Tsunami Articles
This article suggests improvements for some tsunami warning systems by
evaluating “performances” of the
Crawford, G. (2005). NOAA Weather Radio (NWR) – A Coastal Solution to Tsunami Alert and Notification. Natural Hazards, 35, 1, 163-171.
This article
presents the idea of using weather radio as a way to reach the potential
tsunami victims to warn them about its arrival. It also discusses some ways to
detect tsunamis and quickly relay that information to the warning centers on
the shore.
Cyranoske, D. (2005). Solo Efforts Hamper Tsunami Warning System. Nature, 433, 343.
This brief news
article discusses some countries around the globe who
are planning to install tsunami-warning systems.
Dengler, L.; Preuss, J. (2003).Mitigation Lessons from the July 17, 1998 Papua New Guinea Tsunami. Natural Hazards, 160, 10, 2001-2031.
This paper
discusses various relief measures taken after the tsunami in the coastal
communities of eastern
Eisner, R. (2005). Planning for Tsunami: Reducing Future Losses Through Mitigation. Natural Hazards, 35, 1, 155-162.
This paper describes the National
Tsunami Hazard Mitigation Program. This is a great source to learn from about
preventions that can be taken beforehand to reduce the disastrous effects of
tsunamis.
Hanson, B. (2005). Learning from Natural Disasters. Science, 308, 5725, 1125.
This brief article
discusses what we can learn from the natural disasters that have already
occurred.
Hanson, B.; Roberts, L. (2005). Resiliency in the Face of Disaster. Science, 209, 5737, 1029.
This brief article
discusses some very generic ways to recover from tsunamis, and other natural
disasters. Some ways include having the insurance industry to aid in “disaster
recovery”. It also mentions that aside from superficial issues that need to be
taken care of after these disasters, mental health issues of the victims also
have to be observed and treated.
Hurtley, S. (2004). Tsunami and its Shadow. Science, 304, 5677, 1569.
This article
describes a few properties of tsunamis, the main one being a “shadow” that it leaves
behind. A “shadow” of a tsunami is “a darkened strip of water observed ahead of
a wave on rare occasions.” This can be detected with airborne and
satellite-based radars.
Joenig, R. (2001). Researchers Target Deadly Tsunamis. Science, 293, 5533, 1251-1253.
This article
discusses ways of determining causes of tsunamis using more modern maps of the
ocean floor, computer models, and sensory equipment.
Kintisch, E. (2005). Global Tsunami Warning System Takes Shape. Science, 2005, 307, 331.
This article
discusses the efforts that the Bush administration is making to protect the
Koike, N.; Kawata, Y.; Imamura, F. (2003). Far-Field Tsunami Potential and a Real-Time Forecast System for the Pacific Using the Inversion Method. Natural Hazards, 29, 423-436.
This paper
discusses a method to analyze a tsunami in real-time and provide appropriate
warnings to the potential victims.
Kulikov, E.; Rabinovich, A.; Thomson, R. (2005),
Estimation of Tsunami Risk for the Coasts of
This article
mentions ways to predict tsunami heights using data from previous tsunamigenic earthquakes and tsunamis. These data are used
to estimate tsunami-risk for coastal
Leslie, M. (2004). Waves of Destruction. Science, 305, 5689, 1381.
This very brief
article discusses an earthquake that occurred on the sea bed near the
Lindley, D.; Swinbanks, D. (1987). Satellite-Linked Tsunami Warning to Avoid Pacific Disasters. Nature, 330, 305.
This article
describes a cheap and new system that the NOAA has developed, in collaboration
with the Chilean authorities to guard the potential tsunami-threatened areas
around the Pacific. They have set up many satellite-connected ground stations
in various locations.
Miller, G. (2005). The Tsunami’s Psychological Aftermath. Science, 309, 5737, 1030.
This article
enforces the importance of mental health services in the tsunami affected regions.
It bases its reasoning on the tsunami disaster that occurred in the
Mofjeld, H.; Gonzalez, F.; Bernard, E.; Newman, J. (2000). Forecasting the Heights of Later Waves in Pacific-Wide Tsunamis. Natural Hazards, 22, 1, 71-89.
This article uses
mathematical models to determine the extreme heights of later waves in the
Pacific-wide tsunamis.
Ramirez, J.; Perez, C. (2004). The Local Tsunami Alert System [“SLAT”]: A Computational Tool for the Integral Management of a Tsunami Emergency. Natural Hazards, 31, 1, 129-142.
This article
describes a system, called SLAT, to determine the types of alerts. The data
used to operate this system include coordinates of the epicenter, magnitude,
date, and origin of the earthquake. This system can be used to make critical
decisions in very short amounts of time.
Stone, R. (2005). A Race to Beat the Odds. Science, 307, 5709, 502-504.
This paper
discusses the condition of
Sugimoto, T.; Murakami, H.; Kozuki, Y.; Nishikawa, K.; Shimada, T. (2003). A Human Damage Prediction Method for Tsunami Disasters Incorporating Evacuation Activities. Natural Hazards, 29, 3, 587-602.
This paper uses a
model to predict how many human deaths might occur when the predicted tsunami
strikes the coastal areas of
Titov, V.; Gonzalez, F.; Bernard, E.; Eble, M.; Morfjeld, H.; Harold, O.; Newman, J.; Venturato, A. (2005). Real-Time Tsunami Forecasting: Challenges and Solutions. Natural Hazards, 35, 1, 35-41.
This paper
discusses a new method for forecasting tsunamis in real time and reporting the
findings to the NOAA’s tsunami warning centers.