Engineers and Geoscientists BC
Our website navigation was recently updated. See what's changed >>

Climate Change: Resilience Planning for Critical Energy Infrastructure

Date(s):
Friday, May 3, 2024
8:15 AM–8:30 AM Pacific time: Registration and Login
8:30 AM–12:30 PM Pacific time: Webinar
Format:
Webinar
Status:
Active

Eligible for 4.0 CE Hour(s) of Technical Learning

Don't have an account with us?
Create an account to register for this event.

Event Details


Cost

Engineers and Geoscientists BC Registrant Early Bird Price: $125.00 + GST = $131.25 until April 19, 2024

Engineers and Geoscientists BC Registrant Regular Price: $200.00 + GST = $210.00

Non-Registrant Price: $200.00 + GST = $210.00

Student Price: $100.00 + GST = $105.00

Contact

Jennifer Wu | Continuing Education Coordinator
Direct: 236.521.9709
Toll Free: 1.888.430.8035 ext.9709
Email: [email protected]

Event Presenter(s)


Dr. Moein Manbachi

P.h.D., P.Eng., SMIEEE | Project Leader

Dr. Moein Manbachi is a Project Leader with the Smart Microgrid Applied Research Team (SMART) within the Centre for Applied Research and Innovation of BC Institute of Technology in Vancouver. He was formerly a Post-doctoral Fellow at the Department of Electrical and Computer Engineering, University of British Columbia.

Dr. Manbachi holds a Ph.D. degree in Mechatronic Systems Engineering from Simon Fraser University and has over 15 years of experience in academia, industry, and R&D in the areas of power systems and critical energy ifrastructure cybersecurity. He was the author/co-author of more than 50 technical papers published in high-ranked journals and conference proceedings.

Dr. Manbachi is an IEEE senior member and an active member of CIGRE (membership through BCIT institute) and Engineers and Geoscientists of British Columbia. His main research areas include, but are not limited to, smart grids, advanced substation automation systems, critical energy infrastructure cybersecurity, power system optimization, and applications of digital twin technologies in power systems.

About the Event


This course primarily explores the profound effects of climate change on critical energy infrastructures, with a particular focus on extreme weather events such as wildfires, floods, droughts, and severe storms. Students will be able to learn how these climate-related events affect energy infrastructure, causing grid stress and disrupting energy infrastructure. There is a strong emphasis in this course on the importance of resilience measures in mitigating climate change's impacts on energy infrastructure, as well as fostering adaptability to environmental changes.
 

Seminar Description

The course also examines advanced/innovative smart technologies that could potentially enhance grid resilience against severe climate conditions. Participants will learn how such technologies and solutions monitor, predict, and respond to climate-induced stress on our energy infrastructure. Through real-world scenarios and case studies, the course will provide practical examples of how to safeguard energy infrastructure from climate change-related challenges.

By the end of this course, participants will learn the basics of how resilient energy infrastructure can be built, and to effectively contribute to the development and implementation of climate-resilient strategies within the energy sector, participants will gain a deeper understanding of stress levels, weak links/points, adaptability measures, and the utilization of novel climate-resilient solutions.

Objectives

By the end of this course, participants will be able to:
  • Understand the multifaceted impact of climate change on energy infrastructure, with a specific focus on extreme weather events such as wildfires, floods, droughts, and severe storms
  • Analyze the potential grid stress induced by climate-related events and assess their disruptive effects on energy infrastructure
  • Demonstrate basic knowledge of resilience measures essential for mitigating the impact of climate change on energy infrastructures and supporting adaptability to evolving environmental conditions
  • Explore innovative technologies and solutions designed to enhance the resilience of the energy systems, gaining basic insights into their monitoring, prediction, and response capabilities against extreme climate-related events
  • Develop fundamental knowledge around successful implementations of smart technologies in safeguarding energy grids against challenges posed by climate change through case studies and real-world scenarios