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I call this meeting to order.
Welcome to meeting number 100 of the House of Commons Standing Committee on Science and Research.
Today's meeting is taking place in a hybrid format. All witnesses have completed the required connection tests in advance of the meeting.
I'd like to remind all members of the following points.
Please wait until I recognize you by name before speaking. All comments should be addressed through the chair. Members, please raise your hand if you wish to speak, whether participating in person or via Zoom. The clerk and I will manage the speaking order as best we can.
For those participating by video conference, click on the microphone icon to activate your mic, and please mute yourself when you are not speaking. There is interpretation for those on Zoom. You have the choice, at the bottom of your screen, of “floor”, “English” or “French”. Thank you all for your co-operation.
Pursuant to Standing Order 108(3)(i) and the motion adopted by the committee on Thursday, May 23, 2024, the committee resumes its study of innovation, science and research in recycling plastics.
It's now my pleasure to welcome, as an individual, Dr. Steve Allen, chief executive officer of Healthy Earth. He's here by video conference. Also here by video conference, from the Canadian Produce Marketing Association, we have Daniel Duguay, sustainability specialist.
You will have up to five minutes for opening remarks, after which we will proceed with rounds of questions.
Dr. Allen, I invite you to make an opening statement of up to five minutes.
:
Thank you for the opportunity to speak with you.
I study microplastic and nanoplastic pollution in the remotest areas of the globe. I showed plastic transport through the air, falling into the oceans and ejecting into the air through sea spray. I studied peat bogs that showed microplastics started raining down the early 1970s and have increased ever since, exactly matching plastic production. I find particle numbers grow exponentially the smaller you look. In Canada, I've studied plastic deposition from hurricanes and in seafood.
I mention this because all these measurements were made while everyone thought we were recycling. Canadians doing the right thing has little impact on their exposure to plastic, and it makes no difference if it's recycled, landfilled or incinerated. It leaks from its manufacture through to its end of life, and it's a global problem.
That drinking water in front of you contains plastic. Every glass of water on the planet does too. I'm certain that if I measured what plastic you're exposed to now—in water, food and even the air you breathe—it would be the lowest exposure of the rest of your life. If you manage to mechanically recycle 100% of Canada's waste tomorrow, it would likely only increase that.
There's so much plastic in the environment already that it's doubtful your grandchildren will ever enjoy the exposure level you have right now. They're exposed from placental serum to breast milk, and it's rapidly increasing. How much plastic can humans withstand? I don't know, but I worry that by the time we find out, it will be too late to do anything about it.
The plastics industry has had 50 years and an almost unlimited budget to develop recycling. It built the plastic. It knows the chemistry. If anyone could do it, the plastics industry could, but even Shell's advanced recycling pledge recently failed. Shell said it was not feasible and cited regulatory shifts.
Mechanical recycling plants themselves are leaky. I studied a new state-of-the-art recycling plant in Scotland, where 6% of the plastic that went in was leaking out as microplastics into the river. It recycled four million tonnes and released over 200,000 tonnes of microplastics and an unfathomable amount of nanoplastics. That does not even take into account the atmospheric release from recycling, the energy required or the risk of serving children french fries in recycled plastic that contains any of 16,000 chemicals.
The recycling expert witness you had here admitted you're not recycling anything now; you're only downcycling into inferior products. Making building materials out of it just means adding toxic flame retardants, PFAS, which are already in all of us.
I'm not saying that we should not look into recycling highly essential items, but I can't see the logic for governments to spend public money to keep this hazardous material in circulation.
Waste plastic is not a valuable resource. It's the equivalent of capturing lead to put back into fuel or recycling asbestos into more roofing. Scientifically and environmentally, for human health and climate change, and even economically, it does not make sense to recycle the majority of plastic. There are plenty of good alternatives that will create a true green-jobs economy if extracted, produced and reused safely and sustainably, such as glass, metal and plant-based materials, like areca palm and bamboo, etc. Governments can eliminate the cost to municipalities and consumers in the transition to these better alternatives by diverting a fraction of the subsidies now enjoyed by the plastics industry to safer and more sustainable materials.
We're not just dealing with plastic waste here; we're dealing with a global environmental and public health crisis. When you stop asking how much plastic the world can create without killing too many whales and instead look at how many organisms, including us, can be affected by the disintegration of a single plastic bag, you begin to understand the gravity of the situation. We are involved in an extremely dangerous experiment, and every day lost by investing in a profit-driven, short-term technofix to save the plastics industry is time wasted. There are no borders in nature. If Canada wants to protect the health of Canadians and the environment, Canada needs to do more to solve the global problem of plastic pollution right now. In short, you're addressing the wrong end of the plastic life cycle if you want to safeguard people and the environment.
