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Microgreens, Shoots, and Sprouts - Overview

Fabian Velez — Tue, 17 Mar 2026 19:00:00 -0500

Microgreens & Shoots

PDF download: Download the printable PDF version of this article.

Presented to the Dryden Horticultural Society on March 17, 2026 at the Dryden & District Agricultural Centre.

1. Section, Microgreens/Sprouts – Who are they?

1.1. What is a Microgreen?

Microgreens are tender greens^[2] harvested at an immature stage^[3] typically before true leaves show. The life cycle can be as short as 10-14 days like: Radish, Broccoli, Cabbage, Fenugreek, Clover, and others, but others can be as long as 16-25 days like: Amaranth, Basil, Beets, Sorrel, Carrots, and others, too.^[4] All grown in soil or substrate.² A quick note is that some microgreens are shoots, but not all shoots are microgreens. Some shoots can come from an older plant (Asparagus, Bamboo, and Fireweed) or be harvested past the immature stages (Peas, Wheatgrass, and Fava Bean) thus not making those shoots eligible to be considered microgreens.

1.2. What is a Sprout?

Another agricultural crop is just like microgreens, but more commonly germinated in a soilless medium including drums, trays, bins, or racks.² The entire plant (root, seed, and shoot) is usually harvested in 3-5 days^[5] like: Mung Beans, Alfalfa, Chickpea, Red Clover, Soy, Lentil, and others of course.

1.3. What’s the history behind these two?

The timeline regarding sprouts starts back 3000+ years ago with the Egyptians as they grew sprouts for food,⁴ and the Chinese Han destiny around 100 CE that would grow sprouts for medicinal purposes.^[6] Sprouts have been used and consumed for many generations; however, microgreens started around the 1980s in San Franisco.⁴ In just less than 10 years by the 1990s you were able to find the young greens as pretty garnishes with a nutrient overtone on dishes throughout all of California. In present times, they have spread because of their health benefits, their unique colours and textures besides the culinary arts exploring the bold flavours with mild or spicy tastes.

2. Are they all the same?

2.1. What colours can they be?

Sprouts are limited because of lack of chlorophyll as they grow in the dark, so the only colours are white, yellow, and green. Microgreen colours can vary in a beautiful range of bright brilliant purples, yellows, reds, pinks, light greens, whites, or dark greens. The colours can be a complete single colour or mix-and-match on the stems and seed leaves (Cotyledons). The microgreen can be completely light green or have a yellow stem with a green top.

2.2. What are the flavours?

The flavours can change from Radish and Arugula being spicy and peppery, peas and basil being sweet, or sunflower shoots to be earthy flavour. The flavour deals with the concentration of certain compounds the micro or shoot may have before being harvested. Some of these compounds come into play as defensive reactions of a plant trying to ward off pests or changes in the concentration of compounds because of stress. The spicy/pungent flavour you can find in the Brassicaceae family (radish, mustard, arugula) comes from the compound called Glucosinolates. These compounds have byproduct compounds that add to the bitterness flavour.^[7] The geosmin compound is the one that gives off the flavour of earthy tones that you can find in sunflowers and beets.^[8]

2.3. What are the different benefits?

In the 1980s-90s, you could find microgreens and sprouts on dishes in most top-end restaurants because of their presentation. For a mix-and-match rainbow it only took a handful of greens in the center of a plate to give it that shine. We still put microgreens and shoots as a garnish, but nowadays we look at them in a different light. We look at them more through the eyes of, “what can you do for my health?” We knew then that the benefits of vegetables, young or old, will always be good for your health, but now the benefits of these young greens are the focus in a lot of kitchens outside of the restaurant world.

Microgreens can be rich in compounds like phenolic that contribute to act as antioxidants in the human body¹. Some vitro (controlled non-living environment) and vivo (experiments performed within a living organism) studies of microgreens have shown microgreens to have anti-inflammatory, anti-cancer, anti-bacterial, and anti-hyperglycemic properties.⁴ Different plants contribute different vitamins, minerals, and compounds that can benefit us, but the key factor is the help these little fighters give against malnutrition known as the hidden hunger.^[9] We don’t get enough of our macronutrients, and we find out what we are lacking when it’s too late and there are symptoms or illness. If you don’t have time or energy to cook some greens for the day, then get a handful of micros to throw on a dish and get your nutrition that you need to properly function before symptoms start to be acquired with the proper energy and diet.

2.4. Can anything be a Microgreen/Sprout?

No! You shouldn’t eat shoots or microgreens from the nightshade family (Potatoes, tomatoes, peppers, and eggplant)^[10] because just like Rhubarb, fruit trees, red kidney beans, and a lot of different squashes, they can be poisonous from toxins like lectins. They can get your stomach uneasy or can lead to death from ingesting too much of these compounds that young plants tend to have to fight intruders. Stick to what you know or do a little research to protect yourself!

2.5. What should I be cautious about?

You need to be worried and extra careful with the sanitation practices you can deliver or control. The unfortunate event of foodborne pathogens among microgreens and sprouts is a real thing. The studies have increased regarding these situations because of recalls and the growth in popularity of microgreens and shoots. Since microgreens and shoots are harvested at an immature age and eaten raw, the potential of the plant to become a vector to transfer foodborne illness to humans is high.^[11]

Because of these potential occurrences, Ontario has put regulations in place to combat poor practices that can contribute to having a higher percentage of bacterial contamination of sprouted seeds and microgreens.² Salmonella or E. coli are the biggest two for recalls on greens because of contamination of seeds, water, soil/medium, or simply poor hygiene practices. Mold also contributes to the issues that normally arise when there is too much humidity in the environment.

Companies that sell microgreen seeds or shoots often advertise certifications just for those practices of growing because certain measures were taken regarding those particular seeds. The companies that advertise for these short-lived crops normally test them prior to being sold. The testing of these seeds is to ensure the seeds are not contaminated and do not transfer a pathogen. The soil/medium that gets used should also be from a trusted source. Coco coir is washed multiple times before being sold and sanitized. Soil can come with its own issues if the source is not taking sanitation seriously.

References

Zhang, Yanqi, et al. “Nutritional Quality and Health Benefits of Microgreens, a Crop of Modern Agriculture.” Journal of Future Foods, vol. 1, no. 1, Sept. 2021, pp. 58–66, DOI link.
Ontario, Province. “Overview of Food Safety for Sprouts and Microgreens.” Ontario.ca, 1 Mar. 2022, Ontario.ca link. Accessed 16 Mar. 2026.
Senger, Sue. “Twelve Of The Best Microgreens To Grow At Home.” Substack.com, 7 Dec. 2024, Substack link.
Ebert, Andreas W. “Sprouts and Microgreens—Novel Food Sources for Healthy Diets.” Plants, vol. 11, no. 4, 21 Feb. 2022, p. 571, DOI link.
Shurtleff, William, and Akiko Aoyagi. “History of Soy Sprouts (100 CE to 2013).” Google Books, 2013, Google Books link. Accessed 16 Mar. 2026.
Cano-Lamadrid, Marina, et al. “How Does the Phytochemical Composition of Sprouts and Microgreens from Brassica Vegetables Affect the Sensory Profile and Consumer Acceptability?” Postharvest Biology and Technology, vol. 203, 1 Sept. 2023, p. 112411, DOI link.
Liato, Viacheslav, and Mohammed Aïder. “Geosmin as a Source of the Earthy-Musty Smell in Fruits, Vegetables and Water: Origins, Impact on Foods and Water, and Review of the Removing Techniques.” Chemosphere, vol. 181, Aug. 2017, pp. 9–18, DOI link.
Bhaswant, Maharshi, et al. “Microgreens-A Comprehensive Review of Bioactive Molecules and Health Benefits.” Molecules (Basel, Switzerland), vol. 28, no. 2, 15 Jan. 2023, p. 867, DOI link.
Swansong, Ashley Swansong. “Welcome to Zscaler Directory Authentication.” Pbsutah.org, Feb. 2019, PBS Utah link. Accessed 17 Mar. 2021.
Xavier, Isabella Bassoto, et al. “Understanding Food Safety on Sprouts and Microgreens: Contamination Routes, Outbreaks and Challenges.” Food Research International, vol. 214, Aug. 2025, p. 116589, DOI link. Accessed 7 June 2025.

