Design and Optimization of a High-Speed VLSI Architecture for Integrated FIR Filters in Advanced Digital Signal Processing Applications

Abstract

This paper presents the design and optimization of a high-speed VLSI architecture specifically intended for integrated finite impulse response (FIR) filters intending to advance digital signal processing (DSP) applications. The increasing demands of modern systems for effective signal processing have led to a significant increase in the need for dependable and high-performance FIR filters. This work presents a new VLSI architecture that maximizes resource utilization by reducing latency and increasing throughput thereby addressing the shortcomings of previous designs. By employing advanced techniques like parallel processing and dynamic pipelining the suggested architecture improves performance metrics. Significant increases in speed and efficiency are demonstrated by thorough simulations and comparisons with conventional architectures. The study investigates several design factors and optimization strategies to strike a compromise between hardware performance and complexity. The findings demonstrate the viability of other the suggested architecture for real time processing in multimedia telecommunications and other  high-tech industries by efficiently supporting high-performance DSP applications. This work advances the field of high-speed digital signal processing by laying the groundwork for future advancements in FIR filter design and VLSI optimization.