IoT Multi Sensors

© 2022 by the authors; CC BY-NC-ND license

antenna impedance matching; artificial neural network; deep learning; input impedance (S₁₁); smart grid; LoRaWAN; partial discharge; predictive maintenance; scalability; Internet of Things; COVID-19 sensors; remote healthcare; telemedicine; quarantine monitoring; IoT wearable device; IoT; WSN; routing; load balancing; energy efficiency; blockchain; clustering; authentication; malicious node detection; LEACH protocol; service provisioning; interplanetary file system; security; impedance meter; RCL-bridges; portable instrument; AVR^® micro-controller; low-cost; internet of things; IoT; PKCs; prime field; modular inversion; BEEA; modular addition and subtraction; SPA; ADP; FPGA; cable diagnostics; smart grid monitoring; health cable monitoring; technical cable coefficient; Internet of Things; chicken swarm optimization; genetic algorithm; energy optimization; healthcare architectures; IoT; Health 4.0; lightweight privacy; cryptography; sensors; smart health; IoT; surgical practice; Internet of Surgical Things; Internet of Things (IoT); smart campus; IoT gateway; cluster; optimization; internet of things; blockchain; self-sovereign identity; IoMT; security; privacy; sewer network; wireless sensor network; internet of things; combinatorial optimization; mixed integer programming; IoT; greenhouse gas; sustainable logistics; last-mile emission; supply chain; LPWANs; industrial Internet of Things; mesh networks; wide area networks; internet of things; edge intelligence; healthcare and wellness; piezoelectric sensors; multi-sensor; anomaly detection; LoRa; transceiver; modules; IoT; LPWAN; IoT devices; wireless sensor networks; IoT applications; small patch antenna; SigFox; blockchain; consensus mechanisms; secure data management; data storage; Internet of Things; wireless sensor networks; Internet of Things (IoT); power consumption; Hypertext Transfer Protocol (HTTP); Message Queue Telemetry Transport (MQTT); long-term monitoring; NodeMCU