Post on 06-Mar-2015
Contents
Bridging Your Innovations to RealitiesPart 1. Modeling Graphic User Interface
Bridging Your Innovations to RealitiesPart 1. Modeling
Various model display methods
View Control + Display Options
3D Perspective Wire Frame Shrink
Transparent Shell Elements Display of
Elements / Loads / Boundaries
Bridging Your Innovations to RealitiesPart 1. Modeling
Effective Width Calculation
Concrete Box Sections
Bridging Your Innovations to RealitiesPart 1. Modeling
Reinforcing Steel
Concrete Box Sections
Display of longitudinal rebars input
Bridging Your Innovations to RealitiesPart 1. Modeling
Section Property Calculator (SPC)
User Defined Section
Bridging Your Innovations to RealitiesPart 1. Modeling
Creep/Shrinkage
Time Dependent Material Properties
Bridging Your Innovations to RealitiesPart 1. Modeling
Compressive Strength
Time Dependent Material Properties
Bridging Your Innovations to RealitiesPart 1. Modeling Bridge Model Wizards
Bridge Wizards
All Types of Cable Bridges
> Suspension Bridge
> Cable Stay Bridge
All Types of Segmental Bridges
> Balanced Cantilever Bridge
> Incremental Launching Method
> Movable Scaffolding System
> Full Shoring Method
Prestressed Girder, RC Slab, Box Culvert
Bridging Your Innovations to RealitiesPart 1. Modeling
Truss Model
Bridge Model Wizards
Bridging Your Innovations to RealitiesPart 1. Modeling
Cable Stayed Bridge
Bridge Model Wizards
Bridging Your Innovations to RealitiesPart 1. Modeling
Segmental Bridge Model Wizards – based on construction method
Bridge Model Wizards
Bridging Your Innovations to RealitiesPart 1. Modeling
RC Slab Bridge Wizard
Bridge Model Wizards
Bridging Your Innovations to RealitiesPart 1. Modeling
RC Frame / Box Culvert Wizards
Bridge Model Wizards
Bridging Your Innovations to RealitiesPart 1. Modeling Bridge Model Wizards
Grillage Model Wizard
Bridging Your Innovations to RealitiesPart 1. Modeling
3 separate data files merged into one combined model
Merge data files
Support Frame
Vessel 1
Vessels 2&3
Bridging Your Innovations to RealitiesPart 2. Analysis Analysis Capabilities
Analysis Capabilities
Construction Stage Analysis
Moving Load Analysis
> Influence Line & Influence Surface
Eigen Value Analysis
Dynamic Analysis
> Response Spectrum
> Time History
Large Displacement Analysis
P - Delta Analysis
Buckling Analysis
Thermal Stress Analysis
Heat of Hydration Analysis
Nonlinear Analysis
> Material & Geometric Nonlinearity
> Pushover & Fiber Model Analysis
> Inelastic Time History Analysis
> Boundary Nonlinear Analysis
Bridging Your Innovations to RealitiesPart 1. Modeling
Defining Live Loads
Live Load Analysis
Step 1
Select Live Load Code
Step 2
Define Traffic Line Lane
or
Traffic Surface Lane
Step 3
Define Standard Vehicular Load
or
User-defined Vehicular Load
Bridging Your Innovations to RealitiesPart 2. Analysis Live Load Analysis
Influence Line Results
Bridging Your Innovations to RealitiesPart 2. Analysis Live Load Analysis
Moving Load Tracer + Vehicle Load Conversion to Static Load
Bridging Your Innovations to RealitiesPart 1. Modeling
Transverse Analysis for Multi-Celled Box Sections
Transverse Analysis
Bridging Your Innovations to RealitiesPart 2. Analysis Construction Stage Analysis
Prestressed Concrete – Tendon Prestress Losses & Stress Limits
Bridging Your Innovations to RealitiesPart 2. Analysis Construction Stage Analysis
Balanced-Cantilever Bridge – Geometry (Camber) Control, Table and Graph
Bridging Your Innovations to RealitiesPart 2. Analysis Construction Stage Analysis
Cable-Stayed Bridge – Finding Unknown Load Factors for Optimization
Definition of Unknown Load Factors
Completed Structure Model
Bridging Your Innovations to RealitiesPart 2. Analysis Construction Stage Analysis
Cable-Stayed Bridge – Forward stage analysis
Displacements at the completed state
[ Max. – 0.00043 ]
Displacements of forward stage analysis at
the last stage using Lack of Fit Force
[ Max. – 0.000426 ]
Construction stage pretension force
