Question

Notify Me Bookmark

Hydrogen sulfide, a colorless gas with a foul odor, dissociates on heating: 2H2S(g) ⇌ 2H2(g) + S2(g) When 0.100 mol H2S was put into a 10.0−L vessel and heated to 1132∘C, it gave an equilibrium mixture containing 0.0285 mol H2. What is the value of Kc at this temperature?

Hydrogen sulfide, a colorless gas with a foul odor, dissociates on heating: 2H2S(g) ⇌ 2H2(g) + S2(g) When 0.100 mol H2S was put into a 10.0−L vessel and heated to 1132∘C, it gave an equilibrium mixture containing 0.0285 mol H2. What is the value of Kc at this temperature?

Image text
Hydrogen sulfide, a colorless gas with a foul odor, dissociates on heating:
2 H 2 S ( g ) ⇌ 2 H 2 ( g ) + S 2 ( g )
When 0.100 m o l 2 S was put into a 10.0 − L vessel and heated to 1132 ∘ C , it gave an equilibrium mixture containing 0.0285 m o l H 2 . What is the value of K c at this temperature?

Detailed Answer

0 0

Please enter your email here. You will get email when this question is answered by our tutor.

Doubtrix Logo

Problem is not yet solved!

Click on Notify me to get email when question is answered.

Join Doubtrix with 7-days free trial

  • Icon Correct & Verified Answers
  • Icon No AI-Generated Answers
  • Icon Video Solution for Difficult Questions
  • Icon Work With Experts to Reach at Correct Answers
Notify me Login Sign Up

Similar/Related Questions

Hydrogen and hydrogen sulphide A container with volume of 100.0 L is empty. We charge 0.1 molH2 S and 0.1 molH2 into it. The container is sealed and heated to 1000∘C. Calculate PH2S × PH2 and PS2 at equilibrium. H2S = H2 + 1/2 S2 △G∘ = 27380 J at 1000∘C
Solution
0 0

10a) (15 Points) In the following circuit, an NMOS transistor is used to switch the current to the LED. Assume the following parameters: Microcontroller: vO = 4.6 V iOH < −5 mA and vOL = 0.4 V, iOL < 8 mA LED: vf = 2.0 V, PLED−max = 200 mW Desired LED current 100 mA Transistor: vT = 1.0 V, RDS(ON) = 0.5 Ω, iD−max = 500 mA a. When the output of the microcontroller is low, what is the operating region of the transistor? b. When the output of the microcontroller is high, what is the operating region of the transistor? c. With the microcontroller output high, and the transistor in the ohmic region, what value of R results in an on-state LED current of 100 mA? d. What standard value of resistor (Table is on page 33 of the text) comes closest to the desired LED current? 10b) Suppose we rearrange the NMOS circuit in problem 10 as shown. Using the same parameters as in the previous problem, answer the following: a. When the output of the microcontroller is low, what is the operating region of the transistor? b. Suppose that when the output of the microcontroller is high, there is 100 mA current through the LED with the same resistor as found in problem 10a. What is the source voltage relative to ground? What is the gate-source voltage? c. Do you expect this arrangement to work for controlling the LED? Explain. 10c) (15 Points) In this problem, the NMOS transistor in problem 10b has been replaced with a PMOS transistor as shown. Assume all the parameters are the same, noting that the gate must be the threshold voltage below the source to get out of cutoff. a. When the output of the microcontroller is high, what is the operating region of the transistor? b. When the output is low, what is the operating region of the transistor? c. Does this arrangement to work for controlling the LED? Explain.10a) (15 Points) In the following circuit, an NMOS transistor is used to switch the current to the LED. Assume the following parameters: Microcontroller: vO = 4.6 V iOH < −5 mA and vOL = 0.4 V, iOL < 8 mA LED: vf = 2.0 V, PLED−max = 200 mW Desired LED current 100 mA Transistor: vT = 1.0 V, RDS(ON) = 0.5 Ω, iD−max = 500 mA a. When the output of the microcontroller is low, what is the operating region of the transistor? b. When the output of the microcontroller is high, what is the operating region of the transistor? c. With the microcontroller output high, and the transistor in the ohmic region, what value of R results in an on-state LED current of 100 mA? d. What standard value of resistor (Table is on page 33 of the text) comes closest to the desired LED current? 10b) Suppose we rearrange the NMOS circuit in problem 10 as shown. Using the same parameters as in the previous problem, answer the following: a. When the output of the microcontroller is low, what is the operating region of the transistor? b. Suppose that when the output of the microcontroller is high, there is 100 mA current through the LED with the same resistor as found in problem 10a. What is the source voltage relative to ground? What is the gate-source voltage? c. Do you expect this arrangement to work for controlling the LED? Explain. 10c) (15 Points) In this problem, the NMOS transistor in problem 10b has been replaced with a PMOS transistor as shown. Assume all the parameters are the same, noting that the gate must be the threshold voltage below the source to get out of cutoff. a. When the output of the microcontroller is high, what is the operating region of the transistor? b. When the output is low, what is the operating region of the transistor? c. Does this arrangement to work for controlling the LED? Explain.10a) (15 Points) In the following circuit, an NMOS transistor is used to switch the current to the LED. Assume the following parameters: Microcontroller: vO = 4.6 V iOH < −5 mA and vOL = 0.4 V, iOL < 8 mA LED: vf = 2.0 V, PLED−max = 200 mW Desired LED current 100 mA Transistor: vT = 1.0 V, RDS(ON) = 0.5 Ω, iD−max = 500 mA a. When the output of the microcontroller is low, what is the operating region of the transistor? b. When the output of the microcontroller is high, what is the operating region of the transistor? c. With the microcontroller output high, and the transistor in the ohmic region, what value of R results in an on-state LED current of 100 mA? d. What standard value of resistor (Table is on page 33 of the text) comes closest to the desired LED current? 10b) Suppose we rearrange the NMOS circuit in problem 10 as shown. Using the same parameters as in the previous problem, answer the following: a. When the output of the microcontroller is low, what is the operating region of the transistor? b. Suppose that when the output of the microcontroller is high, there is 100 mA current through the LED with the same resistor as found in problem 10a. What is the source voltage relative to ground? What is the gate-source voltage? c. Do you expect this arrangement to work for controlling the LED? Explain. 10c) (15 Points) In this problem, the NMOS transistor in problem 10b has been replaced with a PMOS transistor as shown. Assume all the parameters are the same, noting that the gate must be the threshold voltage below the source to get out of cutoff. a. When the output of the microcontroller is high, what is the operating region of the transistor? b. When the output is low, what is the operating region of the transistor? c. Does this arrangement to work for controlling the LED? Explain.
Solution
0 0

What is the the equilibrium constant (Kc) for the reaction below, if the reaction mixture initially contains 0.475 M CH4 and 0.709 M H2S, and the equilibrium concentration of H2 was found to be 0.973 M ? CH4(g) + 2H2S(g) ⇌ CS2(g) + 4H2(g)
Solution
0 0