Click Reset. Select the Mystery half-life from the left menu. In this setting, the half-life will be different each time you run the simulation. Run at least three experiments. In each experiment, measure the half-life using the Half-life probe on the graph. (The half-life will be different each time.) When you have found the half-life, click the camera () icon. Right-click the image, and click Copy. Then paste the image below, and label each image with the half-life.

Click Reset. Select the Mystery half-life from the left menu. In this setting, the half-life will be different each time you run the simulation. Run at least three experiments. In each experiment, measure the half-life using the Half-life probe on the graph. (The half-life will be different each time.)

When you have found the half-life, click the camera () icon. Right-click the image, and click Copy. Then paste the image below, and label each image with the half-life.

Explanation:

c) always accurate

hope i u

#faaz

&

messi

hey there!

boiling point is the temperature at which the vapor pressure of the liquid equals atmospheric pressure. the vapor pressure of solvent molecules is decreased when a solute is added, so a higher temperature is required to increase the number of solvent molecules in the gas phase above the liquid.

at the freezing point, the vapor pressures of the solid and liquid are equal; a lower temperature is needed to reduce the number of solvent particles above the liquid.

hope this you

tobey