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Components Bigger Than the Force

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Components Bigger Than the Force

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Problem: The \(u\) and \(v\) axes are \(120^\circ\) apart. A 300 N force lies between them, at \(20^\circ\) from \(u\). Find \(F_u\) and \(F_v\). Is it possible for a component to be larger than the force itself?

H4M Teamyesterday

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F_u

\text{N}

(Tolerance: ±2%)(±2%)

F_v

\text{N}

(Tolerance: ±2%)(±2%)

Scientific notation supported (e.g. 2e4, 2e-4)

Scientific & Engineering Notation

You can enter answers using standard decimals, scientific notation (e.g. 2e4, 2e-4), or powers of 10 (e.g. 2*10^4). Both dot (.) and comma (,) are accepted as decimal separators.

20 000→ 2e4 or 2*10^4

0.0002→ 2e-4 or 2*10^-4

2,5 / 2.5→ '.' or ',' accepted

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Sources & References

Reference materials

Engineering Mechanics: Statics

R. C. Hibbeler

2021•Pearson

Ch. 2, §2.3 Vector Addition of Forces (Finding the Components of a Force)

Vector Mechanics for Engineers: Statics

F. P. Beer, E. R. Johnston Jr., D. F. Mazurek

2019•McGraw-Hill Education

Ch. 2, §2.1 Addition of Planar Forces (Resolution of a Force into Components)

Engineering Mechanics: Statics

J. L. Meriam, L. G. Kraige, J. N. Bolton

2018•John Wiley & Sons

Ch. 2, Art. 2/2 Force (Vector Components), Art. 2/3 Rectangular Components

Engineering Mechanics: Statics

A. Bedford, W. Fowler

2004•Pearson Prentice Hall

Ch. 2, §2.2 Rules for Manipulating Vectors (Vector Components)

Engineering Statics: Open and Interactive

D. W. Baker, W. Haynes

2026

Ch. 2, §2.6 Vector Addition

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