Advances in Complex System Analysis and Visualization

The field of complex system analysis and visualization is moving towards the development of more sophisticated and principled tools for comparing and understanding complex systems. Researchers are focusing on creating innovative methods for visualizing and analyzing multivariate, multiscale data, such as turbulent flows and process communication latency. These new approaches are enabling scientists to better comprehend the interactions between multiple fields and length scales in complex systems. Notable papers in this area include: PCLVis, which provides a framework for analyzing process communication latency events in large-scale simulations. Glyph-Based Multiscale Visualization of Turbulent Multi-Physics Statistics, which introduces a novel local spatial statistical visualization of flow fields across multiple fields and turbulence scales. ClustOpt, which proposes a clustering-based approach for representing and visualizing the search dynamics of numerical metaheuristic optimization algorithms.

Sources

A suite of allotaxonometric tools for the comparison of complex systems using rank-turbulence divergence

Glyph-Based Multiscale Visualization of Turbulent Multi-Physics Statistics

PCLVis: Visual Analytics of Process Communication Latency in Large-Scale Simulation

Evolutionary computing-based image segmentation method to detect defects and features in Additive Friction Stir Deposition Process

Comparing Optimization Algorithms Through the Lens of Search Behavior Analysis

Metric Design != Metric Behavior: Improving Metric Selection for the Unbiased Evaluation of Dimensionality Reduction

Tracing the Interactions of Modular CMA-ES Configurations Across Problem Landscapes

ClustOpt: A Clustering-based Approach for Representing and Visualizing the Search Dynamics of Numerical Metaheuristic Optimization Algorithms

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