Beam Analysis
The Beam Analysis tool allows you to analyze the structural behavior of beams under various loading conditions and support configurations. Enter the beam parameters, select the support type and load type, and get instant results including shear force diagrams, bending moment diagrams, and deflection calculations.
Input Parameters
Results
Reaction at A
25.0000 kN
Reaction at B
25.0000 kN
V (Shear Force)
25.0000 kN
M (Bending Moment)
31.2500 kN·m
δ (Deflection)
3.9698 mm
Diagrams
Shear Force Diagram
V (Shear Force)
Unit: kN
Bending Moment Diagram
M (Bending Moment)
Unit: kN·m
Deflection Diagram
δ (Deflection)
Unit: mm
Formulas & Reference
Both Hinged - Uniform Load
Reaction at A/Reaction at B: R = wL/2
Max Shear Force: Vₘₐₓ = wL/2
Max Bending Moment: Mₘₐₓ = wL²/8
Max Deflection: δₘₐₓ = 5wL⁴/(384EI)
Both Hinged - Point Load
Reaction at A: Rₐ = Pb/L
Reaction at B: Rᵦ = Pa/L
Max Bending Moment: Mₘₐₓ = Pab/L
Max Deflection: δₘₐₓ = Pab(L+a)(L+b)/(6EIL)
Both Fixed - Uniform Load
Reaction at A/Reaction at B: R = wL/2
Fixed Moment: M = wL²/12
Max Bending Moment: Mₘₐₓ = wL²/24
Max Deflection: δₘₐₓ = wL⁴/(384EI)
Beam Analysis Tool - Civil Engineering Structural Analysis
Our Beam Analysis Tool is a comprehensive structural analysis solution for civil engineers, architects, and engineering students. This powerful tool allows you to analyze various beam configurations with different support conditions and loading scenarios, providing detailed results including shear force diagrams, bending moment diagrams, deflection diagrams, and key internal force values.
**Why Use Our Beam Analysis Tool?**
Beam analysis is a fundamental part of structural engineering. Understanding the behavior of beams under different loads and support conditions is essential for designing safe and efficient structures. Our tool provides accurate, reliable results that you can use for your engineering projects.
**Key Features:**
1. **Multiple Support Conditions**: Analyze beams with both hinged supports, both fixed supports, or a combination of hinged and fixed supports.
2. **Flexible Loading Options**: Apply uniform loads across the entire span, point loads at any location, or partial distributed loads.
3. **Comprehensive Results**: Get complete analysis including support reactions, shear force diagrams, bending moment diagrams, deflection diagrams, and maximum values.
4. **Real-time Analysis**: See results instantly as you change parameters, making it easy to experiment with different scenarios.
5. **Export and Print**: Export your results for documentation or print them directly for your records.
**Understanding Beam Analysis:**
- **Support Reactions**: The forces exerted by supports to maintain equilibrium. These are calculated using static equilibrium equations (ΣF = 0, ΣM = 0).
- **Shear Force (V)**: The internal force that tends to shear the beam cross-section. It is the algebraic sum of all vertical forces to the left (or right) of the section.
- **Bending Moment (M)**: The internal moment that causes bending of the beam. It is the algebraic sum of all moments to the left (or right) of the section.
- **Deflection (δ)**: The vertical displacement of the beam under load. It depends on the material properties (E), cross-section properties (I), span length, and loading.
**Engineering Applications:**
Our Beam Analysis Tool is used by engineers worldwide for:
- Design of floor beams in buildings - Bridge beam analysis - Roof structure design - Cantilever beam analysis - Continuous beam design - Steel and concrete beam design
**Formulas Used:**
For a simply supported beam (both hinged) with span L and uniform load w: - Support reactions: Rₐ = Rᵦ = wL/2 - Maximum shear force: Vₘₐₓ = wL/2 - Maximum bending moment: Mₘₐₓ = wL²/8 - Maximum deflection at center: δₘₐₓ = 5wL⁴/(384EI)
For a simply supported beam with central point load P: - Support reactions: Rₐ = Rᵦ = P/2 - Maximum shear force: Vₘₐₓ = P/2 - Maximum bending moment: Mₘₐₓ = PL/4 - Maximum deflection at center: δₘₐₓ = PL³/(48EI)
**Built by Engineers, for Engineers:**
At UseCivilTools.com, we understand the importance of accurate, reliable calculations in civil engineering. Our team of experienced engineers has designed this tool to meet the highest standards of precision and usability. Whether you're working on a small residential project or a large-scale infrastructure development, our Beam Analysis Tool will help you make informed design decisions.
Start analyzing beams today and experience the power of professional-grade engineering tools at your fingertips.
1. Select the support type from the available options (Both Hinged, Both Fixed, or Hinged-Fixed). 2. Select the load type (Uniform Load or Point Load). 3. Enter the beam parameters including span length, load value, and load position (for point loads). 4. Optionally enter the elastic modulus and moment of inertia for deflection calculations. 5. View the results including support reactions, shear force diagram, bending moment diagram, and deflection diagram. 6. Use the copy button to export results or the print button to print the analysis.
1. Select the support type from the available options (Both Hinged, Both Fixed, or Hinged-Fixed).
2. Select the load type (Uniform Load or Point Load).
3. Enter the beam parameters including span length, load value, and load position (for point loads).
4. Optionally enter the elastic modulus and moment of inertia for deflection calculations.
5. View the results including support reactions, shear force diagram, bending moment diagram, and deflection diagram.
6. Use the copy button to export results or the print button to print the analysis.
Note: This tool assumes linear elastic behavior and small deflections. Results should be verified by a qualified engineering professional before use in actual design. The calculations follow standard structural analysis principles and are based on Euler-Bernoulli beam theory.