EFM32ZG110F8-QFN24
EFM32ZG110F8-QFN24 - 24MHz Cortex-M0+ MCU | Silicon Labs
Silicon Labs EFM32ZG110F8-QFN24 is a 24 MHz ARM Cortex-M0+ microcontroller with 8 kB Flash memory, 2 kB RAM, 17 digital I/O pins, and a 24-QFN 5 x 5 mm package. Designed around Silicon Labs' energy-conscious EFM32 platform, this MCU combines a compact 32-bit architecture with low-power operating techniques, fast wake-up behavior, and energy-saving modes for embedded systems requiring low standby power. The device also includes ADC and AES capabilities according to the manufacturer product-page and distributor records.
An EFM32 microcontroller belongs to the 32-bit embedded MCU hierarchy, where Cortex-M0+ processor cores execute compact real-time control software in compact embedded systems. The Cortex-M0+ architecture is positioned below more feature-rich Cortex-M processors in performance and system complexity, while retaining a 32-bit instruction set, efficient interrupt handling, and a broad embedded-software ecosystem. EFM32 devices add energy-focused peripherals and low-power modes to that foundation, making them especially useful for battery-operated sensing, metering, and control products.
The EFM32ZG110F8-QFN24 operates up to 24 MHz and provides 8 kB Flash for firmware and 2 kB RAM for working data. Its 17 digital I/O pins support external sensors, indicators, actuators, and digital interfaces, while two 16-bit timers support periodic timing, pulse measurement, and basic control functions. The manufacturer identifies fast wake-up and energy-saving modes as defining platform characteristics, allowing the MCU to remain responsive while reducing activity during idle intervals.
The available records additionally identify an ADC and AES hardware capability, making the MCU relevant to designs that measure analog quantities or protect locally stored or communicated data. These functions share the same constrained 8 kB Flash and 2 kB RAM budget as the target part, so firmware size, RAM allocation, interrupt latency, and peripheral-resource conflicts should be reviewed together before committing to a design. The exact converter resolution, AES implementation details, and complete electrical limits were not supplied in the verified records and therefore must be confirmed in the manufacturer documentation.
Typical uses include compact energy meters, smart gas, water, and utility monitoring nodes, portable industrial sensing modules, low-power alarm and control units, and small IoT endpoints. In each case, the 24 MHz processing rate is suitable for lightweight control tasks, while the 17 GPIO count and two timers help connect sensors and timed outputs without requiring a larger package. The 24-QFN 5 x 5 mm footprint favors compact board layouts, although its exposed-pad thermal and assembly requirements need careful PCB planning.
A key design consideration is that the 2 kB RAM limits concurrent buffers and stack depth, while the 8 kB Flash limits the available firmware image. Developers should reserve memory for the bootloader, application code, library overhead, and update mechanisms, and should verify that the intended peripherals remain available on all exposed pins. Wake sources, voltage settings, decoupling, and pin multiplexing should be confirmed against the exact device revision before schematic release.
This page consolidates the verified manufacturer and distributor specifications, compares documented same-package alternatives, and adds practical memory, PCB, and low-power design guidance that is not presented as a single consolidated decision in the underlying search records.
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