`{:(,"Column I",,"Column II"),((A), 1 "fermi",(p),10^(-13) m),((B),1 "X-ray unit",(q),10^(-15) m),((C),1 "angstrom",(r),10^(-10) m),((D),1 "Astronomical unit",(s),9.46xx10^(15) m),((E),1 "Light year",(t),3.26 "Light year"),((F),1 "Parse",(u),3.08xx10^(16) m),(,,(v),1.49xx10^(11)m):}`

Answer

To solve the problem of matching the units in Column I with their corresponding values in Column II, we will go through each unit step by step.

### Step-by-Step Solution:

1. **Identify the value of 1 Fermi**:
- 1 Fermi is defined as \(10^{-15}\) meters.
- Therefore, we match **(A) 1 Fermi** with **(q) \(10^{-15}\) m**.

2. **Identify the value of 1 X-ray unit**:
- 1 X-ray unit is defined as \(10^{-13}\) meters.
- Therefore, we match **(B) 1 X-ray unit** with **(p) \(10^{-13}\) m**.

3. **Identify the value of 1 Angstrom**:
- 1 Angstrom is defined as \(10^{-10}\) meters.
- Therefore, we match **(C) 1 Angstrom** with **(r) \(10^{-10}\) m**.

4. **Identify the value of 1 Astronomical Unit (AU)**:
- 1 Astronomical Unit is approximately \(1.49 \times 10^{11}\) meters.
- Therefore, we match **(D) 1 Astronomical Unit** with **(v) \(1.49 \times 10^{11}\) m**.

5. **Identify the value of 1 Light Year**:
- 1 Light Year is defined as \(9.46 \times 10^{15}\) meters.
- Therefore, we match **(E) 1 Light Year** with **(s) \(9.46 \times 10^{15}\) m**.

6. **Identify the value of 1 Parsec**:
- 1 Parsec is approximately \(3.08 \times 10^{16}\) meters and also equals \(3.26\) Light Years.
- Therefore, we match **(F) 1 Parsec** with **(u) \(3.08 \times 10^{16}\) m** and **(t) 3.26 Light Years**.

### Final Matches:
- (A) 1 Fermi → (q) \(10^{-15}\) m
- (B) 1 X-ray unit → (p) \(10^{-13}\) m
- (C) 1 Angstrom → (r) \(10^{-10}\) m
- (D) 1 Astronomical Unit → (v) \(1.49 \times 10^{11}\) m
- (E) 1 Light Year → (s) \(9.46 \times 10^{15}\) m
- (F) 1 Parsec → (u) \(3.08 \times 10^{16}\) m and (t) 3.26 Light Years