STMicroelectronics

STM32F767ZIT6 - 2MB Flash, 216MHz Cortex-M7 MCU | STMicroelectronics

Name: STM32F767ZIT6
Brand: STMicroelectronics
Price: 18.50 USD
Availability: InStock

MPN: STM32F767ZIT6 ✓ Active

In Stock (99,999) Ships in 1-3 business days

1.7 V to 3.6 V Vdss LQFP-144 (20x20 mm) Package 216 MHz Speed 2 MB Memory

$18.5 USD / Unit

MOQ: 1 |

Volume Pricing

Qty	Unit Price	Extended
1	$18.5	$18.50
10	$16.75	$167.50
100	$14.2	$1,420.00
500	$12.8	$6,400.00
1,000	$11.5	$11,500.00

ℹ️ All prices are in USD

View Datasheet (PDF) View Alternatives

Quantity

Drop-in alternatives for STM32F767ZIT6 — same package, pin-to-pin compatible. Different-package parts requiring PCB rework are excluded.

Quick Comparison Tool — Select alternative parts for side-by-side comparison:

STM32F767ZIT6TR

✅ Drop-In

📦 LQFP-144

Same die and package, tape and reel packaging variant

📋 Reference alternative (not in catalog)

STM32F767ZIT7

✅ Drop-In

📦 LQFP-144

Extended temperature range (-40C to +105C), same package and pinout

📋 Reference alternative (not in catalog)

STM32F746ZIT6

✅ Drop-In

📦 LQFP-144

No cryptographic accelerator, same package and pinout

📋 Reference alternative (not in catalog)

STM32F767ZIT6 Maximum Ratings & Electrical Characteristics

Core	ARM Cortex-M7
Max Clock Speed	216 MHz
Flash Memory	2 MB
SRAM	512 KB
GPIO Pins	114
Supply Voltage	1.7 V to 3.6 V
Operating Temperature	-40C to +85C
Package	LQFP-144 (20x20 mm)
Mounting Type	Surface Mount
DAC Channels	2 (12-bit)
ADC Channels	24 (12-bit)
Timers	12 (16/32-bit)
Communication Interfaces	USART, SPI, I2C, CAN, USB OTG, Ethernet
Cryptographic Acceleration	AES, DES, 3DES, SHA-1, SHA-256
RoHS Status	Compliant

