arrow
Return

Adaptive multi-level feature learning framework for natural disaster image classification

delete2026-08-10
delete0
PRE
AI
G
Gourav Mondal
R
Rajesh Kumar Dhanaraj *
D
Dragan Pamucar *
V
Vladimir Šimić
DOI:10.1007/s12145-026-02202-xdelete
deleteOriginal
deleteOriginal request for help
deleteShare
deleteSave
Abstract

Abstract

En 中文
Natural disaster recognition is crucial in disaster management, emergency response, and damage assessment. In modern scenarios, even leveraging Deep Learning (DL), specifically CNNs and hybrid learning models, delivers significant solutions, there are still many challenges in the field, such as redundant feature extraction, high computational cost, and decreased reliability in noisy and heterogeneous environments. These constraints may affect their utility in disaster contexts, where rapid verdict-creation is acute. To tackle such challenges, this work proposes a novel multi-level feature-learning framework that incorporates adaptive image enhancement, hybrid segmentation, multi-texture feature extraction, attention-based classification, and a self-adaptive optimization strategy within a single architecture for image classification of natural disasters. The proposed system combines the Adaptive Long Recursive Kalman Filter (ALRKF) and a Bi-LSTM (Bidirectional Long Short-Term Memory) network to reduce noise and enhance images across different environments adaptively. The hybrid U-ResSegNet architecture combines the best of both architectures, U-Net and ResNet-50, to achieve better segmentation results, enabling the extraction of regions without losing fine spatial details or high-level semantic information. The segmented images are then described using Local Binary Pattern (LBP) to capture complementary local texture characteristics, and Local Ternary Pattern (LTP) and GLCM (Grey-Level Co-occurrence Matrix) to capture complementary global texture characteristics. A feature classification-based attentive mechanism network is leveraged to classify the resulting feature representations, and the parameters are optimized using the proposed Self-Adaptive Driving Training Optimization (SA-DTO) algorithm, which enhances the convergence stability and learning efficiency. The Multi-Class Disaster Images Dataset and the Disaster Images Dataset (CNN-Model) tested the proposed framework, achieving classification accuracies of 98.97% and 99.16% in a complex, noisy environment.
Keywords:
Disaster classification
Adaptive long recursive Kalman filter
U-ResSegNet
Dual-MLP
And Self-adaptive driving training optimization algorithm

Journal

Earth Science Informatics cover
Earth Science Informatics
IF:
3
Papers:
696
Citations:
3.3K

Organization

T
transport and logistics competence centre
Scholars:
4
Papers: 4
Citations: 0
D
department of industrial engineering and management
Scholars:
96
Papers: 59
Citations: 1
researcher View more organizations
Cited Papers

Cited Papers

err
IF0
err
err0
PREAI
err
errShare
errSave
A Smart Framework for Managing Natural Disasters Based on the IoT and ML
err2023-03-18
err0
errOAAI
errFares Hamad Aljohani; Adnan Ahmed Abi Sen; Muhammad Sher Ramazan; Bander Alzahrani; Nour Mahmoud Bahbouh
errShare
errSave
errShare
errSave
Nature inspired meta heuristic algorithms for optimization problems
err2021-05-24
err95
PREAI
errChandra, S. S. Vinod; Anand, H. S.
errShare
errSave
A modified adaptive Kalman filter algorithm for the distributed underwater multi-target passive tracking system
err2025-01-01
err0
PREAI
errMa,Xuefei; Ma,Jiaxin; Ma,Zexu; Khan,Rahim; Wu,Hengliang; Wang,Tingting; Shen,Zhongwei
errShare
errSave
errShare
errSave
A review of the global climate change impacts, adaptation, and sustainable mitigation measures
err2022-04-04
err0
errOAAI
errKashif Abbass; Muhammad Zeeshan Qasim; Huaming Song; Muntasir Murshed; Haider Mahmood; Ijaz Younis
errShare
errSave
Best optimizer selection for predicting bushfire occurrences using deep learning
err2020-05-29
err43
PREAI
errHalgamuge, Malka N.; Daminda, Eshan; Nirmalathas, Ampalavanapillai
errShare
errSave
researcher View more