TOWARDS TRUSTWORTHY WILDFIRE DETECTION: INTEGRATING EXPLAINABILITY AND UNCERTAINTY IN DEEP LEARNING MODELS

TOWARDS TRUSTWORTHY WILDFIRE DETECTION: INTEGRATING EXPLAINABILITY AND UNCERTAINTY IN DEEP LEARNING MODELS

Authors

  • Khidirova Dilrabo Rasuljon qizi Independent AI Research & Applied Machine Learning

Keywords:

trustworthy artificial intelligence; wildfire detection; Grad-CAM; uncertainty calibration; deep learning.

Abstract

Wildfires are now a climate-driven, year-round hazard, raising the value of deep learning for early visual detection. This study presents BlazeVeritas AI, a wildfire detection framework integrating CNN, ResNet-18 [8], and DenseNet-121 [5] with Grad-CAM [7] explainability and uncertainty calibration via Monte Carlo Dropout [9] and Temperature Scaling, deployed through FastAPI and Streamlit. Results show that pairing explanation with calibrated uncertainty improves the reliability of wildfire decision-support systems.

References

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Published

2026-05-21

How to Cite

Khidirova Dilrabo Rasuljon qizi. (2026). TOWARDS TRUSTWORTHY WILDFIRE DETECTION: INTEGRATING EXPLAINABILITY AND UNCERTAINTY IN DEEP LEARNING MODELS. MANAGEMENT AND ECONOMICS SCIENTIFIC RESEARCH JOURNAL, 3(2), 113–119. Retrieved from https://journals.timeedu.uz/index.php/mesr/article/view/121

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