- info@roboticurologyacademy.com
- Istanbul Turkiye
Develop practical robotic surgery skills using synthetic, silicone and other non-biological training models in a structured hands-on laboratory environment.
Participants can practise instrument control, camera navigation, hand-eye coordination, needle handling, intracorporeal suturing, knot tying, dissection and procedure-specific exercises. Multiport and Single-Port dry lab training may be available depending on platform and facility access.
No patients, no biological tissue; physical models are used for practical robotic skills.
Tasks can be repeated to improve precision, consistency and confidence.
Dry lab is particularly valuable for needle handling, knot tying, anastomosis and reconstruction.
Robotic surgery dry lab training is a structured practical training experience performed using non-biological materials and simulation models.
Unlike clinical training, dry lab exercises do not involve patients. Unlike wet lab training, they do not use biological tissue or live animal models.
The aim is to provide a safe and repeatable environment in which participants can develop essential robotic surgery skills, improve technical precision and practise selected procedural steps.
Previous robotic surgery experience is not necessarily required. Exercises can be adapted to current experience and educational objectives.
System orientation, ergonomics, camera navigation, clutching and instrument control.
Bimanual control, fourth-arm skills, depth perception, object transfer and precision tasks.
Needle loading, positioning, driving, intracorporeal suturing and knot tying.
Synthetic dissection, defect closure, anastomosis and procedure-specific surgical steps.
Dry lab tasks are designed to make console movements repeatable and measurable through physical interaction with training materials.
Intracorporeal suturing is one of the principal technical components of robotic surgery. Dry lab enables repeated physical practice with needles and sutures.
Physical anatomical models can reproduce selected structures and tasks while keeping exercises standardized and repeatable.
Practise incision, dissection, tissue-plane recognition, retraction and exposure.
Practise suturing, anastomosis, defect closure and reconstruction.
Depending on model availability: tumor excision, renorrhaphy, vesicourethral anastomosis, ureteral anastomosis and bladder closure.
Training can be designed around individual robotic urology procedures or specific technical steps.
Needle handling, tissue approximation, posterior reconstruction, bladder neck reconstruction, vesicourethral anastomosis, running sutures and confined pelvic suturing.
Tumor localization, excision planning, precision cutting, simulated excision, deep-layer closure, collecting system repair and renorrhaphy.
Vesicourethral, ureteral and pyeloplasty anastomosis, bladder closure, urethral reconstruction, tubular anastomosis and defect closure.
Physical dry lab tasks can reveal practical differences in platform configuration, instrument coordination and suturing workflow.
Orientation, ergonomics, camera control, instrument manipulation, clutching, bimanual coordination, object transfer, basic needle handling and introductory suturing.
Advanced coordination, fourth-arm control, precision cutting, needle positioning, suturing, knot tying, anastomosis and synthetic dissection.
Complex suturing, advanced reconstruction, procedure-specific models, vesicourethral anastomosis, renorrhaphy, ureteral anastomosis and platform-specific workflow.
One of the strongest advantages of dry lab education is the ability to repeat selected technical tasks under standardized conditions.
Standalone dry lab programs are usually concentrated because they rely on repetitive technical practice rather than continuous clinical exposure.
Selected fundamentals: console orientation, camera navigation, instrument control, hand-eye coordination, object transfer, needle handling, introductory suturing and knot tying.
Fundamentals plus needle handling, suturing, knot tying and selected procedure-specific tasks, with opportunities for repetition and feedback.
Structured progression through system orientation, coordination, precision cutting, suturing, knot tying, anastomosis, procedure-specific models and performance review.
Repeated exercises, advanced suturing, anastomosis, synthetic/silicone models, procedure-specific training, Multiport/Single-Port exposure and performance assessment.
A broader pathway combining selected dry lab sessions with VR simulation, clinical observation, case discussions, workflow observation and faculty-guided learning.
Virtual reality uses computer-generated tasks and may provide automated metrics. Dry lab adds physical interaction with models, needles and sutures, making it especially useful for anastomosis and reconstructive practice.
Dry lab uses synthetic, silicone and repeatable models. Wet lab uses biological tissue and provides different experience of tissue handling, energy application, hemostasis and tissue response.
Dry lab sessions can be combined with clinical observership to help participants relate physical training tasks to anatomy, workflow and technical principles seen during real robotic operations.
International participants can select a focused standalone dry lab program or request a broader pathway combining dry lab training with simulation, selected laboratory activities and clinical observation.
Programs can be planned around professional background, previous experience, technical level, preferred platform, procedure interests, objectives, duration and available dates.
Program structure can be matched to current level, platform preference and procedure goals.
Information may be provided about application documentation, accommodation and local arrangements.
Istanbul is a major international travel hub serving Europe, the Middle East, Central Asia, North Africa and surrounding regions.
Turkey combines robotic urology experience with dry lab facilities, simulation opportunities and clinical observation.
Faculty guidance may cover system use, ergonomics, camera and instrument control, needle handling, suturing, knot tying, anastomosis, procedure-specific exercises, platform workflows and technical improvement.
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 dry lab pathway based on your experience, educational objectives and available robotic platforms and models.