You can determine the acceleration from the slope of a velocity-time graph that the computer software will generate. Record all digits of the acceleration and round off at the end. Record your acceleration data in a tabular form as shown in the table below.
You can determine the acceleration from the slope of a velocity-time graph that the computer software will generate. Record all digits of the acceleration and round off at the end. Record your acceleration data in a tabular form as shown in the table below.
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)...
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Question
Make a graph from this given table
![ure
ace
and
56
Case 1: M constant and m varies
You can determine the acceleration from the slope of a velocity-time graph that the computer
software will generate. Record all digits of the acceleration and round off at the end.
Record your acceleration data in a tabular form as shown in the table below.
Develop a spreadsheet template to analyze your data. Where M is the mass of the block plus any
additional mass added to the top of the block, mis the hanging mass, N the normal force, f the
frictional force, T the tension in the string and is the kinetic coefficient of friction
Data Table 1: M constant and m varies
Trial
No.
m
[kg]
M
[kg]
a₁
[m/s]
1
10.1.1338 2.9
2
0.12.1338 3.5
3 10.14 1338 4.0
0.16-1338 4.5
4
5 0.18-1338 4-6
6 0.20 1338 5.6
<aexp
a₂
[m/s]
If we were to plot a graph where
m
5²
4.7 4.5
4.7 4.8
5.5 5.3
Average kinetic coefficient of friction:
FNET
N
[N] (Normal)
[N]
ay
<aexp>
[m/s]
[m/s]
2.6 2.8 2.8 .375 1-3.11 -461-6050.98
3.7 3.6
4.0
a(M + m) (N)
K
m (kg)
fk
[N]
The basic working equation which can be found from applying Newton's Second Law to the system
is given by
(1)
a(M + m) = mg - Mg
3.6.482 1.3.11-539-6941-176
4
535 1.311-639-8371.372
4.6.6161.311 726-9521.568
4.7.629 1.311-866 1-1351.764
15.57361.311 9344.241.96
y = a(M + m) and
T
[N]
x-m
57](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F88ab70e5-0272-4e98-83c3-930108d8e490%2Ffc9ddae8-976d-4242-8c89-a3f3121e1e61%2Fwbxswel_processed.jpeg&w=3840&q=75)
Transcribed Image Text:ure
ace
and
56
Case 1: M constant and m varies
You can determine the acceleration from the slope of a velocity-time graph that the computer
software will generate. Record all digits of the acceleration and round off at the end.
Record your acceleration data in a tabular form as shown in the table below.
Develop a spreadsheet template to analyze your data. Where M is the mass of the block plus any
additional mass added to the top of the block, mis the hanging mass, N the normal force, f the
frictional force, T the tension in the string and is the kinetic coefficient of friction
Data Table 1: M constant and m varies
Trial
No.
m
[kg]
M
[kg]
a₁
[m/s]
1
10.1.1338 2.9
2
0.12.1338 3.5
3 10.14 1338 4.0
0.16-1338 4.5
4
5 0.18-1338 4-6
6 0.20 1338 5.6
<aexp
a₂
[m/s]
If we were to plot a graph where
m
5²
4.7 4.5
4.7 4.8
5.5 5.3
Average kinetic coefficient of friction:
FNET
N
[N] (Normal)
[N]
ay
<aexp>
[m/s]
[m/s]
2.6 2.8 2.8 .375 1-3.11 -461-6050.98
3.7 3.6
4.0
a(M + m) (N)
K
m (kg)
fk
[N]
The basic working equation which can be found from applying Newton's Second Law to the system
is given by
(1)
a(M + m) = mg - Mg
3.6.482 1.3.11-539-6941-176
4
535 1.311-639-8371.372
4.6.6161.311 726-9521.568
4.7.629 1.311-866 1-1351.764
15.57361.311 9344.241.96
y = a(M + m) and
T
[N]
x-m
57
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