Gaseous composition, larger size and many moons describe about the outer planets.
Jupiter, Saturn, Uranus, and Neptune are the four outer planets. They are all gas giants consisting primarily of hydrogen and helium. Their interiors are liquid and contain thick gaseous outer layers. Numerous moons and planetary rings consisting of dust and other particles are present on every one of the outer planets.
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Answer: D
Explanation: Gaseous composition, larger size and many moons
Answer:
The frictional torque is
Explanation:
From the question we are told that
The mass attached to one end the string is
The mass attached to the other end of the string is
The radius of the disk is
At equilibrium the tension on the string due to the first mass is mathematically represented as
substituting values
At equilibrium the tension on the string due to the mass is mathematically represented as
The frictional torque that must be exerted is mathematically represented as
substituting values
Answer:here to earn points
Explanation:
Distance traveled by the bicycle during the 5 seconds of braking is 22m
Explanation:
initial angular velocity= 2 rev/s
final angular velocity= 0 rev/s
Angular displacement Ф=t
Ф= rev
so the distance travelled= 5(2πr)
distance=5(2π*0.7)
distance=22m
The bicycle traveled about 22 m during the 5.0 seconds of braking
Centripetal Acceleration can be formulated as follows:
a = Centripetal Acceleration ( m/s² )
v = Tangential Speed of Particle ( m/s )
R = Radius of Circular Motion ( m )
Centripetal Force can be formulated as follows:
F = Centripetal Force ( m/s² )
m = mass of Particle ( kg )
v = Tangential Speed of Particle ( m/s )
R = Radius of Circular Motion ( m )
Let us now tackle the problem !
Given:
radius of wheel = R = 0.70 m
initial angular speed = ω = 2.0 rev/s = 4π rad/s
final angular speed = ωo = 0 rad/s
time taken = t = 5.0 s
Asked:
distance covered = d = ?
Solution:
Grade: High School
Subject: Physics
Chapter: Circular Motion
Answer:
The wavelength of the wave is 1 m
Explanation:
Given;
mass of the string, m = 20 g = 0.02 kg
length of the string, L = 3.2 m
tension on the string, T = 2.5 N
the frequency of the wave, f = 20 Hz
The velocity of the wave is given by;
where;
μ is mass per unit length = 0.02 kg / 3.2 m
μ = 6.25 x 10⁻³ kg/m
The wavelength of the wave is given by;
λ = v / f
λ = (20 m/s )/ (20 Hz)
λ = 1 m
Therefore, the wavelength of the wave is 1 m
Answer
Explanation:
given
where
now we know
..................(i)
where dx is infinitesimal distance
for x = a and b = 0
after integration we get
we know work done by conservative force will be equals to negative of potential energy
so we get
Energy decreases with decreasing wavelength and decreasing frequency.
B.
Energy increases with decreasing wavelength and increasing frequency.
C.
Energy increases with decreasing wavelength and decreasing frequency.
D.
Energy decreases with increasing wavelength and increasing frequency.
Answer:
B. Energy increases with decreasing wavelength and increasing frequency.
Explanation: