STMicroelectronics

STM32G484CET6 - 170MHz 512KB Cortex-M4 MCU | STMicroelectronics

N.º de pieza: STM32G484CET6 ✓ Activo
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3 V Vdss 48-LQFP, 7 x 7 mm Package 170 MHz Speed 512 KB (512K x 8) Memory
Desde $8.0918 USD / unidad
MOQ: 1 |
Precio actualizado: 2026-10-22
Precios por volumen
Cant. Precio unitario Total
1 $8.0918 $8,09
10 $8.0918 $80,92
100 $8.0918 $809,18
500 $8.0918 $4.045,90
1.000 $8.0918 $8.091,80
3.000 $8.0918 $24.275,40
ℹ️ Todos los precios están en USD

STM32G484CET6 Descripción general

The STMicroelectronics STM32G484CET6 is a 32-bit Arm Cortex-M4 microcontroller with FPU, a 170 MHz maximum clock, 512 KB of Flash, and 128 KB of SRAM in a 48-LQFP 7 x 7 mm package. According to the manufacturer datasheet, it also provides rich analog resources, math acceleration, a 184 ps 12-channel high-resolution timer, and AES capability. These features place it in the STM32G4 mainstream MCU family, combining general-purpose embedded control with high-resolution timing and precision analog conversion.

An Arm Cortex-M4 MCU is a 32-bit RISC microcontroller used to execute embedded firmware, manage peripherals, and implement real-time control. The MCU belongs to the hierarchy microcontroller, embedded processor, processor IC, and semiconductor. STM32G4 devices combine that core with industrial-oriented control peripherals, so the STM32G484CET6 is suited to systems requiring both computational throughput and detailed analog sensing.

Verified headline specifications include a 170 MHz operating frequency, 213 DMIPS, 512 KB Flash organized as 512K x 8, 128 KB SRAM, and a 3 V device designation shown in distributor results. The manufacturer identifies a 12-channel high-resolution timer with 184 ps resolution, math acceleration, and AES support. These capabilities are useful for digital power conversion, motor control, precision timing, communications, and compact industrial equipment.

The STM32G4 architecture targets demanding control loops while retaining a conventional embedded MCU ecosystem. Its Cortex-M4F core supports floating-point-oriented firmware, while the math accelerator can reduce selected computational overhead. The high-resolution timer improves edge placement and timing measurement, and the analog feature set makes the MCU useful when a design needs both digital control loops and local signal acquisition without adding a separate high-performance analog processor.

Typical applications include digital power supplies, motor-control boards, industrial automation modules, sensor-heavy embedded systems, communications equipment, and compact control platforms. The 48-LQFP package exposes enough pins for mixed signal and peripheral connectivity while remaining compatible with automated PCB assembly. Firmware support, peripheral reuse, and migration paths must still be evaluated against the exact requirements of the selected board.

When designing a PCB, verify every LQFP pin assignment, power rail, decoupling requirement, and exposed thermal condition against the current STMicroelectronics datasheet. Do not infer pin names from another STM32G4 member because memory size and package variants can differ. Validate oscillator, analog-reference, debug, bootloader, and firmware-update connections before layout release.

This product record consolidates verified manufacturer specifications, distributor listings, package data, and selection guidance. It also distinguishes confirmed drop-in alternatives from generic MCU substitutes and identifies unavailable commercial and technical data instead of estimating missing values.

Alternativas directas para STM32G484CET6 — mismo encapsulado, compatible pin a pin. Se excluyen las piezas de otro encapsulado que requieren retrabajo de la PCB.

Variantes de esta serie

Modelos de la misma serie compatibles directamente con STM32G484CET6 (mismo factor de forma y huella) — difiere en Flash Memory, Math Accelerator, Package, Product Type.

STMicroelectronics
Flash Memory: 512 KB
Math Accelerator: Present
Package: 48-UFQFPN, 7 x 7 mm
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STM32G473CET6

✅ Sustitución directa
📦 48-LQFP (7x7)
Both are 170 MHz and have 512 KB Flash; supplied data does not quantify differences in 128 KB SRAM, timer, analog, AES, or pin mapping, so compatibility requires manufacturer verification.

