According to the ideal gas law, V1/T1=V2/T2. Temperature in the unit of K. So volume is 17*343/161=36.2 mL. The answer is the sample has volume of 36.2 mL.
The correct name of the compound is 4-chloro-1-cycloheptene according to IUPAC nomenclature.
<h3>What is IUPAC nomenclature?</h3>
The IUPAC nomenclature is a system of naming compounds that was put together by the international union of pure and applied chemistry. The system enables the structure of a compound to be easily written from its name.
For the compound shown in the image attached to this answer, the correct name of the compound is 4-chloro-1-cycloheptene according to IUPAC nomenclature.
Learn more about IUPAC nomenclature: brainly.com/question/11587934
Answer:
The value of the missing equilibrium constant ( of the first equation) is 1.72
Explanation:
First equation: 2A + B ↔ A2B Kc = TO BE DETERMINED
⇒ The equilibrium expression for this equation is written as: [A2B]/[A]²[B]
Second equation: A2B + B ↔ A2B2 Kc= 16.4
⇒ The equilibrium expression is written as: [A2B2]/[A2B][B]
Third equation: 2A + 2B ↔ A2B2 Kc = 28.2
⇒ The equilibrium expression is written as: [A2B2]/ [A]²[B]²
If we add the first to the second equation
2A + B + B ↔ A2B2 the equilibrium constant Kc will be X(16.4)
But the sum of these 2 equations, is the same as the third equation ( 2A + 2B ↔ A2B2) with Kc = 28.2
So this means: 28.2 = X(16.4)
or X = 28.2/16.4
X = 1.72
with X = Kc of the first equation
The value of the missing equilibrium constant ( of the first equation) is 1.72
The expected parameters in Stratopause are; Temperature: -15 degrees Celsius, Pressure: 1 milibar and Water vapor concentration: cannot be determined.
<u>Explanation</u>:
"Stratopause" is the interaction between the ionosphere and the stratosphere. It is 50-55 km high above the earth surface that is why temperature is very less approximately -15 degrees Celsius (5 degrees Fahrenheit). As it is a thin layer separating the stratosphere and ionosphere actual water vapor concentration cannot be determined. The atmospheric pressure is around 1/1000 of the pressure at sea level.