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E-raamat: Principles of Structural Design: Wood, Steel, and Concrete, Third Edition

  • Formaat: 617 pages
  • Ilmumisaeg: 17-Jun-2019
  • Kirjastus: CRC Press
  • Keel: eng
  • ISBN-13: 9781351027687
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  • Formaat: 617 pages
  • Ilmumisaeg: 17-Jun-2019
  • Kirjastus: CRC Press
  • Keel: eng
  • ISBN-13: 9781351027687
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Timber, steel, and concrete are common engineering materials used in structural design. Material choice depends upon the type of structure, availability of material, and the preference of the designer. The design practices the code requirements of each material are very different. In this updated edition, the elemental designs of individual components of each material are presented, together with theory of structures essential for the design. Numerous examples of complete structural designs have been included. A comprehensive database comprising materials properties, section properties, specifications, and design aids, has been included to make this essential reading.

Preface xv
Author xvii
Chapter 1 Design Criteria
1(22)
Classification of Buildings
1(1)
Building Codes
1(1)
Standard Unit Loads
1(1)
Tributary Area
1(5)
Working Stress Design, Strength Design, and Unified Design of Structures
6(3)
Elastic and Plastic Designs
9(4)
Elastic Moment Capacity
10(1)
Plastic Moment Capacity
11(2)
Combinations of Loads
13(1)
Other Loads
14(3)
Continuous Load Path for Structural Integrity
17(1)
Problems
17(6)
Chapter 2 Primary Loads: Dead Loads and Live Loads
23(8)
Dead Loads
23(1)
Live Loads
23(1)
Floor Live Loads
24(3)
Basic Design Live Load, L0
24(1)
Effective Area Reduction Factor
25(2)
Other Provisions for Floor Live Loads
27(1)
Roof Live Loads, Lr
27(1)
Tributary Area Reduction Factor, R1
28(1)
Slope Reduction Factor
28(1)
Problems
28(3)
Chapter 3 Snow Loads
31(20)
Introduction
31(1)
Minimum Snow Load for Low-Slope Roofs
31(3)
Balanced Snow Load
34(2)
Importance Factor
34(1)
Thermal Factor, Cr
35(1)
Exposure Factor, Ce
35(1)
Roof Slope Factor, Cs
35(1)
Rain-On-Snow Surcharge
36(2)
Partial Loading of the Balanced Snow Load
38(1)
Unbalanced across the Ridge Snow Load
38(2)
Snow Drift from a Higher to a Lower Roof
40(5)
Leeward Snow Drift on Lower Roof of Attached Structure
41(1)
Windward Snow Drift on Lower Roof of Attached Structure
42(1)
Leeward Snow Drift on Lower Roof of Separated Structure
42(1)
Windward Snow Drift on Lower Roof of Separated Structure
43(2)
Sliding Snow Load on Lower Roof
45(2)
Sliding Snow Load on Separated Structures
47(1)
Problems
47(4)
Chapter 4 Wind Loads
51(40)
Introduction
51(1)
Definition of Terms
51(1)
Wind Hazard Maps
52(1)
Procedures for MWFRS
52(1)
Simplified Procedure for MWFRS for Low-Rise Buildings
52(19)
Horizontal Pressure Zones for MWFRS
53(9)
Vertical Pressure Zones for MWFRS
62(1)
Minimum Pressure for MWFRS
62(9)
Procedures for Components and Cladding
71(1)
Simplified Procedure for Components and Cladding for Low-Rise Buildings
72(17)
Minimum Pressures for C and C
72(17)
Problems
89(2)
Chapter 5 Earthquake Loads
91(28)
Seismic Forces
91(1)
Seismic Design Procedures
91(1)
Definitions
92(2)
Structural Height