= Initial pretension force + Lack of Fit Force (additional tension required to install a cable)
Bridging Your Innovations to RealitiesPart 2. Analysis Cable Tuning
Cable-Stayed Bridge – Cable tuning for finer adjustments
Bridging Your Innovations to RealitiesPart 2. Analysis Dynamic Analysis
Time History Analysis – Displacement & Moment
Bridging Your Innovations to RealitiesPart 2. Analysis Dynamic Analysis
Time History Analysis – Shear vs Displacement Graph
Bridging Your Innovations to RealitiesPart 2. Analysis Nonlinear Analysis
Dynamic Boundary Nonlinear Analysis – Bearings & Isolators
Bridging Your Innovations to RealitiesPart 2. Analysis Nonlinear Analysis
Dynamic Boundary Nonlinear Analysis – Bridge behavior with the base isolators
Bridging Your Innovations to RealitiesPart 2. Analysis Nonlinear Analysis
Pushover Analysis – Performance Based Seismic Design
Select Load or Displacement Control
Define Inelastic Hinge Properties
Pushover Analysis
Review Capacity of Structure
Performance Point by CSM
Evaluation of Structure to Resist Earthquake
Static Analysis and Member Design
Bridging Your Innovations to RealitiesPart 2. Analysis Nonlinear Analysis
Pushover Analysis – Capacity Curves
Yield Point
Maximum Capacity
Node 2
Node 3
Node 4
Node 5
Bridging Your Innovations to RealitiesPart 2. Analysis Nonlinear Analysis
Pushover Analysis – Evaluation of Structure by Design Spectrum
Performance Point
Bridging Your Innovations to RealitiesPart 1. Modeling
General Section Design
General Sections
Bridging Your Innovations to RealitiesPart 2. Analysis Nonlinear Analysis
Material Nonlinear Analysis
Truss
Element types
Plane Stress
Plane Strain
Axisymmetric
Solid
Tresca
Plastic Material Models
Von Mises
Mohr-Coulomb
Drucker-Prager
Isotropic
Hardening Models
Kinematic
Mixed
Bridging Your Innovations to RealitiesPart 2. Analysis Nonlinear Analysis
Nonlinear / Inelastic Time History Analysis
Kinematic Hardening Clough
Takeda Modified Taketa
Bridging Your Innovations to RealitiesPart 2. Analysis Nonlinear Analysis
Inelastic Time History Analysis results
0.27
0.23
0.16
0.28
Bridging Your Innovations to RealitiesPart 2. Analysis Nonlinear Analysis
Nonlinear dynamic analysis using Fiber Model
Bridging Your Innovations to RealitiesPart 2. Analysis Nonlinear Analysis
Nonlinear dynamic analysis using Fiber Model – Defining hysteretic model of concrete
Kent & Park Model
Japan Concrete
Standard
Specification Model
Japanese Roadway
Specification Model
Trilinear Concrete
Model
Bridging Your Innovations to RealitiesPart 2. Analysis Nonlinear Analysis
Nonlinear dynamic analysis using Fiber Model
Bridging Your Innovations to RealitiesPart 2. Analysis Heat of Hydration Analysis
Temperature Contour with / without Cooling Pipes
Without Cooling Pipes With Cooling Pipes
Bridging Your Innovations to RealitiesPart 2. Analysis Post-processing Features
Plate Moments – Cutting Diagrams
Bridging Your Innovations to RealitiesPart 2. Analysis Post-processing Features
Solid Stresses – Iso Surface
Bridging Your Innovations to RealitiesPart 3. Design PSC Design
PSC Design as per AASHTO LRFD08
Bridging Your Innovations to RealitiesPart 3. Design Bridge Load Rating Design
Bridge Load Rating Design as per AASHTO LRFR – Permit Vehicle & Moving Load Case
Lane 1
Lane 2
Permit
Vehicle
Bridging Your Innovations to RealitiesPart 3. Design Reinforced Concrete Design
Reinforced Concrete Design as per AASHTO LRFD – Design Report
Bridging Your Innovations to RealitiesPart 1. Modeling
Dynamic Report Generator
Dynamic Report Generator
Bridging Your Innovations to RealitiesProject Applications
[ Composite Girder Bridge ]
[ Arch Bridge ]
[ Post-tensioned Box Girder Bridge ]
[ Suspension Bridge ]
[ Cable-stayed Bridge ]
Market Leader Worldwide
Applied to Major Projects
Bridging Your Innovations to RealitiesProject Applications
Ironton-Russell Bridge
Overall bridge length 1,900 ft
Main span 950 ft
Tower height 519 ft
LocationCrossing the Ohio River
between Ironton and Russell
Function/usage Roadway Bridge
Designer Michael Baker, Jr., Inc.
