- info@roboticurologyacademy.com
- Istanbul Turkiye
Develop practical robotic skills using biological tissue models in a structured laboratory environment designed to provide more realistic tissue handling, dissection, suturing and energy-application experience.
Participants may practise tissue handling, dissection, energy application, hemostasis, suturing, reconstruction and procedure-specific exercises. Depending on platform, tissue model and laboratory availability, training may include both Multiport and Single-Port robotic surgery.
Ex vivo tissue, isolated organs, organ blocks and other approved biological preparations.
Bridge fundamental robotic skills toward realistic tissue response and manipulation.
Wet tissue training is usually organized as focused laboratory sessions rather than long continuous programs.
Robotic surgery wet tissue training is a structured practical training experience performed using biological tissue models in a controlled laboratory environment.
Unlike dry lab training, which uses synthetic or silicone materials, wet tissue training allows participants to work with biological tissue and experience more realistic tissue handling, dissection, suturing and energy application.
Wet tissue training does not necessarily involve live animals. Live animal laboratory training is classified separately and is subject to additional ethical, regulatory and institutional requirements.
Basic familiarity with robotic system control, camera navigation and instrument manipulation may help participants benefit more effectively from tissue-based training.
Participants with no previous robotic experience may be advised to complete simulation or dry lab exercises first.
Grasping, traction, countertraction, exposure and tissue-plane recognition.
Sharp and blunt dissection, controlled separation, incision and excision.
Energy application, tissue sealing, thermal-spread awareness and bleeding-control principles.
Needle handling, suturing, knot tying, defect closure, anastomosis and layered reconstruction.
Wet tissue models provide tissue characteristics that cannot be reproduced completely with virtual reality or synthetic models.
Practise controlled tissue sealing, tissue division, bipolar and monopolar energy use, tissue-response recognition, hemostasis techniques and simulated bleeding-control scenarios.
Practise needle loading, positioning and driving, interrupted/running sutures, knot tying, suture tension, defect closure, anastomosis and layered reconstruction.
Wet tissue pathways can be designed around selected robotic urology procedures or specific reconstructive and dissection steps.
Tissue dissection, retraction, needle handling, posterior reconstruction, bladder neck reconstruction, vesicourethral anastomosis and confined-space suturing.
Tumor simulation, tissue incision, simulated excision, collecting-system repair, deep-layer closure, renorrhaphy, hemostasis and suture-tension control.
Vesicourethral, ureteral and pyeloplasty anastomosis, ureterovesical reimplantation, bladder closure, defect closure and layered reconstruction.
Biological tissue exercises can provide a practical comparison of platform-specific instrument arrangement, tissue manipulation and suturing workflow.
Introduction to the tissue model, camera/instrument coordination, tissue handling, traction-countertraction, incision, basic dissection, needle handling, introductory suturing and simple defect closure.
Tissue-plane identification, controlled dissection, energy application, hemostasis, needle positioning, intracorporeal suturing, knot tying, anastomosis and reconstruction.
Advanced dissection, complex suturing, reconstructive techniques, procedure-specific tissue exercises, vesicourethral anastomosis, renorrhaphy, ureteral anastomosis and platform-specific workflow.
Where appropriate, faculty may observe participants during wet tissue exercises and provide individualized technical feedback.
Wet tissue programs are generally short and intensive because they depend on biological tissue preparation, laboratory scheduling, robotic platform access and faculty availability.
Selected tissue handling, retraction, basic dissection, energy application, needle handling, suturing and defect-closure exercises.
Broader practice combining tissue handling, dissection, energy application, hemostasis, suturing and selected reconstruction.
A more comprehensive laboratory pathway with dissection, hemostasis, suturing, knot tying, anastomosis, defect closure, procedure-specific exercises and faculty feedback.
One or more scheduled wet tissue sessions combined with VR simulation, dry lab exercises, synthetic models, suturing practice and faculty-guided discussion.
A broader pathway combining selected wet tissue sessions with simulation, dry lab, procedure-specific models, clinical observation, case discussions and Multiport/Single-Port exposure.
Dry lab uses synthetic and silicone models with highly repeatable tasks. Wet tissue adds biological tissue resistance, dissection, energy application, suturing, hemostasis and tissue response.
VR is useful for console control, coordination, economy of motion and basic sequencing. Wet tissue applies robotic skills to biological tissue models.
Wet tissue generally uses non-living biological tissue or isolated organs. Live animal lab uses an anesthetized live animal and requires additional ethical, regulatory, veterinary and institutional approval.
A combined pathway can connect biological tissue practice with simulation, dry lab exercises, case discussions and the anatomy and workflow observed during real robotic operations.
International participants can request a focused wet tissue session or a broader pathway combining wet tissue training with simulation, dry lab exercises and clinical observation.
Programs can be planned around professional background, previous robotic experience, current technical level, preferred platform, procedures of interest, educational objectives, duration and available laboratory dates.
Wet tissue sessions are planned around tissue preparation, robotic platform access and faculty availability.
Training can be tailored to experience level, platform preference and procedure goals.
Information may be provided regarding application documentation, accommodation and local arrangements.
Turkey combines robotic urology experience with tissue-based laboratory education, simulation opportunities and clinical observation.
Faculty guidance may cover system use, tissue handling, retraction, dissection, energy application, hemostasis, needle handling, suturing, knot tying, anastomosis, procedure-specific exercises and platform-specific workflow.
Not necessarily. However, basic robotic simulation or dry lab experience may help participants benefit more effectively from wet tissue training.
Yes. Participants may practise robotic skills using approved biological tissue models in a controlled laboratory environment.
No. Wet tissue training is non-clinical and does not involve patient care.
Not necessarily. Wet tissue training generally uses ex vivo biological tissue or isolated organs. Live animal lab training is a separate program.
Depending on objectives and availability, models may include isolated animal organs, organ blocks or other approved biological tissue preparations.
Yes. Training may include needle handling, intracorporeal suturing, knot tying, defect closure and anastomosis.
Potentially yes, depending on the tissue model.
Potentially yes, depending on the tissue model, equipment and laboratory arrangements.
Potentially yes, depending on an appropriate biological or combined anatomical model.
Potentially yes. Depending on organ model availability, participants may practise simulated tumor excision, defect closure, collecting system repair and renorrhaphy.
Potentially, depending on robotic platform, faculty, tissue model and facility availability.
Yes, where available.
Yes, where available.
Usually one day or an intensive two- to three-day program.
Yes, but longer pathways generally combine selected wet tissue sessions with simulation, dry lab training, clinical observation and faculty discussions.
Not necessarily. Sessions are scheduled according to tissue preparation, laboratory access, faculty and robotic platform availability.
A certificate of participation or attendance may be provided for selected programs. It does not represent certification of surgical competence.
Tell us about your professional background, previous robotic surgery experience, current technical level, preferred robotic platform, specific training goals and available dates.
Our team will review your application and help identify a wet tissue pathway based on your experience, educational objectives and available robotic platforms, tissue models and laboratory sessions.