AT-DSP2200

Description

The National Instruments AT-DSP2200 Dynamic Signal Acquisition and DSP Board is a sophisticated piece of hardware, carrying the part number 181475-01, and is complemented by various kit options including 776597-01, 776597-02, 776597-03, and 776597-04. Manufactured by National Instruments, this board is specifically designed as a PC AT Plugin Board to enhance computing capabilities.

At the heart of its performance lies the AT&T WE DSP32C DSP Chip, which propels the board’s processing power to an impressive up to 25 MFLOPS. With a 50 MHz clock speed and four 40-bit accumulators, it provides robust computational efficiency for demanding tasks.

The AT-DSP2200 is equipped with two 16-bit input channels, complete with digital anti-aliasing filters, and uses state-of-the-art delta-sigma analog to digital converters with 64x oversampling to ensure high-fidelity data acquisition. Moreover, its output channels include digital anti-imaging filters capable of 8x oversampling, further enhancing the quality of signal output.

This board is not limited to a single application; it excels in a variety of use cases such as medical research, telecommunications, audio tests, speech and voice analysis, graphics, and imaging. It’s a testament to the versatility and power that National Instruments embeds into its products, making the AT-DSP2200 a valuable asset in any high-performance signal processing environment.

Question 1: What is the significance of the AT&T WE DSP32C DSP Chip in the National Instruments AT-DSP2200 Dynamic Signal Acquisition and DSP Board, and in what applications does the board excel?
Answer 1: The National Instruments AT-DSP2200 Dynamic Signal Acquisition and DSP Board utilizes the AT&T WE DSP32C DSP Chip to achieve its performance capabilities.

Question 2: What are the key features and applications of the National Instruments AT-DSP2200 Dynamic Signal Acquisition and DSP Board with part number 181475-01?
Answer 2: The National Instruments AT-DSP2200 board’s effectiveness for high-performance signal processing is attributed to its AT&T WE DSP32C DSP Chip capable of up to 25 MFLOPS, a 50 MHz clock speed, four 40-bit accumulators, two 16-bit input channels with digital anti-aliasing filters, delta-sigma analog to digital converters with 64x oversampling, and output channels with digital anti-imaging filters performing 8x oversampling, making it highly suitable

Question 3: What specific DSP chip model does the National Instruments AT-DSP2200 Dynamic Signal Acquisition and DSP Board utilize to achieve its performance capabilities?
Answer 3: The National Instruments AT-DSP2200 Dynamic Signal Acquisition and DSP Board, part number 181475-01, features a powerful AT&T WE DSP32C DSP Chip capable of up to 25 MFLOPS, a 50 MHz clock speed, four 40-bit accumulators, two 16-bit input channels with digital anti-aliasing filters, delta-sigma analog to digital converters with 64x oversampling, and output channels with 8x oversampling digital anti-imaging filters

Question 4: What are the primary features and applications of the National Instruments AT-DSP2200 Dynamic Signal Acquisition and DSP Board, part number 181475-01?
Answer 4: The National Instruments AT-DSP2200 Dynamic Signal Acquisition and DSP Board, part number 181475-01, boasts key features such as the AT&T WE DSP32C DSP Chip capable of up to 25 MFLOPS, a 50 MHz clock speed, four 40-bit accumulators, two 16-bit input channels with digital anti-aliasing filters, delta-sigma analog to digital converters with 64x oversampling, and output channels with 8x oversampling. Its

Question 5: What features make the National Instruments AT-DSP2200 board an effective solution for high-performance signal processing tasks in fields like medical research and telecommunications?
Answer 5: The AT&T WE DSP32C DSP Chip is crucial in the National Instruments AT-DSP2200 Dynamic Signal Acquisition and DSP Board as it delivers significant processing power, up to 25 MFLOPS, which enables the board to handle computationally demanding tasks with high efficiency; the board excels in applications such as medical research, telecommunications, audio tests, speech and voice analysis, graphics, and imaging, showcasing its versatility and capability in a broad range of high-performance signal processing environments.