the table shows frequecies for red-green color blindness in doctor's practive. M is male C is Person is color-blind. Use this table to find the probabilit P(C) C & M 0.045 C&M' 0.002 Totals: 0.047 C'&M 0.463 C'&M' 0.490 Totals:0.953 Totals M:0.508 M' 0.492 Total:1.000 Use this table to find the probability P( M' intersection C') .. can you help me out please?
It's hard to understand the frequency table. Maybe if you drew it typed it into a table.
1 MIN
M M' Totals C 0.045 0.002 0.047 C' 0.463 0.490 0.953 Totals 0.508 0.492 1.000 the table shows frequecies for red-green color blindness in doctor's practive. M is male C is Person is color-blind. Use this table to find the probability P(M' intersection C')
is it clear now ?
yes
is it 0.490/0.492 ?
Each entry indicates the probability of the row/column element. For \(C'\cap M'\), we go to column M' and row C' and find the entry there.
ok
If you wanted to find Probability of M' AND C' GIVEN M', then you would use the formula you wrote above.
so can we say given C' is 0.490 M' is 0.454 thus, result is is 0.490/0.454 ?
sorry 0.490 /0.492 ?
The right way to write this is \(P(C'\cap M'|~M')=\cfrac{P(C'\cap M')}{P(M')}=\cfrac{.490}{.492}\)
ohh thats perfect thanks
NP
do u have time ..if as you other one
ok
this is my first day.. learning here
I see that
m m' total c 0.042 0.003 0.045 c' 0.398 0.557 0.955 total 0.44 0.56 1.000 the table shows frequecies for red-green color blindness in doctor's practive. M is male C is Person is color-blind. Use this table to find the probability P(C' I M')
\(P(C'|M')=\cfrac{P(C'\cap M')}{P(M')}=\cfrac{.557}{.56}\), using Baye's Theorem.
thanks
for two events, M and N , P(M)=0.4 P(N I M)=0.6, And p(N I M')=0.3 Find P( M' I N) =?
$$ N=\{\{M|N\}\cup \{M'|N\}\}\\ P(M'|N)=1-P(M|N)\\ P(M|N)=\cfrac{P(M\cap N)}{P(N)}=\cfrac{P(N| M)P(M)}{P(N)}\\ $$ Now, just plug in your givens to solve.
thnks
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