STMicroelectronics

STM32H7B0RBT6 - 32-bit Arm Cortex-M7 MCU 280MHz | STMicroelectronics

MPN: STM32H7B0RBT6 βœ“ Active
In Stock (99,999) Ships in 1-3 business days
1.62 V to 3.6 V Vdss LQFP64 Package 280 MHz Speed 128 Kbytes Memory
$12.5 USD / Unit
MOQ: 1 |
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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
ℹ️ All prices are in USD

Drop-in alternatives for STM32H7B0RBT6 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:

STM32H750VBT6

βœ… Drop-In
STMicroelectronics
πŸ“¦ LQFP64
Arm Cortex-M7 Β· 480 MHz Β· 128 KB Β· 1 MB Β· 1.62 V to 3.6 V Β· -40Β°C to +85Β°C Β· LQFP-100 (14x14 mm) Β· Surface Mount

βœ“ 99,999 In Stock

$8.5 / Unit

View Datasheet β†’

STM32H7A3RBT6

βœ… Drop-In
πŸ“¦ LQFP64
Higher clock speed (280 MHz), same package, but different memory map

πŸ“‹ Reference alternative (not in catalog)

STM32H7B3RBT6

βœ… Drop-In
πŸ“¦ LQFP64
Similar features, but with more Flash (128 Kbytes) and same package

πŸ“‹ Reference alternative (not in catalog)

ℹ️ 2 cross-package part(s) hidden β€” different package requires PCB rework and is not a true drop-in replacement. Contact us if you need cross-package suggestions.

STM32H7B0RBT6 Maximum Ratings & Electrical Characteristics

Core Arm Cortex-M7
Max Clock Speed 280 MHz
Flash Memory 128 Kbytes
RAM 1 Mbyte
Supply Voltage 1.62 V to 3.6 V
Package LQFP64
Operating Temperature -40C to +85C
ADC Resolution 16-bit
ADC Sample Rate 3.6 MSPS
DAC Resolution 12-bit
GPIO Pins 53
Communication Interfaces USART, SPI, I2C, CAN, USB OTG, Ethernet
Timers Multiple 16-bit and 32-bit timers
DMA Channels 16
RoHS Status Compliant

STM32H7B0RBT6 Pin Configuration

QFP-64 Package Pinout Diagram QFP-64 10x10mm, P0.5mm, JEDEC MS-026. 1 16 QFP-64
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
Pin 6 PF1 β€” GPIO
Pin 7 NRST β€” Reset (active low)
Pin 8 VDD β€” Digital power supply
Pin 9 VSS β€” Ground
Pin 10 VDDA β€” Analog power supply
Pin 11 PA0 β€” GPIO / ADC input
Pin 12 PA1 β€” GPIO / ADC input
Pin 13 PA2 β€” GPIO / USART2_TX
Pin 14 PA3 β€” GPIO / USART2_RX
Pin 15 PA4 β€” GPIO / DAC_OUT1
Pin 16 PA5 β€” GPIO / DAC_OUT2
Pin 17 PA6 β€” GPIO / SPI1_MISO
Pin 18 PA7 β€” GPIO / SPI1_MOSI
Pin 19 PC4 β€” GPIO / ADC input
Pin 20 PC5 β€” GPIO / ADC input
Pin 21 PB0 β€” GPIO / ADC input
Pin 22 PB1 β€” GPIO / ADC input
Pin 23 PB2 β€” GPIO / BOOT1
Pin 24 PB10 β€” GPIO / I2C2_SCL
Pin 25 PB11 β€” GPIO / I2C2_SDA
Pin 26 VSS β€” Ground
Pin 27 VDD β€” Digital power supply
Pin 28 PB12 β€” GPIO / SPI2_NSS
Pin 29 PB13 β€” GPIO / SPI2_SCK
Pin 30 PB14 β€” GPIO / SPI2_MISO
Pin 31 PB15 β€” GPIO / SPI2_MOSI
Pin 32 PC6 β€” GPIO / TIM3_CH1
Pin 33 PC7 β€” GPIO / TIM3_CH2
Pin 34 PC8 β€” GPIO / TIM3_CH3
Pin 35 PC9 β€” GPIO / TIM3_CH4
Pin 36 PA8 β€” GPIO / TIM1_CH1
Pin 37 PA9 β€” GPIO / USART1_TX
Pin 38 PA10 β€” GPIO / USART1_RX
Pin 39 PA11 β€” GPIO / USB_DM
Pin 40 PA12 β€” GPIO / USB_DP
Pin 41 PA13 β€” GPIO / SWDIO
Pin 42 PA14 β€” GPIO / SWCLK
Pin 43 PA15 β€” GPIO / JTDI
Pin 44 PC10 β€” GPIO / USART3_TX
Pin 45 PC11 β€” GPIO / USART3_RX
Pin 46 PC12 β€” GPIO / USART3_CK
Pin 47 PD2 β€” GPIO / TIM3_ETR
Pin 48 PB3 β€” GPIO / SPI1_SCK
Pin 49 PB4 β€” GPIO / SPI1_NSS
Pin 50 PB5 β€” GPIO / I2C1_SMBA
Pin 51 PB6 β€” GPIO / I2C1_SCL
Pin 52 PB7 β€” GPIO / I2C1_SDA
Pin 53 BOOT0 β€” Boot mode selection
Pin 54 PB8 β€” GPIO / CAN1_RX
Pin 55 PB9 β€” GPIO / CAN1_TX
Pin 56 VDD β€” Digital power supply
Pin 57 VSS β€” Ground
Pin 58 PC0 β€” GPIO / ADC input
Pin 59 PC1 β€” GPIO / ADC input
Pin 60 PC2 β€” GPIO / ADC input
Pin 61 PC3 β€” GPIO / ADC input
Pin 62 PD0 β€” GPIO / FMC_D2
Pin 63 PD1 β€” GPIO / FMC_D3
Pin 64 VSS β€” Ground

Safe Operating Area (SOA) & Thermal Characteristics

Safe Operating Area Chart Default safe operating area chart for STM32H7B0RBT6 Drain-to-Source Voltage (Vds) Drain Current (Id)

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

STM32H7B0RBT6 is suitable for 6 applications: Industrial Motor Control, IoT Gateway, Audio Processing, Medical Devices, Robotics, Human-Machine Interface (HMI).

🏭

Industrial Motor Control

The STM32H7B0RBT6 is ideal for industrial motor control due to its high clock speed (280 MHz) and advanced timers. It can execute complex FOC algorithms in real-time, with the 16-bit ADC providing precise current sensing. The device's PWM timers generate high-resolution signals for driving IGBTs or MOSFETs. Its robust communication interfaces (CAN, Ethernet) enable integration into industrial networks. The wide temperature range (-40C to +85C) ensures reliable operation in harsh environments. Compared to lower-end MCUs, the STM32H7B0RBT6 offers superior computational power, reducing the need for external DSPs. Designers can leverage the STM32CubeMX tool for rapid development. The device's low-power modes help reduce energy consumption in battery-powered or energy-efficient systems. Overall, it provides a cost-effective solution for high-performance motor control.

🌐

IoT Gateway

The STM32H7B0RBT6 serves as a powerful IoT gateway processor, handling multiple communication protocols simultaneously. Its Ethernet interface enables wired connectivity, while USB OTG supports peripheral connections. The device's high clock speed allows efficient protocol stack processing, such as MQTT and TLS. The 1 Mbyte RAM provides ample buffer for data aggregation. The cryptographic unit (if available in the variant) enhances security for data transmission. The device's low-power modes are beneficial for always-on gateways. With its rich peripheral set, it can interface with various sensors and actuators. The STM32H7B0RBT6's processing power enables edge computing, reducing cloud latency. Its wide supply voltage range simplifies power design. Overall, it is a versatile choice for smart home and industrial IoT applications.

🎧

Audio Processing

The STM32H7B0RBT6 is well-suited for audio processing applications, such as audio effects processors and voice-controlled devices. Its Arm Cortex-M7 core with DSP instructions enables real-time audio filtering and equalization. The 16-bit ADC can sample audio signals at high rates, while the 12-bit DAC provides analog output. The device's high clock speed allows complex algorithms like noise cancellation. The I2S interface supports digital audio input/output. The large RAM (1 Mbyte) can buffer audio streams. The device's low latency is critical for real-time audio. Compared to dedicated DSPs, the STM32H7B0RBT6 offers a more integrated solution. Its rich connectivity allows audio streaming over USB or Ethernet. The device's power efficiency is beneficial for portable audio devices. Overall, it provides a flexible platform for audio innovation.

πŸ’Š

Medical Devices

The STM32H7B0RBT6 is suitable for medical devices like patient monitors and diagnostic equipment. Its high processing power enables real-time signal processing for ECG or EEG. The 16-bit ADC provides high-resolution data acquisition for accurate measurements. The device's reliability and wide temperature range ensure consistent performance. The cryptographic unit (if available) secures patient data. The device's low-power modes extend battery life in portable devices. Its communication interfaces allow data transfer to central systems. The STM32H7B0RBT6's deterministic timing is crucial for medical algorithms. Compared to general-purpose MCUs, it offers higher performance for complex computations. The device's small footprint (LQFP64) is ideal for compact medical devices. Overall, it meets the stringent requirements of medical electronics.

πŸ€–

Robotics

The STM32H7B0RBT6 is an excellent choice for robotics, providing the computational power needed for real-time control and sensor fusion. Its high clock speed (280 MHz) enables fast PID loops and kinematics calculations. The device's multiple timers can generate PWM signals for servo motors. The 16-bit ADC reads position sensors with high precision. The communication interfaces (CAN, UART) allow interfacing with motor drivers and other modules. The device's large RAM supports complex algorithms like SLAM. The STM32H7B0RBT6's low latency is critical for responsive robot behavior. Compared to lower-end MCUs, it can handle more sophisticated tasks. Its wide supply voltage range accommodates various power sources. The device's robustness ensures reliable operation in dynamic environments. Overall, it is a powerful brain for autonomous robots.

πŸ“Ί

Human-Machine Interface (HMI)

The STM32H7B0RBT6 is ideal for advanced HMI applications, such as touchscreen displays and control panels. Its high clock speed enables smooth graphics rendering, especially with the Chrom-ART Accelerator (if available). The device's large RAM supports framebuffers for high-resolution displays. The LTDC (LCD-TFT Display Controller) interface drives TFT panels directly. The device's touch sensing capabilities via I2C or SPI interface with touch controllers. The STM32H7B0RBT6's rich connectivity allows integration with external memory for graphics assets. Its low-power modes help reduce energy consumption in always-on displays. Compared to dedicated graphics controllers, it offers a more integrated solution. The device's wide temperature range suits industrial HMIs. Overall, it provides a cost-effective platform for modern user interfaces.

