Robotic surgery training for urology residents and fellows can provide structured exposure to robotic systems, operating room workflow, simulation, laboratory exercises and contemporary robotic urologic procedures.
Training should be adapted to the participant’s stage of education, previous minimally invasive surgery experience, bedside assistance experience, technical skills and future career goals.
This guide explains how residents and fellows can begin or expand their robotic surgery education and how simulation, dry lab training, clinical observerships and procedure-specific programs can contribute to progressive development.
Early structured exposure can establish a foundation for later supervised clinical development.
Eligibility depends on training format. Advanced tissue-based programs may require prior simulation, dry lab or console experience.
Residents and fellows at different stages should not necessarily follow the same curriculum.
Simulation and introductory dry lab are generally appropriate.
May progress toward more technical and clinical-context education.
May benefit from a focused pathway aligned with subspecialty.
Transferable technical skills should be developed progressively through structured and repeatable exercises.
Practise console skills without involving patients.
Use physical materials and models for repeatable practice.
For suitably prepared trainees using ex vivo biological tissue or approved tissue models.
Advanced format subject to ethical, institutional, veterinary and eligibility requirements.
Understand robotic surgery in real clinical practice without operating on patients.
Bedside assistance is an important component of robotic surgery education.
International training or observership participation does not itself authorize the final clinical stage.
Training may focus on a procedure aligned with the participant’s clinical interests.
Educational activities may include:
Educational activities may include:
Educational activities may include:
Potential training areas include:
Potential training areas include:
May cover system configuration, port placement, triangulation, docking, camera control, fourth-arm use, retraction, instrument exchange, team communication and procedure-specific workflow.
Single-Port differs in access, port configuration, instrument deployment, internal triangulation, camera positioning, retraction, confined-space work, procedure selection and OR workflow.
Previous Multiport experience can be useful but does not replace Single-Port-specific education.
The appropriate duration depends on the participant’s experience and objectives.
System orientation, ergonomics, camera navigation, instrument control, basic simulation, needle handling and introductory suturing.
Simulation, dry lab, bimanual coordination, needle handling, suturing, knot tying, procedure-specific tasks, faculty feedback and selected observation.
Simulation, dry lab, synthetic models, selected wet tissue, observation, case discussions, procedure-specific education and platform exposure.
Scheduled simulation/lab activities plus observership, different procedures, preoperative discussions, OR workflow, postoperative review and faculty meetings.
For selected trainees seeking broader exposure through scheduled technical training, clinical observation, case discussions, procedure-specific education, platform exposure and faculty review.
Progress should be based on technical quality and safe performance rather than speed alone.
Participation in simulation, laboratory training, courses or an international observership does not provide authorization to operate on patients.
A letter from the applicant’s current institution may be required for selected programs.
Confirm the program before making non-refundable travel arrangements.
Selected programs may provide a certificate of participation or attendance documenting program title, dates, format, attendance and selected activities.
It does not usually represent independent surgical competence, clinical privileges, medical licensing, specialist recognition or completion of an accredited fellowship.
Residents and fellows should retain personal training records, simulator results and faculty feedback where available.
Programs may combine simulation, dry lab exercises, tissue-based training, clinical observation and procedure-specific education.
Training can be planned according to your current stage, previous experience, preferred robotic platform and professional objectives.
Tell us about your residency or fellowship, current training level, previous robotic experience, procedures of interest and available dates.
Our team will review your application and help identify a potential educational pathway based on your background and available training activities.
Program content, faculty, robotic platforms, simulator access, laboratory activities and clinical observation are subject to availability and applicable institutional requirements. Participation does not provide clinical privileges, authorization to operate on patients or certification of independent surgical competence.