STM32F405VGT6 - 168MHz ARM Cortex-M4F MCU | STMicroelectronics
MPN: STM32F405VGT6 β Active| Qty | Unit Price | Extended |
|---|---|---|
| 1 | $12.5 | $12.50 |
| 10 | $11.25 | $112.50 |
| 100 | $10 | $1,000.00 |
| 500 | $9 | $4,500.00 |
| 1,000 | $8.1 | $8,100.00 |
Drop-in alternatives for STM32F405VGT6 β same package, pin-to-pin compatible. Different-package parts requiring PCB rework are excluded.
Quick Comparison Tool β Select alternative parts for side-by-side comparison:
STM32F407VGT6
β Drop-Inβ 99,999 In Stock
$5.56 / Unit
View Datasheet βSTM32F405VGT7
β Drop-Inπ Reference alternative (not in catalog)
STM32F405VGT6TR
β Drop-Inπ Reference alternative (not in catalog)
STM32F415VGT6
β Drop-Inπ Reference alternative (not in catalog)
STM32F405VGT6 Maximum Ratings & Electrical Characteristics
| Core | ARM Cortex-M4F with FPU |
| Maximum Clock Frequency | 168 MHz |
| Flash Memory | 1 MB |
| SRAM | 192 KB |
| Supply Voltage | 1.8 V to 3.6 V |
| Operating Temperature | -40Β°C to +85Β°C |
| Package | LQFP-100 |
| Number of I/Os | 82 |
| ADC Resolution | 12-bit |
| Number of ADC Channels | 24 |
| DAC Resolution | 12-bit |
| Number of Timers | 12 |
| Communication Interfaces | USART, SPI, I2C, CAN, USB OTG, Ethernet |
| DMA Channels | 16 |
| RoHS Status | Compliant |
STM32F405VGT6 Pin Configuration
| Pin 1 | VBAT β Battery backup supply |
| Pin 2 | PC13 β GPIO / RTC output |
| Pin 3 | PC14 β GPIO / OSC32_IN |
| Pin 4 | PC15 β GPIO / OSC32_OUT |
| Pin 5 | PF0 β GPIO / OSC_IN |
| Pin 6 | PF1 β GPIO / OSC_OUT |
| Pin 7 | NRST β Reset (active low) |
| Pin 8 | VSSA β Analog ground |
| Pin 9 | VDDA β Analog power supply |
| Pin 10 | PA0 β GPIO / ADC_IN0 |
| Pin 11 | PA1 β GPIO / ADC_IN1 |
| Pin 12 | PA2 β GPIO / USART2_TX |
| Pin 13 | PA3 β GPIO / USART2_RX |
| Pin 14 | PA4 β GPIO / DAC_OUT1 |
| Pin 15 | PA5 β GPIO / DAC_OUT2 |
| Pin 16 | PA6 β GPIO / SPI1_MISO |
| Pin 17 | PA7 β GPIO / SPI1_MOSI |
| Pin 18 | PA8 β GPIO / TIM1_CH1 |
| Pin 19 | PA9 β GPIO / USART1_TX |
| Pin 20 | PA10 β GPIO / USART1_RX |
| Pin 21 | PA11 β GPIO / USB_DM |
| Pin 22 | PA12 β GPIO / USB_DP |
| Pin 23 | PA13 β GPIO / SWDIO |
| Pin 24 | PA14 β GPIO / SWCLK |
| Pin 25 | PA15 β GPIO / JTDI |
| Pin 26 | PC10 β GPIO / USART3_TX |
| Pin 27 | PC11 β GPIO / USART3_RX |
| Pin 28 | PC12 β GPIO / SDIO_D0 |
| Pin 29 | PD2 β GPIO / SDIO_CMD |
| Pin 30 | VSS β Ground |
| Pin 31 | VDD β Power supply |
| Pin 32 | PB0 β GPIO / ADC_IN8 |
| Pin 33 | PB1 β GPIO / ADC_IN9 |
| Pin 34 | PB2 β GPIO / BOOT1 |
| Pin 35 | PB10 β GPIO / I2C2_SCL |
