Interpretation For the following statements, true statements should be found and for the false statements it should be corrected. Concept introduction: Kinetic molecular theory explains the properties of ideal gas. From the postulates of kinetic molecular theory it is clear that kinetic energy of gas particle is directly proportional to the Kelvin temperature of the gas. Average kinetic energy of gas can be determined as, K E a v g = ( 3 / 2 ) R T The average velocity can be determined, μ a v e = ( 8 R T π M ) 1 / 2 (1) R = 8 . 3 1 4 J K m o l M = M o l a r m a s s i n k g Ideal gas law tends to hold best at low pressure and high temperature A modified ideal gas equation on account of molecular size and molecular interaction forces is termed as Van der Waals equation. That is, [ P + a ( n V ) 2 ] ( V - n b ) = n R T ‘a’ and ‘b’ is called Van der Waals coefficient and are characteristic of the individual gas Where, P = pressure in atmospheres V= volumes in liters n = number of moles R =universal gas constant ( 0 .08206L×atm/K×mol ) T = temperature in kelvins At constant temperature and volume, the number of collision pre unit area increases by increasing the number of moles per unit area.
Interpretation For the following statements, true statements should be found and for the false statements it should be corrected. Concept introduction: Kinetic molecular theory explains the properties of ideal gas. From the postulates of kinetic molecular theory it is clear that kinetic energy of gas particle is directly proportional to the Kelvin temperature of the gas. Average kinetic energy of gas can be determined as, K E a v g = ( 3 / 2 ) R T The average velocity can be determined, μ a v e = ( 8 R T π M ) 1 / 2 (1) R = 8 . 3 1 4 J K m o l M = M o l a r m a s s i n k g Ideal gas law tends to hold best at low pressure and high temperature A modified ideal gas equation on account of molecular size and molecular interaction forces is termed as Van der Waals equation. That is, [ P + a ( n V ) 2 ] ( V - n b ) = n R T ‘a’ and ‘b’ is called Van der Waals coefficient and are characteristic of the individual gas Where, P = pressure in atmospheres V= volumes in liters n = number of moles R =universal gas constant ( 0 .08206L×atm/K×mol ) T = temperature in kelvins At constant temperature and volume, the number of collision pre unit area increases by increasing the number of moles per unit area.
Solution Summary: The author explains that kinetic energy of gas particle is directly proportional to the Kelvin temperature of the gas.
Study of body parts and their functions. In this combined field of study, anatomy refers to studying the body structure of organisms, whereas physiology refers to their function.
Chapter 5, Problem 32Q
Interpretation Introduction
Interpretation For the following statements, true statements should be found and for the false statements it should be corrected.
Concept introduction:
Kinetic molecular theory explains the properties of ideal gas. From the postulates of kinetic molecular theory it is clear that kinetic energy of gas particle is directly proportional to the Kelvin temperature of the gas.
Average kinetic energy of gas can be determined as,
KEavg=(3/2)RT
The average velocity can be determined,
μave=(8RTπM)1/2 (1)
R=8.314JKmolM=Molarmassinkg
Ideal gas law tends to hold best at low pressure and high temperature
A modified ideal gas equation on account of molecular size and molecular interaction forces is termed as Van der Waals equation.
That is,
[P+a(nV)2](V-nb)=nRT
‘a’ and ‘b’ is called Van der Waals coefficient and are characteristic of the individual gas
Where,
P = pressure in atmospheres
V= volumes in liters
n = number of moles
R =universal gas constant (
0.08206L×atm/K×mol)
T = temperature in kelvins
At constant temperature and volume, the number of collision pre unit area increases by increasing the number of moles per unit area.
Choose the option that is decreasing from biggest to smallest.
Group of answer choices:
100 m, 10000 mm, 100 cm, 100000 um, 10000000 nm
10000000 nm, 100000 um, 100 cm, 10000 mm, 100 m
10000000 nm, 100000 um, 10000 mm, 100 cm, 100 m
100 m, 100 cm, 10000 mm, 100000 um, 10000000 nm
Q1. (a) Draw equations for homolytic and heterolytic cleavages of the N-H bond in NH3. Use
curved arrows to show the electron movement.
(b) Draw equations for homolytic and heterolytic cleavages of the N-H bond in NH4*. Use
curved arrows to show the electron movement.
Which is NOT the typical size of a bacteria?
1000 nm
0.001 mm
0.01 mm
1 um
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