- info@roboticurologyacademy.com
- Istanbul Turkiye
Structured education in robot-assisted nephron-sparing surgery — from renal imaging and tumor assessment to vascular control, excision, collecting system repair, renorrhaphy and hemostasis.
Depending on the scheduled format, the course may include lectures, surgical videos, case discussions, simulation, synthetic kidney models, dry lab exercises and selected tissue-based training.
Typical scheduled duration
Beginner • Intermediate • Advanced
Transperitoneal • Retroperitoneal
Multiport • Single-Port
A robotic partial nephrectomy course is a procedure-specific educational program addressing the clinical, anatomical and technical principles of robotic nephron-sparing surgery.
The curriculum may cover the complete pathway from patient selection and imaging review through OR setup, renal exposure, hilar dissection, ultrasound, vascular control, tumor excision, collecting system repair, renorrhaphy, hemostasis and postoperative management.
Introductory courses may not require previous robotic partial nephrectomy experience. Advanced practical courses may require previous simulation, dry lab, bedside assistance or console experience.
Interpret renal imaging, tumor complexity, vascular anatomy and collecting-system relationships.
Choose approach, position, port strategy, exposure, hilar control and excision method.
Repair collecting system, perform renorrhaphy, assess hemostasis and organize postoperative care.
Case discussions can demonstrate how tumor and patient factors influence the choice between partial and radical nephrectomy.
Preoperative imaging is central to robotic partial nephrectomy planning and can be integrated directly into case-based education.
Compare access pathways according to tumor location, previous surgery, anatomy and surgeon strategy.
Main hilar clamping, selective or segmental arterial clamping, off-clamp techniques and early unclamping.
Enucleation, enucleoresection and standard-margin excision, selected according to anatomy and oncological considerations.
Robotic system positioning, table setup, lateral positioning, pressure-point protection, team positions, ultrasound preparation and vascular clamp readiness.
Camera port, arm spacing, assistant port, triangulation, fourth-arm use, docking and collision avoidance.
Access-site selection, Single-Port placement, instrument deployment, camera orientation, retraction, assistant access and working within limited space.
Colon mobilization, Gerota’s fascia, ureter identification, kidney mobilization, tumor exposure, perinephric fat and posterior/retroperitoneal access.
Renal artery and vein identification, accessory vessels, vessel loops, clamping preparation, vascular injury avoidance and emergency bleeding-control principles.
Probe manipulation, tumor localization, depth assessment, collecting-system and vascular relationships, excision-margin planning and endophytic tumor evaluation.
Main or selective clamping, off-clamp strategy, warm-ischemia awareness, clamp placement, confirmation of ischemia, team communication and unclamping.
Tumor marking, excision-plane selection, enucleation/enucleoresection, sharp dissection, traction, collecting-system awareness, vascular branch management and specimen orientation.
Defect identification, needle positioning, tissue approximation, running/interrupted sutures, calyceal closure, tension management and leak-testing principles.
A central technical component of robotic partial nephrectomy and one of the strongest candidates for model-based training.
Prevention, source recognition, visualization, compression, energy, sutures, clips, agents, clamp management and arterial/venous bleeding principles.
Bagging, avoiding tumor disruption, orientation, margin principles, extraction, pathology communication and documentation.
Pain control, mobilization, renal function, drain/catheter considerations, urine leak, delayed bleeding, pseudoaneurysm, discharge and follow-up.
Case discussions can focus on prevention, recognition and management of procedure-specific complications.
A scheduled course may focus on one platform or compare both where available.
Renal anatomy, patient selection, imaging review, step-by-step technique, faculty videos and complication management.
Camera navigation, instrument control, needle handling, suturing, energy application and procedure-specific modules.
Tumor localization, precision cutting, simulated excision, collecting-system repair, deep-layer closure and renorrhaphy.
Selected tissue exposure, excision, suturing, defect closure, hemostasis and reconstruction; or mixed theory + practical education.
Hands-on participation takes place in a non-clinical training environment. Participants do not perform partial nephrectomy on patients.
The scheduled course page should state the exact duration and curriculum.
Lectures, surgical videos, imaging review and a focused renorrhaphy workshop.
Theoretical education combined with synthetic kidney model exercises.
Step-by-step education, case discussions, tumor excision exercises and repeated renorrhaphy practice.
Lectures, simulation, repeated model-based exercises, selected tissue training and clinical observation where separately arranged.
System orientation, renal anatomy, imaging, port placement, camera/instrument control, basic needle handling and introductory suturing.
Tumor excision, collecting-system repair, intracorporeal suturing, renorrhaphy, vascular-control principles and faculty feedback.
Complex renal masses, hilar tumors, endophytic tumors, multiple tumors, selective clamping, retroperitoneal surgery, Single-Port surgery and advanced reconstruction.
A course may be combined with a separately arranged observership.
International participants should review course language, participant level, experience requirements, platform, dates, practical content and included services.
A certificate of participation or attendance may be provided.
Review confirmed course dates, venue, faculty, participant level, robotic platform, curriculum and practical activities.
Confirmed schedule and course location.
Named faculty and intended participant level.
Simulation, synthetic kidney models and laboratory activities clearly stated.
Tell us about your professional background, previous robotic surgery experience, preferred platform and available dates.
Our team will provide information about suitable scheduled or requested course opportunities.