Northern Ontario Ag Conference - 2026

Blaise Eygun — Fri, 27 Mar 2026 17:00:00 -0500

Conference Dates: February 6-7, 2026

The Northern Ontario Ag Conference in Sudbury, ON, organized by the Northern Ontario Farm Innovation Alliance (NOFIA), was an exciting opportunity for us to showcase our work and connect with the people shaping the future of agriculture in Northern Ontario. As the premier gathering for producers, researchers, agri-businesses, students, and agricultural stakeholders from across the province, the conference brought together a diverse community committed to advancing innovation, sustainability, and food security in Northern Ontario.

This year, we were proud to be a part of Ontario’s Ministry of Agriculture, Food and Agribusiness’ (OMAFA) Innovation Alley, a dedicated space that highlighted the latest Ontario-led technologies and research driving agriculture forward. Innovation Alley creates a hub where farmers, agri-food businesses, entrepreneurs, and tech developers can meet, exchange ideas, and explore solutions designed to strengthen Northern farming operations. OMAFA has been a critical partner of AgriTech North for some time now, with programs that have helped fund the development of several of our projects. The Hydronic Microclimate Control System (HMCS), one of the Controlled Environment Agriculture (CEA) innovations presented at the conference, has been made possible thanks to OMAFA’s help. The Ontario Agri-food Research Initiative (OAFRI) through OMAFA helped fund its pilot and demonstration phase, and OMAFA’s Agri-Food Energy Cost Savings (AECS) initiative helped fund our pilot hybrid solar installation, supplying thermal energy to the HMCS heating, ventilation, air conditioning, and dehumidification (HVAC-D) system at our facility in Dryden.

During the opening ceremony, NOFIA members presented their 2025-2028 strategic plan, which is built on three core pillars: Local Food, Technology, and Sustainability. Presented at the conference, AgriTech North’s HMCS and Inflatable Multi-Layer Greenhouse both encompass these values, by enabling commercially viable year round agricultural production in Northern and remote communities. These pillars were recurring themes throughout conversations with exhibitors, researchers and growers in attendance, with whom we discussed various use cases and applications of our technology.

1. Local Food: Increasing access to Northern-grown foods

AgriTech North’s Greenhouse Envelope directly supports NOFIA’s Local Food pillar by enabling year-round local production for a wide variety of crops. Its high insulation and light transmissivity, as well as its proven snow-load resistance, allow Northern growers to maintain productive greenhouse environments even in harsh winter conditions.

We had a chance to speak with multiple Ontario greenhouse growers at the conference, for which year-round growing had previously not been viable due to the limitations of current greenhouse envelopes in freezing climates. Our greenhouse envelope’s high insulation was also discussed as a solution for CEA in hot climates, where greenhouses with limited insulation struggle to maintain ideal growing climates due to the ambient heat. In both situations, AgriTech North’s innovative greenhouse envelope allows for local production, reducing dependence on long-distance supply chains and helping address food insecurity in regions with limited local agricultural production.

2. Technology: Supporting scalable, Northern-focused innovation

Both of our featured CEA technologies embody NOFIA’s focus on technology adoption, as they were both designed with the challenges of Northern and remote communities in mind.

Designed for Northern climates, the Inflatable Greenhouse Envelope is small-scale proven, as demonstrated by our greenhouse growing year-round in Dryden, and can be scaled from a backyard greenhouse to industrial-sized greenhouse operations. This is a unique and desirable feature, as most current freezing climate CEA systems are only duplicable due to the numerous environmental challenges in these environments.

The Hydronic Microclimate Control System introduces a low energy consumption approach to controlled microclimate management, offering heating, cooling, and dehumidification powered by low-grade waste heat and passive cooling. The system utilizes adsorption chilling and hydronic heat transfer, allowing it to be fully self-maintained without specialized refrigeration technicians, a significant advantage for Northern and remote communities.

The importance of a self-maintainable HVAC-D system for agriculture was emphasized in discussions with an Ontario mushroom grower who faced similar challenges with the upkeep of their HVAC-D system. Our patented pressure washable HVAC-D coil was of particular interest as spore and mold growth on HVAC-D coil is a common occurrence in mushroom production, which greatly impacts the systems heat transfer capabilities. It was great to hear about the different potential use cases for our technology and how our planning for robust and scalable designs is of value for a range of agricultural applications and general occupied spaces beyond our initial use case.

Together, these systems demonstrate how Northern-led innovation can overcome regional barriers and help farms adopt resilient, modern-growing systems.

3. Sustainability: Ensuring long-term agricultural resilience

Sustainability is at the core of both systems.

Our HMCS eliminates reliance on high global warming potential (GWP) refrigerants and makes use of renewable thermal energy, reducing electricity consumption. In addition, the ability for self-maintenance allows for longer-lasting machines, further reinforcing the system’s sustainability.

Meanwhile, the Greenhouse Envelope’s insulation dramatically reduces heating loads, cutting emissions and operating costs and has a lifespan of over 50 years, offering long-term durability that reduces material turnover and waste. This long-term durability was highly valued by greenhouse growers at the conference, who are currently limited to low-lifespan and less durable greenhouse envelope options for freezing climates.

By reducing environmental footprint and increasing local production capacity, our technologies align directly with NOFIA’s long-term vision for a sustainable agricultural sector.

Dryden Farmers' Market back Downtown

Benjamin Feagin Jr. — Fri, 27 Mar 2026 20:25:00 -0500

Returning the Dryden Cloverbelt Country Farmers' Market Downtown Initiates Food Security Infrastructure

At AgriTech North, supporting regional food security does not stop at growing food. It also means protecting the commercialization infrastructure that allows local producers to survive and scale. That is why we lead a delegation on February 23, 2026 to the City of Dryden council chambers, accompanied by the Cloverbelt Country Farmers' Market coordinator Samantha Allan, appearing on assignment of market President Beth Zurbrigg, and Fabian Velez, Chief Operations Officer (COO) of AgriTech North. All three attendees are also the board members of the Charitable non-profit True Wealth Foundation.

Together, we advocated for the return of the Cloverbelt Country Farmers’ Market to downtown Dryden, and presented why AgriTech North has been building what we describe as the "second rung" on the commercialization ladder: a staffed, year-round, accessible local retail and e-commerce channel that sits between the farmers’ market table and the highly regulated world of big-box retail, food service, and broader distribution. AgriTech North’s homepage presents the business as a local grocery store with year-round retail hours and delivery across Northwestern Ontario within the Winnipeg (MB), Dryden, Sioux Lookout, Fort Frances, and Thunder Bay corridors, while local reporting documented AgriTech North’s role in presenting the market-relocation case to Dryden council.

