Research

We are committed to developing novel and efficient deep and machine learning models that enhance performance, interpretability and trustworthiness, and improve impact and accessibility. Our solutions are designed to contribute to the academic advancements, strategic growth and platform investments of Canadian industries. AiX Lab is dedicated to cultivating highly skilled scholars with cutting-edge AI and equipping them to contribute to various industry sectors.

Projects

Automotive Research

RL for Autonomous Navigation in Self-driving Cars

Deep Reinforcement Learning (DRL) plays a fundamental role in autonomous driving applications. This research introduces sample-efficient DRL models for decision-making, path planning and automatic navigation of AVs in complex scenarios. 

Autonomous Driving System for UGV

This project concerns the development and deployment of an autonomous driving system for an unmanned ground vehicle, called Jackal. The Jackal vehicle will be used in smart city applications, such structural evaluation. A LiDAR senor was used to provide real-world data for driving system.

Scene Perception Models in Self Driving Cars

This project aims to enhance real-time multi-object detection capabilities for self-driving cars, specifically operating effectively in various adverse weather conditions (e.g., rain, fog, and snow), which can significantly impair the accuracy and reliability of object detection systems in autonomous vehicles.

Driver Attention 

This research focuses on driver's visual and manual distraction. Capturing driver’s video through camera, attention level is analyzed. Key objective is to design reliable and compact models to facilitate gaze estimation and action recognition in DMS.

Driver Impairment 

This research focuses on addressing driver fatigue and the influence of alcohol and drugs on driving behavior. Through innovative solutions and advanced technologies, we aim to uncover key biomarkers and behavioral indicators for real-time impairment monitoring and contributing to a safer driving.

Driver State 

This project is dedicated to understanding the dynamic assessment of driver's emotion, well-being and cognitive workload and enhance the overall driving experience. The objective is to shape the future of transportation with a focus on holistic driver well-being and mental resilience.

Adaptive Handover System

An adaptive handover system is a novel idea aimed at optimizing the control transfer between driver and automated system. This requires dynamically adjusting a TOR based on a real-time analysis of both driver's state and road/traffic conditions to perform the most appropriate action. This could mean altering a request's modality, timing, or location. Such an adaptive approach promises to enhance safety by mitigating the risks associated with a handover system. 

Clinical Research

AI Screener fro Children with Listening Difficulties 

The main objective of this project is to develop a novel smart screener framework for screening children with listening difficulties by analyzing the ABR signals using AI technologies. The goal is to analyze and identify a stopping criterion to obtain a robust ABR, learn patterns from data and  create a non-invasive smart screening tool to help clinicians in diagnosis of hearing difficulties.

AI-Based Musical Intervention to Improve Emotion

Mental disorders have a significant influence on the daily activities of Canadians. Musical intervention can provide a non-invasive treatment through changing emotional state and creating positive mood. The main objective of this project is a long-term solution for musical intervention through an optimized machine learning framework for a real-time emotion recognition and musical intervention system integrated in an empathetic speaker. During music play, the emotional influence will be detected from EEG and the music database will be customized. 

Agriculture Research

Vision based growth monitoring

Leveraging AI and computer vision technologies, we are dedicated to transforming the assessment of the growth dynamics of crops and plants. Our vision-based approach enables precise and real-time monitoring of key indicators, contributing to enhanced crop management practices. From tracking plant development to identifying potential stress factors, our research aims to empower farmers with actionable insights for optimized yields and sustainable farming. 

Selected Publications

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