TY - GEN
T1 - Live Demonstration
T2 - 21st IEEE Biomedical Circuits and Systems, BioCAS 2025
AU - Othman, Wael
AU - Qasaimeh, Mohammad A.
N1 - Publisher Copyright:
© 2025 IEEE.
PY - 2025
Y1 - 2025
N2 - This live demonstration showcases LaparoSense, a novel approach to restoring tactile feedback in minimally invasive surgery (MIS) through a sensorized handle integrated with force and angle sensors. Unlike traditional tip-mounted sensing systems, LaparoSense measures the grasping dynamics indirectly from the tool's handle, offering a reusable, sterilization-friendly, and modular solution compatible with standard laparoscopic tools. The demonstration will also feature advanced microfluidic-based sensors for enhanced tactile sensing performance. The demonstration setup includes a functional prototype (sensor-integrated laparoscopic grasper), a portable surgical simulator (Pyxus HD Move), soft PDMS-based tissue-like phantoms, a laptop interface for real-time tactile feedback visualization, and a display of various microfluidic sensor designs. Visitors will engage in a hands-on simulation where they manipulate various tissue phantoms using the grasper. During interaction, the system delivers real-time visual feedback of force magnitude, grasping angle, and estimated tissue stiffness. This immersive experience highlights LaparoSense's core innovation of indirect sensing from the tool's handle as a means to overcome key clinical challenges in MIS, such as loss of haptic perception and unintentional tissue damage. Attendees will gain insights into how LaparoSense can enhance surgical training, reduce intraoperative errors, and support environmentally sustainable practices by minimizing single-use medical waste.
AB - This live demonstration showcases LaparoSense, a novel approach to restoring tactile feedback in minimally invasive surgery (MIS) through a sensorized handle integrated with force and angle sensors. Unlike traditional tip-mounted sensing systems, LaparoSense measures the grasping dynamics indirectly from the tool's handle, offering a reusable, sterilization-friendly, and modular solution compatible with standard laparoscopic tools. The demonstration will also feature advanced microfluidic-based sensors for enhanced tactile sensing performance. The demonstration setup includes a functional prototype (sensor-integrated laparoscopic grasper), a portable surgical simulator (Pyxus HD Move), soft PDMS-based tissue-like phantoms, a laptop interface for real-time tactile feedback visualization, and a display of various microfluidic sensor designs. Visitors will engage in a hands-on simulation where they manipulate various tissue phantoms using the grasper. During interaction, the system delivers real-time visual feedback of force magnitude, grasping angle, and estimated tissue stiffness. This immersive experience highlights LaparoSense's core innovation of indirect sensing from the tool's handle as a means to overcome key clinical challenges in MIS, such as loss of haptic perception and unintentional tissue damage. Attendees will gain insights into how LaparoSense can enhance surgical training, reduce intraoperative errors, and support environmentally sustainable practices by minimizing single-use medical waste.
KW - endoscopy
KW - force feedback
KW - laparoscopy
KW - minimally invasive surgery
KW - stiffness assessment
KW - surgical grasper
KW - tactile sensing
UR - https://www.scopus.com/pages/publications/105033235109
U2 - 10.1109/BioCAS67066.2025.00122
DO - 10.1109/BioCAS67066.2025.00122
M3 - Conference contribution
AN - SCOPUS:105033235109
T3 - Proceedings - 21st IEEE Biomedical Circuits and Systems, BioCAS 2025
SP - 535
BT - Proceedings - 21st IEEE Biomedical Circuits and Systems, BioCAS 2025
PB - Institute of Electrical and Electronics Engineers Inc.
Y2 - 16 October 2025 through 18 October 2025
ER -