| Pin 36 | PB11 β GPIO / I2C2_SDA |
| Pin 37 | PB12 β GPIO / SPI2_NSS |
| Pin 38 | PB13 β GPIO / SPI2_SCK |
| Pin 39 | PB14 β GPIO / SPI2_MISO |
| Pin 40 | PB15 β GPIO / SPI2_MOSI |
| Pin 41 | PD8 β GPIO / USART3_TX |
| Pin 42 | PD9 β GPIO / USART3_RX |
| Pin 43 | PD10 β GPIO / USART3_CK |
| Pin 44 | PD11 β GPIO / USART3_CTS |
| Pin 45 | PD12 β GPIO / USART3_RTS |
| Pin 46 | PD13 β GPIO / TIM4_CH2 |
| Pin 47 | PD14 β GPIO / TIM4_CH3 |
| Pin 48 | PD15 β GPIO / TIM4_CH4 |
| Pin 49 | PC6 β GPIO / TIM3_CH1 |
| Pin 50 | PC7 β GPIO / TIM3_CH2 |
| Pin 51 | PC8 β GPIO / TIM3_CH3 |
| Pin 52 | PC9 β GPIO / TIM3_CH4 |
| Pin 53 | PA8 β GPIO / TIM1_CH1 |
| Pin 54 | PA9 β GPIO / USART1_TX |
| Pin 55 | PA10 β GPIO / USART1_RX |
| Pin 56 | PA11 β GPIO / USB_DM |
| Pin 57 | PA12 β GPIO / USB_DP |
| Pin 58 | PA13 β GPIO / SWDIO |
| Pin 59 | PA14 β GPIO / SWCLK |
| Pin 60 | PA15 β GPIO / JTDI |
| Pin 61 | PC10 β GPIO / USART3_TX |
| Pin 62 | PC11 β GPIO / USART3_RX |
| Pin 63 | PC12 β GPIO / SDIO_D0 |
| Pin 64 | PD2 β GPIO / SDIO_CMD |
| Pin 65 | VSS β Ground |
| Pin 66 | VDD β Power supply |
| Pin 67 | PB0 β GPIO / ADC_IN8 |
| Pin 68 | PB1 β GPIO / ADC_IN9 |
| Pin 69 | PB2 β GPIO / BOOT1 |
| Pin 70 | PB10 β GPIO / I2C2_SCL |
| Pin 71 | PB11 β GPIO / I2C2_SDA |
| Pin 72 | PB12 β GPIO / SPI2_NSS |
| Pin 73 | PB13 β GPIO / SPI2_SCK |
| Pin 74 | PB14 β GPIO / SPI2_MISO |
| Pin 75 | PB15 β GPIO / SPI2_MOSI |
| Pin 76 | PD8 β GPIO / USART3_TX |
| Pin 77 | PD9 β GPIO / USART3_RX |
| Pin 78 | PD10 β GPIO / USART3_CK |
| Pin 79 | PD11 β GPIO / USART3_CTS |
| Pin 80 | PD12 β GPIO / USART3_RTS |
| Pin 81 | PD13 β GPIO / TIM4_CH2 |
| Pin 82 | PD14 β GPIO / TIM4_CH3 |
| Pin 83 | PD15 β GPIO / TIM4_CH4 |
| Pin 84 | PC6 β GPIO / TIM3_CH1 |
| Pin 85 | PC7 β GPIO / TIM3_CH2 |
| Pin 86 | PC8 β GPIO / TIM3_CH3 |
| Pin 87 | PC9 β GPIO / TIM3_CH4 |
| Pin 88 | PA8 β GPIO / TIM1_CH1 |
| Pin 89 | PA9 β GPIO / USART1_TX |
| Pin 90 | PA10 β GPIO / USART1_RX |
| Pin 91 | PA11 β GPIO / USB_DM |
| Pin 92 | PA12 β GPIO / USB_DP |
| Pin 93 | PA13 β GPIO / SWDIO |
| Pin 94 | PA14 β GPIO / SWCLK |
| Pin 95 | PA15 β GPIO / JTDI |
| Pin 96 | PC10 β GPIO / USART3_TX |
| Pin 97 | PC11 β GPIO / USART3_RX |
| Pin 98 | PC12 β GPIO / SDIO_D0 |
| Pin 99 | PD2 β GPIO / SDIO_CMD |
| Pin 100 | VSS β Ground |
Safe Operating Area (SOA) & Thermal Characteristics
No official SOA curve available for this digital IC. Always operate within absolute maximum ratings specified in the datasheet. Ensure adequate cooling and derate as needed.
