Trigonometry Examples

${(\sqrt{13} - i)}^{6}$

Step 1

Use the Binomial Theorem.

${\sqrt{13}}^{6} + 6 {\sqrt{13}}^{5} (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2

Simplify terms.

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Step 2.1

Simplify each term.

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Step 2.1.1

Rewrite ${\sqrt{13}}^{6}$ as $13^{3}$ .

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Step 2.1.1.1

Use $\sqrt[n]{a^{x}} = a^{\frac{x}{n}}$ to rewrite $\sqrt{13}$ as $13^{\frac{1}{2}}$ .

${(13^{\frac{1}{2}})}^{6} + 6 {\sqrt{13}}^{5} (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.1.2

Apply the power rule and multiply exponents, ${(a^{m})}^{n} = a^{m n}$ .

$13^{\frac{1}{2} \cdot 6} + 6 {\sqrt{13}}^{5} (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.1.3

Combine $\frac{1}{2}$ and $6$ .

$13^{\frac{6}{2}} + 6 {\sqrt{13}}^{5} (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.1.4

Cancel the common factor of $6$ and $2$ .

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Step 2.1.1.4.1

Factor $2$ out of $6$ .

$13^{\frac{2 \cdot 3}{2}} + 6 {\sqrt{13}}^{5} (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.1.4.2

Cancel the common factors.

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Step 2.1.1.4.2.1

Factor $2$ out of $2$ .

$13^{\frac{2 \cdot 3}{2 (1)}} + 6 {\sqrt{13}}^{5} (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.1.4.2.2

Cancel the common factor.

$13^{\frac{2 \cdot 3}{2 \cdot 1}} + 6 {\sqrt{13}}^{5} (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.1.4.2.3

Rewrite the expression.

$13^{\frac{3}{1}} + 6 {\sqrt{13}}^{5} (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.1.4.2.4

Divide $3$ by $1$ .

$13^{3} + 6 {\sqrt{13}}^{5} (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.2

Raise $13$ to the power of $3$ .

$2197 + 6 {\sqrt{13}}^{5} (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.3

Rewrite ${\sqrt{13}}^{5}$ as $\sqrt{13^{5}}$ .

$2197 + 6 \sqrt{13^{5}} (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.4

Raise $13$ to the power of $5$ .

$2197 + 6 \sqrt{371293} (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.5

Rewrite $371293$ as $169^{2} \cdot 13$ .

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Step 2.1.5.1

Factor $28561$ out of $371293$ .

$2197 + 6 \sqrt{28561 (13)} (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.5.2

Rewrite $28561$ as $169^{2}$ .

$2197 + 6 \sqrt{169^{2} \cdot 13} (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.6

Pull terms out from under the radical.

$2197 + 6 (169 \sqrt{13}) (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.7

Multiply $169$ by $6$ .

$2197 + 1014 \sqrt{13} (- i) + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.8

Multiply $- 1$ by $1014$ .

$2197 - 1014 \sqrt{13} i + 15 {\sqrt{13}}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.9

Rewrite ${\sqrt{13}}^{4}$ as $13^{2}$ .

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Step 2.1.9.1

Use $\sqrt[n]{a^{x}} = a^{\frac{x}{n}}$ to rewrite $\sqrt{13}$ as $13^{\frac{1}{2}}$ .

$2197 - 1014 \sqrt{13} i + 15 {(13^{\frac{1}{2}})}^{4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.9.2

Apply the power rule and multiply exponents, ${(a^{m})}^{n} = a^{m n}$ .

$2197 - 1014 \sqrt{13} i + 15 \cdot 13^{\frac{1}{2} \cdot 4} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.9.3

Combine $\frac{1}{2}$ and $4$ .

$2197 - 1014 \sqrt{13} i + 15 \cdot 13^{\frac{4}{2}} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.9.4

Cancel the common factor of $4$ and $2$ .

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Step 2.1.9.4.1

Factor $2$ out of $4$ .

$2197 - 1014 \sqrt{13} i + 15 \cdot 13^{\frac{2 \cdot 2}{2}} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.9.4.2

Cancel the common factors.

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Step 2.1.9.4.2.1

Factor $2$ out of $2$ .

$2197 - 1014 \sqrt{13} i + 15 \cdot 13^{\frac{2 \cdot 2}{2 (1)}} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.9.4.2.2

Cancel the common factor.

