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Open AccessJournal ArticleDOI

NORA: a racefree dynamic CMOS technique for pipelined logic structures

N.F. Goncalves, +1 more
- 01 Jun 1983 - 
- Vol. 18, Iss: 3, pp 261-266
TLDR
A new dynamic CMOS technique which is fully racefree, yet has high logic flexibility, and logic inversion is provided, which means higher logic flexibility and less transistors for the same function.
Abstract
Describes a new dynamic CMOS technique which is fully racefree, yet has high logic flexibility. The circuits operate racefree from two clocks /spl phi/ and /spl phi/~ regardless of their overlap time. In contrast to the critical clock skew specification in the conventional CMOS pipelined circuits, the proposed technique imposes no restriction to the amount of clock skew. The main building blocks of the NORA technique are dynamic CMOS and C/SUP 2/MOS logic functions. Static CMOS functions can also be employed. Logic composition rules to mix dynamic CMOS, C/SUP 2/MOS, and conventional CMOS will be presented. Different from Domino technique, logic inversion is also provided. This means higher logic flexibility and less transistors for the same function. The effects of charge redistribution, noise margin, and leakage in the dynamic CMOS blocks are also analyzed. Experimental results show the feasibility of the principles discussed.

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Citations
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Journal ArticleDOI

Testing of zipper CMOS logic circuits

TL;DR: Zipper CMOS is a dynamic CMOS circuit technique which also provides protection against instability and charge-sharing problems; this is achieved by using a special driver circuit and enjoys a huge testability advantage over static CMOS circuits.
Proceedings ArticleDOI

High-speed/high-density logic circuit design

TL;DR: The paper covers BiCMOS circuit designs and other basic high-speed circuit techniques including gate sizing, dynamic/reduced swing circuits, interconnect/clock delay, and on-chip memory.

Efficient verification of VLSI circuits based on syntax and denotational semantics

TL;DR: Thesis (M.S.)--Massachusetts Institute of Technology, Dept. of Electrical Engineering and Computer Science, 1988.

Application specific serial arithmetic arrays

TL;DR: High performance systolic arrays of serial-parallel multiplier elements may be rapidly constructed for specific applications by applying hardware description language techniques to a library of full-custom CMOS building blocks, including a 2-D convolver for image processing, an integer polynomial solver, and a finite-field polynomials.
Dissertation

Desarrollo y evaluación de arquitecturas lógicas basadas en Nanopipeline

TL;DR: In this article, Kogge Stone et al. evaluate the performance of nanopipelines with respect to a set of metrics, including velocidad and tolerancia al ruido.
References
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Journal ArticleDOI

High-speed compact circuits with CMOS

TL;DR: A new circuit type, the CMOS domino circuit, is described, which involves the connection of dynamic CMOS gates in such a way that a single clock edge can be used to turn on all gates in the circuit at once.
Journal ArticleDOI

Clocked CMOS calculator circuitry

TL;DR: A novel circuit technique that has been applied to the world's first CMOS-LSI for a desktop calculator is described in detail.
Journal ArticleDOI

High-density CMOS ROM arrays

TL;DR: The CMOSROMs produced are competitive with NMOS ROMs in both density and speed, yet retain all of the advantages of static CMOS circuits such as 1-/spl mu/W power dissipation, full 2.8-15 V voltage operating range, and full -55/spl deg/C-125/spl Deg/C temperature range.
Proceedings Article

NP-CMOS: A Racefree - Dynamic CMOS Technique for Pipelined Logic Structures

TL;DR: In this paper, a new dynamic CMOS circuit technique using n and p logic trees is presented, which operates race-free from two clocks O and O regardless of their overlap time.
Journal ArticleDOI

High-speed programmable logic arrays in ESFI SOS technology

TL;DR: Exploratory MOS programmable logic arrays (PLA's) operating up to a clock frequency of 22 MHz have been realized and successfully operated as discussed by the authors, and the problems arising with the use of these dynamic logic gates are discussed and different circuits are presented.