Below if the data representing the total mass (in

pg

) vs. the separation between the two objects (in

cm

).\ Let's assume that

m_(1)=m_(2)=(1)/(2)m

, where

m_(1)

and

m_(2)

are the two individual masses.\ \\\\table[[

m[pg]

,

r[cm]

,

m[pg]

,

r[cm]

,

m[pg]

,

r[cm]

Below if the data representing the total mass (in pg ) vs. the separation between the two objects (in cm ). Let's assume that m1=m2=1/2m, where m1 and m2 are the two individual masses. 1. Transfer this data into Excel or Google sheets (make m into Column 1 and r into Column 2). Label the columns! 2. Convert cm to m, and pg to g(1pg=1012g) - do this using formulas in Excel, not by hand (Columns 3 and 4 ). Calculate m1 and m2 (Columns 5 and 6 ). Again, don't forget to label the columns (with units). 3. Use Excel formulas to calculate the gravitational force for each case (Column 7). 4. Plot F vs. r (Chart 1, leave in Sheet 1). Remember to label the graph, and both axes with units. 5. What shape did you expect for your plot in \#4? What shape did you get? Below if the data representing the total mass (in pg ) vs. the separation between the two objects (in cm ). Let's assume that m1=m2=1/2m, where m1 and m2 are the two individual masses. 1. Transfer this data into Excel or Google sheets (make m into Column 1 and r into Column 2). Label the columns! 2. Convert cm to m, and pg to g(1pg=1012g) - do this using formulas in Excel, not by hand (Columns 3 and 4 ). Calculate m1 and m2 (Columns 5 and 6 ). Again, don't forget to label the columns (with units). 3. Use Excel formulas to calculate the gravitational force for each case (Column 7). 4. Plot F vs. r (Chart 1, leave in Sheet 1). Remember to label the graph, and both axes with units. 5. What shape did you expect for your plot in \#4? What shape did you get