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April 18, 2026Remote Sensing1 citationsOpen Access

Artificial Intelligence and Machine Learning in Remote Sensing for Tropical Forest Monitoring: Applications, Challenges, and Emerging Solutions

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BGBelachew Gizachew

Key Points

  • This review aims to explore how AI and machine learning can enhance remote sensing for tropical forest monitoring.
  • Semi-systematic synthesis of peer-reviewed studies
  • Assessment of AI/ML approaches and remote sensing datasets
  • Evaluation of operational monitoring platforms
  • Analysis of application domains such as deforestation and biomass estimation
  • Identification of technical, institutional, and governance barriers
  • AI/ML-enabled remote sensing improves automation and speed of tropical forest monitoring
  • Integration of different data types like optical, radar, and LiDAR enhances monitoring capabilities
  • Challenges include limited training data and uneven technical capacity
  • Emerging solutions involve open datasets and inclusive governance frameworks
  • AI/ML tools may support climate mitigation and biodiversity conservation if well-governed

Abstract

Tropical forests, despite their critical environmental and socio-economic roles, remain highly vulnerable to deforestation, forest degradation, and climate-related disturbances. There is a growing demand for robust and transparent forest monitoring systems, particularly under REDD+, the Paris Agreement’s Enhanced Transparency Framework (ETF), and emerging climate-finance mechanisms. Conventional approaches based on field inventories and traditional remote sensing are often constrained by limited or uneven field data, persistent cloud cover, complex forest conditions, and limited institutional and technical capacity. This review examines how artificial intelligence (AI) and machine learning (ML) are being integrated into remote sensing–based tropical forest monitoring to address these structural constraints. Using a semi-systematic synthesis of peer-reviewed studies, complemented by operational platforms and grey literature, the review assesses AI/ML approaches, remote sensing datasets, and applications relevant to national and large-scale monitoring. Evidence is synthesized across five analytical dimensions: AI/ML model families and workflows, multi-sensor datasets and training resources, operational monitoring platforms, application domains (including deforestation, degradation, and biomass/carbon estimation), and cross-cutting technical, institutional, and governance barriers. The review finds that AI/ML-enabled remote sensing, particularly those combining optical, radar, and LiDAR time series within cloud-based platforms, has substantially improved the automation, scalability, and speed of tropical forest monitoring. However, effective and equitable adoption remains constrained by limitations in training and validation data, dependence on proprietary platforms and data, uneven technical capacity, and unresolved governance and ethical challenges. Emerging solutions, including open and representative training datasets, platform-agnostic processing infrastructures, long-term capacity building, and inclusive data-governance frameworks, are identified as critical enablers of credible and nationally owned AI/ML-enabled forest-monitoring systems. The review highlights that AI/ML can play a transformative role in supporting climate mitigation, biodiversity conservation, and informed decision-making. This potential, however, depends on transparent data governance arrangements, long-term capacity building, and platform-agnostic infrastructures that support national ownership.

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Cite This Study

Belachew Gizachew (2026) studied this question.

synapsesocial.com/papers/69e3207940886becb653f928https://doi.org/10.3390/rs18081193
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