RT Constant Temperature. If the temperature throughout the gas remains constant (isothermal) at T=T then assuming the pressure at a reference location z= is p=Pa we have 32.2 Siratoghere 2-- or in (-z) or p p RT, Pa RT Trapee Appronimate tempeate distein he US Mandend mhene In a room filled with a gas, the variation of pressure with height is negligible. Tatm(z < 11km)=288.15-6.5Z gor2 (r+z)2 Air ASgh Advanced Thermodenamics s/23/2021 (By: MHJ Abyaneh) Show this for the following equation The variation of "g" with altitude based on the gravitational law: If go represents the absolute acceleration due to gravity at sea level, the absolute value at an altitude z is g- B0r+ z where r is the radius of the earth. gor? gor2 R(T, - bz)(r + z)² dP P. dz R(T- bz) dz where b = 6.5,z = elevation based on km & To = 288.15K Advanced Thermodynamics S/23/2021 (By: MHJ. Abyaeh) COMPRESSIBILITY FACTOR A MEASURE OF DEVIATION FROM IDEAL GAS BEHAVIOR The ideal-gas equation is very simple and thus very convenient to use. However, gases deviate from ideal-gas behavior significantly at states near the saturation region and the critica point. This deviation from ideal-gas behavior at a given temperature and pressure can accurately be accounted for by the introduction of a correction factor called the compressibility factor Z defined as: Z=1 ideal gas PR =Reduced pressure Pv Z = RT Z = Z(PR, TR) -Z<1 & Z>1 Real gas TR =Reduced temperature 1. At very low pressures (P, 2), ideal-gas behavior can be assumed with good accuracy regardless of pressure (except when P> 1). TA ldcal-gas bohavior Nonideal gas behavior 3. The deviation of a gas from ideal-gas behavior is greatest in the vicinity of the critical point Real P0 deal-gas hehavior gas

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or
z km)
RT
RT
Constant Temperature. If the temperature throughout the gas
remains constant (isothermal) at T T then assuming the pressure at a
reference location z=te is p= Pa we have
47
322
Siratosphere
-d: or In
RT
RT. (: - za) or p = Pe
Pa
Trapeapbere
Appomimate temperature distibution in the
US. Mandend amenphere
In a room filled with a gas,
the variation of pressure
with height is negligible.
Pl atm
Tatm(z < 11km)=288.15-6.5Z
Air
AS high nom
9or2
(r+z)2
Advanced Thermodynamics
(By: M. HJ. Abyaneh)
5/23/2021
Show this for the following equation
The variation of "g" with altitude
based on the gravitational law:
If go represents the absolute acceleration due to gravity at
sea level, the absolute value at an altitude z is
g= 80
(r+ z)2
where r is the radius of the earth.
gor?
9or2
R(T,- bz)(r + z)2 *
dP
(r+z)
dz =
P
R(To - bz)
where b = 6.5, z = elevation based on km & To = 288.15K
Advanced Thermodynamics
S/23/2021
(By: M.HJ. Abyaneh)
COMPRESSIBILITY FACTOR
A MEASURE OF DEVIATION FROM IDEAL GAS BEHAVIOR
The ideal-gas equation is very simple and thus very convenient to use. However, gases deviate from
ideal-gas behavior significantly at states near the saturation region and the critical point. This deviation
from ideal-gas behavior at a given temperature and pressure can accurately be accounted for by the
introduction of a correction factor called the compressibility factor Z defined as:
Z=1 Ideal gas
PR =Reduced pressure
Pv
Z =
RT
Z = Z(PR, TR)
-Z<1 & Z>1 Real gas
Tp =Reduced temperature
1. At very low pressures (P, <I). gases behave as an ideal
gas regardless of temperature-
2. At high temperatures (T, > 2), ideal-gas behavior can be assumed
with good accuracy regardless of pressure (except when P> 1).
ldcal-gas
behavior
Nonideal gas
behavior
3. The deviation of a gas from ideal-gas behavior is greatest in the
vicinity of the critical point
Real
P0
Ideal
Ideal-gas
hehavior
gas
gas
Transcribed Image Text:or z km) RT RT Constant Temperature. If the temperature throughout the gas remains constant (isothermal) at T T then assuming the pressure at a reference location z=te is p= Pa we have 47 322 Siratosphere -d: or In RT RT. (: - za) or p = Pe Pa Trapeapbere Appomimate temperature distibution in the US. Mandend amenphere In a room filled with a gas, the variation of pressure with height is negligible. Pl atm Tatm(z < 11km)=288.15-6.5Z Air AS high nom 9or2 (r+z)2 Advanced Thermodynamics (By: M. HJ. Abyaneh) 5/23/2021 Show this for the following equation The variation of "g" with altitude based on the gravitational law: If go represents the absolute acceleration due to gravity at sea level, the absolute value at an altitude z is g= 80 (r+ z)2 where r is the radius of the earth. gor? 9or2 R(T,- bz)(r + z)2 * dP (r+z) dz = P R(To - bz) where b = 6.5, z = elevation based on km & To = 288.15K Advanced Thermodynamics S/23/2021 (By: M.HJ. Abyaneh) COMPRESSIBILITY FACTOR A MEASURE OF DEVIATION FROM IDEAL GAS BEHAVIOR The ideal-gas equation is very simple and thus very convenient to use. However, gases deviate from ideal-gas behavior significantly at states near the saturation region and the critical point. This deviation from ideal-gas behavior at a given temperature and pressure can accurately be accounted for by the introduction of a correction factor called the compressibility factor Z defined as: Z=1 Ideal gas PR =Reduced pressure Pv Z = RT Z = Z(PR, TR) -Z<1 & Z>1 Real gas Tp =Reduced temperature 1. At very low pressures (P, <I). gases behave as an ideal gas regardless of temperature- 2. At high temperatures (T, > 2), ideal-gas behavior can be assumed with good accuracy regardless of pressure (except when P> 1). ldcal-gas behavior Nonideal gas behavior 3. The deviation of a gas from ideal-gas behavior is greatest in the vicinity of the critical point Real P0 Ideal Ideal-gas hehavior gas gas
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