In a February 2026 local news report, Dryden Council in talks to move farmer’s market back downtown, journalist Jacob Henriksen-Willis reported that Benjamin Feagin Jr. presented the case for moving the Cloverbelt Country Farmers’ Market back from the Dryden AgCentre to the Dryden Memorial Arena parking lot in the downtown core. The arguments recorded there were practical, not symbolic: downtown improves accessibility for people who do not drive, improves exposure to after-work foot traffic, and gives a low-margin food market a better chance of staying alive. The same report records City CAO Roger Nesbitt supporting the downtown location because of the value and foot traffic it brings to the core.

That advocacy has now translated into practice. A public preview of the February 25, 2026 City of Dryden council document also described the request for a formal letter of support so the market and community partners could pursue grant funding for a permanent or retractable covered multi-use event structure at an appropriate site. In other words, this was not only a request to change location for the Farmers' Market, It was a request to strengthen the physical and commercial infrastructure that lets all market vendors prosper.

Following approval by the City of Dryden Council for the Cloverbelt Country Farmers' Market to return to downtown Dryden, the Market's membership voted to implement the migration, and was successful on March 25, 2026, formalizing the council-approved measure.

Farmers’ markets already function as significant and essential economic infrastructure in Ontario. On its About Farmers’ Markets Ontario page, Farmers’ Markets Ontario (FMO) says markets now act as key retail hubs that connect farmers to shoppers through direct sales, and estimates Ontario farmers’ market sales at about $800 million annually with an economic impact above $2.5 billion. On its Community Benefits page, FMO says up to 70% of market-goers also visit neighbouring businesses, and that some market-based enterprises grow into storefront businesses of their own. The 2023 BC Farmers’ Market Economic Impact Study, completed by the BC Association of Farmers’ Markets with the University of Northern British Columbia, reached similar conclusions, describing farmers’ markets as integral low-barrier direct-sales channels and estimating $118.5 million in spending at neighbouring businesses. That is why the Cloverbelt Country Farmers' Market question was always larger than event placement. A downtown Farmers' Market is part of the essential commercial infrastructure of local food.

Farmers’ Markets are the First Rung on the Commercialization Ladder

In Northwestern Ontario, the first rung is regulatory as well as economic. The Northwestern Health Unit (NWHU)’s public FAQ, FAQ for Farmers’ Market Food Vendors, explains that a farmers’ market is exempt from Ontario Regulation 493/17 (Food Premises) when more than 51% of vendors are farmers selling their own farm products. At an exempt market, home-prepared food items can be sold subject to a public-health hazard assessment, while certain categories such as meat, milk, and eggs still have to come from inspected facilities. At a non-exempt market, by contrast, all food vendors must meet the regulation, use an inspected and approved kitchen, obtain permits, and, if they cannot find an approved space, they cannot sell. That distinction is not a technicality. It is one of the few places in the food economy where early-stage farmers and food processors can enter the market before they can afford to operate like a conventional commercial plant.

That is why the distinction between a true farmers’ market and a more general market matters so much. The issue is preserving a producer-led entry point that keeps the first rung intact. In food, unlike many other sectors, regulation arrives early, compliance is expensive, and mistakes can shut down market access or the business altogether. A genuine farmers’ market is therefore not just a place to sell. It is a market-access bridge.

The First Rung is Necessary, But Not Sufficient

The need for that bridge is visible in the national data. Statistics Canada reported in 2023 that 25,917 Canadian farms sold directly to consumers (DTC) in 2020, up from 24,510 in 2015. Three in five of those direct-selling farms used on-site stands or farm-gate sales, half delivered directly to customers, about one in six sold at farmers’ markets, and nearly 30% derived all operating revenue from direct sales. The Ontario Federation of Agriculture’s (OFAs) 2025 final report, Cultivating Local: Seizing Opportunities to Grow Ontario’s Local Agri-Products Sector, found that producers see increased income potential and direct connection to consumers as the top benefits of local selling, but it also found that advertising and marketing, along with managing costs and profitability, are the top challenges. Notably for this discussion, OFA reported that farmers in Northern Ontario show high interest in direct-to-consumer selling, and that 61% of respondents did not have an online presence for their farms. In Northwestern Ontario's Kenora District, the lack of urban centres in such a large region makes farm-gate sales unviable. The market is thus essential, but the market alone does not solve commercialization and scaling, due to low population centres.

Academic literature helps explain why. In the peer-reviewed paper Does direct farm marketing fulfill its promises? Analyzing job satisfaction among direct-market farmers in Canada, Stevens Azima and Patrick Mundler surveyed 613 direct-market farmers across Canada and found that respondents generated an average of 80% of total farm revenues from direct marketing. They also found that direct-market farms were typically managed by one or two operators, that hired labour and volunteers were common, and that nearly one-fifth of respondents reported negative earnings. The authors conclude that direct-market farmers often find the work meaningful, but still face persistent challenges including stress, excessive workloads, and competition. A University of Waterloo thesis, A Case Study in the Development of a Sustainable Farming Livelihood for Direct-Marketing Farmers in Southwestern Ontario, Canada, adds a blunt operational lesson: scaling up is not a great possibility for direct-marketing farmers, so expenses have to be kept to a minimum. This is why strong producers can still remain commercially fragile when the farmers’ market is their only serious channel.

Farmers’ Markets Ontario’s Farmers’ Benefits page says 60% of farmers who sell at farmers’ markets sell at multiple markets, and that those market revenues average 33% of their total farm revenues. In Southern Ontario, that can mean several markets within manageable driving distance. In Kenora District, the arithmetic is harsher. Statistics Canada’s 2021 Focus on Geography profile for Kenora puts the district’s land area at 395,432.07 square kilometres, with a population density of 0.2 people per square kilometre. In a geography that large, “multiple markets” can mean long drives, fuel costs, time away from production, and repeated setup labour for businesses that often have only one or two operators. This is where a first rung can keep a business alive, but still fail to let it scale.

Northwestern Ontario has a Missing Middle-Ground

The structural problem is what happens after the first rung. In a 2025 Northwestern Ontario Innovation Centre (NOIC) article, Navigating Barriers: How Food Manufacturers Can Scale in Northwestern Ontario, NOIC identifies five recurring barriers: regulatory hurdles, infrastructure gaps, geographic and logistical constraints, market access and visibility, and capital and cash flow. The article is especially direct about the next-stage retail challenge: breaking into grocery chains, food service channels, or export markets requires consistent production, professional branding, and established distribution relationships that many early-stage businesses do not yet have. For rural and Indigenous entrepreneurs, it adds, the financing burden is even harder. That description maps closely onto what we see across Northwestern Ontario.

Broader Ontario and Northern food-system research points to the same missing middle-ground. The literature scan Northern Ontario Food Systems: A Scan of Infrastructure and Transportation, prepared for Local Food and Farm Co-ops (now dissolved) and the FLEdGE research program, found that higher volumes of product move through wholesale while lower volumes move through farmers’ markets, that grocery stores have left little room for local product because of their affiliation with major chains, and that Northern Ontario needs identifiable wholesalers, retailers, food co-ops, food hubs, and online distribution hubs. The University of Guelph case study Regional Food Hub Pilot Project makes the same point differently: the mainstream distribution model is geared to large-scale operations, and the infrastructure linking small and medium-sized producers to larger buyers is lacking. The Royal Society of Canada commentary Canada’s local food system faces major roadblocks without urgent policy changes and Sustain Ontario’s 2025 policy paper Buy Local Food: Policy Recommendations both argue that small and medium-sized producers need better retail opportunities, better processing and distribution infrastructure, and more regional food hubs. The research is clear: farmers’ markets matter, but regions also need an intermediate commercial bridge.

