Structural renovation of buildings : methods, details, and design examples. / Alexander Newman, P.E. txt

Por:

Newman, Alexander, 1955-

Editor: New York : McGraw Hill, 2021Edición: Second editionDescripción: x, 693 p. : ill. ; 25 cmTipo de contenido:

text
still image

Tipo de medio:

unmediated

Tipo de soporte:

volume

ISBN:

9781260458336
1260458334

Tema(s):

Clasificación CDD:

23 690.24

Clasificación LoC:

TH3401 N49 2020

Contenidos:

1 The Challenge of Renovation -- 1.1 Terminology -- 1.2 When to Renovate -- 1.3 Beginning a Renovation Project -- 1.4 Typical Structural Challenges -- 1.5 Role of Building Codes in Renovation -- 1.6 Some Renovation Provisions of Previous Building Codes -- 1.7 The International Existing Building Code: General Issues -- 1.8 IEBC Provisions for Repairs (IEBC Chapter 4) -- 1.9 IEBC Provisions for Alterations -- 1.10 Change of Occupancy (IEBC Chapter 10) -- 1.11 Additions (IEBC Chapter 11) -- 1.12 Design Examples -- 1.13 Renovate or Rebuild? -- References -- 2 Investigating Existing Conditions -- 2.1 Why Investigate? -- 2.2 Assessing Building Condition -- 2.3 Material Properties in Steel Systems -- 2.4 Concrete Framing -- 2.5 Load Testing of Concrete Structures -- 2.6 Post-Tensioned Concrete Framing -- 2.7 Wood Framing -- 2.8 Masonry -- 2.9 Building Envelope -- References -- 3 Renovating Steel-Framed Buildings -- 3.1 Steel: The Venerable Material -- 3.2 Past Design Methods and Allowable Stresses for Iron and Steel Beams -- 3.3 Early Iron and Steel Columns -- 3.4 Properties of Early Fasteners -- 3.5 Open-Web Joists -- 3.6 Strengthening Floors and Roofs -- 3.7 Reinforcing Steel Members by Welding -- 3.8 Reinforcing Beams by Composite Action with Concrete -- 3.9 Strengthening Beam Connections -- 3.10 Composite Steel-Concrete Columns -- 3.11 Openings in Existing Steel Beams -- 3.12 Steel Corrosion: Evaluation and Protection -- 3.13 Thermal Prestressing of Steel Structures -- References -- 4 Strengthening Concrete Buildings -- 4.1 Historical Perspective -- 4.2 Design Methods of the Past -- 4.3 Properties of Old Concrete and Reinforcing Steel -- 4.4 Some Early Proprietary Systems -- 4.5 Strengthening Concrete Beams -- 4.6 Strengthening Structural Slabs -- 4.7 Strengthening Concrete Columns -- 4.8 Openings in Existing Slabs -- References -- 5 Repairing Deteriorated Concrete -- 5.1 Overview -- 5.2 Repairing Cracks -- 5.3 Corrosion of Reinforcement and Its Effects on Concrete -- 5.4 Patching Spalls and Deteriorated Areas -- 5.5 Cathodic Protection and Electrochemical Chloride Extraction -- 5.6 Corrosion Inhibitors -- 5.7 Other Types of Damage to Concrete -- 5.8 Materials for Concrete Repair -- 5.9 Durability of Repairs -- 5.10 Systematic Maintenance Programs -- References -- 6 Renovating Slabs on Grade -- 6.1 Introduction -- 6.2 Field Investigation -- 6.3 Cracking -- 6.4 Surface Deterioration -- 6.5 Slab Settlement, Heaving, and Curling -- 6.6 Joint Failures -- 6.7 Water Penetration or Emission -- 6.8 Chemical Attack -- 6.9 Slab Replacement -- 6.10 Slab Overlays -- 6.11 Improving Abrasion Resistance -- 6.12 Repair of Deteriorated Overlays, Toppings, and Hardeners -- References -- 7 Renovating Post-Tensioned Concrete -- 7.1 System Overview -- 7.2 Evolution of Post-Tensioned Structures -- 7.3 Typical Reasons for Repair of Post-Tensioned Buildings -- 7.4 Planning for Repairs -- 7.5 Nondestructive Testing -- 7.6 Destructive Testing -- 7.7 Repair Methods -- 7.8 A Step-by-Step Example: Replacing Post-Tensioned Stressing-End Anchorage -- References -- 8 Renovating Wood Structures -- 8.1 Historical Background -- 8.2 Wood Deterioration -- 8.3 Detecting Deterioration -- 8.4 Preventing Deterioration -- 8.5 Shrinkage and Defects -- 8.6 Repairing Wood Members -- 8.7 Strengthening Wood Members -- 8.8 Renovating Wood Trusses -- 8.9 Case Study 1: Repairing Termite Damage in Trusses -- 8.10 Case Study 2: Restoring Fire Damage to the Exeter Street Theater -- References -- 9 Renovating Masonry -- 9.1 Masonry as a Construction Material -- 9.2 Evolution of Masonry Design Methods -- 9.3 Evaluation of Masonry Structures -- 9.4 Masonry Repair -- 9.5 Strengthening Masonry Structural Elements -- 9.6 Repairing Masonry Arches -- 9.7 Other Masonry Renovation Tasks -- References -- 10 Renovating Metal Building Systems -- 10.1 Introduction -- 10.2 Evolution of Metal Building Systems -- 10.3 Primary Frames -- 10.4 Expansion of Metal Building Systems -- 10.5 Lateral Stability -- 10.6 Secondary Framing -- 10.7 Wall Materials -- 10.8 Metal Roofing -- 10.9 Insulation and Vapor Retarders -- 10.10 Renovation Checklist -- 10.11 Case Study -- References -- 11 Strengthening Lateral Load?Resisting Systems -- 11.1 Lateral-Load Basics -- 11.2 Lateral Load?Resisting Systems -- 11.3 A Brief History of Wind and Seismic Codes -- 11.4 Code Provisions for Seismic Upgrading -- 11.5 Typical Tasks for Lateral-Load Upgrading -- 11.6 Reinforcing Diaphragms -- 11.7 Reinforcing Wood, Steel, and Masonry Buildings -- 11.8 Reinforcing Concrete Buildings -- 11.9 Energy-Dissipating Devices -- 11.10 Seismic Isolation -- 11.11 Reinforcing Nonstructural Elements -- References -- 12 Case Studies in Seismic Upgrading -- 12.1 Case 1: Seismic Upgrading of a Former Industrial Building -- 12.2 Case 2: Proposed Renovation of an Unreinforced-Masonry Building -- 12.3 Case 3: Seismic Upgrade of Terminal 1, Oakland International Airport -- 12.4 Case 4: Seismic Retrofit of the Administration Building, San Francisco State University -- 13 Renovating Building Fa?ades -- 13.1 General Issues -- 13.2 Curtain-Wall Problems Caused by Structural Forces and Movements -- 13.3 Water Leakage -- 13.4 Rehabilitating Solid Masonry Walls -- 13.5 Brick-Veneer Walls with CMU Backup -- 13.6 Brick-Veneer Walls with Steel Studs -- 13.7 Repairing Brick-Veneer Walls -- 13.8 Repairing Stone and Stone-Panel Walls -- 13.9 Rehabilitating Exterior Insulation and Finish Systems -- 13.10 Rehabilitating Other Wall Types --

