7. The following data were taken with a system like the one described in this laboratory. The path length of the falling mass was x = 1.434 m, and the radius of the hub around which the string was wrapped was r=0.040 m. For the values of mass m on the string listed, the times to accelerate the distance x are given in the table. Use these data to calculate the values for the acceleration a, the tension T, the torque t, and the angular acceleration z. Perform a linear least squares fit with t as the vertical axis and x as the horizontal axis. Record the slope as I the moment of inertia, the intercept as t, the frictional torque, and the correlation coefficient r. m (kg) 0.050 0.100 0.150 0.200 0.250 0.300 ty=. r= t (s) 10.60 7.40 6.10 5.20 4.60 4.20 kg-m² N-m a (m/s²) T (N) T (N-m) x (rad/s²)
7. The following data were taken with a system like the one described in this laboratory. The path length of the falling mass was x = 1.434 m, and the radius of the hub around which the string was wrapped was r=0.040 m. For the values of mass m on the string listed, the times to accelerate the distance x are given in the table. Use these data to calculate the values for the acceleration a, the tension T, the torque t, and the angular acceleration z. Perform a linear least squares fit with t as the vertical axis and x as the horizontal axis. Record the slope as I the moment of inertia, the intercept as t, the frictional torque, and the correlation coefficient r. m (kg) 0.050 0.100 0.150 0.200 0.250 0.300 ty=. r= t (s) 10.60 7.40 6.10 5.20 4.60 4.20 kg-m² N-m a (m/s²) T (N) T (N-m) x (rad/s²)
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![7. The following data were taken with a system like the one described in this laboratory. The path length
of the falling mass was x = 1.434 m, and the radius of the hub around which the string was wrapped
was r=0.040 m. For the values of mass m on the string listed, the times to accelerate the distance x are
given in the table. Use these data to calculate the values for the acceleration a, the tension T, the torque t,
and the angular acceleration z. Perform a linear least squares fit with t as the vertical axis and % as the
horizontal axis. Record the slope as I the moment of inertia, the intercept as t, the frictional torque, and
the correlation coefficient r.
m (kg)
0.050
0.150
0.100
0.200
0.250
I=
1 =
0.300
yf=
t (s)
10.60
7.40
6.10
5.20
4.60
4.20
_kg-m²
N-m
a (m/s²)
T (N)
T (N-m)
x (rad/s²)](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fae009d81-62ee-4860-bf25-9569f7471d43%2F79e74003-eab1-4e44-ab0f-f324af317c5e%2F6c9zr9e_processed.png&w=3840&q=75)
Transcribed Image Text:7. The following data were taken with a system like the one described in this laboratory. The path length
of the falling mass was x = 1.434 m, and the radius of the hub around which the string was wrapped
was r=0.040 m. For the values of mass m on the string listed, the times to accelerate the distance x are
given in the table. Use these data to calculate the values for the acceleration a, the tension T, the torque t,
and the angular acceleration z. Perform a linear least squares fit with t as the vertical axis and % as the
horizontal axis. Record the slope as I the moment of inertia, the intercept as t, the frictional torque, and
the correlation coefficient r.
m (kg)
0.050
0.150
0.100
0.200
0.250
I=
1 =
0.300
yf=
t (s)
10.60
7.40
6.10
5.20
4.60
4.20
_kg-m²
N-m
a (m/s²)
T (N)
T (N-m)
x (rad/s²)
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