Problem 72
Question
Simplify each complex rational expression. $$\frac{\frac{x+h}{x+h+1}-\frac{x}{x+1}}{h}$$
Step-by-Step Solution
Verified Answer
The simplified version of the given complex rational expression is \(\frac{1-x}{(x+1)(x+h+1)}\).
1Step 1: Simplify the numerators
Find a common denominator for the two fractions in the numerator and simplify. The common denominator is \((x+h+1)(x+1)\), so the equation becomes: \[\frac{\frac{(x+h)(x+1)-(x)(x+h+1)}{(x+h+1)(x+1)}}{h}\]
2Step 2: Simplify the Numerator
Combine like terms in the numerator. This results in: \[\frac{x^2+x+hx+h-x^2-x-hx-1-xh}{(x+h+1)(x+1)} \cdot \frac{1}{h}\] Simplifying this results in: \[\frac{h-hx}{(x+h+1)(x+1)} \cdot \frac{1}{h}\]
3Step 3: Simplify the Complex Fraction
Now, simplify the complex fraction by multiplying the numerator by the reciprocal of the denominator. When we cancel out the \(h\) terms from numerator with denominator, we are left with: \[\frac{1-x}{(x+1)(x+h+1)}\]
Other exercises in this chapter
Problem 72
Factor completely, or state that the polynomial is prime. $$x^{3}+3 x^{2}-25 x-75$$
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Write each number in decimal notation without the use of exponents. $$6.8 \times 10^{-1}$$
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In Exercises 67–82, find each product. $$\left(7 x^{2} y+1\right)\left(2 x^{2} y-3\right)$$
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Simplify the radical expressions in Exercises \(67-74\) if possible. $$\sqrt[3]{12} \cdot \sqrt[3]{4}$$
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