Network Topology to Predict Bibliometrics Indices: A Case Study
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- Vincenza Carchiolo 11 ,
- Marco Grassia 11 ,
- Michele Malgeri 11 &
- Giuseppe Mangioni 11
Part of the book series: Lecture Notes in Computer Science ((LNCS,volume 13635))
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- International Conference on Information Integration and Web
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Co-authorship networks have been widely studied in recent years, but today new techniques and increasing computational power permit performing novel analysis and evaluate larger datasets. One of the emerging topic is the investigation of the reasons that determine the success of some people among the others. Researchers and academic community are of interest because the metric to evaluate their performance, although widely debated, are consolidated and based on bibliometrics indices, that are quantifiable. Moreover, the paradigm of complex networks added another perspective that, often, allows discovering hidden behaviors. This paper proposes an analysis of four large datasets related to Italian academic working for public institutions, and grouped by law in academic disciplines, using network analysis tools in order to compare their structure and characteristics highlighting, if any, similarities and difference. Moreover, applying a machine learning approach, the authors try to predict some bibliometric indices using network topology.
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Acknowledgment
This work has been partially supported by the project of University of Catania PIACERI, PIAno di inCEntivi per la Ricerca di Ateneo .
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Vincenza Carchiolo, Marco Grassia, Michele Malgeri & Giuseppe Mangioni
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Eric Pardede
Monash University, Melbourne, VIC, Australia
Pari Delir Haghighi
Johannes Kepler University Linz, Linz, Austria
Ismail Khalil
Gabriele Kotsis
Figure 6 shows a bivariate analysis of each centrality measures respect to H-index, Fig. 7 and 8 show a bivariate analysis of document-count and citation-count. In the figures, the cyan refers to MAT/05 , yellow to INF/01 , green to ING-INF/05 , and, finally, orange to SECS-P/01 .
Centrality measure vs. H-index
Centrality measure vs. Document-count
Centrality measure vs. Citation-count
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Carchiolo, V., Grassia, M., Malgeri, M., Mangioni, G. (2022). Network Topology to Predict Bibliometrics Indices: A Case Study. In: Pardede, E., Delir Haghighi, P., Khalil, I., Kotsis, G. (eds) Information Integration and Web Intelligence. iiWAS 2022. Lecture Notes in Computer Science, vol 13635. Springer, Cham. https://doi.org/10.1007/978-3-031-21047-1_16
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The Dynamic of Banking Network Topology, Case Study: Indonesian Presidential Election Event
2018, The 2018 International Workshop on Big Data & Information Security (IWBIS)
Information and communication technologies have brought major changes in data storage and processing. Various types and high volume of data has been digitalized and support mining-based data processing to provide knowledge in a modern and efficient way. Banking transaction data has been stored digitally and suitable for the mining process especially in network science model. Understanding transaction system risk requires fundamental study on payments flow and bank behavior in various situations. Lehman Brother’s failure spread contagion impact in a short time indicates that financial markets have interdependent properties and connected to each other in a large network. Thus, overall system network approach becomes more important than a single bank. Political conditions greatly affect economic stability including the banking and financial sectors. Presidential election is a major political event for a nation. This affected on community sentiment and financial market. However, the linkage between political events and topological changes is poorly understood. This research presents an insight of the event driven dynamic network topology with banking transaction as a case study. We search for the banking transaction network topology dynamic driven by 2014 Indonesian presidential election event. We discover that banks are more engaged to others in larger value 3 days before the end of campaign period and less engaged to others in smaller value in the end of campaign period. Unique transaction activity between banks remain stable with low declination in the end of campaign period. This scenario provides the possibility to learn the banking transaction pattern and support the financial system stability supervision.
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Messages in a Tree Network Topology can be either broadcast from the central node to all interconnected Star Networks, or targeted to select Star Networks. One major advantage of the Tree Network Topology is the ease at which the network can be expanded. Expansion can be as simple as linking in an additional Star Network Topology onto the bus.
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network and application layer creating a logical or overlay topology. Network communication depends on its underlying structure. This drives protocol performance, and has impact on routing behavior and complexity. Choosing an appropriate topology for simulations, analytical studies, or ex-periments is an important task.
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Network topology is links and nodes of a network are arranged to related are arranged to each other. They describe the physical and logical arrangement of network nodes. The way in which different system and node are connect and communicate with each other is determined by topology of the network. Download Free PDF.
3 Results. In this Section, we introduce and analyze the dataset—derived from the depth-one networks presented in Sect. 2 —and used to train a model to predict the H-index, the document-count and the citation-count bibliometrics because the main goal of this work is to assess that network topology affects these indices.
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