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Contents

   



(Top)
 


1 Overview  





2 History  





3 Series  



3.1  STM32 F0  





3.2  STM32 F1  





3.3  STM32 F2  





3.4  STM32 F3  





3.5  STM32 F4  





3.6  STM32 F7  





3.7  STM32 G0  





3.8  STM32 G4  





3.9  STM32 H7  





3.10  STM32 L0  





3.11  STM32 L1  





3.12  STM32 L4  





3.13  STM32 L4+  





3.14  STM32 L5  





3.15  STM32 U0  





3.16  STM32 U5  







4 Development boards  



4.1  Arduino Nano style  





4.2  Arduino Uno style  





4.3  ST Nucleo  





4.4  ST Discovery  





4.5  ST Evaluation  







5 Development tools  



5.1  ARM Cortex-M  





5.2  STM32  







6 Documentation  





7 Part number decoding  





8 See also  





9 References  





10 Further reading  





11 External links  














STM32






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From Wikipedia, the free encyclopedia
 


STM32 Family[1]
STM32H7 series IC
General information
Launched2007
DiscontinuedCurrent
Designed bySTMicroelectronics
Performance
Max. CPU clock rate24  to 480 MHz
Architecture and classification
Technology node180 to 40 nm
MicroarchitectureARM Cortex-M0,[2] ARM Cortex-M0+,[3] ARM Cortex-M3,[4] ARM Cortex-M4,[5] ARM Cortex-M7,[6] ARM Cortex-M33

STM32 is a family of 32-bit microcontroller integrated circuitsbySTMicroelectronics. The STM32 chips are grouped into related series that are based around the same 32-bit ARM processor core: Cortex-M0, Cortex-M0+, Cortex-M3, Cortex-M4, Cortex-M7, Cortex-M33. Internally, each microcontroller consists of ARM processor core(s), flash memory, static RAM, debugging interface, and various peripherals.[1]

Overview[edit]

STM32F100C4T6B die

The STM32 is a family of microcontroller ICs based on various 32-bit RISC ARM Cortex-M cores.[1] STMicroelectronics licenses the ARM Processor IP from ARM Holdings. The ARM core designs have numerous configurable options, and ST chooses the individual configuration to use for each design. ST attaches its own peripherals to the core before converting the design into a silicon die. The following tables summarize the STM32 microcontroller families.

STM32 series ARM CPU core(s)

F0

Cortex-M0

C0, G0, L0, U0

Cortex-M0+

F1, F2, L1

Cortex-M3

F3, F4, G4, L4, L4+

Cortex-M4

WB, WL

M4 & M0+ (2 core)

F7

Cortex-M7

H7

M7 (1 core), M7 & M4 (2 core)

H5, L5, U5, WBA

Cortex-M33

History[edit]

STM32F103VGT6 die
STM32F103 IC

The STM32 is the third ARM family by STMicroelectronics. It follows their earlier STR9 family based on the ARM9E core,[7] and STR7 family based on the ARM7TDMI core.[8] The following is the history of how the STM32 family has evolved.