Typical Applications
STM32F405VGT6 is suitable for 6 applications: Industrial Motor Control, Medical Monitoring Devices, Consumer Electronics, IoT Gateways, Drone Flight Controllers, Audio Processing.
Industrial Motor Control
The STM32F405VGT6 is ideal for industrial motor control applications due to its advanced timers (TIM1 and TIM8) that generate PWM signals with dead-time insertion, and its 12-bit ADCs that sample motor currents and voltages. The 168 MHz Cortex-M4F core with FPU enables complex control algorithms like Field-Oriented Control (FOC) to run efficiently. In a typical motor control system, the MCU reads encoder or Hall sensor feedback, computes the control loop, and outputs PWM signals to the gate driver. The high clock speed and FPU ensure low latency and high precision, improving motor efficiency and dynamic response. Additionally, the device's multiple communication interfaces (CAN, USART, SPI) allow integration with industrial networks and HMI systems. The wide operating temperature range (-40Β°C to +85Β°C) makes it suitable for harsh industrial environments. Designers should ensure proper isolation between the power stage and the MCU, and use the ADC's injected channels for synchronized sampling of motor currents.
Recommended
Medical Monitoring Devices
The STM32F405VGT6 is well-suited for medical monitoring devices such as patient monitors, infusion pumps, and portable diagnostic equipment. Its high processing power (168 MHz Cortex-M4F) enables real-time signal processing of biosignals like ECG, EEG, and SpO2. The device's multiple ADCs can sample multiple analog channels simultaneously, and its DMA controllers offload data transfer, reducing CPU load. The low-power modes (Sleep, Stop, Standby) are critical for battery-powered portable devices, extending operational life. The device's rich peripheral set includes USART, SPI, and I2C for interfacing with sensors and wireless modules. In a typical patient monitor, the MCU acquires signals from sensors, processes them using DSP algorithms, and displays results on an LCD. The FPU accelerates filtering and feature extraction algorithms. Designers must ensure electrical safety and isolation, and comply with medical standards such as IEC 60601. The device's wide temperature range and reliability make it a trusted choice for medical applications.
Recommended
Consumer Electronics
The STM32F405VGT6 is used in consumer electronics such as smart home hubs, audio systems, and wearable devices. Its high performance and rich peripherals enable features like voice recognition, audio processing, and touch sensing. The device's USB OTG interface allows direct connection to smartphones and PCs, enabling data transfer and firmware updates. The Ethernet interface supports IoT connectivity, making it ideal for smart home gateways. In a smart home hub, the MCU manages multiple communication protocols (Zigbee, Z-Wave, Wi-Fi) via external modules, processes sensor data, and controls actuators. The FPU accelerates audio codecs and DSP algorithms, improving sound quality. The device's low-power modes are essential for battery-powered wearables, extending battery life. Designers should optimize power consumption by using the device's sleep modes and peripherals efficiently. The STM32F405VGT6's extensive ecosystem, including STM32CubeMX and HAL libraries, accelerates development.
Recommended
IoT Gateways
The STM32F405VGT6 is an excellent choice for IoT gateways that aggregate data from multiple sensors and devices, process it, and transmit it to the cloud. Its Ethernet and USB OTG interfaces provide high-speed connectivity, while its multiple USART, SPI, and I2C interfaces allow connection to various sensors and wireless modules (e.g., LoRa, Zigbee, BLE). The 168 MHz Cortex-M4F core with FPU can handle protocol stacks (e.g., MQTT, CoAP) and data encryption (AES) efficiently. The device's large flash (1 MB) and SRAM (192 KB) support complex applications and buffering. In a typical IoT gateway, the MCU collects data from sensors, performs edge processing (e.g., filtering, aggregation), and sends it to the cloud via Ethernet or Wi-Fi. The low-power modes are useful for battery-powered gateways, though most gateways are mains-powered. Designers should ensure robust power supply and consider using the device's cryptographic acceleration for secure communication.
