Contextualization
Introduction to Systems of Equations
A system of equations is a set of two or more equations that share the same set of variables. These systems can be defined as consistent (having at least one solution) or inconsistent (having no solutions), dependent (having infinitely many solutions), or independent (having exactly one solution). They are an invaluable tool in mathematics and related fields, as they allow for the understanding and solving of complex problems that involve more than one variable.
There are several methods for solving a system of equations such as substitution, graphing, and elimination. Each method has its benefits and may be more optimal to use depending on the specific system of equations at hand. Substitution usually involves solving one equation for one variable in terms of the others, and then substituting this expression into the other equations. Graphing involves plotting the equations as lines in the same coordinate plane, and the solution is the point of intersection. Elimination involves adding or subtracting the equations in order to eliminate one variable, making it possible to solve for the remaining one.
Additionally, systems of linear equations, which are perhaps the most common, can be represented in matrix form. This is helpful for visualizing the system, and can be solved more easily using methods like matrix inversion or Gaussian elimination. This representation is particularly useful in computer programming and numerical computations.
Realworld Applications
The applications of systems of equations are not only confined to the realm of mathematics. They can be found in a variety of realworld situations. For instance, they are often used in physics to solve problems that involve motion, force, and energy. In economics, they help in understanding and analyzing supply and demand, production, and other factors. In engineering, systems of equations are used in a plethora of areas such as control systems, signal processing, and many more.
This project aims to integrate the theoretical understanding and realworld application of systems of equations. It will challenge students to solve complex problems using teamwork and diverse theoretical knowledge.
Suggested Resources
For a solid foundation and deeper understanding of the topic, students should consider the following resources:
 Khan Academy: Systems of Equations
 Purplemath: Systems of Linear Equations
 Math is Fun: Systems of Linear Equations and Word Problems
 Wolfram MathWorld: System of Equations
 OpenStax: Systems of Linear Equations
Additionally, students are encouraged to explore other resources for more examples and practice problems, as well as to enhance their understanding and application skills.
Practical Activity
Activity Title: "Operational Control of a Theme Park: A Systems of Equations Challenge"
Objective of the Project
This project aims to translate reallife problems into systems of equations and solve them. Students will apply their knowledge of algebra to solve practical problems, which will enhance their understanding of the subject while also improving their problemsolving, teamwork, and critical thinking abilities.
Detailed Description of the Project
Teams will play the role of Operational Managers at an imaginary theme park. The park has various attractions, each with different operating costs, maintenance needs, and visitor capacities. The objective is to find the optimal way to manage the park within a specific budget while maximizing the number of visitors and minimizing costs. Students will use systems of equations to model different scenarios, such as changes in pricing, operating times, and maintenance schedules.
Necessary Materials
 A laptop or computer with internet access for researching costs and other relevant data.
 A calculator for performing mathematical operations.
 Paper and pencil for sketching models and taking notes.
 Spreadsheet software, such as Google Sheets, for organizing data and calculating results.
Detailed StepbyStep Process

Research and Data Gathering: Each team will research operational costs, visitor capacities, and other relevant details for various types of theme park attractions. This data will be used to create a hypothetical theme park.

Creation of the Theme Park: Each group will decide on the attractions they want to include in their park. They should ensure that they have a variety of attractions and that their total costs are within the provided budget.

Problem Formulation and Solving: Students will formulate systems of equations based on the operational data of the park, such as the cost of maintaining attractions and the number of visitors each attraction can hold per day. They will then solve these systems of equations to determine optimal solutions. This might involve using different methods for different equations, such as substitution, graphing, or elimination.

Report Writing: After solving the systems and drawing conclusions, students will document their findings in a detailed report.
Project Deliverables
Each group will submit a detailed report comprising:
 Introduction: Describe the purpose of the project, the importance of systems of equations in realworld applications, and the hypothetical theme park.
 Development: Detail the systems of equations used, how they were formed, the methods used to solve them, and the results obtained. Also, explain the process you followed in conducting the research and formulating the systems of equations. Include diagrams or charts where necessary.
 Conclusion: Reflect on the project, the challenges faced, the learnings gained, and the importance of systems of equations for problemsolving. Also, evaluate your theme park operation based on your results. Could it be run profitably and effectively? Why or why not?
 Bibliography: List the resources used to gather information about the operational costs, visitor capacities, etc. Also, cite the resources you used to understand and solve the systems of equations.
This project will take about 12 to 15 hours to complete, allowing for research, problemsolving, and report writing. It gives students an opportunity to apply mathematical concepts to reallife situations, develop their problemsolving skills, and learn to work collaboratively.