Answer:
His results gave the first evidence that atoms were made up of smaller particles.
You draw 3 circles around the stations with the size of the circle equal to the distance from the earthquake. Then you simply find where the edge circles all overlap.
Answer:
a) x = 5.48 10⁻² m and b) 0.05 m
Explanation:
a) For a system in oscillatory motion the mechanical energy conserves and is described by the equation
Em = ½ k A²
Where k is the spring constant and at the amplitude of the movement
When the spring has the greatest extent, the kinetic energy is zero
Em = U = ½ k x²
Therefore, the amplitude of the movement is the same amplitude of the spring
Let's calculate
A = √ (2Em / k)
A = √ (2 0.12 / 80)
A = 0.0548 m = 5.48 10⁻² m
b) In this case the spring has kinetic energy that becomes elastic potential energy, let's calculate the mechanical energy before and after compressing the spring
Initial
Em = K = ½ m v²
Final
Em = Ke = ½ k x²
½ m v² = ½ k x²
x = √(m/k) v
x = 2 √(0.50 /800.0)
x = 0.05 m
Answer:
a) The greatest extension of the spring is 0.055 m
b) The spring compress 0.05 m
Explanation:
Please look at the solution in the attached Word file
Ostored
O internal
O heat
Internal energy is the sum of potential and kinetic energies in the particles of a substance.
The type of energy that refers to the sum of potential and kinetic energies in the particles of a substance is internal energy.
Internal energy is the total energy of all the particles in a substance, including the energy associated with their motion and stored energy due to their positions or arrangements. It consists of both potential energy (energy stored in the particles' positions) and kinetic energy (energy of the particles' motion).
For example, consider a gas in a container. The internal energy of the gas would be the sum of the potential energy of the gas particles due to their positions and the kinetic energy of the particles due to their motion.
Answer: 7kg I think or 6
Explanation:
Answer:
v = 4.1 m / s
Explanation:
Velocity is defined by the relation
v =
we perform the derivative
v = 4.1 m / s
Another way to find this magnitude is to see that the velocity on the slope of a graph of h vs t
v =
Δx = v Δdt + x₀
h= 4.1 t + 5.5
v = 4.1 m / s
x₀ = 5.5 m
The Speed of a Particle is 4.1 meters per second.
The position of a particle can be represented by a linear equation of the form h(t) = (at + b) where a and b are constants.
In this case, the equation is h(t) = (4.1t + 5.5).
To find the speed of the particle, we can take the derivative of the position equation with respect to time.
The derivative of h(t) is the rate of change of position with respect to time, which represents the velocity of the particle.
In this case, the derivative is 4.1 meters per second.
Therefore, the speed of the particle is 4.1 meters per second.
Learn more about Speed of a Particle here:
#SPJ3
Answer:
45,000
Explanation:
Kg=1000
Therefore 45kg=45,000