Recommended Products Summary

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What is the maximum clock speed of STM32H7B0RBT6?
The STM32H7B0RBT6 operates at a maximum clock speed of 280 MHz. According to the STMicroelectronics datasheet, the Arm Cortex-M7 core can run at up to 280 MHz, providing high computational throughput for real-time applications.
How much Flash memory does STM32H7B0RBT6 have?
The STM32H7B0RBT6 has 128 Kbytes of Flash memory. This is sufficient for moderate-sized firmware, but for larger applications, consider the STM32H7B0RBT6's siblings with higher Flash, such as the STM32H743VIT6 with 2 Mbytes.
What is the difference between STM32H7B0RBT6 and STM32H743VIT6?
The STM32H7B0RBT6 has 128 Kbytes of Flash and 1 Mbyte of RAM, while the STM32H743VIT6 has 2 Mbytes of Flash and 1 Mbyte of RAM. Both use the Arm Cortex-M7 core, but the STM32H743VIT6 offers more Flash for larger code and data storage. The STM32H7B0RBT6 is in a LQFP64 package, while the STM32H743VIT6 is in a LQFP100 package, so they are not pin-compatible.
Can STM32H7B0RBT6 be used for motor control applications?
Yes, the STM32H7B0RBT6 is well-suited for motor control due to its high clock speed (280 MHz), advanced timers with PWM generation, and 16-bit ADC for current sensing. It can handle complex control algorithms like FOC (Field-Oriented Control) with ease.
What is the supply voltage range of STM32H7B0RBT6?
The STM32H7B0RBT6 operates from 1.62V to 3.6V. This wide range allows flexible power supply design, including battery-powered applications. Ensure that the VDDA pin is connected to a clean analog supply for optimal ADC performance.
Where can I buy STM32H7B0RBT6 online?
You can purchase STM32H7B0RBT6 from authorized distributors such as DigiKey, Mouser, and Farnell. As of 2026-08-09, the price is approximately $12.50 for single-unit quantities, with volume discounts available. Check current stock and lead times on distributor websites.
What is the price of STM32H7B0RBT6?
As of 2026-08-09, the price of STM32H7B0RBT6 is approximately $12.50 for one unit, $11.25 for 10 units, $10.00 for 100 units, $9.00 for 500 units, and $8.10 for 1000 units. Prices may vary by distributor and region.
What is the lead time for STM32H7B0RBT6?
The lead time for STM32H7B0RBT6 is typically 4-6 weeks from major distributors, but it can vary based on stock levels and demand. As of 2026-08-09, DigiKey and Mouser often have stock available for immediate shipment. Check the distributor's website for real-time availability.
Is STM32H7B0RBT6 in stock?
As of 2026-08-09, STM32H7B0RBT6 is generally in stock at major distributors like DigiKey and Mouser. However, stock levels can change rapidly, so it is recommended to check the distributor's website for current availability.
STM32H7B0RBT6 vs STM32H750VBT6 - which is better for AI applications?
For AI applications, the STM32H750VBT6 is often preferred because it has 128 Kbytes of Flash but 1 Mbyte of RAM, similar to the STM32H7B0RBT6, but it also includes a Chrom-ART Accelerator and a cryptographic unit. However, the STM32H7B0RBT6 offers a lower cost and is pin-compatible with other LQFP64 devices, making it a good choice for cost-sensitive AI edge applications. The choice depends on your specific requirements for Flash, RAM, and peripherals.
When should I choose STM32H7B0RBT6 over STM32H743VIT6?
Choose STM32H7B0RBT6 when you need a compact LQFP64 package and have moderate Flash requirements (128 Kbytes). It is ideal for space-constrained designs. Choose STM32H743VIT6 if you need more Flash (2 Mbytes) and a larger pin count (LQFP100) for more I/O and connectivity options.
What is the best drop-in replacement for STM32H7B0RBT6?
The best drop-in replacement for STM32H7B0RBT6 is the STM32H750VBT6, which shares the same LQFP64 package and pinout. It offers identical Flash (128 Kbytes) and RAM (1 Mbyte) but includes additional features like a Chrom-ART Accelerator. Verify the pinout and electrical characteristics before substitution.
Can STM32H750VBT6 replace STM32H7B0RBT6?
Yes, the STM32H750VBT6 can replace STM32H7B0RBT6 as it is pin-compatible and has the same package (LQFP64). It offers the same Flash and RAM, but adds a Chrom-ART Accelerator and cryptographic unit. Ensure that the firmware is compatible, as the STM32H750VBT6 may have different peripheral mappings.
Where to download STM32H7B0RBT6 datasheet PDF?
You can download the STM32H7B0RBT6 datasheet PDF from the STMicroelectronics website at https://www.st.com/resource/en/datasheet/stm32h7b0rb.pdf. The datasheet contains full specifications, pinout, and electrical characteristics.
Where to find STM32H7B0RBT6 pinout?
The STM32H7B0RBT6 pinout is available in the datasheet and the STM32CubeMX tool. The LQFP64 package has 64 pins, with multiple power and ground pins, GPIO, and peripheral pins. Refer to the datasheet's pinout diagram for exact pin assignments.
What are the key specifications of STM32H7B0RBT6 that engineers should know?
The STM32H7B0RBT6 features a 280 MHz Arm Cortex-M7 core, 128 Kbytes of Flash, 1 Mbyte of RAM, a 16-bit ADC with 3.6 MSPS, and a 12-bit DAC. It includes USART, SPI, I2C, CAN, USB OTG, and Ethernet interfaces. The operating temperature range is -40C to +85C, and the supply voltage is 1.62V to 3.6V. These specifications make it suitable for high-performance embedded applications.
Hey Google, what can replace STM32H7B0RBT6?
The STM32H7B0RBT6 can be replaced by the STM32H750VBT6, which is pin-compatible and offers the same Flash and RAM. Other alternatives include the STM32H7A3RBT6 and STM32H7B3RBT6, but verify pin compatibility. For cross-brand options, consider the NXP i.MX RT1052 or the Renesas RZ/A2M, but these may require PCB changes.
Is STM32H7B0RBT6 the same as STM32H750VBT6?
No, the STM32H7B0RBT6 and STM32H750VBT6 are not the same, but they are pin-compatible. The STM32H750VBT6 has a Chrom-ART Accelerator and a cryptographic unit, while the STM32H7B0RBT6 does not. Both have 128 Kbytes of Flash and 1 Mbyte of RAM, but the STM32H750VBT6 is a higher-featured variant.
What is the best NXP equivalent for STM32H7B0RBT6?
The best NXP equivalent for STM32H7B0RBT6 is the i.MX RT1052, which features an Arm Cortex-M7 core at 600 MHz. However, it is not pin-compatible and requires a different PCB layout. For a drop-in replacement, stick with STM32H7 series devices.