The federal Competition Bureau has now put similar language into national policy terms. In its 2026 report A recipe for competition: How shared kitchens and food hubs can strengthen competition and small business growth in Canada’s food sector, the Bureau says shared kitchens and food hubs lower entry thresholds, reduce capital and compliance costs, accelerate launch timelines, and improve compliance for small and medium-sized enterprises. It also introduces a particularly useful concept: the shared facility as a compliance platform. In the Bureau’s analysis, a professionally managed shared facility lets multiple businesses operate inside an environment that already meets core regulatory standards, rather than forcing each one to build and certify everything alone. That is how AgriTech North has planned and developed itself from its inception as the "second rung."

AgriTech North’s Second Rung is the Middle-Ground

This is the void that AgriTech North has been trying to fill. On its homepage, AgriTech North describes itself as a local grocery store with year-round retail hours, and lists weekly delivery to your door to Dryden, Kenora, and Sioux Lookout. Its grocery collection shows a mixed shelf that includes AgriTech North’s own products alongside goods from other vendors. In a 2023 FedNor news release, Government of Canada invests $177,416 to boost agriculture production and establish a food hub in Dryden, the federal government described complementary Dryden food-hub work in almost identical terms, saying value-chain coordinators would help producers overcome challenges related to marketing, storage, packaging, logistics, and distribution. Those are exactly the tasks that sit between the first rung and broader market access.

For many of the producers we work with, that second rung has meant something simple but transformative: a regularly staffed retail shelf and an online storefront that can sell their goods on days when they are not physically present. Because AgriTech North operates year-round with staff on-site, we also absorb coordination and merchandising labour that one- or two-person direct-market businesses often cannot absorb on their own. In practice, that includes the unglamorous commercial tasks that stall early-stage food businesses, such as packaging, merchandising, customer education, inventory handling, local delivery, and the gradual tightening of label and documentation regulations. A market table can prove there is demand. A second-rung shelf can turn that proof into repeatable and growing commerce that enables scaling.

The jump from market vendor to mainstream buyer is unusually steep in food. National Sanitation Foundation's (NSFs) CanadaGAP page describes CanadaGAP as a Hazard Analysis and Critical Control Point (HACCP) based food safety program that helps growers gain access to Canadian retailers and food processors, and notes that several large Canadian retailers and food processors require CanadaGAP certification. For reference, GAP in CanadaGAP stands for "Good Agricultural Practices." NSF Canada Agricultural Certification Company makes the buyer side even plainer on its CanadaGAP page, naming big box retailers among buyers requiring certification. At the same time, Farmers’ Markets Ontario (FMO) says markets are ideal for new and small-scale producers who cannot meet supermarket order minimums. Not every grocer uses identical requirements, but the public certification landscape makes the broader point unmistakable: the leap from a farmers’ market to formal retail is very large, and it arrives very early. That is an unavoidable commercialization cliff.

The logistics model of large buyers creates a second barrier. The University of Guelph’s Regional Food Hub Pilot Project case study found that many food service buyers, large and small, prefer to purchase through a single supplier because one-stop shopping simplifies ordering, receiving, and payment, and the same report found that the current system creates difficulties for small producers trying to access those channels. In Northwestern Ontario, those pressures are intensified by geography. NOIC says the region’s vast distances and sparse transportation infrastructure erode margins, while the Northern Ontario food-systems scan says conventional delivery is more expensive, shared delivery is less convenient, and grocery chains have left little room for local product. That is why a local second-rung retailer and distributor can change the economics even before a producer is big enough for a formal chain listing.

From the Second Rung to Broader Markets

The second rung is not the destination. It is the bridge to a third rung. AgriTech North has been working toward PrimusGFS Certification (GFS stands for Global Food Standard) for more than two years because the long-term goal is not simply to stock a local shelf, but to create a path from farmers’ market, to managed local retail, to provincial, national, and international buyers. Externally, NSF describes PrimusGFS as a Global Food Safety Initiative (GFSI) recognized agricultural certification used across North American and Latin American markets for growers, packers, processors, and distributors, while Azzule Systems’ PrimusGFS page describes it as an internationally recognized scheme covering GAP, Good Manufacturing Practices (GMP), food safety management, indoor agriculture, storage and distribution, and HACCP-related modules. In other words, it is the kind of platform that can turn local commercialization into broader market eligibility.

That broader eligibility matters for financing as well. NOIC’s Next Level program page says applicants must be operating full time with at least one full-time employee and must have sales outside Northwestern Ontario, or be able to demonstrate the potential to expand sales outside the region within the context of the program. That is a reasonable scale-up criterion, but it also illustrates why food producers need an intermediate rung. A producer whose business model still depends almost entirely on sporadic market days generally has difficulty proving that kind of market reach. A second-rung channel helps create the sales history, packaging discipline, compliance readiness, and distribution habits needed to satisfy programs like this. Then by using the resulting equipment and certifications the small business becomes more competitive while learning the process as it is being implemented, ultimately gaining independent capacity along the way. Some producers who previously only retailed at markets then progressed to being a featured local producer at AgriTech North, and are now on big-box grocery store shelves, illustrating the success of the model.

What Regional Food Security Requires

None of this is merely a business-development story. It is a food security story. In Northern Ontario Farm Innovation Alliance's (NOFIAs) 2024 resource, Better Co-Ordination Key to Strengthening Northern Ontario’s Food Supply Chain, the organization says local food procurement in Northern Ontario is challenged by distance and low population density, and argues that the region needs a connector or champion who can bring people and businesses together, simplify procurement, and coordinate distribution. FedNor’s 2023 Dryden food-hub release says that improving distribution efficiency will help address food insecurity in rural and Indigenous communities across the region. AgriTech North’s own public site links its grocery and year-round growing work to reducing produce costs and improving year-round availability. For us, the policy logic is straightforward: regional food security improves when local producers can stay in business, reach more customers, and scale without having to leave the region to do it.

That is why supporting the Cloverbelt Country Farmers’ Market’s return to downtown Dryden and building AgriTech North’s second rung are not separate projects. They are the first two steps of the same ladder. The market keeps the first rung alive: low-barrier entry, direct sales, local visibility, and community trust. The second rung gives producers a way to keep selling after market day ends, to reduce time lost to travel, and to build toward the higher-compliance, larger-volume markets that remain out of reach for many start-ups. If Northwestern Ontario wants more locally produced food on more local tables, it cannot assume the farmers’ market alone will do all the work. It has to keep the first rung strong, and it has to build the second.

Ottawa Valley Farm Show - 2026

Nick Woolf — Fri, 03 Apr 2026 20:01:00 -0500

Conference Dates: March 10-12, 2026

AgriTech North is grateful to have attended Ontario’s longest running agricultural trade show in Ottawa this March 10th – 12th. The Ottawa Valley Farm Show (OVFS), hosted by the Ottawa Valley Seed Growers Association (OVSGA), was started in 1959 and has grown to be a key exhibition of agricultural innovation and technology. The OVFS prides itself as both serving as a hub to bring together, producers, suppliers, and innovators to showcase and collaborate on the latest in agricultural technology and innovation, and also on creating an environment where families and communities can gather and celebrate the agricultural history and heritage of the region.

