Effective and Adaptive Logic Design in VLSI for Digital Circuit Designing using Verilog
Sabitha Mohan, P. Prathap, P Rajakumar
Abstract
Sabitha Mohan, P. Prathap, P Rajakumar
Abstract
In digital system design, the main constraint is minimum energy, compatibility, low power, etc. The main objective of the digital design is to achieve Minimum Energy Power system that can obtained by using adaptive logic. In digital circuits the logic used to implement effective designs is adaptive which is a very faster and technological advancement as innovative logic which is been used in almost every digital design to fulfil the major constraints. But additionally Nano sized magneticsystem and CMOS technology is been used to implement the adaptive logic in the digital circuit to extensively improve the efficiency of the energy. In order to achieve the minimum energy techniques the region will be having subsequent threshold and sub-threshold regionsand these both regions will be implemented in adaptive logic. Huge breakpoint of threshold region is in IoT device (Internet of Things) to reduce the power consumption or to increase the yield margins Timing-Error-Detection(TED) systems are been used. If there is conditional minimum voltage, if that is processed in the digital circuit then there will be a scope of occurring delay in the circuit. This delay is further improve as error in the circuit which will be over ridden by using canary circuit which is mainly used for error detection and error correction method, but this canary circuit extents its results in large delay in this regard toovercomethe disadvantage, adaptive logic circuit is been designed with a double gated latchcircuit in each stage of the circuit. This adaptive logic design circuit also undergoes some sought of delay in the circuit which can be over ridden by using a combination of XNOR gate and flip flop in the each section stage to stage for the verification of the signal error. Verilog Coding and implementation process developed by using XILINX ISE 14.3 Version tool.
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In digital system design, the main constraint is minimum energy, compatibility, low power, etc. The main objective of the digital design is to achieve Minimum Energy Power system that can obtained by using adaptive logic. In digital circuits the logic used to implement effective designs is adaptive which is a very faster and technological advancement as innovative logic which is been used in almost every digital design to fulfil the major constraints. But additionally Nano sized magneticsystem and CMOS technology is been used to implement the adaptive logic in the digital circuit to extensively improve the efficiency of the energy. In order to achieve the minimum energy techniques the region will be having subsequent threshold and sub-threshold regionsand these both regions will be implemented in adaptive logic. Huge breakpoint of threshold region is in IoT device (Internet of Things) to reduce the power consumption or to increase the yield margins Timing-Error-Detection(TED) systems are been used. If there is conditional minimum voltage, if that is processed in the digital circuit then there will be a scope of occurring delay in the circuit. This delay is further improve as error in the circuit which will be over ridden by using canary circuit which is mainly used for error detection and error correction method, but this canary circuit extents its results in large delay in this regard toovercomethe disadvantage, adaptive logic circuit is been designed with a double gated latchcircuit in each stage of the circuit. This adaptive logic design circuit also undergoes some sought of delay in the circuit which can be over ridden by using a combination of XNOR gate and flip flop in the each section stage to stage for the verification of the signal error. Verilog Coding and implementation process developed by using XILINX ISE 14.3 Version tool.
Key concepts: Computer science, Digital electronics, Logic level, Asynchronous circuit, Electronic engineering, CMOS, Logic gate, Logic family