CIPPO
Collaborative Intraoperative path planning for precision robotic neurosurgery
CIPROM2022/16 financiado por Generalitat Valenciana en el programa Prometeo de grupos de excelencia

The purpose of this research is to take a step forward in the state of science regarding the effective application of intraoperative information and integrate it into the global process of robotic surgery, particularly in neurosurgery and in the brain shift phenomenon management. In general, it can be said that surgery is currently planned exclusively with preoperative information, and once within the surgical process, intraoperative information is provided by the Surgical Navigation System.
This proposal aims to provide a solution to this problem, developing the necessary technology to provide quality, useful intraoperative information that allows the design of new adaptive control algorithms for robotic assistants that can be used in neurosurgery. Specifically, developments are proposed in the areas of (i) surgical registration with soft tissues, (ii) force-based robotic navigation algorithms and the (iii) application of AI developments for different enabling technologies that exist in the neurosurgery process, which are: segmentation and registration in medical images; intraoperative ultrasound systems and their use as intraoperative imaging systems; the design of new robotic surgical tools adapted to new approaches and the definition of new cognitive architectures for interaction/cooperation between surgeon and robot based on the level of autonomy required at each stage of the operation.


PROJECT OUTCOMES
This project deals with …
Explicación sobre los resultados. En la publicación XXX se cuenta sobre ….. En el repositorio GitHub del grupo se encuentra la aplicación XXX, escrita en Python que permite leer por BLE de un dispositivo. Se incluye también en los deliverables el manual de usuario del sistema homeitb.
Journal papers
- Manrique-Cordoba, J.; de la Casa-Lillo, M.Á.; Sabater-Navarro, J.M. N-Dimensional Reduction Algorithm for Learning from Demonstration Path Planning. Sensors 2025, 25, 2145. https://doi.org/10.3390/s25072145
- Manrique-Cordoba, J.; Martorell, C.; Romero-Ante, J.D.; Sabater-Navarro, J.M. Neural Tract Avoidance Path-Planning Optimization: Robotic Neurosurgery. Appl. Sci. 2024, 14, 3687. https://doi.org/10.3390/app14093687
- S. Di Meo et al., «Multi-Layer Tissue-Mimicking Breast Phantoms for Microwave-Based Imaging Systems,» in IEEE Journal of Electromagnetics, RF and Microwaves in Medicine and Biology, doi: https://doi.org/10.1109/JERM.2024.3379750.
- Martínez-Lozano, A.; Gutierrez, R.; Juan, C.G.; Blanco-Angulo, C.; García-Martínez, H.; Torregrosa, G.; Sabater-Navarro, J.M.; Ávila-Navarro, E. Microwave Imaging System Based on Signal Analysis in a Planar Environment for Detection of Abdominal Aortic Aneurysms. Biosensors 2024, 14, 149. https://doi.org/10.3390/bios14030149
Other publications
- Juliana Manrique-Cordoba, Jesús Cases-Hurtado, Juan David Romero-Ante, Miguel Ángel De la Casa Lillo, José María Sabater-Navarro 3D Trayectory Data Optimization Through an Adaptation of the Douglas-Peucker Algorithm: Application to Surgical Robotics. 2024 9th International Conference on Control and Robotics Engineering (ICCRE)
- Juliana Manrique Cordoba, Juan David Romero Ante, Verónica Fuentes, José María Sabater Navarro. Simulación de la cinemática inversa basada en la fórmula de producto de exponenciales. Actas del Simposio de Robótica, Bioingeniería y Visión por Computador : Badajoz, 29 a 31 de mayo de 2024 ISBN 978-84-9127-262-5, págs. 19-24
Mass media
PROJECT PHOTOS
» If you do something with precision, you do it exactly as it should be done.»



PROJECT MEMBERS
- José María Sabater Navarro
- Miguel Ángel de la Casa Lillo
- Víctor F. Muñoz Martínez
- Itziar Cabanes Axpe
- F. Javier Gimeno Blanes
- Juan Carlos Fraile Marinero
- Concepción Parejo Prados
Contact
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