📋 Alternativa de referencia (no en el catálogo)

STM32G484CET6 Valores máximos y características eléctricas

Product Type 32-bit Arm Cortex-M4 microcontroller with FPU
Core Arm Cortex-M4
Frecuencia de reloj máxima 170 MHz
Architecture 32-bit RISC
Flash Memory 512 KB (512K x 8)
SRAM 128 KB
Computing Performance 213 DMIPS
Math Accelerator Yes
High-Resolution Timer 12 channels with 184 ps resolution
AES Supported
Analog Features Rich analog feature set
Tensión de alimentación 3 V
Encapsulado 48-LQFP, 7 x 7 mm
Tipo de montaje Surface Mount
Series STM32G4
Product Segment Mainstream

Guía de configuración de pines de STM32G484CET6 48-lqfp, 7 x 7 mm

Configuración de pines para STM32G484CET6 (encapsulado 48-lqfp, 7 x 7 mm). Este CI digital incluye GPIO, interfaces de comunicación (UART, SPI, I2C) y pines de alimentación. Consulte la hoja de datos del fabricante para conocer las funciones alternativas de los pines y las opciones de configuración. Esencial para el diseño de sistemas embebidos y el diseño de PCB.

Diagrama de patillaje del encapsulado 48-lqfp, 7 x 7 mm para STM32G484CET6

No hay datos detallados de patillaje disponibles para STM32G484CET6.

Consulte la hoja de datos para ver la configuración completa de patillas.

Aplicaciones típicas

STM32G484CET6 es adecuado para 7 aplicacións: Digital Power Conversion, Industrial Motor Control, Precision Sensor Acquisition, Secure Connected Equipment, LED and Lighting Control, Test and Measurement, Aerospace and Defense Control Modules.

⚡

Digital Power Conversion

The STM32G484CET6 fits digital power control because its 170 MHz Cortex-M4 core supplies 213 DMIPS while the 12-channel, 184 ps high-resolution timer supports precise switching-edge control and measurement. The math accelerator can help execute control calculations, and the rich analog resources allow feedback signals to be acquired close to the controller. A practical design uses the MCU for PWM generation, fault handling, and supervisory logic while verifying every analog pin, reference, compensation network, and protection threshold against the manufacturer datasheet. The main benefit is tighter real-time execution than a basic MCU; the engineering trade-off is careful peripheral assignment and firmware validation.

🏭

Industrial Motor Control

The STM32G484CET6 is suitable for compact motor-control systems that require deterministic timing, local analog measurements, and meaningful processing throughput. Its 170 MHz Arm Cortex-M4 core executes control loops, while the 184 ps 12-channel high-resolution timer provides high-resolution timer resources for actuator command generation and input capture. The math accelerator is relevant when the control algorithm benefits from optimized arithmetic. In an industrial design, the MCU can supervise current sensing, position sensing, protection, and communication. Board-level qualification remains essential because motor systems introduce switching noise, thermal transients, grounding constraints, and safety requirements beyond the basic component specifications.

🧩

Precision Sensor Acquisition

The STM32G484CET6 can act as the central controller in sensor-rich embedded platforms because it combines a fast 170 MHz core with rich analog resources and 128 KB SRAM. Sampling, filtering, calibration, and communication tasks can be coordinated without relying on a separate high-performance processor. The 512 KB Flash provides room for embedded firmware, drivers, and application logic, while the math accelerator can assist selected computational routines. Designers should still verify ADC, comparator, DAC, timer, and reference-channel assignments for the exact 48-LQFP ordering code. Analog front-end filtering, reference stability, grounding, and calibration strategy determine whether the nominal MCU resources translate into accurate field measurements.

🌐

Secure Connected Equipment

The STM32G484CET6 supports connected industrial and embedded equipment through its 170 MHz processing capacity, 512 KB Flash, 128 KB SRAM, and documented AES capability. Firmware can coordinate serial communication, local control, diagnostics, and protocol handling while AES supports cryptographic workloads where the complete device security configuration is implemented correctly. The MCU is appropriate for gateways, controllers, and connected sensor nodes that need more control resources than a basic 8-bit or low-performance 32-bit device. Production designs must still enable the appropriate clocks, pins, entropy sources, keys, bootloader, and update procedures according to the manufacturer documentation; AES availability alone does not define the final security posture.

💡

LED and Lighting Control

The STM32G484CET6 can implement multi-channel LED timing, dimming, monitoring, and communication in professional or industrial lighting equipment. Its 170 MHz core leaves processing headroom beyond timer sequencing, while the high-resolution timer resource can improve edge placement where precision is important. The 48-LQFP package offers a larger pin budget than many compact controllers, allowing PWM outputs, communications, fault inputs, and analog monitoring to be considered together. Engineers should verify timer-channel mappings, pin alternates, supply requirements, and thermal performance in the target lighting board. Dimming behavior, flicker targets, electromagnetic emissions, and fault response must be validated at system level rather than inferred solely from MCU timing specifications.

🖥️

Test and Measurement

The STM32G484CET6 is relevant to compact automated test equipment because 170 MHz execution, 128 KB SRAM, math acceleration, high-resolution timing, and rich analog resources support measurement and control functions in one device. A test system could use the MCU to sequence stimuli, capture timing events, process sensor data, and manage a communications link. The 512 KB Flash capacity accommodates embedded firmware and calibration logic, although complete algorithm and logging requirements must be checked before implementation. The 48-LQFP package also provides access to multiple I/O and analog pins. Measurement accuracy ultimately depends on analog reference quality, input conditioning, calibration storage, grounding, trigger distribution, and firmware latency, none of which can be guaranteed from the basic distributor specifications.

✈️

Aerospace and Defense Control Modules

The STM32G484CET6 can serve as a control processor in rugged embedded modules where deterministic timing, local analog control, cryptography, and substantial memory are useful. Its 170 MHz Cortex-M4 core, 512 KB Flash, 128 KB SRAM, math accelerator, and AES capability form a useful embedded-control baseline. However, the verified data does not establish AEC-Q100 qualification, military temperature grade, screening, radiation tolerance, or long-term supply commitments. Aerospace and defense adoption therefore requires direct confirmation from STMicroelectronics for the exact ordering code, package, temperature range, quality documents, and program-specific requirements. The MCU should not be treated as qualified solely because it is designed for industrial and mainstream embedded applications.

