Computational analysis and design of bridge structures / Chung C. Fu, Shuqing Wang.
Por: Fu, C. C. (Chung C.)
Colaborador(es): Wang, Shuqing (Highway engineer)Tipo de material: 
TextoEditor: Boca Raton, FL (USA): CRC Press, 2015Descripción: xxiii, 607 p.: il., gráficas, fotografías; 24 cmISBN: 9781466579842 (hardback : acidfree paper)Tema(s): PUENTES -- DISEÑO Y CONSTRUCCIÓN -- PROCESAMIENTO DE DATOS | TECNOLOGÍA E INGENIERÍAClasificación CDD: 624.25
Contenidos:
Resumen: Las estructuras de puentes varían considerablemente en la forma, tamaño, complejidad e importancia. Los métodos para su análisis y diseño computacional de la gama aproximada de análisis refinado, y la rápida mejora de la tecnología informática ha hecho que los métodos más refinados y complejos de análisis más común. Los principales métodos de análisis y técnicas de modelado correspondientes figuran, principalmente para puentes de carreteras, sino también con un poco de información sobre los puentes ferroviarios. temas especiales, tales como el modelado de bielas y tirantes, lineal y no lineal análisis de pandeo, análisis de redundancia, puentes integrales, análisis dinámico / terremoto, y la geometría del puente también están cubiertos. El material es en gran parte de código independiente. El libro está escrito para los estudiantes, especialmente a nivel de maestría, y para la práctica de los profesionales de las oficinas de diseño de puentes y autoridades diseño de puentes en todo el mundo.
Part I
General
Introduction
History of bridges
Bridge types and design process
Loads and load factors
Current development of analysis and design of bridges
Outlook on analysis and design of bridges
Approximate and refined analysis methods
Introduction
Various bridge structural forms
Approximate analysis methods
Plane frame analysis method
Refined analysis methods
Different types of bridges with their selected mathematical modeling
Numerical methods in bridge structure analysis
Introduction
Finite element method
Automatic time incremental creep analysis method
Influence line/surface live loading method
Part II
Bridge behavior and modeling
Reinforced concrete bridges
Introduction
Concrete and steel material properties
Behavior of nonskewed/skewed concrete beam–slab bridges
Principle and modeling of concrete beam–slab bridges
2D and 3D illustrated examples: Three-span continuous skewed concrete slab bridges
2D and 3D illustrated examples: RC T-beam bridge
3D illustrated examples: Skewed simple-span transversely post-tensioned adjacent precast-concrete slab bridges—Knoxville Bridge, Frederick, Maryland
Prestressed/post-tensioned concrete bridges
Prestressing basics
Principle and modeling of prestressing
2D illustrated example of a prototype prestressed/post-tensioned concrete bridge in the United States
3D illustrated example of a double-cell post-tensioning concrete bridge—Verzasca 2 bridge, Switzerland
3D illustrated example of US23043 precast prestressed concrete beam bridge—Maryland
Illustrated example of a three-span prestressed box-girder bridge
Illustrated example of long-span concrete cantilever bridges—Jiangsu, People’s Republic of China
Curved concrete bridges
Basics of curved concrete bridges
Principle and modeling of curved concrete bridges
Spine model illustrated examples of Pengpo Interchange, Henan, People’s Republic of China
Grillage model illustrated examples—FHWA Bridge No. 4 185
3D finite element model illustrated examples—NCHRP case study bridge
Straight and curved steel I-girder bridges
Behavior of steel I-girder bridges
Principle and modeling of steel I-girder bridges
2D and 3D illustrated example of a haunched steel I-girder bridge—MD140 Bridge, Maryland
2D and 3D illustrated example of a curved steel I-girder bridge—Rock Creek Trail Pedestrian Bridge, Maryland
2D and 3D illustrated example of a skewed and kinked steel I-girder bridge with straddle bent
2D and 3D illustrated example of a global and local modeling of a simple-span steel I-girder bridge—I-270 Middlebrook Road Bridge, Germantown, Maryland
Straight and curved steel box girder bridges
Behavior of steel box girder bridges
