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Composite Girder Design Based on AISC 360-05 / CBC 10 / IBC 09 1

Composite Girder Design Based on AISC 360-05 / CBC 10 / IBC 09

Designing a composite girder based on the AISC 360-05, CBC 10 (California Building Code), and IBC 09 (International Building Code) involves several steps. Here is a general outline of the design process: Determine the Design Loads: Identify the live load, dead load, and any other applicable loads specified by the project requirements or codes.Determine the […]

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Composite Beam Design with Verco Floor Deck Based on AISC 360-05 / IBC 09 2

Composite Beam Design with Verco Floor Deck Based on AISC 360-05 / IBC 09

Designing a composite beam with Verco floor deck based on the AISC 360-05 and IBC 09 codes involves several steps. Here is a general outline of the design process: Determine the Design Loads: Identify the live load, dead load, and any other applicable loads specified by the project requirements or codes.Determine the load duration factors,

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Composite Collector Beam Design with Seismic Loads Based on AISC 360-05 / CBC 07 / IBC 09 3

Composite Collector Beam Design with Seismic Loads Based on AISC 360-05 / CBC 07 / IBC 09

Designing a composite collector beam with seismic loads based on the AISC 360-05 (American Institute of Steel Construction), CBC 07 (California Building Code 2007), and IBC 09 (International Building Code 2009) involves following the provisions outlined in these codes. A composite collector beam is typically used to resist lateral loads in steel-framed structures subjected to

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Torsional Analysis of Steel Members 4

Torsional Analysis of Steel Members

Torsional analysis of steel members is an engineering process used to assess the behavior and strength of structural members subjected to torsional loading. Torsion occurs when a member is subjected to twisting forces, causing it to deform and potentially fail. In the case of steel members, such as beams, columns, or shafts, torsional analysis is

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PROFILE NESTING by Saccuan's Lab 5

PROFILE NESTING by Saccuan’s Lab

Profile nesting refers to the process of optimizing the arrangement of profiles or shapes on a sheet or plate to minimize waste material during cutting or fabrication. Saccuan’s Lab is a software developed by Saccuan, a company specializing in CAD/CAM (Computer-Aided Design/Computer-Aided Manufacturing) solutions. The basic version of Saccuan’s Lab typically offers essential features for

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Moment Connection Design for Beam to Weak Axis Column Based on AISC 360-10 6

Moment Connection Design for Beam to Weak Axis Column Based on AISC 360-10

Designing a moment connection between a beam and a weak axis column based on the AISC 360-10 (American Institute of Steel Construction) involves several steps and considerations. Here’s a general outline of the process: Determine the connection type: Select the appropriate moment connection type based on the project requirements and constraints. Common types include bolted

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Maximum Uniform Load per 13th Edition Manual 7

Maximum Uniform Load per 13th Edition Manual

The maximum uniform load that a structure can support depends on several factors, including the material strength, dimensions, design specifications, and safety factors. Without specific details about the structure or application you are referring to, it is challenging to provide an accurate answer. In engineering practice, maximum uniform load calculations are typically performed by considering

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Beam to HSS with Single Plate Shear Connection 9

Beam to HSS with Single Plate Shear Connection

When connecting a beam to a hollow structural section (HSS) using a single plate shear connection, the goal is to create a strong and efficient connection that can transfer shear forces between the beam and the HSS. Here is an overview of the general process for designing such a connection: Determine the loads and design

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Available Moment vs Unbraced Length per 13th Ed. Manual.xls 10

Available Moment vs Unbraced Length per 13th Ed. Manual.xls

The available moment depends on several factors, including the material properties, cross-sectional shape, and the level of bracing or restraint provided along the member’s length. Here are some key points to understand: Bracing and stability: Bracing or restraint can be provided through various means, such as cross-bracing, diaphragms, or connections to other structural elements. The

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Reinforced concrete column capacity for axial force and bending about Y-axis Eurocode 2, EN 1992-1-1 (2004) 11

Reinforced concrete column capacity for axial force and bending about Y-axis Eurocode 2, EN 1992-1-1 (2004)

To determine the capacity of a reinforced concrete column for axial force and bending about the Y-axis according to Eurocode 2 (EN 1992-1-1), the following steps can be followed: Calculate the design axial force (NEd): This is the combination of axial loads acting on the column, such as dead loads, live loads, and any other

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Hinged Connection With Cleat Angle and V. B. 13

Hinged Connection With Cleat Angle and V. B.

A hinged connection with a cleat angle and V.B. (Vertical Bolt) refers to a type of structural connection used in steel construction, typically between a beam and a column. This type of connection allows for rotational movement at the joint while providing stability and load transfer. Here’s a general description of the connection process: Cleat

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VL Bracing Connection to column web 14

VL Bracing Connection to column web

A VL (Vertical-to-Lateral) bracing connection can also be made to the web of a column to provide lateral stability to the structure. The column web acts as the main structural member, while the VL brace provides resistance against lateral loads such as wind or seismic forces. Here’s a general description of the connection process: Determine

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VL Bracing Connection to HL Beam 15

VL Bracing Connection to HL Beam

A VL (Vertical-to-Lateral) bracing connection can be made to an HL (wide flange) beam to provide lateral stability to the structure. The HL beam acts as the main structural member, while the VL brace provides resistance against lateral loads such as wind or seismic forces. Here’s a general description of the connection process: Preparation: Determine

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VL Bracing Connection (Bearing Type) 16

VL Bracing Connection (Bearing Type)

A VL bracing connection refers to a specific type of connection used in structural engineering for bracing members. It is designed to provide resistance against lateral loads, such as wind or seismic forces, and is commonly used in steel structures. The bearing type VL bracing connection relies on bearing stress transfer between the brace and

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Design of VL.bracing as comp.mem. 17

Design of VL.bracing as comp.mem.

Designing a vertical bracing (VL bracing) as a compression member follows similar principles to horizontal bracing design. Here is a general outline of the design process for VL bracing as a compression member: Determine design parameters: Define the design parameters, such as applied load, bracing height, bracing material properties (yield strength, modulus of elasticity), and

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Design of HZ.bracing as comp.mem. 18

Design of HZ.bracing as comp.mem.

Designing a horizontal bracing (HZ bracing) as a compression member involves considering several factors to ensure its stability and load-carrying capacity. Here is a general outline of the design process: Determine design parameters: Define the required design parameters, such as the applied load, bracing length, bracing material properties (e.g., yield strength, modulus of elasticity), and

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