Resumen: Resource added for the Architectural Technology program 106141. Resource added for the Construction Technology program 104752 and Construction Management programs for Carpentry 104552, Electricity 104551, and Masonry 104555. Also added for the Carpentry 314101, Electricity 314131, Industrial Maintenance Mechanic 314622, and Masonry 314082 technical diplomas.

Existencias
Imagen de cubierta	Tipo de ítem	Biblioteca actual	Biblioteca de origen	Colección	Ubicación en estantería	Signatura topográfica	Materiales especificados	Info Vol	URL	Copia número	Estado	Notas	Fecha de vencimiento	Código de barras	Reserva de ítems	Prioridad de la cola de reserva de ejemplar	Reservas para cursos
	Libro	CARIBET Biblioteca Arquitectura Colección General CARIBET				General TH3401 N49 2020 (Navegar estantería(Abre debajo))				1	Disponible			91000000067421

Total de reservas: 0

Descripciones mejoradas de Syndetics:

Hands-on structural renovation techniques and best practices--thoroughly revised for the latest building codes

This fully updated manual explains how to renovate the structure of any building. Up-to-date, comprehensive, and packed with savvy advice drawn from the author's extensive experience, the book makes it easier for building professionals to plan structural improvements--and to handle unforeseen contingencies that arise during construction.

