HDSC (Huada Semiconductor) Products

HDSC offers four main MCU product categories: (1) Ultra-Low Power MCUs - HC32L series with sub-μA standby current for IoT, wearables, and battery-powered applications; (2) General-Purpose MCUs - HC32F series based on ARM Cortex-M0+/M4 for industrial and consumer applications; (3) Motor Control MCUs - dedicated MCUs with integrated drivers for BLDC and PMSM motor applications; (4) Automotive MCUs - AEC-Q100 certified HC32A series for body electronics and automotive control. All products feature rich peripherals, hardware security features, and comprehensive development support.

Review each product category to find the HDSC MCU matching your power requirements, performance needs, and application environment.

Selecting the right HDSC MCU requires considering: (1) Power requirements - HC32L for battery-powered (<1μA standby), HC32F for mains-powered; (2) Performance - Cortex-M0+ for simple control, Cortex-M4 for DSP/complex algorithms; (3) Peripherals - analog (ADC/DAC), communication (UART/SPI/I2C/CAN), timers, security; (4) Memory - Flash size (32KB to 512KB), RAM (4KB to 96KB); (5) Package - QFN for compact, LQFP for prototyping; (6) Operating conditions - industrial (-40°C to +85°C) or automotive (-40°C to +125°C); (7) Security - hardware encryption, TRNG for secure applications; (8) Cost - HC32L for cost-sensitive, HC32F4A0 for high performance.

Use our MCU selection guide or contact FAE with your application requirements for personalized recommendations.

HDSC HC32 series differentiation: (1) HC32L (Ultra-Low Power) - optimized for battery life with sub-μA standby, lower clock speeds (4-48MHz), rich analog peripherals, LCD drivers, best for IoT/wearables; (2) HC32F (General-Purpose) - optimized for performance with higher clock speeds (up to 240MHz), more processing power, advanced peripherals, best for industrial/complex applications; (3) Power - HC32L: 0.5μA standby, HC32F: 1-2μA standby; (4) Core - HC32L: Cortex-M0+, HC32F: Cortex-M0+ or M4; (5) Flash - HC32L: up to 128KB, HC32F: up to 512KB; (6) Price - HC32L lower cost, HC32F higher performance. Choose HC32L for battery life, HC32F for processing power.

Choose HC32L for battery-powered IoT. Choose HC32F for industrial/complex processing. Contact FAE for guidance.

For automotive applications, HDSC offers the HC32A series with AEC-Q100 certification: (1) HC32A460 - High-performance automotive MCU with Cortex-M4, up to 240MHz, CAN-FD, LIN; (2) HC32A136 - Cost-effective automotive MCU with Cortex-M0+, CAN, LIN; (3) Features - enhanced EMI/EMC, wide temperature range (-40°C to +125°C), comprehensive safety mechanisms; (4) Peripherals - motor control timers, high-resolution ADC, programmable gain amplifiers; (5) Packages - LQFP48 to LQFP100 for various pin count needs; (6) Applications - body control modules, door controllers, seat controllers, lighting, sensors; (7) Support - PPAP documentation, automotive FAE support. All automotive MCUs undergo rigorous qualification testing.

Contact our automotive FAE team for HC32A series selection, qualification documentation, and automotive reference designs.

HDSC MCUs include comprehensive security features: (1) Hardware encryption - AES-128/192/256 hardware accelerator; (2) TRNG - True Random Number Generator for cryptographic operations; (3) CRC - Hardware CRC16/CRC32 for data integrity; (4) Secure boot - bootloader authentication and secure firmware update; (5) Memory protection - MPU (Memory Protection Unit) for task isolation; (6) Debug protection - JTAG/SWD lock to prevent unauthorized access; (7) Unique ID - 96-bit unique device identifier; (8) Tamper detection - voltage/temperature monitoring for security events. These features make HDSC MCUs suitable for smart cards, payment terminals, secure IoT, and authentication applications.

All HDSC MCUs include basic security. Use HC32S series for advanced security applications.

HDSC MCUs support multiple development environments: (1) IAR Embedded Workbench - industry-standard with excellent optimization; (2) Keil MDK - ARM compiler with μVision IDE, free up to 32KB; (3) HDSC Studio - free Eclipse-based IDE with GCC toolchain; (4) Debug tools - HDSC-Link, J-Link, ULINK supported. All tools provide full device support with peripheral libraries, example code, and debugging capabilities. LiTong provides tool setup support and training.

Use HDSC Studio for cost-sensitive projects. Use IAR/Keil for commercial development requiring advanced optimization.

HDSC MCU pricing is very competitive: (1) Entry-level (HC32F003/HC32L110) - $0.30-$0.50 in volume; (2) Mainstream (HC32F030/HC32L136) - $0.50-$1.00; (3) High-performance (HC32F460/HC32F4A0) - $1.50-$3.00; (4) Ultra-low power (HC32L196) - $0.80-$1.50; (5) Automotive (HC32A series) - $2.00-$5.00. Prices vary by package, temperature grade, and volume. HDSC typically offers 30-50% cost savings compared to equivalent STM32 or NXP products. Contact LiTong sales for specific pricing and volume discounts.

HDSC offers excellent value across all segments. Contact sales for project-specific pricing.

Migrating from STM32 to HDSC involves: (1) Pin compatibility - check pinout compatibility, HDSC offers similar packages; (2) Peripheral mapping - map STM32 peripherals to HDSC equivalents, most are similar; (3) Code migration - HDSC provides SPL and HAL libraries similar to STM32; (4) Tool migration - both support IAR, Keil, GCC; (5) Timing - review clock tree and peripheral timing; (6) Power - HDSC ultra-low power modes differ from STM32L; (7) Debug - both use SWD interface. LiTong provides migration guides and technical support. Typical migration effort is 2-4 weeks for experienced developers.

Use HDSC migration guide. Contact FAE for complex migrations. Plan for 2-4 weeks migration effort.