2

Event-driven sensors are essential for real-time applications, yet the integration of current technologies faces limitations such as …

Vibration perception can help robots recognize their dynamic states to explore the surrounding environment. However, the intrinsic …

Tactile sensors, which provide information about the physical properties of objects, are an essential component of robotic systems. The …

Advancement in human-robot interaction (HRI) is essential for the development of intelligent robots, but there lack paradigms to …

Floor-based sensing systems to monitor human activities and identify users are essential for smart homes and intelligent buildings. A …

Persistent triboelectrification-induced electroluminescence (TIEL) is highly desirable to break the constraints in the …

Abnormal vibration is a direct response to the mechanical defects of electrical equipment, and requires reliable vibration sensing for …

Power sources and energy-harvesting schemes are still grand challenges for soft robots. Notably, compared with other power sources, …

Vibration sensors are involved extensively in a variety of applications. Especially in the era of the Internet of Things, developing …

In the era of 6G and the Internet of Things (IoT), massive amounts of data are produced by distributed sensors and transferred wirelessly between various smart devices. Meanwhile, the proportion of global energy expended on communications keeps increasing. A possible solution to reduce energy required for information transfer is harvesting pervasive mechanical energy. However, the popularization of so-far-realized visible-light-based self-powered optical wireless communications (OWC) systems is restricted by ambient light conditions and complex receiver designs. In this work, an infrared (IR)-based OWC system is proposed to leverage a triboelectric nanogenerator (TENG) to achieve information encoding and transmission using an IR signal that is robust against light interference. Specifically, the mechanical motion and mechanical structures of TENGs can be utilized to convey information and power the IR emitter. Moreover, the system supports diverse TENG structures and can accommodate different demands. Our research shows that self-powered IR-based OWC, with the merits of long transmission distances, high adaptability, and low cost, may significantly promote TENG-enabled OWC and pave the way for sustainable communications.