STM32F767ZIT6 Pin Configuration

Pin 1	PE2 — GPIO / FMC_A23
Pin 2	PE3 — GPIO / FMC_A19
Pin 3	PE4 — GPIO / FMC_A20
Pin 4	PE5 — GPIO / FMC_A21
Pin 5	PE6 — GPIO / FMC_A22
Pin 6	VBAT — Battery backup supply
Pin 7	PC13 — GPIO / RTC_TAMP1
Pin 8	PC14 — GPIO / OSC32_IN
Pin 9	PC15 — GPIO / OSC32_OUT
Pin 10	PF0 — GPIO / FMC_A0
Pin 11	PF1 — GPIO / FMC_A1
Pin 12	PF2 — GPIO / FMC_A2
Pin 13	PF3 — GPIO / FMC_A3
Pin 14	PF4 — GPIO / FMC_A4
Pin 15	PF5 — GPIO / FMC_A5
Pin 16	VSS — Ground
Pin 17	VDD — Power supply 3.3V
Pin 18	PF6 — GPIO / FMC_NWAIT
Pin 19	PF7 — GPIO / FMC_NE1
Pin 20	PF8 — GPIO / FMC_NCE2
Pin 21	PF9 — GPIO / FMC_NCE3
Pin 22	PF10 — GPIO / FMC_NE2
Pin 23	PF11 — GPIO / FMC_NCE4_1
Pin 24	PF12 — GPIO / FMC_NE4
Pin 25	PF13 — GPIO / FMC_A6
Pin 26	PF14 — GPIO / FMC_A7
Pin 27	PF15 — GPIO / FMC_A8
Pin 28	PG0 — GPIO / FMC_A9
Pin 29	PG1 — GPIO / FMC_A10
Pin 30	PG2 — GPIO / FMC_A11
Pin 31	PG3 — GPIO / FMC_A12
Pin 32	PG4 — GPIO / FMC_A13
Pin 33	PG5 — GPIO / FMC_A14
Pin 34	PG6 — GPIO / FMC_NE3
Pin 35	PG7 — GPIO / FMC_INT
Pin 36	PG8 — GPIO / FMC_SDCLK
Pin 37	PG9 — GPIO / FMC_NE2
Pin 38	PG10 — GPIO / FMC_NE3
Pin 39	PG11 — GPIO / FMC_NCE4_2
Pin 40	PG12 — GPIO / FMC_NE4
Pin 41	PG13 — GPIO / FMC_A15
Pin 42	PG14 — GPIO / FMC_A16
Pin 43	PG15 — GPIO / FMC_A17
Pin 44	VSS — Ground
Pin 45	VDD — Power supply 3.3V
Pin 46	PD0 — GPIO / FMC_D2
Pin 47	PD1 — GPIO / FMC_D3
Pin 48	PD2 — GPIO / FMC_D0
Pin 49	PD3 — GPIO / FMC_D1
Pin 50	PD4 — GPIO / FMC_D4
Pin 51	PD5 — GPIO / FMC_D5
Pin 52	PD6 — GPIO / FMC_D6
Pin 53	PD7 — GPIO / FMC_D7
Pin 54	PD8 — GPIO / FMC_D8
Pin 55	PD9 — GPIO / FMC_D9
Pin 56	PD10 — GPIO / FMC_D10
Pin 57	PD11 — GPIO / FMC_D11
Pin 58	PD12 — GPIO / FMC_D12
Pin 59	PD13 — GPIO / FMC_D13
Pin 60	PD14 — GPIO / FMC_D14
Pin 61	PD15 — GPIO / FMC_D15
Pin 62	PC0 — GPIO / ADC123_IN10
Pin 63	PC1 — GPIO / ADC123_IN11
Pin 64	PC2 — GPIO / ADC123_IN12
Pin 65	PC3 — GPIO / ADC123_IN13
Pin 66	VSSA — Analog ground
Pin 67	VREF+ — ADC reference voltage
Pin 68	VDDA — Analog power supply
Pin 69	PC4 — GPIO / ADC12_IN14
Pin 70	PC5 — GPIO / ADC12_IN15
Pin 71	PB2 — GPIO / BOOT1
Pin 72	PE7 — GPIO / FMC_D4
Pin 73	PE8 — GPIO / FMC_D5
Pin 74	PE9 — GPIO / FMC_D6
Pin 75	PE10 — GPIO / FMC_D7
Pin 76	PE11 — GPIO / FMC_D8
Pin 77	PE12 — GPIO / FMC_D9
Pin 78	PE13 — GPIO / FMC_D10
Pin 79	PE14 — GPIO / FMC_D11
Pin 80	PE15 — GPIO / FMC_D12
Pin 81	PB10 — GPIO / I2C2_SCL
Pin 82	PB11 — GPIO / I2C2_SDA
Pin 83	VSS — Ground
Pin 84	VDD — Power supply 3.3V
Pin 85	PB12 — GPIO / SPI2_NSS
Pin 86	PB13 — GPIO / SPI2_SCK
Pin 87	PB14 — GPIO / SPI2_MISO
Pin 88	PB15 — GPIO / SPI2_MOSI
Pin 89	PD8 — GPIO / USART3_TX
Pin 90	PD9 — GPIO / USART3_RX
Pin 91	PD10 — GPIO / USART3_CK
Pin 92	PD11 — GPIO / USART3_CTS
Pin 93	PD12 — GPIO / USART3_RTS
Pin 94	PD13 — GPIO / USART3_DE
Pin 95	PD14 — GPIO / USART3_IRDA
Pin 96	PD15 — GPIO / USART3_IRDA
Pin 97	PC6 — GPIO / I2S2_MCK
Pin 98	PC7 — GPIO / I2S2_SCK
Pin 99	PC8 — GPIO / I2S2_SD
Pin 100	PC9 — GPIO / I2S2_WS
Pin 101	PA0 — GPIO / ADC123_IN0
Pin 102	PA1 — GPIO / ADC123_IN1
Pin 103	PA2 — GPIO / ADC123_IN2
Pin 104	PA3 — GPIO / ADC123_IN3
Pin 105	VSS — Ground
Pin 106	VDD — Power supply 3.3V
Pin 107	PA4 — GPIO / ADC12_IN4
Pin 108	PA5 — GPIO / ADC12_IN5
Pin 109	PA6 — GPIO / ADC12_IN6
Pin 110	PA7 — GPIO / ADC12_IN7
Pin 111	PC4 — GPIO / ADC12_IN14
Pin 112	PC5 — GPIO / ADC12_IN15
Pin 113	PB0 — GPIO / ADC12_IN8
Pin 114	PB1 — GPIO / ADC12_IN9
Pin 115	PB2 — GPIO / BOOT1
Pin 116	PE7 — GPIO / FMC_D4
Pin 117	PE8 — GPIO / FMC_D5
Pin 118	PE9 — GPIO / FMC_D6
Pin 119	PE10 — GPIO / FMC_D7
Pin 120	PE11 — GPIO / FMC_D8
Pin 121	PE12 — GPIO / FMC_D9
Pin 122	PE13 — GPIO / FMC_D10
Pin 123	PE14 — GPIO / FMC_D11
Pin 124	PE15 — GPIO / FMC_D12
Pin 125	PB10 — GPIO / I2C2_SCL
Pin 126	PB11 — GPIO / I2C2_SDA
Pin 127	VSS — Ground
Pin 128	VDD — Power supply 3.3V
Pin 129	PB12 — GPIO / SPI2_NSS
Pin 130	PB13 — GPIO / SPI2_SCK
Pin 131	PB14 — GPIO / SPI2_MISO
Pin 132	PB15 — GPIO / SPI2_MOSI
Pin 133	PD8 — GPIO / USART3_TX
Pin 134	PD9 — GPIO / USART3_RX
Pin 135	PD10 — GPIO / USART3_CK
Pin 136	PD11 — GPIO / USART3_CTS
Pin 137	PD12 — GPIO / USART3_RTS
Pin 138	PD13 — GPIO / USART3_DE
Pin 139	PD14 — GPIO / USART3_IRDA
Pin 140	PD15 — GPIO / USART3_IRDA
Pin 141	PC6 — GPIO / I2S2_MCK
Pin 142	PC7 — GPIO / I2S2_SCK
Pin 143	PC8 — GPIO / I2S2_SD
Pin 144	PC9 — GPIO / I2S2_WS

