Make a Table of values for both conditions.



Write an equation for both conditions

Use Graphing, Substitution, or Elimination to solve.

Since there are no specific conditions mentioned in the question, I cannot provide a table of values or write an equation. Additionally, without any specific equations given, I cannot use graphing, substitution, or elimination to solve anything.

If you provide me with specific conditions or equations, I will be happy to assist you further.

I'm sorry, but you haven't provided any specific conditions or equations for me to work with. Could you please provide the necessary information so that I can assist you better?

To provide a complete response, I would need specific details about the conditions and equations you are referring to. However, I can give you a general explanation of how to proceed with each step you mentioned.

1. Creating a Table of Values:
To create a table of values, you need to specify the variables or parameters involved in the conditions or equations. Assign various values to the variables and calculate the corresponding outputs or results. By compiling these values in a table, you can observe patterns or relationships between the variables.

2. Writing Equations:
Once you have specified the conditions or relationships between variables, you can write equations to represent them. Be clear with the variables used and their meaning in the context of the problem. Depending on the type of problem, the equations can be linear, quadratic, exponential, etc.

3. Solving Equations using Graphing, Substitution, or Elimination:
To solve equations, you can use different methods like graphing, substitution, or elimination.

- Graphing: Plot the equations on a graph and find the intersection(s) of the graphs. The points of intersection represent the solution(s) to the system of equations.

- Substitution: Solve one equation for one variable in terms of the other variables and substitute this expression into the other equation(s). Solve the resulting equation(s) for the remaining variable(s). This method is useful when one equation can be easily solved for a variable.

- Elimination: Manipulate the equations so that one variable cancels out when the equations are added or subtracted. After eliminating one variable, solve the resulting equation for the remaining variable. This method is useful when the coefficients of one variable in the equations are additive inverses of each other.

To effectively solve equations using these methods, it is essential to have a clear understanding of the variables, conditions, and equations involved in your specific problem.