The differential relationship has been .
The gas has been termed to be the ideal gas. For an ideal gas at a constant temperature, the relationship of the change in pressure and volume can be given as constant. The relationship has been given with the application of Boyle's law.
The product of the pressure and volume has been a constant quantity for a reaction.
Pressure Volume = Constant
PV = C
V =
Differentiating the equation:
The differential relationship has been .
For more information about pressure at a constant temperature, refer to the link:
Answer:
A differential equation that could describe the relationship of the rate of change of the volume of gas with respect to the pressure is;
V' = .
Explanation:
Boyle's law states that at constant temperature, the pressure of a given mass of gas is inversely proportional to its volume.
That is;
P₁×V₁ = P₂×V₂ or
P×V = Constant, C
That is V =
Therefore, the rate of change of volume of a gas is given as
which gives
That is the rate of change of the volume of gas with respect to the pressure is proportional to the reciprocal of the square of the pressure.
.
V' = .
Answer:
No we cannot measure absolute energy states.
Explanation:
The absolute energy state means the internal energy of any molecule, either reactant or product. We cannot measure the internal energy of any reactant or product as internal energy or absolute energy is sum of all kind of energy including kinetic energy, vibration energy etc.
However we can measure the changes in these energy during any chemical process.
1200 meters
B.
2400 meters
C.
3600 meters
D.
4800 meters
E.
7200 meters
Answer:
The bowling ball with mass 8 pounds has greater acceleration.
Explanation:
The acceleration on the objects is equal to the quotient of the force applied on it and its mass. From Newton's second law of motion, we have;
F = ma
where F is the force on the object, m is its mass and a is its acceleration.
⇒ a =
Let us assume that a force of 50 N was applied on the two bowling balls.
Thus;
mass of the first bowling ball = 8 pounds = 3.62874 kg
So that,
50 = 3.62874 x a
a =
= 13.779
The acceleration of the first ball is 13.78 m/.
For the second ball of mass = 13 pounds = 5.8967 kg
So that,
50 = 5.8967 x a
a =
= 8.4793
The acceleration of the second ball is 8.48 m/.
Therefore, the bowling ball with mass 8 pounds has greater acceleration.