TMS320VC5502ZAV200

Digital Signal Processor Dsp Overview

The TMS320VC5502 is a fixed-point digital signal processor based on the C55x core, designed for low-power applications. It features a Harvard architecture with separate program and data buses. The device supports a maximum clock frequency of 200 MHz. Key specifications include 16-bit data bus width, 32 kB of on-chip dual-access RAM (DARAM), and 8 kB of instruction cache. Operating voltage is 1.6 V. It includes peripherals such as DMA, HPI, UART, I2C, and three timers.

Digital Signal Processor Dsp Feature Summary

• C55x DSP core with up to 200 MHz operation
• 16-bit fixed-point arithmetic capability
• Integrated Direct Memory Access (DMA) controller
• Host-Port Interface (HPI) for host processor access

Digital Signal Processor Dsp Applications

• Audio processing systems
• Communication equipment
• Industrial control applications

Digital Signal Processor Dsp Procurement Notes

Verify the specific ordering suffix ZAV against the manufacturer's official documentation to confirm package type, temperature range, and production status. Ensure compatibility with existing board designs regarding pinout and power requirements before procurement.

Digital Signal Processor Dsp Selection Notes

Select this component when a low-power C55x solution with integrated peripherals like HPI and DMA is required. Compare memory sizes and clock speeds against other C55x variants if higher performance or larger on-chip storage is needed.

Digital Signal Processor Dsp Part Context

This part belongs to the TMS320VC550x series within the Texas Instruments C5000 family. It shares architectural similarities with the TMS320VC5501 but may differ in specific peripheral configurations or memory maps. Refer to the TMS320VC5502 Data Manual (SPRS166K) for detailed technical specifications.

Digital Signal Processor Dsp Replacement Considerations

TMS320VC5501: Check for functional equivalence in memory and peripherals. TMS320VC5503: Verify if additional features are required or if they are compatible substitutes.