Answer:
The second law of a vibrating string states that for a transverse vibration in a stretched string, the frequency is directly proportional to the square root of the string's tension, when the vibrating string's mass per unit length and the vibrating length are kept constant
The law can be expressed mathematically as follows;

The second law of the vibrating string can be verified directly, however, the third law of the vibrating string states that frequency is inversely proportional to the square root of the mass per unit length cannot be directly verified due to the lack of continuous variation in both the frequency, 'f', and the mass, 'm', simultaneously
Therefore, the law is verified indirectly, by rearranging the above equation as follows;

From which it can be shown that the following relation holds with the limits of error in the experiment
m₁·l₁² = m₂·l₂² = m₃·l₃² = m₄·l₄² = m₅·l₅²
Explanation:
Answer:
Four times higher
Explanation:
F- G (m1 x m2)/ r^2
if r 1 = 2 and r 2 = 1 therefore F = G (m1 x m2)/ 1^2 is 4 times higher than
2^2 since G and m1 and m2 remained the same
Answer:
Sunlight
Explanation:
Sunlight is necessary in photosynthesis, which provides the main form of energy that plants use, glucose. Water (H2O) is also important because it forms part of glucose and is necessary in the process.
Answer:
Explanation:
Suppose
Magnitude of Electric Field is E V/m
Area of the cross-section is A
capacitor 
Distance between Area of capacitor is d
Maximum Charge stored is





Answer:
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Middle School Physics 5 points
taybraidz
Asked 10.01.2018
An unbalanced force of 500 N is applied to a 75 kg object. What is the acceleration of the object?
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aachen
aachen
Answer:
Acceleration, a=6.66\ m/s^2
Explanation:
Given that,
Force acting on the object, F = 500 N
Mass of the object, m = 75 kg
We need to find the acceleration of the object. The force acting on the object is given by :
a=\dfrac{F}{m}
a=\dfrac{500\ N}{75\ kg}
a=6.66\ m/s^2
So, the acceleration of the object is 6.66\ m/s^2. Hence, this is the required solution.