AI driven Species Recognition and Digital Systematics: Applying artificial intelligence for automated organism classification in ecological and environmental monitoring.

Advancements in artificial intelligence (AI) are transforming ecological and environmental monitoring through automated species recognition and digital systematics.Traditional taxonomic classification methods, reliant on expert knowledge and manual identification, are often time-consuming and limited by human subjectivity.AI-driven species recognition leverages deep learning and computer vision to enhance classification accuracy, automate biodiversity assessments, and facilitate large-scale ecological research.By integrating AI with digital systematics, researchers can process vast amounts of species data, enabling rapid identification and monitoring of organisms in diverse ecosystems.At a broader level, AI-driven classification systems utilize convolutional neural networks (CNNs), transfer learning, and generative models to analyse morphological, genetic, and behavioural traits.These models enhance species identification in various applications, including biodiversity conservation, habitat monitoring, and invasive species detection.AI-powered digital systematics improves taxonomic accuracy, accelerates species discovery, and aids in tracking climate-induced ecological changes.Furthermore, AI-driven ecological monitoring enables real-time data collection through automated camera traps, drone-based surveys, and environmental DNA (eDNA) analysis, significantly reducing the time and resources required for field studies.Narrowing the focus, this paper explores case studies in automated organism classification across terrestrial, marine, and microbial ecosystems.It examines the integration of AI-driven models with citizen science platforms, genomic databases, and environmental informatics tools, demonstrating their potential in global biodiversity conservation.Additionally, challenges such as data biases, algorithmic transparency, and the need for standardized digital taxonomies are addressed.By providing a comprehensive analysis of AI-driven species recognition, this study underscores the transformative potential of artificial intelligence in ecological research.The findings highlight how AI-enhanced digital systematics can optimize conservation efforts, improve environmental management strategies, and promote sustainable biodiversity monitoring.

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Publication Details

Journal
International Journal of Research Publication and Reviews
Published
2025-02-01
DOI
https://doi.org/10.55248/gengpi.6.0225.0703
Citations
3
Primary Topic
Species Distribution and Climate Change
Type
article
Field-Weighted Citation Impact
5.51
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article

AI driven Species Recognition and Digital Systematics: Applying artificial intelligence for automated organism classification in ecological and environmental monitoring.

Abiodun Humphrey Adebayo
3 citations
International Journal of Research Publication and Reviews
Species Distribution and Climate Change
5.51
article

AI driven Species Recognition and Digital Systematics: Applying artificial intelligence for automated organism classification in ecological and environmental monitoring.

Abiodun Humphrey Adebayo
article en
3 citations

Abstract

Advancements in artificial intelligence (AI) are transforming ecological and environmental monitoring through automated species recognition and digital systematics.Traditional taxonomic classification methods, reliant on expert knowledge and manual identification, are often time-consuming and limited by human subjectivity.AI-driven species recognition leverages deep learning and computer vision to enhance classification accuracy, automate biodiversity assessments, and facilitate large-scale ecological research.By integrating AI with digital systematics, researchers can process vast amounts of species data, enabling rapid identification and monitoring of organisms in diverse ecosystems.At a broader level, AI-driven classification systems utilize convolutional neural networks (CNNs), transfer learning, and generative models to analyse morphological, genetic, and behavioural traits.These models enhance species identification in various applications, including biodiversity conservation, habitat monitoring, and invasive species detection.AI-powered digital systematics improves taxonomic accuracy, accelerates species discovery, and aids in tracking climate-induced ecological changes.Furthermore, AI-driven ecological monitoring enables real-time data collection through automated camera traps, drone-based surveys, and environmental DNA (eDNA) analysis, significantly reducing the time and resources required for field studies.Narrowing the focus, this paper explores case studies in automated organism classification across terrestrial, marine, and microbial ecosystems.It examines the integration of AI-driven models with citizen science platforms, genomic databases, and environmental informatics tools, demonstrating their potential in global biodiversity conservation.Additionally, challenges such as data biases, algorithmic transparency, and the need for standardized digital taxonomies are addressed.By providing a comprehensive analysis of AI-driven species recognition, this study underscores the transformative potential of artificial intelligence in ecological research.The findings highlight how AI-enhanced digital systematics can optimize conservation efforts, improve environmental management strategies, and promote sustainable biodiversity monitoring.

International Journal of Research Publication and ReviewsVol. 6(2)
University of Staffordshire (GB)
Life in Land
Openalex Percentile: Top 6%
Species Distribution and Climate Change
5.51
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