The people who can solve this problem are in this room. You are the people who can regulate the plastic industry; curb production; make Canada a green economy powerhouse, not a pollution enabler; require disclosure of chemicals used; police the industry; make industry prove it is environmental before being put on the market; criminalize greenwashing; fund research into removing plastic from farm to table and fund global—
:
Madam Chair and committee members, on behalf of the Canadian Produce Marketing Association and Canada's fresh fruit and vegetable industry, I thank you for the opportunity to appear before you today.
The CPMA is in a unique position as an organization representing companies from the farm gate to the dinner plate, spanning the entire fresh produce industry. CPMA's almost 900 domestic and international members are responsible for 90% of fruit and vegetable sales in Canada.
Canadians rely on a highly integrated domestic and global fresh produce supply that supports Health Canada recommendations for a healthy diet. The fresh produce supply chain moves a wide variety of perishable products over long distances in a way that ensures that Canadians have access to safe, high-quality and affordable fruits and vegetables year-round.
Packaging, including plastic packaging, is essential to maintaining the availability, quality and safety of fresh produce from the farm to the fork. The critical role played by packaging can be summed up in two phrases. The first is that packaging does 95% of what it does before it even reaches the consumer, and the second is that a produce packaging decision is a sustainability decision.
What do these statements mean? They seek to convey that ensuring food safety, minimizing food loss and waste, maximizing supply chain efficiencies and meeting produce traceability requirements all depend on the shape and composition of the packaging. However, here’s where the complexity grows. What else depends on the shape and composition of the packaging? It's the ability to keep the packaging out of landfills and meet the zero plastic waste goals both governments and industry have been pursuing for many years.
To ensure that packaging provides the required functionality and is also kept out of landfills and the environment, the industry now designs packaging that meets mission-critical performance that vendors and consumers have come to expect while accounting for the packaging’s end of life. The fresh produce industry is a leading adopter of sustainable packaging strategies. These range from lightweighting packaging and innovative elimination, such as edible coatings, to significant reuse volumes for business-to-business packaging. It has also increased the use of packaging that is both recycle-ready and increasingly recycled.
The CPMA launched its packaging working group in 2019, and the fresh produce industry endorsed the golden design rules in 2020, leading to many new designs eliminating problematic elements, moving from mixed composition to single material, as well as incorporating increased levels of recycled content when that recycled content does not compromise the performance of the packaging, such as with food contact. Substitution of alternative materials, such as fully recyclable fibre packaging or industrially compostable solutions, is being adopted where the packaging performance and function is not compromised.
These efforts are having an impact. A recent review confirmed that the fresh produce industry’s plastic usage in packaging was down 17% since 2019 when measured by the volume of material used per kilogram of food.
The diversity of fresh fruits and vegetables—the quintessential apples, oranges and bananas problem, as we like to call it—means that packaging for one commodity will need to be different from that for another. For many commodities, there are no viable alternatives today to plastic packaging that would not compromise food safety or increase food waste, cost or insecurity.
As stated, a key challenge in designing packaging for zero packaging waste is accounting for the end-of-life infrastructure, be it plastics recycling, composting or other recycling infrastructures. Although today’s discussion focuses on plastics, the goal should be to ensure that packaging choices, when combined with waste management systems, keep all packaging waste out of landfills.
To do this effectively, the following areas of innovation should be considered.
First, we should account for differing materials. Waste management systems must deal effectively with different types of materials, including, in our case, rigid and flexible forms of plastics and other materials.
Second, we should consider serving different downstream applications. Recycled content resulting from waste management systems must serve very different needs, such as those requiring food contact versus those that don't.
Third, we should promote harmonization. What is readily recyclable in one area may not be in all others. This lack of harmonization across multiple jurisdictions is one of the leading challenges for effectively designing packaging's end of life.
To close, I'll comment on a few related points.
The CPMA supports extended producer responsibility. However, there is significant concern that the rapid pace of massive cost escalation is unsustainable. This cost should not be borne by producers alone. We need waste reduction targets that are ambitious but achievable, and that respect the critical functionality that packaging provides.
To tackle this complex system-level problem, we need engagement from multiple federal players working in tandem with industry, along with their provincial counterparts.
