Answer:
The value is
Explanation:
From the question we are told that
The atmospheric temperature is
The molar mass of carbon dioxide is
The pressure is
The number of moles is
Generally the translational kinetic energy is mathematically represented as
Here R is the gas constant with value
Generally the degree of freedom of carbon dioxide in terms of translational motion is f = 3
So
=>
Answer:
R = 4Ω
Explanation:
If we have two resistors with resistances R1 and R2 in series the total resistance is R = R1 + R2
If the resistances are in parallel, the total resistance is given by:
1/R = 1/R1 + 1/R2.
First, we have a resistor with R1 = 1.5Ω
This resistor is connected in series with a parallel part (let's find the resistance of this parallel part), in one branch we have two resistors in series with resistances:
R2 = 8Ω and R3 = 4Ω
Because these are in series, the resistance of that branch is:
R = 8Ω + 4Ω = 12Ω
In the other branch, we have a single resistor of R4 = 4Ω
The resistance of the parallel part is:
1/R = 1/12Ω + 1/4Ω = 1/12Ω + 3/12Ω = 4/12Ω = 1/3Ω
1/R = 1/3Ω
R = 3Ω
Then we have a resistor (the first one, R1 = 1.5Ω) in series with a resistor of 3Ω.
Then the total resistance is:
R = 1Ω + 3Ω = 4Ω
To solve this problem it will be necessary to apply the concepts related to the electric potential in terms of the variation of the current and inductance. From this definition, we will start to find the load, which is dependent on the current as a function of time.
Here,
L = Inductance
Rate of change of current
If we take the equation and put the variation of the current as a function of time, in terms of the voltage in terms of the inductance we would have
The current as a function of time will be then,
The charge is the integral of the current in each variation of the time, then
Equation the terms we will have,
The third law of motion. Every action has an equal and opposite reaction. You exert a force on it and it exerts it back.