Testimonials : 11

This study introduces a novel approach to error detection and correction within Very Large-Scale Integration (VLSI) systems, specifically tailored for space applications. The core of this research is the development and implementation of a sophisticated 2-dimensional error correction code designed to significantly enhance memory reliability in the harsh conditions of outer space. Traditional error correction methods, while effective to a certain extent, fall short in addressing the complex phenomenon of burst errors—errors that occur in multiple bits simultaneously as a result of a single disruptive event, such as cosmic radiation. The proposed error correction scheme innovatively employs extended XOR operations, covering larger blocks of data, thus offering a more comprehensive solution for detecting and correcting burst errors. Moreover, the integration of Cyclic Redundancy Check (CRC) techniques further bolsters the error detection and correction capabilities of the system. Through a detailed comparison with existing methods, our study demonstrates that the proposed 2-dimensional code not only addresses the limitations of current error correction techniques but also contributes to the advancement of memory system reliability in space engineering. The implementation of this method is poised to provide better performance in environments where burst errors are prevalent, marking a significant step forward in the domain of space system design and reliability. 

Testimonial : 10

In this time of rapid invention and utilisation of battery-operated products, battery life is a significant problem. Because the traditional Full Adder(FA) uses more energy, we used low power FA circuitry in this study and examined how it functions in lieu of the traditional Full Adder circuitry. Contrary to the latest State of Art, only ten transistors make up the suggested design,which runs on a 0.8 supply voltage. This study compares and contrasts the present design with the FA's suggested work in respect of power and delay. This design consumes low power of only 674.38 nWand is area efficient as it consists of only ten transistors. The presented design of FA consumes less power and offers very less delay of only 2.3 ps than existing designs. TANNER EDA is used to simulate proposed FA and using a 65nm CMOS technology.