🧮 algebra

1. Let's start by defining the **asymptote**. An asymptote is a line that a graph approaches but never actually touches or crosses as the input or output values become very large o

1. **State the problem:** Simplify the expression $x + x$. 2. **Formula and rules:** When adding like terms, you add their coefficients. The variable part remains the same.

1. Let's start by defining the **domain** of a function. The domain is the set of all possible input values (usually $x$) for which the function is defined. 2. For example, if you

1. Let's start by defining the **asymptote**. An asymptote is a line that a graph approaches but never actually touches or crosses. It shows the behavior of the graph at extreme va

1. **State the problem:** Simplify the expression $2x + 2x$. 2. **Formula and rules:** When adding like terms, add their coefficients and keep the variable part the same.

1. **State the problem:** Simplify the expression $2x + 2x$. 2. **Formula and rules:** When adding like terms, add their coefficients and keep the variable part the same.

1. **State the problem:** Simplify the expression $2x + 2x$. 2. **Formula and rules:** When adding like terms, add their coefficients and keep the variable the same.

1. **State the problem:** Simplify the expression $x + x$. 2. **Formula and rules:** When adding like terms, you add their coefficients. Here, both terms are $x$, which means the c

1. **State the problem:** Simplify the expression $x + x \times x$. 2. **Recall the order of operations:** Multiplication is performed before addition.

1. **Problem statement:** A rectangular pen is to be built with 1200 m of fencing, divided into three parts by two parallel partitions. We need to find the maximum possible area of

1. **State the problem:** Factor the quadratic expression $x^2 + 9x + 18$. 2. **Recall the factoring formula:** For a quadratic $ax^2 + bx + c$, we look for two numbers that multip

1. **State the problem:** Simplify the expression $x \times x - x \times 2$. 2. **Recall the rules:** Multiplication is associative and distributive over subtraction.

1. The problem: Understand and explain the exponent rules. 2. Exponent rules are formulas that help us simplify expressions involving powers.

1. Let's start by stating the problem: We want to understand the basic rules of exponents, which help us simplify expressions involving powers. 2. The main exponent rules are:

1. The problem is to simplify the expression $\frac{a}{a}$. 2. The formula used here is the property of division where any non-zero number divided by itself equals 1, i.e., $\frac{

1. **State the problem:** Simplify the expression $x + x$. 2. **Formula and rules:** When adding like terms, you add their coefficients. The variable part remains the same.

1. **State the problem:** Simplify the expression $x + x$. 2. **Formula and rules:** When adding like terms, you add their coefficients. The variable part remains the same.

1. **State the problem:** Simplify the expression $x + x$. 2. **Formula and rules:** When adding like terms, you add their coefficients. The variable part remains the same.

1. **State the problem:** Simplify the expression $x + x$. 2. **Recall the rule:** When adding like terms, you add their coefficients.

1. The problem is to simplify the expression $x \times x \times x$. 2. Recall the rule of exponents: when multiplying the same base, add the exponents. Here, each $x$ is to the pow

1. **State the problem:** Simplify the expression $x + x \times x^2$. 2. **Recall the order of operations:** Multiplication and exponentiation are performed before addition.