On behalf of the fresh produce industry, I thank you for the opportunity to share comments and I welcome any questions the committee may have.
:
Thank you, Madam Chair.
Thank you to the witnesses here today. I appreciate your being here with us and the chance to hear your points.
We've heard, over a number of weeks—at least in my short time with this committee—from many different organizations on different aspects. When a lot of the Canadians listening today hear “plastic”, they just hear “plastic”. That's the only thing they hear. They don't understand the differences between bioplastics, virgin plastics, etc.
Mr. Duguay, today you mentioned the aspects of packaging and the different types of packaging. You touched a bit on different points, whether these might be regarding virgin plastics—I'm going to throw that at you—or biopolymers. These are things Canadians really don't understand. As you mentioned, when they go to that market and see their bananas or cantaloupes wrapped in plastic, or whatever it may be, they assume those plastics are exactly the same.
I'm wondering if you could comment on that.
:
Thank you very much, Madam Chair.
Welcome to both of our witnesses.
Let me turn my attention to Dr. Allen.
Dr. Allen, I'm going to give you a chance to finish your thoughts, but before I do, I have a bit of a preamble.
I heard you, and I also heard that this is the last day of witnesses for the study. We've been meeting now for a number of weeks. We have heard loud and clear how plastic is affecting our water and, as you said, water, food and air, everything we breathe, with environmental and health risks and so on, even in the water that we're drinking. You also mentioned in your introduction that in 50 years we haven't been able to solve it using plastics.
You were starting to tell us about better alternatives for safer and more sustainable material. In what is both an environmental and a health crisis, we have to solve these problems. I'm going to ask you to start back from the first thing that you were trying to start with—the better alternatives and what we can do as a federal government. Some of it involved other levels of government, but also, more importantly, where does industry come in and where do consumers come in?
I'm going to give you the rest of my time to really hash out that particular question for me. I think that would be very helpful coming from you.
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Areca palm, for example, is just palm leaf that falls off the palm naturally. They press it into the shape of a paper plate. It's completely compostable. It has no glues, unlike many of the other materials like that.
Also, yes, there are glass, metal and things like that, which we've always used. We know what they are. We know how to handle them. We know how to recycle them. Glass doesn't need to be smashed and re-formed into a new bottle. It can be washed. We know how to do that.
It's 2024. I think it's time that we gave up the plastic dream. It's becoming a nightmare.
I mean, in my work, I'm here in the north Arctic measuring plastic that could have come from Canada. It could have come from South Australia. I don't know. It's really hard to prove where it came from, because there's so much of it.
It really is a depressing job.
[English]
Biodegradable plastics don't degrade in nature. We've shown that. It's scientifically proven. Basically, you can have a plastic bag in nature for three years and it will still function as a plastic bag. They don't degrade. Chemically, they are just as dangerous as other plastics. It's actually been shown that some of the biodegradables are more dangerous. They break down into smaller particles, but we don't have sufficient regulation and we don't have sufficient studies yet to show what those tiny particles that they break down into can do to humans and animals.
This is a big problem. Most of the studies will stop at, say, 20 micrometers. That's small by most people's standards, but when you start to look at organisms, that's where it becomes food. That can kill an animal. The difference between it being 20 micrometers and one nanometre is unknown through most of these plastics. The industry is not interested in looking at it.
This is something that the government really needs to step up on to actually make sure that these plastics degrade properly, not just “we can't see it anymore”. The ISO definition of “we can't see it, so therefore it's gone” is the definition of putting your head in the sand. We know the plastic is there. I know it, because it's part of my research. I'd like to see the Canadian government regulate this. Ask the scientists. Regulate what the scientists tell you that you need to look at and not what industry says.
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It's a great question, because it depends on the produce and how far it's coming from.
Again, part of our challenge is that we are trying to maximize...and meet the expectations consumers and citizens have in this country in terms of having access to fresh produce year-round. What that means is that at certain times of the year, produce travels a couple of hundred kilometres. It travels in a package that maintains quality and food safety over that relatively short period of time.
In the fall, winter and spring, the expectation is still there, and that produce travels from California or Mexico. When it's travelling that much farther, in some cases refrigerated and in some cases not, the risk is that the wrong form of packaging can make it so that the produce won't survive the trip at all or that we'll lose significant portions of it by the time it makes it to the depot. That's what we call “shrink” in the industry. That percentage can be as high as double digits. It's 50%, 60% or more if you're talking about fundamentally the wrong package. As a result, that's not what the industry uses. What it's trying to do is maximize the amount of food that survives the trip, maintains quality and remains safe so it can be distributed and consumed. That's ultimately what we're in the business of doing: getting food.