Recommended
Drone Flight Controllers
The STM32F405VGT6 is widely used in drone flight controllers due to its high processing power, rich peripherals, and small form factor. The 168 MHz Cortex-M4F core with FPU enables real-time sensor fusion (e.g., IMU data) and complex control algorithms like PID and Kalman filtering. The device's multiple timers can generate PWM signals for ESCs (Electronic Speed Controllers), and its ADCs can read battery voltage and current. The UART and I2C interfaces connect to GPS modules, telemetry radios, and external sensors. In a typical flight controller, the MCU reads data from the IMU (accelerometer, gyroscope), fuses it using a complementary or Kalman filter, and computes control outputs to stabilize the drone. The FPU accelerates the mathematical operations, reducing latency. The device's low power consumption is crucial for maximizing flight time. Designers should use the device's DMA to offload sensor data transfer and ensure proper power supply filtering to avoid noise from the motors.
Recommended
Audio Processing
The STM32F405VGT6 is suitable for audio processing applications such as audio interfaces, effects processors, and voice-controlled devices. Its 168 MHz Cortex-M4F core with FPU can handle real-time audio DSP algorithms like filtering, equalization, and effects. The device's I2S interface supports high-quality audio codecs, and its DMA controllers enable efficient audio data transfer without CPU intervention. The multiple ADCs and DACs can be used for analog audio input/output. In a typical audio effects processor, the MCU reads audio samples from an ADC or I2S, processes them (e.g., reverb, delay), and outputs the result via DAC or I2S. The FPU accelerates floating-point operations, improving audio quality. The device's large SRAM (192 KB) can buffer audio data, reducing latency. Designers should pay attention to clock jitter and use a dedicated audio PLL to ensure low distortion. The STM32F405VGT6's rich ecosystem includes audio libraries and examples, speeding up development.
Recommended
Recommended Products Summary
Engineering reference data for STM32F405VGT6 β comparison, design guidance, and compliance information.
Selection Guide
Comparison with Alternatives
| Parameter | This Product | STM32F407VGT6 | STM32F405VGT7 | STM32F405VGT6TR | STM32F415VGT6 |
|---|---|---|---|---|---|
| Package | LQFP-100 | LQFP-100 | LQFP-100 | LQFP-100 | LQFP-100 |
| Brand | STMicroelectronics | STMicroelectronics | STMicroelectronics | STMicroelectronics | STMicroelectronics |
| Core | ARM Cortex-M4F | ARM Cortex-M4F | ARM Cortex-M4F | ARM Cortex-M4F | ARM Cortex-M4F |
| Max Clock Frequency | 168 MHz | 168 MHz | 168 MHz | 168 MHz | 168 MHz |
| Flash Memory | 1 MB | 1 MB | 1 MB | 1 MB | 1 MB |
| SRAM | 192 KB | 192 KB | 192 KB | 192 KB | 192 KB |
| Additional Features | None | DCMI, RNG | Extended temp range | Tape & reel packaging | Crypto/hash processor |
| Operating Temperature | -40Β°C to +85Β°C | -40Β°C to +85Β°C | -40Β°C to +105Β°C | -40Β°C to +85Β°C | -40Β°C to +85Β°C |
Key Differentiators
- Higher clock frequency (168 MHz) compared to many competitors (vs NXP LPC1768 (100 MHz))
- Integrated FPU for floating-point math (vs STM32F103VGT6 (Cortex-M3, no FPU))
- Larger SRAM (192 KB) for data buffering (vs STM32F407VGT6 (192 KB SRAM))
Design Notes
Decouple each VDD pin with a 100nF ceramic capacitor placed as close as possible to the pin, and add a 4.7uF bulk capacitor per supply group. The VDDA pin should be filtered with a ferrite bead and a 1uF capacitor to reduce analog noise. Ensure the power supply can handle the peak current of the MCU, especially when driving external peripherals.
Use a solid ground plane and place the MCU with proper clearance for the LQFP-100 package. Route high-speed signals (e.g., SPI, USB) with controlled impedance and keep traces short. For the crystal oscillator, place it close to the OSC_IN/OSC_OUT pins and add load capacitors as specified in the datasheet. Avoid routing high-current traces near the analog pins.
Ensure the BOOT0 pin is configured correctly for the desired boot mode (e.g., pull-down for main flash). The NRST pin should have a 100nF capacitor to ground for reliable reset. Do not exceed the absolute maximum ratings for supply voltage (3.6V) and I/O pins. When using the ADC, ensure the sampling time is sufficient for the source impedance to avoid inaccurate readings.
Compliance Information
RoHS compliant per STMicroelectronics product page. Not AEC-Q100 qualified; for automotive, consider STM32F405VGT7 or other automotive-grade variants.