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

STM32F767ZIT6 is suitable for 6 applications: Industrial Motor Control, Human-Machine Interface (HMI), IoT Gateway, Audio Processing, Power Conversion, Medical Monitoring.

🏭

Industrial Motor Control

The STM32F767ZIT6 is ideal for industrial motor control due to its advanced timers with complementary PWM outputs, high-resolution ADCs for current sensing, and the Cortex-M7 core's real-time processing capability. In a typical field-oriented control (FOC) application, the MCU reads phase currents via ADCs, executes the FOC algorithm at 20 kHz, and generates PWM signals to drive an IGBT or MOSFET inverter. The 216 MHz clock ensures low latency, while the 2 MB Flash accommodates complex control algorithms and safety firmware. The device's Ethernet MAC enables remote monitoring and diagnostics, and its cryptographic accelerator secures communication. With a wide operating temperature range and robust peripherals, it meets the reliability demands of industrial environments.

Recommended

STGIPN3H60 (IGBT inverter module for motor drive) ACS712 (Current sensor for phase current feedback)

📺

Human-Machine Interface (HMI)

The STM32F767ZIT6 excels in HMI applications with its integrated TFT LCD controller supporting up to XGA resolution and the Chrom-ART Accelerator for 2D graphics. This allows direct driving of graphical displays without external controllers, reducing BOM cost and complexity. The 2 MB Flash provides ample space for GUI libraries like TouchGFX or STemWin, while the 512 KB SRAM supports frame buffering. The device's multiple communication interfaces (UART, SPI, I2C, USB) enable connection to touch controllers, external memory, and host systems. The high-performance Cortex-M7 core ensures smooth animations and responsive touch response. For industrial HMIs, the wide temperature range and robust design ensure reliable operation in harsh environments.

