Upload a complete free body diagrams for Cart B as shown in the inclined plane diagram. Include all forces acting on Cart B. All forces must be labeled with two subscripts using the conventions defined in our lectures and in Fliplt Physics. The file you upload for this question must include ONLY a free body diagram for Cart B and NOTHING ELSE. No credit will be given for a large file that requires your instructor to find the answer to this question. Part of the point of this question is to understand what belongs in a free body diagram for Cart B.

Upload a complete free body diagrams for Cart B as shown in the inclined plane diagram. Include all forces acting on Cart B. All forces must be labeled with two subscripts using the conventions defined in our lectures and in Fliplt Physics. The file you upload for this question must include ONLY a free body diagram for Cart B and NOTHING ELSE. No credit will be given for a large file that requires your instructor to find the answer to this question. Part of the point of this question is to understand what belongs in a free body diagram for Cart B.

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter1: Units, Trigonometry. And Vectors

Section: Chapter Questions

Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...

See similar textbooks

Similar questions

1. Your free body diagram for Part 1 should have looked it this. F. max Drag and drop the heads and tails of the vectors to construct the free-body diagram. Note: the applied force is directed to the right. Note: the angles may be within ±15°, and the magnitudes are not considered. = Suppose you have a 120-kg wooden crate resting on a wood floor. Use µg = 0.5 and μ = 0.3 . Assume all quantities are correct to 3 significant figures. a = 1.96 ffric; 180° (b) What is the maximum force you can exert horizontally on the crate without moving it? Enter to 3 significant figures ✔N N: 90° a m/s² mg; 270° F:0° (c) If you continue to exert this force once the crate starts to slip, what will its acceleration then be? Enter to 3 significant figures
8. Rotation A hollow ball with mass mand radius r (I = (2/3)mr about the center or / = (5/3)m about the edge) rolls without slipping down the ramp shown at right.
Your diagram from Knowledge Check: Static Friction, Part 1 should have looked like this: 1. Drag and drop the heads and tails of the vectors to construct the free-body diagram. 2. Note that angles do not need to be exact and magnitudes are not considered. fs; 180° Please answer the following question(s): N; 90° = mg; 270° Fapplied; 0° 1. A block of mass 8.0 kg rests on a table with μ = 0.3. A force F applied pushes the block. (a) Calculate the maximum force of static friction. Enter to 2 significant figures ✔N fs,max¯ (b) If Fapplied 17 N pulls the block, calculate the magnitude of force of friction f. Assume all quantities are correct to 2 significant figures. Enter to 2 significant figures fs = ✔N
The inclined plane diagram below is for use in questions 2, 3, 4, 5, and 6. Inclined plane diagram: Also String 1 String 1 B String 2 A The diagram above shows Carts B and C which roll without friction over an inclined plane. The plane is inclined at an angle of theta : away from vertical, as shown in the diagram. Carts B and C are connected by an essentially massless string. Another massless string runs from Cart B over a massless and frictionless pulley to a hanging block, Block A.
Which way and by what angle does the accelerometer in figure deflect under the following conditions? The cart is moving toward the right with speed increasing at 2.0 m/s2. (Express your answer in degrees. Enter positive value if the accelerometer deflects to the left of vertical and negative if it deflects to the right.) The cart is moving toward the left with speed decreasing at 4.5 m/s2. (Express your answer in degrees. Enter positive value if the accelerometer deflects to the left of vertical and negative if it deflects to the right.) The cart is moving toward the left with a constant speed of 4.0 m/s. (Express your answer in degrees. Enter positive value if the accelerometer deflects to the left of vertical and negative if it deflects to the right.)
Complete the below free body diagram in your work and solve for the magnitude and angle of the net force. Assume the following: the block has a mass of 15 kg, the spring is stretched 0.5 m and has a spring constant of 150 N/m, there is a cord attached to the block with a tension of T = 200 N connected at an angle of 8 = 40°.
