DocumentCode :
1642272
Title :
A multi parametric optimization based novel approach for an efficient design space exploration for ASIC design
Author :
Parvathaneni, Tulasi Krishna ; Sachdeva, Priyam ; Dhanuka, Suraj Kumar ; Gagrani, Mukul ; Sarkar, Pradyut
Author_Institution :
VIT Univ., Chennai, India
fYear :
2013
Firstpage :
868
Lastpage :
873
Abstract :
High level synthesis (HLS) is the methodology of generating Register Transfer Logic(RTL) design taking into consideration the behavioural specification and constraints within an optimized cost function. Design space exploration (DSE), an important stage of HLS, is a task for identifying and evaluating design alternatives during system development for obtaining Pareto optimal solution. Concerns over the power dissipation coupled with the conventional metrics such as area, time delay, thermal, performance, reliability, cost and testability have raised the demand for an efficient technique of high level synthesis with better design space exploration. This paper presents a novel approach to achieve a Pareto optimal solution for this design space exploration in minimum possible design time using Greedy Algorithm and Priority Factor (PF) for power and timing analysis.
Keywords :
Pareto optimisation; application specific integrated circuits; circuit reliability; greedy algorithms; high level synthesis; ASIC design; DSE; HLS; Pareto optimal solution; RTL design; area metrics; behavioural constraint; behavioural specification; cost metrics; design alternatives evaluation; design alternatives identification; design space exploration; design time; greedy algorithm; high level synthesis; multiparametric optimization; optimized cost function; performance metrics; power analysis; power dissipation; priority factor; register transfer logic design; reliability metrics; testability metrics; thermal metrics; time delay; timing analysis; Band-pass filters; Clocks; Computer architecture; Greedy algorithms; Scheduling; Space exploration; Timing; ASAP (As Soon As Possible); Design Flow Graph (DFG); Design Space Exploration (DSE); Execution Time; Field Programmable Gate Array(FPGA); High Level Synthesis; Latency; Pareto Optimal Point; Power Consumption; Resource Binding;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Advances in Computing, Communications and Informatics (ICACCI), 2013 International Conference on
Conference_Location :
Mysore
Print_ISBN :
978-1-4799-2432-5
Type :
conf
DOI :
10.1109/ICACCI.2013.6637290
Filename :
6637290
Link To Document :
بازگشت