Luke Weaver
Undergraduate at Lehigh University -
studying condensed matter physics
About Me

Hey there! Thanks for stopping by. My name is Luke Weaver and I am an undergraduate at Lehigh University where I have the pleasure of studying physics with a bunch of cool people. Before you dive right in and take a look at my little webpage, I have a small preamble to get you caught up with my background!

Before starting college, I worked at an insurance technology startup called Benefix as an Associate Software Engineer. While there, I met several incredible people who fostered my curiosity and encouraged me to continue learning.

Early in my college career, before I knew what I wanted to study, I met a professor who introduced me to their research and invited me to join their research group. Incidentally, they were a physics professor. Before long, I found myself engrossed in the subject and I realized that I never wanted to stop researching. Naturally, this led to my decision to study physics!

An important theme I want to highlight before you move on to the next section - assuming you've read this at all - is that without the wonderful people that I have met throughout my life, I have no idea where I would be or what I would be doing. So, to the many mentors, friends, roommates, and family members who have encouraged and helped guide me, I give the most sincere thank you.

Research
Luke Weaver
Department of Physics, Lehigh University, Bethlehem, PA 18015, USA
(Dated: )
 I have researched at several institutions including Lehigh University, the Singapore University of Technology and Design, and CERN. Consequently, I developed a broad array of skills that are particularly useful in research, including data analysis, physical vapor deposition, optical alignment/laser usage, cryogenics, and hardware-level programming. I intend to continue my research journey, learning as much as I can.
Quantum Beats in Crystalline Rubrene
I work with a group of incredible people at Lehigh University under the watchful eye of Dr. Ivan Biaggio. We study quantum phenomena in crystalline rubrene, namely a phenomenon known as quantum beats. Rubrene exhibits interesting effects which are pretty unexpected. We are working to explain them.
 During this project, I have become familiar with physical vapour deposition, optical alignment, laser usage, real world applications of quantum mechanics, and photonics.
Slosh Measuring System for Liquid Carrying Robots
At the Singapore University of Technology and Design I worked to develop a system to measure the influence of locomotion on liquids in omnidirectional robots. Then, I utilized Delaunay Triangulation and cubic spline interpolation to model the surface of the liquid using the experimental data.
  To achieve this goal, I wrote hardware-level code for communication between the microcontrollers and sensor devices, including the implementation of Serial, Bluetooth, and I2C protocols. Additionally, I created monitoring tools for real-time data collection and analysis.
H6 Secondary Beamline Focusing at CERN
In Progress
Curriculum Vitae
Luke Weaver
It is important to note that these lecture notes, are {\bf not} a substitute for the literature that exists. In general, they will contain a brief synopsis of the theory presented, when relevant, and several features to help guide the experimental process. Included in these features are guiding questions and keywords designed to facilitate further exploration of a topic and to provide you with a starting point to catalyze the experimentation process. The frequency and overt nature of these questions/keywords will decrease as the class progresses, in favor of your own development of these questions. In general, it is helpful to sit with a new topic before beginning any "exciting" things and create a list of questions that may pop into your head, or conduct a brief survey of the topic to familiarize yourself with its ins and outs. Additionally, you will notice that the format of these notes is a little strange. Namely, there exists a larger than average right margin. The idea behind this is that it provides you with a natural place to place any questions, comments, or notes from the short weekly lectures. One last note before we begin. Amongst the individuals in the class, there is often a large variation with respect to knowledge and skillset. It is important to recognize this and to ask others for help/offer help when necessary. Scientific inquiry is bolstered by community and humility. \pagebreak \section{Week 1} Throughout this course, we will use many different tools, including \LaTeX, LabView, and your choice of programming language (with a heavy emphasis on Python of course). So, for the first week, we will focus on installing the necessary programs and packages to tackle this semester. \subsection{Python} \subsection{Arduino IDE} \subsection{\LaTeX} \LaTeX \space is a markup language that is used in science communication and in general writing. It provides tools that make writing equations and formatting documents easy. During this class, you will become familiar with using \LaTeX. \subsubsection{Web Application} One of the easiest ways to get started with \LaTeX \space is through the online web application {\it Overleaf}. Thanks to Lehigh, we all have access to the professional version as long as you create an account with your Lehigh University email. It provides access to various packages and templates, that you do not need to install. \subsubsection{Local Installations} If you would like to learn \LaTeX a little better, one can use a local installation. For Mac, I would recommend {\it Texifier}. The free version works well enough for all intents and purposes. Alternatively, one can navigate to http://latex-project.org and download the relevant \TeX \space distributions for your device. \subsection{LabView (Optional)} \end{document}
General Relativity Notes
Luke Weaver
Nonlinear Optics Notes
Luke Weaver
Advanced Physics Lab I - Lecture Notes
AT - Luke Weaver
I. Preface
Hello and welcome to Advanced Physics Lab I. This course has one main goal in mind: discovery. Of course, the heart of physics is the desire to discover and seek new and exciting things. Unfortunately, one can have a hard time truly embracing this ideal, it's not how the school system is oriented after all. As a result, this course will be unlike the others that you have taken, placing an emphasis on individual and group efforts to solve problems. It is worth making these differences concrete in an effort to temper your expectations for the upcoming semester. This lab differs in quite a few ways from your generic lab.
I.II How To Use The Lecture Notes
It is important to note that these lecture notes, are not a substitute for the literature that exists. In general, they will contain a brief synopsis of the theory presented, when relevant, and several features to help guide the experimental process. Included in these features are guiding questions and keywords designed to facilitate further exploration of a topic and to provide you with a starting point to catalyze the experimentation process. The frequency and overt nature of these questions/keywords will decrease as the class progresses, in favor of your own development of these questions. In general, it is helpful to sit with a new topic before beginning any "exciting" things and create a list of questions that may pop into your head, or conduct a brief survey of the topic to familiarize yourself with its ins and outs.
 Additionally, you will notice that the format of these notes is a little strange. Namely, there exists a larger than average right margin. The idea behind this is that it provides you with a natural place to place any questions, comments, or notes from the short weekly lectures.
 One last note before we begin. Amongst the individuals in the class, there is often a large variation with respect to knowledge and skillset. It is important to recognize this and to ask others for help/offer help when necessary. Scientific inquiry is bolstered by community and humility.
Publications
Persistence of spin
coherence in a
crystalline environment
Slosh Measuring System
for Liquid Carrying
Robots