The degree of dissociation of dimer and the equilibrium concentration ( K p ) at the particular temperature and pressure are to be calculated. Concept Introduction: An ideal gas can be characterized by three state variables, namely absolute pressure ( P ) , volume, and absolute temperature ( T ) . The relation between them that may be reduced from kinetic theory is called the ideal gas equation. The ideal gas equation is as follows: P V = n R T . Here, V is the volume, n is the number of moles, R is the universal gas constant, P is the pressure of the gas, and T is the temperature of the gas. The number of moles of a solute divided by the number of litres of solution is called molarity. The number moles of NaOH reacted with a dimer of acetic acid using the molarity is as follows: M o l a r i t y = M o l e s V o l u m e . The moles of the dimer are calculated as follows: Moles of dimer = M o l e s of NaOH 2 .
The degree of dissociation of dimer and the equilibrium concentration ( K p ) at the particular temperature and pressure are to be calculated. Concept Introduction: An ideal gas can be characterized by three state variables, namely absolute pressure ( P ) , volume, and absolute temperature ( T ) . The relation between them that may be reduced from kinetic theory is called the ideal gas equation. The ideal gas equation is as follows: P V = n R T . Here, V is the volume, n is the number of moles, R is the universal gas constant, P is the pressure of the gas, and T is the temperature of the gas. The number of moles of a solute divided by the number of litres of solution is called molarity. The number moles of NaOH reacted with a dimer of acetic acid using the molarity is as follows: M o l a r i t y = M o l e s V o l u m e . The moles of the dimer are calculated as follows: Moles of dimer = M o l e s of NaOH 2 .
Solution Summary: The author explains the degree of dissociation of dimer and the equilibrium concentration at the particular temperature and pressure are to be calculated.
The degree of dissociation of dimer and the equilibrium concentration (Kp) at the particular temperature and pressure are to be calculated.
Concept Introduction:
An ideal gas can be characterized by three state variables, namely absolute pressure (P), volume, and absolute temperature (T). The relation between them that may be reduced from kinetic theory is called the ideal gas equation.
The ideal gas equation is as follows:
PV=nRT.
Here, V is the volume, n is the number of moles, R is the universal gas constant, P is the pressure of the gas, and T is the temperature of the gas.
The number of moles of a solute divided by the number of litres of solution is called molarity.
The number moles of NaOH reacted with a dimer of acetic acid using the molarity is as follows:
The decomposition of dinitrogen pentoxide according to the equation:
50°C
2 N2O5(g)
4 NO2(g) + O2(g)
follows first-order kinetics with a rate constant of 0.0065 s-1. If the initial
concentration of N2O5 is 0.275 M, determine:
the final concentration of N2O5 after 180 seconds.
...
Don't used hand raiting
CS2(g) →CS(g) + S(g)
The rate law is Rate = k[CS2] where k = 1.6 × 10−6 s−¹.
S
What is the concentration of CS2 after 5 hours if the initial concentration is 0.25 M?
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