The Philosopy and Application of Capacity Design

High Performance Structures And Materials III

Mechanical and Electrical Systems in Architecture, Engineering and Construction (5th Edition)

ISO 3010:2001 Basis for design of structures — Seismic actions on structures

This International Standard specifies principles of evaluating seismic actions for the seismic design of buildings, towers, chimneys and similar structures. Some of the principles can be referred to for the seismic design of structures such as bridges, dams, harbour installations, tunnels, fuel storage tanks, chemical plants and conventional power plants. The principles specified in this International Standard do not cover nuclear power plants, since these are dealt with separately in other International Standards. In regions where the seismic hazard is low, methods of design for structural integrity may be used in lieu of methods based on a consideration of seismic actions.
This International Standard is not a legally binding and enforceable code. It can be viewed as a source document that is utilized in the development of codes of practice by the competent authority responsible for issuing structural design regulations.
NOTE 1 This International Standard has been prepared mainly for engineered structures. The principles are, however, applicable to non-engineered structures.
NOTE 2 The qualification of the level of seismic hazard that would be considered low depends on not only the seismicity of the region but other factors, including types of construction, traditional practices, etc. Methods of design for structural integrity include regional design horizontal forces which provide a measure of protection against seismic actions.

THE LIMITATIONS & PERFORMANCES OF DIFFERENT DISPLACEMENT BASED DESIGN METHODS

Sustainable Preservation

A guide to green strategies for preservation and adaptive reuse—and the power of preservation/reuse as a green strategy.

Buildings account for nearly forty percent of both total energy use and carbon emissions in the United States. With one of the country's leading preservation architects as your guide, Sustainable Preservation explores the power of adaptive reuse to reduce those numbers and move us toward sustainability. It shows how an icon such as H.H. Richardson's Trinity Church in Boston can go green—and why a 1970s strip-mall supermarket not only deserves similar attention but can also emerge as a building that delights users.

Sustainable Preservation takes a nuanced look at the hundreds of choices that adaptive reuse requires architects to make—from ingenious ways to redeploy existing structural elements to time-honored techniques for natural ventilation to creation of wetlands that restore a site's natural biological functions. In addition, Sustainable Preservation:

Presents fifty case studies of projects—schools, houses, offices, stores, museums, and government buildings—that set new standards for holistic approaches to adaptive reuse and sustainability

Covers design issues, from building location to lighting systems, renewable power options, stormwater handling, and building envelope protection and integrity.

Reviews operational issues, including materials choices for low lifetime maintenance, green housekeeping, and indoor air quality

Explains calculators and programs that supplement the LEED® green building certification program requirements to yield even greater environmental benefits

Sustainable Preservation makes a compelling argument that preservation and sustainability don't just protect the environment, but deliver a full range of societal benefits, from job creation to stronger social connection.

On the Cover: Trinity Church in Boston: Under the leadership of Jean Carroon, Goody Clancy recently completed restoration and expansion of H.H. Richardson's 1877 masterpiece, Trinity Church. Significant environmental aspects include a new below-grade assembly space that incorporates the structure's massive stone piers; installation of ground-source heat pumps that dramatically reduce heating and cooling requirements; complete on-site management of all stormwater; and full use of local, recycled, and low-VOC materials.

Belt conveyors for bulk materials