Dravinski, M.
Strong Motion Effects Due to Seismic Waves in Dipping Layers.
National Science Foundation, Washington DC.,
September 1983,
216 p.
Keywords: Ground motion; Earthquake engineering; Earthquakes; Plane waves; Boundary layer; Harmonic analysis; Mathematical models; Boundary value problems; Seismic waves
Strong-Motion Accelerograph Station List - 1975.
National Science Foundation, Washington, DC. Applied Science and Research Applications.,
March 1976,
85 p.
Identifying Number(s): OPEN FILE-76/79
Keywords: ; Sites; Earthquakes; Seismological stations; Seismic prospecting; Accelerometers; Seismometers; United States
Vanmarcke, E. H.; Lai, S. S. P.
Strong-Motion Duration of Earthquakes.
National Science Foundation, Washington, D.C. Div. of Advanced Environmental Research and Technology.,
July 1977,
38 p.
Identifying Number(s): R77-16
Keywords: Acceleration (Physics); Ground motion; Buildings; Earthquake engineering; Seismic epicenter; Earthquakes; Time measurement; Earth movements; Seismic waves
Brady, A. G.
Strong-Motion Earthquake Accelerograms Digitization and Analysis, 1971 Records.
National Science Foundation, Washington, DC. Applied Science and Research Applications.,
July 1976,
122 p.
Identifying Number(s): OPEN FILE-76/609
Keywords: Ground motion; Earthquake engineering; Data acquisition; Earthquakes; Data processing; Peru; Earth movements; California; Alaska; Chile; Seismic waves
Iwan, W. D.
Strong-Motion Earthquake Instrument Arrays. Proceedings of the International Workshop on Strong-Motion Earthquake Instrument Arrays Held in Honolulu, Hawaii on May 2-5, 1978.
National Science Foundation, Washington, DC.; United Nations Educational, Scientific and Cultural Organization, Paris (France.),
May 1978,
117 p.
Identifying Number(s): EERL-78-04
Keywords: Ground motion; Earthquake engineering; Data acquisition; Meetings; Earthquakes; Facilities management; Site surveys; Earth movements; Seismic arrays; Construction; Wave propagation; Installing; Seismic waves
Iwan, W. D.; Moser, M. A.; Peng, C. Y.
Strong-Motion Earthquake Measurement Using a Digital Accelerograph.
National Science Foundation, Washington, DC.,
April 1984,
38 p.
Identifying Number(s): EERL-84-02
Keywords: ; Digital techniques; Optical measurement; Ground motion; Earthquakes; Comparison; China; Accelerometers
Strong-Motion Engineering Seismology: The Key to Understanding and Reducing the Damaging Effects of Earthquakes.
National Science Foundation, Washington, DC. Applied Science and Research Applications.,
January 1973,
27 p.
Keywords: Earthquake engineering; Seismographs; Earthquake resistant structures; Earthquakes; Strong motion seismology; Site surveys; Earth movements; Seismological stations
Structural Engineers Association of California, 1976. Proceedings of the Annual Convention (45th) Held at Yosemite on September 30-October 2, 1976.
National Science Foundation, Washington, DC. Engineering and Applied Science.,
January 1976,
141 p.
Keywords: Earthquake engineering; Earthquake resistant structures; Meetings; Seismic design; Structural design; Engineering societies; Structural engineering; Engineering education; Concrete construction; Insurance; Construction management
McVerry, G. H.; Beck, J. L.
Structural Identification of JPL Building 180 Using Optimally Synchronized Earthquake Records.
National Science Foundation, Washington, DC.,
August 1983,
92 p.
Identifying Number(s): ERRL-83-01
Keywords: Dynamic structural analysis; Dynamic response; Buildings; Earthquake accelerograms; Earthquake engineering; Earthquakes; Mathematical models; Structural analysis; Dynamic loads; Synchronism; Seismic waves
Popov, E. P.; Takanashi, K.; Roeder, C. W.
Structural Steel Bracing Systems: Behavior Under Cyclic Loading.
National Science Foundation, Washington, D.C.,
June 1976,
82 p.
Identifying Number(s): EERC-76-17
Keywords: Earthquake engineering; Earthquake resistant structures; Structural design; Structural engineering; Steel construction; Structural analysis; Framed structures; Cyclic loads; Structual steels; Bracing