BUILDING QUANTITATIVE TRADING SKILLS: INTEGRATING LINEAR ALGEBRA AND CALCULUS INTO STEM PROGRAMS
Volume 3, Issue 1, Pp 10-21, 2025
DOI: https://doi.org/10.61784/wjmp3007
Author(s)
Stephen Kelvin Sata
Affiliation(s)
ICOF Global University, Lusaka, Zambia.
Corresponding Author
Stephen Kelvin Sata
ABSTRACT
Algorithmic or quantitative trading, using arithmetic models and statistical tools, has become the essence of today’s financial markets. An excellent theoretical background is crucial for evolving as an expert in this field, and constant training is necessary since different trading models demand linear algebra, calculus, and other forms of mathematics.
Linear algebra encompasses matrix operations and vectors, which help sort and analyze big financial data. They help traders understand the relationships among assets, improve their portfolios, and build a new strategy based on factors. Math, which emphasizes derivatives and integrals, is helpful for rates of change, fluctuations, and significant market trends. Combined, these fields provide people with a highly effective arsenal of tools and methods for modelling the market and predicting its action.
These skills can be pre-installed in high school and university STEM programs by applying linear algebra and calculus to real-life lessons. For example, using a matrix, students may engage in activities which include optimizing a portfolio and using correlation coefficients in a given risk and return scenario. Some calculus problems that could be used in the teacher instructions could be differentiation to determine the rate of change of an asset price or integration in the determination of accumulative returns.
Apart from theory, quantitative trading requires computational skills to support it. Languages such as Python and R make it possible to automate the processing and analysis of large datasets. By integrating mathematical concepts with programming, students are placed in a position where they are Programming Application: Through programming, students can implement simple trading strategies and test them using actual market data.
By adopting these interdisciplinary approaches to STEM, students are capable of entering finance-related careers, data science, and other careers. When curricula are aligned with market requirements, educational institutions prepare a generation of people with strong mathematical backgrounds and technology literacy capable of working in a data society.
KEYWORDS
Quantitative;Trading; Linear algebra; Calculus & sTEM
CITE THIS PAPER
Stephen Kelvin Sata. Building quantitative trading skills: integrating linear algebra and calculus into STEM programs. World Journal of Mathematics and Physics. 2025, 3(1): 10-21. DOI: https://doi.org/10.61784/wjmp3007.
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