To solve this problem we will apply the concepts given by the ideal gas equation, which mathematically can be described as
Here
P = Pressure
V = Volume
N = Number of atoms of molecules
k = Bolzmann constant
T = Temperature
Rearranging to find the temperature we have
Since the value given in the exercise is a unit of atoms per volume, we will readjust the equation like this
Replacing we have,
Therefore the temperature is -86.81°C or 186.3K
Answer: 4.64 × 10^7 mg
Explanation:
Given:
T =1299g + 45.1kg
Convert kg to g
T = 1299g + 45.1kg ×1000g/kg
T = 1299g + 45100g
T = 46399g
T= 4.64 × 10^4 g
Convert to milligram
T = 4.64 × 10^4 g × 1000mg/g
T = 4.64 × 10^7 mg
Therefore, 1299g + 45.1kg = 4.64 × 10^7 mg
To find the work done on the particle, the following is the
solution:
Dw = F dx
W = integral over the path ( F(x) dx)
W = integral from 0 to 1 (e^(-x/5 + 5) dx)
W = -5e^(-x/5 + 5) from 0 to 1
W = 135 J
The work done is 135 J.
Um I would help you but I don’t see the question
Work Done = Force * Distance
This means the least work is exerted by the most distance, so the longer ones are less likely to break.
The shortest one will be the one that breaks easiest.
