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S. no | Author (s) | Objectives | Model | Data source | Dataset | Accuracy | Precision | Recall | F-measure |
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1 | Bagloee S. A. et al. (2019) | To change the orientation of the highways to help and simplify emergency evacuation (called contraflow, a traffic control measure) | ML-O, SVM | Winnipeg traffic (keras) | 700+ | NA | NA | NA | NA |
2 | Brett W. Robertson et al. (2019) | To compare the results of manual coding of photographs sent on Twitter during a natural catastrophe with the development of deep learning training sets | VGG-16, MLPs | Random “spritzer” sample of 1% from Twitter directly from the Twitter and Youtube APIs | 700+ | 64 | NA | NA | NA |
3 | Sohaiba Iqbal et al. (2018) | To assess the efficacy of available natural catastrophe management solutions | PRISM model checker, statistical model checker | No public data sets available | 800+ | Fairly accurate result (written in paper) | NA | N.A | N.A |
4 | Sina Nayeri et al. (2018) | To reduce the total of relief operations’ weighted completion times | Multiobjective mix integer nonlinear programming model (MOMIN LP) | No public data sets available | 1000+ | 89.4% | 0.76 | 0.72 | 0.92 |
5 | Marius Cioca et al. (2009) | To present the outcomes and solutions achieved in the event of natural disasters | Decision making | Case study | Not specified | N.A | N.A | N.A | N.A |
6 | Puad Siswahyudi et al. (2 019) | To assess the quality of the of their proposed framework | Conceptual model | Datasets are not publicly available | — | — | — | — | — |
7 | Muhammad Aqib et al. (2018) | To predict urban traffic behavior using deep learning algorithms | GPUs, cloud computing, deep learning techniques | Dataset taken from UK department of transport https://data.gov.uk/ | 1000+ | 93–95 | 85 | 96 | 88 |
8 | M. Alfi et al. (2019) | To study on development of NDMM teaching materials | Data mining techniques | Data collected through questionnaires and tests | 1200+ | 86.2% | 0.71 | 0.88 | 0.94 |
9 | K. Banujan et al. (20 18) | To analyzing post disaster state | Data mining techniques and geotagging | News API and Twitter API | 1000 + | More precisely: 24%, moderate accuracy: 15 per cent, less accurate: 13 per cent | 85% for twitter api and 92% for news api | N.A | N.A |
10 | Muhammad Saqib et al. (2018) | To analyze real-time drone surveillance | R-CNN | Real time data | 1970 frames | 72–78 | 0.82 | NA | NA |
11 | Jaume Rossello et al. (2020) | To determine the effects of natural disasters | Gravity model | United nations world tourism organization (UNWTO, 2015) datasets | Data’ s of 171 countries | 82% | NA | NA | NA |
12 | Shohei Matsuura and Khamarrul Azahari Razak (2019) | To explore how collaboration between science and technology groups and other stakeholders in the Asia-Pacific region could contribute to domestic and local disaster risk reduction | TDA, DRR | Case studies | 700 | NA | NA | NA | NA |
13 | Júlio Mendonça et al. (2019) | To use IT systems for disaster recovery solutions | BLE technology, low cost localization algorithm | Case studies | 49 | NA | NA | NA | NA |
14 | Yu-Wei Kao et al. (2019) | To present the IoT architecture for SAR and DR missions and validate it with the development of a proof of concept prototype | Hybrid for simulation and hardware looping | Live simulations | 700 | NA | NA | NA | NA |
15 | Khan Muhammad et al. (2018) | To showcase the IoT architecture for SAR and DR (disaster relief) missions and validate it with the development of a proof of concept prototype | Fine-tuned CNN, IoMT (internet of multimedia things) | Datasets taken from other literature | 68,475 | 94–95 | 82 | 98 | 89 |
16 | Shunichi Koshimura et al. (2020) | Case study of 2011 Tohoku earthquake tsunami using U-Net CNN | U-Net CNN | Case study including WorldView-2 | 31,262 samples | 70–71 | NA | NA | 76 |
17 | Baojun Zhang (2012) | To investigate emergency relief preparations in the event of a natural disaster | Conceptual model | No public data sets available | 600+ | NA | NA | N.A | N.A |
18 | Ugur Alganci et al. (2020) | To compare the evaluation of advanced CNN object detection models to determine aeroplanes from satellite images | YOLOv3, SSD and faster R-CNN | DOTA dataset | 1631 images | — | Faster R-CNN (best performed)–0.98 | 0.92 | 0.94 |
19 | Eleftherios Lygouras et al. (2019) | To detect and rescue of humans using UAV technologies and real-time computational vision with deep learning techniques | CNN with Tiny YOLOv3 | Own dataset | 4500 images | 55% | — | 70% | — |
20 | Khan Muhammad et al. (2017) | To identify early stage fires during surveillance | CNN | Own dataset (31 videos) | 68,457 images | 94.39 | 0.82 | 0.98 | 0.89 |
21 | Satoshi Togawa and Kazuhide Kanenishi (2016) | To build a disaster recovery framework as against earthquake, tsunami and massive flooding | Prototype system with IaaS architecture | — | — | — | — | — | — |
22 | Balmukund Mishra et al. (2020) | To detect the human action for search and rescue | CNN, faster R-CNN, R-CNN | https://www.leadingindia.ai/data-set | 8000 | — | — | — | — |
23 | Muhammad Imran et al. (2014) | To perform automated classification of microblogging communications related to crises | Artificial intelligence for disaster response (AIDR) | Twitter data | — | — | — | — | — |
24 | Muhammad Imran et al. (2013) | To retrieve data nuggets from microblogging messages at a time of disaster | Automatic classifier | Twitter data | 206,764 unique tweets | — | — | — | — |
25 | Saeed Hamood Alsamhi et al. (2020) | To assess the network performance of UAV-supported intelligent edge computing | OPNET | — | — | — | — | — | |
26 | Edward J. Glantz et al. (2020) | To provide a short overview of how UAV capabilities used in disaster management | — | — | — | | — | — | — |
27 | Lu Tan et al. (2021) | To identify pill for ensuring the safe medication delivery to patients | RetinaNet, single Shot multibox detector (SSD), and you only look once v3 (YOLOv3) | Own dataset | 51,310 images | — | — | — | — |
28 | Muhammad Shahir Hakimy Salem et al. (2021) | To examine the use of UAV-based human detection and technology in search and rescue operations during natural disasters | — | — | — | — | — | — | — |
29 | Amina Khan et al. (2022) | To focus the combined role that WSN, IoT, and UAV systems could play in both natural and man-made DM | — | — | — | — | — | — | — |
30 | Zhang, N et al. (2022) | To offer a method for creating training visuals that were harmoniously composited | YOLOv5l | COCO dataset | — | — | 44.9% | — | — |
31 | Kaushlendra Sharma et al. (2022) | To introduce the use of robots for the initial investigation of the disaster site. The robots toured the area and used the video stream (with audio) they had recorded to locate the human survivors | YOLOv3 (human detection) CNN (speech) | COCO dataset (human detection) GTZAN, scheirer-slaney, and MUSAN (speech) | — | −95.83% | −70.2% | — | −0.9186 |
32 | Saeed Hamood Alsamhi et al. (2021) | To concentrate on network performance for effective disaster management collaboration of drone edge intelligence and smart wearable devices | OPNET 14.5 simulator | — | — | — | — | — | — |
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