By analyzing given chemical equation the final volume of gas should be determined. Concept introduction: In 1811 the Italian chemist Avogadro introduced a gaseous law with interpreting the relationship between the number of moles and the volume of a gas at constant temperature and pressure. That is the volume of gas towards the amount of substance present. This law is known as Avogadro’s law . Avogadro’s law can be defined as, A gas kept in the particular container at constant pressure and temperature. If the amount (number of moles) of gas in the container is increased, the number of moles in the unit area of container is increased and the volume of container is increased. That is the volume of container is directly proportional to the number of moles of gas. As increasing the amount of substance of gas or the number of moles of gas, the volume of gas will expand. This direct relationship between the number of moles of gas and volume of gas is termed as Avogadro’s law . Mathematically this law can be written as, V ∝ n V = a n By rearranging, V n =a Where n is the number of moles of gas and a is proportionality constant. By comparing two systems at different conditions, V 1 n 1 = V 2 n 2
By analyzing given chemical equation the final volume of gas should be determined. Concept introduction: In 1811 the Italian chemist Avogadro introduced a gaseous law with interpreting the relationship between the number of moles and the volume of a gas at constant temperature and pressure. That is the volume of gas towards the amount of substance present. This law is known as Avogadro’s law . Avogadro’s law can be defined as, A gas kept in the particular container at constant pressure and temperature. If the amount (number of moles) of gas in the container is increased, the number of moles in the unit area of container is increased and the volume of container is increased. That is the volume of container is directly proportional to the number of moles of gas. As increasing the amount of substance of gas or the number of moles of gas, the volume of gas will expand. This direct relationship between the number of moles of gas and volume of gas is termed as Avogadro’s law . Mathematically this law can be written as, V ∝ n V = a n By rearranging, V n =a Where n is the number of moles of gas and a is proportionality constant. By comparing two systems at different conditions, V 1 n 1 = V 2 n 2
Solution Summary: The author explains Avogadro's gaseous law, which is based on the relationship between the number of moles and the volume of a gas at constant temperature and pressure.
Definition Definition Number of atoms/molecules present in one mole of any substance. Avogadro's number is a constant. Its value is 6.02214076 × 10 23 per mole.
Chapter 5, Problem 46E
Interpretation Introduction
Interpretation: By analyzing given chemical equation the final volume of gas should be determined.
Concept introduction:
In 1811 the Italian chemist Avogadro introduced a gaseous law with interpreting the relationship between the number of moles and the volume of a gas at constant temperature and pressure. That is the volume of gas towards the amount of substance present. This law is known as Avogadro’s law.
Avogadro’s law can be defined as,
A gas kept in the particular container at constant pressure and temperature. If the amount (number of moles) of gas in the container is increased, the number of moles in the unit area of container is increased and the volume of container is increased. That is the volume of container is directly proportional to the number of moles of gas. As increasing the amount of substance of gas or the number of moles of gas, the volume of gas will expand. This direct relationship between the number of moles of gas and volume of gas is termed as Avogadro’s law.
Mathematically this law can be written as,
V∝n
V=an
By rearranging,
Vn=a
Where n is the number of moles of gas and a is proportionality constant.
Last Name, Firs
Statifically more chances to abstract one of these 6H
11. (10pts total) Consider the radical chlorination of 1,3-diethylcyclohexane depicted below. 4
• 6H total $ 4th total
21 total
4H total
ZH
2H
Statistical
H < 3°C-H werkst
-
product
bund abstraction here
leads to the mo favored
a) (6pts) How many unique mono-chlorinated products can be formed and what are the
structures for the thermodynamically and statistically favored products?
Proclict
6
Number of Unique
Mono-Chlorinated Products
f
Thermodynamically
Favored Product
Statistically
Favored Product
b) (4pts) Draw the arrow pushing mechanism for the FIRST propagation step (p-1) for the
formation of the thermodynamically favored product. Only draw the p-1 step. You do
not need to include lone pairs of electrons. No enthalpy calculation necessary
'H
H-Cl
Waterfox
2. (a) Many main group oxides form acidic solutions when added to water. For example solid
tetraphosphorous decaoxide reacts with water to produce phosphoric acid. Write a balanced
chemical equation for this reaction.
(b) Calcium phosphate reacts with silicon dioxide and carbon graphite at elevated temperatures
to produce white phosphorous (P4) as a gas along with calcium silicate (Silcate ion is SiO3²-)
and carbon monoxide. Write a balanced chemical equation for this reaction.
I find the solution way too brief and unsatisfactory as it does not clearly explain the solution provided in the problem.
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