Principle and modeling of steel box girder bridges
2D and 3D illustrated examples of a straight box girder bridge
2D and 3D illustrated examples of a curved box girder bridge—Metro bridge over I495, Washington, DC
2D and 3D illustrated examples of three-span curved box girder bridge—Estero Parkway Bridge, Lee County, Florida
Arch bridges
Introduction
Construction of arch bridges
Principle and analysis of arch bridges
Modeling of arch bridges
3D illustrated example of construction analyses—Yajisha Bridge, Guangzhou, People’s Republic of China
3D illustrated example of a proposed tied-arch bridge analyses—Linyi, People’s Republic of China
3D illustrated example of an arch bridge—Liujiang Yellow River Bridge, Zhengzhou, People’s Republic of China
Steel truss bridges
Introduction
Behavior of steel truss bridges
Principle and modeling of steel truss bridges
3D illustrated example—Pedestrian pony truss bridge
2D illustrated example—Tydings Bridge, Maryland
3D illustrated example—Francis Scott Key Bridge, Maryland
3D illustrated examples—Shang Xin Bridge, Zhejiang, People’s Republic of China
Cable-stayed bridges
Basics of cable-stayed bridges
Behavior of cable-stayed bridges
Construction control
Principle and modeling of cable-stayed bridges
Illustrated example of Sutong Bridge, Jiangsu, People’s Republic of China
Illustrated example with dynamic mode analysis of Panyu Bridge, Guangdong, People’s Republic of China
Illustrated example with dynamic mode analysis of long cables with crossties
Suspension bridges
Basics of suspension bridges
Construction of suspension bridges
Behavior of suspension bridges
Principle and modeling of suspension bridges
3D illustrated example of Chesapeake Bay Suspension Bridge, Maryland
Part III
Special topics of bridges
Strut-and-tie modeling
Principle of strut-and-tie model
Hand-calculation example of STM
2D illustrated example 1—Abutment on pile
2D illustrated example 2—Walled pier
2D illustrated example 3—Crane beam
2D/3D illustrated example 4—Hammerhead Pier of Thomas Jefferson Bridge
2D illustrated example 5—Integral bent cap
Alternate compatibility STM and 2D illustrated example 6—Cracked deep bent cap
Stability
Basics of structural stability
Buckling
FEM approach of stability analysis
3D illustrated example with linear buckling analysis of a pony truss, Pennsylvania
3D illustrated example with linear buckling analysis of a standard simple arch rib
3D illustrated example with linear buckling analysis of a proposed tied-arch bridge—Linyi, People’s Republic of China
3D illustrated example with nonlinear stability analysis of a cable-stayed bridge, Jiangsu, People’s Republic of China
Redundancy analysis
Basics of bridge redundancy
Principle and modeling of bridge redundancy analysis
3D example with redundancy analysis of a pony truss, Pennsylvania
3D redundancy analysis under blast loading of a PC beam bridge, Maryland
3D analysis under blast loading of a steel plate girder bridge, Maryland
Integral bridges
Basics of integral bridges
Principle and analysis of IABs
Modeling of IABs
Illustrated example of a steel girder bridge in soil spring finite element model
Illustrated example of a steel girder bridge in 3D soil continuum finite element model
Dynamic/earthquake analysis
Basics of dynamic analysis
Principle of bridge dynamic analysis
Modeling of bridge for dynamic analysis
3D illustrated example of earthquake analysis by SPA, MPA, and NL-THA—FHWA Bridge No. 4536
3D illustrated example of a high-pier bridge subjected to oblique incidence seismic waves—Pingtang bridge, People’s Republic of China
Bridge geometry
Introduction
Roadway curves
Curve calculations
Curve and surface tessellation
Bridge deck point calculations
Precast segmental bridge geometry control
Trend of bridge computer modeling and visualization
References
Index
| Tipo de ítem | Ubicación actual | Colección | Signatura | Info Vol | Copia número | Estado | Fecha de vencimiento | Código de barras | Reserva de ítems |
|---|---|---|---|---|---|---|---|---|---|
LIBRO - MATERIAL GENERAL
|
