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💬 Ask me about: My post-university plans!
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📫 How to reach me: jessie.kurtz@mail.mcgill.ca
👨💻 Reinforcement Learning - COMP 579 @McGill:
- Enhanced a trading Deep Q-Network with components from the Rainbow DQN architecture (Dueling Networks, Noisy Nets, Prioritized Experience Replay) and implemented an Actor-Critic algorithm.
- Demonstrated improved trading performance on Tesla and Apple stocks, maintaining profitability even during market downturns.
- Applied Deep Q-Network (DQN) and Expected SARSA algorithms to an Atari game and an Acrobot robotic arm system.
- Demonstrated effective learning in both environments.
👨💻 Applied Machine Learning - COMP 551 @McGill:
- Evaluated DistilGPT-2, Multinomial Naive Bayes, and Random Forest models for classifying the GoEmotions dataset, focusing on accuracy, recall, and efficiency.
- DistilGPT-2 performed best, with a test accuracy of 0.6168.
- Asessed MLPs, CNNs, and MobileNetV2 for classifying the OrganAMNIST dataset, emphasizing accuracy, recall, and computational efficiency.
- MobileNetV2 with frozen convolutional layers and trainable fully connected layers achieved the best results, with a test accuracy of 0.9249.
- Compared mini-batch stochastic gradient descent (SGD) to full-batch SGD to predict average oral temperatures.
- Mini-batch SGD presented quick convergence and a high R^2 score
- Compared mini-batch stochastic gradient (SGD) to full-batch SGD to predict presence or absence of diabetes.
- Mini-batch SGD presented quick convergence and a high F1 score
👨💻 Older Projects:
- Created a full-stack web application in a team of 6 following an Agile methodology.
- Modified the UI according to three different user roles, here Owner, Instructor and Customer.
- Implemented 403 and 404 error pages for security and usability of the application.
- Designed the frontend in Vue, using Vuetify and Bootstrap frameworks.
- Configured the backend in Java using the Spring Boot framework.
- Assembled and programmed a robot to deliver the correct fire suppressant cubes to three hypothetical fires located on a grid, according to user input.
- Utilized control sensors, motors, a BrickPi and a Raspberry Pi.
- Used Breadth-First-Search (BFS) Algorithm, coded in Python, to find the quickest path to the hypothetical fires on the map.