Date Announcement
October 2006 STMicroelectronics licensed the ARM Cortex-M3 core
June 2007 ST announced the STM32 F1-series based on the ARM Cortex-M3
October 2009 ST announced new ARM chips would be built using the 90 nm process
April 2010 ST announced the STM32 L1-series chips
November 2010 ST announced the STM32 F2-series chips based on the ARM Cortex-M3 core, and future development
March 2011 ST announced the expansion of their STM32 L1-series chips with flash densities of 256 KB and 384 KB
September 2011 ST announced the STM32 F4-series chips based on the ARM Cortex-M4F core
February 2012 ST announced the STM32 F0-series chips based on the ARM Cortex-M0 core
June 2012 ST announced the STM32 F3-series chips based on the ARM Cortex-M4F core
January 2013 ST announced full Java support for STM32 F2 and F4-series chips
February 2013 ST announced STM32 Embedded Coder support for MATLAB and Simulink
February 2013 ST announced the STM32 F4x9-series chips
April 2013 ST announced the STM32 F401-series chips
July 2013 ST announced the STM32 F030-series chips and availability in a TSSOP20 package
December 2013 ST announced that it is joining the mbed project
January 2014 ST announced the STM32 F0x2-series chips
February 2014 ST announced the STM32 L0-series chips based on the ARM Cortex-M0+ core
February 2014 ST announced multiple STM32 Nucleo boards with Arduino headers and mbed IDE
February 2014 ST announced the release of free STM32Cube software tool with graphical configurator and C code
September 2014 ST announced the STM32 F7 series, the first chips based on the Cortex-M7F core
October 2016 STM32H7 series announced, based on ARM Cortex-M7F core, produced using 40 nm technology, runs at 400 MHz
November 2017 STM32L4+ series announced, an upgrade to STM32L4 series Cortex-M4 MCUs
October 2018 STM32L5 series announced, ultra-low-power MCUs based on ARM Cortex-M33 core with various security features
February 2021 STM32U5 series announced, ultra-low-power MCUs based on ARM Cortex-M33 core with low power and hardware & software-based security measures targeting PSA Certified and SESIP assurance level 3 with physical attacker resistance
January 2023 STM32C0 series announced, based on ARM Cortex-M0+ core, targeting equipment like home appliances, industrial pumps, fans, smoke detectors, typically served by simpler 8-bit and 16-bit MCUs.
March 2023 STM32H5 series announced, based on ARM Cortex-M33 core, designed for smart, connected devices, which provide more intelligence “in the edge” and also strengthens defenses against attacks on IoT assets.
March 2024 STM32U0 series announced, based on ARM Cortex-M0+ core, targeting ultra-low power entry-level battery-powered applications in industrial, medical, smart metering, and consumer wellness markets.

Series[edit]

The STM32 family consists of many series of microcontrollers: C0, F0, F1, F2, F3, F4, F7, G0, G4, H5, H7, L0, L1, L4, L4+, L5, U0, U5, WBA, WB, WL.[1] Each STM32 microcontroller series is based upon a specific ARM Cortex-M processor core.

STM32 F0[edit]

STM32 F0 series[9]
General information
Launched2012
Discontinuedcurrent
Performance
Max. CPU clock rate48 MHz
Architecture and classification
Technology node180 nm[10]
MicroarchitectureARM Cortex-M0[2]
Instruction setThumb-1 (most),
Thumb-2 (some)

The STM32 F0-series are the first group of ARM Cortex-M0 chips in the STM32 family. The summary for this series is:[11][12][13][9]

STM32 F1[edit]

STM32 F1 series[15]
General information
Launched2007
Discontinuedcurrent
Performance
Max. CPU clock rate24  to 72 MHz
Architecture and classification
MicroarchitectureARM Cortex-M3[4]
Instruction setThumb-1, Thumb-2,
Saturated (some)

The STM32 F1-series was the first group of STM32 microcontrollers based on the ARM Cortex-M3 core and considered their mainstream ARM microcontrollers. The F1-series has evolved over time by increasing CPU speed, size of internal memory, variety of peripherals. There are five F1 lines: Connectivity (STM32F105/107), Performance (STM32F103), USB Access (STM32F102), Access (STM32F101), Value (STM32F100). The summary for this series is:[15][16][17]

STM32 F2[edit]

STM32 F2 series[18]
General information
Launched2010
Discontinuedcurrent
Performance
Max. CPU clock rate120 MHz
Architecture and classification
Technology node90 nm
MicroarchitectureARM Cortex-M3[4]
Instruction setThumb-1, Thumb-2,
Saturated (some)

The STM32 F2-series of STM32 microcontrollers based on the ARM Cortex-M3 core. It is the most recent and fastest Cortex-M3 series. The F2 is pin-to-pin compatible with the STM32 F4-series. The summary for this series is:[19][18][20]

