TY - JOUR
T1 - Developing a non-cadaveric brain tumour surgery lab in resource-constrained settings
AU - Khan, Ahsan Ali
AU - Bajwa, Mohammad Hamza
AU - Gauhar, Fatima
AU - Bakhshi, Saqib Kamran
AU - Muqeet, Abdul
AU - Sayani, Saleem
AU - Tahir, Izza
AU - Urooj, Faiza
AU - Khalid, Muhammad Usman
AU - Enam, Syed Ather
PY - 2024/3/1
Y1 - 2024/3/1
N2 - OBJECTIVE: To develop the country's first brain tumour surgery lab in resource-constrained settings, for training young neurosurgeons and residents. METHODS: A workshop was developed using mixed-fidelity models for assessing and training a participant's psychomotor skills, hand-eye coordination, and teaching the principles of brain tumour surgery. Affordable noncadaveric models were used to compare and contrast the benefit of each teaching model. Within the existing space for wet labs at our institution, 8 different dissection stations were set up with adequate space for 2 people to work at a time. Each station was equipped with an operating room-Caliber microscope, a lighting system and a camera linked to a screen and high-powered electric drills and basic surgical equipment. RESULTS: Our team was able to develop and use 3D-printed skull models and animal brain models for training in complex approaches and craniotomy. CONCLUSIONS: Surgical simulation training, in a cost-effective manner, provides the benefit of training residents and students in neurosurgical techniques in a safe, controlled environment leading to improvement in skills and technique.
AB - OBJECTIVE: To develop the country's first brain tumour surgery lab in resource-constrained settings, for training young neurosurgeons and residents. METHODS: A workshop was developed using mixed-fidelity models for assessing and training a participant's psychomotor skills, hand-eye coordination, and teaching the principles of brain tumour surgery. Affordable noncadaveric models were used to compare and contrast the benefit of each teaching model. Within the existing space for wet labs at our institution, 8 different dissection stations were set up with adequate space for 2 people to work at a time. Each station was equipped with an operating room-Caliber microscope, a lighting system and a camera linked to a screen and high-powered electric drills and basic surgical equipment. RESULTS: Our team was able to develop and use 3D-printed skull models and animal brain models for training in complex approaches and craniotomy. CONCLUSIONS: Surgical simulation training, in a cost-effective manner, provides the benefit of training residents and students in neurosurgical techniques in a safe, controlled environment leading to improvement in skills and technique.
KW - Neurosurgery, surgical oncology, simulation training, Brain Neoplasms, Craniotomy, Skull
UR - http://www.scopus.com/inward/record.url?scp=85204092260&partnerID=8YFLogxK
U2 - 10.47391/JPMA.S3.GNO-02
DO - 10.47391/JPMA.S3.GNO-02
M3 - Article
C2 - 39262060
AN - SCOPUS:85204092260
SN - 0030-9982
VL - 74
SP - S3-S7
JO - JPMA. The Journal of the Pakistan Medical Association
JF - JPMA. The Journal of the Pakistan Medical Association
IS - 3 3
ER -