92(1)
Stories above Base and Grade Plane
92(1)
Fundamental Period of Structure
93(1)
Site Classification
93(1)
Seismic Ground Motion Values
94(10)
Mapped Acceleration Parameters
94(1)
Risk-Targeted Maximum Considered Earthquake (MCER) Spectral Response Acceleration Parameters
94(1)
Adjustments to Spectral Response Acceleration Parameters for Site Class Effects
95(1)
Design Spectral Acceleration Parameters
95(1)
Design Response Spectrum
95(9)
Site-Specific Ground Motion Procedure
104(1)
Importance Factor, I
105(1)
Seismic Design Category
105(1)
Exemptions from Seismic Designs
106(1)
Equivalent Lateral Force (ELF) Procedure to Determine Seismic Force
106(2)
Effective Weight of Structure, W
106(1)
Seismic Response Coefficient, Cs
106(1)
Minimum Value of Cs
107(1)
Maximum SDS Value in Determining Cs
107(1)
Response Modification Factor or Coefficient, R
107(1)
Distribution of Seismic Forces
108(2)
Distribution of Seismic Forces on Vertical Wall Elements
109(1)
Distribution of Seismic Forces on Horizontal Elements (Diaphragms)
110(1)
Design Earthquake Load in Load Combinations
110(5)
Vertical Seismic Load Effect (Evertical)
111(1)
Maximum SDS Value in Determining Evertical
111(4)
Soil-Structure Interaction
115(1)
Problems
116(3)
Chapter 6 Wood Specifications
119(30)
Engineering Properties and Design Requirements
119(3)
Format Conversion Factor, KF
120(1)
Resistance Factor, Φ
120(1)
Time Effect Factor, λ
121(1)
Wet Service Factor, CM
121(1)
Temperature Factor, Ct
121(1)
Fire Retardant Treatment Factor
122(1)
Design with Sawn Lumber
122(3)
More Factors Applicable to Lumber
125(1)
Incising Factor, Ci
125(1)
Size Factor, CF
125(1)
Size Factor, CF, for Dimension Lumber
125(1)
Size Factor, CF, for Timber
125(1)
Repetitive Member Factor, Cr
125(1)
Flat Use Factor, Cfu
126(1)
Buckling Stiffness Factor, CT
126(1)
Bearing Area Factor, Cb
126(1)
LRFD Basis Lumber Design
126(4)
Structural Glued Laminated Timber
130(1)
Reference Design Values for GLULAM
131(1)
Adjustment Factors for GLULAM
132(4)
Flat Use Factor for GLULAM, Cfu
132(1)
Volume Factor for GLULAM, Cv
132(2)
Curvature Factor for GLULAM, Cc
134(1)
Stress Interaction Factor, C
134(1)
Shear Reduction Factor, Cvr
134(2)
Structural Composite Lumber
136(1)
Adjustment Factors for Structural Composite Lumber
137(1)
Repetitive Member Factor, Cr
137(1)
Volume Factor, Cv
137(2)
Cross-Laminated Timber (CLT)
139(2)
Effective Flexure Stiffness and Flexural Strength
141(1)
Effective Shear Strength Factor
142(1)
Effective Shear Stiffness
143(1)
Summary of Adjustment Factors
144(2)
Problems
146(3)
Chapter 7 Flexure and Axially Loaded Wood Structures
149(34)
Introduction
149(1)
Design of Beams
149(1)
Bending Criteria of Design
149(2)
Beam Stability Factor, CL
151(3)
Effective Unbraced Length
153(1)
Shear Criteria
154(1)
Shear Strength of Sawn Lumber, GLULAM, and SCL
155(1)
Shear Strength of CLT
155(1)
Deflection Criteria
156(1)
Deflection of Sawn Lumber, GLULAM, and SCL
156(1)
Deflection of CLT
157(2)
Creep Deflection
159(5)
Bearing at Supports
164(2)
Bearing Area Factor, Cb
164(2)
Design of Axial Tension Members
166(2)
Design of Columns
168(1)
Column Stability Factor, CP
169(1)
Critical Buckling for Sawn Lumber, GLULAM, and SCL
170(1)
Critical Buckling for CLT
171(1)