STM32 F3[edit]

STM32 F3 series[21]
General information
Launched2012
Discontinuedcurrent
Performance
Max. CPU clock rate72 MHz to 72 MHz
Architecture and classification
MicroarchitectureARM Cortex-M4F[5]
Instruction setThumb-1, Thumb-2,
Saturated, DSP,
FPU (SP)

The STM32 F3-series is the second group of STM32 microcontrollers based on the ARM Cortex-M4F core. The F3 is almost pin-to-pin compatible with the STM32 F1-series. The summary for this series is:[22][23][21]

The distinguishing feature for this series is presence of four fast, 12-bit, simultaneous sampling ADCs (multiplexer to over 30 channels), and four matched, 8 MHz bandwidth op-amps with all pins exposed and additionally internal PGA (Programmable Gain Array) network. The exposed pads allow for a range of analog signal conditioning circuits like band-pass filters, anti-alias filters, charge amplifiers, integrators/differentiators, 'instrumentation' high-gain differential inputs, and other. This eliminates need for external op-amps for many applications. The built-in two-channel DAC has arbitrary waveform as well as a hardware-generated waveform (sine, triangle, noise etc.) capability. All analog devices can be completely independent, or partially internally connected, meaning that one can have nearly everything that is needed for an advanced measurement and sensor interfacing system in a single chip.

The four ADCs can be simultaneously sampled making a wide range of precision analog control equipment possible. It is also possible to use a hardware scheduler for the multiplexer array, allowing good timing accuracy when sampling more than 4 channels, independent of the main processor thread. The sampling and multiplexing trigger can be controlled from a variety of sources including timers and built-in comparators, allowing for irregular sampling intervals where needed.

STM32F37/38xxx integrate a 14-effective number of bits delta-sigma ADC.[24]

The op-amps inputs feature 2-to-1 analog multiplexer, allowing for a total of eight analog channels to be pre-processed using the op-amp; all the op-amp outputs can be internally connected to ADCs.

STM32 F4[edit]

STM32 F4 Series[25]
General information
Launched2011
Discontinuedcurrent
Performance
Max. CPU clock rate84  to 180 MHz
Architecture and classification
Technology node90 nm
MicroarchitectureARM Cortex-M4F[5]
Instruction setThumb-1, Thumb-2,
Saturated, DSP,
FPU (SP)

The STM32 F4-series is the first group of STM32 microcontrollers based on the ARM Cortex-M4F core. The F4-series is also the first STM32 series to have DSP and floating-point instructions. The F4 is pin-to-pin compatible with the STM32 F2-series and adds higher clock speed, 64 KB CCM static RAM, full-duplex I²S, improved real-time clock, and faster ADCs. The summary for this series is:[26][27][28][25][29]

STM32 F7[edit]

STM32 F7 series[31]
General information
Launched2014
Discontinuedcurrent
Performance
Max. CPU clock rate216 MHz
Architecture and classification
Technology node90nm
MicroarchitectureARM Cortex-M7F
Instruction setThumb-1, Thumb-2,
Saturated, DSP,
FPU (SP &DP)

The STM32 F7-series is a group of STM32 microcontrollers based on the ARM Cortex-M7F core. Many of the F7 series are pin-to-pin compatible with the STM32 F4-series.

Core:

Many of STM32F76xxx and STM32F77xxx models have a digital filter for sigma-delta modulators (DFSDM) interface.[30]

STM32 G0[edit]

STM32 G0 series[32]
General information
Launched2018
Discontinuedcurrent
Performance
Max. CPU clock rate64 MHz
Architecture and classification
Technology node90 nm[10]
MicroarchitectureARM Cortex-M0+[3]
Instruction setThumb-1 (most),
Thumb-2 (some)

The STM32 G0-series is a next generation of Cortex-M0/M0+ microcontrollers for budget market segment, offering the golden mean in productivity and power efficiency, e.g. better power efficiency and performance compared to the older F0 series and higher performance compared to ultra low power L0 series[10]

