Write the following equations in factored form. Remember to common factor first

(if possible).
𝑦 = 2π‘₯power 2 + 3π‘₯ βˆ’ 2

First, let's see if we can common factor anything. The coefficients of the quadratic term and the linear term are both even, so we can factor out a 2:

𝑦 = 2(π‘₯power 2 + (3/2)π‘₯ βˆ’ 1)

Now we need to factor the quadratic term inside the parentheses. We can use either factoring by grouping or the quadratic formula. For this example, we'll use factoring by grouping:

𝑦 = 2(π‘₯ βˆ’ 1/2)(π‘₯ + 2)

So the factored form of the equation 𝑦 = 2π‘₯power 2 + 3π‘₯ βˆ’ 2 is 𝑦 = 2(π‘₯ βˆ’ 1/2)(π‘₯ + 2).

To factorize the quadratic equation 𝑦 = 2π‘₯Β² + 3π‘₯ - 2, we'll need to find two binomials that multiply to give us the original equation.

1. Start by looking for a common factor among the terms:
In this case, there is no common factor among the terms.

2. Next, we need to find two numbers that multiply to give π‘Ž Γ— 𝑐 (in this case, 2 Γ— -2) and add up to give 𝑏 (in this case, 3).
The numbers that satisfy these conditions are 4 and -1.

3. Rewrite the equation using these two numbers as coefficients for the middle term:
𝑦 = 2π‘₯Β² + 4π‘₯ - π‘₯ - 2

4. Group the terms:
𝑦 = (2π‘₯Β² + 4π‘₯) - (π‘₯ + 2)

5. Factor out the common factors from each group:
𝑦 = 2π‘₯(π‘₯ + 2) - 1(π‘₯ + 2)

6. Notice that there is now a common binomial factor of (π‘₯ + 2). We can factor that out:
𝑦 = (π‘₯ + 2)(2π‘₯ - 1)

Therefore, the factored form of the equation 𝑦 = 2π‘₯Β² + 3π‘₯ - 2 is (π‘₯ + 2)(2π‘₯ - 1).