Boyle’s law lab

I’m trying to study for my Chemistry course and I need some help to understand this question.

Boyle’s Law Lab

CHEMISTRY B Introduction

Boyle’s Law explains the relationship between the pressure and volume of an ideal gas when the temperature and amount of gas inside a container remain constant. The purpose of this lab is to investigate the relationship between the volume of a container and pressure of the gas inside the container. You will observe what happens to pressure when volume is changed.

Procedure

  1. Open the simulation by clicking on the box labeled “Ideal.”
  2. Click on the “Width” button. This will cause a measurement to appear below the box.
  3. The measurement will be used to estimate the volume of the container. Volume is measured in liters (L). Throughout the activity, use the measurement of the width of the box in nanometers (nm). However, in the data table, record the unit of measurement as liters (L). For example, if you measure the width of the box as 6.6 nm, you would record a volume of 6.6 L in the data table.
  4. Click on the plus sign (+) next to “Particles”.
  5. Pump 200 heavy particles into the box.
  6. Click on the Temperature button under “Constant Parameter” at the right- hand side of the screen.
  7. What is the temperature inside the box?
  8. Adjust the volume of the box by dragging the handle left or right. Allow the temperature to return to its initial value. Move the ruler to measure the size of the box. Record this value in the Heavy gas species table in the volume column. Record the pressure in atmospheres (atm) in the pressure column.
  9. Repeat this process, selecting various volumes, until you have four data values.

Heavy gas species table

Volume (L) Pressure (atm) P ×V = k

page2image1369589792
page2image1369590080
page2image1369590368
page2image1369590656
page2image1369591008
page2image1369591296
page2image1369591584
page2image1369591872
page2image1369592288
page2image1369592576
page2image1369592864
page2image1369593152
page2image1369593440
page2image1369593728
page2image1369594016
page2image1369594304
page2image1369594848
page2image1369595040

10. Click the reset button which is a circle in the lower right.

11. Starting with #2 in the procedure above, repeat this experiment using 200 particles in the “Light” species.

Light gas species table

Volume (L) Pressure (atm) P ×V = k

page2image1371925504
page2image1371925792
page2image1371926080
page2image1371926368
page2image1371926656
page2image1371926944
page2image1371927232
page2image1371927520
page2image1371927808
page2image1371928096
page2image1371928384
page2image1371928736
page2image1371929024
page2image1371929824
page2image1371930112
page2image1371930400
page2image1371930688
page2image1371930976

Once you have completed the virtual lab, answer all of the questions below. Refer to the rubric to make sure you include all of the necessary components. You will submit your work to your teacher.

Analyze

  1. Using spreadsheet software, create a line of best fit graph of the data of the heavy gas species and a graph of the data of the light gas species. Label the x-axis Volume (L) and the y-axis Pressure (atm). Give the graphs appropriate titles.
  2. Based on the data, as the volume gets larger, what happens to the pressure of the gas?

page2image1371854192
page2image1371854384
page2image1371854672

  1. Look up Boyle’s Law in a science textbook. How do the results of the experiment support or contradict Boyle’s Law?
  2. Go back to the data tables. Multiply the pressure and volume pairs to calculate the values of k. Record values in the data table. Good data may show minor variations, but the values for k should remain relatively consistent.a. What is the average value of k for the heavy gas species?
    b. What is the average value of k for the light gas species?
    c. How does the molecular weight of the gas affect the k value?
  3. Based on the results of this lab, develop a hypothesis to explain why bubbles exhaled by scuba divers grow in size as they reach the surface of the ocean.

page3image1369698768
page3image1369699056
page3image1369699344
page3image1369699632
page3image1369699920
page3image1369700208
page3image1369700496
page3image1369700848
page3image1369701264

 

Does this Look Like Your Assignment? We Can do an Original Paper for you!

Have no Time to Write? Let a subject expert write your paper for You​