Resumen de productos recomendados

STM32G473CET6 Closely related STM32G4 control-device candidate requiring full pin and peripheral verification Se usa en: Digital Power Conversion, Industrial Motor Control, Precision Sensor Acquisition, Secure Connected Equipment, LED and Lighting Control, Test and Measurement, Aerospace and Defense Control Modules
What are the key specifications of STM32G484CET6 that engineers should know?
The STM32G484CET6 combines a 170 MHz Arm Cortex-M4 core, 512 KB Flash, 128 KB SRAM, and a 48-LQFP package. According to the STMicroelectronics datasheet, it also delivers 213 DMIPS, math acceleration, AES support, and a 12-channel high-resolution timer with 184 ps resolution. Its rich analog resources make it more suitable for precision control than a basic general-purpose microcontroller.
Where can I download the STM32G484CET6 datasheet PDF?
The official STM32G484CET6 datasheet PDF is available from the STMicroelectronics product URL https://www.st.com/resource/en/datasheet/stm32g484ce.pdf. It applies to the STM32G484xE family and should be the controlling document for electrical limits, pin definitions, memory mapping, package drawings, clocks, analog peripherals, and recommended circuit implementations.
Where can I find the STM32G484CET6 pinout?
The STM32G484CET6 pinout is published in the pin-definition section of the official STMicroelectronics STM32G484xE datasheet. The verified package is 48-LQFP, so the board layout must contain all 48 positions. Do not copy pin assignments from a different STM32G4 package because alternate-function multiplexing and exposed-power requirements can vary by ordering code.
Is the STM32G484CET6 a 170 MHz microcontroller with 512 KB Flash?
Yes. DigiKey and Mouser list the STM32G484CET6 as a 170 MHz Arm Cortex-M4 MCU with 512 KB Flash, while the STMicroelectronics datasheet identifies the STM32G484xE family as Cortex-M4 devices operating up to 170 MHz. The verified distributor description also reports 512K x 8 Flash organization and a 48-LQFP package.
What is the STM32G484CET6 suitable for?
The STM32G484CET6 suits digital power conversion, motor control, industrial automation, sensor acquisition, communications, and embedded control systems. Its 170 MHz core and 213 DMIPS provide real-time processing capacity, while the 184 ps 12-channel high-resolution timer and rich analog resources support precision timing and measurement. Final suitability depends on the peripheral mix and pin requirements of the target board.
What is the difference between STM32G484CET6 and STM32G473CET6?
The comparison data confirms that both are 170 MHz, 512 KB Flash STM32G4 Cortex-M4 devices, but the supplied snippets do not quantify every peripheral difference. The STM32G484CET6 is specifically documented with math acceleration, rich analog features, a 184 ps 12-channel high-resolution timer, and AES. The complete manufacturer comparison is required before claiming a pin-for-pin replacement.
When should I choose the STM32G484CET6 instead of a general-purpose STM32 MCU?
Choose the STM32G484CET6 when the design benefits from its 170 MHz Cortex-M4 performance, 128 KB SRAM, math accelerator, AES, rich analog resources, or 184 ps high-resolution timer. A general-purpose MCU may be adequate for basic digital I/O, but it may not provide the timing precision or analog resources required by power, motor, and precision-control designs.
What can replace the STM32G484CET6?
A verified drop-in replacement must use the same 48-LQFP 7 x 7 mm footprint, preserve the 48-pin assignment, meet the 3 V supply constraints, and provide adequate peripheral, memory, and timing compatibility. The supplied cross-reference results do not identify five or more confirmed drop-in parts, so generic Cortex-M4 products are not labeled as replacements and firmware, pin, clock, and peripheral migration must be reviewed.
Is the STM32G484CET6 the same as the STM32G473CET6?
No definitive pin-for-pin equivalence can be established from the supplied data. Both parts are identified as 170 MHz, 512 KB Flash STM32G4 Cortex-M4 microcontrollers, but the snippets do not verify all 48 pin assignments, analog peripherals, timer resources, or electrical limits. Treat them as related family devices until the manufacturer datasheets confirm compatibility.
Where can I buy STM32G484CET6 online?
The verified sources list the STM32G484CET6 at DigiKey, Mouser, LCSC, Hotenda, Heisener, and DiGi Electronics. Heisener showed 6,144 pieces for reference at $8.0918 per unit and a lead time to be confirmed, while LCSC showed an in-stock status from $11.9987. Check the seller and quantity immediately because the retrieved values may change.
What is the price of STM32G484CET6?
The verified Heisener listing reports $8.0918 per unit, while LCSC lists a price from $11.9987 as of 2026-10-22. The requested quantity-break pricing from DigiKey and Mouser was not included in the supplied snippets, so the output tiers use the verified $8.0918 reference figure and should not be interpreted as live multi-quantity quotes.
What is the lead time for STM32G484CET6?
The lead time is not uniformly confirmed across the verified sources as of 2026-10-22. Heisener explicitly showed 6,144 pieces for reference and stated that lead time was to be confirmed, with an estimated delivery window of March 29 through April 3. Other listings did not provide a reliable lead-time value in the supplied snippets.
Is STM32G484CET6 in stock?
Stock status depends on the distributor. LCSC labeled the STM32G484CET6 in stock, and Heisener reported 6,144 pieces for reference as of 2026-10-22. Because no internal XAIPART inventory statement or supplier-independent stock quantity was provided, XAIPART availability is represented as back order rather than in stock in Product JSON-LD.
What is the best GigaDevice equivalent for STM32G484CET6?
No verified GigaDevice pin-for-pin equivalent is present in the supplied cross-reference results. Although general STM32 alternatives are mentioned, the data does not prove a 48-LQFP, 48-pin-compatible GD32 part with equivalent 170 MHz performance, 512 KB Flash, 128 KB SRAM, timers, analog resources, AES, and firmware behavior. A same-package MPN should not be declared drop-in without that evidence.
Does the STM32G484CET6 need a heatsink at 170 MHz?
The supplied data does not include a package thermal-resistance value, ambient temperature, board construction, or power dissipation, so a heater recommendation cannot be calculated responsibly. At 170 MHz, layout and thermal performance still matter. Use the current STMicroelectronics package information and estimate junction temperature from actual MCU current, supply voltage, ambient conditions, and PCB copper.
Is the STM32G484CET6 RoHS compliant and automotive qualified?
The supplied search results do not state RoHS, REACH, or AEC-Q100 status, so each compliance value remains unknown. The manufacturer datasheet and current STMicroelectronics product page should be checked for declarations and qualification statements. The distributor description confirms a 3 V mainstream STM32G4 MCU, but that description does not establish environmental or automotive qualification.

Datos de referencia de ingeniería para STM32G484CET6 — comparación, orientación de diseño e información de cumplimiento.

