If a given function models an object's position, then: • the derivative of that function models its rate of change (aka. its velocity) • the derivative of that function's derivative models the rate of change of the rate of change (aka. its acceleration) Object 2 Looking at the graphs of Object 1 and Object 2, both have position graphs that are increasing, so both have positive velocities. However, one has positive acceleration and the other has negative acceleration. Complete the sentences below. Object 1 The object with positive acceleration is. I know this because. The object with negative acceleration is. I know this because. Time Submit Position

If a given function models an object's position, then: • the derivative of that function models its rate of change (aka. its velocity) • the derivative of that function's derivative models the rate of change of the rate of change (aka. its acceleration) Object 2 Looking at the graphs of Object 1 and Object 2, both have position graphs that are increasing, so both have positive velocities. However, one has positive acceleration and the other has negative acceleration. Complete the sentences below. Object 1 The object with positive acceleration is. I know this because. The object with negative acceleration is. I know this because. Time Submit Position

Name: Answer the question in full details Next up: position, velocity, accel
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Description: Answer the question in full details Next up: position, velocity, accelerationIf a given function models an object's position, then:• the derivative of that function models its rate of change(aka. its velocity)• the derivative of that function's deriv

Physics for Scientists and Engineers: Foundations and Connections

1st Edition

ISBN:9781133939146

Author:Katz, Debora M.

Publisher:Katz, Debora M.

Chapter2: One Dimensional Motion

Section2.8: Average And Instantaneous Acceleration

Problem 2.7CE: Kinematics graphs are great for showing how a quantity depends on time. For example, an...

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Can someone give me feed back on the answers to this question. Is the scaling and representation accurate? Also, can some explain to me how the position-time graph can have a position starting at 2m.
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I need help with a University Physics 1 (Positions, Displacment, and Average velocity) - The problem is described in the image below:
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Finding Velocity and Displacement from Acceleration When given the acceleration function, what additional information is needed to find the velocity function and position function?
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