Author: ACI Committee 318
Publisher: American Concrete Institute
Release Date: 2008
Genre: Building laws
The quality and testing of materials used in construction are covered by reference to the appropriate ASTM standard specifications. Welding of reinforcement is covered by reference to the appropriate AWS standard. Uses of the Code include adoption by reference in general building codes, and earlier editions have been widely used in this manner. The Code is written in a format that allows such reference without change to its language. Therefore, background details or suggestions for carrying out the requirements or intent of the Code portion cannot be included. The Commentary is provided for this purpose. Some of the considerations of the committee in developing the Code portion are discussed within the Commentary, with emphasis given to the explanation of new or revised provisions. Much of the research data referenced in preparing the Code is cited for the user desiring to study individual questions in greater detail. Other documents that provide suggestions for carrying out the requirements of the Code are also cited.
Author: PPI the Power to Pass Professional Publications, Inc
Release Date: 2015-07-15
Genre: Technology & Engineering
Preface and Acknowledgments I wrote the Structural Engineering Reference Manual to be a comprehensive resource that helps you prepare for the National Council of Examiners for Engineering and Surveying (NCEES) 16-hour Structural Engineering (SE) exam. As such, each of this book’s eight chapters presents the most useful equations in the exam-adopted codes and standards, and each chapter also provides guidelines for selecting and applying these equations. For this eighth edition, all nomenclature, equations, examples, and practice problems have been checked and updated so that they are consistent with NCEESadopted codes and specifications. Additionally, significant changes have been made to the following chapters. Chapter 1, Reinforced Concrete Design, includes significant new material on concrete anchoring. Existing content was revised to conform to the Building Code Requirements for Structural Concrete and Commentary, 2011 edition. Chapter 4, Structural Steel Design, includes new material on nominal flexural strength, compact sections, noncompact sections, slender sections, lateral-torsional buckling, moment redistribution in continuous beams, buckling, bolt types and connections, and welds. Existing content was revised to conform to the Steel Construction Manual, fourteenth edition. Chapter 5, Timber Design, includes new material on load combinations, reference design values, and adjustment factors. The chapter was also updated to include both exam-adopted ASD and LRFD design methods. Existing content was revised to conform to the National Design Specification for Wood Construction ASD/LRFD, 2012 edition. Chapter 6, Reinforced Masonry Design, includes significant new material on required strength, allowable stress, masonry beams in flexure, reinforcement requirements, the design of reinforced masonry beams, minimum and maximum reinforcement area, shear beam design, masonry column design, and anchor bolt placement and design. The chapter was also updated in order to present both exam-adopted ASD and SD design methods. Existing content was revised to conform to the Building Code Requirements and Specification for Masonry Structures, 2011 edition. Chapter 7, Lateral Forces, includes new material on shear wall-frame systems, steel systems, subdiaphragms, seismic parameters and building height, and wind loads. Existing content was revised to conform to the Seismic Design Manual, 2012 edition. Thank you to Arthur Richard Chianello, PE, for technically reviewing the new content in Chapter 1 and Chapter 4, and David R. Connor, SE, PE, for technically reviewing the new content in Chapter 5 and Chapter 6, and to Ralph Arcena, EIT, for performing the calculation checks. At PPI, the task of making the vision of a new edition into a reality fell to the Product Development and Implementation Department team that consisted of Hilary Flood, associate acquisitions editor; Nicole Evans and Ellen Nordman, associate project managers; Tracy Katz, lead editor; Thomas Bliss, Sierra Cirimelli-Low, Tyler Hayes, Julia Lopez, and Ian A. Walker, copy editors; Tom Bergstrom, production associate and technical illustrator; Kate Hayes, production associate; Cathy Schrott, production services manager; Sarah Hubbard, director of product development and implementation; and Jenny Lindeburg King, associate editor-in-chief. Finally, if you find an error in this book, please let me know by using the error reporting form on the PPI website at ppi2pass.com/errata. Valid submitted errors will be posted to the errata page and incorporated into future printings of this book. Alan Williams, PhD, SE, FICE, C Eng
The Bled workshops have traditionally produced reference documents providing visions for the future development of earthquake engineering as foreseen by leading researchers in the field. The participants of the 2011 workshop built on the tradition of these events initiated by Professors Fajfar and Krawinkler to honor their important research contributions and have now produced a book providing answers to crucial questions in today’s earthquake engineering: “What visible changes in the design practice have been brought about by performance-based seismic engineering? What are the critical needs for future advances? What actions should be taken to respond to those needs?” The key answer is that research interests should go beyond the narrow technical aspects and that the seismic resilience of society as a whole should become an essential part of the planning and design process. The book aims to provide essential guidelines for researchers, professionals and students in the field of earthquake engineering. It will also be of particular interest for all those working at insurance companies, governmental, civil protection and emergency management agencies that are responsible for assessing and planning community resilience. The introductory chapter of the book is based on the keynote presentation given at the workshop by the late Professor Helmut Krawinkler. As such, the book includes Helmut’s last and priceless address to the engineering community, together with his vision and advice for the future development of performance-based design, earthquake engineering and seismic risk management.
