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Description
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KMSC8122TMP6400 KMSC8122TMP6400 20289 NXP USA Inc. DSP 16BIT QUAD CORE 431FCBGA 431-BFBGA, FCBGA
TMS320DM643AGDK6 TMS320DM643AGDK6 18863 Texas Instruments IC FIXED-POINT DSP 548-FCBGA 548-BFBGA, FCBGA
DSP56303VF100B1 DSP56303VF100B1 40243 NXP USA Inc. IC DSP 24BIT 100MHZ 196-BGA 196-LBGA
TMS320DM643AGDK5 TMS320DM643AGDK5 37591 Texas Instruments IC FIXED-POINT DSP 548-FCBGA 548-BFBGA, FCBGA
TMS320DM643AGNZ6 TMS320DM643AGNZ6 19824 Texas Instruments IC FIXED-POINT DSP 548-FCBGA 548-BBGA, FCBGA
TMS320LC549GGU-80 TMS320LC549GGU-80 37207 Texas Instruments IC FIXED POINT DSP 144-BGA 144-LFBGA
KMSC8122TMP4800V KMSC8122TMP4800V 35068 NXP USA Inc. DSP 16BIT QUAD 300MHZ 431FCBGA 431-BFBGA, FCBGA
KMSC8122TMP6400V KMSC8122TMP6400V 46782 NXP USA Inc. DSP 16BIT QUAD CORE 431FCBGA 431-BFBGA, FCBGA
KMSC8122TVT4800V KMSC8122TVT4800V 45185 NXP USA Inc. DSP 16BIT QUAD 300MHZ 431FCBGA 431-BFBGA, FCBGA
DSP56311VF150R2 DSP56311VF150R2 36241 NXP USA Inc. IC DSP 24BIT 150MHZ 196-BGA 196-LBGA
KMSC8122VT8000 KMSC8122VT8000 26729 NXP USA Inc. DSP 16BIT QUAD 500MHZ 431FCBGA 431-BFBGA, FCBGA
DSP56303VL100 DSP56303VL100 47805 NXP USA Inc. IC DSP 24BIT 100MHZ 196-MAPBGA 196-LBGA
KMSC8122TVT6400 KMSC8122TVT6400 35047 NXP USA Inc. DSP 16BIT QUAD CORE 431FCBGA 431-BFBGA, FCBGA
DSP56301VF80B1 DSP56301VF80B1 28946 NXP USA Inc. IC DSP 24BIT 80MHZ 252-BGA 252-BGA
DSPB56374AEC DSPB56374AEC 29175 NXP USA Inc. IC DSP 24BIT 150MHZ 52-LQFP 52-LQFP
TMS320C6727ZDHA250 TMS320C6727ZDHA250 17027 Texas Instruments IC FLOATING POINT DSP 256-BGA 256-BGA
DSPB56374AF DSPB56374AF 44074 NXP USA Inc. IC DSP 24BIT 150MHZ 80-LQFP 80-LQFP
XC56309VL100A XC56309VL100A 17133 NXP USA Inc. IC DSP 24BIT 100MHZ 196-MAPBGA 196-LBGA
KMSC8122TVT6400V KMSC8122TVT6400V 34261 NXP USA Inc. DSP 16BIT QUAD CORE 431FCBGA 431-BFBGA, FCBGA
SPAKDSP303AG100 SPAKDSP303AG100 44491 NXP USA Inc. IC DSP 24BIT 100MHZ 144-LQFP 144-LQFP

DSP (Digital Signal Processors)

1. What are DSP (Digital Signal Processors)?‌

‌DSP (Digital Signal Processor)‌ is a microprocessor designed for high-speed digital signal processing algorithms. It performs filtering, compression, enhancement, and other operations by processing the digital sequence converted from analog signals in real-time. It is widely used in communications, medicine, consumer electronics, and other fields. Its essence is to process real signals in digital form to extract and convert information.

 

2. What are the ‌Core Hardware Features of DSP (Digital Signal Processors)?‌

‌Harvard Structure

The program and data storage space are independent, supporting parallel execution of instruction reading and data operations, significantly improving throughput efficiency.

 

‌Dedicated Hardware Acceleration Unit

Built-in hardware multiplier (MAC), single-cycle multiplication and addition operations, suitable for intensive calculations such as matrix operations and Fourier transforms.

 

Multi-address generator reduces memory access bottlenecks.

 

‌Pipeline Technology

Instructions are decomposed into multi-stage parallel processing such as instruction fetch, decoding, and execution to achieve efficient pipeline operations.

 

‌Low-latency Response

Fast interrupt processing and hardware I/O support to meet scenarios with high real-time requirements (such as industrial control).

 

3. What are the ‌Typical Application Scenarios of DSP (Digital Signal Processors)?‌

1) ‌Communications‌

Processing fiber dispersion and polarization interference in optical communications to achieve signal recovery and equalization.

 

2) ‌Consumer Electronics‌

Audio Processing: frequency division management, delay correction, and EQ adjustment of car audio (such as DSP amplifier);

Wearable Devices: For example, the ATS3085L chip of Actions Technology equipped with an Honor bracelet realizes health monitoring and low-power operation through MCU+DSP dual-core heterogeneous design.

 

3) ‌Embedded System‌

Combined with SBC (single-board computer) to enhance data processing capabilities, used for complex tasks such as aerospace and industrial control.

 

4) ‌Image and Automation‌

The advantages of floating-point operations and matrix processing are suitable for machine vision, motor control, etc.

 

4. ‌Technology Evolution and Trends of DSP (Digital Signal Processors)‌

‌Heterogeneous Integration‌: Modern DSPs are often combined with MCU/ARM cores (such as TI J6/J7), taking into account general computing and special processing capabilities.

‌Energy Efficiency Optimization‌: Low power consumption design promotes its penetration in the Internet of Things and wearable devices (such as Actions chip power consumption <150μA).

 

5. ‌Summary‌

DSP has become the core device of digital technology with its customized hardware architecture and real-time processing capabilities, covering all scenarios from high-end communication equipment to daily consumer electronics, and continuously promoting the innovation of signal processing technology.

 

6. DSP (Digital Signal Processors) FAQs

1) ‌How to deal with excessive power ripple? ‌

Adding capacitor filtering can effectively suppress power ripple while ensuring that the reference power supply and analog power supply are pure.

 

2) ‌Is the external crystal oscillator active or passive? ‌

It is recommended to use a passive crystal rather than an active crystal oscillator to ensure clock stability.

 

3) ‌Multi-DSP system clock synchronization solution? ‌

Use a dedicated clock chip to unify the clock source to avoid timing confusion.

 

4) ‌A/D conversion accuracy assurance measures? ‌

It is necessary to independently purify the analog power supply and reference power supply to reduce noise interference.