STM32G030K8T6 Key Features
- ARM Cortex-M0+ Core
Operates at up to 64 MHz
Optimized for low power consumption with high energy efficiency
Suitable for real-time applications requiring robust performance
- Integrated Memory and Peripherals
64KB of Flash memory with read and write protection, supporting up to 10,000 write/erase cycles
8KB SRAM with low latency for stable operation
Memory Protection Unit (MPU) for enhanced security
Comprehensive set of system functions, including DMA, advanced I/O, and peripherals
- Versatile Communication Interfaces
Standard communication interfaces: two I2C, two SPI/one I2S, and two USART
12-bit ADC with up to 19 channels, operating at 2.5 MSps
Low-power RTC, advanced control PWM timer, four general-purpose 16-bit timers, and two watchdog timers
- Power and Clock Management
Operates between 1.65V to 3.6V, supporting battery and USB power
Includes internal clock oscillator and reset circuitry, with external clock support for specific needs
Multiple low-power modes like sleep and standby for efficient power management
- Security and Control
JTAG and debug interface encryption and locking for secure operation
Hardware random number generator and cryptographic unit for secure data handling
Built-in security storage to protect sensitive data
STM32G030K8T6 Specification
| Specification | Details |
|---|---|
| Package Type | LQFP-32 (32-pin) |
| Dimensions | 4mm x 4mm |
| Operating Voltage | 1.65V to 3.6V |
| Operating Temperature | -40°C to 85°C |
| Processor Core | ARM Cortex-M0+ |
| Core Specifications | 32-bit, 64 MHz |
| Communication Interfaces | I2C, SPI, UART/USART, IrDA, LINbus |
| I/O Ports | 30 |
| Program Storage Capacity | 64KB Flash |
| RAM Size | 8KB SRAM |
| Data Converters | 16x12-bit ADC |
| Oscillator Type | Internal |
STM32G030K8T6 Pin Configuration
STM32G030K8T6 Block Diagram
STM32G030K8T6 Application
Industrial Automation
Sensor and actuator control
Robotics and automated machinery
Process control and monitoring systemsMedical Devices
Diagnostic equipment
Patient monitoring systems
Wearable medical devicesHome Appliances
Control systems for air conditioning and refrigeration
Washing machine and dryer control systems
Kitchen appliance control systemsBuilding Automation
Smart lighting systems
Environmental control systems
Security and surveillance systemsIoT Devices
Smart home products
Smart city infrastructure
Industrial IoT applicationsOther Applications
Power system monitoring
Traffic signal control
Agricultural automation
Consumer electronics control
STM32G0 Series ICs Decryption
- STM32G030F6P6
- STM32G030J6M6
- STM32G031K6T6
- STM32G031K8T6
- STM32G030C8T6
- STM32G030C6T6
- STM32G031J6M6
We offer chip decryption and reverse engineering services. If you have a project, feel free to inquire.
STM32G030K8T6 Schematic Cross-Check
Use the STM32G030K8T6 datasheet for the complete ordering code rather than treating the device as a generic STM32G0. Confirm the package drawing, pin table, memory option, temperature grade, and revision before releasing the symbol or footprint. A pin name copied from another G0 device can map to a different package position or alternate function. For first power-up, apply a current limit, confirm supply and reset levels, read the device ID through SWD, and only then enable external clocks or loaded outputs. Package compatibility does not guarantee peripheral or firmware compatibility.
- Supplies: connect every listed digital and analog supply or ground pin and place the specified local and bulk decoupling with short return paths.
- Debug path: reserve
PA13/SWDIO,PA14/SWCLK, ground, target voltage, and preferablyNRSTon an accessible header. - Boot behavior: verify the boot selection and option-byte state for this exact device so blank parts enter the intended memory or system loader.
- Alternate functions: validate each UART, SPI, I²C, timer, and ADC assignment against the exact package table, including channel and remap constraints.
- Electrical limits: check GPIO voltage tolerance, analog input range, injection current, output drive, and total port current under the real supply rails.
