Design Reinforcement Beam | ProtaStructure

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5.17 Determine the tension developed in wires AB and AC | Statics

5.16 Determine the components of reaction that the ball-and-socket joint at A

5.15 Determine the components of reaction at these supports | Statics

5.14 Determine reaction forces at supports | Statics

5.13 Determine the force of the pin on the lever at A | Statics

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5.12 Determine the support reactions on the member | Statics

5.11 Determine the tension in the cables | Statics

5.10 Determine the reactions at these supports | Statics

5.9 Determine the horizontal and vertical components of reaction | Statics

5.8 Determine the torque or moment applied to the bolt | Statics

5.7 Determine the horizontal and vertical components of reaction | Statics

5.6 Determine the tension in the cord at C | Statics

5.5 Determine the horizontal and vertical components of reaction on the beam

5.4 Draw the free-body diagram of the unloaded platform | Statics

5.3 Draw the free-body diagrams for each pipe | Statics

5.2 Draw the free-body diagram of the foot lever | Statics

5.1 Draw the free-body diagram of the uniform beam | Statics

4.23 The granular material exerts the distributed loading on the beam | Statics

4.22 Determine the magnitude and location of the equivalent resultant force | Statics

4.21 Determine the magnitude and location of the equivalent resultant force | Statics

4.20 Replace the force system | Statics

4.19 Determine the magnitude and direction of a resultant force | Statics

4.18 Replace this loading by an equivalent resultant force | Statics

4.17 Find where its line of action intersects the beam | Statics

4.16 Replace resultant force and couple moment acting at its base | Statics

4.15 Replace the force and couple system acting on the member | Statics

4.14 Replace the force and couple system | Statics

4.13 Replace the two couples acting on the pipe | Statics

4.12 Determine the couple moment acting on the pipe | Statics

4.11 Determine the magnitude and direction of the couple moment | Statics

4.10 Determine the resultant couple moment of the three couples acting on the plate | Statics

4.9 Determine the magnitude of the moment of force F about segment OA | Statics

4.8 Determine the moment MAB produced by the force F | Statics

4.7 Determine the resultant moment of the three forces | Statics

4.6 Determine the resultant moment they create about the flange at O | Statics

4.5 Determine the moment produced by the force F | Statics

4.4 Determine the moment of the force about point O | Statics

4.3 Determine the moment of the force about point O | Statics

4.2 Determine the moment of the force about point O | Statics

4.1 Determine the moment of the force about point O | Statics

3.8 Determine the tension in each cord | Statics

3.7 Determine the force in each cable | Statics

3.6 Determine the smallest vertical distance s from the ceiling | Statics

3.5 Determine the force in the cables and the stretch of the spring for equilibrium | Statics

3.4 Determine the required length of cord AC | Statics

3.3 Determine the smallest angle u to which the 200-kg crate can be suspended | Statics

3.2 Determine the tension in cables BA and BC necessary to support the 60-kg cylinder | Statics

3.1 Draw a free-body diagram of the sphere | Statics

2.15 Determine the angle u between F and the pipe segment BA | Statics

2.14 Determine the magnitudes of the components of this force | Statics

2.13 Determine the magnitudes of the projections of the force F | Statics

2.12 The force acts on the hook. Express it as a Cartesian vector | Statics

2.11 Express the result as a Cartesian vector | Statics

2.10 Represent this force acting on the support A as a Cartesian vector and determine its direction

2.9 Specify the magnitude of F2 and its coordinate direction angles | Statics

2.8 Express the force F shown in Figure as a Cartesian vector | Statics