Deep Learning in Modeling Complex Systems
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Perustieteiden korkeakoulu |
Bachelor's thesis
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Date
2024-12-13
Department
Major/Subject
Data Science
Mcode
SCI3095
Degree programme
Aalto Bachelor’s Programme in Science and Technology
Language
en
Pages
23+3
Series
Abstract
On many occasions, there arises a need to model complex system behavior to enable the management and/or inference of given systems. Common examples include managing resource efficiency and simulating security threats whose analysis is prone to immense complexity. For such tasks, traditional human-made mathematical models have been applied in the past, but these traditional approaches are becoming increasingly challenging to implement as system complexity grows. To overcome the rise in complexity, the application of deep learning methods has emerged as a solution. The aim of this thesis is to review applicable deep learning methods for complex systems modeling. After a review of the literature, there is evidence of an abundance of successful deep learning applications across a wide spectrum of fields. In particular, graph neural networks (GNNs) and attention mechanisms show high potential in weather prediction and other dynamic systems simulations. The ability of these methods to represent high-dimensional and non-linear input spaces justifies their application in complex systems scenarios. Even with these strengths, most GNN-based systems are still proofs of concept and highly tuned for single applications. Thus, this review points to the development of robust field- and problem-specific frameworks to overcome the uncertainty in method selection present in the current scene. For this task, the thesis provides a starting point of relevant research with methods applicable for the advancement of these frameworks.Description
Supervisor
Korpi-Lagg, MaaritThesis advisor
Hirvisalo, VesaKeywords
deep learning, complex system, graph neural network, robustness, systems modeling