Biblioteca Jorge Álvarez Lleras Fondo general | Colección General | 624.25 F949c (Navegar estantería) | Ej. 1 | 1 | Prestado | 2021-05-15 | 024976 |
Total de reservas: 0
Navegando Biblioteca Jorge Álvarez Lleras Estantes, Ubicación: Fondo general, Código de colección: Colección General Cerrar el navegador de estanterías
| 624.2 Z634b Bridge engineering: | 624.203631065 H354r Rehabilitating and repairing the buildings and bridges of the Americas / | 624.2309 K22h History of the modern suspension bridge : | 624.25 F949c Computational analysis and design of bridge structures / | 624.257 T152h Highway bridge superstructure engineering : | 624.257 X157b Bridge substructure and foundation design/ | 625 A346a Anuario de siniestralidad vial de Bogotá 2018 / |
Incluye bibliografía e indices
Part I
General
Introduction
History of bridges
Bridge types and design process
Loads and load factors
Current development of analysis and design of bridges
Outlook on analysis and design of bridges
Approximate and refined analysis methods
Introduction
Various bridge structural forms
Approximate analysis methods
Plane frame analysis method
Refined analysis methods
Different types of bridges with their selected mathematical modeling
Numerical methods in bridge structure analysis
Introduction
Finite element method
Automatic time incremental creep analysis method
Influence line/surface live loading method
Part II
Bridge behavior and modeling
Reinforced concrete bridges
Introduction
Concrete and steel material properties
Behavior of nonskewed/skewed concrete beam–slab bridges
Principle and modeling of concrete beam–slab bridges
2D and 3D illustrated examples: Three-span continuous skewed concrete slab bridges
2D and 3D illustrated examples: RC T-beam bridge
3D illustrated examples: Skewed simple-span transversely post-tensioned adjacent precast-concrete slab bridges—Knoxville Bridge, Frederick, Maryland
Prestressed/post-tensioned concrete bridges
Prestressing basics
Principle and modeling of prestressing
2D illustrated example of a prototype prestressed/post-tensioned concrete bridge in the United States
3D illustrated example of a double-cell post-tensioning concrete bridge—Verzasca 2 bridge, Switzerland
3D illustrated example of US23043 precast prestressed concrete beam bridge—Maryland
Illustrated example of a three-span prestressed box-girder bridge
Illustrated example of long-span concrete cantilever bridges—Jiangsu, People’s Republic of China
Curved concrete bridges
Basics of curved concrete bridges
Principle and modeling of curved concrete bridges
Spine model illustrated examples of Pengpo Interchange, Henan, People’s Republic of China
Grillage model illustrated examples—FHWA Bridge No. 4 185
3D finite element model illustrated examples—NCHRP case study bridge
Straight and curved steel I-girder bridges
Behavior of steel I-girder bridges
Principle and modeling of steel I-girder bridges
2D and 3D illustrated example of a haunched steel I-girder bridge—MD140 Bridge, Maryland
2D and 3D illustrated example of a curved steel I-girder bridge—Rock Creek Trail Pedestrian Bridge, Maryland
2D and 3D illustrated example of a skewed and kinked steel I-girder bridge with straddle bent
2D and 3D illustrated example of a global and local modeling of a simple-span steel I-girder bridge—I-270 Middlebrook Road Bridge, Germantown, Maryland
Straight and curved steel box girder bridges
Behavior of steel box girder bridges
Principle and modeling of steel box girder bridges
2D and 3D illustrated examples of a straight box girder bridge
2D and 3D illustrated examples of a curved box girder bridge—Metro bridge over I495, Washington, DC
2D and 3D illustrated examples of three-span curved box girder bridge—Estero Parkway Bridge, Lee County, Florida
Arch bridges
Introduction
Construction of arch bridges
Principle and analysis of arch bridges
Modeling of arch bridges
3D illustrated example of construction analyses—Yajisha Bridge, Guangzhou, People’s Republic of China
3D illustrated example of a proposed tied-arch bridge analyses—Linyi, People’s Republic of China
3D illustrated example of an arch bridge—Liujiang Yellow River Bridge, Zhengzhou, People’s Republic of China