Recommended

FT5x06 (Capacitive touch controller) MT46V32M16 (SDRAM for frame buffer expansion)

🌐

IoT Gateway

The STM32F767ZIT6 is well-suited for IoT gateways due to its Ethernet MAC, multiple UARTs, SPI, I2C, and USB OTG interfaces, enabling connection to various sensors and cloud services. The hardware cryptographic accelerator (AES, SHA) and TRNG provide secure communication protocols like TLS. The 2 MB Flash and 512 KB SRAM support protocol stacks (MQTT, HTTP) and edge processing. The Cortex-M7 core's high performance allows data aggregation, filtering, and local decision-making. The device's low-power modes (Stop, Standby) enable energy-efficient operation, and the wide supply voltage range supports battery-powered designs. With its rich connectivity and security features, it serves as a powerful hub for industrial and smart-home IoT networks.

Recommended

LAN8742A (Ethernet PHY for MAC interface) ESP8266 (Wi-Fi module for wireless connectivity)

🎧

Audio Processing

The STM32F767ZIT6 is ideal for audio processing applications such as audio effects processors, voice recognition, and multi-channel audio systems. Its Cortex-M7 core with DSP instructions and double-precision FPU handles complex algorithms like FIR/IIR filters, FFT, and audio codecs. The device includes two 16-bit DACs and multiple I2S interfaces for high-quality audio input/output. The 2 MB Flash can store audio samples or code, and the 512 KB SRAM supports buffering. The Chrom-ART Accelerator can also be used for audio visualization. With a clock speed of 216 MHz, the MCU can process multiple audio streams in real-time. The low-latency interrupt handling ensures glitch-free audio playback.

Recommended

CS42L51 (Audio codec for high-fidelity audio) TAS5754M (Digital audio amplifier)

⚡

Power Conversion

The STM32F767ZIT6 is used in digital power conversion systems such as switch-mode power supplies (SMPS), inverters, and battery chargers. Its advanced timers generate high-resolution PWM signals (up to 216 MHz) for precise control of power switches. The fast ADCs (up to 4 MSPS) enable accurate voltage and current sensing for closed-loop control. The Cortex-M7 core executes control algorithms like PID or predictive control at high loop rates (100 kHz+). The device's multiple communication interfaces allow monitoring and configuration via UART or CAN. The wide temperature range and robust peripherals make it suitable for industrial power supplies. The cryptographic accelerator can secure firmware updates and communication.

Recommended

IR2110 (Gate driver for MOSFET/IGBT) TL431 (Voltage reference for feedback)

💊

Medical Monitoring

The STM32F767ZIT6 is suitable for medical monitoring devices such as patient monitors, wearable health trackers, and diagnostic equipment. Its high-performance core processes biosignals (ECG, EEG) in real-time, while the multiple ADCs (24 channels) interface with analog front-ends. The device's low-power modes extend battery life in portable devices. The cryptographic accelerator ensures secure data transmission, complying with healthcare regulations. The TFT LCD controller can display waveforms and vital signs. The 2 MB Flash stores patient data and firmware, and the 512 KB SRAM supports buffering. The wide operating temperature range and reliability make it suitable for medical environments.

Recommended

ADS1298 (Biopotential ADC for ECG/EEG) MAX30102 (Pulse oximeter sensor)

Recommended Products Summary

STGIPN3H60 IGBT inverter module for motor drive Used in: Industrial Motor Control ACS712 Current sensor for phase current feedback Used in: Industrial Motor Control FT5x06 Capacitive touch controller Used in: Human-Machine Interface (HMI) MT46V32M16 SDRAM for frame buffer expansion Used in: Human-Machine Interface (HMI) LAN8742A Ethernet PHY for MAC interface Used in: IoT Gateway ESP8266 Wi-Fi module for wireless connectivity Used in: IoT Gateway CS42L51 Audio codec for high-fidelity audio Used in: Audio Processing TAS5754M Digital audio amplifier Used in: Audio Processing IR2110 Gate driver for MOSFET/IGBT Used in: Power Conversion TL431 Voltage reference for feedback Used in: Power Conversion ADS1298 Biopotential ADC for ECG/EEG Used in: Medical Monitoring MAX30102 Pulse oximeter sensor Used in: Medical Monitoring

What is the maximum clock speed of STM32F767ZIT6?

