Adversarial training is a defensive technique in machine learning where models are trained not only on clean data, but also on adversarially perturbed examples. By exposing the model to attacks during training, it can build resilience against them. This project demonstrates implementations using MNIST, FGSM, and PGD attacks.
This project involved developing specialized software modules for the Cookeville Police Department. The modules were designed to streamline various administrative and operational tasks, enhancing overall efficiency and effectiveness. Key features included data management, reporting tools, and user-friendly interfaces tailored to the department's specific needs.
This project focused on implementing federated multimodal learning techniques using the PTB-XL dataset, which contains a large collection of annotated electrocardiogram (ECG) recordings. The goal was to develop models that can learn from distributed data sources while preserving data privacy, leveraging the strengths of multimodal data for improved performance in ECG analysis.
This project involved the design and implementation of a secure mesh networking protocol to enhance communication in decentralized networks. The focus was on ensuring data integrity, confidentiality, and availability through robust encryption methods and fault-tolerant mechanisms. The project aimed to provide a reliable and secure networking solution for various applications, including IoT and emergency response systems.
This project aimed to evaluate the energy efficiency of various cryptographic algorithms when implemented in Internet of Things (IoT) devices. Given the resource constraints of IoT hardware, the study focused on measuring power consumption, processing time, and overall performance of algorithms such as AES, RSA, and ECC. The findings provided insights into selecting appropriate cryptographic methods for secure and energy-efficient IoT applications.