The integral is I = ∫ [ (x²-1) + tan? ¹ (x + 1/x)] / [ (x? +3x²+1)tan? ¹ (x+1/x)] dx This is a complex integral. The provided solution splits it into two parts: I? = ∫ (x²-1) / [ (x? +3x²+1)tan? ¹ (x+1/x)] dx I? = ∫ 1 / (x? +3x²+1) dx The solution proceeds with substitutions which are hard to follow due to OCR quality, but it seems to compare the final result with a given form to find coefficients α, β, γ, δ. The final expression shown is: 10 (α + βγ + δ) = 10 (1 + (1/2√5)*√5 + 1/2) seems incorrect. The calculation is shown as 10 (1
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The integral is I = ∫ [ (x²-1) + tan? ¹ (x + 1/x)] / [ (x? +3x²+1)tan? ¹ (x+1/x)] dx This is a complex integral. The provided solution splits it into two parts: I? = ∫ (x²-1) / [ (x? +3x²+1)tan? ¹ (x+1/x)] dx I? = ∫ 1 / (x? +3x²+1) dx The solution proceeds with substitutions which are hard to follow due to OCR quality, but it seems to compare the final result with a given form to find coefficients α, β, γ, δ. The final expression shown is: 10 (α + βγ + δ) = 10 (1 + (1/2√5)*√5 + 1/2) seems incorrect. The calculation is shown as 10 (1 + 1/10 - 1/2) = 10 (11/10 - 5/10) = 10 (6/10) = 6.
The problem is to evaluate the integral: I = ∫? ¹? [x] * e^ [x] / e^ (x-1) dx, where [x] denotes the greatest integer function.
The solution breaks the integral into a sum of integrals over unit intervals: I = ∑? ∫? ¹ n * e? / e^ (x-1) dx = ∑? n * e? ∫? ¹ e^ (1-x) dx = ∑? n * e? [-e^ (1-x)] from n to n+1 = ∑? n * e? [-e? - (-e¹? )] = ∑? n * e? (e¹? - e? ) = ∑? n * e? * e? (e - 1) = (e - 1) ∑? n = (e - 1) * (0 + 1 + 2 + . + 9) = (e - 1) * (9 * 10 / 2) = 45 (e - 1)
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