The STM32F767ZIT6 operates at a maximum clock speed of 216 MHz. According to the STMicroelectronics datasheet, this is achieved with the ARM Cortex-M7 core and zero-wait-state execution from Flash, delivering 1082 CoreMark points.

How much Flash and SRAM does STM32F767ZIT6 have?

The STM32F767ZIT6 has 2 MB of Flash memory and 512 KB of SRAM. This large memory capacity supports complex applications such as GUI stacks, audio processing, and IoT protocols without external memory.

What is the difference between STM32F767ZIT6 and STM32F746ZIT6?

The STM32F767ZIT6 has a higher maximum clock speed (216 MHz vs 216 MHz for F746) and includes a hardware cryptographic accelerator and true random number generator, which the F746 lacks. Both share the same LQFP-144 package and pinout, making them drop-in replacements for many designs.

Is STM32F767ZIT6 suitable for motor control applications?

Yes, the STM32F767ZIT6 is suitable for motor control due to its advanced timers with complementary PWM outputs, 12-bit ADCs for current sensing, and high-speed Cortex-M7 core for real-time control loops. It supports field-oriented control (FOC) for BLDC and PMSM motors.

What is the operating voltage range of STM32F767ZIT6?

The STM32F767ZIT6 operates from 1.7V to 3.6V. This wide range allows battery-powered applications to run down to 1.7V, though the internal regulator and Flash programming require a minimum of 2.7V for some operations.

Does STM32F767ZIT6 support Ethernet connectivity?

Yes, the STM32F767ZIT6 includes a 10/100 Ethernet MAC with dedicated DMA and supports IEEE 1588 precision time protocol. This makes it ideal for industrial IoT gateways and networked control systems.

What is the price of STM32F767ZIT6?

As of 2026-08-05, the price of STM32F767ZIT6 is approximately $18.50 for single-unit quantities, dropping to $11.50 at 1000 units. Prices vary by distributor and availability.

Where can I buy STM32F767ZIT6 online?

You can buy STM32F767ZIT6 from major distributors such as DigiKey, Mouser, and Arrow. As of 2026-08-05, it is in stock at DigiKey and Mouser with lead times typically 1-2 weeks for larger quantities.

What is the lead time for STM32F767ZIT6?

The lead time for STM32F767ZIT6 is typically 1-2 weeks for standard quantities from distributors like DigiKey and Mouser. For large volume orders, lead time may extend to 8-12 weeks depending on supply chain conditions.

What is the best drop-in replacement for STM32F767ZIT6?

The best drop-in replacement for STM32F767ZIT6 is the STM32F767ZIT6TR (tape and reel variant) or the STM32F767ZIT7 (extended temperature range). Both share the same LQFP-144 package and pinout, with param_match_percentage of 100%.

Can STM32F767ZIT6 be replaced by STM32F746ZIT6?

Yes, the STM32F746ZIT6 can replace STM32F767ZIT6 in most designs as it shares the same LQFP-144 package and pinout. However, the F767 adds a cryptographic accelerator and TRNG, so applications requiring these features must use the F767.

When should I choose STM32F767ZIT6 over STM32F746ZIT6?

Choose STM32F767ZIT6 when you need hardware cryptographic acceleration (AES, SHA) or a true random number generator for secure communication. If these features are not required, the STM32F746ZIT6 offers similar performance at a lower cost.

Where can I download the STM32F767ZIT6 datasheet PDF?

You can download the STM32F767ZIT6 datasheet PDF from the STMicroelectronics website at https://www.st.com/resource/en/datasheet/stm32f767zi.pdf. The datasheet contains full specifications, pinout, and electrical characteristics.

Where can I find the STM32F767ZIT6 pinout?

The STM32F767ZIT6 pinout is detailed in the datasheet (Section 4) and in the STM32CubeMX tool. The LQFP-144 package has 114 GPIOs, with pin functions configurable via software.

What development tools are compatible with STM32F767ZIT6?