$2197 - 1014 \sqrt{13} i + 15 \cdot 13^{\frac{2 \cdot 2}{2 \cdot 1}} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.9.4.2.3

Rewrite the expression.

$2197 - 1014 \sqrt{13} i + 15 \cdot 13^{\frac{2}{1}} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.9.4.2.4

Divide $2$ by $1$ .

$2197 - 1014 \sqrt{13} i + 15 \cdot 13^{2} {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.10

Raise $13$ to the power of $2$ .

$2197 - 1014 \sqrt{13} i + 15 \cdot 169 {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.11

Multiply $15$ by $169$ .

$2197 - 1014 \sqrt{13} i + 2535 {(- i)}^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.12

Apply the product rule to $- i$ .

$2197 - 1014 \sqrt{13} i + 2535 ({(- 1)}^{2} i^{2}) + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.13

Raise $- 1$ to the power of $2$ .

$2197 - 1014 \sqrt{13} i + 2535 (1 i^{2}) + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.14

Multiply $i^{2}$ by $1$ .

$2197 - 1014 \sqrt{13} i + 2535 i^{2} + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.15

Rewrite $i^{2}$ as $- 1$ .

$2197 - 1014 \sqrt{13} i + 2535 \cdot - 1 + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.16

Multiply $2535$ by $- 1$ .

$2197 - 1014 \sqrt{13} i - 2535 + 20 {\sqrt{13}}^{3} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.17

Rewrite ${\sqrt{13}}^{3}$ as $\sqrt{13^{3}}$ .

$2197 - 1014 \sqrt{13} i - 2535 + 20 \sqrt{13^{3}} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.18

Raise $13$ to the power of $3$ .

$2197 - 1014 \sqrt{13} i - 2535 + 20 \sqrt{2197} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.19

Rewrite $2197$ as $13^{2} \cdot 13$ .

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Step 2.1.19.1

Factor $169$ out of $2197$ .

$2197 - 1014 \sqrt{13} i - 2535 + 20 \sqrt{169 (13)} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.19.2

Rewrite $169$ as $13^{2}$ .

$2197 - 1014 \sqrt{13} i - 2535 + 20 \sqrt{13^{2} \cdot 13} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.20

Pull terms out from under the radical.

$2197 - 1014 \sqrt{13} i - 2535 + 20 (13 \sqrt{13}) {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.21

Multiply $13$ by $20$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} {(- i)}^{3} + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.22

Apply the product rule to $- i$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} ({(- 1)}^{3} i^{3}) + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.23

Raise $- 1$ to the power of $3$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} (- i^{3}) + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.24

Factor out $i^{2}$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} (- (i^{2} \cdot i)) + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.25

Rewrite $i^{2}$ as $- 1$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} (- (- 1 \cdot i)) + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.26

Rewrite $- 1 i$ as $- i$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} (- - i) + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.27

Multiply $- 1$ by $- 1$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} (1 i) + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.28

Multiply $i$ by $1$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 15 {\sqrt{13}}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.29

Rewrite ${\sqrt{13}}^{2}$ as $13$ .

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Step 2.1.29.1

Use $\sqrt[n]{a^{x}} = a^{\frac{x}{n}}$ to rewrite $\sqrt{13}$ as $13^{\frac{1}{2}}$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 15 {(13^{\frac{1}{2}})}^{2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.29.2

Apply the power rule and multiply exponents, ${(a^{m})}^{n} = a^{m n}$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 15 \cdot 13^{\frac{1}{2} \cdot 2} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.29.3

Combine $\frac{1}{2}$ and $2$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 15 \cdot 13^{\frac{2}{2}} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.29.4

Cancel the common factor of $2$ .

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Step 2.1.29.4.1

Cancel the common factor.

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 15 \cdot 13^{\frac{2}{2}} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.29.4.2

Rewrite the expression.

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 15 \cdot 13^{1} {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.29.5

Evaluate the exponent.

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 15 \cdot 13 {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.30

Multiply $15$ by $13$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 {(- i)}^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.31

Apply the product rule to $- i$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 ({(- 1)}^{4} i^{4}) + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.32

Raise $- 1$ to the power of $4$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 (1 i^{4}) + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.33

Multiply $i^{4}$ by $1$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 i^{4} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.34

Rewrite $i^{4}$ as $1$ .