I'm sorry. Maybe that's not a direct answer.
The wrong packaging can pretty well prevent that supply chain from fundamentally working. That's the balancing act the industry faces every day.
Thanks to the witnesses.
Dr. Allen, I want to thank you for very candid testimony. Very few times do we hear the words, which you used in your testimony, “global environmental health crisis”. I think that is a pretty profound statement, and actually, I think it's a pretty profound moment.
When I first came to this committee and when I heard that we were studying plastics, I wasn't sure what I was getting myself into. I've learned quite a lot from a variety of witnesses, including you today.
There are a couple of things. I mentioned the global environmental crisis. I want to go there, and then I want to go to what you talked about towards the end of your testimony, which is how we solve the problem.
I'm wondering if you can just unpack briefly—because I want to come back with another question for you—the health outcomes related to microplastics or related to, as you put it, most if not all plastics. I'm wondering if you could just break it down for people. I think it is up to government and legislatures to have a serious conversation, to not use political talking points, to move the ball forward and to make sure everyone is safe and secure, which is a fundamental right of every parliamentarian. Can you give us a sense of what this causes in individuals, with a little detail? Then I will come back with a second question.
Let me give you a little scenario. They use plastics for drug delivery, and it's a very specific design and shape because it can pass through blood-brain barriers. It can pass through any part of the body because it's so spiky that the body can't see it. It doesn't generate the immune response. When you look at microplastics under the microscope, you will find they're the same shape. That's why they can move into and out of our bodies quite easily. Studies done on scallops and things showed that when they fed them microplastics and nanoplastics, they were in every part of the animals within a few hours.
Currently, if you have a look at what can pass into the blood through the gut, it can be up to 150 microns, which is quite big, but with nanoplastics—and I do a lot of work with nanoplastics—there's nothing to stop them going everywhere in the body. They contain an endocrine-disrupting chemical. They can absorb DDT and all the other chemicals that we prefer to forget about. They can stick to those nanoplastics. Imagine what that could do to a developing baby's pituitary gland. If you had enough of those particles lodged in that gland, what could that do to the development of a human? What could it do to the development of any creature on the planet?
We talk about the guts of worms being blocked up because their mouths are bigger than their anuses. They normally take a whole particle in, digest it and then release it. However, plastics block them up so that they're full forever, until they die of starvation.
My research is in remote areas, and I'm looking at those because these are our reserves for all that biota that keeps the world working, and we're flooding them with so much atmospheric plastic falling onto the ground there—in hurricanes in Newfoundland, for example. At the peak season, when everything's growing and everything's feeding, we're suddenly feeding them literally tons of plastic particles at the exact size that they want to eat, and they smell like food. They release pheromones like the EDCs, the endocrine-disrupting chemicals. All these chemicals look like food.
We've had it in breast milk and placental serum. It's in testes. It was in baby's first poo. It's in every part of the human body already, and it's a foreign object. We have not developed any resistance to this material. We only got nanomaterials at all when we started smelting metals. Thankfully, they were mostly inert, except for lead, which we know does bad things to us.
Plastics have no place in our lives. Very soon, we're going to know just how bad this is.
:
Thank you, Madam Chair.
Mr. Allen, I agree with you. The government has a very big responsibility when it comes to defending and protecting the environment. Now is not the time for education; now is the time for action. Everyone already has an overview of the situation. I would like a reality check.
In 2019, the current government promised to ban the use of certain single-use plastics. It was all very promising. In 2020, it imposed standards and penalties to hold companies that manufacture plastic, collect waste or recycle materials accountable. In 2021, the most widely used excuse of the decade was the pandemic. All of a sudden, there was nothing they could do to regulate plastic. However, when it came time to subsidize oil and gas companies to help them get through the economic crisis, plenty could be done. Then the government implemented a very partial regulation on only six of the hundreds of items in circulation. In addition, no ban on manufacturing or sales will be in effect until December 20, 2025. That is convenient, since it will not happen until after the next election, when we may have a new government.
Do you think these measures will really make a difference in terms of protecting the environment and recycling plastic?
I'm going to stay with Dr. Allen.
I know you've studied the issue of plastic pollution around the world—in Asia, etc. We've all heard of the big blobs of plastic pollution in jars out in the middle of the Pacific Ocean. I know from going to island nations such as Samoa that they're facing a huge problem of tonnes of plastic washing up on their shores.
