Multimodal data integration to model, predict, and understand changes in plant biodiversity: a systematic review

The integration of multimodal data to analyze, model, and predict changes in plant biodiversity is critical for addressing global conservation challenges. This systematic review examines the current landscape of plant biodiversity data, focusing on the identification, classification, and evaluation of key open-access data sources and integration methodologies. We highlight the strengths and limitations of major biodiversity platforms, emphasizing their contributions to species occurrence, trait data, taxonomic checklists, and environmental variables. The review also explores computational tools for data integration. We describe and analyze the role of Darwin Core standards in data standardization, harmonization, and interoperability, highlighting the importance of tools such as Species Distribution Models and machine learning. Additionally, we assess the tools available for multimodal data integration and analysis of the effects of environmental drivers (e.g., temperature, precipitation, topography) on biodiversity. We find significant advancements in biodiversity informatics over the last decades. Still, challenges persist in achieving interoperability across datasets, in addressing spatial and temporal biases, and in integrating remote sensing with in situ observations. By identifying both the challenges and emerging solutions, this review contributes to advancing biodiversity monitoring strategies, aligning with global conservation goals outlined by the Convention on Biological Diversity and the United Nations Sustainable Development Goal 15. Ultimately, the findings underscore the importance of harmonized data integration frameworks to enhance predictive modeling capabilities and inform effective conservation policies. • Reviews 12 biodiversity platforms and their data integration strategies. • Assesses data quality, coverage, and interoperability for ecological modeling. • Explores SDMs and deep learning in biodiversity prediction. • Identifies gaps in spatial-temporal coverage and the role of remote sensing data. • Proposes multimodal data integration like a novel approach for ecological analysis.

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Publication Details

Journal
Ecological Informatics
Published
2025-10-25
DOI
https://doi.org/10.1016/j.ecoinf.2025.103485
Citations
2
Primary Topic
Species Distribution and Climate Change
Type
article
Field-Weighted Citation Impact
3.68
Controls
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article

Multimodal data integration to model, predict, and understand changes in plant biodiversity: a systematic review

Rui Alves, Jordi Mateo, Albert Sorribas, Francesc Solsona et al.
2 citations
Ecological Informatics
Species Distribution and Climate Change
3.68
article

Multimodal data integration to model, predict, and understand changes in plant biodiversity: a systematic review

Rui Alves, Jordi Mateo, Albert Sorribas, Francesc Solsona, Eva Luz Tejada-Gutiérrez, Raquel Defacio, Emilce Soledad Martinez
article en
2 citations

Abstract

The integration of multimodal data to analyze, model, and predict changes in plant biodiversity is critical for addressing global conservation challenges. This systematic review examines the current landscape of plant biodiversity data, focusing on the identification, classification, and evaluation of key open-access data sources and integration methodologies. We highlight the strengths and limitations of major biodiversity platforms, emphasizing their contributions to species occurrence, trait data, taxonomic checklists, and environmental variables. The review also explores computational tools for data integration. We describe and analyze the role of Darwin Core standards in data standardization, harmonization, and interoperability, highlighting the importance of tools such as Species Distribution Models and machine learning. Additionally, we assess the tools available for multimodal data integration and analysis of the effects of environmental drivers (e.g., temperature, precipitation, topography) on biodiversity. We find significant advancements in biodiversity informatics over the last decades. Still, challenges persist in achieving interoperability across datasets, in addressing spatial and temporal biases, and in integrating remote sensing with in situ observations. By identifying both the challenges and emerging solutions, this review contributes to advancing biodiversity monitoring strategies, aligning with global conservation goals outlined by the Convention on Biological Diversity and the United Nations Sustainable Development Goal 15. Ultimately, the findings underscore the importance of harmonized data integration frameworks to enhance predictive modeling capabilities and inform effective conservation policies. • Reviews 12 biodiversity platforms and their data integration strategies. • Assesses data quality, coverage, and interoperability for ecological modeling. • Explores SDMs and deep learning in biodiversity prediction. • Identifies gaps in spatial-temporal coverage and the role of remote sensing data. • Proposes multimodal data integration like a novel approach for ecological analysis.

Ecological InformaticsVol. 92
Universitat de Lleida (ES), Instituto Nacional de Tecnologia (BR), Instituto de Investigación Biomédica de Lleida (ES)
Openalex Percentile: Top 7%
Species Distribution and Climate Change
3.68
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