For every problem, show FBDS and write down Newton's 2nd law in component form. Remember to be precise in your work: clearly describe what your system of interėst is, pay attention to vector/component notation, and follow a clear strategy in your work-the layout of your page should reflect a linear progression of steps and thoughts (please do not jolt down things all over the place!!); show all details of the calculations that are needed to answer the questions: no guesses of course! A block with mass M is pushed against a vertical wall with a force of magnitude P and directed at an angle 0 below the horizontal. The wall and the block experience friction (coefficient of static friction is Hs). Is it possible to keep the block from sliding downward? And if so, how exactly? Use Newton's 2nd law to support your answer. M
Please draw an FBD for the following statements 1. A textbook sits at rest atop a table. What would it's free body diagram look like? 2. A massless spring scale holds a hanging mass in place like shown. What would a fbd of the spring scale look like? (Images is below. It's the first one) 3. a stack of textbooks sit at rest atop table. What would the fbd of the book on the the bottom book like? 4. A snowboarder with a frictionless snowboard is travelling down a hole. What would their fbd look like? ( image is below. It will be the second one)
Problem solving: Show your complete solution for each problem. A light rope is attached to a block with a mass of 6kg that rests on a horizontal, frictionless surface. The horizontal rope passes over a frictionless, massless pulley, and a block of mass m is suspended from the other end. When the blocks are released, the tension in the rope is 18N. (a) draw a free-body diagram for each block. (b) what is the acceleration of the 6-kg block? (c) what is the mass m of the hanging block? (d) using the value of the hanging mass calculated in part c, what would be the acceleration and the tension in the rope if the coefficient of kinetic friction between the 6-kg mass and the horizontal is 0.10? A work of 12 J is needed to stretch a certain spring by 30 cm a) What is the force constant of the spring? b) How much work must be done to stretch the spring 4.00 cm? c) When released from rest from 4.00 cm position what would be the speed at the unstretched position? A 2kg block is pulled up a ramp…
To be clear: You must write the words "Newton's Second Law" and point to an example of it within your solution! Write out the second law using symbols, not numbers. Writing "net force = m a" does not qualify because that could be written for any object. The symbols and subscripts should clearly refer to specific forces in each diagram. Examples, good and bad, of what might qualify are shown below. The following are three examples of Newton's second law written for an object called "E" (which is not in this question). Credit would be given for the first example but not for the second or third. This is a good example: mE g−TEJ sin⁡θ1+NER cos⁡θ2=mE a This is a bad example that is not specific enough: Σ FE=mE a This is a bad example with unspecified numbers and without symbols: (1.7 kg) g−(3.8 N) sin⁡(59∘)+(4.9 N)cos⁡(34∘)=(1.7 kg) a Once you have begun your solution with symbols in Newton's Second Law, you may begin to substitute numbers as needed.
You are riding on a roller coaster, and for some reason you are sitting on a scale. The roller coaster is moving at all times during the ride, though its velocity varies. The roller coaster track is shown in the figure below. When you are midway between points A and B on the roller coaster, the roller coaster is speeding up. The scale reading is: RollerCoaster.PNG O Smaller than your actual weight O Equal to your actual weight O Larger than your actual weight O There is not enough information to tell
Use following scenario to answer parts a–f. (You may wish to use the graph on page 180of your textbook to help you.)You attach a force scale to a toboggan resting in the snow. a) What is the minimum value of static frictional force and under what conditionswould you observe that value on your force scale? b) What two (equal in magnitude and opposite in direction) forces is the scalemeasuring when you start to pull on the toboggan but it remains stationary? Bespecific. c) What happens to the number on the force scale as you start to pull on thetoboggan but it remains stationary? Explain. d) What happens to the toboggan if your applied force exceeds the maximum staticfrictional force? e) What happens to the number on the force scale in the moment the tobogganstarts to move? Explain. f) What two (equal in magnitude and opposite in direction) forces is the scalemeasuring when you pull on the toboggan and it moves at a constant speed. Bespecific.