I'm a bird biologist. A friend of mine was studying the albatross nesting on the Midway Islands, out literally in the middle of the Pacific. Those albatross feed on the coasts of British Columbia, bringing food from there to their young at Midway. He had sights of a young albatross coughing up a toothbrush.
I just wonder if you could comment on the worldwide scale of this problem and on how all that pollution from around the world, all that plastic, affects us here in Canada and everywhere.
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There are no borders in nature.
There are between 12 and 20 million tonnes being pushed into the ocean every year. That's got to go somewhere. When plastic breaks up in the ocean, whether it's through rubbing on the sand on the beach, UV or salt, it can come back in the air. It doesn't matter where that plastic went in; you can be breathing it in Canada and anywhere else on the planet.
My research is up in the free troposphere as well, which is above the clouds. That's the superhighway for plastic and all chemicals. Plastic can go around the world in two weeks, so as for shipping your plastic away, there's no “away” for plastic. There's no, “I will just send it to Asia, because they can recycle it.” It doesn't get recycled; it's burned. It gets pushed into the river. There's ample proof of that. Read the Interpol reports, please. I recommend everyone that does that.
I'm currently researching plastics up here in the Arctic, but my NGO is tackling plastic waste going into the river in Asia as a start, because the majority of plastics in the oceans come through Asia, because western countries thought Asia was a good place to dump their waste. They didn't have any way to recycle it.
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Welcome back. We'll get started again, please.
For those of you participating by video conference, click on the microphone icon to activate your mic. Please mute yourself when you are not speaking. There is interpretation for those on Zoom. You have the choice at the bottom of your screen of floor, English or French.
It's now my pleasure to welcome our witnesses.
From the Council of the Great Lakes Region, we have Mark Fisher, president and chief executive officer.
From Selkirk College, we have Jason Taylor, department head of Selkirk Technology Access Centre, by video conference.
From Sustainable Strat, we have Marina Pietrosel, principal, of sustainable development and compliance.
Welcome to all three of you.
Up to five minutes will be given for your opening remarks, after which we'll proceed with rounds of questions.
Mr. Fisher, I invite you to make an opening statement of up to five minutes, please.
:
Thank you, Madam Chair and honourable members of the science and research committee, for the opportunity to speak to you today as part of your plastics recycling study.
Formed in 2013, the Council of the Great Lakes Region, or CGLR, works across the provinces of Ontario and Quebec, as well as eight states in the U.S., from New York to Minnesota. Our mission is to bring the region's diverse perspectives and interests together across borders and sectors to accelerate the transition to a sustainable future.
What does this mean in practice? For CGLR, it means advocating supportive policies, business strategies, innovations and public-private sector investments that will ensure that the region's economy, North America's industrial engine, is growing responsibly; all of the region's people are thriving; and the Great Lakes, the largest freshwater system in the world, is protected for future generations. If we're successful, our aim is to create the first sustainable region in the world.
A significant challenge the region is facing today is how to sustainably manage the materials we use as consumers and as industries and reduce waste, especially plastics.
Why is this a challenge? Research, as well as data from the Great Lakes plastics cleanup, which CGLR runs with Pollution Probe, shows that 80% of the pollution washing up on the shoreline is plastic in the form of litter or sometimes the accidental release of pellets used in plastics manufacturing.
In addition, studies by the U.S. Chamber of Commerce and The Recycling Partnership in the U.S. indicate that over 80% of the valuable plastics we use as consumers are ending up in landfill.
CGLR's own research estimates that based on landfill audit data, we are throwing out roughly 12 million imperial tons of valuable plastics worth over $2 billion Canadian every year in our garbage. As a result, CGLR launched the circular Great Lakes initiative and released a five-year action plan in 2022 to mobilize stakeholders in sectors to forge a future without plastic waste and pollution.
Pertinent to this committee's work, the action plan focuses on driving projects and change in six key areas where we see critical gaps, notably for consumer plastics: the collection of plastics, such as curbside and drop-off programs; the technological advancements required in our recycling infrastructure, such as mechanical recycling, secondary sortation and new chemical recycling solutions, to expand the sortation and processing of plastics; the development of competitive and more diverse end markets for a wider range of plastic materials; the need to inform consumer behaviours through increased education and engagement; the policies required to enable sustainable materials management practices; and the investments required by government and business to support and accelerate the development of new infrastructure and packaging solutions that are more sustainable and recyclable.
