Smart Organ-on-Chip Devices

SECTION 1: MICROFLUIDICS AND ORGAN-ON-CHIP TECHNOLOGIES<br>1. Organotypic On-Chip Models: Bridging the Gap Between Traditional In Vitro Culture and Animal Testing<br>2. Microfabrication Processes for the Manufacturing of Smart Organ-on-Chip Devices<br>3. Bioprinted Organ-on-a-Chip: A Strategy to Achieve Humanized In Vitro Models<br>4. Disease Modeling and Developmental Biology Through Microfluidic Channels<br>5. Artificial Intelligence-Assisted Organ-on-Chip Systems<br><br>SECTION 2: STIMULI ACTIVE ORGANOTYPIC-ON-CHIP DEVICES<br>6. Mechanically Active Organotypic-On-Chip Devices for Dynamic Cell Culture<br>7. Sensors within Microfluidic Chips: Optofluidics to Explore In Vitro Organoid Behavior<br>8. Photothermal and Magnetic Cell Stimuli Caused by Nanoparticles Inside Organ-on-Chip Platforms<br><br>SECTION 3: MICROPHYSIOLOGICAL CASE STUDIES<br>9. Brain-on-Chip Microplatforms for Precision Medicine, Disease Modelling, and Developmental Biology<br>10. Dynamic Microphysiological Systems to Access Sickle Cell Disease - A Case Study for Disease Modeling<br>11. Microtechnologies and Mathematical Modeling in Signaling Cascades Multiorgan Microphysiological Systems<br>12. Mechanically Active Heart-on-a-Chip: Toward a Reliable Heart Beating Study Model<br>13. Remaining Challenges: Are We Close to a Physiologically Representative In Vitro Model for Clinical Deployment?