Managing BLE Peak Power with ICs and Plug-In Modules
Analysis of Bluetooth Low Energy (BLE) peak power profiles and low-power design strategies for wearables and IoT, guiding IC/module selection and energy-harvesting sizing.
Analysis of Bluetooth Low Energy (BLE) peak power profiles and low-power design strategies for wearables and IoT, guiding IC/module selection and energy-harvesting sizing.
Technical overview of integrating accelerometers into wearable designs, covering MEMS devices (MMA3202), multi-axis inertial modules, interfaces (SPI/I2C), and PCB integration.
Overview of Darwin MCU family: 32-bit Arm Cortex-M4 devices offering low-power operation, integrated memory, security features, and DSP/FPU support for embedded intelligence.
Examines SiP integration of DC/DC converters for wearables, comparing package topologies, PCB layout trade-offs, noise, thermal effects, and vendor examples.
Technical overview of inductive wireless charging for wearables, covering communication, WPC Qi-compatible ICs, coil design and transmitter/receiver integration.
Technical overview of wireless charging for wearables, covering inductive/resonant principles, Qi control protocols, and transmitter/receiver coil and chipset components.
Technical guide to Bluetooth Low Energy for wearable devices, comparing BLE vs BR/EDR, GATT roles and reference designs like nRF51822 and TI CC256x.
Energy-efficient wearable design: combining energy harvesting, ultra-low-power MCUs, low-power radios, and battery-management/storage options to extend device operation.
Technical summary of Bluetooth Low Energy (BLE) design for wearables and IoT, covering low-power SoC, modules, RF front-ends, security, and power-management considerations.
Overview of 5G-enabled drones: how 5G improves bandwidth, latency, positioning and coverage, enabling networked drone applications such as inspection, rescue, and logistics.