A disk of radius R = 3.5 cm and mass M = 740 g is placed on the top of an air table making an angle of o with the horizontal. The M-mass disk can rotate freely about the axis passing through it. A rope is wrapped around this disk and its second free end is connected to another disk of mass of m = 540 g as shown in Figure 1. We fix the frequency of the spark timer to f = 10 Hz and we release the system at t = 0. The M-mass disk starts to rotate with increasing angular speed and the m-mass disk moves down with a constant acceleration according to the following law of motion: y (cm) t (s) t (s')
A disk of radius R = 3.5 cm and mass M = 740 g is placed on the top of an air table making an angle of o with the horizontal. The M-mass disk can rotate freely about the axis passing through it. A rope is wrapped around this disk and its second free end is connected to another disk of mass of m = 540 g as shown in Figure 1. We fix the frequency of the spark timer to f = 10 Hz and we release the system at t = 0. The M-mass disk starts to rotate with increasing angular speed and the m-mass disk moves down with a constant acceleration according to the following law of motion: y (cm) t (s) t (s')
Related questions
Question
![Otomatik Kaydet
BÖ2 (1).docx - Uyumluluk Modu - Word
P Ara
Oğuzhan Yalçınoğlu
Dosya
Giriş
Gözden Geçir
3 Paylaş
P Açıklamalar
Ekle
Tasarım
Düzen
Başvurular
Posta Gönderileri
Görünüm
Yardım
Tablo Tasarımı
Düzen
Q1.
a) Plot the y – t² graph of the falling disk.
b) Find the slope s of the y – t? graph and
calculate the linear acceleration a of the m-
M
disk.
Answer:
a) =
Figure 1
b) s =
A disk of radius R = 3.5 cm and mass M = 740 g is placed on the top
of an air table making an angle of o with the horizontal. The M-mass
disk can rotate freely about the axis passing through it. A rope is
wrapped around this disk and its second free end is connected to
another disk of mass of m = 540 g as shown in Figure 1. We fix the
frequency of the spark timer to f = 10 Hz and we release the system
at t = 0. The M-mass disk starts to rotate with increasing angular
speed and them-mass disk moves down with a constant
acceleration according to the following law of motion:
y (cm)
t (s)
t2 (s?)
0.5
0.1
0.01
1.5
0.2
0.04
3.5
0.3
0.09
6.5
0.4
0.16
10.0
0.5
0.25
We take g = 980 cm/s2.
Sayfa 1/3
492 sözcük
D'odak
%120
21:57
Aramak için buraya yazın
19.12.2020](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Ffc051db1-f14e-4438-9e28-a84dbb4bd79e%2F80d48ebd-223b-420b-aa34-140e56991a92%2Fieyzp6o_processed.jpeg&w=3840&q=75)
Transcribed Image Text:Otomatik Kaydet
BÖ2 (1).docx - Uyumluluk Modu - Word
P Ara
Oğuzhan Yalçınoğlu
Dosya
Giriş
Gözden Geçir
3 Paylaş
P Açıklamalar
Ekle
Tasarım
Düzen
Başvurular
Posta Gönderileri
Görünüm
Yardım
Tablo Tasarımı
Düzen
Q1.
a) Plot the y – t² graph of the falling disk.
b) Find the slope s of the y – t? graph and
calculate the linear acceleration a of the m-
M
disk.
Answer:
a) =
Figure 1
b) s =
A disk of radius R = 3.5 cm and mass M = 740 g is placed on the top
of an air table making an angle of o with the horizontal. The M-mass
disk can rotate freely about the axis passing through it. A rope is
wrapped around this disk and its second free end is connected to
another disk of mass of m = 540 g as shown in Figure 1. We fix the
frequency of the spark timer to f = 10 Hz and we release the system
at t = 0. The M-mass disk starts to rotate with increasing angular
speed and them-mass disk moves down with a constant
acceleration according to the following law of motion:
y (cm)
t (s)
t2 (s?)
0.5
0.1
0.01
1.5
0.2
0.04
3.5
0.3
0.09
6.5
0.4
0.16
10.0
0.5
0.25
We take g = 980 cm/s2.
Sayfa 1/3
492 sözcük
D'odak
%120
21:57
Aramak için buraya yazın
19.12.2020
Expert Solution
![](/static/compass_v2/shared-icons/check-mark.png)
This question has been solved!
Explore an expertly crafted, step-by-step solution for a thorough understanding of key concepts.
Step by step
Solved in 2 steps with 2 images
![Blurred answer](/static/compass_v2/solution-images/blurred-answer.jpg)