OMAFA Innovation Alley

We were honoured to be invited to be a part of Ontario’s Ministry of Agriculture, Food, and Agribusiness’ (OMAFA) Innovation Alley at OVFS. Innovation Alley served as a space for new and upcoming technologies, products, and initiatives advancing the agricultural sector to be showcased. At our booth. we showcased two of our innovations: our Hydronic Microclimate Control System (HMCS) and our Inflatable Multi-Layer Greenhouse. These innovations were initiated to help secure food sovereignty for communities across northern Canada, but at the event we were displaying how these innovations can be expanded to farmers in more traditional agricultural environments to allow all agricultural operations to be more efficient and self-reliant. This was our second appearance with OMAFA’s traveling Innovation Alley, as we previously showcased our technology at the Northern Ontario Ag Conference held by the Northern Ontario Farm Innovation Alliance (NOFIA) in Sudbury in February.

Being able to attend the OVFS was a fantastic and validating opportunity for us at AgriTech North. At the farm show we were able to present ourselves as a part of Innovation Alley where we were able to show off the new innovations in agriculture to farmers and regulators and see how other technologies shown off across Innovation Alley were all contributing to a better and more self-sufficient Canadian future, we were able to hear how the agricultural industry across Ontario and across Canada is reacting to different trends and find out how our technologies helped fit into those trends, and from conversations with attendees and other presenters we were able to leave the conference with several solid next steps on what we can do to further the mission of AgriTech North.

Highlights from Innovation Alley

OMAFA’s Innovation Alley at this year’s conference showed a wonderful range of new technologies across the agricultural industry that are bringing the future to Canadian Agriculture. It was an exciting place to be at the conference as it included many exciting booths as well as a robot dog running up and down the hallway. Presenters at Innovation Alley were aligned with bringing solutions to attendees that were allowing farms to be more self-sufficient and help farms avoid external systems creating problems.

Innovators at Apidae System’s booth presented their solutions for sensor integration via their universal data logger allowing farms to have a “Bring Your Own Sensors” approach to data collection. Allowing farmers to be able to integrate all relevant sensors to a single location, instead of having to work within a patchwork of sensors and programs only compatible with individual manufacturers' catalogs. Apidae System’s technology is directly relevant to our AgriTech North customers implementing our Inflatable Multi-Layer Greenhouses, as their data logger is a perfect fit for small and remote controlled-environment agriculture (CEA) producers particularly as it allows users to add sensors as needed and integrate them seamlessly instead of being limited to a single-sensor ecosystem.

Presenters at Energrow’s booth presented their technology that allows farms to press and process soybeans, to produce oil, and soybean meal directly on their farms; avoiding several additional logistics hurdles. It was great to see these innovations and how they helped farmers directly without tying them down into one solution ecosystem or pushing them into a specific supplier or purchaser monopoly. While Energrow is specifically for field crops this fit the theme of self-sufficient design that Innovation Alley supported. These neighbors at Innovation Alley fit right alongside our innovations, that focus on allowing farms to operate year-round without, relying on external supply chains. Attendees who came to Innovation Alley for these self-sufficient solutions were particularly interested in our Hydronic Microclimate Control System (HMCS) and the capability of the hydronic HVAC units to be safely maintained, repaired, and replaced all by the customer directly without relying on external refrigerant techs or specialized education programs.

Our other neighbors in Innovation Alley were the presenters at Area X.O who run a research and development complex at Ottawa’s famous Central Experimental Farm. Presenters there included folks presenting the complex itself as well as many of the solutions and partnerships that had been developed at the complex. With so many innovators developing new solutions in a small location it was excellent to discuss how our technologies might be able to support one another both now and in the future.

We were also honored to be in Innovation Alley when The Honourable Trevor Jones of OMAFA visited. Minister Jones stopped by our booth to learn more about AgriTech North and was happy to see our innovative CEA technologies and our focus on developing solutions for food security for all Ontarians.

Industry Trends at OVFS

With over 360 Exhibitors and 13,000 attendees at OVFS, it was great to be at this conference just to hear about the current and future state of the agricultural industry in the Ottawa region and beyond. While the majority of the farm show was aimed at field crops, there were certainly some themes that persisted across the farm show for presenters and attendees. There was a large focus on finding ways for Canadians to be more self-sufficient with our agricultural future. There were several presentations about the rapidly changing soybean global trends, as well as discussions about what farms could do to process their own crops when long term trading partners and customers were becoming less reliable. In this climate we had many attendees interested in our innovations, particularly our Inflatable Multilayer Greenhouses. Attendees were happy to hear about the greenhouses for the greater thermal insulation that they offered as well as the security of greenhouses built for 50+ year operational life spans. It seems that with the unstable global agricultural market, our solutions offering dependability, high insulation, and flexibility to work with a large range of crops are all features that are valued highly in the agricultural sector at this time.

The other trend that was clear from OVFS was the increased interest in CEA from traditional agricultural field croppers. Many farmers we talked with, had hoop houses or seed starting greenhouses that were a smaller part of their business, but with the less reliable climate, they were interested in expanding their greenhouse capabilities. There was an interest in how our high insulation Inflatable Multilayer Greenhouse innovations could be used year round to insulate from heat and cold, and interest in how our greenhouse and Hydronic Microclimate Control System (HMCS) could be used together to create extreme and even tropical conditions inside our greenhouses.

Looking Ahead

We are happy to leave the OVFS with a better perspective on the current state of the agricultural industry and several new connections to develop into partnerships and customers. It was good to hear that the technology that we are developing for creating food security and sovereignty in remote northern communities is applicable and appreciated in southern farms for its robust and self-sufficient design. It appears as if we continue to pursue designs focusing on being resilient against non-dependable supply chains; we are not just developing for the far north, but for the agricultural sector as a whole.

What Is a Red Paper?

Benjamin Feagin Jr. — Fri, 03 Apr 2026 22:00:00 -0500

Why Indigenous-Led Research, Technology, and Food-Sovereignty Work Needs a Different Name

Most people already have an intuitive sense of what a white paper is; it is a commonly used term today. In plain language, a white paper is a substantial report written to explain a complex issue, persuade decision-makers, and present a proposed path forward. Historically, the term came out of government policy publishing, and over time it expanded into business, nonprofit, technical, and academic-adjacent use. Today, it often means an authoritative document that explains a problem and argues for a solution. At the same time, even mainstream institutions acknowledge that the term is now used loosely, and that there is no single universal classification standard for it. That looseness matters, because it means the title is a convention, not a law. A Red Paper, then, should be understood not as a gimmick or a decorative variation, but as an emerging Indigenous-led publishing convention with a specific historical lineage, a political context, and a methodological logic of its own.

Who is Speaking

Benjamin Feagin Jr. Is Red River Métis, with lineage tracing back to the Battle of Batoche. His maternal bloodline largely lives in Dryden, Ontario, which is within the small portion of Ontario that is rights-bearing traditional territory of the Métis people. His own family thus lived through the experiences in this article in their adult lives.

As co-founder of AgriTech North, Benjamin also incorporates Indigenous sensitivity training within regular staff training activities for all staff, whether or not they are Indigenous. The organization regularly participates in policy advocacy and assists regional and community-level governance in establishing new mandates and policy structure, especially when in the realm of food sovereignty and entrepreneurship. This work effectively puts AgriTech North in-community to participate in regular discussions, storytelling, cultural sharing, and sensitivity training, to ensure a much broader perspective is integrated with AgriTech North and Benjamin's work.

