3-D-ultrasound-guided transrectal prostate biopsy system that employs high-accuracy optical tracking to localize the ultrasound probe and prostate targets in 3-D physical space. METHODS: The accuracy of the system was validated by evaluating the targeted needle placement error after inserting a biopsy needle to sample planned targets in a phantom using standard 2-D ultrasound guidance versus real-time 3-D guidance provided by the new system. RESULTS: The overall mean needle-segment-to-target distance error was 3.6 ± 4.0 mm and mean needle-to-target distance was 3.2 ± 2.4 mm. CONCLUSION: A significant increase in needle placement accuracy was observed when using the 3-D guidance system compared with visual targeting of invisible (virtual) lesions using a standard B-mode ultrasound-guided biopsy technique.
Authors: M Minhaj Siddiqui; Soroush Rais-Bahrami; Baris Turkbey; Arvin K George; Jason Rothwax; Nabeel Shakir; Chinonyerem Okoro; Dima Raskolnikov; Howard L Parnes; W Marston Linehan; Maria J Merino; Richard M Simon; Peter L Choyke; Bradford J Wood; Peter A Pinto Journal: JAMA Date: 2015-01-27 Impact factor: 56.272
Authors: Peter A Pinto; Paul H Chung; Ardeshir R Rastinehad; Angelo A Baccala; Jochen Kruecker; Compton J Benjamin; Sheng Xu; Pingkun Yan; Samuel Kadoury; Celene Chua; Julia K Locklin; Baris Turkbey; Joanna H Shih; Stacey P Gates; Carey Buckner; Gennady Bratslavsky; W Marston Linehan; Neil D Glossop; Peter L Choyke; Bradford J Wood Journal: J Urol Date: 2011-08-17 Impact factor: 7.450
Authors: Jennifer K Logan; Soroush Rais-Bahrami; Baris Turkbey; Andrew Gomella; Hayet Amalou; Peter L Choyke; Bradford J Wood; Peter A Pinto Journal: BJU Int Date: 2014-05-22 Impact factor: 5.588
Authors: Teresa Marsden; Neil McCartan; Louise Brown; Manuel Rodriguez-Justo; Tom Syer; Giorgio Brembilla; Mieke Van Hemelrijck; Ton Coolen; Gerhardt Attard; Shonit Punwani; Caroline M Moore; Hashim U Ahmed; Mark Emberton Journal: PLoS One Date: 2022-02-24 Impact factor: 3.240