CSE 2025 Spring Departmental Demo Day

We're thrilled
to invite you to the thirteenth bi-annual Comp. Sci. & Eng. Fall Demo Day. Student groups from several CSE capstone classes will be presenting the culmination of 3-months of effort, hard work, (metaphorical) blood, sweat (well... caffeine really), and tears (see above).
Davis Hall; 1st and 2nd Floor Atrium
Tuesday, May 6th, 2025
Schedule
Setup
Setup will start at Noon. Tables will be available for both sponsors (each sponsor will get a table) and demo participants (2 to a table). Easels will be available for participants. If you need power, please let us know! If you have any other special requests, please contact ahunt@buffalo.edu to let me know, and we will do our best to accomodate you. There are two hours reserved for setup - you can come at any time during that period to get organized, but please make sure you leave yourself enough time to be ready to go by 2PM, to give you the chance to network.
Networking
Before we open the atrium to students and the public, we’ll have some time reserved for the participants to come and chat with the sponsors and the judges. Pizza will be there as well (A big thank you to our sponsors!), so that the participants and sponsors can have a chance to eat before demos begin!
Judging
During the demo, judges will circulate to the participants demo stations, and they will be rating each project on a specific set of criteria. Judges, expect to spend approximately five minutes with each team, in order to give you time to see them all. You will be assigned a set of projects to view specifically, but you can feel free to talk to more teams as time permits! Teams, keep this in mind and keep your presentations crisp and to the point!
Prizes
There will be prizes for the top teams selected by the judges. They will be announced in the atrium, and there will be a quick photo op for each winner. Good luck to everyone, and I can’t wait to see you all there!

Winners
1st Place - TBD
2nd Place - TBD
3rd Place - TBD
Acknowledgements
Judges
- Chris Miller
- Anarghya Das
- Jim Brandt
- Karlene Kardysauskas
- Kyle Daving
- Nicholas Myers
- Nick Minor
- Nicholas MacRae
- Luke Gardiner
- Nitin Kulkarni
- Alina Vereshchaka
- Mostafa Mohammed
- Sai Roshan Ayyalasomayajula
Presented Projects
(CSE 611: Master's Capstone Project)
- Gaitless Feet Height Control Quadrupedal Robot
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The project aims to train a policy which enables a GO2 quadrupedal operator to control feet height without any designed gaits. If possible we will enable it to climb stairs with a blind policy.
- Kaleida Health App 4.0
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- M V N S H Praneeth
- Neellohit Somayajula
- Muhammad Waseem Thameem Ansari
- Sri Bhargava Bhamidi
- Mayush Timmapuram
Kaleida Health App 4.0 primarily focuses on improving communication between patients and family, helping patients and their families follow their medical journey, having physician teams provide customized information on diagnosis for patients, and most importantly, decreasing patient anxiety about the hospitalization process.
(Blockchain Think Lab)
- Blind Match
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We propose a library in Golang to for parallelized homomorphic cosine similarity operations. To demonstrate our implementation we also present Blind Match. A Fuzzy Private set intersection protocol to efficiently compare encrypted entity data using TF-IDF vectors while preserving privacy. To reduce the computational cost of homomorphic encryption, we exploit the sparsity of n-gram TF-IDF vectors and apply com- pression techniques that maintain cosine similarity, such as Fourier and Orthonormal Wavelet Transforms. Our project leverages the CKKS encryption scheme for secure dot product computations and is developed as an open-source Go Implementation
(Independent Study / Research)
- DriverSight: Dynamic Attention for Distraction Detection
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DriverSight is a real-time system that leverages dynamic attention networks to detect driver distractions by analyzing in-vehicle sensor data. It identifies distraction patterns quickly, enabling timely alerts and promoting safer driving.
- SAMO:A Lightweight Sharpness-Aware approach for Multi-Task optimization with Joint Global-Local Perturbation
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This project focuses on integrating Sharpness-Aware Minimization into Multi-task learning. We propose a lightweight Sharpness-Aware Multi-task Optimization (SAMO) approach, which combines the benefits of Global Information (G-SAM) and Local Information(L-SAM) to mitigate task conflicts while keeping the computational cost manageable. The effectiveness of our approach was then validated with extensive experiments on different datasets (NYUv2, Cityscapes, QM9, Office-Home).
- One Data Share
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One Data Share is a web application used for cloning or transferring your data from one cloud service to another cloud service in a very quick and an efficient way.
- Biomarker-Driven Modeling for Early Alzheimer's Trajectory Prediction
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AI and Pharmacy leveraged research project focused on unraveling the early progression of Alzheimer’s Disease by modeling causal relationships between key biomarkers and genetic risk factors like APOE4. Using a nonlinear mixed-effects (NLME) modeling framework inspired by physiologically-based pharmacokinetic (PBPK) models, the project captures individual biomarker trajectories (e.g., ABETA, TAU, PTAU) over time. By leveraging the ADNI dataset and integrating longitudinal data in long format, the model simulates disease progression and identifies early indicators of cognitive decline. This approach enables a deeper understanding of disease onset mechanisms and has potential applications in personalized early diagnosis and treatment planning.
- ActDiffNet: Affective State Recognition using Biological Signals
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We present ActDiffNet, a novel active learning framework for affective state recognition using multisensor biosignals. The model addresses key challenges in biomedical machine learning, such as data scarcity and class imbalance, by synthesizing hard-to-learn minority patterns using conditional diffusion models. ActDiffNet starts with minimal labeled data and iteratively improves through targeted synthetic signal generation. Our method achieves state-of-the-art accuracy on benchmark datasets, outperforming existing supervised and self-supervised models. This research is accepted for publication at the IEEE CHASE 2025 conference.