- info@roboticurologyacademy.com
- Istanbul Turkiye
An advanced practical robotic surgery program using institutionally approved live animal models within an authorized, supervised laboratory framework.
Eligible participants may practise tissue handling, dissection, energy application, hemostasis, suturing, reconstruction and selected procedure-specific exercises. Depending on robotic platform, approved protocol and laboratory availability, training may include both Multiport and Single-Port robotic surgery.
Training may include tissue perfusion, physiological movement, bleeding and hemostasis.
Generally most suitable after participants have developed fundamental robotic skills.
Participation depends on approved protocols, facilities, faculty, veterinary support and regulatory requirements.
Robotic surgery live animal lab training is an advanced practical educational experience performed using an anesthetized animal model in an institutionally authorized laboratory environment.
The aim is to help appropriately qualified participants apply previously developed robotic skills in a realistic, controlled and supervised laboratory environment without operating on patients.
Live animal laboratory training may not be appropriate as the first stage of robotic surgery education.
Applicants with limited robotic experience may be advised to complete simulation or dry lab training before participating. Final eligibility is determined according to professional background, previous experience, institutional requirements and faculty assessment.
Participants are generally expected to have basic familiarity with fundamental robotic console skills.
Training content is limited to the approved laboratory protocol and available educational resources.
Robotic setup, laboratory workflow, positioning principles, port planning, docking and undocking.
Tissue handling, traction, exposure, tissue-plane recognition and sharp/blunt dissection.
Energy application, vascular-control principles, bleeding recognition and hemostasis.
Needle handling, intracorporeal suturing, knot tying, defect closure, anastomosis and reconstruction.
Live animal models may provide experience with living tissue characteristics that cannot be reproduced completely using simulation, synthetic models or ex vivo tissue.
Potential exercises may include controlled energy use, bipolar/monopolar energy, tissue sealing, vessel identification, vascular-control principles, recognition of bleeding, compression, energy-based and suture-based hemostasis and simulated bleeding scenarios.
Needle loading, positioning and driving, interrupted/running sutures, knot tying, tension control, defect closure, anastomosis, layered reconstruction and suture-based bleeding control.
Procedure-specific exercises are selected according to anatomical suitability, the approved protocol and educational objectives.
Not every human robotic urology procedure can be reproduced accurately in an animal model.
Kidney exposure, tissue dissection, vascular-control principles, renal incision, simulated lesion excision, collecting-system repair, deep-layer closure, suturing, renorrhaphy and hemostasis.
Ureteral identification, mobilization, controlled transection, spatulation principles, needle positioning, anastomosis, tissue alignment, tension management and leak-prevention principles.
Where permitted: bladder exposure, controlled incision, dissection, defect creation, layered closure, continuous suturing, knot tying, leak-testing principles and reconstruction.
Depending on approved protocol and platform availability, participants may receive exposure to both Multiport and Single-Port robotic surgery.
Preparatory education may be required to ensure participants are familiar with technical, safety and institutional requirements before entering the laboratory.
For participants with previous simulation or dry lab experience: lab orientation, tissue handling, traction, exposure, basic dissection, controlled energy application, bleeding recognition, hemostasis, needle handling and simple suturing.
Tissue-plane identification, advanced dissection, energy application, vascular control, hemostasis, suturing, knot tying, defect closure, anastomosis and tissue reconstruction.
Advanced dissection, vascular-control exercises, complex suturing, reconstruction, renorrhaphy, ureteral anastomosis, bladder reconstruction, simulated bleeding management and platform-specific workflow.
Live animal laboratory training is conducted within an authorized institutional framework and may involve a multidisciplinary laboratory team.
Participants are expected to follow instructions relating to animal welfare, anesthesia, laboratory safety, approved procedures, surgical limits, instrument use, team communication and emergency protocols.
Participation may depend on ethical committee approval, institutional authorization, applicable laws and regulations, veterinary supervision, approved protocol, eligibility, documentation, safety training and facility/faculty availability.
The principles of replacement, reduction and refinement should guide the use of animal models in surgical education. Alternative methods such as virtual reality simulation, dry lab models and ex vivo tissue training may be used whenever they can adequately meet the educational objective.
Live animal laboratory training is generally short and intensive because it requires ethical approval, animal preparation, anesthesia, veterinary supervision, robotic platform access and a specifically scheduled laboratory team.
A focused approved session covering selected tissue handling, dissection, energy application, bleeding control, suturing, defect closure and faculty feedback. This is likely to be the most common format.
