Next-Gen Wireless & Distributed Intelligence Lab

High-performance distributed computing and intelligent networking for next-generation wireless systems, smart infrastructure, and critical cyber-physical applications

Overview

The WiDI Lab (Next-Gen Wireless & Distributed Intelligence Lab) advances high-performance, scalable, and secure computing frameworks for next-generation wireless networks and intelligent cyber-physical systems. The lab focuses on distributed intelligence across the device–edge–cloud continuum, leveraging high-performance computing (HPC), parallelism, and data-driven methods to enable resilient, low-latency, and trustworthy networked systems for critical infrastructure, smart mobility, and emerging 6G ecosystems.


Contact

Director: Dr. Robson E. De Grande

Email: rdegrande@brocku.ca

Department of Computer Science, Brock University

Website: www.cosc.brocku.ca/~rdegrande

Research

The WiDI Lab conducts research at the intersection of high-performance computing, next-generation wireless networks, and distributed intelligence. Our work addresses the computational and networking challenges of emerging systems that require low latency, scalability, reliability, and security, including intelligent transportation systems, Internet of Things (IoT), and critical infrastructure platforms. The lab emphasizes experimental, systems-oriented research, combining theory, large-scale simulation, and HPC-enabled prototyping.

Research Pillars

High-Performance Distributed & Edge Computing

Parallel and scalable computing frameworks for device–edge–cloud systems, including task offloading, resource orchestration, and performance optimization under mobility and heterogeneity

Next-Generation Wireless & Networked Systems Architectures and protocols for 5G/6G, vehicular networks, IoT, and ultra-reliable low-latency communications, with emphasis on performance, resilience, and scalability


Distributed Intelligence & Learning at Scale Federated learning, decentralized AI, and collaborative intelligence enabled by HPC platforms and optimized for constrained, dynamic, and large-scale networked environments
Security, Resilience & Critical Infrastructure Cybersecurity, trust, and robustness of distributed systems supporting smart cities, transportation, and other safety-critical applications

High-Performance Computing & Infrastructure

WiDI Lab leverages high-performance computing infrastructure to support:
  • Large-scale network and system simulations
  • Parallel and distributed algorithm development
  • Data-intensive learning and optimization workflows
  • Experimental validation of next-generation network architectures

Our research relies on multi-core CPUs, accelerators, distributed clusters, and advanced software toolchains to ensure reproducibility, scalability, and performance fidelity.



Prospective Researchers/Students

Join WiDI Lab

The lab welcomes undergraduate, MSc, and PhD students with interests in:

  • High-performance and real-time systems
  • Wireless and mobile networks
  • Distributed systems and AI
  • Cybersecurity and critical infrastructure

Interested students are encouraged to contact the lab director with a brief statement of interest.

Training & Highly Qualified Personnel (HQP)

WiDI Lab is committed to training highly qualified personnel in:

  • High-performance and parallel computing
  • Distributed systems and networking
  • Applied machine learning and optimization
  • Experimental research and system prototyping

Students gain hands-on experience with real-world systems, collaborative research, and interdisciplinary problem-solving aligned with academic and industry needs.


Check our projects at Projects.


Funding is available under different forms:

  • Graduate students receive funding from a combination of sources: research funding, fellowships, and teaching assistantships.
  • Undergraduate students may receive funding from awards or research assistantships.

Advice and rules to applicants to the graduate program here.


Research Seminars

  • Smarter Roads Ahead: Data-Driven Communication and Mobility Modelling for Vehicular Intelligence.
    Robson E. De Grande and Mubashir Murshed.
    University of São Paulo, Brazil - July, 2025
  • Tutorial on Simulation-based Design and Evaluation of Multi-Radio Access Technologies for Highly Mobile Vehicular Networks.
    Robson E. De Grande and Mubashir Murshed.
    International Conference on Wireless Intelligent, and Distributed Environment for Communication - October, 2024
  • Vehicular Edge Computing: Leveraging ITS and Urban Computing.
    Lakehead University, Canada Fall, 2020

People

Lab Director

Dr. Robson E. De Grande (Brock University, Canada)


Research Team

PhD Thesis

Mubashir Murshed
Douglas Lieira (visiting)
Victor Vilchez Diaz (visiting)

MSc Thesis

Parinaz Bigdelian
Israt Jabin
Afrin Jubaida
Nadia Karimzadeh

Undergrad Students

Jacob Drobena
Darsh Kurmi
Cam Carvalho
Harman Malhi
Nitish
Kartikkumar K. Parekh

Collaborators

WiDI Lab collaborates with academic researchers, partners, and stakeholders to address challenges in next-generation networks, smart infrastructure, and cybersecurity. Our research contributes to the development of scalable, secure, and intelligent systems with direct relevance to societal and economic priorities.


International Collaborators

Dr. Glaucio de Carvalho (West Florida University, USA)
Dr. Rodolfo I. Meneguette (USP, Brazil)
Dr. Caetano Ranieri (Unesp, Brazil)
Dr. Carlos Astudillo (Unicamp, Brazil)


Projects

Representative application domains include:

  • Intelligent Vehicular Connectivity
  • Edge-enabled smart cities and IoT platforms
  • AI-driven network optimization and control
  • Secure and resilient critical infrastructure systems

Dwell Time in VFC

Handover Management in Vehicular Networks

Handover Management in Highly Dynamic Ultra Dense 5G Vehicular Networks.
Dwell Time in VFC

GNN-based Dynamic Network Edge Analysis

Dynamic Network Edge Analysis for Internet of Vehicles with Graph Neural Networks.
Dwell Time in VFC

Resource Estimation in Vehicular Fogs

Cloudlet Dwell Time Model and Resource Availability for Vehicular Fog Computing.
VRU composition

Resource Allocation in Vehicular Clouds

Composition of vehicular resource units as a relaxed, dynamic method for assigning VCC services.
MDP-based Connectivity Model

Vehicular Network Connectivity Modelling for VCC Management

Modelling intermittent connectivity in vehicular networks for more precisely supporting VCC services.

Selected Publications