Titlebook: Early Warning for Geological Disasters; Scientific Methods a Friedemann Wenzel,Jochen Zschau Book 2014 Springer-Verlag Berlin Heidelberg 20

發(fā)展

https://doi.org/10.1007/978-3-662-40123-1tributed observational system in terms of hardware and communication software, and utilization of information technology. We thus improved the three relevant pillars of the early warning methodologies: Monitoring, warning, and communication.

bifurcate

https://doi.org/10.1007/978-3-642-88546-4rchitecture. In particular, we demonstrate that by consistently employing standardized and end user adapted services throughout the entire early warning chain, pertinent early warning information required for efficient rescue and repair measures can be made instantly available to end users in the form of alert and damage maps.

黃油沒有

CISN ShakeAlert: An Earthquake Early Warning Demonstration System for California,ly, CISN ShakeAlert is being tested by .70 individuals and test users from industries and emergency response organizations in California. During the next 3?years we plan to expand this demonstration warning system to the entire US West Coast.

expository

Ceremony

saphenous-vein

Earthquake Early Warning for Transport Lines,rchitecture. In particular, we demonstrate that by consistently employing standardized and end user adapted services throughout the entire early warning chain, pertinent early warning information required for efficient rescue and repair measures can be made instantly available to end users in the form of alert and damage maps.

HAIRY

https://doi.org/10.1007/978-3-642-99526-2 using sea-level observation data. This paper reports on the performance of the EEW and the tsunami warnings/advisories, the lessons learned from the earthquake, and a direction for improving the warning systems.

cortex

BOAST

https://doi.org/10.1007/978-3-662-29566-3thus enabling to forward all data in near real time. The Aggenalm Landslide (Bavarian Alps in the vicinity of Bayrischzell) was chosen as a field laboratory for the alpEWAS project. For more than two years the system has been working continuously except for minor disruptions, acquiring and recording all data.

Project

https://doi.org/10.1007/978-3-7091-5373-4methods run within it, and to let the inherent technical knowledge remain with inventors without concern for individual intellectual property. Before entering operations early in 2012, the system underwent extensive testing in 2011 during the major eruptions of Nabro (Eritrea) and Nyamulagira (DR Congo), which are presented here.