The second edition of Structural Renovation of Buildings: Methods, Details, and Design Examples clearly explains the newest methods and materials used for structural repair, strengthening, and seismic rehabilitation. The case studies illustrate the practical applications of the design methods discussed and the best practices that can be used to mitigate the problems that commonly arise during renovation projects. The book:

* Contains practical design methods and problem-solving techniques for structural strengthening and repairs
* Explains the structural provisions of the 2018 International Existing Building Code as well as the latest specialized codes pertaining to steel, concrete, wood, and masonry renovations
* Is written by a renowned structural engineer and experienced author

1 The Challenge of Renovation --
1.1 Terminology --
1.2 When to Renovate --
1.3 Beginning a Renovation Project --
1.4 Typical Structural Challenges --
1.5 Role of Building Codes in Renovation --
1.6 Some Renovation Provisions of Previous Building Codes --
1.7 The International Existing Building Code: General Issues --
1.8 IEBC Provisions for Repairs (IEBC Chapter 4) --
1.9 IEBC Provisions for Alterations --
1.10 Change of Occupancy (IEBC Chapter 10) --
1.11 Additions (IEBC Chapter 11) --
1.12 Design Examples --
1.13 Renovate or Rebuild? --
References --
2 Investigating Existing Conditions --
2.1 Why Investigate? --
2.2 Assessing Building Condition --
2.3 Material Properties in Steel Systems --
2.4 Concrete Framing --
2.5 Load Testing of Concrete Structures --
2.6 Post-Tensioned Concrete Framing --
2.7 Wood Framing --
2.8 Masonry --
2.9 Building Envelope --
References --
3 Renovating Steel-Framed Buildings --
3.1 Steel: The Venerable Material --
3.2 Past Design Methods and Allowable Stresses for Iron and Steel Beams --
3.3 Early Iron and Steel Columns --
3.4 Properties of Early Fasteners --
3.5 Open-Web Joists --
3.6 Strengthening Floors and Roofs --
3.7 Reinforcing Steel Members by Welding --
3.8 Reinforcing Beams by Composite Action with Concrete --
3.9 Strengthening Beam Connections --
3.10 Composite Steel-Concrete Columns --
3.11 Openings in Existing Steel Beams --
3.12 Steel Corrosion: Evaluation and Protection --
3.13 Thermal Prestressing of Steel Structures --
References --
4 Strengthening Concrete Buildings --
4.1 Historical Perspective --
4.2 Design Methods of the Past --
4.3 Properties of Old Concrete and Reinforcing Steel --
4.4 Some Early Proprietary Systems --
4.5 Strengthening Concrete Beams --
4.6 Strengthening Structural Slabs --
4.7 Strengthening Concrete Columns --
4.8 Openings in Existing Slabs --
References --
5 Repairing Deteriorated Concrete --
5.1 Overview --
5.2 Repairing Cracks --
5.3 Corrosion of Reinforcement and Its Effects on Concrete --
5.4 Patching Spalls and Deteriorated Areas --
5.5 Cathodic Protection and Electrochemical Chloride Extraction --
5.6 Corrosion Inhibitors --
5.7 Other Types of Damage to Concrete --
5.8 Materials for Concrete Repair --
5.9 Durability of Repairs --
5.10 Systematic Maintenance Programs --
References --
6 Renovating Slabs on Grade --
6.1 Introduction --
6.2 Field Investigation --
6.3 Cracking --
6.4 Surface Deterioration --
6.5 Slab Settlement, Heaving, and Curling --
6.6 Joint Failures --
6.7 Water Penetration or Emission --
6.8 Chemical Attack --
6.9 Slab Replacement --
6.10 Slab Overlays --
6.11 Improving Abrasion Resistance --
6.12 Repair of Deteriorated Overlays, Toppings, and Hardeners --
References --
7 Renovating Post-Tensioned Concrete --
