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Equipment, services, installations in buildings --- Private houses --- electrical systems --- dwellings
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Sponsored by the Infrastructure Resilience Division of ASCE In 2011, the Tohoku and Sendai regions on the east coast of Japan were devastated by the largest earthquake ever recorded in that country. The effects of the earthquake were immediately compounded by a massive tsunami that claimed thousands of lives, destroyed cities and towns, and severely damaged lifeline infrastructure. This report describes in detail the performance of lifeline systems in Tokyo, Tohoku, Sendai, and surrounding areas, as observed during multiple visits by an Earthquake Investigation Committee sent by ASCE’s Technical Council on Lifeline Earthquake Engineering (TCLEE). This TCLEE monograph discusses the following lifelines with recommendations for improving performance: transportation, electric power systems, telecommunications, airports, ports and harbors, water, wastewater, and gas and liquid fuel. General seismology of the event and geotechnical features of the area are described. Other relevant issues, such as debris management, effect on hospitals, fire following the earthquakes, emergency response, social impact, and lifeline interdependence, are considered. TCLEE 42 will be of interest to civil engineers, emergency managers and planners, and government officials charged with improving resilience of lifeline infrastructure systems during earthquakes and tsunamis.
Earthquakes --- Lifeline systems --- Tsunamis --- Electrical systems --- Emergency management --- Infrastructure resilience --- Electric power --- Hydro power --- Japan --- Asia
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Sponsored by the Technical Committee on Ports and Harbors of the Coasts, Oceans, Ports, and Rivers Institute of ASCE Waterfront Facilities Inspection and Assessment supplies engineers with guidelines and tools for inspecting and evaluating the condition of waterfront structures located in seawater and freshwater environments. Inspections are essential to an effective waterfront facility management program that ensures public safety, reliable service, environmental protection, and reduced maintenance costs. Because distress to a waterfront structure may not be recognizable from above water, the inspection must include an assessment of the extent and severity of deterioration from above and underwater. This Manual of Practice provides guidance on eight different types of inspection and explains how to match inspection types to project needs. It considers existing waterfront facilities that are constructed of concrete, masonry, metals, composites and wood; facility locations may be near-shore, waterfront, riverine, or inland. Guidelines are not limited to the structure alone, but rather include comprehensive coverage of all aspects of the facility, including fender systems, mechanical and electrical utilities, appurtenant structures, and anchor systems. Recommendations on standards of practice and estimation of service life are included, as well as discussions of documentation, reporting, and several administrative issues. An extensive appendix addresses special considerations for a variety of specific structure types and systems, such as fixed utilities, equipment, mooring hardware, topside paving and drainage, and safety features. Other appendixes outline the types and causes of defects; decribe specialized inspection techniques, such as infrared thermography and ground-penetrating radar; and define of inspection nomenclature and key terms. Covering the engineering and technical requirements for conducting above water and underwater facility assessments, MOP 130 is a valuable, comprehensive resource for owners, operators, and engineers involved in operating, maintaining, inspecting, and repairing waterfront structures.
Harbors --- Hydraulic structures --- Inspection --- Harbor facilities --- Water supply systems --- Underwater structures --- Waterfront structures --- Electrical systems --- Structural systems --- Ports and harbors
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Prepared by the Automated People Mover Standards Committee of the Standards Council of the Transportation and Development Institute of ASCE Automated People Mover Standards, ANSI/ASCE/T&DI 21-13, establishes the minimum requirements necessary to achieve an acceptable level of safety and performance for an automated people mover (APM) system. An APM is defined as a guided transit mode that is fully automated, featuring vehicles that operate on guideways with exclusive right-of-way. This Standard covers design, construction, operation, and maintenance of APM systems. This fully updated revision consolidates all four parts of ASCE 21 that previously were published separately. Topics include: operating environment; safety requirements; system dependability; automatic train control; audio and visual communications; vehicles; propulsion and braking; electrical equipment; stations; guideways; security; emergency preparedness; verification and demonstration; operations, maintenance, and training; and operational monitoring. One mandatory annex covers requirements for system safety programs. Nonmandatory annexes include a bibliography; recommended practice for acceptance of an APM system application; inspection and test guidelines; and recommended practice for working safely near APM systems. This Standard may be used in a safety certification process. It will be helpful to anyone who owns, operates, maintains, designs, test, insures, oversees, or certifies APMs. It will also be valuable to transportation engineers, safety engineers, and contractors for APM systems or other innovative technology transit systems.
Personal rapid transit --- Automated people movers --- Safety --- Communication systems --- Electrical systems --- Automated transit systems --- Electrical equipment --- Vehicles --- Guideways --- Standards.
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Earthquake Protection of Building Equipment and Systems presents a framework for applying the latest earthquake engineering research to the nonstructural elements of individual building projects, concentrating on mechanical and electrical systems. The seismic performance of these systems and their components is critical in order to minimize damage and life-threatening risks associated with seismic events while also protecting capital investment. And just as the seismic engineering of structures is shifting from prescriptive-based standards to performance-based approaches, the same is happening for building equipment and systems. For practicing engineers, a gap has opened between what is required and what is available to meet those requirements. In this book, Gatscher, McGavin, and Caldwell bridge that gap. They prescribe a systems engineering approach to nonstructural design and present several case studies to demonstrate this approach. They provide an extensive survey of different methods for qualifying equipment and systems, including analysis, dynamic testing, earthquake experience data, and comparative assessment using combined methods. They also address issues of implementation, including qualification ownership, component life-cycle, and verification tools. This book is a must-have for any engineer designing or specifying nonstructural systems and their components for a building in an area with seismic risks. It will also be a valuable reference for architects, construction managers, and building code officials.
Buildings --- Building systems --- Earthquakes --- Electrical systems --- Seismic tests --- Electrical equipment --- Protective structures --- Nonstructural elements --- Seismic effects --- Earthquake effects. --- Mechanical equipment
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Proceedings of the AEI Conference 2015, held in Milwaukee, Wisconsin, March 24-27, 2015. Hosted by the Milwaukee School of Engineering. Sponsored by the Architectural Engineering Institute of ASCE. AEI 2015: Birth and Life of the Integrated Building contains 71 peer-reviewed papers on the design and integration of different engineered systems in the development of the integrated building. Topics include: building structural systems; building envelope; building mechanical systems; building security; building electrical and power systems; design and construction process management; integrated systems; forensics and multi-hazard engineering; architectural systems and interior design; and architectural engineering education. Structural, mechanical, and electrical engineers, construction management professionals, and architects interested in advanced strategies and state-of-the-art practices in integrated building systems will find this proceedings valuable.
Architecture --- Structural engineering --- Building --- Building design --- Building systems --- Architectural engineering --- Structural systems --- Electrical systems --- Building management --- Buildings --- Construction management --- Wisconsin --- United States
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