STM32 G4[edit]

STM32 G4 series[34]
General information
Launched2019
Discontinuedcurrent
Performance
Max. CPU clock rate170 MHz
Architecture and classification
Technology node90 nm[10]
MicroarchitectureARM Cortex-M4F[5]
Instruction setThumb-1, Thumb-2,
Saturated, DSP,
FPU (SP)

The STM32 G4-series is a next generation of Cortex-M4F microcontrollers aiming to replace F3 series, offering the golden mean in productivity and power efficiency, e.g. better power efficiency and performance compared to the older F3/F4 series and higher performance compared to ultra low power L4 series, integrated several hardware accelerators.

STM32 H7[edit]

STM32 H7 series[35]
General information
Launched2017 Q2
Performance
Max. CPU clock rate480 MHz to 550 
Architecture and classification
Technology node40nm[36]
MicroarchitectureARM Cortex-M7F + optional ARM Cortex-M4F
Instruction setThumb-1, Thumb-2,
Saturated, DSP,
FPU (SP &DP)

The STM32 H7-series is a group of high performance STM32 microcontrollers based on the ARM Cortex-M7F core with double-precision floating point unit and optional second Cortex-M4F core with single-precision floating point. Cortex-M7F core can reach working frequency up to 480 MHz, while Cortex-M4F - up to 240 MHz. Each of these cores can work independently or as master/slave core.

The STM32H7 Series is the first series of STM32 microcontrollers in 40 nm process technology and the first series of ARM Cortex-M7-based microcontrollers which is able to run up to 480 MHz, allowing a performance boost versus previous series of Cortex-M microcontrollers, reaching new performance records of 1027 DMIPS and 2400 CoreMark. [37]

Digital filter for sigma-delta modulators (DFSDM) interface[30]

STM32 L0[edit]

STM32 L0 series[38]
General information
Launched2014
Discontinuedcurrent
Performance
Max. CPU clock rate32 MHz
Architecture and classification
MicroarchitectureARM Cortex-M0+[3]
Instruction setThumb-1 (most),
Thumb-2 (some)

The STM32 L0-series is the first group of STM32 microcontrollers based on the ARM Cortex-M0+ core. This series targets low power applications. The summary for this series is:[39][38]

STM32 L1[edit]

STM32 L1 series[40]
General information
Launched2010
Discontinuedcurrent
Performance
Max. CPU clock rate32 MHz
Architecture and classification
Technology node130 nm
MicroarchitectureARM Cortex-M3[4]
Instruction setThumb-1, Thumb-2,
Saturated (some)

The STM32 L1-series was the first group of STM32 microcontrollers with a primary goal of ultra-low power usage for battery-powered applications. The summary for this series is:[41][42][40][43]

STM32 L4[edit]

STM32 L4 series
General information
Launched2015
Discontinuedcurrent
Performance
Max. CPU clock rate80 MHz 
Architecture and classification
Technology node90 nm[10]
MicroarchitectureARM Cortex-M4F[5]
Instruction setThumb-1, Thumb-2,
Saturated, DSP,
FPU (SP)

The STM32 L4-series is an evolution of STM32L1-series of ultra-low power microcontrollers. An example of L4 MCU is STM32L432KC in UFQFPN32 package, that has:

STM32 L4+[edit]

STM32 L4+ series[44]
General information
Launched2016
Discontinuedcurrent
Performance
Max. CPU clock rate120 
Architecture and classification
Technology node90 nm[10]
MicroarchitectureARM Cortex-M4F[5]
Instruction setThumb-1, Thumb-2,
Saturated, DSP,
FPU (SP)

The STM32 L4+-series is expansion of STM32L4-series of ultra-low power microcontrollers, providing more performance, more embedded memory and richer graphics and connectivity features while keeping ultra-low-power capability.

