Hwang, H. H. M.; Hsu, H. M.
Study of Reliability-Based Criteria for Seismic Design of Reinforced Concrete Frame Buildings.
National Science Foundation, Washington, DC.,
August 10, 1991,
188 p.
Identifying Number(s): NCEER-91-0023
Keywords: ; Reliability; Dynamic response; Risk; Earthquake engineering; Earthquake resistant structures; Loads (Forces); Reinforced concrete; Design criteria; Concrete construction; Design standards; Mathematical models; Framed structures; Seismic waves
Yang, J. N.; Li, Z.
Instantaneous Optimal Control for Linear, Nonlinear and Hysteretic Structures - Stable Controllers.
National Center for Earthquake Engineering Research, Buffalo, NY.; National Science Foundation, Washington, DC.,
November 15, 1991,
57 p.
Keywords: ; Dynamic response; Vibration isolators; Earthquake engineering; Matrices (Mathematics); Controllers; Lyapunov functions; Vibration damping; Mathematical models; Algorithms; Nonlinear systems; Seismic waves
Saiidi, M.; Douglas, B.; Feng, S.; Hwang, E.; Maragakis, E.
Effects of Axial Force on Frequency of Prestressed Concrete Bridges.
National Science Foundation, Washington, DC.,
August 1992,
52 p.
Identifying Number(s): CCEER-92-4
Keywords: ; Prestressed concrete; Dynamic response; Dynamic structural analysis; Fourier transformation; Earthquake engineering; Loads (Forces); Structural vibration; Deflection; Displacement; Concrete structures; Resonant frequencies; Mathematical models; Girder bridges
Yang, J. N.; Li, Z.; Vongchavalitkul, S.
Generalization of Optimal Control Theory: Linear and Nonlinear Structures.
National Center for Earthquake Engineering Research, Buffalo, NY.; New York State Science and Technology Foundation, Albany.; National Science Foundation, Washington, DC.,
November 2, 1992,
89 p.
Keywords: ; Dynamic response; Vibration isolators; Earthquake resistant structures; Earthquake engineering; Structural vibration; Vibration damping; Optimization; Linear systems; Mathematical models; Nonlinear systems; Control theory
Leiva, G.; Klingner, R. E.
In-Plane Seismic Resistance of Two-Story Concrete Masonry Shear Walls with Openings.
National Science Foundation, Washington, DC.,
August 1991,
319 p.
Identifying Number(s): REPT-3.1(C)-2
Keywords: Grout; Failure; Computer programming; Earthquake resistant buildings; Masonry; Loads (Forces); Test methods; Instrumentation; Flexural strength; Reinforced concrete; Walls; Strain measurement; Structural members; Design criteria; Construction; Axial stress; Mathematical models; Coupled walls; Deformation; Shear stress; Cantilever walls
Earthquake Engineering Research at Berkeley, 1992.
National Science Foundation, Washington, DC.; Bureau of Reclamation, Washington, DC.; Corps of Engineers, Washington, DC.; Los Angeles County Dept. of Public Works, CA.,
October 1992,
218 p.
Identifying Number(s): UCB/EERC-92/13
Keywords: ; Buildings; Earthquake engineering; Meetings; Seismic design; Research; Vibration damping; Mathematical models; Bridges; Dynamic structural analysis
Constantinou, M. C.; Tsopelas, P.; Kim, Y. S.; Okamoto, S.
NCEER-Taisei Corporation Research Program on Sliding Seismic Isolation Systems for Bridges: Experimental and Analytical Study of a Friction Pendulum System (FPS).
National Science Foundation, Washington, DC.; New York State Science and Technology Foundation, Albany.,
November 1, 1993,
171 p.
Identifying Number(s): NCEER-93-0020
Keywords: Dynamic response; Ground motion; Bearings; Vibration isolators; Earthquake resistant structures; Earthquake engineering; Highway bridges; Sliding isolation systems; Bridge piers; Simulation; Bridge design; Friction Pendulum System; Displacement; Mathematical models; Shaking table tests; Deformation
Soni, A. H.; inivasan, V.
Seismic Analysis of Rotating Mechanical Systems.
National Science Foundation, Washington, DC.,
June 1984,
252 p.
Keywords: Rotors; Computer programs; Earthquake engineering; Dynamic characteristics; Earthquakes; Machinery; Rotation; Performance; Programming manuals; Mathematical models; Seismic waves
Cifuentes, A. O.
System Identification of Hysteretic Structures.
National Science Foundation, Washington, DC.,
January 1985,
170 p.
Identifying Number(s): EERL-84-04
Keywords: Dynamic response; Seismic waves; Ground motion; Buildings; Theses; Earthquake engineering; Earthquakes; Reinforced concrete; System identification; Mathematical models; Algorithms; Dynamic structural analysis
Chelvakumar, K.
Simple Strain-Space Plasticity Model for Clays.
National Science Foundation, Washington, DC. Directorate for Engineering.,
January 1985,
209 p.
Identifying Number(s): EERL-85-05
Keywords: Mathematical models; Plastic properties; Clays; Earthquake engineering