By facilitating projects in these areas with many partners, we want to help facilitate the achievement of a 50% recycling rate in the region by 2030. This is consistent with the zero plastic waste strategy adopted by CCME as well as the national recycling strategy put forward by the U.S. EPA.
From a resource recovery and recycling standpoint, a key aspect of a circular economy, this will require the ability to divert an additional three million tons of plastics away from landfills annually. That's roughly 2.7 metric tonnes in Canadian figures. Given that we are currently recycling, on average, about 9% of consumer plastics in Canada and the United States, achieving a 50% recycling rate will be no small effort, but it can be done.
However, achieving a 50% recycling rate for consumer products does not equal a circular economy. A circular economy, by design, is achieved when we can eliminate material waste and pollution, circulate products in the economy at their highest value and regenerate nature. Therefore, in considering innovations, science and research in recycling plastics, or, more importantly, achieving a circular economy, I encourage you to consider the following.
First, new legislation and regulatory certainty are certainly needed to enable the economic and societal change necessary to transition to a circular economy. Ensuring that each level of government is doing its part and is aligned will be crucial with respect to the standards, regulations and targets that will catalyze circularity, such as extended producer responsibility, recycled content, recycling rates and labelling.
Second, in considering source reduction measures or product alternatives, you must remember that all products have an environmental impact, and in many applications plastics today continue to be the best option for a variety of reasons. Adopting a life-cycle approach will be vital for evaluating the trade-offs between the socio-economic and environmental impacts of different materials and circular approaches.
Third, other countries, such as the United States, are investing heavily in materials science and new manufacturing processes, creating the conditions for new industries and products to be developed and deployed at scale. The Government of Canada must do the same, and more, through its research granting councils and investments in small businesses and industry-driven R and D if Canada is to have a significant presence in the green economy.
Fourth, we will not be able to recover all of the materials from consumers and the industrial, commercial and institutional sector, not just households, if we rely solely on mechanical recycling solutions or traditional recycling. Permitting or creating the legal framework for the development and use of new and emerging sortation approaches or other material processing methods like chemical recycling is strongly encouraged.
Last, consumer education and behaviour change will play an important role in reducing waste, increasing recycling and ultimately achieving a circular economy. Therefore, we must ensure that the practices we are asking consumers to adopt today are easy to understand, affordable and easy to access.
Thank you, Madam Chair, and I'd be pleased to take your questions.
:
Good afternoon, and thank you for the opportunity to speak before the committee.
As a department head and researcher at the Selkirk Technology Access Centre here in the Kootenay region of British Columbia, we have really focused on supporting industry and community in our learning region through research and development and through training in advanced manufacturing and advanced computing.
Since 2020, the STAC has been fortunate enough to work with some amazing industry and community partners throughout our region to foster circular economy practices and to advance both education and research in plastics recycling and reuse.
I also want to share a few examples of projects we've been working on. I'll start with KC Recycling.
KC Recycling is here in Trail, B.C., and they recycle car batteries as one of their outputs or business models. They recycle polypropylene from car batteries in the amount of 200 tonnes per month and are looking to double and possibly even triple that into the future. One hundred per cent of this plastic is currently being packaged and shipped in pellet form across North America to go back into batteries or other automotive industry plastics.
The research we've been working on with KC Recycling directly has been to use these pellets as something else. We've successfully been able to use it as a feedstock for 3D printing and injection moulding. We've also been looking at other opportunities locally, and that's the key here. Instead of having this material shipped here, processed, and then shipped back out across the world, we're looking at what we can use this plastic for locally in the industries that we support, such as mining, hydroelectric power generation, forestry and, of course, mass timber.
Another key partner of this partnership and most partnerships that we've been working with here at the STAC is the partnership and involvement with students. We have a program here called the digital fabrication and design program, and a key opportunity in that program is to teach about sustainability, a design for reuse and possibly even the elimination of plastics in some cases.
Another partner we've been working with is Tempus 3D. Tempus is an industrial 3D printing company. The industrial process they use is a powdered material called PA12. Out of each cycle of the print, there is about 5% to 20% of waste plastic that cannot be recycled in its own system. What we've been looking at are opportunities to print that waste. One way is a printer we just purchased that will print that machine's waste for industrial level 3D-printed objects and materials.
