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commit ff11d425f81a65b41e604836cbf84825fbc69ac2
parent b3e4f107e6726f8f7f549949c538da77b6f7d092
Author: Pablo Cárdenas <pablo.cardenas@imca.edu.pe>
Date:   Wed, 12 Oct 2022 15:18:19 -0500

Added dijkstra cuda references

Diffstat:
M.config/bib/references.bib | 56++++++++++++++++++++++++++++++++++++++++++++++++++++++++
1 file changed, 56 insertions(+), 0 deletions(-)

diff --git a/.config/bib/references.bib b/.config/bib/references.bib @@ -274,3 +274,59 @@ year = "2006", URL = "https://www.amazon.com/dp/1569755620", } + +@InProceedings{harish2007, + author = "Pawan Harish and P. J. Narayanan", + editor = "Srinivas Aluru and Manish Parashar and Ramamurthy + Badrinath and Viktor K. Prasanna", + title = "Accelerating Large Graph Algorithms on the {GPU} Using + {CUDA}", + booktitle = "High Performance Computing -- {HiPC 2007}", + year = "2007", + publisher = "Springer Berlin Heidelberg", + address = "Berlin, Heidelberg", + pages = "197--208", + abstract = "Large graphs involving millions of vertices are common + in many practical applications and are challenging to + process. Practical-time implementations using high-end + computers are reported but are accessible only to a + few. Graphics Processing Units (GPUs) of today have + high computation power and low price. They have a + restrictive programming model and are tricky to use. + The G80 line of Nvidia GPUs can be treated as a SIMD + processor array using the CUDA programming model. We + present a few fundamental algorithms -- including + breadth first search, single source shortest path, and + all-pairs shortest path -- using CUDA on large graphs. + We can compute the single source shortest path on a 10 + million vertex graph in 1.5 seconds using the Nvidia + 8800GTX GPU costing {\$}600. In some cases optimal + sequential algorithm is not the fastest on the GPU + architecture. GPUs have great potential as + high-performance co-processors.", +%ISBN = "97-83540-772-2", +} + +@InProceedings{martin2009, + author = "Pedro J. Mart{\'i}n and Roberto Torres and Antonio + Gavilanes", + editor = "Gabrielle Allen and Jaroslaw Nabrzyski and Edward + Seidel and Geert Dick van Albada and Jack Dongarra and + Peter M. A. Sloot", + title = "{CUDA} Solutions for the {SSSP} Problem", + booktitle = "Computational Science -- {ICCS 2009}", + year = "2009", + publisher = "Springer Berlin Heidelberg", + address = "Berlin, Heidelberg", + pages = "904--913", + abstract = "We present several algorithms that solve the + single-source shortest-path problem using CUDA. We have + run them on a database, composed of hundreds of large + graphs represented by adjacency lists and adjacency + matrices, achieving high speedups regarding a CPU + implementation based on Fibonacci heaps. Concerning + correctness, we outline why our solutions work, and + show that a previous approach [10] is incorrect.", +%ISBN="978-3-642-01970-8" +} +