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I'm currently going into my fourth year of engineering taking Engineering Physics and Computing. To me, engineering is all about creativity - I strive to solve complex problems in inventive ways.  From applying my learnings while working as a data scientist to exploring challenging problems in Quantum Mechanics, I am always looking for ways to understand the "Why?" behind a problem. To learn a bit about my process when tackling engineering & design problems, look here, otherwise, check out some of the work I've done below. 

Hi, I'm Alex Chase, I'm an aspiring

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Engineering Physics and Computing

I chose Engineering Physics because I am fascinated by the way that physical principles and theory explain some of the most complex systems in our world and universe. Although a highly technical degree, it requires me to think outside the box, and as such, it is the perfect opportunity to reconcile my creative passions with my desire to understand complex problems. In Engineering Physics, my core courses offer a robust foundation in math, physics and engineering, while also allowing me to learn about groundbreaking fields such as Laser Optics, Nanotechnology and Quantum Mechanics. Below, I've highlighted some of the courses I've taken and notable coursework. In my professional experience, Engineering Physics has prepared me with advanced problem-solving and instrumentation skills, and mathematical, analytical, and abstract-thinking ability - all of which have proven to be invaluable when tackling modern engineering and design problems. 

Quantum Physics of Atoms, Nuclei and Particles

Relativity & Quanta

Data Structures & Algorithms

Computer Architecture

4th Year

Introduction to General Relativity

4th Year

Nuclear Physics

Fourier Methods & Boundary Value Problems

Digital Systems

Electricity & Magnetism

Thermodynamics

4th Year

Introduction to Medical Physics

4th Year

Neural Netoworks & Genetic Algorithms

The Classical Limit of the Quantum Harmonic Oscillator

The Classical Limit of The Quantum Harmonic Oscillator was a research project conducted during my third year of university. It explores a famous problem in quantum mechanics called The Quantum Harmonic Oscillator which can be thought of as a simple pendulum - just on an extremely small scale. In my paper, I explore the nature of this system as it approaches a macroscopic scale and work to reconcile the physical models outlined by Classical Mechanics and Issac Newton's Laws of Motion with the system defined by Quantum Mechanics.  This project was the perfect opportunity for me combine a complex technical understanding with creative ability. Check out the brief creative video which demonstrates my ability to effectively communicate complex and technical concepts in a clear and simple way. Further, take a look at the interactive applet I developed below using Python and HTML.  

RSA 
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Applet
Here, it is interesting to note that as the size of the system "n" increases, the Quantum and Classical probability distributions appear to approach one another.
QM
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