Encyclopaedia Of Earthquake Research And Analysis

This book covers various aspects of earthquake research. Based upon the earthquake's magnitude and the placement of its hypocenter, it has the capability to be extremely destructive. Seeing that earthquakes can cause much loss and death, it is crucial to understand the process and the physics behind this phenomenon. This book focuses on particular historical earthquakes and seismology in various tectonic surroundings and also includes a more applied study of the geology of earthquakes.

To minimize human and material losses due to inevitable occurrence of earthquakes, their study and understanding is of utmost importance. Some of the many topics included in this book are statistical seismology studies, the latest techniques and advances on earthquake precursors and forecasting, and also, new ways for immediate detection, data acquisition and its interpretation. The book covers a wide range of topics, from theoretical advances to practical applications.

The study of earthquakes plays a key role in order to minimize human and material losses when they inevitably occur. Chapters in this book will be devoted to various aspects of earthquake research and analysis. The different sections present in the book span from statistical seismology studies, the latest techniques and advances on earthquake precursors and forecasting, as well as, new methods for early detection, data acquisition and interpretation. The topics are tackled from theoretical advances to practical applications.

The study of earthquakes plays a key role in order to minimize human and material losses when they inevitably occur. Earthquake analysis or seismic analysis is a subset of structural analysis and is the calculation of the response of a building (or non-building) structure to earthquakes. This is required for carrying out the structural design, structural assessment and retrofitting of the structures in the regions where earthquakes are prevalent. Various seismic data are necessary to carry out the seismic analysis of the structures. These data are accessible into two ways viz. in deterministic form or in probabilistic form. Data in deterministic form are used for design of structures etc. whereas data in probabilistic form are used for seismic risk analysis, study of structure subjected to random vibration and damage assessment of structures under particular earthquake ground motion. Major seismic input includes ground acceleration/velocity/displacement data, magnitude of earthquake, peak ground parameters, duration etc. Earthquake engineering has developed a lot since the early days, and some of the more complex designs now use special earthquake protective elements either just in the foundation (base isolation) or distributed throughout the structure. Analyzing these types of structures requires specialized explicit finite element computer code, which divides time into very small slices and models the actual physics, much like common video games often have "physics engines". Very large and complex buildings can be modeled in this way. The book entitled Earthquake Research and Analysis - Seismology, Seismotectonic and Earthquake Geology offers statistical seismology studies, the latest techniques and advances on earthquake precursors and forecasting, along with, new methods for early detection, data acquisition and interpretation. This book does not emphasis on a unique problem in earthquake processes, but extents studies on historical earthquakes and seismology in diverse tectonic environments, to more applied studies on earthquake geology.

This invitation conference, held Dec. 2 and 3, 1994, included earth scientists, engineers, social scientists, agency program managers, and practitioners and others who implement earthquake research. Chapters include: NSF-funded Northridge Earthquake researchers; summary of USGS Northridge supplementary funding; NIST Northridge research; FEMA Northridge research; organizational research programs: Calif. Div. of Mines and Geology, Calif. Seismic Safety Comm., EERI, NCEER, NHRAIC, Rand Critical Technologies Inst., and SAC Joint Venture; Info. Services: EERC-NISEE, NCEER Info. Services, and OES DFO; and individuals' research projects.

This is the twenty-sixth volume in the Earthquake Engineering Research Institute's series, Connections: The EERI Oral History Series. EERI began this series to preserve the recollections of some of those who have had pioneering careers in the field of earthquake engineering.Mete Sozen (1932-2018) is the Karl H. Kettelhut Distinguished Professor Emeritus of Civil Engineering at Purdue University, Indiana, United States.Besides his academic interest in the development of design codes for concrete structures, Sozen is notable for his contributions to the official post 9/11-government studies of terrorist attacks, including the Oklahoma City bombing, and The Pentagon. Sozen also led a team that created an engineering simulation of American Airlines Flight 11 crashing into the North Tower of the World Trade Center. The computer-animated visualizations were made entirely from the simulation data. He was elected to the National Academy of Engineering in 1977 for contributions to understanding the structural design and behavior of buildings and bridges subjected to earthquake motions.Sozen received his undergraduate education at Robert College (Turkey, 1951) and his master's (1952) and doctoral degrees (1957) from the University of Illinois at Urbana-Champaign.