Formula Used:
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The maximum deflection of a simply supported beam carrying a triangular load with maximum intensity at the center is a critical parameter in structural engineering. It represents the maximum vertical displacement that occurs at the center of the beam under this specific loading condition.
The calculator uses the formula:
Where:
Explanation: This formula calculates the maximum deflection at the center of a simply supported beam subjected to a triangular load distribution with maximum intensity at the center.
Details: Calculating beam deflection is crucial for ensuring structural integrity, serviceability, and compliance with building codes. Excessive deflection can lead to cracking, vibration issues, and discomfort for occupants.
Tips: Enter all values in consistent units (N/m for load, m for length, Pa for modulus, and m⁴ for moment of inertia). All values must be positive numbers.
Q1: What is a triangular load with max intensity at center?
A: This is a load distribution where the intensity varies linearly from zero at the supports to a maximum value at the center of the beam.
Q2: Where does maximum deflection occur in this loading condition?
A: For a simply supported beam with triangular load (max at center), the maximum deflection occurs at the center of the beam.
Q3: What are typical deflection limits for beams?
A: Most building codes limit deflection to L/360 for live loads and L/240 for total loads, where L is the span length.
Q4: How does beam material affect deflection?
A: Materials with higher modulus of elasticity (E) will have less deflection under the same loading conditions.
Q5: Can this formula be used for other beam types?
A: No, this specific formula applies only to simply supported beams with triangular load distribution (max at center).