The coordinates of G (x₂ , y₂) for line segment EG = (2,2).
As given:
Line segment EG
Partitioned point of line segment is F
Coordinates of F (x ,y)=(1,3) and E (x₁ ,y₁)=(0,4)
Let coordinate of G (x₂ , y₂)
Ratio m:n =1:1
(x ,y) ={ ( mx₂ +nx₁ )/ (m +n) , ( my₂ +n y₁ )/ (m +n)
⇒(1,3) = {(1x₂ +1(0) )/2 , 1y₂ +1(4) /2}
⇒x₂ =2, y₂ =2
Therefore, the coordinates of G (x₂ , y₂) for the given line segment is equal to (2,2).
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8^15 ÷ 1/8^3 = 8^15 x 8^3=8^18
Answer:
4x² -29x +51
Step-by-step explanation:
Put x-3 where x is in the original function definition, then "simplify". I think you'll find it convenient to rewrite the original function definition first.
... g(x) = 4x² -5x = x(4x -5)
Substituting, we have
... g(x-3) = (x -3)(4(x -3) -5)
... = (x -3)(4x -17) . . . . . simplify right factor
... = 4x² -12x -17x +51
... g(x -3) = 4x² -29x +51
Answer:
Step-by-step explanation:
Given:
u = 1, 0, -4
In unit vector notation,
u = i + 0j - 4k
Now, to get all unit vectors that are orthogonal to vector u, remember that two vectors are orthogonal if their dot product is zero.
If v = v₁ i + v₂ j + v₃ k is one of those vectors that are orthogonal to u, then
u. v = 0 [<em>substitute for the values of u and v</em>]
=> (i + 0j - 4k) . (v₁ i + v₂ j + v₃ k) = 0 [<em>simplify</em>]
=> v₁ + 0 - 4v₃ = 0
=> v₁ = 4v₃
Plug in the value of v₁ = 4v₃ into vector v as follows
v = 4v₃ i + v₂ j + v₃ k -------------(i)
Equation (i) is the generalized form of all vectors that will be orthogonal to vector u
Now,
Get the generalized unit vector by dividing the equation (i) by the magnitude of the generalized vector form. i.e

Where;
|v| = 
|v| = 
= 
This is the general form of all unit vectors that are orthogonal to vector u
where v₂ and v₃ are non-zero arbitrary real numbers.
35 mins is the answer.
1/2 +1/3 = 5/6 = 30mins
1/6 remaining is distributed over 5 mins
30/6 =5
30+5 = 35mins