Add to ORKGBest Paper Award, Ninth International Conference on Application of Concurrency to System Design.Asynchronous and latency-insensitive circuits offer a similar form of elasticity that tolerates variations in the delays of communication resources of a system. This flexibility comes at the expense of including a control layer that synchronizes the flow of information. This paper proposes a method for eliminating the complexity of the control layer, replacing it by a set of iterative schedulers that decide when to activate computations. Unlike previous approaches, this can be achieved with low complexity algorithms and without extra circuitry.Peer ReviewedAward-winnin
dissertationElasticity is a design paradigm in which circuits can tolerate arbitrary latency/delay v...
Asynchronous (or "clock-less") digital circuit design has received much attention over the past few ...
Abstract. Synchronous Elasticization converts an ordinary clocked circuit into Latency-Insensitive (...
Asynchronous and latency-insensitive circuits offer a similar form of elasticity that tolerates vari...
Best Paper Award, Ninth International Conference on Application of Concurrency to System Design.Asyn...
Elasticity in circuits and systems provides tolerance to variations in computation and communication...
Asynchronous and latency-insensitive circuits offer a similar form of elasticity that tolerates vari...
A simple protocol for latency-insensitive design is presented. The main features of the protocol are...
Digital electronic systems typically use synchronous clocks and primarily assume fixed duration of t...
Abstract — A simple protocol for latency-insensitive design is presented. The main features of the p...
Elastic systems provide tolerance to the variations in computation and communication delays. The inc...
Asynchronous design has been an active area of research since at least the mid 1950's, but has ...
We formally define - at the stream transformer level - a class of synchronous circuits that tolerate...
A protocol for latency-insensitive design with early evalua-tion is presented. The protocol is based...
This paper describes an implementation language and synthesis system for automatically generating la...
dissertationElasticity is a design paradigm in which circuits can tolerate arbitrary latency/delay v...
Asynchronous (or "clock-less") digital circuit design has received much attention over the past few ...
Abstract. Synchronous Elasticization converts an ordinary clocked circuit into Latency-Insensitive (...
Asynchronous and latency-insensitive circuits offer a similar form of elasticity that tolerates vari...
Best Paper Award, Ninth International Conference on Application of Concurrency to System Design.Asyn...
Elasticity in circuits and systems provides tolerance to variations in computation and communication...
Asynchronous and latency-insensitive circuits offer a similar form of elasticity that tolerates vari...
A simple protocol for latency-insensitive design is presented. The main features of the protocol are...
Digital electronic systems typically use synchronous clocks and primarily assume fixed duration of t...
Abstract — A simple protocol for latency-insensitive design is presented. The main features of the p...
Elastic systems provide tolerance to the variations in computation and communication delays. The inc...
Asynchronous design has been an active area of research since at least the mid 1950's, but has ...
We formally define - at the stream transformer level - a class of synchronous circuits that tolerate...
A protocol for latency-insensitive design with early evalua-tion is presented. The protocol is based...
This paper describes an implementation language and synthesis system for automatically generating la...
dissertationElasticity is a design paradigm in which circuits can tolerate arbitrary latency/delay v...
Asynchronous (or "clock-less") digital circuit design has received much attention over the past few ...
Abstract. Synchronous Elasticization converts an ordinary clocked circuit into Latency-Insensitive (...