Special Products of Polynomials

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Presentation transcript:

Special Products of Polynomials Notes 7.3

Example 1: Using the Square of a Binomial Pattern Find each product. a. 3𝑥+4 2 b. 5𝑥−2𝑦 2

You Try! Find each product. 1. 𝑥+7 2 2. 7𝑥−3 2

You Try! Find each product. 3. 4𝑥−𝑦 2 4. 3𝑚+𝑛 2  

Example 2: Using the Sum & Difference Pattern Find each product. a. 𝑡+5 𝑡−5 b. 3𝑥+𝑦 3𝑥−𝑦  

Example 3: using Special Product Patterns & Mental Math  Use special product patterns to find the product 𝟐𝟔∗𝟑𝟒  

You Try! Find the product. 5. (𝑥+10)(𝑥−10) 6. (2𝑥+1)(2𝑥−1) 5. (𝑥+10)(𝑥−10) 6. (2𝑥+1)(2𝑥−1) 7. (𝑥+3𝑦)(𝑥−3𝑦)  

Example 4: Modeling with Mathematics A combination of two genes determines the color of the dark patches of a border collies’s coat. An offspring inherits one patch color gene from each parent. Each parent has two color genes, and the offspring has an equal chance of inheriting either one.   The gene B is for black patches, and the gene r is for red patches. Any gene combination with B results in black patches. Suppose each parent has the same gene combination Br. The Punnett square shows the possible gene combinations of the offspring and the resulting patch colors. a. What percent of the possible gene combinations result in black patches?

Example 4: Modeling with Mathematics A combination of two genes determines the color of the dark patches of a border collies’s coat. An offspring inherits one patch color gene from each parent. Each parent has two color genes, and the offspring has an equal chance of inheriting either one.   The gene B is for black patches, and the gene r is for red patches. Any gene combination with B results in black patches. Suppose each parent has the same gene combination Br. The Punnett square shows the possible gene combinations of the offspring and the resulting patch colors. b. Show how you could use a polynomial to model the possible gene combinations.

You Try! 9. Each of two dogs has one black gene (B) and one white gene (W). The Punnett square shows the possible gene combinations of an offspring and the resulting colors. a. What percent of the possible gene combinations result in black?   b. Show how you could use a polynomial to model the possible gene combinations of the offspring.