ᒍEᑎᔕ GOᗩᒪ Iᔕ TO ᖇᑌᑎ ᗩ TOTᗩᒪ Oᖴ 22 ᗰIᒪEᔕ Iᑎ ᖴIᐯE ᗪᗩYᔕ. TᕼE TᗩᗷᒪE ᗷEᒪOᗯ ᔕᕼOᗯᔕ ᕼEᖇ ᒪOG ᖴOᖇ TᕼE ᑎᑌᗰᗷEᖇ Oᖴ ᗰIᒪEᔕ ᔕᕼE ᖇᗩᑎ Oᑎ ᗰOᑎᗪᗩY, TᑌEᔕᗪᗩY,ᗯEᑎᗪᔕᗩᗪY,ᗩᑎᗪ TᕼᑌᖇᔕᗪᗩY ᕼOᗯ ᗰᗩᑎY ᗰIᒪEᔕ ᗰᑌᔕT ᒍEᑎ ᖇᑌᑎ Oᑎ ᖴᖇIᗪᗩY TO ᖇEᗩᑕᕼ ᕼEᖇ GOᗩᒪ

sum= when you add is how much the whole amount is

distance= when you use angles and it means how far it goes

step-by-step explanation:

b. 6

step-by-step explanation:

we are given the table representing an exponential function.

we can see from the table that, as x is increasing, the value of y is increasing in the power of 6.

i.e. the following relation is obtained,

x = 1, y = 6

x = 2, y = 36 =

x = 3, y = 216 =

x = 4, y = 1296 =

x = 5, y = 7776 =

so, the geometric series obtained is .

thus, the common ratio is given by = = 6.

hence, the common ratio is 6.

85.560%

step-by-step explanation:

conditional probability is defined as:

p(a|b) = p(a∩b) / p(b)

in other words, the probability that a occurs, given that b has occurred = the probability that both a and b occur / the probability that b occurs.

in this example:

p(turns 64 | turns 44) = p(turns 64 & turns 44) / p(turns 44).

if someone turns 64, they must have already turned 44, so:

p(turns 64 | turns 44) = p(turns 64) / p(turns 44)

on page 42, we see that of the original 100,000, 94944 turn 44, and 81234 turn 64.   therefore:

p(turns 64 | turns 44) = 81234 / 94944

p(turns 64 | turns 44) = 0.85560