Krypton is separated from other materials found bonded with it through a process called fractional distillation. This method is commonly used to separate components of a mixture based on their different boiling points. Here's how fractional distillation is applied in the separation of krypton:

1. Liquefaction: The mixture containing krypton and other components is cooled and compressed until it reaches its liquefaction point. This step transforms the mixture into a liquid.

2. Distillation Column: The liquefied mixture is introduced into a distillation column, which consists of a series of chambers or trays stacked vertically.

3. Temperature Control: The column is subjected to different temperature zones. Each chamber maintains a specific temperature gradient from the bottom to the top.

4. Vaporization: As the liquefied mixture enters the column, it is heated, causing the components with lower boiling points to vaporize. Krypton, having a relatively low boiling point (-153.4°C), will vaporize and rise in the column.

5. Condensation: The rising vapors containing krypton encounter cooler temperatures in the higher sections of the column. This causes them to condense back into liquid form.

6. Fraction Collection: The condensed liquids are collected at different levels of the column based on their boiling points. Krypton, having a lower boiling point compared to other components, will be collected in a separate chamber.

7. Repeat Process: The process of vaporization and condensation is repeated multiple times as the mixture moves up the column. This enhances the separation of krypton from other components.

By carefully controlling the temperature and pressure conditions within the distillation column, krypton can be successfully separated from other materials it may be bonded with during extraction processes. This method allows for the isolation of relatively pure krypton gas, which is essential for various industrial applications and scientific research.