Back To Projects

Improving User Retention in Video Game Industry

Ethan V.

This research paper delves into the intersection of player data analytics and affective computing to predict and adapt game difficulty levels for the purpose of enhancing player retention in the gaming industry.


This research paper delves into the intersection of player data analytics and affective computing to predict and adapt game difficulty levels for the purpose of enhancing player retention in the gaming industry. The study used two Kaggle datasets which include a facial emotion dataset and real-time call of duty player data. A novel emotion detection model, leveraging transfer learning, is constructed to discern a spectrum of emotions from player facial expressions. The emotional context extracted from this model is seamlessly integrated with player data, facilitating a supervised learning task centered on predicting changes in game difficulty levels—a pivotal factor in player engagement. Several machine learning models including K-Nearest Neighbors, Decision Trees, Random Forests, MLP Classifiers, AdaBoost, and Gaussian Naive Bayes were employed to use emotion and player data to predict difficulty changes that will raise player retention.

Explore More!

Ethan V.
Anjali Singh

Related Projects

What Data is Needed to Accurately Determine Someone's Mental Health?

If we determine which data is actually necessary, we can build better user trust while maintaining the efficacy of a chatbot.
Claire L.
Mentored by Katie O'Nell
Structure-Based Analysis of Parkinson’s Disease Protein Mutations: Comparative Analysis of Computational and Experimental SNCA Structures

This study uses AI-based protein modeling tools such as AlphaFold and ColabFold to compare wild-type and mutant α-synuclein structures in Parkinson’s disease, evaluating their interactions with pharmacologically relevant ligands. By integrating structure prediction with molecular docking, the research highlights both the potential and limitations of computational methods for understanding mutation-specific effects and guiding drug discovery efforts.
Arya S.
Mentored by Khanh Nguyen
Attention LSTMs in Multimodal Models: A holistic approach to predicting COVID infection trends

In our search for a way to simultaneously predict all state-level COVID infection rates in the United States with COVID heat maps and domestic flight graphs, we propose novel methods of processing graph and image sequences with attention-based LSTM layers as well as evaluate the effectiveness of different multimodal fusion techniques.
Nuo W.
Mentored by Eric Bradford