This article intentionally avoids replacing authentic within-community work and Elder storytelling and education, and rather focuses on more academic discourse. We encourage those that are unfamiliar with the real and lasting impacts of the history described in this article to consult with your Elders, or those Indigenous peoples closest to you, that you can engage with in person.

The Canadian History Behind the Term

In Canada, the title “white paper” is not culturally or politically neutral. In Westminster tradition (essentially British legal adoptions by Canada), white papers were government statements of policy, often outlining proposed legislative change. That alone makes the term official and state-facing. But in the Canadian Indigenous context, the phrase is loaded by one particular document: the 1969 Statement of the Government of Canada on Indian Policy, usually called the 1969 White Paper. The very phrase “white paper” therefore carries a distinct Canadian history, especially for Indigenous peoples, because it is tied not only to bureaucratic procedure, but to a programmatic attempt to reorder Indigenous-state relations on assimilationist terms. Modern debate over the term is not speculative; Canadian organizations and scholars have explicitly noted that the historical significance of “white paper” in Canada differs from other jurisdictions for this reason.

The 1969 White Paper was presented by Jean Chrétien, then Minister of Indian Affairs and Northern Development, and it argued for a “break with the past.” In practical terms, the government proposed repealing the Indian Act, transferring responsibility for “Indians” to the provinces on the same basis as other citizens, winding down the Department’s Indian Affairs role, and moving toward the elimination of separate legal status. The document framed this as equality, but it did so by treating difference, treaty relations, and Indigenous political distinctiveness as problems to be dissolved rather than rights-bearing realities to be honoured. Whatever its rhetoric, the policy’s operational effect would have been to dismantle the legal architecture through which the Crown’s obligations to Indigenous peoples were recognized.

From White Paper to Red Paper

The Red Paper emerged as a direct response to that moment. In 1970, under the leadership of Harold Cardinal and the Indian Association of Alberta, Citizens Plus was presented as a counter-document to the White Paper and came to be known as The Red Paper. Contemporary and later accounts describe it as insisting that treaties be honoured “in the letter and in the spirit of the law,” and as a forceful rejection of the federal attempt to dissolve Indigenous rights into generic citizenship. The response mattered. Accounts from the Canadian Encyclopedia and the University of British Columbia’s Canadian History in Documents Project both note that the Red Paper helped derail the White Paper, and that its effects reverberated well beyond the immediate dispute, feeding later Indigenous political mobilization, self-determination discourse, and rights recognition in Canada. The title “Red Paper,” therefore, begins not in branding, but in an Indigenous counter-assertion against a state policy paper.

That history is the first reason the modern use of “Red Paper” has credibility. A Red Paper is historically rooted in Indigenous resistance to a federal policy agenda that threatened treaties, jurisdiction, and distinct peopleshood. It is not simply “a white paper by Indigenous people,” although it can function in a similar public-policy or issue-education role. Its stronger meaning is that it speaks from a different source of authority. Where the 1969 White Paper presumed the state’s right to define the problem, the Red Paper tradition begins from Indigenous peoples defining the problem, naming the historical structure around it, and setting out alternatives on their own terms. That is why organizations using the term responsibly should not strip it of its origin story. The credibility of the name comes precisely from acknowledging that stark beginning, not from sanitizing it.

How the Term Is Used Today

The second reason the term has credibility is that it is already in active use by Indigenous institutions. Yellowhead Institute describes its Red Papers as “comprehensive research and media projects” that follow a tradition of “agenda-making reports by Indigenous people,” explicitly linking them to the 1970 original. Its Land Back Red Paper repeats that lineage in the report itself, and situates the format as part of substantive research on jurisdiction, consent, dispossession, and alternatives to settler-colonial policy. Seventh Generation Fund uses the term somewhat differently, but in a compatible direction, describing Red Papers as “self-determined storytelling” by and for Indigenous peoples, encompassing issue advocacy, scholarly essays, speeches, poetry, and other forms of discourse rooted in traditional knowledge systems, survivance, and community solutions. These uses show that Red Paper is not a single rigid template. It is an emerging Indigenous-authored family of public documents that can be analytical, policy-facing, cultural, strategic, or all of those at once.

Flexibility is a strength; it reflects something important about Indigenous research and communication practices. Mainstream white papers are usually valued for authority, clarity, and utility. Indigenous Red Paper methodologies do not reject those things, and they ask a more foundational question: authority on whose terms, accountable to whom, and for what purpose? Shawn Wilson’s Research Is Ceremony argues that Indigenous research is about accountability to relationships, and that this accountability should shape topic selection, data gathering, analysis, and the way information is ultimately presented. More recent work on Indigenous research governance makes a similar point in contemporary terms, describing how Indigenous peoples are reimagining research through greater self-determination and governance over knowledge production. A Red Paper, in this light, is credible when it does not merely borrow the polish of formal reporting, but reflects a different research ethic and a different accountability structure.

Why Naming Matters

There is also a clear legal and normative basis for this shift in naming and method. The United Nations Declaration on the Rights of Indigenous Peoples (UNDRIP), which Canada has affirmed through federal legislation, states that Indigenous peoples have the right to self-determination, the right to participate in decision-making through their own institutions, the right to determine and develop priorities and strategies for development, and the right to maintain, control, protect, and develop their cultural heritage, traditional knowledge, and even the manifestations of their sciences and technologies. Canada’s United Nations Declaration on the Rights of Indigenous Peoples Act expressly affirms the Declaration as a universal international human rights instrument with application in Canadian law and provides a framework for federal implementation. In other words, there is already a recognized legal and policy basis for Indigenous peoples setting the terms of knowledge, development, and public explanation in matters that affect them.

The Truth and Reconciliation Commission of Canada reinforces this direction. Call to Action 62 calls on governments, in consultation with Survivors, Indigenous peoples, and educators, to make curriculum on residential schools, Treaties, and Indigenous peoples’ historical and contemporary contributions mandatory, and to fund the integration of Indigenous knowledge and teaching methods. Call to Action 65 calls on the federal government, through the Social Sciences and Humanities Research Council (SSHRC) and in collaboration with Indigenous peoples and post-secondary institutions, to establish a national research program with multi-year funding to advance understanding of reconciliation. Those calls are not instructions on document titles, but they do make a larger point: public education, public research, and public-facing knowledge in Canada are supposed to move toward Indigenous participation, Indigenous knowledge, and Indigenous framing. A Red Paper can be understood as one practical expression of that movement.

The contemporary debate over the term “white paper” also supports this repositioning. The Chairs for Women in Science and Engineering network published a brief after consulting academics, librarians, Indigenous leaders, and science-policy experts about the continued use of the term. Their summary states that “white paper” is now used very broadly, that there is no formal way to classify it, and that in Canada the term carries a particular colonial context because of the 1969 White Paper on Indian Policy. They also recorded concern that the phrase “white paper” is associated with authority in ways that can reproduce racialized and colonial hierarchies. Not everyone will agree with every part of that critique, but it demonstrates that renaming debates are already happening in professional and research settings. The use of Red Paper, then, sits within a broader and credible conversation about how public documents are named, and whose authority their names are meant to signal.

