Interpretation At 300°C the vapor pressure of condensed Mercury and number of Mercury atoms in Mercury vapor to be calculated. Concept Introduction Vapor pressure: In a closed system, at given temperature the pressure evolved by a vapor in thermodynamic equilibrium with its solid or liquid phases (condensed phase). ln ( P 1 P 2 ) = ΔH Vap R [ 1 T 2 - 1 T 1 ] Where, P 1 and P 2 are pressure; T 1 and T 2 are Temperature . Ideal gas law : This law expressed by following equation is, PV = nRT Where, P - Pressure V - volume n - Number of moles R - Gasconstant T -Temperature
Interpretation At 300°C the vapor pressure of condensed Mercury and number of Mercury atoms in Mercury vapor to be calculated. Concept Introduction Vapor pressure: In a closed system, at given temperature the pressure evolved by a vapor in thermodynamic equilibrium with its solid or liquid phases (condensed phase). ln ( P 1 P 2 ) = ΔH Vap R [ 1 T 2 - 1 T 1 ] Where, P 1 and P 2 are pressure; T 1 and T 2 are Temperature . Ideal gas law : This law expressed by following equation is, PV = nRT Where, P - Pressure V - volume n - Number of moles R - Gasconstant T -Temperature
Solution Summary: The author calculates the vapor pressure of condensed Mercury and the number of atoms in Mercury.
Definition Definition Law that is the combined form of Boyle's Law, Charles's Law, and Avogadro's Law. This law is obeyed by all ideal gas. Boyle's Law states that pressure is inversely proportional to volume. Charles's Law states that volume is in direct relation to temperature. Avogadro's Law shows that volume is in direct relation to the number of moles in the gas. The mathematical equation for the ideal gas law equation has been formulated by taking all the equations into account: PV=nRT Where P = pressure of the ideal gas V = volume of the ideal gas n = amount of ideal gas measured in moles R = universal gas constant and its value is 8.314 J.K-1mol-1 T = temperature
Chapter 10, Problem 159IP
Interpretation Introduction
Interpretation
At
300°C the vapor pressure of condensed Mercury and number of Mercury atoms in Mercury vapor to be calculated.
Concept Introduction
Vapor pressure: In a closed system, at given temperature the pressure evolved by a vapor in thermodynamic equilibrium with its solid or liquid phases (condensed phase).
ln(P1P2)= ΔHVapR[1T2-1T1]
Where,
P1 and P2 arepressure;T1 and T2 are Temperature.
Ideal gas law: This law expressed by following equation is,
PV = nRT
Where,
P - PressureV - volumen - Number of molesR - GasconstantT -Temperature
There is an instrument in Johnson 334 that measures total-reflectance x-ray fluorescence (TXRF) to do elemental analysis (i.e., determine what elements are present in a sample). A researcher is preparing a to measure calcium content in a series of well water samples by TXRF with an internal standard of vanadium (atomic symbol: V). She has prepared a series of standard solutions to ensure a linear instrument response over the expected Ca concentration range of 40-80 ppm. The concentrations of Ca and V (ppm) and the instrument response (peak area, arbitrary units) are shown below. Also included is a sample spectrum. Equation 1 describes the response factor, K, relating the analyte signal (SA) and the standard signal (SIS) to their respective concentrations (CA and CIS).
Ca, ppm
V, ppm
SCa, arb. units
SV, arb. units
20.0
10.0
14375.11
14261.02
40.0
10.0
36182.15
17997.10
60.0
10.0
39275.74
12988.01
80.0
10.0
57530.75
14268.54
100.0…
A mixture of 0.568 M H₂O, 0.438 M Cl₂O, and 0.710 M HClO are enclosed in a vessel at 25 °C.
H₂O(g) + C₁₂O(g) = 2 HOCl(g)
K = 0.0900 at 25°C
с
Calculate the equilibrium concentrations of each gas at 25 °C.
[H₂O]=
[C₁₂O]=
[HOCI]=
M
Σ
M
What units (if any) does the response factor (K) have? Does the response factor (K) depend upon how the concentration is expressed (e.g. molarity, ppm, ppb, etc.)?
Chapter 10 Solutions
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