Cost of construction $110 Million
Number of elements
and element types
used
Truss (Cable): 70
Beam: 2088
Shell: 2730
Type of analysis
Construction Stage Analysis
with Time-Dependent Effects
Unknown Load Factor Analysis
Eigenvalue Analysis
Thermal Analysis
Vehicle Load Optimization
Bridging Your Innovations to RealitiesProject Applications Galena Creek Bridge
Overall bridge length 525 m
Main Span 210 m
Location Washoe County, Nevada
Function/usage Roadway Bridge
Modeled by Hilliard C. Bond, P.E. (of Parsons)
Number of elements
and element types used
Beam: 400
Tendon Profile: 10
(lumped representative tendons)
Type of analysis
Construction Stage Analysis with
Time-Dependent Effects
Vehicle Load Optimization
Bridging Your Innovations to RealitiesProject Applications
Bang Hwa Bridge
Overall bridge length 2559 m
Location Seoul
Function/usage Roadway Bridge
Designer Sam An Engineering
Year of completion 2000
Cost of construction $ 0.2 Billion
Number of elements
and element types
used
Beam: 2603
Type of analysis
Eigen Value Analysis
Response Spectrum Analysis
Vehicle Load Optimization
Bridging Your Innovations to RealitiesProject Applications
Kum Ga Bridge – 7 Spans of Extradosed bridge
Overall bridge length 795 m
Location Chung Ju
Function/usage Roadway Bridge
Designer Chung Suk Engineering
Number of elements and
element types used
Truss (Cable): 144
Beam: 644
Type of analysis
Construction Stage Analysis
with Time-Dependent Effects
Cable Tension Optimization
Geometric Nonlinear Analysis
Vehicle Load Optimization
Bridging Your Innovations to RealitiesProject Applications
Overall bridge length 4420 m
Tower height 107 m
Location Incheon
Function/usage Roadway / Railway Bridge
Designer U Sin Corporation
Year of completion 2000
Cost of construction $ 0.9 Billion
Number of elements and
element types used
Truss (Cable): 162
Beam: 1930
Type of analysis
Response Spectrum
Analysis
Eigen Value Analysis
Large Displacement
Analysis
Vehicle Load Optimization
Young Jong Bridge – World’s 1st 3D self-anchored suspension bridge
Bridging Your Innovations to RealitiesProject Applications
Overall bridge length 1480 m
Main span 800 m
Tower height 230 m
Location Incheon
Function/usage Roadway Bridge
DesignerSeoyeong Engineering and Chodai
Co., Ltd
Year of completion 2009
Cost of construction $ 2.4 Billion
Number of elements and
element types used
Truss (Cable): 176
Beam: 1653
Type of analysis
Construction Stage Analysis with
Time-Dependent Effects
Cable Tension Optimization
Geometric Nonlinear Analysis
Vehicle Load Optimization
Incheon 2nd Bridge – 5th Longest Cable Stayed Bridge
Bridging Your Innovations to RealitiesProject Applications
Overall bridge length 1600 m
Main span 1018 m
Tower height 295 m
LocationBetween Tsing Yi and Kowloon
City, Hong Kong, China
Function/usage Roadway Bridge
Designer Ove Arup & Partners
Cost of construction $355 Million
Number of elements
and element types used
Truss (Cable): 224
Beam: 1638
Type of analysis
Construction Stage Analysis with
Time-Dependent Effects
Cable Tension Optimization
Geometric Nonlinear Analysis
Eigenvalue Analysis
Thermal Analysis
Buckling Analysis
Stonecutters Bridge – 2nd Longest Cable Stayed Bridge
Bridging Your Innovations to RealitiesProject Applications
Overall bridge length 8206 m
Main span 1088 m
Tower height 306 m
LocationCrossing Yangtze River in China
between Nantong and Changshu
Function/usage Roadway Bridge
Designer
Jiangsu Province
Communications Planning and
Design Institute
Cost of construction $750 Million
Number of elements
and element types
used
Truss (Cable): 272
Beam: 760
Type of analysis
Construction Stage Analysis with
Time-Dependent Effects
Cable Tension Optimization
Geometric Nonlinear Analysis
Eigenvalue Analysis
Thermal Analysis
Buckling Analysis
Sutong Bridge – Longest Cable Stayed Bridge