Red Papers and Indigenous Food Sovereignty

This matters especially in the field of Indigenous food insecurity. The issue is neither abstract nor marginal. PROOF at the University of Toronto notes that national data show high rates of food insecurity among off-reserve Indigenous peoples and that the situation is likely worse than national surveys suggest because of underrepresentation of Indigenous communities, including the exclusion of many on-reserve populations. The First Nations Food, Nutrition and Environment Study (FNFNES) found that almost half of on-reserve First Nations households were food insecure, and reported that barriers to preferred traditional foods included financial and household constraints, industrial activity, government regulation, climate change, and fear of contamination. Its conclusion was blunt: existing systems have been unsuccessful, and improving food security hinges on Indigenous food sovereignty. When a publication addresses this terrain, it is not just selling a tool or summarizing a market opportunity. It is entering a field shaped by treaty relations, land access, state policy, environmental change, and Indigenous governance.

Canadian food insecurity research from PROOF shows that food banks and food charity do not solve household food insecurity, which is fundamentally driven by inadequate income: "governments must focus on addressing inadequate incomes to reduce food insecurity, instead of funding food charity."

It also matters in the technology space. Canadian institutions are already acknowledging that Indigenous communities are developing and evaluating technological approaches to food production in place-based ways. British Columbia’s guide on planning for small-scale controlled environment agriculture (CEA) states that it was built from interviews with First Nations communities and Indigenous organizations already operating or considering such systems, alongside technical experts. At the federal science-policy level, the Council of Canadian Academies has launched an Indigenous Science and Food Sovereignty assessment sponsored by the Indigenous Science, Technology, Engineering and Mathematics (I-STEM) cluster hosted by Agriculture and Agri-Food Canada (AAFC), with support from multiple federal science and innovation bodies. That tells us two things. First, Indigenous food systems and technology are recognized as serious scientific and policy subjects. Second, there is already institutional recognition that Indigenous knowledge, food sovereignty, and technological development belong in the same conversation.

Why Red Paper Fits Indigenous-Led Technology Development

For an Indigenous-owned organization bringing new technologies to market to address Indigenous food insecurity, especially technologies developed from within the climatic context in which they are intended to work, “Red Paper” is therefore more accurate than “White Paper.” A white paper generally signals expertise, analysis, and recommendation. A Red Paper generally signals those things as well, but it can add four essential elements that the white paper label often leaves unstated: historical consciousness, Indigenous governance over the narrative, place-based accountability, and a declared relationship between knowledge and community priorities. Research on Indigenous governance has long argued that when Indigenous nations make their own decisions about development, they outperform external decision-makers across multiple domains. A Red Paper title can therefore communicate that the publication is not only expert, but self-determined.

Based on the historical record and the current Indigenous-led uses of the term, a practical lay definition is this: a Red Paper is a rigorous, public-facing Indigenous-authored and/or Indigenous-governed paper that explains a problem, situates it in its historical and political context, grounds its argument in community knowledge and evidence, and sets out priorities, solutions, or demands on Indigenous terms. This definition is an interpretive synthesis of the Red Paper lineage from Citizens Plus, the contemporary Yellowhead Institute model of agenda-making research, the Seventh Generation Fund model of self-determined storytelling, and the rights-based framework of UNDRIP. Its credibility lies in that convergence, not in bureaucratic standardization.

What a Red Paper Should Be

In practical terms, a credible Red Paper in the Indigenous food security and climate-adapted technology space should do more than describe a product. It should identify who is speaking and on whose authority; acknowledge the policy and colonial history that shapes the present problem; explain the evidence base, including community knowledge and local climatic realities; describe the technology in accessible but technically serious language; address governance, consent, data ownership, and intellectual property; and link implementation to community priorities rather than to extraction, dependency, or generic market expansion. It should also be explicit about outcomes: food security, food sovereignty, resilience, affordability, training, maintenance, and long-term control. In other words, the document’s form should match the ethics of its purpose.

For these reasons, calling these publications Red Papers is not merely symbolic, and it is not empty marketing flair. Used carelessly, the term would become decorative and lose its force. Used properly, it does the opposite. It tells the reader that the publication stands in a lineage that began with Indigenous refusal of an assimilationist policy paper, that it is accountable to Indigenous knowledge and self-determination, and that it aims not just to comment on a problem, but to reshape the agenda around it. In a Canadian context, and especially in work on Indigenous food insecurity, climate-adapted technology, and community-defined innovation, that is a serious and defensible position. Our strongest Red Papers will be the ones that make that seriousness visible in both title and substance.

Food Charity Is Not Food Security

Benjamin Feagin Jr. — Sat, 04 Apr 2026 12:56:00 -0500

Emergency Food Must Be Paired With Income Policy, Indigenous Food Sovereignty, and Northern Food Infrastructure

Food banks meet urgent need, but they were never meant to become permanent food infrastructure. In Canada, the evidence now shows that charity cannot resolve household food insecurity on its own, and in rural, remote, Northern and Indigenous contexts, durable solutions also require local, commercially viable production capacity.

Who Is Speaking, and Why This Matters

Consistent with the Red Paper framing we set out earlier, this article begins by identifying who is speaking, what is being argued, and on what basis. We are an Indigenous-owned-and-operated organization in Northwestern Ontario working on patented agricultural technologies designed for the rugged climatic realities of northern, rural, remote, and Indigenous communities. AgriTech North’s public Inventions page asserts that our work is built around food sovereignty, resilience, reduced skilled-labour dependence, lower energy burden, and the cost advantage needed to make projects economically viable at urban food pricing in places where transport, construction, and service costs are highest. Sheridan College’s 2025 research article reports that AgriTech North’s greenhouse design was validated through modelling of heat retention, solar performance, airflow, heat transfer, and year-round operating scenarios. FedNor’s 2023 news release states that federal support for AgriTech North is intended to lower production costs and expand year-round harvest from greens and herbs into fruit-bearing crops. That is the standpoint of this article.

This paper makes a precise claim. Food banks and food charities meet real, urgent need, but food charity is not food security, and it does not become food security simply because it is better funded, better managed, or more heavily used. In Northern and Indigenous contexts, where the price of healthy food is often far above southern or urban norms, a serious food security strategy has to include both demand-side measures, such as adequate incomes, and supply-side measures, such as infrastructure that can lower the retail price of fresh produce. AgriTech North’s website repeats a social mission of reducing fresh produce costs in Far North Indigenous communities by 25% and increasing year-round availability of fresh foods. This article examines why that kind of price-lowering production capacity matters; it was a calculated mission statement culminating from over a year of literature review, analyzing over two decades of research.

Food Charity and Food Security Are Not the Same Thing

Public Health Ontario and Ontario Dietitians in Public Health, in Food Insecurity & Food Affordability in Ontario, describe household food insecurity as a marker of material deprivation. The Public Health Agency of Canada, in its 2025 systematic review Food-based interventions to mitigate household food insecurity in Canada, reached a compatible conclusion; it found that food charity programs may have little to no effect on household food insecurity, and that while food charities may be a last resort for short-term emergency access to food, food-based responses are unlikely to have a major effect on overall household food insecurity because the problem is primarily economic. This is the critical distinction. Hunger can be temporarily relieved with food. Household food insecurity, as it is measured in Canada, is about not having enough financial security to afford food and other essentials on an ongoing basis.

The same evidence base also shows why this distinction matters for policy. The Public Health Agency of Canada review found somewhat better evidence for food vouchers than for food charity, but its overall conclusion still favoured broader public policy over charitable food response. A separate systematic review in Public Health Nutrition, Public policy interventions to mitigate household food insecurity in Canada, concluded that income supplementation likely reduces household food insecurity for low-income Canadians. Thunder Bay District Health Unit, in The Cost of Eating Well in the District of Thunder Bay, 2025, states the same logic directly: reducing poverty through income-based strategies can reduce household food insecurity. Nothing in this article disputes that. In rural, remote, Northern, and Indigenous communities, lowering the price of fresh, healthy food should be understood as a cost-of-living intervention with income-like effects: when nutritious food costs less, household income stretches further, public supports go further, and pressure on emergency food systems can decline.

