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To receive marks for this question, you must submit a hard copy of your FBD at the end of your test.
Consider the frame shown in Figure P16.
The frame consists of multiple beams welded together. The frame is supported at four locations shown in the figure:
Draw the complete free-body diagram (FBD) of the beam using the following parameters:
Instructions
Use the following sign convention:
Figure P16. Beam system for free-body diagram construction (not to scale).
Consider the shown in . All joints are pin-connected. The supports at
Determine the number of
Select the correct number.
Figure P14. Pin-connected truss bridge.
Consider the shown in . All joints are pin-connected. The left and right supports are pin supports.
Determine the of the truss.
Select the correct statement.
Figure P13. Pin-connected truss bridge.
Determine the mass of A required to keep the system in equilibrium if block B has a mass of 30 kg? Consider the gravitational acceleration to be
g=9.8 m/s2. Provide your answer in kg to 4 decimal places.
Determine the mechanical advantage of the following pulley system. The mechanical advantage here is defined as the weight of A divided by the force at B.
Determine the mass of the block required to keep the system in equilibrium if F is
500 N. Consider the gravitational acceleration to be
g=9.8 m/s2. Provide your answer in kg to 4 decimal places.
Consider the following structure and determine the resultant force (in N) acting at point O to 4 decimal places.
Two forces are applied to the construction bracket as shown. Determine the angle θ (in degrees) to 4 decimal places which makes the resultant of the two forces completely vertical.
Which of the following statements is false for the figure below?
Which of the following equations represents the resultant vector of two forces F_1 and
F_2 acting at an angle
\theta apart starting from the same origin? i.e. calculate F1 + F2. Refer to the image below for an illustration. Remember that when adding vectors, the tail of one vector needs to connect to the head of another.