Titlebook: Hydrogel for Biomedical Applications; 3D/4D Printing, Self Andy H. Choi,Besim Ben-Nissan Book 2024 The Editor(s) (if applicable) and The Au

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3D, 4D Printing, and Bioprinting of Hydrogels,produce hydrogels appropriate for tissue engineering such as digital light processing, and 3D printing systems based on laser, inkjet, and nozzle or extrusion. The notion behind the development of 4D printing began in 2014 and the fabrication process can be described as the amalgamation of additive

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Future of Drug Delivery: Microrobotics and Self-powered Devices,r hand, soft robots, made from intrinsically stretchable and/or soft materials such as silicone rubber or hydrogels, offer the possibility to connect humans with machines. The introduction of hydrogels into the field of soft robotics could widen its utilization in the biomedical arena such as drug d

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Book 2024 the concept of self-healing and its amalgamation with 3D printed injectable cell-laden tissue constructs. It also explores the use of metal-free “click” chemistry and enzymes such as horseradish peroxidase, hematin, tyrosinase, and transglutaminase to obtain chemically crosslinked hydrogels and the

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Brief Introduction and Various Crosslinking Approaches, mild conditions and its utilization enables hydrogels to be crosslinked via several approaches with physical and chemical properties customizable to suit the intended application. Copper-free “click” chemistry has emerged as a useful technique for synthesizing hydrogels intended to be used in regen

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3D, 4D Printing, and Bioprinting of Hydrogels,r categorized according to the type of stimulus used such as temperature, light, moisture, or an external magnetic field. Distinct from conventional 3D printing approaches, bioprinting requires a different technical methodology that is compatible with depositing living cells. Deposition approaches s

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Future of Drug Delivery: Microrobotics and Self-powered Devices,ic nanogenerators (TENGs) have found use in many biomedical and healthcare applications such as energy harvesters and self-powered sensors. Recently, considerable efforts have been made to develop hydrogel-based TENGs as an on-demand, controlled-release, and self-regulated drug delivery systems.