Hydrogen iodide undergoes decomposition according to the equation 2HI(g) = H2(g) + I>(g) The equilibrium constant K, at 500 K for this equilibrium is 0.060. Suppose 0.904 mol of HI is placed in a 5.00-L container at 500 K. What is the equilibrium concentration of I,(g)? (R= 0.0821 L atm/(K - mol)) O 0.082 M O. 0.036 M O 0.044 M O 1.5 M O 0.030 M

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**Chapter 14: Chemical Equilibrium**

**Problem Statement:**

Hydrogen iodide undergoes decomposition according to the equation:

\[ 2\text{HI(g)} \rightleftharpoons \text{H}_2\text{(g)} + \text{I}_2\text{(g)} \]

The equilibrium constant \( K_p \) at 500 K for this equilibrium is 0.060. Suppose 0.904 mol of HI is placed in a 5.00 L container at 500 K. What is the equilibrium concentration of \(\text{I}_2\text{(g)}\)?

\[ R = 0.0821 \, \text{L} \cdot \text{atm}/(\text{K} \cdot \text{mol}) \]

**Options:**
- A) 0.082 M
- B) 0.036 M
- C) 0.044 M
- D) 1.5 M
- E) 0.030 M

**Explanation:**

To solve this problem, you'll need to use the concept of chemical equilibrium. The equilibrium constant \( K_p \) is given, and you're asked to determine the equilibrium concentration of \(\text{I}_2\text{(g)}\).

By setting up an ICE (Initial, Change, Equilibrium) table and applying the equilibrium constant expression, you can solve for the concentration of \(\text{I}_2\text{(g)}\) at equilibrium.
Transcribed Image Text:**Chapter 14: Chemical Equilibrium** **Problem Statement:** Hydrogen iodide undergoes decomposition according to the equation: \[ 2\text{HI(g)} \rightleftharpoons \text{H}_2\text{(g)} + \text{I}_2\text{(g)} \] The equilibrium constant \( K_p \) at 500 K for this equilibrium is 0.060. Suppose 0.904 mol of HI is placed in a 5.00 L container at 500 K. What is the equilibrium concentration of \(\text{I}_2\text{(g)}\)? \[ R = 0.0821 \, \text{L} \cdot \text{atm}/(\text{K} \cdot \text{mol}) \] **Options:** - A) 0.082 M - B) 0.036 M - C) 0.044 M - D) 1.5 M - E) 0.030 M **Explanation:** To solve this problem, you'll need to use the concept of chemical equilibrium. The equilibrium constant \( K_p \) is given, and you're asked to determine the equilibrium concentration of \(\text{I}_2\text{(g)}\). By setting up an ICE (Initial, Change, Equilibrium) table and applying the equilibrium constant expression, you can solve for the concentration of \(\text{I}_2\text{(g)}\) at equilibrium.
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