| Line 3,162: | Line 3,162: | 
|  | Here, the order of relational composition flows up the page.  For convenience, the absolute term ''f'' = "frenchman" has been converted by using the comma functor to give the idempotent representation ‘''f''’ = ''f'', = "frenchman that is ---", and thus it can be taken as a selective from the universe of mankind. |  | Here, the order of relational composition flows up the page.  For convenience, the absolute term ''f'' = "frenchman" has been converted by using the comma functor to give the idempotent representation ‘''f''’ = ''f'', = "frenchman that is ---", and thus it can be taken as a selective from the universe of mankind. | 
|  |  |  |  | 
| − | <pre>
 |  | 
|  | By way of a legend for the figure, we have the following data: |  | By way of a legend for the figure, we have the following data: | 
|  |  |  |  | 
|  | + | <pre> | 
|  | | m   =  J +, K +, L +, M  =  1 |  | | m   =  J +, K +, L +, M  =  1 | 
|  | | |  | | | 
| Line 3,175: | Line 3,175: | 
|  | |        (T_065 +, ... +, T_096):L  +, |  | |        (T_065 +, ... +, T_096):L  +, | 
|  | |        (T_097 +, ... +, T_128):M |  | |        (T_097 +, ... +, T_128):M | 
|  | + | </pre> | 
|  | + |  | 
|  | + | Now let's see if we can use this picture to make sense of the following statement: | 
|  | + |  | 
|  | + | <blockquote> | 
|  | + | <p>For instance, if our universe is perfect men, and there are as many teeth to a Frenchman (perfect understood) as there are to any one of the universe, then:</p> | 
|  |  |  |  | 
| − | Now let's see if we can use this picture
 | + | : <p>[''t''][''f''] = [''tf'']</p> | 
| − | to make sense of the following statement:
 |  | 
|  |  |  |  | 
| − | | For instance, if our universe is perfect men, and there
 | + | <p>holds arithmetically.  (CP 3.76).</p> | 
| − | | are as many teeth to a Frenchman (perfect understood)
 | + | </blockquote> | 
| − | | as there are to any one of the universe, then:
 |  | 
| − | |
 |  | 
| − | | ['t'][f]  =  ['t'f]
 |  | 
| − | |
 |  | 
| − | | holds arithmetically.  (CP 3.76).
 |  | 
|  |  |  |  | 
| − | In the lingua franca of statistics, Peirce is saying this: | + | In the lingua franca of statistics, Peirce is saying this:  That if the population of Frenchmen is a "fair sample" of the general population with regard to dentition, then the morphic equation [''tf''] = [''t''][''f''], whose transpose gives [''t''] = [''tf'']/[''f''], is every bite as true as the defining equation in this circumstance, namely, [''t''] = [''tm'']/[''m'']. | 
| − | That if the population of Frenchmen is a "fair sample" of |  | 
| − | the general population with regard to dentition, then the |  | 
| − | morphic equation ['t'f] = ['t'][f], whose transpose gives |  | 
| − | ['t'] = ['t'f]/[f], is every bite as true as the defining |  | 
| − | equation in this circumstance, namely, ['t'] = ['t'm]/[m]. |  | 
| − | </pre>
 |  | 
|  |  |  |  | 
|  | ===Commentary Note 11.21=== |  | ===Commentary Note 11.21=== |