Design for Combined Bending and Compression
172(5)
Problems
177(6)
Chapter 8 Wood Connections
183(20)
Types of Connections and Fasteners
183(1)
Dowel-Type Fasteners (Nails, Screws, Bolts, Pins)
183(1)
Yield Limit Theory for Laterally Loaded Fasteners
184(1)
Yield Mechanisms and Yield Limit Equations
185(2)
Reference Design Values for Lateral Loads (Shear Connections)
187(1)
Reference Design Values for Withdrawal Loads
187(1)
Adjustments of the Reference Design Values
187(7)
Wet Service Factor, CM
187(1)
Temperature Factor, Ct
187(1)
Group Action Factor, Cg
188(1)
Geometry Factor, CΔ
188(3)
End Grain Factor, Ceg
191(1)
Diaphragm Factor, Cdi
191(1)
Toenail Factor, Ctn
191(3)
Nail and Screw Connections
194(3)
Common, Box, and Sinker Nails
194(1)
Post-Frame Ring Shank Nails
194(1)
Wood Screws
195(2)
Bolt and Lag Screw Connections
197(2)
Bolts
197(1)
Lag Screws
197(2)
Problems
199(4)
Chapter 9 Tension Steel Members
203(18)
Properties of Steel
203(1)
Provisions for Design Steel Structures
203(1)
Unified Design Specifications
204(1)
Limit States of Design
204(1)
Design of Tension Members
205(1)
Tensile Strength of Elements
205(3)
Net Area, An
206(2)
Shear Lag Factor, U
208(1)
Bolted Connection
208(1)
Welded Connection
209(1)
For HSS Shapes
210(1)
Block Shear Strength
211(2)
Design Procedure for Tension Members
213(2)
Problems
215(6)
Chapter 10 Compression Steel Members
221(20)
Strength of Compression Members or Columns
221(2)
Local Buckling Criteria
223(1)
Flexural Buckling Criteria
224(1)
Effective Length Factor for Slenderness Ratio
224(3)
Limit States for Compression Design
227(1)
Nonslender Members
228(3)
Flexural Buckling of Nonslender Members in Elastic and Inelastic Regions
228(1)
Inelastic Buckling
229(1)
Elastic Buckling
229(1)
Torsional and Flexural-Torsional Buckling of Nonslender Members
229(2)
Single-Angle Members
231(1)
Built-Up Members
231(1)
Slender Compression Members
231(1)
Effective Width of Slender Elements, be
231(1)
Use of the Compression Tables
232(2)
Problems
234(7)
Chapter 11 Flexural Steel Members
241(16)
Basis of Design
241(1)
Nominal Strength of Steel in Flexure
241(1)
Lateral Unsupported Length
241(2)
Fully Plastic Zone with Adequate Lateral Support
243(1)
Inelastic Lateral Torsional Buckling Zone
243(1)
Modification Factor Cb
244(1)
Elastic Lateral Torsional Buckling Zone
244(1)
Noncompact and Slender Beam Sections for Flexure
244(2)
Compact Full Plastic Limit
246(1)
Noncompact Flange Local Buckling
246(1)
Slender Flange Local Buckling
246(1)
Summary of Beam Relations
246(2)
Design Aids
248(3)
Shear Strength of Steel
251(1)
Beam Deflection Limitations
252(2)
Problems
254(3)
Chapter 12 Combined Forces on Steel Members
257(30)
Design Approach to Combined Forces
257(1)
Combination of Tensile and Flexure Forces
258(1)
Combination of Compression and Flexure Forces: The Beam-Column Members
259(5)
Members without Sidesway
259(1)
Members with Sidesway
260(1)
Magnification Factor B1
261(1)
Moment Modification Factor, Cm
261(3)
K Values for Braced Frames
264(1)
Braced Frame Design
264(4)
Magnification Factor for Sway, B2
268(1)
K Values for Unbraced Frames
269(1)
Unbraced Frame Design
270(4)
Open-Web Steel Joists
274(3)
Joist Girders
277(1)
Problems
278(9)
Chapter 13 Steel Connections
287(38)
