Soft and Continuum Robots for Medical Applications
A Practical Approach
Will be published approx. on 1. October 2026
Book
Paperback/Softback
330 pages
978-0-443-14148-5 (ISBN)
Description
Soft and Continuum Robots for Medical Applications: A practical approach introduces present and future technologies of soft and continuum robotics for medical applications. This book dives into the importance of medical device development for electronics, control theory, microcontrollers, MATLAB programming, machine design, biophysics, anatomy, and physiological limitations through a structured approach that clearly presents underlying key concepts to educate readers on the methodology of approaching medical device development.
This book also explores soft and continuum robotic technology in various sub-domains such as robotic navigation, robotic navigation, sensing and bio photonics, autonomy, and shared autonomy. Biomedical engineers, doctors, and researchers in biomedical robotics, biomechanics, robotics, biotechnology, engineering in medicine, mechanical and electrical engineering, health science, and technology will find this book helpful in providing theoretical and practical knowledge in using robotics in the medical field.
This book also explores soft and continuum robotic technology in various sub-domains such as robotic navigation, robotic navigation, sensing and bio photonics, autonomy, and shared autonomy. Biomedical engineers, doctors, and researchers in biomedical robotics, biomechanics, robotics, biotechnology, engineering in medicine, mechanical and electrical engineering, health science, and technology will find this book helpful in providing theoretical and practical knowledge in using robotics in the medical field.
More details
Series
Language
English
Place of publication
San Diego
United States
Publishing group
Elsevier Science Publishing Co Inc
Target group
Professional and scholarly
Product notice
Paperback (trade)
Unsewn / adhesive bound
Dimensions
Height: 229 mm
Width: 152 mm
ISBN-13
978-0-443-14148-5 (9780443141485)
Copyright in bibliographic data is held by Nielsen Book Services Limited or its licensors: all rights reserved.
Schweitzer Classification
Persons
Manish Chauhan is the Lecturer in Medical Engineering at the School of Physics, Engineering and Technology. He has actively participated in performing interdisciplinary research in molecular biology (bacterial studies), quantum physics (ultra-fast photonics, spectroscopy etc.) and clinical trials (work with cancer tissues/patients, animal, cadaver and simulator-based testing). He has consistently tried to conjoin results from interdisciplinary activities into robotics research.
Prior to his current role, he was a Marie Curie Fellow at the STORM Lab in the School of Electronics and Electrical Engineering at the University of Leeds where he actively participated in research at the National Centre for Robotic Engineering and Applications. His PhD degree in Bioengineering Robotics was awarded at the Istituto Italiano di Tecnologia, Italy in 2017, which involved developing teleoperated microsurgical forceps for vocal cord surgery. His areas of expertise are in soft robotics, optical imaging, bio-imaging and optical fibres, mechatronics, novel materials, mri technology and data analytics. James Chandler is the Lecturer in Surgical Robotics and part of the Science and Technologies of Robotics in Medicine (STORM) Lab in the School of Electronic and Electrical Engineering, at the University of Leeds. He completed his Ph.D. in surgical sensing for intraoperative identification of cancer and is currently working on the development and translation of low-cost, soft robotic technology for endoluminal diagnostic and surgical applications. His research interests include magnetic, fluidic, and mechanical soft and continuum robotic systems for surgery, atraumatic tissue interaction, affordable medical devices and sensing technology for identifying tissue disease.
Prior to his current role, he was a Marie Curie Fellow at the STORM Lab in the School of Electronics and Electrical Engineering at the University of Leeds where he actively participated in research at the National Centre for Robotic Engineering and Applications. His PhD degree in Bioengineering Robotics was awarded at the Istituto Italiano di Tecnologia, Italy in 2017, which involved developing teleoperated microsurgical forceps for vocal cord surgery. His areas of expertise are in soft robotics, optical imaging, bio-imaging and optical fibres, mechatronics, novel materials, mri technology and data analytics. James Chandler is the Lecturer in Surgical Robotics and part of the Science and Technologies of Robotics in Medicine (STORM) Lab in the School of Electronic and Electrical Engineering, at the University of Leeds. He completed his Ph.D. in surgical sensing for intraoperative identification of cancer and is currently working on the development and translation of low-cost, soft robotic technology for endoluminal diagnostic and surgical applications. His research interests include magnetic, fluidic, and mechanical soft and continuum robotic systems for surgery, atraumatic tissue interaction, affordable medical devices and sensing technology for identifying tissue disease.
Content
Part 1: Soft and continuum robotics (SCR)
1. Introduction
2. Challenges faced by engineers, clinicians, and scientist in working with SCR
3. Research methodology for overcoming existing challenges
4. Practical guide to design SCR solutions
5. Material properties of soft robots
6. An overview of tethered and untethered soft robots and there application to biomedical applications
Part 2: SCR in medical application through emerging technologies
7. Robot navigation
8. Sensing and bio photonics
9. Autonomy and shared autonomy
10. Image guided SCR under MRI compatible conditions
11. SCR in Micro/Nanorobotics for medical applications
12. SCR for diagnostic purposes
Part 3: Socio-economic, environmental factors and associated cost for SCR creation. Factors to consider for minimizing environmental impact of SCR especially in developed and developing countries
1. Introduction
2. Challenges faced by engineers, clinicians, and scientist in working with SCR
3. Research methodology for overcoming existing challenges
4. Practical guide to design SCR solutions
5. Material properties of soft robots
6. An overview of tethered and untethered soft robots and there application to biomedical applications
Part 2: SCR in medical application through emerging technologies
7. Robot navigation
8. Sensing and bio photonics
9. Autonomy and shared autonomy
10. Image guided SCR under MRI compatible conditions
11. SCR in Micro/Nanorobotics for medical applications
12. SCR for diagnostic purposes
Part 3: Socio-economic, environmental factors and associated cost for SCR creation. Factors to consider for minimizing environmental impact of SCR especially in developed and developing countries