Another great partner that we work with is the Kootenay Outdoor Recreation Enterprise. KORE has started a new program called the KORE Re-Hub, and it's all around outdoor gear recycling or circularity. You have a ski boot, and a part breaks on it, and you find out after two years of owning that ski boot that the manufacturer does not make that part anymore and you can't buy it, so what happens to that product? Oftentimes, it gets thrown into the garbage, and you have to go buy a new one. The industry loves that, but we don't. We've been looking at supporting, both through education and producing parts for outdoor gear, that circularity and repairing or reusing those parts in other ways.
The primary key to all of these partnerships is research, but it's also about embedding the circular economy principles and techniques into our curriculum. We've started with our digital fabrication and design program. It will be introduced through our engineering program and many others as a core direction that we would really like to introduce into all curriculum thought processes at the college here.
We believe the environmental and economic benefits these practices will introduce when students are designing for the next big company will be key.
My name is Marina Pietrosel. I thank Mr. Blanchette‑Joncas for suggesting that the committee invite me to talk about my experience. I'd like to talk more about the positives than the negatives.
My experience is really in the food processing sector, where I worked for over 10 years. I also worked in the recycling sector for 10 years. In addition, I've done work on extended producer responsibility programs, which exist in every province in Canada. I have experience on the ground. I don't have high-level scientific experience, but it is scientific in the sense that we do a lot of studies on materials recycling and recyclability. I could talk about any material, but today we're talking about plastics.
In 2021, the Canadian Council of Ministers of the Environment developed guidelines for recycled content in containers and packaging for all new products. The deadline was set for 2025, but it went nowhere.
I should note that environmental issues fall under provincial jurisdiction. That doesn't mean the federal government shouldn't provide assistance, quite the contrary. Be that as it may, this falls under provincial jurisdiction, and all provinces, including Quebec and Ontario, have extended producer responsibility programs.
Plastic is a material that is used more for consumer goods, particularly for food and health and beauty products. The primary purpose of packaging and containers is to preserve and protect the product. Packaging represents 5% of product-related waste. In the case of poor production or preservation of a product, the percentage that ends up in a landfill is 80%. Therefore, we shouldn't focus our ire on packaging so much as work to make it better.
I've been a consultant for 10 years. I work with private companies to replace environmentally harmful packaging with recyclable and recycled packaging.
Since the new regulations came into force in Quebec in 2022, product recycling and upgrading rates have been quite high. Producers who market packaged goods have an obligation to contribute financially to the extended producer responsibility system. In addition, packaging materials for all their products must be recyclable or recycled at a rate of up to 85%. That's a high percentage.
The way I see it, we have to work at all stages of the value chain. Materials suppliers, manufacturers, processors and companies marketing products cannot work alone. Everybody needs to be at the table to make the system work. The materials supplier must be responsible for what it sells to the processor or manufacturer. We're talking about plastics today, but it could be other materials. That responsibility is passed on to the retailer selling the products. Without this partnership, we can talk about it endlessly, but nothing will change. Producers are still investing thousands of dollars in the extended producer responsibility system, so everyone has to work together.
Today, through the Great Lakes Plastic Cleanup, which we run with Pollution Probe—one of Canada's oldest environmental charities—we have a series of innovative capture and cleanup technologies that we operate in Ontario and across a number of states. Working with local partners, we are collecting debris on beaches and in our waterways, particularly our marinas, in order to characterize what we're finding. It's plastic, and typically smaller plastic—cigarette butts, predominantly, and broken-down food and beverage materials that have been in the environment for a long time. By collecting that and understanding the types and sizes, we can work to understand the different sources and pathways. How did it end up there? It is predominantly public litter. I will say that.
That data is extremely helpful in having conversations with decision-makers like you about how to stop this from a policy standpoint, and how to engage with coastal communities in order to let them know the impact that this type of behaviour and those activities are having on our environment and the Great Lakes.
There is certainly a lot more research happening today, through our higher education institutions, about the scale and scope of microplastics and microfibres in the Great Lakes. As said in a previous testimony, we're trying to understand the environmental and human health impacts of that material when it finds its way into, let's say, drinking water or wildlife.
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That's a very good question, Mr. Blanchette-Joncas.
I'll give you an example. I'm working with a company today that uses different plastic films, such as LDPE films, which are simple, meaning they don't contain any other resin. Previously, this company also used multilayered films, that is, films made up of multiple layers of polypropylene and polyethylene, for example, to ensure the preservation of the packaged product. In Quebec, we've managed to find people who manufacture packaging composed of a single material with the same properties, not only for food preservation, but also for health and beauty products. So we do have some very interesting resources. We're still working on both aspects, meaning what is recyclable and what is recycled.
