From: UAV- based Photogrammetry and Geocomputing for Hazards and Disaster Risk Monitoring – A Review
Nb. | Type | Hazard Assessment | Vulnerability | Emergency | Disaster | (A)pplied | Hazard | Key concepts | References | |
---|---|---|---|---|---|---|---|---|---|---|
rotor | Fix-wing | Recovery | (T)est; (Th)ory | Denomination | ||||||
1 | x | x | x | T | Mapping; Compared fixed wings against multirotor & rapid photogrammetry processing against precise slow method. | Boccardo et al. (2015) | ||||
2 | x | x | Th | Discuss the use of UAV in disasters and accident as a new frontier in human activity observations and provide technical developments | ||||||
3 | x | x | x | T, Th | Use UAVs as telecommunication relay replacement in disaster impacted areas/simulation of network efficiency | Bupe et al. (2015), Dalmasso et al. (2012), Tuna et al. (2014) | ||||
4 | x | x | x | T, A | Earthquake | UAV photogrammetry at different altitude for Sichuan Earthquake Recovery Mgt | Merdaway and Guvenc (2015) | |||
5 | x | x | x | x | A | Flood | Urban flood mapping using random forest algorithm from UAV acquired data | |||
6 | x | x | T | Real time mapping and communication with authorities for hazard and emergency mapping | Suzuki et al. (2008) | |||||
7 | x | x | x | x | Th | Food and relief material transport | Nedjati et al. (2016) | |||
8 | x | x | x | Th, T | Earthquake | Use photographs and pointclouds acquired from the ground and UAV to detect earthquake impacts on buildings | Vetrivel et al. (2015) | |||
9 | x | x | x | x | A | Landslides and debris flows | Use of a fix-wing based imagery for post-landslide and debris-flow | Liu et al. (2015) | ||
10 | x | x | A | UAV-based imagery to monitor change in different environments including post-disaster | Ezequiel et al. (2014) |