Broader exposure to tissue handling, dissection, energy use, hemostasis, suturing and selected procedure-specific exercises, subject to protocol and animal availability.
May combine preparatory simulation, dry lab exercises, multiple approved live-animal sessions, procedure-specific exercises, advanced suturing, reconstruction, hemostasis and faculty review.
A broader practical program combining a scheduled live-animal component with VR simulation, dry lab, wet tissue, synthetic models, procedure-specific simulation, case discussions and technical review.
A comprehensive pathway combining one or more approved live-animal sessions with simulation, dry lab, wet tissue training, clinical observation, case discussions and Multiport/Single-Port exposure.
Wet tissue generally uses ex vivo tissue or isolated organs. Live animal lab involves an anesthetized living model with tissue perfusion, bleeding, physiological monitoring and additional ethical/veterinary oversight.
Dry lab uses synthetic models and repeatable tasks for console control, suturing and anastomosis. Fundamental skills are generally expected before progressing to live animal models.
Live animal lab provides supervised non-clinical practical training. Observership focuses on observing real patient care, surgical planning, operative workflow and postoperative management.
When scheduling and institutional arrangements permit, approved live animal lab sessions can be combined with preparatory simulation, dry lab, wet tissue training, clinical observership, case discussions and platform-specific robotic surgery exposure.
The program may welcome eligible international urologists, residents and fellows seeking advanced practical robotic surgery education in Turkey.
Applications can be considered according to professional background, medical qualifications, previous robotic experience, previous simulation or dry lab training, current technical level, platform preference, procedures of interest, educational objectives, available laboratory dates and institutional eligibility requirements.
Professional qualifications and previous robotic training may need to be documented before participation is considered.
Laboratory participation depends on approved dates, animal model, faculty and facility availability.
Information may be provided regarding application documentation, accommodation and local arrangements.
Where institutionally approved and available, Turkey can combine robotic surgery expertise, simulation, laboratory education and clinical observation within a broader educational pathway.
Faculty guidance may include robotic setup, port placement principles, camera and instrument control, tissue handling, dissection, energy application, vascular-control principles, hemostasis, suturing, anastomosis, procedure-specific exercises and Multiport/Single-Port workflow.
Previous robotic simulation, dry lab or console experience is generally recommended. Applicants with limited experience may be advised to complete preparatory simulation or dry lab training first.
Potentially yes. Eligible participants may perform approved practical exercises under faculty, laboratory and veterinary supervision. Participation is limited to the approved educational protocol.
No. Training takes place in an authorized non-clinical laboratory environment and does not involve patient care.
No. Wet tissue generally uses ex vivo biological tissue or isolated organs. Live animal training involves an anesthetized living animal and additional ethical, veterinary, regulatory and institutional oversight.
The model depends on the approved institutional protocol, educational objectives and facility arrangements. Specific species or procedures are not guaranteed at the application stage.
Yes. Live animal laboratory training is subject to relevant ethical, institutional, veterinary and regulatory approval.
Training is conducted within an approved laboratory framework that includes the veterinary and anesthesia oversight required by the institution and applicable regulations.
Potentially yes. Approved exercises may include needle handling, intracorporeal suturing, knot tying, defect closure and anastomosis.
Potentially yes, depending on the approved protocol.
Potentially yes, depending on the approved protocol, available equipment and faculty supervision.
Potentially. Appropriate models may allow selected exercises such as renal exposure, simulated excision, defect closure, collecting-system repair and renorrhaphy.
A complete human robotic prostatectomy cannot necessarily be reproduced accurately in an animal model. Selected technical skills such as dissection, suturing and reconstruction may be practised when anatomically appropriate and included in the approved protocol.
Potentially, depending on robotic platform, faculty, approved protocol and facility availability.
Usually a focused one-day session or intensive two-day program. Selected programs may extend to three days when combined with preparatory training and review.
Yes, but a one- or two-week pathway would combine selected live animal sessions with simulation, dry lab, wet tissue training, clinical observation and faculty discussions.
No. Live animal sessions take place only on specifically approved and scheduled dates.
No. Applications are reviewed according to professional qualifications, previous robotic experience, educational objectives and institutional eligibility requirements.
A certificate of participation or attendance may be provided for selected programs. It does not represent certification of surgical competence, clinical privileges or authorization to perform robotic surgery independently.
Tell us about your professional background, previous robotic surgery experience, simulation and dry lab training, current technical level, preferred robotic platform, specific educational objectives and available dates.
Our team will review your application and determine whether an appropriate live animal laboratory pathway may be available according to your qualifications, educational objectives and applicable institutional requirements.