F(x) = 4 - x^2
g(x) = 6x
(g - f)(x) = 6x - (4 - x^2)
(g - f)(3) = 6(3) - (4 - 3^2) = 6(3) - 4 + 3^2
There are 16 possible hands.
Choosing 3 aces from 4 possible is expressed by:

Choosing 1 queen from 4 possible is expressed by:

This gives us 4*4 = 16 possible hands.
Answer:
<em>Answer below</em>
Step-by-step explanation:
<u>Arithmetic Sequences
</u>
They can be identified because any term is obtained by adding or subtracting a fixed number to the previous term. That number is called the common difference.
The formula to calculate the nth term of an arithmetic sequence is:

Where
an = nth term
a1 = first term
r = common difference
n = number of the term
Suppose we know the 4th term (n=4) of a sequence is 25:

Simplifying:
a1 + 3r = 25
We can choose any combination of a1 and r to satisfy the equation above.
Solving for a1:
a1 = 25 - 3r
a)
Choosing r = 3:
a1 = 25 - 3*3 = 16
The sequence is:
16, 19, 22, 25, ...
And the term rule is:

Choosing r=8
a1 = 25 - 3*8 = 1
The sequence is:
1, 9, 17, 25, ...
The term rule is:

Choosing r=-10
a1 = 25 - 3*(-10) = 25 + 30 = 55
The sequence is:
55, 45, 35, 25, ...
The term rule is:

Thats the answer p=0
y=2.×-1
Step-by-step explanation:
b. 3x + 7y = 7
b. 3x + 7y = 75x − 7y = −63
Both the equations have common coordinate point (-7,4)
3x + 7y = 7
LHS = 3(-4)+7(4)= -21+28= 7. RHS = 7
Therefore, the equation satisfies.
5x − 7y = −63
LHS = 5(-7)-7(4) = -35-28= -63. RHS = -63
Therefore, the equation satisfies.