Streamlined Synchronous Binary Counter with Minimized Clock Period

The necessity for high frequency and growing counter applicability are the key requirements for VLSI applications.A synchronous binary counter is one of the fundamental elements that is frequently used in VLSI design because it delivers accurate timing, low power consumption, simplified design, scalability, and compatibility with a variety of digital systems. It is also necessary to be quick and support a wide bit-width in many applications, including telecommunications, clock dividers, and watchdog timers. Real-time operations are necessary for the majority of physical system applications to interface high speed restraints.A one stage input-output pipelining technique and reduced fanout Synchronous Binary Counter is introduced to provide the highest throughput by inserting some registers in the proper locations and making the latency the shortest.The "Streamlined Synchronous Binary Counter with Minimised Clock Period" proposal uses a Johnson counter, a parallel processing technique, and a fanout to reduce hardware complexity and propagation delay while increasing system frequency and throughput.Pipelining enhances the speed, throughput, and consequently performance of any digital circuit’s basic design.The suggested synchronous counter is written in Verilog HDL, analysed and simulated in Xilinx Vivado, then synthesised in Cadence Genus at standard 45nm CMOS technology.When compared to the present 128-bit Counter system, the proposed Streamlined 128-bit Synchronous Binary Counter has a i) delay reduction of 29.890%, ii) an increase in maximum frequency, and a throughput gain of 55.08%.This proposed architecture is used in applications like real-time control systems and high speed instrumentation and measurement systems.