Beam-to-Column Connections
Design support for connections between beams and columns, including shear and moment connection conditions as applicable to the structural system.
Structural steel connection design and engineering support for beams, columns, bracing, base plates and other steel connection conditions — developed with structural behavior, constructability and detailing requirements in mind.
Steel connections transfer forces between structural members and form a critical part of the overall load path. Connection design requires consideration of member forces, connection geometry, materials, fasteners, welds, constructability and applicable project requirements.
Design support for connections between beams and columns, including shear and moment connection conditions as applicable to the structural system.
Connection design support for transferring applicable shear forces between structural members using suitable bolted or welded connection configurations.
Engineering support for moment-resisting connections where rotational stiffness and moment transfer are required by the structural system.
Base plate and column-base connection design support considering applicable axial, shear and moment requirements.
Connection design for structural bracing systems, gusset plates and associated member interfaces.
Design support for field and shop splice conditions used to connect structural steel members.
Engineering support for connection plates, stiffeners, continuity components and related steel connection details.
Design support for applicable welded connection configurations and associated connection components.
Engineering support for bolted connection arrangements, fastener requirements and related connection components.
A connection is not an isolated component. It must work with the connected members, structural system, fabrication process and erection sequence. A coordinated engineering and detailing workflow helps maintain consistency from design information through fabrication documentation.
Connection requirements depend on the structural system, loading, member sizes, materials, applicable design standards and project-specific engineering criteria.
Connections intended to transfer applicable shear forces while accommodating the required structural behavior and construction conditions.
Connections designed for applicable moment and shear demands where rotational resistance is required by the structural frame.
Column-to-foundation connection components including base plates and associated anchorage requirements.
Connections between braces and structural framing, including gusset plates and related components.
Splice connections used to join structural steel members where required by transportation, erection or structural conditions.
Project-specific connection conditions requiring detailed engineering evaluation and coordination.
Connection design involves more than selecting bolts or plates. The complete connection must be evaluated in the context of the structural system and applicable project requirements.
A structured workflow helps connect engineering analysis, connection design, detailing and final documentation.
Review structural drawings, models, specifications, design criteria and available connection information.
Establish applicable connection forces and loading requirements from the approved engineering information.
Develop suitable connection geometry and evaluate applicable design requirements.
Coordinate the connection with members, models and fabrication documentation.
Provide agreed engineering and connection documentation for project use.
Connection engineering becomes valuable when the design information can be communicated clearly to the teams responsible for detailing, fabrication and erection.
Connection documentation may include design information, calculations, connection details, member interfaces, bolt and weld requirements, plate information and supporting technical documentation according to the project scope.
The connection design should remain coordinated with the structural model and downstream steel detailing workflow.
Connection requirements change according to building type, structural system, loading conditions and construction methodology.
Three-dimensional structural models can help project teams visualize connection geometry and coordinate member interfaces before fabrication and erection.
When connection design and structural detailing are coordinated within the same digital workflow, project teams can review member interfaces, connection geometry and fabrication requirements more efficiently.
Structural steel connection design is the engineering process of developing and evaluating the interfaces between steel members so applicable forces can be transferred through the structural system.
Depending on project requirements, connection design may include shear connections, moment connections, beam and column splices, base plates, bracing connections, gusset plates and other specialty connection conditions.
Connection design determines the engineering requirements and configuration of the connection, while connection detailing communicates the designed connection through detailed fabrication and construction documentation.
Yes. Coordinating connection engineering with steel detailing helps maintain consistency between structural design information, connection geometry, 3D models and fabrication documentation.
Typical inputs may include structural drawings, member information, connection forces, specifications, design criteria, project standards and available structural models.
Share your structural drawings, connection requirements and available project information to discuss the appropriate connection design and engineering workflow.