A Survey on Exploratory Spatiotemporal Visual Analytics Approaches for Climate Science

TL;DR

This survey reviews current exploratory spatiotemporal visual analytics approaches in climate science, highlighting challenges, techniques, and future directions to enhance climate data analysis and decision-making.

Contribution

It provides a comprehensive categorization and analysis of existing visual analytics methods, identifying trends, limitations, and key challenges in climate data visualization.

Findings

Categorizes visual analytic techniques based on multiple criteria.

Identifies current limitations and challenges in climate visual analytics.

Highlights opportunities for innovation in visualization tools for climate science.

Abstract

Climate science produces a wealth of complex, high-dimensional, multivariate data from observations and numerical models. These data are critical for understanding climate changes and their socioeconomic impacts. Climate scientists are continuously evaluating output from numerical models against observations. This model evaluation process provides useful guidance to improve the numerical models and subsequent climate projections. Exploratory visual analytics systems possess the potential to significantly reduce the burden on scientists for traditional spatiotemporal analyses. In addition, technology and infrastructure advancements are further facilitating broader access to climate data. Climate scientists today can access climate data in distributed analytic environments and render exploratory visualizations for analyses. Efforts are ongoing to optimize the computational efficiency of spatiotemporal analyses to enable efficient exploration of massive data. These advances present further opportunities for the visualization community to innovate over the full landscape of challenges and requirements raised by scientists. In this report, we provide a comprehensive review of the challenges, requirements, and current approaches for exploratory spatiotemporal visual analytics solutions for climate data. We categorize the visual analytic techniques, systems, and tools presented in the relevant literature based on task requirements, data sources, statistical techniques, interaction methods, visualization techniques, performance evaluation methods, and application domains. Moreover, our analytic review identifies trends, limitations, and key challenges in visual analysis. This report will advance future research activities in climate visualizations and enables the end-users of climate data to identify effective climate change mitigation strategies.