Reducing the complexity of financial networks using network embeddings

Abstract Accounting scandals like Enron (2001) and Petrobas (2014) remind us that untrustworthy financial information has an adverse effect on the stability of the economy and can ultimately be a source of systemic risk. This financial information is derived from processes and their related monetary...

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Main Authors: M. Boersma, A. Maliutin, S. Sourabh, L. A. Hoogduin, D. Kandhai
Format: Article
Language:English
Published: Nature Publishing Group 2020-10-01
Series:Scientific Reports
Online Access:https://doi.org/10.1038/s41598-020-74010-2
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spelling doaj-28790a22d30241ea9542d051ad292aa12020-12-08T11:25:59ZengNature Publishing GroupScientific Reports2045-23222020-10-0110111510.1038/s41598-020-74010-2Reducing the complexity of financial networks using network embeddingsM. Boersma0A. Maliutin1S. Sourabh2L. A. Hoogduin3D. Kandhai4Computational Science Lab, University of AmsterdamComputational Science Lab, University of AmsterdamComputational Science Lab, University of AmsterdamKPMG Global Solutions GroupComputational Science Lab, University of AmsterdamAbstract Accounting scandals like Enron (2001) and Petrobas (2014) remind us that untrustworthy financial information has an adverse effect on the stability of the economy and can ultimately be a source of systemic risk. This financial information is derived from processes and their related monetary flows within a business. But as the flows are becoming larger and more complex, it becomes increasingly difficult to distill the primary processes for large amounts of transaction data. However, by extracting the primary processes we will be able to detect possible inconsistencies in the information efficiently. We use recent advances in network embedding techniques that have demonstrated promising results regarding node classification problems in domains like biology and sociology. We learned a useful continuous vector representation of the nodes in the network which can be used for the clustering task, such that the clusters represent the meaningful primary processes. The results show that we can extract the relevant primary processes which are similar to the created clusters by a financial expert. Moreover, we construct better predictive models using the flows from the extracted primary processes which can be used to detect inconsistencies. Our work will pave the way towards a more modern technology and data-driven financial audit discipline.https://doi.org/10.1038/s41598-020-74010-2
collection DOAJ
language English
format Article
sources DOAJ
author M. Boersma
A. Maliutin
S. Sourabh
L. A. Hoogduin
D. Kandhai
spellingShingle M. Boersma
A. Maliutin
S. Sourabh
L. A. Hoogduin
D. Kandhai
Reducing the complexity of financial networks using network embeddings
Scientific Reports
author_facet M. Boersma
A. Maliutin
S. Sourabh
L. A. Hoogduin
D. Kandhai
author_sort M. Boersma
title Reducing the complexity of financial networks using network embeddings
title_short Reducing the complexity of financial networks using network embeddings
title_full Reducing the complexity of financial networks using network embeddings
title_fullStr Reducing the complexity of financial networks using network embeddings
title_full_unstemmed Reducing the complexity of financial networks using network embeddings
title_sort reducing the complexity of financial networks using network embeddings
publisher Nature Publishing Group
series Scientific Reports
issn 2045-2322
publishDate 2020-10-01
description Abstract Accounting scandals like Enron (2001) and Petrobas (2014) remind us that untrustworthy financial information has an adverse effect on the stability of the economy and can ultimately be a source of systemic risk. This financial information is derived from processes and their related monetary flows within a business. But as the flows are becoming larger and more complex, it becomes increasingly difficult to distill the primary processes for large amounts of transaction data. However, by extracting the primary processes we will be able to detect possible inconsistencies in the information efficiently. We use recent advances in network embedding techniques that have demonstrated promising results regarding node classification problems in domains like biology and sociology. We learned a useful continuous vector representation of the nodes in the network which can be used for the clustering task, such that the clusters represent the meaningful primary processes. The results show that we can extract the relevant primary processes which are similar to the created clusters by a financial expert. Moreover, we construct better predictive models using the flows from the extracted primary processes which can be used to detect inconsistencies. Our work will pave the way towards a more modern technology and data-driven financial audit discipline.
url https://doi.org/10.1038/s41598-020-74010-2
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