Strengthening Design of Reinforced Concrete with FRP establishes the art and science of strengthening design of reinforced concrete with fiber-reinforced polymer (FRP) beyond the abstract nature of the design guidelines from Canada (ISIS Canada 2001), Europe (FIB Task Group 9.3 2001), and the United States (ACI 440.2R-08). Evolved from thorough class notes used to teach a graduate course at Kansas State University, this comprehensive textbook: Addresses material characterization, flexural strengthening of beams and slabs, shear strengthening of beams, and confinement strengthening of columns Discusses the installation and inspection of FRP as externally bonded (EB) or near-surface-mounted (NSM) composite systems for concrete members Contains shear design examples and design examples for each flexural failure mode independently, with comparisons to actual experimental capacity Presents innovative design aids based on ACI 440 code provisions and hand calculations for confinement design interaction diagrams of columns Includes extensive end-of-chapter questions, references for further study, and a solutions manual with qualifying course adoption Delivering a detailed introduction to FRP strengthening design, Strengthening Design of Reinforced Concrete with FRP offers a depth of coverage ideal for senior-level undergraduate, master’s-level, and doctoral-level graduate civil engineering courses.
Improve the Quality of Concrete, Improve the Quality of Construction Quality measurement is not prevalent in the concrete industry and quality investment is not seen as potentially generating a positive return. Improving Concrete Quality examines how and why concrete quality should be measured, and includes instruction on developing specifications with the aim of improving concrete quality. Reduce Concrete Variability: Reduce Costs and Increase Volume The first part of the book considers the tangible and intangible benefits of improved quality. The later chapters explore concrete strength variability in detail. It provides a greater grasp of the variation in concrete, as well as a deeper understanding of how material variability affects concrete performance. The author discusses the components of variability (material, manufacturing, testing) and provides steps to measuring and reducing variability to improve the quality of concrete. The text also contains a chapter on data analysis for quality monitoring and test results. Come Away with Practices and Tools That Can Be Applied Immediately: Provides techniques and how specifications can improve concrete quality Offers a clear understanding of the link between the materials (cement, SCM, aggregate, water, air), manufacturing, testing variability, and concrete quality Includes information on analyzing test data to improve quality Improving Concrete Quality quantifies the benefits of improved quality, and introduces novel ways of measuring concrete quality. This text is an ideal resource for quality personnel in the concrete industry. It also benefits architects, engineers, contractors, and researchers.
A structural design book with a code-connected focus, Principles of Structural Design: Wood, Steel, and Concrete, Second Edition introduces the principles and practices of structural design. This book covers the section properties, design values, reference tables, and other design aids required to accomplish complete structural designs in accordance with the codes. What’s New in This Edition: Reflects all the latest revised codes and standards The text material has been thoroughly reviewed and expanded, including a new chapter on concrete design Suitable for combined design coursework in wood, steel, and concrete Includes all essential material—the section properties, design values, reference tables, and other design aids required to accomplish complete structural designs according to the codes This book uses the LRFD basis of design for all structures This updated edition has been expanded into 17 chapters and is divided into four parts. The first section of the book explains load and resistance factor design, and explores a unified approach to design. The second section covers wood design and specifically examines wood structures. It highlights sawn lumber, glued laminated timber, and structural composite/veneer lumber. The third section examines steel structures. It addresses the AISC 2010 revisions to the sectional properties of certain structural elements, as well as changes in the procedure to design the slip-critical connection. The final section includes a chapter on T beams and introduces doubly reinforced beams. Principles of Structural Design: Wood, Steel, and Concrete, Second Edition was designed to be used for joint coursework in wood, steel, and concrete design.
Author: Alexander Newman
Publisher: McGraw Hill Professional
Release Date: 2014-09-22
Genre: Technology & Engineering
The most complete, up-to-date metal building systems guide Fully revised for the latest building codes and industry trends, Metal Building Systems, Third Edition, explains how to select, specify, and design preengineered buildings with confidence. In this book, a practicing structural engineer goes beyond manufacturer-supplied specifications to provide impartial and objective information that can save you money and time. A new chapter on anchor bolts and embedments, many new illustrations, plus new and updated design examples, are included in this practical reference. End-of-chapter review questions reinforce the material presented. This is an essential resource for architects, engineers, construction specifiers, design professionals, facility managers, building officials, and contractors working with metal building systems. COMPREHENSIVE COVERAGE INCLUDES: Structural loads and design methods Structural system selection criteria Primary framing Secondary framing: girts and purlins Metal roofing Wall materials Insulation The process of buying a metal building Common problems and failures Lateral drift and vertical deflections Foundation design Anchor bolts and embedments Current design trends Reroofing and renovations Specifying crane buildings Avoiding construction problems
Author: Jack Moehle
Publisher: McGraw Hill Professional
Release Date: 2014-10-06
Genre: Technology & Engineering
Complete coverage of earthquake-resistant concrete building design Written by a renowned seismic engineering expert, this authoritative resource discusses the theory and practice for the design and evaluation of earthquakeresisting reinforced concrete buildings. The book addresses the behavior of reinforced concrete materials, components, and systems subjected to routine and extreme loads, with an emphasis on response to earthquake loading. Design methods, both at a basic level as required by current building codes and at an advanced level needed for special problems such as seismic performance assessment, are described. Data and models useful for analyzing reinforced concrete structures as well as numerous illustrations, tables, and equations are included in this detailed reference. Seismic Design of Reinforced Concrete Buildings covers: Seismic design and performance verification Steel reinforcement Concrete Confined concrete Axially loaded members Moment and axial force Shear in beams, columns, and walls Development and anchorage Beam-column connections Slab-column and slab-wall connections Seismic design overview Special moment frames Special structural walls Gravity framing Diaphragms and collectors Foundations