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theExpertTA.com | Student: tuo85252@temple.edu My Account Log Out Class Management | Help PSW Unit 10 Begin Date: 3/29/2024 5:00:00 PM -- Due Date: 4/7/2024 11:59:00

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theExpertTA.com | Student: tuo85252@temple.edu My Account Log Out Class Management | Help PSW Unit 10 Begin Date: 3/29/2024 5:00:00 PM -- Due Date: 4/7/2024 11:59:00 PM End Date: 5/3/2024 2:59:00 PM (20%) Problem 1: One end of a spring with a spring constant of 124 N/m is held firmly in place, and the other end is attached to a block with a mass of 1.88 kg. The block undergoes SHO (simple harmonic motion) with no friction. At time = 0.6499 s, the position and velocity of the block are x(0.6499 s) = 0.1156 m v(0.6499 5) = 1.955 m/s XPERT =L - Assignment Status Click here for detailed view Problem Status 1 Partial 2 3 (-] $ 50% Part (a) What was the position, in meters, at f = 0.00 s? x(0.00 s) =-0.137 4 x(0.005)=0.1370 m X Attempts Remain 5 A& 50% Part (b) What was the velocity, in meters per second, at z = 0.00 s? Grade Summary v(0.00 s) = || m/s Deductions 0% Potential 100% HOME Submissions - Attempts remaining: 6 (0% per attempt) detailed view tanh() cotanh() END @ Degrees O Radians BACKSPACE | pe. | CLEAR Submit Hint || - [ Teivew! | Hints: 0% deduction per hint. Hints remaining: 1 Feedback: 0% deduction per feedback. 'Al content 2024 Expert TA, LLC XPERT 31 Assignment Status Click here for detailed view Problem Status A Partial Completed Partial theExpertTA.com | Student: tuo85252@temple.edu My Account Class Management | Help PSW Unit 10 Begin Date: 3/29/2024 5:00:00 PM -- Due Date: 4/7/2024 11:59:00 PM End Date: 5/3/2024 2:59:00 PM (20%) Problem 3: A 2.57 kg mass is suspended by a spring with a spring constant of 0.634 N/m, and the other end of the spring is affixed to the underside of a wooden shelf which, in turn, is firmly attached to the wall. The mass is given a small vertical displacement, and the system is allowed to oscillate. Electronic data collection apparatus is used to measure the position of the mass, and a graph of position versus time is created. The graph indicates that the system is lightly damped. $RIncorrect Answer The provided answer is not correct and no specific feedback is available. Please view available hints and review the relevant material. Close and stay on this question $ Students count the number of oscillations that occur until the amplitude has decreased to 66.5% of its initial value. From this, it is determined that the damping coefficient is b = 2.58 x 10~ kg/s. How many oscillations did the students count? Grade Summary N=|l Deductions 0% Potential 100% Submissions Attempts remaining: 5 (0% per attempt) detailed view 1 0% tanh() cotanh() @Degrees O Radians Submit Hint Feedback | 1 give up! \\ Hints: 0% deduction per hint. Hints remaining: 2 Feedback: 0% deduction per feedback. All content 2024 Expert TA, LLC Log Out & = R S =\\ - Assignment Status Click here for detailed view Problem Status 1 Partial 2 Completed 3 Partial 4 Partial 5 Partial Class Management | Help PSW Unit 10 Begin Date: 3/29/2024 5:00:00 PM -- Due Date: 4/7/2024 11:59:00 PM End Date: 5/3/2024 2:59:00 PM (20%) Problem 5: Two waves, identical except for their phase constants, travel in the same string. y1(6,1) = (3.68 cm) sin [(80.6 m)x (72257 )t + 1.49] y2(x,1) = (3.68 cm) sin [(80.6 m)x (722 57 )1 +.271] The waves interfere, and the observed wave is of the form y(x,1) = Asin (kx ot + ) $&8Incorrect Answer sters, of the observed wave? A= The provided answer is not correct and no specific feedback is available. = Please view available hints and review the relevant material. the observed wave? ; = } Close and stay on this question = & 25% Part (c) What is the phase constant, in radians, of the observed wave? $ 25% Part (d) What is the amplitude, in centimeters, of the observed wave? A =736 cm sin() cos() tan() cotan() acos() atan() sinh() cosh() tanh() cotanh() @Degrees O Radians Submit Hint Feedback | Hints: 0% deduction per hint. Hints remaining: 1 Feedback: 0% deduction per feedback. Grade Summary Deductions 0% Potential 100% Submissions Attempts remaining: 4 (0% per attempt) detailed view 1 2 0% 0% XPERT =L Assignment Status Click here for detailed view Problem Status il Partial 2 Completed 3 Partial 4 Partial 5 Partial A Class Management | Help PSW Unit 10 Begin Date: 3/29/2024 5:00:00 PM -- Due Date: 4/7/2024 11:59:00 PM End Date: 5/3/2024 2:59:00 PM (20%) Problem 4: The transverse displacements for a traveling wave are given by y(x, 1) = (4.31 cm)sin[(24.5 m" ) x (73.157') + 5.83] $ What is the transverse speed, in meters per second, of a point on the wave at the instant that its transverse displacement is 3.237 cm? v=|3l Hin Aniitaanecige am : 3 fora 0% deduction. Hints remaining: 1 AR RN R R @Degrees O Radians Submit Hint ack ' I give up! ' Feedback: (7% deduction per feedback. -At any instant in time, , there are infinitely many values of x that have the same transverse displacement. At any position, x, along the wave, there are infinitely many time values, , that have the same transverse displacement. We don't actually need to solve for values of x and to complete this question. -Half of these solutions have a transverse velocity directed towards the maximum amplitude, and half are directed towards the equilibrium position of zero AR A A R AV A ST A AT TR R R Grade Summary Deductions 0% Potential 100% Submissions Attempts remaining: 5 (0% per attempt) detailed view 1 0%

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