
AbstractStretchable electronics has emerged over the past decade and is now expected to bring form factor‐free innovation in the next‐generation electronic devices. Stretchable devices have evolved with the synthesis of new soft materials and new device architectures that require significant deformability while maintaining the high device performance of the conventional rigid devices. As the mismatch in the mechanical stiffness between materials, layers, and device units is the major challenge for stretchable electronics, interface control in varying scales determines the device characteristics and the level of stretchability. This article reviews the recent advances in interface control for stretchable electronic devices. It summarizes the design principles and covers the representative approaches for solving the technological issues related to interfaces at different scales: i) nano‐ and microscale interfaces between materials, ii) mesoscale interfaces between layers or microstructures, and iii) macroscale interfaces between unit devices, substrates, or electrical connections. The last section discusses the current issues and future challenges of the interfaces for stretchable devices.
Electric connectors, Flexible electronics, Electrical connection, Device characteristics, stretchable electronics, Science, Q, Thermoelectric equipment, Device performance, Interface control, Reviews, stretchable materials, Electron devices, Interfaces (materials), Design Principles, Stretchable electronics, device fabrication, Interface designs, Mechanical stiffness, interface design
Electric connectors, Flexible electronics, Electrical connection, Device characteristics, stretchable electronics, Science, Q, Thermoelectric equipment, Device performance, Interface control, Reviews, stretchable materials, Electron devices, Interfaces (materials), Design Principles, Stretchable electronics, device fabrication, Interface designs, Mechanical stiffness, interface design
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