Types of Connections and Joints
287(2)
Bolted Connections
289(2)
High-Strength Bolts
290(1)
Types of Connections
290(1)
Specifications for Spacing of Bolts and Edge Distance
291(1)
Bearing-Type Connections
292(1)
Limit State of Shear Rupture
293(3)
Bearing and Tearout Limit State
294(2)
Slip-Critical Connections
296(3)
Tensile Load on Bolts
299(1)
Combined Shear and Tensile Forces on Bolts
300(4)
Combined Shear and Tension on Bearing-Type Connections
300(3)
Combined Shear and Tension on Slip-Critical Connections
303(1)
Welded Connections
304(1)
Groove Welds
305(1)
Effective Area of Groove Weld
305(1)
Fillet Welds
305(1)
Effective Area of Fillet Weld
305(1)
Minimum Size of Fillet Weld
306(1)
Maximum Size of Fillet Weld
306(1)
Length of Fillet Weld
306(1)
Strength of Weld
306(4)
CJP Groove Welds
306(1)
PJP Welds and Fillet Welds
306(4)
Frame Connections
310(1)
Shear or Simple Connection for Frames
310(2)
Single-Plate Shear Connection or Shear Tab
310(1)
Framed-Beam Connection
311(1)
Seated-Beam Connection
311(1)
End-Plate Connection
311(1)
Single-Plate Shear Connection for Frames
312(3)
Moment-Resisting Connection for Frames
315(2)
Problems
317(8)
Chapter 14 Flexural Reinforced Concrete Members
325(22)
Properties of Reinforced Concrete
325(1)
Compression Strength of Concrete
325(1)
Design Strength of Concrete
326(1)
Strength of Reinforcing Steel
327(1)
Load Resistance Factor Design Basis of Concrete
327(1)
Reinforced Concrete Beams
328(1)
Derivation of the Beam Relations
328(2)
Strain Diagram and Modes of Failure
330(1)
Balanced and Recommended Steel Percentages
331(1)
Minimum Percentage of Steel
331(1)
Strength Reduction Factor for Concrete
332(1)
Specifications for Beams
332(2)
Analysis of Beams
334(1)
Design of Beams
335(4)
Design for Reinforcement Only
335(2)
Design of Beam Section and Reinforcement
337(2)
One-Way Slab
339(1)
Specifications for Slabs
340(1)
Analysis of One-Way Slab
340(1)
Design of One-Way Slab
341(2)
Problems
343(4)
Chapter 15 Doubly and T-Shaped Reinforced Concrete Beams
347(18)
Doubly Reinforced Concrete Beams
347(2)
Analysis of Doubly Reinforced Beams
349(3)
Design of Doubly Reinforced Beams
352(2)
Monolithic Slab and Beam (T-Beams)
354(1)
Analysis of T-Beams
355(2)
Design of T-Beams
357(3)
Problems
360(5)
Chapter 16 Shear and Torsion in Reinforced Concrete
365(22)
Stress Distribution in Beam
365(2)
Diagonal Cracking of Concrete
367(1)
Strength of Web (Shear) Reinforced Beam
368(1)
Shear Contribution of Concrete
369(1)
Shear Contribution of Web Reinforcement
369(1)
Specifications for Web (Shear) Reinforcement
370(2)
Analysis for Shear Capacity
372(1)
Design for Shear Capacity
373(3)
Torsion in Concrete
376(2)
Provision for Torsional Reinforcement
378(2)
Problems
380(7)
Chapter 17 Compression and Combined Forces Reinforced Concrete Members
387(22)
Types of Columns
387(1)
Pedestals
387(1)
Columns with Axial Loads
387(1)
Short Columns with Combined Loads
387(1)
Large or Slender Columns with Combined Loads
387(1)
Axially Loaded Columns
388(1)
Strength of Spirals
389(1)
Specifications for Columns
390(1)
Analysis of Axially Loaded Columns
391(2)
Design of Axially Loaded Columns
393(3)
Short Columns with Combined Loads
396(1)
Effects of Moment on Short Columns
397(4)
Case 1 Only Axial Load Acting
397(1)