Guía de selección

Choose the STM32G484CET6 when a new design benefits from the verified combination of a 170 MHz Cortex-M4 core, 512 KB Flash, 128 KB SRAM, math acceleration, AES, rich analog resources, and a 12-channel high-resolution timer with 184 ps resolution. It is particularly relevant to digital power, motor control, precision measurement, and connected embedded systems where control-loop performance and analog integration matter. The STM32G473CET6 is a closely related candidate with the same stated core frequency, Flash capacity, manufacturer, and 48-LQFP class, but the supplied evidence does not verify complete pin, peripheral, or performance equivalence. Do not treat it as a production drop-in replacement until every pin, alternate function, electrical limit, clock setting, bootloader behavior, and software dependency is checked. Cross-brand MCU suppliers may offer cost or sourcing advantages, but no verified same-footprint equivalent was provided. For an existing board, retain the exact ordering code unless the manufacturer confirms an approved substitute or you complete and validate a deliberate redesign.

Comparación con alternativas

Parámetro Este producto STM32G473CET6
Package 48-LQFP (7x7) 48-LQFP (7x7) - package family matches; exact footprint compatibility requires verification
Brand STMicroelectronics STMicroelectronics
Core Arm Cortex-M4 Arm Cortex-M4
Maximum Frequency 170 MHz 170 MHz
Flash Memory 512 KB 512 KB

Diferenciadores clave

  • Higher-resolution timing resource is explicitly documented for the target (frente a STM32G473CET6)
  • Math acceleration is confirmed in the target device description (frente a STM32G473CET6)
  • AES support is explicitly confirmed for the target family (frente a STM32G473CET6)

Notas de diseño

Do not begin the layout from a generic STM32G4 drawing. Verify all 48 pins, power pins, ground pins, oscillator connections, analog references, debug interfaces, and boot straps against the STM32G484xE datasheet. Place decoupling capacitors at the corresponding supply pins with short return paths, keep sensitive analog routing away from fast switching nodes, and preserve the package copper geometry approved by the assembly process.

The supplied comparison data does not prove that STM32G473CET6 has an identical 48-pin map or identical peripheral resources. Do not substitute it solely because both descriptions mention Cortex-M4, 170 MHz, 512 KB Flash, and the same STM32G4 family. Compare alternate-function multiplexing, clocks, ADC, DAC, comparators, timers, math accelerator, AES, pin types, startup pins, and firmware support before approving a replacement.

Estimated thermal design must begin with measured or datasheet-based MCU supply current and active time: PD = VDD x IDD averaged, then TJ = TA + PD times the board- and package-specific thermal resistance. No thermal resistance or current figure was supplied, so this record does not calculate a junction temperature. Validate with the production PCB, copper area, enclosure, ambient temperature, and worst-case peripheral activity.

The verified distributor description identifies a 3 V MCU, but all allowed voltage tolerances, power-source choices, internal regulators, analog-reference requirements, and sequencing relationships must come from the exact STMicroelectronics datasheet. Check all power pins in the 48-LQFP footprint, preserve required analog grounds, and avoid routing motor, relay, or switching-converter currents through precision analog return paths.

Use the 170 MHz capability as a system requirement rather than assuming every board requires maximum-frequency operation. Define oscillator layout, debug-access requirements, timing margins, and communication edge rates from the firmware and peripherals actually used. High-speed signals need continuous return paths and controlled impedance where applicable, while sensitive analog inputs need shielding, filtering, and grounding appropriate to the source impedance and measured noise bandwidth.

Información de cumplimiento

RoHS
Unknown
REACH
Unknown
AEC-Q100
Unknown
Libre de plomo
Unknown
Libre de halógenos
Unknown
Minerales en conflicto
Unknown

The supplied search results do not provide verified compliance declarations or qualification statements. Confirm current RoHS, REACH, lead-free, halogen-free, conflict-minerals, and AEC-Q100 status from STMicroelectronics for the exact device ordering code.

Búsquedas relacionadas

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Componentes & términos relacionados

STMicroelectronics STM32G484CET6 STM32G473CET6 STM32G484xE Arm Cortex-M4 Arm Cortex-M4F 32-bit RISC microcontroller microcontroller embedded processor processor IC semiconductor STM32G4 FPU math accelerator AES 170 MHz 213 DMIPS 512 KB Flash 128 KB SRAM high-resolution timer 184 ps timer resolution rich analog resources 48-LQFP surface mount industrial motor control digital power conversion
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