One of the most important things is testing. Here, I'm talking about science on the ground.
First, we conduct in situ tests to see if a product works, if it's clean enough, if it's made from the same resin and if it's recyclable.
Second, we do lab tests to see if the new packaging with just one material preserves the products as well as the old packaging. So it's a scientific effort that we are conducting with people from the Institute of Packaging Technology and Food Engineering and the Industrial Ecology Technology Transfer Centre, among others. We make sure that the shelf life of products is adequate for consumers.
Third, we do in situ testing using producer equipment. Today, most of the resins used to make standard packaging come from India or elsewhere in Asia, whereas here, we have literally the best recyclable and recycled material possible. Yes, the other options may cost less right now, since the wave of extended producer responsibility has only just started and producers have to pay 100% of the system costs. However, it will soon become much cheaper to use recyclable and recycled materials.
I'm focusing on recycled content, as the Canadian Council of Ministers of the Environment did in 2021 by calling for recycled content targets, like California, which has set a target of 25% to 30% for all packaging. There have been some steps taken in Colorado as well. That's what I heard last week when I was at the Canadian Stewardship Conference. Some states in the U.S. are really starting to set concrete targets for recycled content, and we need to do that as well.
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Thank you, and I thank all three of you for being here today.
I am going to start with Mr. Taylor, because it's very nice to see and hear from you today from the Selkirk Technology Access Centre. I've had the pleasure of touring there. I also toured KC Recycling, which you mentioned. Right next to KC Recycling is Cirba Solutions, another big recycling centre. Trail, B.C., is a real centre for recycling of all sorts.
KC Recycling, as you mentioned, recycles primarily lead acid batteries, so the main products are the polypropylene pellets you mentioned, and the lead goes right into the Teck lead and zinc smelter in Trail. Cirba Solutions recycles every other kind of battery you can imagine.
Both of them are the biggest of their kind in North America. The Teck smelter operation is now proposing a large EV battery recycling centre to make it one of the biggest on the continent. It's a very exciting sector in Trail, and a very exciting place to be for you. You're right in the centre of all that.
First of all, you sort of touched on some of those things, but how do you see your research there with the students connecting with these various companies that are really at the cutting edge of recycling not just plastic but metals and battery materials, etc.? How do you see yourself and your facility really playing into that?
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Thank you for the question.
It's critical, if we're going to really enable that systems change, to transition from a linear economy in which we take, make and dispose of materials to a circular one in which we have the value of this material, the chemistry of the materials, circulating in the economy for as long as possible at their highest value. That is going to require a significant systems change. That is one part regulatory, another part behavioural, and the third part is infrastructure.
On the regulatory side, to your point, the zero plastic waste strategy doesn't mean zero plastics; it means zero plastic waste. The CCME strategy that has been adopted by Conservative premiers, by Liberal premiers and obviously by this government, has really set a pathway. That's why you're seeing extended producer responsibility being adopted right across the country, such as in Ontario and Quebec. B.C. has had it for a number of years.
We're also starting to see extended producer responsibility at the state level in the U.S. There's a new U.S. bill that's been introduced in Congress. All of these things, when you put them together, are more or less aligned. That's going to create the regulatory certainty that you're asking for in terms of labelling, targets around recycled content in products and what have you.
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Thank you for the question.
From our perspective, we advocate reducing waste at source and looking at packaging alternatives as part of the materials management hierarchy. Source reduction is at the top, so we have to be talking about it. It's certainly not going to get you to a 50% recycling rate or a circular economy, but it is incredibly important. We work alongside a number of consumer packaging and goods companies headquartered in the region—such as Procter & Gamble in Cincinnati, Ohio, and SC Johnson in Racine, Wisconsin—that are doing tremendous innovations in their own packaging at that large-scale company size.
I just came back today from a sustainable packaging conference in Chicago, where there were 600 participants from the U.S. I can tell you that there are a lot of innovations happening that will allow for source reduction, including bio-based materials using seaweed, for example, which has almost the same properties as flexible film. Innovations are happening that are going to allow for source reduction.
Also, a final point I would make is this: We have to look at things on a life-cycle basis. I know that when we look at different choices, it might seem obvious that these are better than plastics. However, when you look at it from cradle to grave—GHG emissions, use of water and energy, or how many times consumers use that alternative product—the environmental performance isn't always better. Whatever the alternatives, we have to look at them through the lens of cradle-to-grave life cycles. Truly, what are the better-performing products we could be pushing consumers towards?