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Step 2.1.34.1

Rewrite $i^{4}$ as ${(i^{2})}^{2}$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 {(i^{2})}^{2} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.34.2

Rewrite $i^{2}$ as $- 1$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 {(- 1)}^{2} + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.34.3

Raise $- 1$ to the power of $2$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 \cdot 1 + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.35

Multiply $195$ by $1$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 + 6 \sqrt{13} {(- i)}^{5} + {(- i)}^{6}$

Step 2.1.36

Apply the product rule to $- i$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 + 6 \sqrt{13} ({(- 1)}^{5} i^{5}) + {(- i)}^{6}$

Step 2.1.37

Raise $- 1$ to the power of $5$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 + 6 \sqrt{13} (- i^{5}) + {(- i)}^{6}$

Step 2.1.38

Factor out $i^{4}$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 + 6 \sqrt{13} (- (i^{4} i)) + {(- i)}^{6}$

Step 2.1.39

Rewrite $i^{4}$ as $1$ .

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Step 2.1.39.1

Rewrite $i^{4}$ as ${(i^{2})}^{2}$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 + 6 \sqrt{13} (- ({(i^{2})}^{2} i)) + {(- i)}^{6}$

Step 2.1.39.2

Rewrite $i^{2}$ as $- 1$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 + 6 \sqrt{13} (- ({(- 1)}^{2} i)) + {(- i)}^{6}$

Step 2.1.39.3

Raise $- 1$ to the power of $2$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 + 6 \sqrt{13} (- (1 i)) + {(- i)}^{6}$

Step 2.1.40

Multiply $i$ by $1$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 + 6 \sqrt{13} (- i) + {(- i)}^{6}$

Step 2.1.41

Multiply $- 1$ by $6$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 - 6 \sqrt{13} i + {(- i)}^{6}$

Step 2.1.42

Apply the product rule to $- i$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 - 6 \sqrt{13} i + {(- 1)}^{6} i^{6}$

Step 2.1.43

Raise $- 1$ to the power of $6$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 - 6 \sqrt{13} i + 1 i^{6}$

Step 2.1.44

Multiply $i^{6}$ by $1$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 - 6 \sqrt{13} i + i^{6}$

Step 2.1.45

Factor out $i^{4}$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 - 6 \sqrt{13} i + i^{4} i^{2}$

Step 2.1.46

Rewrite $i^{4}$ as $1$ .

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Step 2.1.46.1

Rewrite $i^{4}$ as ${(i^{2})}^{2}$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 - 6 \sqrt{13} i + {(i^{2})}^{2} i^{2}$

Step 2.1.46.2

Rewrite $i^{2}$ as $- 1$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 - 6 \sqrt{13} i + {(- 1)}^{2} i^{2}$

Step 2.1.46.3

Raise $- 1$ to the power of $2$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 - 6 \sqrt{13} i + 1 i^{2}$

Step 2.1.47

Multiply $i^{2}$ by $1$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 - 6 \sqrt{13} i + i^{2}$

Step 2.1.48

Rewrite $i^{2}$ as $- 1$ .

$2197 - 1014 \sqrt{13} i - 2535 + 260 \sqrt{13} i + 195 - 6 \sqrt{13} i - 1$

Step 2.2

Simplify by adding terms.

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Step 2.2.1

Subtract $2535$ from $2197$ .

$- 1014 \sqrt{13} i - 338 + 260 \sqrt{13} i + 195 - 6 \sqrt{13} i - 1$

Step 2.2.2

Add $- 1014 \sqrt{13} i$ and $260 \sqrt{13} i$ .

$- 754 \sqrt{13} i - 338 + 195 - 6 \sqrt{13} i - 1$

Step 2.2.3

Subtract $6 \sqrt{13} i$ from $- 754 \sqrt{13} i$ .

$- 760 \sqrt{13} i - 338 + 195 - 1$

Step 2.2.4

Simplify the expression.

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Step 2.2.4.1

Add $- 338$ and $195$ .

$- 760 \sqrt{13} i - 143 - 1$

Step 2.2.4.2

Subtract $1$ from $- 143$ .

$- 760 \sqrt{13} i - 144$

Step 2.2.4.3

Reorder $- 760 \sqrt{13} i$ and $- 144$ .

$- 144 - 760 \sqrt{13} i$