Clinical Trial Details
— Status: Completed
Administrative data
NCT number |
NCT05628025 |
Other study ID # |
2022-10107 |
Secondary ID |
|
Status |
Completed |
Phase |
|
First received |
|
Last updated |
|
Start date |
November 23, 2021 |
Est. completion date |
November 24, 2021 |
Study information
Verified date |
November 2022 |
Source |
Centre hospitalier de l'Université de Montréal (CHUM) |
Contact |
n/a |
Is FDA regulated |
No |
Health authority |
|
Study type |
Observational
|
Clinical Trial Summary
There are many possible surgical treatments when a patient presents with lower urinary tract
symptoms due to an enlarged prostate, termed benign prostatic hyperplasia or BPH. One
technique consists of using a laser to remove prostatic tissue through the penis, called
laser enucleation of the prostate or LEP. LEP also has excellent properties to reduce blood
loss and results in shorter hospital stays. Trainees must observe and perform several
procedures before mastering the LEP technique. Different models have been used to mimic the
LEP experience for surgeon trainees, such as virtual simulators or synthetic models. While
these simulators offer an alternative to LEP procedures on real patients, they may lack
realism which renders the simulator less representative than the real procedure.The
3D-printed prostate model of the present study mimics the properties of real-life prostatic
tissue. In the setting of the MasterClass, trainees will perform LEP on the 3D models under
the supervision of three experts. While the 3D organ phantom has been used to practice
performing other procedures, this is the first time it will evaluated for LEP training. For
this reason, the investigators will be assessing this model as a training tool.
Description:
Numerous surgical treatment options exist for benign prostatic hyperplasia (BPH). Laser
enucleation of the prostate (LEP) was introduced in the therapeutic arsenal about twenty
years ago, and has become a popular treatment due to its excellent hemostatic properties.
Moreover, LEP is associated with less blood loss and shorter hospital stays. One disadvantage
however may be the longer learning curve for trainees compared to transurethral resection of
the prostate (TURP), which is the current gold standard for treatment.
It is estimated that a surgeon can safely and efficiently perform holmium LEP after about 50
cases. Simulator-based training has been widely proposed as a training tool for surgeons to
learn LEP. Integrating simulators in surgical training allows surgeons to develop skills in
LEP without negative consequences on real patients. Simulators range from virtual reality to
synthetic bench models, and all face the same challenge of creating a realistic experience
that accurately mimics real-life LEP, and helps surgeons develop skills they can transfer to
the operating room.
The prostate organ phantom in the present study is composed of hydrogels and uses 3D molds to
recreate prostatic tissue and anatomy. This model has successfully been used to practice TURP
procedures, however has not yet been validated for LEP training. This observational,
prospective and comparative study aims to validate the 3D prostate organ for LEP training. In
the setting of a MasterClass, trainees will perform LEP on two 3D models under the
supervision of three experts in LEP. The content and face validity of the organ phantoms will
be evaluated by the MasterClass participants through a questionnaire. Performance outcomes of
trainees will also be collected by visually examining the models and weighing the models pre-
and post-operatively. By validating this simulator for LEP training, the investigators hope
to elucidate the role of simulators, and specifically the role of a 3D organ phantom, in
future training programs.