Should High Schools Teach Multivariable Calculus and Advanced Mathematics?

Should High Schools Teach Multivariable Calculus and Advanced Mathematics?

High school curricula are constantly evolving to meet the

needs of students and prepare them for higher education and the workforce. Among these evolving topics, multivariable calculus and advanced mathematics stand out as areas that could significantly benefit many students. This article explores the advantages and considerations of including these subjects in the high school curriculum.

The Case for Teaching Multivariable Calculus and Advanced Mathematics

Supporters of including multivariable calculus and advanced mathematics in high school curricula argue that these subjects provide a deep understanding of fundamental concepts that are crucial for students pursuing careers in science, engineering, and mathematics. According to one perspective, high schools should offer courses covering all four levels of calculus, including differential calculus, integration, differential equations, and multivariable calculus. This would equip students with a solid foundation in mathematical tools that are indispensable in fields such as physics, where multivariable calculus is used to model magnetic and electric fields and fluid motion.

Specific Mathematics Topics in High School Curricula

In addition to multivariable calculus, high schools should consider incorporating the following advanced mathematical topics:

Linear Algebra 1: Vectors, dot products, cross products, planes, and spaces. Linear Algebra 2: Matrices, determinants, inverse matrices, systems of equations, linear transformations, eigenvalues, eigenvectors, and diagonalization. Set Theory: Basic notations and their interpretations. Statistics: Normal distribution, t-tests, chi-squared tests, signed rank tests, probability generating functions (PGFs), probability density functions (PDFs), and using calculus in probability theory. Other Basic Math Requirements: Trigonometric and hyperbolic functions, Cartesian and polar coordinate systems, De Moivre’s theorem, conic sections.

By incorporating these topics, high schools can prepare students for the rigors of higher education and enhance their ability to apply mathematical concepts to real-world problems.

The Counterargument: Focusing on Traditional Subjects

Others argue that the standard year-long high school calculus course should reflect the first two semesters of college calculus, focusing on limits, derivatives, and basic integrals. They believe that courses like Calculus AB, which often spend too much time on algebra 2 and trigonometry, are unnecessary and unproductive. These supporters advocate for a curriculum that includes:

Pre-Calculus: Trigonometry, analytic geometry, and limits and continuity. Single-Variable Calculus: Derivatives, integrals, sequences and series, and separable and linear ODEs. For multivariable calculus and linear algebra, students can take these subjects through dual credit college classes, online platforms like Stanford Online High School, or EdX courses.

They argue that offering multivariable calculus as a regular class would only benefit a few students, making it impractical to include it in the standard curriculum. Instead, schools can offer credits and funding for students to pursue these topics through alternative learning pathways.

Conclusion

The debate on whether high schools should teach multivariable calculus and advanced mathematics is ongoing. While some believe it is essential for a well-rounded education in STEM fields, others argue for a more focused and practical approach. Ultimately, the decision should be based on the needs of the student population and the resources available to the school.