help with parts A, B, C please A particle moving along the x-axis has its position= (3t³ + 2t+1) m,described by the functionwhere t is in s.You may want to review (Pages 55 - 56).For help with math skills, you may want to review:Differentiation of Polynomial FunctionsAt t = 4 s, what is the particle's position?Express your answer to three significant figures and include the appropriate units.► View Available Hint(s)X =SubmitPart BV₂ =SubmitPart CValueAt t = 4 s, what is the particle's velocity?Express your answer to three significant figures and include the appropriate units.► View Available Hint(s)ΠΑax =SubmitOīValueUnitsValueUnitsAt t = 4 s, what is the particle's acceleration?Express your answer to three significant figures and include the appropriate units.► View Available Hint(s)?Units??Review | Constants

Name: help with parts A, B, C please A particle moving along the x-axis has
Uploaded: 2024-03-20T06:57:47.000Z
Channel: Bartleby
Description: help with parts A, B, C please A particle moving along the x-axis has its position= (3t³ + 2t+1) m,described by the functionwhere t is in s.You may want to review (Pages 55 - 56).For help with math skills, you may want to review:Differentiation of Po

A particle's position is given as a function of time x=3t3+2t+1 m; Here time t is in seconds. Find:…

Answered: A particle moving along the x-axis has…

Science

Physics

A particle moving along the x-axis has its position described by the function x = (3t³ + 2t + 1) m, where t is in s.

Physics for Scientists and Engineers, Technology Update (No access codes included)

9th Edition

ISBN:9781305116399

Author:Raymond A. Serway, John W. Jewett

Publisher:Raymond A. Serway, John W. Jewett

Chapter3: Vectors

Section: Chapter Questions

Problem 3.62AP: After a ball rolls off the edge of a horizontal table at time t = 0, its velocity as a function of...

See similar textbooks

Similar questions

A man drops a rock into a well. (a) The man hears the sound of the splash 2.40 s after he releases the rock from rest. The speed of sound in air (at the ambient temperature) is 336 m/s. How far below the top of the well is the surface of the water? (b) What If? If the travel time for the sound is ignored, what percentage error is introduced when the depth of the well is calculated?
Given the acceleration as a function of the angle theta, a =6.5sinθ + 2.3cosθ. Find the optimal angle, so the acceleration is maximum Find the value of the maximum acceleration I have found the derivative of the function but am confusing myself on the next steps.
What is the initial instantaneous rate of change of Y (at t = 0 s) closest to? 0.05 M s–1 0.10 M s–1 0.010 M s–1 What is the instantaneous rate of change of X at t = 10 s closest to? –0.20 M s–1 –0.01 M s–1 0.4 M s–1
A wooden roller coaster contains a run in the shape of a sinusoidal curve, with a series of hills. The crest of each hill is 106 feet above the ground. If it takes a car 1.9 seconds to go from the top of a hill to the bottom (6 feet off the ground), find a sinusoidal function of the form y=Asin(ωt−ϕ)+B that models the motion of the coaster train during this run starting at the top of a hill.
I have written down a y(x,t) for the given values, but I think that I am not supposed to solve for the problem and then sketch. Am I supposed to solve the y(x,t) for the problem? Before I sketch? The problem is #7.1
What are the smallest positive values of the unknown phase constants angel 1 and angle 2 (in radians) such that the maximum displacement occurs at the origin (x=0) at time t=2.67 s?
a particle moves along xy-plane with a position of x(t)=sin(2t)+3 cos (4t) y(t)=1/2 sin(t) - 6cos(3t)
a) what is the length of the unknown side, b) the tangent of θ, and c) the sine of φ?
The graph shown below represents two particles’ motions along x direction. a) What is the overall displacement Δx of each particle over the 50.0 s time interval? b) What is the average velocity vav of each particle over the 50.0 s time interval? c) When & where do they meet? Which particle moves faster when they meet? Explain.
Can you show me the derivation of the equation for the range from the kinematic equations and thr trig? R = v2 sin 2 ( theta)/ g
2. A specific particle is moving in a 2D plane along the x and y axis, and it has a velocity of (3i +6j) m/s at time t = 4 seconds, and at t = 4.1 seconds, its velocity has become (3.5i + 6.2j) m/s. Solve for the magnitude and of its average acceleration during the 0.1 second interval and the angle theta it makes with respect to the x-axis.
The motion of a particle is given by x = A sin3(ωt). a. Enter an expression for the amplitude of the particle's motion. b. Enter an expression for the particle's velocity, v. c. Enter an expression for the particle's acceleration, a.