The STM32F767ZIT6 is supported by STM32CubeIDE, Keil MDK, IAR EWARM, and GCC-based toolchains. STM32CubeMX provides graphical configuration for pinout, clocks, and peripherals.

Is STM32F767ZIT6 RoHS compliant?

Yes, the STM32F767ZIT6 is RoHS compliant and lead-free. It is also REACH compliant, and the package is halogen-free per STMicroelectronics environmental compliance documentation.

What is the power consumption of STM32F767ZIT6?

The power consumption of STM32F767ZIT6 depends on operating mode. In Run mode at 216 MHz with all peripherals enabled, it draws approximately 250 mA. In Stop mode, consumption drops to around 20 uA, and in Standby mode to 2 uA.

Does STM32F767ZIT6 have a TFT LCD controller?

Yes, the STM32F767ZIT6 includes a TFT LCD controller supporting up to XGA resolution (1024x768) with 24-bit RGB output. This enables direct connection to graphical displays without an external controller.

What is the package size of STM32F767ZIT6?

The STM32F767ZIT6 is available in a 144-pin LQFP package with a 20x20 mm body and 0.5 mm pitch. The package height is 1.4 mm, making it suitable for compact PCB designs.

Is STM32F767ZIT6 suitable for audio processing?

Yes, the STM32F767ZIT6 is suitable for audio processing due to its high-speed Cortex-M7 core with DSP instructions, 2x 16-bit DACs, and multiple I2S interfaces. It can handle real-time audio effects, voice recognition, and audio codec interfacing.

Engineering reference data for STM32F767ZIT6 — comparison, design guidance, and compliance information.

Selection Guide

Choose STM32F767ZIT6 when you need high performance (216 MHz Cortex-M7), large memory (2 MB Flash, 512 KB SRAM), and hardware security features (crypto accelerator, TRNG) for applications like IoT gateways, HMI, and motor control. If you require an extended temperature range (-40C to +105C), select the STM32F767ZIT7 variant. If you do not need the cryptographic accelerator and can accept less memory, the STM32F746ZIT6 offers similar performance at a lower cost. For tape and reel assembly, use the STM32F767ZIT6TR variant. All alternatives share the same LQFP-144 package and pinout, enabling PCB layout reuse.

Comparison with Alternatives

Parameter	This Product	STM32F767ZIT6TR	STM32F767ZIT7	STM32F746ZIT6
Package	LQFP-144	LQFP-144 - same	LQFP-144 - same	LQFP-144 - same
Max Clock Speed	216 MHz	216 MHz	216 MHz	216 MHz
Flash Memory	2 MB	2 MB	2 MB	1 MB
SRAM	512 KB	512 KB	512 KB	320 KB
Cryptographic Acceleration	Yes (AES, DES, SHA)	Yes	Yes	No
Operating Temperature	-40C to +85C	-40C to +85C	-40C to +105C	-40C to +85C
Ethernet MAC	Yes	Yes	Yes	Yes
Price (1pc)	$18.50	$18.50	$19.20	$15.80

Key Differentiators

Hardware cryptographic accelerator (vs STM32F746ZIT6)
Larger memory (vs STM32F746ZIT6)
Extended temperature option (vs STM32F767ZIT6TR)

Design Notes

Decouple each VDD pin with a 100 nF ceramic capacitor placed as close as possible to the pin, and add a 4.7 uF bulk capacitor per supply group. Use a 1 uF capacitor on VCAP1 and VCAP2 pins for the internal regulator. Ensure VDDA is filtered with a ferrite bead and 1 uF capacitor to reduce noise for analog peripherals.

For the LQFP-144 package, use a 4-layer PCB with a solid ground plane. Route high-speed signals (Ethernet, USB) with controlled impedance (50 ohm for single-ended, 90 ohm differential for USB). Keep crystal oscillator traces short and shielded with ground pour. Follow ST's layout guidelines in AN4666 for optimal performance.

The STM32F767ZIT6 in LQFP-144 has a thermal resistance (theta_JA) of approximately 40 C/W. At 216 MHz with all peripherals active, power dissipation can reach 800 mW, causing a 32C temperature rise. Ensure adequate airflow or a thermal pad connected to a copper pour for high-ambient-temperature applications.