Can One Study Electrical Engineering with Limited Math and Physics Knowledge and Still Achieve High Academic Success?
Academic success in electrical engineering often requires a strong foundation in mathematics and physics. However, the journey to achieving a high academic standing, such as a first-class degree, is not insurmountable for those who face challenges in these subjects. Here, we explore the possibility of studying electrical engineering with limited prior knowledge, emphasizing the importance of hard work and focus.
Challenges and Determination
Despite the critical role of mathematics and physics in electrical engineering, some students may not have excelled in these areas initially. For instance, the complexity of calculus, differential equations, and matrix algebra can present significant hurdles. However, with dedicated effort and a strong commitment to learning, it is possible to overcome these initial challenges. According to my experience, while differential equations and matrix algebra may seem daunting, they are often manageable with the right approach and guidance.
Strategic Planning and Support
To increase the chances of academic success in electrical engineering, several strategic steps are essential:
Consult with an Engineering Advisor: A program advisor can provide valuable insights into the necessary prerequisites and recommend adjustments to your study plan. By discussing your background with an advisor, you can identify areas where additional support or preparation is needed. Leverage Community College Resources: Before diving into a more expensive engineering program, secure your foundation in mathematics and physics through community college courses. These can significantly reduce the financial burden while providing a solid academic base. su?tive Work and Focus: Success in electrical engineering is largely dependent on the amount of hard work and focus you can muster. Embrace the inherent difficulty of the subject and stay determined throughout your studies. Understanding that the concepts are abstract and often difficult to visualize can also help maintain motivation.Curriculum and Learning Path
The curriculum in electrical engineering is designed to be challenging, with concepts that are inherently foreign and abstract. Fields such as Laplace Transforms and Fourier Analysis, for example, can be complex, but they become more approachable with practice. While linear circuits can be tackled with an algebraic background, differential equations and matrix algebra become necessary when studying non-linear devices and electromagnetic fields.
The learning path tends to be sequential, with math and physics concepts being taught in parallel with engineering courses. For instance, initial electrical engineering courses often assume a solid grasp of basic algebra, while more advanced courses delve into calculus, differential equations, and matrix algebra. This structured progression ensures that you build a comprehensive understanding of the underlying principles.
Conclusion and Practical Advice
In the United States, one can still enroll in electrical engineering classes, but a solid background in math and physics is required to graduate with an engineering degree. Electrical engineering is essentially a specialized field of applied physics, and a strong grasp of these foundational subjects is key to advancing in the field.
Based on my teaching experience, some of the biggest challenges students face in electrical engineering come from their lack of mathematical skills. For those starting with limited knowledge, it is crucial to work on strengthening these skills before tackling more complex engineering problems. As a side note, industrial engineering (IE) programs tend to be less rigorous in terms of math requirements, a factor that differentiates them from traditional engineering disciplines.
Ultimately, while initial challenges may seem insurmountable, a combination of hard work, strategic planning, and support from advisors can pave the way to a successful career in electrical engineering, no matter the starting point.