7.1 System Overview --
7.2 Evolution of Post-Tensioned Structures --
7.3 Typical Reasons for Repair of Post-Tensioned Buildings --
7.4 Planning for Repairs --
7.5 Nondestructive Testing --
7.6 Destructive Testing --
7.7 Repair Methods --
7.8 A Step-by-Step Example: Replacing Post-Tensioned Stressing-End Anchorage --
References --
8 Renovating Wood Structures --
8.1 Historical Background --
8.2 Wood Deterioration --
8.3 Detecting Deterioration --
8.4 Preventing Deterioration --
8.5 Shrinkage and Defects --
8.6 Repairing Wood Members --
8.7 Strengthening Wood Members --
8.8 Renovating Wood Trusses --
8.9 Case Study 1: Repairing Termite Damage in Trusses --
8.10 Case Study 2: Restoring Fire Damage to the Exeter Street Theater --
References --
9 Renovating Masonry --
9.1 Masonry as a Construction Material --
9.2 Evolution of Masonry Design Methods --
9.3 Evaluation of Masonry Structures --
9.4 Masonry Repair --
9.5 Strengthening Masonry Structural Elements --
9.6 Repairing Masonry Arches --
9.7 Other Masonry Renovation Tasks --
References --
10 Renovating Metal Building Systems --
10.1 Introduction --
10.2 Evolution of Metal Building Systems --
10.3 Primary Frames --
10.4 Expansion of Metal Building Systems --
10.5 Lateral Stability --
10.6 Secondary Framing --
10.7 Wall Materials --
10.8 Metal Roofing --
10.9 Insulation and Vapor Retarders --
10.10 Renovation Checklist --
10.11 Case Study --
References --
11 Strengthening Lateral Load?Resisting Systems --
11.1 Lateral-Load Basics --
11.2 Lateral Load?Resisting Systems --
11.3 A Brief History of Wind and Seismic Codes --
11.4 Code Provisions for Seismic Upgrading --
11.5 Typical Tasks for Lateral-Load Upgrading --
11.6 Reinforcing Diaphragms --
11.7 Reinforcing Wood, Steel, and Masonry Buildings --
11.8 Reinforcing Concrete Buildings --
11.9 Energy-Dissipating Devices --
11.10 Seismic Isolation --
11.11 Reinforcing Nonstructural Elements --
References --
12 Case Studies in Seismic Upgrading --
12.1 Case 1: Seismic Upgrading of a Former Industrial Building --
12.2 Case 2: Proposed Renovation of an Unreinforced-Masonry Building --
12.3 Case 3: Seismic Upgrade of Terminal 1, Oakland International Airport --
12.4 Case 4: Seismic Retrofit of the Administration Building, San Francisco State University --
13 Renovating Building Fa?ades --
13.1 General Issues --
13.2 Curtain-Wall Problems Caused by Structural Forces and Movements --
13.3 Water Leakage --
13.4 Rehabilitating Solid Masonry Walls --
13.5 Brick-Veneer Walls with CMU Backup --
13.6 Brick-Veneer Walls with Steel Studs --
13.7 Repairing Brick-Veneer Walls --
13.8 Repairing Stone and Stone-Panel Walls --
13.9 Rehabilitating Exterior Insulation and Finish Systems --
13.10 Rehabilitating Other Wall Types --

Resource added for the Architectural Technology program 106141.

Resource added for the Construction Technology program 104752 and Construction Management programs for Carpentry 104552, Electricity 104551, and Masonry 104555. Also added for the Carpentry 314101, Electricity 314131, Industrial Maintenance Mechanic 314622, and Masonry 314082 technical diplomas.

Notas de autor provistas por Syndetics

Alexander Newman, P.E., F.ASCE, is a forensic and structural consultant with more than 40 years of experience in structural design, renovation, and failure investigation across the country. He is the author of Metal Building Systems: Design and Specifications , now in the third edition, and Foundation and Anchor Design Guide for Metal Building Systems.

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