Thank you.
Good afternoon, everyone, and thank you for inviting me to speak to the committee.
I want to briefly address the findings of two reports my company prepared that are relevant to the committee's work.
First of all, I'd like to say that recycling is a prominent and integral part of the circular economy, but it is a complicated business. It involves many different types of materials, products, producers, users and other stakeholders. Some materials are valuable, particularly metals, and some are not as valuable. Some products are short-lived, like beverage containers, and some are long-lived, like buildings.
There are three broad user groups or sectors in recycling: residential; industrial, commercial and institutional; and construction and demolition. Different management systems or plans are required for each of the materials, products and sectors.
The preliminary circular economy report card we developed was an effort to document how Canada is faring in the circular economy. We pulled together available information on the recycling of a number of materials in Canada, including paper, scrap metals, glass, plastic, food and yard waste, lumber and wood, drywall, auto hulks, tires, batteries, e-waste and selected industrial residuals. We identified that millions of tonnes of materials are already recycled in Canada. However, we noted a number of information gaps and concluded that Canada needs more comprehensive tracking systems to fully identify our circular economy performance.
The electric vehicle battery is the second thing I want to talk about. Electric vehicle battery cells are made from an anode, a cathode and an electrolyte, all of which are made from critical minerals and metals. They contain lithium in the electrolyte and graphite in the anode, with varying amounts of critical minerals, such as nickel, cobalt, manganese and aluminum used in the cathodes.
While the numbers are small today, the numbers of electric vehicle batteries at end of life will grow over the years, and grow rapidly after the year 2030. Many electric vehicle batteries can have a second life after their first life, once they're no longer suitable for a vehicle. They can be put into energy storage and other applications, which can extend their lives. We already have a few small companies in Canada that do this work, and a number in the U.S.
It should be stressed that Canada, the U.S. and Mexico are basically one market for the auto and recycling sector, and any regulatory or financial barriers that restrict the movement of used electric vehicle batteries across borders for reuse and recycling should be addressed.
Environment Canada's XBR allows electric vehicle batteries to cross the Canada-U.S. border without a permit when destined for research and development, remanufacturing or repurposing. However, if you're crossing the border in either direction for recycling, you need Environment and Climate Change Canada and EPA permits. This prevents the needed electric vehicle batteries destined for recycling from flowing freely.
There are a number of issues around Transport Canada's regulations not being fully consistent with U.S. regulations; these cause challenges for recyclers. Also, there's a 7% duty placed on batteries crossing the Canada-U.S. border if they're destined for repurposing, whereas there's a 3% duty on batteries going in the other direction, from Canada to the U.S. We certainly should have a level playing field in this arena.
We're extremely fortunate in Canada to have a world-leading ecosystem in lithium battery recycling to recover the critical minerals needed to make new batteries and turn them into chemicals that are sold back into the battery supply chain.
Canada's market and main trading partner is the U.S., and any barriers to trade between the two countries in terms of these electric vehicle batteries, which are part of the new economy and the transition to an electrified future—a low-carbon future—need to be addressed.
Thank you. I'd be happy to take your questions.