Protecting Historic Architecture and Museum Collections from Natural Disasters serves as a useful guide for professionals engaged in the preservation of cultural heritage, whether structures or artifacts. This book discusses how to prevent losses to the cultural heritage of structures and artifacts through more knowledgeable protection, prevention, and emergency response. Organized into six sections encompassing 26 chapters, this book begins with an overview of the mechanisms for preserving and protecting the heritage. This text then examines the threats of destruction by the natural elements such as decay, air pollution, subsidence, and other forms of attrition. Other chapters consider the social functional and economic values of the buildings and museum objects. This book discusses as well the natural disaster policies within a society. The final chapter deals with the enlistment of the private sector in dealing with catastrophes rising out of fire, earthquake, flood, and other natural disasters. This book is a valuable resource for conservation specialists, archivists, private collectors, dealers, curators, and librarians.
Geologic exposures in the Salt Lake City region record a long history of sedimentation and tectonic activity extending back to the Precambrian Era. Today, the city lies above a deep, sediment-filled basin flanked by two uplifted range blocks, the Wasatch Range and the Oquirrh Mountains. The Wasatch Range is the easternmost expression of major Basin and Range extension in north-central Utah and is bounded on the west by the Wasatch fault zone (WFZ), a major zone of active normal faulting. During the late Pleistocene Epoch, the Salt Lake City region was dominated by a succession of inter-basin lakes. Lake Bonneville was the last and probably the largest of these lakes. By 11,000 yr BP, Lake Bonneville had receded to approximately the size of the present Great Salt Lake.
For the last couple of decades it has been recognized that the foundation material on which a structure is constructed may interact dynamically with the structure during its response to dynamic excitation to the extent that the stresses and deflections in the system are modified from the values that would have been developed if it had been on a rigid foundation. This phenomenon is examined in detail in the book. The basic solutions are examined in time and frequency domains and finite element and boundary element solutions compared. Experimental investigations aimed at correlation and verification with theory are described in detail. A wide variety of SSI problems may be formulated and solved approximately using simplified models in lieu of rigorous procedures; the book gives a good overview of these methods. A feature which often lacks in other texts on the subject is the way in which dynamic behavior of soil can be modeled. Two contributors have addressed this problem from the computational and physical characterization viewpoints. The book illustrates practical areas with the analysis of tunnel linings and stiffness and damping of pile groups. Finally, design code provisions and derivation of design input motions complete this thorough overview of SSI in conventional engineering practice. Taken in its entirety the book, authored by fifteen well known experts, gives an in-depth review of soil-structure interaction across a broad spectrum of aspects usually not covered in a single volume. It should be a readily useable reference for the research worker as well as the advance level practitioner. (abstract) This book treats the dynamic soil-structure interaction phenomenon across a broad spectrum of aspects ranging from basic theory, simplified and rigorous solution techniques and their comparisons as well as successes in predicting experimentally recorded measurements. Dynamic soil behavior and practical problems are given thorough coverage. It is intended to serve both as a readily understandable reference work for the researcher and the advanced-level practitioner.
About the application of engineering principles by experienced engineers of soil mechanics in the design of foundations and earth structure for naval shore facilities. Includes identification and classification of soil and rock, field exploration, testing, and instrumentation, laboratory testing, distribution of stresses and pressures on buried structures, analysis of settlement and volume expansion, seepage and drainage, slope stability and protection.
This volume focuses on the breakdown in sustainabilityâ€"the capacity of the planet to provide quality of life now and in the futureâ€"that is signaled by disaster. The authors bring to light why land use and sustainability have been ignored in devising public policies to deal with natural hazards. They lay out a vision of sustainability, concrete suggestions for policy reform, and procedures for planning. The book chronicles the long evolution of land-use planning and identifies key components of sustainable planning for hazards. Stressing the importance of balance in land use, the authors offer principles and specific reforms for achieving their visions of sustainability.