2023
DOI: 10.3389/frobt.2023.1243121
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Corrigendum: Soft robotics in wearable and implantable medical applications: translational challenges and future outlooks

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“…As such, there is a significant interest in developing advanced optoelectronic devices that may enable future human-centric applications (Figure ). These devices may be integrated into a contact lens to diagnose various diseases such as glaucoma and diabetes or provide augmented/virtual reality vision. Flexible and stretchable PDs with high resolution can realize various curvy-shaped retinas in natural eyes, which can be implemented in artificial vision for mobile robotics or visual prostheses to provide/restore vision. Fully mimicked, bioinspired artificial imagers can provide user-friendly preprocessed images, minimizing the computational cost for refining the raw data. Wearable and implantable devices can be used to detect activities in the brain, heart, and muscles, blood pressure, and other vital signs. The collected data can be transmitted to the cloud for real-time analysis to assist in predictive diagnostics or provide proper treatment, including but not limited to drug delivery and therapy based on thermal, electrical, and ultrasound stimulation. These soft sensors and actuators can also be applied to various prosthetics or human-machine interfaces (HMIs) to restore senses or major functionalities of the human body. In conjunction with the artificial intelligence (AI) technology, the human-centric devices with flexible and stretchable form factors are expected to bring a change of paradigm in medicine from treatment to diagnosis, prevention, and restoration, transitioning to personalized precision medicine. Through the utilization of medical big data, AI can impact various areas of healthcare, including prediction, diagnosis, treatment, and rehabilitation.…”
Section: Introductionmentioning
confidence: 99%
“…As such, there is a significant interest in developing advanced optoelectronic devices that may enable future human-centric applications (Figure ). These devices may be integrated into a contact lens to diagnose various diseases such as glaucoma and diabetes or provide augmented/virtual reality vision. Flexible and stretchable PDs with high resolution can realize various curvy-shaped retinas in natural eyes, which can be implemented in artificial vision for mobile robotics or visual prostheses to provide/restore vision. Fully mimicked, bioinspired artificial imagers can provide user-friendly preprocessed images, minimizing the computational cost for refining the raw data. Wearable and implantable devices can be used to detect activities in the brain, heart, and muscles, blood pressure, and other vital signs. The collected data can be transmitted to the cloud for real-time analysis to assist in predictive diagnostics or provide proper treatment, including but not limited to drug delivery and therapy based on thermal, electrical, and ultrasound stimulation. These soft sensors and actuators can also be applied to various prosthetics or human-machine interfaces (HMIs) to restore senses or major functionalities of the human body. In conjunction with the artificial intelligence (AI) technology, the human-centric devices with flexible and stretchable form factors are expected to bring a change of paradigm in medicine from treatment to diagnosis, prevention, and restoration, transitioning to personalized precision medicine. Through the utilization of medical big data, AI can impact various areas of healthcare, including prediction, diagnosis, treatment, and rehabilitation.…”
Section: Introductionmentioning
confidence: 99%