no rounding off Mr. One is pushing a cart with a force of F1 = 15.00 N due north. Mr. Two is pushing the same cart with a force of F2 = 25.00 N due northeast.Mr. Three is pushing the cart a force F3 so that the cart is in equilibrium. Find force F3 so that F1 + F2+ F3 = 0.Fi+ F2 by component method.First, we calculate the vector sumThe x-component of F1 isand the y-component isThe x-component of F2 isand the y-component isAdding the components, we can express the resultant vector in unit vector component form:Fi+ F2=|↑ +Since we want to find F1 + F2+F3 = 0, it follows that F3 = - (F, + F). Thus,F3 =The magnitude of F3 is F3 =N.

Write the force F1 in vector form. Therefore, the x-component of force F1 is 0 N, and the…

Mr. One is pushing a cart with a force of F1 = 15.00 N due north. Mr. Two is pushing the same cart with a force of F2 = 25.00N due northeast. Mr. Three is pushing the cart a force F3 so that the cart is in equilibrium. Find force F3 so that F1 + F2+. +F3 = 0. First, we calculate the vector sum F1 +F2 by component method. The x-component of F1 is and the y-component is The x-component of F2 is and the y-component is Adding the components, we can express the resultant vector in unit vector component form: Fi+Fz= Since we want to find F1 + F2+ F3 = 0, it follows that F3= - (Fj + F2). Thus, %3D The magnitude of F3 is F3 = N.

Mr. One is pushing a cart with a force of F1 = 15.00 N due north. Mr. Two is pushing the same cart with a force of F2 = 25.00N due northeast. Mr. Three is pushing the cart a force F3 so that the cart is in equilibrium. Find force F3 so that F1 + F2+. +F3 = 0. First, we calculate the vector sum F1 +F2 by component method. The x-component of F1 is and the y-component is The x-component of F2 is and the y-component is Adding the components, we can express the resultant vector in unit vector component form: Fi+Fz= Since we want to find F1 + F2+ F3 = 0, it follows that F3= - (Fj + F2). Thus, %3D The magnitude of F3 is F3 = N.

Physics for Scientists and Engineers: Foundations and Connections

1st Edition

ISBN:9781133939146

Author:Katz, Debora M.

Publisher:Katz, Debora M.

Chapter3: Vectors

Section: Chapter Questions

Problem 13PQ: In Chapter 5, you will study a very important vector, force. Each case in Figure P3.13 shows an...

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In Chapter 5, you will study a very important vector, force. Each case in Figure P3.13 shows an example of force vectors exerted on an object. These forces are all of the same magnitude F0. Assume that the forces lie in the plane of the paper. Rank the cases from greatest to smallest according to the magnitude of the total force. Note: The total force is the vector sum of the individual forces exerted on the object.
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