Model to Simulate Brain Biopsies Using a Navigated Robotic Guiding System and a Bone Cutting Laser

Brain biopsies are necessary in cases of unclear lesions on imaging studies to establish a treatment plan based on the histologic diagnosis. A previous study investigated the potential of lasers to make brain biopsies less invasive, faster and safer. The study demonstrated that lasers can create hig...

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Main Authors: Tu Ha Thanh, Luder Yann, Röthlisberger Michel, Schicker Martina, Morawska Marta, Cordier Dominik
Format: Article
Language:English
Published: De Gruyter 2024-09-01
Series:Current Directions in Biomedical Engineering
Subjects:
Online Access:https://doi.org/10.1515/cdbme-2024-1056
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author Tu Ha Thanh
Luder Yann
Röthlisberger Michel
Schicker Martina
Morawska Marta
Cordier Dominik
author_facet Tu Ha Thanh
Luder Yann
Röthlisberger Michel
Schicker Martina
Morawska Marta
Cordier Dominik
author_sort Tu Ha Thanh
collection DOAJ
description Brain biopsies are necessary in cases of unclear lesions on imaging studies to establish a treatment plan based on the histologic diagnosis. A previous study investigated the potential of lasers to make brain biopsies less invasive, faster and safer. The study demonstrated that lasers can create highly precise burr holes which themselves can act as a sufficient guide for the biopsy needle. Furthermore, lasers can create tangential canals in the bone which allows to biopsy brain regions that are usually impossible or hazardous to access. Building upon the results of the previous study, further research and technological advancements were pursued. This includes a biopsy needle attachment for the robot, which will be used to simulate brain biopsies using CARLO© (Cold Ablation Robot-guided Laser Osteotome) with its Er:YAG laser and navigated robotic guiding system. The study utilizes five freshly frozen skulls, which are immobilized using a Mayfield clamp. Prior to conducting the experiment, the NeuroPlan© software is employed to plan the path and angle of the biopsies. To align the preexperimental CT with the skull, referencing points on the skull and its surface are registered using a pointer. A small skin incision is performed to reach the area of bone where the laser ablates the bone for the biopsy. Preliminary experimental results suggest that the combined use of laser ablation and a guidance device enables precise bone ablation and accurate needle guidance for biopsies. These initial results demonstrate the potential of integrating laser technology and robotics in neurosurgery, potentially enabling less invasive, faster and safer biopsies, ultimately leading to better patient outcomes.
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issn 2364-5504
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spelling doaj-art-451d999ae2834dd6b1e3e97214ce982f2025-02-02T15:45:00ZengDe GruyterCurrent Directions in Biomedical Engineering2364-55042024-09-01102202010.1515/cdbme-2024-1056Model to Simulate Brain Biopsies Using a Navigated Robotic Guiding System and a Bone Cutting LaserTu Ha Thanh0Luder Yann1Röthlisberger Michel2Schicker Martina3Morawska Marta4Cordier Dominik5Universitätsspital Basel, Spitalstrasse 21,Basel, SwitzerlandUniversitätsspital Basel, Spitalstrasse 21,Basel, SwitzerlandUniversitätsspital Basel, Spitalstrasse 21,Basel, SwitzerlandUniversitätsspital Basel, Spitalstrasse 21,Basel, SwitzerlandAdvanced Osteotomy Tools AG,Basel, SwitzerlandUniversitätsspital Basel, Spitalstrasse 21,Basel, SwitzerlandBrain biopsies are necessary in cases of unclear lesions on imaging studies to establish a treatment plan based on the histologic diagnosis. A previous study investigated the potential of lasers to make brain biopsies less invasive, faster and safer. The study demonstrated that lasers can create highly precise burr holes which themselves can act as a sufficient guide for the biopsy needle. Furthermore, lasers can create tangential canals in the bone which allows to biopsy brain regions that are usually impossible or hazardous to access. Building upon the results of the previous study, further research and technological advancements were pursued. This includes a biopsy needle attachment for the robot, which will be used to simulate brain biopsies using CARLO© (Cold Ablation Robot-guided Laser Osteotome) with its Er:YAG laser and navigated robotic guiding system. The study utilizes five freshly frozen skulls, which are immobilized using a Mayfield clamp. Prior to conducting the experiment, the NeuroPlan© software is employed to plan the path and angle of the biopsies. To align the preexperimental CT with the skull, referencing points on the skull and its surface are registered using a pointer. A small skin incision is performed to reach the area of bone where the laser ablates the bone for the biopsy. Preliminary experimental results suggest that the combined use of laser ablation and a guidance device enables precise bone ablation and accurate needle guidance for biopsies. These initial results demonstrate the potential of integrating laser technology and robotics in neurosurgery, potentially enabling less invasive, faster and safer biopsies, ultimately leading to better patient outcomes.https://doi.org/10.1515/cdbme-2024-1056brain biopsiesbiopsy needle guiding systemer:yag lasercold ablationcarloroboter-guided surgery
spellingShingle Tu Ha Thanh
Luder Yann
Röthlisberger Michel
Schicker Martina
Morawska Marta
Cordier Dominik
Model to Simulate Brain Biopsies Using a Navigated Robotic Guiding System and a Bone Cutting Laser
Current Directions in Biomedical Engineering
brain biopsies
biopsy needle guiding system
er:yag laser
cold ablation
carlo
roboter-guided surgery
title Model to Simulate Brain Biopsies Using a Navigated Robotic Guiding System and a Bone Cutting Laser
title_full Model to Simulate Brain Biopsies Using a Navigated Robotic Guiding System and a Bone Cutting Laser
title_fullStr Model to Simulate Brain Biopsies Using a Navigated Robotic Guiding System and a Bone Cutting Laser
title_full_unstemmed Model to Simulate Brain Biopsies Using a Navigated Robotic Guiding System and a Bone Cutting Laser
title_short Model to Simulate Brain Biopsies Using a Navigated Robotic Guiding System and a Bone Cutting Laser
title_sort model to simulate brain biopsies using a navigated robotic guiding system and a bone cutting laser
topic brain biopsies
biopsy needle guiding system
er:yag laser
cold ablation
carlo
roboter-guided surgery
url https://doi.org/10.1515/cdbme-2024-1056
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