The ADSP-2162 is a member of the ADSP-2100 family of single-chip microcomputers specifically optimized for digital signal processing (DSP) and high-speed numeric processing applications. Built upon a common DSP core architecture shared across the ADSP-21xx family, this processor combines powerful computation units with specialized peripherals and memory configurations to deliver exceptional performance in signal processing tasks.
With its Harvard architecture featuring separate program and data memory buses, the ADSP-2162 achieves true three-bus performance while maintaining efficient program sequencing through zero-overhead looping capabilities. The processor's 25 MIPS performance at 40ns instruction cycle times makes it particularly suitable for demanding real-time DSP applications.
The ADSP-2162's combination of processing power and specialized DSP features makes it ideal for a wide range of applications including:
The ADSP-2162 features a modified Harvard architecture with three separate buses: one for program memory and two for data memory. This architecture enables the processor to fetch an instruction and two data operands simultaneously, significantly improving throughput for DSP algorithms.
The ADSP-2162 features:
The processor includes two dedicated data address generators (DAGs) that support:
The ADSP-2162's pinout is organized into functional groups including:
Analog Devices provides comprehensive development support for the ADSP-2162 including:
The ADSP-2162 represents a powerful and flexible solution for digital signal processing applications requiring high performance in a single-chip package. Its combination of computational power, efficient memory architecture, and specialized DSP features makes it particularly suitable for real-time processing tasks in audio, telecommunications, industrial control, and medical applications. With comprehensive development support and reliable operation across industrial temperature ranges, the ADSP-2162 offers system designers a robust platform for implementing sophisticated DSP algorithms.