**Gas Chromatography Analysis of Cyclopentane, Pyrrolidine, and Tetrahydrofuran**In this exercise, the analysis involves a mixture of cyclopentane, pyrrolidine, and tetrahydrofuran, examined using gas chromatography (GC). Below is the GC trace obtained from the analysis, alongside an explanation of the data.**Chemical Structures:**- **Cyclopentane:** A five-membered carbon ring.- **Pyrrolidine:** A five-membered ring with one nitrogen atom.- **Tetrahydrofuran:** A five-membered ring with one oxygen atom.**GC Trace Explanation:**The GC trace graph plots *intensity* versus *retention time (min)*, highlighting three distinct peaks labeled A, B, and C. Each peak represents one of the compounds in the mixture. The areas under the peaks are given as:- Area A = 100- Area B = 70- Area C = 180**Retention Time and Peak Identification:**- **Cyclopentane:** The first peak (A) due to its lower boiling point, eluting fastest.- **Pyrrolidine:** Corresponds to the second peak (B).- **Tetrahydrofuran:** The third peak (C), with the largest area.**Task: Labeling Peaks**- Label the GC trace peaks (A, B, C) with the corresponding compound names. Use the boiling points of the compounds to support your identification of peaks.**Conclusion:**The peaks are identified based on the order of elution, informed by their boiling points:1. **Cyclopentane** (Peak A)2. **Pyrrolidine** (Peak B)3. **Tetrahydrofuran** (Peak C)This exercise demonstrates the utility of boiling point in predicting the order of compound elution in gas chromatography, allowing for effective peak identification.

Gas chromatogram of a mixture of three compounds cyclopentane, pyrrolidine and tetrahydrofuranThe lower the boiling point of the compound, the shorter will be the retention time in gas chromatogram. Accordingly, boiling point of cyclopentane 49°C, boiling point of pyrrolidine 87°C, boiling point of tetrahydrofuran 66°C. The peak A corresponds to Cyclopentane The peak B corresponds to Tetrahydrofuran The peak C corresponds to Pyrrolidine