Main features:

STM32 L5[edit]

STM32 L5 series[45]
General information
Launched2018
Discontinuedcurrent
Performance
Max. CPU clock rate110 MHz 
Architecture and classification
Technology node90 nm[46]
MicroarchitectureARM Cortex-M33F

The STM32 L5-series is an evolution of STM32L-series of ultra-low power microcontrollers:

STM32 U0[edit]

STM32 U0 series[47]
General information
Launched2024
Discontinuedcurrent
Performance
Max. CPU clock rate56 
Architecture and classification
Technology node90 nm[48]
MicroarchitectureARM Cortex-M0+[3]
Instruction setThumb-1 (most),
Thumb-2 (some)

The STM32 U0-series is an entry-level addition to the STM32-series of ultra-low power microcontrollers:

STM32 U5[edit]

STM32 U5 series[49]
General information
Launched2021
Discontinuedcurrent
Performance
Max. CPU clock rate160 
Architecture and classification
Technology node40 nm[46]
MicroarchitectureARM Cortex-M33F

The STM32 U5-series is an evolution of STM32L-series of ultra-low power microcontrollers:

Development boards[edit]

Arduino Nano style[edit]

Blue Pill board

The following boards have Arduino Nano pin-compatible male pin headers with 0.6-inch row-to-row DIP-30 footprint, but these boards have 3.3 volt logic I/O, instead of 5 volt logic I/O for an Arduino Nano.

Arduino Uno style[edit]

Leaflabs Maple board (obsolete)

The following boards have Arduino Uno pin-compatible female pin headers for Arduino shields, but these boards have 3.3 volt logic I/O, instead of 5 volt logic I/O for an Arduino Uno.

ST Nucleo[edit]

All Nucleo boards by STMicroelectronics support the mbed development environment,[58][59] and have an additional onboard ST-LINK/V2-1 host adapter chip which supplies SWD debugging, virtual COM port, and mass storage over USB. There are three Nucleo board families, each supporting a different microcontroller IC package footprint.[60] The debugger embedded on Nucleo boards can be converted to the SEGGER J-Link debugger protocol.[61]

Nucleo-32 boards[60][62]
Nucleo-64 boards[60][64]
NUCLEO-F411RE board (Nucleo-64 family)
Nucleo-144 boards[60][67]

ST Discovery[edit]

The following Discovery evaluation boards are sold by STMicroelectronics to provide a quick and easy way for engineers to evaluate their microcontroller chips. These kits are available from various distributors for less than US$20. The STMicroelectronics evaluation product licence agreement forbids their use in any production system or any product that is offered for sale.[68]

Each board includes an on-board ST-LINK for programming and debugging via a Mini-B USB connector. The power for each board is provided by a choice of the 5 V via the USB cable, or an external 5 V power supply. They can be used as output power supplies of 3 V or 5 V (current must be less than 100 mA). All Discovery boards also include a voltage regulator, reset button, user button, multiple LEDs, SWD header on top of each board, and rows of header pins on the bottom.[69]

An open-source project was created to allow Linux to communicate with the ST-LINK debugger.[70]

ChibiOS/RT, a free RTOS, has been ported to run on some of the Discovery boards.[71][72][73]

STM32L476GDISCOVERY
STM32F429IDISCOVERY
STM32F4DISCOVERY
STM32F4DISCOVERY board (obsolete)
STM32F401CDISCOVERY
STM32F3DISCOVERY
STM32VLDISCOVERY
STM32VLDISCOVERY board
STM32L-DISCOVERY
STM32L-DISCOVERY board (obsolete)
STM32L152CDISCOVERY
STM32L100CDISCOVERY
STM32F072BDISCOVERY
STM32F0DISCOVERY
STM32F0308DISCOVERY

ST Evaluation[edit]

The following evaluation kits are sold by STMicroelectronics.[79]

STM32W-RFCKIT
STM3220G-JAVA

A ready-to-use Java development kits for its STM32 microcontrollers. The STM3220G-JAVA Starter Kit combines an evaluation version of IS2T's MicroEJ Software Development Kit (SDK) and the STM32F2 series microcontroller evaluation board providing everything engineers need to start their projects. MicroEJ provides extended features to create, simulate, test and deploy Java applications in embedded systems. Support for Graphical User Interface (GUI) development includes a widget library, design tools including storyboarding, and tools for customizing fonts.[80] STM32 microcontrollers that embed Java have a Part Number that ends with J like STM32F205VGT6J.

