Please help in details Draw a force diagram for each mass. Are the masses accelerating? Compare...
1. Draw the forces acting on mı and m2 in the diagram below. m2 > m1 Determine the acceleration of the system. Show your work. 2. An accelerating force of 500 N changes an object from 40 m/s to 60 m/s in a distance of 100 m. The mass is 25 kg. Determine the force of friction acting opposite of this force. Draw your free body diagram.
More details and instructions in picture below
1) draw the forces acting on each mass *pulleys are "ideal".
(use appropriate coordinate systems)
2) sum the forces in x,y and find acceleration
Free Body Diagram. Three masses mi, m2, and m3 are attached by a light rope that does not stretch. The rope goes over two massless and frictionless pulleys. Draw the complete free body diagram on each of the three masses. The coefficient of kinetic friction between mi and the...
Activity: Two masses Here is a mass A and mass B, connected by a thin string with a frictionless pulley There is no friction between mass A and the table. MA Frictionless table Here ma 5.0 kg, me 3.0 kg mg You release the masses. Mass A begins accelerating to the right; mass B begins (a) Draw a force diagram for both mass A and mass B, so two force diagrams. (b) What is the acceleration of the system? (Hint:...
6) Draw free-body diagrams of both hanging masses? masses. What force is acting on both Force sensor Hanging massi 7) Use Newton's Second Law to calculate the theoretical acceleration a of both masses Show your work. Calculated or theoretical acceleration ar 8) Measure the acceleration a of the cart by using the velocity-time (measured or experimental acceleration), The slope of this graph is the experimental or measured acceleration a. Measured or experimental acceleration 9) Calculate the % difference. a.-a, x100...
Awood's Machine EXTENSIONS 1. Draw a free body diagram of and another free body diagram of Using these diagrams, apply Newton's second law to each mass. Assume that the tension is the same on each mass and that they have the same acceleration. From these two gustionsfind an expression for the acceleration of min terms of m m and Compare the expression to your result in Step 5 of Analysis (Attach sheet) For each of the experimental runs you made,...
Problem 2: (35 points) Three masses of masses m, = 2kg , m, = 4kg , and m, = 5kg are connected as shown in the figure. The incline has a rough surface, with a coefficient of kinetic friction 4 = 0.1, and an angle of inclination = 30. a) Draw the Free-Body Force diagram for each mass. mz 30° b) Calculate the frictional force acting on the mass m, my c) Find the acceleration a of the system. mi...
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puagag Y saoN (11) SECTION C: FUNDAMENTAL PROBLEMS (Note: Show details of work to get full credit in each problem.) 5. A 20 Kg block slides down a smooth inclined plane. The plane is 10 m long ad is inclined at an angle of 30° with the horizontal.. The coefficient of kinetic friction- 0.3 (a) Draw the free body diagram. (3) 30 (3) (b) Find the Normal force and the Force of friction.
Chapter7 Magnetic Force Equipmentt Your equipment will include 5 tiny masses. For each mass that is lost, your group will lose 20% of the credit for this week's report. Learning Objectives In this week's activity, you will investigate the behavior of a permanent magnet in the presence of an ex- ternal magnetic field, created by a current, model and measure how the magnetic force changes as a function of dis- tance from a single coil, . determine the dipole moment...
in). Consider the following diagram. There are two masses (i.e., mass mand mass M hanging in a system of strings: string A with tension Ta, string B with tension To, an string with tension Tc (Note: Acceleration due to gravity (9) - 10 m/s) M=10 kg m=20 kg a) Draw free-body diagram of mass m. (4 points) b) Considering the equilibrium state of mass m vertically (t.e. SF =0), find the tension Ta of string A. (4 points) c) Draw...
Please show your work in details, comment on each step, write
formulas, draw curves and graphs, and plug in values properly.
2. Determine the normal force, shear force and bending moment acting just to the left, point B, and just to the right, point C, of the 6 kN force on the beam. 16 kN 9 kN.m C B 6 m 3 m