Case 2 Large Axial Load and Small Moment (Small Eccentricity)
398(1)
Case 3 Large Axial Load and Moment Larger than Case 2 Section
398(1)
Case 4 Large Axial Load and Moment Larger than Case 3 Section
398(1)
Case 5 Balanced Axial Load and Moment
399(1)
Case 6 Small Axial Load and Large Moment
399(1)
Case 7 No Appreciable Axial Load and Large Moment
399(2)
Characteristics of the Interaction Diagram
401(1)
Application of the Interaction Diagram
401(1)
Analysis of Short Columns for Combined Loading
402(1)
Design of Short Columns for Combined Loading
403(2)
Long or Slender Columns
405(1)
Problems
405(4)
Chapter 18 Pre-Stressed Concrete Structures
409(28)
Pre-Stressing of Concrete
409(2)
Pre-Tensioning
409(1)
Post-Tensioning
409(2)
Stressing and Anchorage Devices
411(1)
Pre-Tensioning versus Post-Tensioning
411(1)
Materials for Pre-Stressed Concrete
411(4)
High-Strength Steel
411(1)
Allowable Stress in Pre-Stressed Steel
412(1)
High-Strength Concrete
412(1)
Shrinkage of Concrete
413(1)
Creep of Concrete
413(1)
Allowable Stress in Concrete
414(1)
Pre-Stress Losses
415(4)
Loss Due to Elastic Shortening (ES)
415(1)
Loss Due to Shrinkage (SH) of Concrete
416(1)
Loss Due to Creep (CR) of Concrete
417(1)
Loss Due to Relaxation (RE) of Steel
417(1)
Loss Due to Friction (FL)
418(1)
Total Losses of Stress
419(1)
Analysis of Stresses during Pre-Stressing
419(1)
Tendon with Eccentricity
419(7)
Stresses at Transfer
420(1)
Stresses at Service Load
420(6)
Ultimate Limit State Design
426(1)
Cracking Moment
426(1)
Strains at Different Stages of Loading
427(1)
Stage 1 At Transfer
427(1)
Stage 2 After Application of External Load
427(1)
Stresses and Forces after Application of the Load
428(1)
Ultimate Moment Capacity
429(1)
Maximum and Minimum Reinforcement
429(1)
Ultimate Shear Strength Design
430(1)
Shear Strength Provided by Concrete
431(2)
Shear Capacity of Cracked Section (Flexure Induced Shearing)
431(1)
Shear Capacity of Uncracked Section (Web-Shear Cracking)
432(1)
Shear Strength Provided by Web Reinforcement
433(1)
Problems
434(3)
Chapter 19 Application of Simulations in Structural Design
437(10)
Aaron Trisler
Technical Account Manager
Ashwini Kumar
Principal Engineer
Introduction
437(1)
Analyzing a Simple Beam Using Analytical Method
438(1)
Mathematical Modeling Technique
439(1)
Mathematical Modeling of Beam with Sign Board
440(2)
Model Setup and Input
440(2)
Model Output
442(2)
Solution and Post-Processing
442(2)
Exploring Model Output for "What If?"
444(1)
Mathematical Modeling of a Staircase
444(1)
What If?
445(1)
Real-Life Structural Engineering Problems
445(1)
Accessing ANSYS for Students
446(1)
Summary
446(1)
Appendix A General 447(6)
Appendix B Wood 453(62)
Appendix C Steel 515(52)
Appendix D Concrete 567(22)
Bibliography 589(4)
Index 593
Ram S. Gupta, PhD, earned a masters in engineering at the Indian Institute of Technology (IIT), Roorkee, India, and a PhD at Polytechnic University, New York. He is a registered professional engineer in Rhode Island and Massachusetts. Dr. Gupta is president of Delta Engineers Inc., a Rhode Island-based consulting company. He is the author of numerous research papers and three textbooks. Dr. Gupta is professor emeritus at Roger Williams University (RWU), Bristol, Rhode Island.