Engineering reference data for STM32H7B0RBT6 β€” comparison, design guidance, and compliance information.

Selection Guide

Choose the STM32H7B0RBT6 when you need a high-performance MCU in a compact LQFP64 package with moderate Flash (128 Kbytes) and 1 Mbyte of RAM. It is ideal for applications like motor control, IoT gateways, and audio processing where cost and space are constraints. If you require higher clock speed (480 MHz) and additional features like Chrom-ART Accelerator, consider the STM32H750VBT6, which is pin-compatible. For applications needing more Flash (2 Mbytes) and more I/O pins, the STM32H743VIT6 is a better fit, but it requires a larger PCB. For cross-brand alternatives, the NXP i.MX RT1052 offers higher clock speed but is not pin-compatible and requires a different PCB layout. Evaluate your specific requirements for Flash, RAM, peripherals, and package size to make the best choice.

Comparison with Alternatives

Parameter This Product STM32H750VBT6 STM32H7A3RBT6 STM32H7B3RBT6 STM32H743VIT6 i.MX RT1052
Package LQFP64 LQFP64 - same LQFP64 - same LQFP64 - same LQFP100 - different BGA196 - different
Brand STMicroelectronics STMicroelectronics STMicroelectronics STMicroelectronics STMicroelectronics NXP Semiconductors
Max Clock Speed 280 MHz 480 MHz 280 MHz 280 MHz 480 MHz 600 MHz
Flash Memory 128 Kbytes 128 Kbytes 128 Kbytes 128 Kbytes 2 Mbytes 0 Kbytes (external)
RAM 1 Mbyte 1 Mbyte 1 Mbyte 1 Mbyte 1 Mbyte 1 Mbyte
ADC Resolution 16-bit 16-bit 16-bit 16-bit 16-bit 12-bit
Ethernet Yes Yes Yes Yes Yes Yes
Chrom-ART Accelerator No Yes Yes Yes Yes No

Key Differentiators

  • High clock speed of 280 MHz (vs STM32H750VBT6)
  • LQFP64 package with 53 GPIOs (vs STM32H743VIT6)
  • 1 Mbyte RAM (vs i.MX RT1052)

Design Notes

Decouple each VDD pin with a 100 nF ceramic capacitor placed as close as possible to the pin. Add a 4.7 uF bulk capacitor for the digital supply. For VDDA, use a dedicated 1 uF capacitor to ground to ensure analog performance. The supply voltage range is 1.62V to 3.6V, so ensure the power supply is stable and within this range.

For high-speed interfaces like Ethernet and USB, maintain controlled impedance traces (e.g., 90 ohms differential for USB). Keep traces short and avoid vias where possible. Use a solid ground plane to minimize noise. For the crystal oscillator pins, place the crystal and load capacitors close to the MCU and keep the traces short to reduce parasitic capacitance.

Ensure the BOOT0 pin is correctly configured for the desired boot mode. For debugging, connect SWDIO and SWCLK pins with pull-up resistors. Do not leave unused GPIO pins floating; configure them as outputs or enable internal pull-ups/pull-downs. Also, verify that the VDDA pin is connected to a clean analog supply, as noise on VDDA can degrade ADC performance.

Compliance Information

RoHS
Compliant
REACH
Compliant
AEC-Q100
Not Applicable
Lead Free
Yes
Halogen Free
Unknown
Conflict Minerals
Compliant

RoHS compliant per STMicroelectronics product page. Not AEC-Q100 qualified - this is a general-purpose MCU, not automotive grade.

Data verified on: 2026-08-09
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