Top Research Papers on Low Power VLSI Design

The rules and overall methodology governing standard cell very large scale integration (VLSI) design are described, which represents a growing trend in custom parts and falls in between the implementation of arrays of logic gates and the Implementation of full custom designs.

This paper presents a comparative study of Field Programmable Gate Array implementation of standard multipliers using Verilog HDL, finding significant reduction in FPGA resources, delay, and power can be achieved using Reduced Wallace multipliers with Koggestone adder instead of standard parallel multipliers.

A low-power architectural synthesis system (LOPASS) for field-programmable gate-array (FPGA) designs with interconnect power estimation and optimization with promising results on latency optimization compared to an academic high-level synthesis tool SPARK.

According the design flow of VLSI and the working mechanism of the microprocessor, a survey of low power design methodology at five levels such as system, behavioral, architectural, logic and physical levels is presented.

The proposed DSNN can substantially increase detection accuracy for the task of ECG heartbeat classification by doubling the input signal using a data shifting scheme so that the amount of information for training may be adequately sufficient.

The proposed fast algorithm can reduce about 90% motion searching time, whereas PSNR only decreases about 0.02 dB on average, and VLSI architecture is designed with parallel structure and pipeline timing schedule to achieve high throughput rate for the HDTV system.

VLSI is concerned with forming a pattern of interconnected switches and gates on the surface of a crystal of semiconductor that has made highly sophisticated control systems mass-producable and therefore cheap.

An algorithm for performing area-time efficient division, on-line techniques for performing bit-serial calculations, and iterative algorithms for performing square root are described.

The many issues facing designers at architectural, logic, circuit and device levels are described and some of the techniques that have been proposed to overcome these difficulties are presented.

A comparison between the full custom carry-save addition (CSA) multiplier designed using CAD tools and a multiplier generated by the MacPitts silicon compiler is presented.

This thesis is an introduction to the use of computer-aided design tools for the design of very large scale integrated circuits (VLSI) and a tutorial is given which illustrates their use in the computing environment at the Naval Postgraduate School.

During the period covered by the grant, two books and ten research papers were written under grant sponsorship, and nineteen of the researchpapers were written and published in conference proceeding.

This project is to perform Analog Very Large Scaled of Integration (VLSI) testing and the analysis of combinational circuits using Computer-Aided Design (CAD) tools and the GUI is used as interface for users to explore and understand the analog combinational circuit testing.

An analysis of the MacPitts silicon compiler is presented, with the emphasis on the interrelationshp between algorithmic syntax and resulting circuit structure.

Introduction to low-power VLSI design, G. Yeap and A. Wild low power design of off-chip drivers and transmission lines - a branch and bound approach, R. Gupta et al a new CMOS driver model for transient analysis and power dissipation analysis, H. Liao et al on the optimal drivers of high-speed low power ICs, D. Zhou and X.Y. Liu floorplan design with low power considerations, K.Y. Chao and D.F. Wong retiming sequential circuits for low power, J. Monteiro et al.

The various strategies, methodologies and power management techniques for low power circuits and systems, and future challenges that must be met to designs low power high performance circuits are discussed.

Two VLSI architectures are introduced for high speed recognition of general context-free languages based on the Cocke-Younger-Kasami algorithm and Earley's algorithm.

The various causes of power dissipation in VLSI chips are discussed, and all the strategies and methodologies that can be applied for low power designing are reviewed.

The low power vlsi design and technology is universally compatible with any devices to read and is available in the digital library an online access to it is set as public so you can download it instantly.

This work focuses on a new CMOS logic family called ADIABATIC LOGIC, based on the adiabatic switching principle, which dramatically reduces the power dissipation.