Development tools[edit]

ARM Cortex-M[edit]

STM32[edit]

Design utilities
Flash programming via USART

All STM32 microcontrollers have a ROM'ed bootloader that supports loading a binary image into its flash memory using one or more peripherals (varies by STM32 family). Since all STM32 bootloaders support loading from the USART peripheral and most boards connect the USART to RS-232 or a USB-to-UART adapter IC, thus it's a universal method to program the STM32 microcontroller. This method requires the target to have a way to enable/disable booting from the ROM'ed bootloader (i.e. jumper / switch / button).

STM32CubeMX
STM32CubeIDE
STM32CubeProgrammer
STM32 C/C++ software libraries

Documentation[edit]

The amount of documentation for all ARM chips can be daunting, especially for newcomers. As microprocessors have increased in capability and complexity, the documentation has grown. The total documentation for all ARM chips consists of documents from the IC manufacturer (STMicroelectronics) and documents from CPU core vendor (ARM Holdings).

A typical top-down documentation tree is: manufacturer website, manufacturer marketing slides, manufacturer datasheet for the exact physical chip, manufacturer detailed reference manual that describes common peripherals and aspects of a physical chip family, ARM core generic user guide, ARM core technical reference manual, ARM architecture reference manual that describes the instruction set(s).

STM32 documentation tree (top to bottom)
  1. STM32 website.
  2. STM32 marketing slides.
  3. STM32 datasheet.
  4. STM32 reference manual.
  5. ARM core website.
  6. ARM core generic user guide.
  7. ARM core technical reference manual.
  8. ARM architecture reference manual.

STMicroelectronics has additional documents, such as: evaluation board user manuals, application notes, getting started guides, software library documents, errata, and more. See External Links section for links to official STM32 and ARM documents.

Part number decoding[edit]

Example:

STM32F407VG
  • splits into STM32 F4 07 V G
  • means: F4 series, 07 subtype, 100 pin, 1024 KB flash

Decoding:

STM32 xx ww y z
  • xx – Series family
  • ww – Subtype, differs by each series family
  • y – Package pin count
  • z – Flash memory size

See also[edit]

References[edit]

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  • Further reading[edit]

    External links[edit]

    STM32 Official Documents
    STM32
    Series
    STM32
    Website
    STM32
    Slides
    STM32
    Reference
    ARM
    CPU Core

    C0

    Link

    Cortex-M0+

    F0

    Link

    F0x1/2/8,
    F030

    Cortex-M0

    F1

    Link

    F101/2/3/5/7
    F100

    Cortex-M3

    F2

    Link

    F20x / F21x

    Cortex-M3

    F3

    Link

    F37x / F38x,
    F30x / F31x

    Cortex-M4F

    F4

    Link

    F4x5/7/9,
    F401

    Cortex-M4F

    F7

    Link

    Cortex-M7F

    G0

    Link

    Cortex-M0+

    G4

    Link

    Cortex-M4F

    H5

    Link

    Cortex-M33F

    H7

    Link

    Cortex-M7F, Cortex-M4F

    L0

    Link

    L0xx

    Cortex-M0+

    L1

    Link

    L1xx

    Cortex-M3

    L4

    Link

    Cortex-M4F

    L4+

    Link

    Cortex-M4F

    L5

    Link

    Cortex-M33F

    U5

    Link

    Cortex-M33F

    WBA

    Link

    Cortex-M33F

    WB

    Link

    Cortex-M4F, Cortex-M0+

    WL

    Link

    Cortex-M4, Cortex-M0+

    ARM Official Documents
    Other

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