Steel truss bridges
Introduction
Behavior of steel truss bridges
Principle and modeling of steel truss bridges
3D illustrated example—Pedestrian pony truss bridge
2D illustrated example—Tydings Bridge, Maryland
3D illustrated example—Francis Scott Key Bridge, Maryland
3D illustrated examples—Shang Xin Bridge, Zhejiang, People’s Republic of China
Cable-stayed bridges
Basics of cable-stayed bridges
Behavior of cable-stayed bridges
Construction control
Principle and modeling of cable-stayed bridges
Illustrated example of Sutong Bridge, Jiangsu, People’s Republic of China
Illustrated example with dynamic mode analysis of Panyu Bridge, Guangdong, People’s Republic of China
Illustrated example with dynamic mode analysis of long cables with crossties
Suspension bridges
Basics of suspension bridges
Construction of suspension bridges
Behavior of suspension bridges
Principle and modeling of suspension bridges
3D illustrated example of Chesapeake Bay Suspension Bridge, Maryland
Part III
Special topics of bridges
Strut-and-tie modeling
Principle of strut-and-tie model
Hand-calculation example of STM
2D illustrated example 1—Abutment on pile
2D illustrated example 2—Walled pier
2D illustrated example 3—Crane beam
2D/3D illustrated example 4—Hammerhead Pier of Thomas Jefferson Bridge
2D illustrated example 5—Integral bent cap
Alternate compatibility STM and 2D illustrated example 6—Cracked deep bent cap
Stability
Basics of structural stability
Buckling
FEM approach of stability analysis
3D illustrated example with linear buckling analysis of a pony truss, Pennsylvania
3D illustrated example with linear buckling analysis of a standard simple arch rib
3D illustrated example with linear buckling analysis of a proposed tied-arch bridge—Linyi, People’s Republic of China
3D illustrated example with nonlinear stability analysis of a cable-stayed bridge, Jiangsu, People’s Republic of China
Redundancy analysis
Basics of bridge redundancy
Principle and modeling of bridge redundancy analysis
3D example with redundancy analysis of a pony truss, Pennsylvania
3D redundancy analysis under blast loading of a PC beam bridge, Maryland
3D analysis under blast loading of a steel plate girder bridge, Maryland
Integral bridges
Basics of integral bridges
Principle and analysis of IABs
Modeling of IABs
Illustrated example of a steel girder bridge in soil spring finite element model
Illustrated example of a steel girder bridge in 3D soil continuum finite element model
Dynamic/earthquake analysis
Basics of dynamic analysis
Principle of bridge dynamic analysis
Modeling of bridge for dynamic analysis
3D illustrated example of earthquake analysis by SPA, MPA, and NL-THA—FHWA Bridge No. 4536
3D illustrated example of a high-pier bridge subjected to oblique incidence seismic waves—Pingtang bridge, People’s Republic of China
Bridge geometry
Introduction
Roadway curves
Curve calculations
Curve and surface tessellation
Bridge deck point calculations
Precast segmental bridge geometry control
Trend of bridge computer modeling and visualization
References
Index
Las estructuras de puentes varían considerablemente en la forma, tamaño, complejidad e importancia. Los métodos para su análisis y diseño computacional de la gama aproximada de análisis refinado, y la rápida mejora de la tecnología informática ha hecho que los métodos más refinados y complejos de análisis más común. Los principales métodos de análisis y técnicas de modelado correspondientes figuran, principalmente para puentes de carreteras, sino también con un poco de información sobre los puentes ferroviarios. temas especiales, tales como el modelado de bielas y tirantes, lineal y no lineal análisis de pandeo, análisis de redundancia, puentes integrales, análisis dinámico / terremoto, y la geometría del puente también están cubiertos. El material es en gran parte de código independiente. El libro está escrito para los estudiantes, especialmente a nivel de maestría, y para la práctica de los profesionales de las oficinas de diseño de puentes y autoridades diseño de puentes en todo el mundo.
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