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The ultimate load is the absolute maximum magnitude of load that a component or system can sustain, limited only by failure. It is the limit Load multiplied by a prescribed Safety Factor of 1.5. Check FAQs
Pu=(26500-0.425L|r2)A
Pu - Ultimate Load?L|r - Critical Slenderness Ratio?A - Section Area of Column?

Ultimate Load for Bridges using Structural Carbon Steel Example

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With units
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Here is how the Ultimate Load for Bridges using Structural Carbon Steel equation looks like with Values.

Here is how the Ultimate Load for Bridges using Structural Carbon Steel equation looks like with Units.

Here is how the Ultimate Load for Bridges using Structural Carbon Steel equation looks like.

949.5271Edit=(26500-0.425140Edit2)81Edit
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Ultimate Load for Bridges using Structural Carbon Steel Solution

Follow our step by step solution on how to calculate Ultimate Load for Bridges using Structural Carbon Steel?

FIRST Step Consider the formula
Pu=(26500-0.425L|r2)A
Next Step Substitute values of Variables
Pu=(26500-0.4251402)81in²
Next Step Convert Units
Pu=(26500-0.4251402)0.0523
Next Step Prepare to Evaluate
Pu=(26500-0.4251402)0.0523
Next Step Evaluate
Pu=430.698262740468kg
Next Step Convert to Output's Unit
Pu=949.527133207597lbs
LAST Step Rounding Answer
Pu=949.5271lbs

Ultimate Load for Bridges using Structural Carbon Steel Formula Elements

Variables
Ultimate Load
The ultimate load is the absolute maximum magnitude of load that a component or system can sustain, limited only by failure. It is the limit Load multiplied by a prescribed Safety Factor of 1.5.
Symbol: Pu
Measurement: WeightUnit: lbs
Note: Value can be positive or negative.
Critical Slenderness Ratio
The critical slenderness ratio is the ratio of the column length in meters, millimeters, and inches to the least radius of gyration in meters, millimeters and inches. The value ranges from 120-160.
Symbol: L|r
Measurement: NAUnit: Unitless
Note: Value can be positive or negative.
Section Area of Column
The section area of column is the area of a two-dimensional shape that is obtained when a three-dimensional shape is sliced perpendicular to some specified axis at a point.
Symbol: A
Measurement: AreaUnit: in²
Note: Value can be positive or negative.

Other Formulas to find Ultimate Load

​Go Ultimate Unit Load for Bridges using Structural Carbon Steel
Pu=(Sy1+0.25sec(0.375lPcsεA))A
​Go Ultimate Load for Bridges using Structural Carbon Steel when Columns are Pinned
Pu=(25600-0.566L|r2)A

Other formulas in Additional Bridge Column Formulas category

​Go Allowable Unit Load for Bridges using Structural Carbon Steel
Q=Syfs1+(0.25sec(0.375L|r)fsPεA)A
​Go Allowable Load for Bridges using Structural Carbon Steel
Q=(15000-(14)L|r2)A
​Go Allowable Load for Bridges using Structural Carbon Steel when Column Ends are Pinned
Q=(15000-(13)L|r2)A

How to Evaluate Ultimate Load for Bridges using Structural Carbon Steel?

Ultimate Load for Bridges using Structural Carbon Steel evaluator uses Ultimate Load = (26500-0.425*Critical Slenderness Ratio^2)*Section Area of Column to evaluate the Ultimate Load, The Ultimate Load for Bridges using Structural Carbon Steel formula is defined as the maximum magnitude of load a component or system can sustain, limited only by failure when the critical slenderness ratio has a value of 160. Ultimate Load is denoted by Pu symbol.

How to evaluate Ultimate Load for Bridges using Structural Carbon Steel using this online evaluator? To use this online evaluator for Ultimate Load for Bridges using Structural Carbon Steel, enter Critical Slenderness Ratio (L|r) & Section Area of Column (A) and hit the calculate button.

FAQs on Ultimate Load for Bridges using Structural Carbon Steel

What is the formula to find Ultimate Load for Bridges using Structural Carbon Steel?
The formula of Ultimate Load for Bridges using Structural Carbon Steel is expressed as Ultimate Load = (26500-0.425*Critical Slenderness Ratio^2)*Section Area of Column. Here is an example- 2093.349 = (26500-0.425*140^2)*0.0522579600004181.
How to calculate Ultimate Load for Bridges using Structural Carbon Steel?
With Critical Slenderness Ratio (L|r) & Section Area of Column (A) we can find Ultimate Load for Bridges using Structural Carbon Steel using the formula - Ultimate Load = (26500-0.425*Critical Slenderness Ratio^2)*Section Area of Column.
What are the other ways to Calculate Ultimate Load?
Here are the different ways to Calculate Ultimate Load-
  • Ultimate Load=(Yield Point of Material/(1+0.25*sec(0.375*Column Length*sqrt(Ultimate Crushing Load for Columns/(Modulus of Elasticity of Material*Section Area of Column)))))*Section Area of ColumnOpenImg
  • Ultimate Load=(25600-0.566*Critical Slenderness Ratio^2)*Section Area of ColumnOpenImg
Can the Ultimate Load for Bridges using Structural Carbon Steel be negative?
Yes, the Ultimate Load for Bridges using Structural Carbon Steel, measured in Weight can be negative.
Which unit is used to measure Ultimate Load for Bridges using Structural Carbon Steel?
Ultimate Load for Bridges using Structural Carbon Steel is usually measured using the Pound[lbs] for Weight. Kilogram[lbs], Gram[lbs], Milligram[lbs] are the few other units in which Ultimate Load for Bridges using Structural Carbon Steel can be measured.
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