Calendar

May
9
Thu
11:00am - 12:00pm
Presenter:  Rahim Hossain
Advisor: Professor KD Kang
Date: Thursday, May 9, 11 am
Location: EB P03

Title: A Deep Neural Network for Detecting Spotted Lanternflies Using Energy Efficient Wide Area Networks

Abstract: Agri-Tech integrates technology with agriculture to address real-world challenges, prominently through the Internet of Things (IoT). Detecting invasive species like the Spotted Lanternfly (SLF) in remote and hard-to-reach places such as tree branches or tall building walls is labor-intensive and leads to significant crop losses. To tackle this, we developed a new system, a Deep Neural Network (DNN) architecture that incorporates MobileNet V3, optimized for low-power devices and trained on a dedicated SLF dataset. Deployed on a Raspberry Pi Model B with a LoRa module, our system is energy-efficient and operates effectively on edge devices with limited computational resources through quantization, achieving high accuracy and low latency for detection. Our results demonstrate that our system covers a larger area and consumes significantly less power than other network technologies such as WiFi and Bluetooth, making it a superior solution for managing invasive species in expansive, resource-limited environments.
May
10
Fri
10:30am - 1:30pm
University Union, Old Union Hall
May
15
Wed
8:00am - 10:00am
P03

Presenter: Zongpai Zhang, PhD Candidate

Advisor: Professor Weiying Dai

When: Wednesday, May 15, 8am

Where: EB P-03


Title: Deep learning-based image registration and its medical applications

Abstract: Medical image registration is an essential technique that ensures the spatial alignment of medical images, allowing for accurate comparisons of anatomical structures and enhancing collective analysis. This alignment is critical for various medical uses, including diagnosis and treatment monitoring. Functional brain imaging is particularly valuable for observing brain function and activity. However, functional imaging methods like arterial spin labeling (ASL) perfusion MRI and blood oxygen level-dependent (BOLD) MRI typically have a low signal-to-noise ratio, which poses significant challenges to image registration. Deep learning has shown promising results in registering high-resolution structural MR images with high accuracy and speed. We introduce a deep learning model tailored to perform precise registration of fMRI images, and we evaluate its effectiveness on images from different scanners and with varying resolutions, involving both healthy subjects and patients. Furthermore, we examine the benefits of accurate image registration in analyzing age-related functional changes and tracking the effects of intranasal insulin treatment in diabetes patients.

Aug
12
Mon
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