High-dimensional wave atoms and compression of seismic datasets

Wave atoms are a low-redundancy alternative to curvelets, suitable for high-dimensional seismic data processing. This abstract extends the wave atom orthobasis construction to 3D, 4D, and 5D Cartesian arrays, and parallelizes it in a shared-memory environment. An implementation of the algorithm for...

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Main Authors: Leinonen, Matti, Hewett, Russell J., Zhang, Xiangxiong, Ying, Lexing, Demanet, Laurent
Other Authors: Massachusetts Institute of Technology. Earth Resources Laboratory
Format: Technical Report
Language:en_US
Published: Massachusetts Institute of Technology. Earth Resources Laboratory 2014
Subjects:
Online Access:http://hdl.handle.net/1721.1/90516
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author Leinonen, Matti
Hewett, Russell J.
Zhang, Xiangxiong
Ying, Lexing
Demanet, Laurent
author2 Massachusetts Institute of Technology. Earth Resources Laboratory
author_facet Massachusetts Institute of Technology. Earth Resources Laboratory
Leinonen, Matti
Hewett, Russell J.
Zhang, Xiangxiong
Ying, Lexing
Demanet, Laurent
author_sort Leinonen, Matti
collection MIT
description Wave atoms are a low-redundancy alternative to curvelets, suitable for high-dimensional seismic data processing. This abstract extends the wave atom orthobasis construction to 3D, 4D, and 5D Cartesian arrays, and parallelizes it in a shared-memory environment. An implementation of the algorithm for NVIDIA CUDA capable graphics processing units (GPU) is also developed to accelerate computation for 2D and 3D data. The new transforms are benchmarked against the Fourier transform for compression of data generated from synthetic 2D and 3D acoustic models.
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spelling mit-1721.1/905162019-04-11T09:46:10Z High-dimensional wave atoms and compression of seismic datasets Leinonen, Matti Hewett, Russell J. Zhang, Xiangxiong Ying, Lexing Demanet, Laurent Massachusetts Institute of Technology. Earth Resources Laboratory Modeling Wave atoms are a low-redundancy alternative to curvelets, suitable for high-dimensional seismic data processing. This abstract extends the wave atom orthobasis construction to 3D, 4D, and 5D Cartesian arrays, and parallelizes it in a shared-memory environment. An implementation of the algorithm for NVIDIA CUDA capable graphics processing units (GPU) is also developed to accelerate computation for 2D and 3D data. The new transforms are benchmarked against the Fourier transform for compression of data generated from synthetic 2D and 3D acoustic models. National Science Foundation (U.S.); Alfred P. Sloan Foundation 2014-10-02T13:34:22Z 2014-10-02T13:34:22Z 2013 Technical Report http://hdl.handle.net/1721.1/90516 en_US Earth Resources Laboratory Industry Consortia Annual Report;2013-26 application/pdf Massachusetts Institute of Technology. Earth Resources Laboratory
spellingShingle Modeling
Leinonen, Matti
Hewett, Russell J.
Zhang, Xiangxiong
Ying, Lexing
Demanet, Laurent
High-dimensional wave atoms and compression of seismic datasets
title High-dimensional wave atoms and compression of seismic datasets
title_full High-dimensional wave atoms and compression of seismic datasets
title_fullStr High-dimensional wave atoms and compression of seismic datasets
title_full_unstemmed High-dimensional wave atoms and compression of seismic datasets
title_short High-dimensional wave atoms and compression of seismic datasets
title_sort high dimensional wave atoms and compression of seismic datasets
topic Modeling
url http://hdl.handle.net/1721.1/90516
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AT hewettrussellj highdimensionalwaveatomsandcompressionofseismicdatasets
AT zhangxiangxiong highdimensionalwaveatomsandcompressionofseismicdatasets
AT yinglexing highdimensionalwaveatomsandcompressionofseismicdatasets
AT demanetlaurent highdimensionalwaveatomsandcompressionofseismicdatasets