Answer
Verified
393.6k+ views
Hint: In order to solve this question, we are going to first analyze the condition of the motion of the ceiling fan, then the point marked on the blades of the ceiling fan is considered and then, we have to see what the motion is like by considering the velocity and the type of movement of the point marked.
Complete answer:
For a point marked on the blade of a ceiling fan, it will be rotating at a constant speed. This gives us two points:
The first one is the circular motion due to the rotation of the blades of the ceiling fan and thus also that of the point marked on the blade.
The second is that the point is not going to leave the blades of the ceiling fan hence, the velocity is not going to change which deduces a uniform motion.
Combining these two facts, we get that the complete motion of the point marked on the blades of the ceiling fan is a uniform circular motion due to constant rotation of the blades of the ceiling fan.
Note: It is important to note that the angular velocity for the motion of the blades is given by the equation:
\[\omega = \dfrac{{d\theta }}{{dt}}\]
Where, \[d\theta \]is the angular displacement and \[dt\]is the time taken for it.
Now for the blades of the fan and hence for the point marked, the rate of change of angular displacement is constant.
Complete answer:
For a point marked on the blade of a ceiling fan, it will be rotating at a constant speed. This gives us two points:
The first one is the circular motion due to the rotation of the blades of the ceiling fan and thus also that of the point marked on the blade.
The second is that the point is not going to leave the blades of the ceiling fan hence, the velocity is not going to change which deduces a uniform motion.
Combining these two facts, we get that the complete motion of the point marked on the blades of the ceiling fan is a uniform circular motion due to constant rotation of the blades of the ceiling fan.
Note: It is important to note that the angular velocity for the motion of the blades is given by the equation:
\[\omega = \dfrac{{d\theta }}{{dt}}\]
Where, \[d\theta \]is the angular displacement and \[dt\]is the time taken for it.
Now for the blades of the fan and hence for the point marked, the rate of change of angular displacement is constant.
Recently Updated Pages
10 Examples of Evaporation in Daily Life with Explanations
10 Examples of Diffusion in Everyday Life
1 g of dry green algae absorb 47 times 10 3 moles of class 11 chemistry CBSE
What is the meaning of celestial class 10 social science CBSE
What causes groundwater depletion How can it be re class 10 chemistry CBSE
Under which different types can the following changes class 10 physics CBSE
Trending doubts
Fill the blanks with the suitable prepositions 1 The class 9 english CBSE
Which are the Top 10 Largest Countries of the World?
How do you graph the function fx 4x class 9 maths CBSE
Differentiate between homogeneous and heterogeneous class 12 chemistry CBSE
Difference between Prokaryotic cell and Eukaryotic class 11 biology CBSE
Change the following sentences into negative and interrogative class 10 english CBSE
The Equation xxx + 2 is Satisfied when x is Equal to Class 10 Maths
Why is there a time difference of about 5 hours between class 10 social science CBSE
Give 10 examples for herbs , shrubs , climbers , creepers