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Rewrite the expression as a product of four linear factors:

(10x^(2)+x)^(2)-11(10x^(2)+x)+18
Answer:

Rewrite the expression as a product of four linear factors:\newline(10x2+x)211(10x2+x)+18 \left(10 x^{2}+x\right)^{2}-11\left(10 x^{2}+x\right)+18 \newlineAnswer:

Full solution

Q. Rewrite the expression as a product of four linear factors:\newline(10x2+x)211(10x2+x)+18 \left(10 x^{2}+x\right)^{2}-11\left(10 x^{2}+x\right)+18 \newlineAnswer:
  1. Define yy as expression: Let's denote the expression inside the parentheses as yy, where y=10x2+xy = 10x^2 + x. This will simplify our expression to a quadratic in terms of yy.
  2. Rewrite as quadratic in yy: Now we rewrite the expression as a quadratic in yy: (y)211y+18(y)^2 - 11y + 18.
  3. Factor quadratic expression: We need to factor the quadratic expression. To do this, we look for two numbers that multiply to 1818 and add up to 11-11. These numbers are 9-9 and 2-2.
  4. Substitute back for xx: Factoring the quadratic expression gives us (y9)(y2)(y - 9)(y - 2).
  5. Factor each quadratic further: Now we substitute back in for yy to get the expression in terms of xx: (10x2+x9)(10x2+x2)(10x^2 + x - 9)(10x^2 + x - 2).
  6. Combine all factors: Each of these quadratic expressions can be factored further. We look for two numbers that multiply to 90-90 (10×910 \times -9) and add up to 11 (the coefficient of xx) for the first quadratic, and two numbers that multiply to 20-20 (10×210 \times -2) and add up to 11 for the second quadratic.
  7. Combine all factors: Each of these quadratic expressions can be factored further. We look for two numbers that multiply to 90-90 (10×910 \times -9) and add up to 11 (the coefficient of xx) for the first quadratic, and two numbers that multiply to 20-20 (10×210 \times -2) and add up to 11 for the second quadratic.For the first quadratic, the numbers are 1010 and 9-9. This gives us (10x9)(x+1)(10x - 9)(x + 1).
  8. Combine all factors: Each of these quadratic expressions can be factored further. We look for two numbers that multiply to 90-90 (10×910 \times -9) and add up to 11 (the coefficient of xx) for the first quadratic, and two numbers that multiply to 20-20 (10×210 \times -2) and add up to 11 for the second quadratic.For the first quadratic, the numbers are 1010 and 9-9. This gives us (10x9)(x+1)(10x - 9)(x + 1).For the second quadratic, the numbers are 10×910 \times -900 and 10×910 \times -911. This gives us 10×910 \times -922.
  9. Combine all factors: Each of these quadratic expressions can be factored further. We look for two numbers that multiply to 90-90 (10×9)(10 \times -9) and add up to 11 (the coefficient of xx) for the first quadratic, and two numbers that multiply to 20-20 (10×2)(10 \times -2) and add up to 11 for the second quadratic.For the first quadratic, the numbers are 1010 and 9-9. This gives us (10x9)(x+1)(10x - 9)(x + 1).For the second quadratic, the numbers are (10×9)(10 \times -9)00 and (10×9)(10 \times -9)11. This gives us (10×9)(10 \times -9)22.Combining all the factors, we get the expression as a product of four linear factors: (10×9)(10 \times -9)33.

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