Food Banks Were Never Meant to Become Permanent Infrastructure

That is also why the history of food banks matters. Canada’s first food bank, Edmonton’s Food Bank, traces its origins to January 16, 1981, when organizers set out to redirect edible surplus food to people experiencing hardship. It was an emergency response to an immediate problem, not a blueprint for a permanent parallel food system. PROOF, in its fact sheet Food insecurity: A problem of inadequate income, not solved by food, notes that charitable food programs have been Canada’s primary response to food insecurity since the 1980s, yet there has been no meaningful long-run decline in household food insecurity. That historical pattern is difficult to explain if one treats food charity as a solution rather than as a stop-gap.

Importantly, this critique is no longer coming only from academics or anti-poverty advocates. Feed Ontario, in its story Food banks are an emergency response, not a long-term solution, says food banks are like first responders of social supports: they help during an emergency, but they are not designed to cure ongoing need. In a second piece, Food banks were a temporary measure, Feed Ontario says food banks cannot lift people out of poverty and should never have to function as a second tier of the social safety net. Food Banks Canada, in its 2025 HungerCount press release, makes the same point in different words: volunteers and donations alone cannot keep pace with escalating need. When even the sector itself says emergency food is being asked to do the wrong job, that deserves to be taken seriously.

A Bigger Food Bank Is a Warning Sign, Not a Success Metric

The scale of that escalation is alarming. Feed Ontario’s Hunger Report 2025 reports that over one million people used a food bank in Ontario between April 1, 2024 and March 31, 2025, and that over 8.7 million visits were made over that year. The same report says spikes in food bank use are often a warning sign that some of Ontario’s biggest pressures, including homelessness and strain on the health-care system, could worsen. Nationally, Food Banks Canada’s 2025 HungerCount says monthly visits reached roughly 2.2 million in March 2025, nearly double the 2019 level. These are not the signs of a country moving toward food security. They are the signs of a country normalizing chronic emergency.

At the same time, food bank use is not a complete measure of the problem. The Public Health Agency of Canada’s systematic review says less than 40% of severely food-insecure households use food banks, and most of those that do use them infrequently. Thunder Bay’s Food System Report Card, in its Food Access section, makes the same point locally: only 20% of people who are food insecure access food banks. That means a growing food bank is not a clean statistical proxy for total food insecurity. It is something slightly different, and arguably more politically important: a distress signal showing how much emergency infrastructure has become necessary because ordinary systems are not keeping people fed.

The Public Cost of Chronic Food Insecurity

The cost of allowing that condition to persist is already measurable. PROOF, in New data on household food insecurity in 2024, reports that 25.5% of people in the ten provinces, about ten million people, lived in food-insecure households in 2024. Dietitians of Canada, in its 2024 policy paper, states that of the estimated $155 billion spent on acute health care between 2011 and 2017, $6.2 billion represented excess costs associated with food insecurity. The 2015 Canadian Medical Association Journal (CMAJ) study Association between household food insecurity and annual health care costs found adjusted annual healthcare costs 16% higher for marginal food insecurity, 32 percent higher for moderate food insecurity, and 76 percent higher for severe food insecurity. Institute for Clinical Evaluative Sciences (ICES), in its summary of that study, concluded that policies reducing food insecurity could offset considerable public expenditures in health care.

This is the point that often gets missed in public debates. The relevant comparison is not just between the cost of one emergency food program and another. The relevant comparison is between the cost of continuing to manage chronic deprivation through food charity, hospital visits, preventable illness, unstable housing, crisis response, and northern food subsidies, versus the cost of interventions that reduce the underlying drivers of food insecurity. On the Canadian evidence, that is not a rhetorical question. It is a fiscal question, and the existing evidence already shows that inaction is expensive.

Income Supports Matter, but So Does the Price of Food

All of that is why income remains central. Public Health Ontario and Ontario Dietitians in Public Health report that almost one in four Ontario households experienced some level of food insecurity in 2023. Northwestern Health Unit, in The Real Cost of Eating Well in Northwestern Ontario 2024, says approximately 24% of households in the Kenora and Rainy River Districts are food insecure and estimates that feeding a family of four in Northwestern Ontario cost $1,512.51 per month in 2024. Thunder Bay District Health Unit, in The Cost of Eating Well in the District of Thunder Bay, 2025, says 22% of households in the Thunder Bay District are experiencing food insecurity and emphasizes that people usually pay rent and essential bills before food. That is why income support remains indispensable. But it is also why food price matters so much. When a household is operating close to the edge, even modest reductions in the price of healthy food change what that household can actually afford.

In rural, remote, Northern, and Indigenous contexts, that price problem is even more accentuated. The First Nations Food, Nutrition and Environment Study, in Key Findings and Recommendations for Decision-makers, reports that the price of healthy foods in many First Nations communities is much higher than in urban centres. Sioux Lookout First Nations Health Authority (SLFNHA), in its 2024 media release on The Cost of Eating Well in Kiiwetinoong, said the report found a healthy diet from three community-based stores was about 37 - 69% higher than a similar diet in other Ontario towns and cities. The federal government has acknowledged the same structural problem. In its May 8, 2024 appearance on Nutrition North Canada before the Standing Committee on Indigenous and Northern Affairs, officials said northern and isolated communities are especially impacted by higher grocery costs because food travels long distances. Budget 2024 states plainly that many Northerners and Indigenous people living in isolated communities lack affordable, year-round access to nutritious food, while Budget 2025 effectively confirmed that the affordability crisis remains acute by acknowledging rising severe food insecurity and signalling that Nutrition North Canada is still under review.

Northwestern Ontario Has Been Documenting This for Decades

Northwestern Ontario has been documenting this reality for decades. The Thunder Bay + Area Food Strategy’s resources archive shows a long arc of work, including the 2014 strategic plan, the 2015 implementation plan, the 2015 community food security report card, the 2022 background report Learning from Emergency Food Response During COVID-19 in Thunder Bay, Ontario, and the current Emergency Food Plan. The point of naming that history is not ceremonial. It shows that this article is not arriving in a vacuum. Thunder Bay’s food-policy community alone has been building evidence, coordination, and public language around chronic food insecurity, supply fragility, and emergency response for more than a decade.

The most recent Thunder Bay + Area Food Strategy materials isolate the issue further. The Emergency Food Plan says much of the food relied on by Thunder Bay and its surrounding municipalities comes from Winnipeg and Toronto and is highly dependent on a single highway transportation corridor, making the city’s food supply vulnerable to disturbance. The same plan also describes the need for physical food-access infrastructure, including distribution buildings, vehicles, industrial kitchens, and coordinated partners when emergencies hit. Meanwhile, Thunder Bay’s Food System Report Card, in Food Access says food banks were initially introduced as a short-term band-aid, have become part of local food-access infrastructure, and that community food programs help but are not long-term solutions to the underlying causes of food insecurity. This article does not contradict that work. It extends it by asking what kind of upstream production infrastructure could reduce the need for so much downstream emergency response.

Why AgriTech North Is Not Just Another Food-Based Intervention

This is where AgriTech North enters the conversation, and it is important not to misread the evidence. The Public Health Agency of Canada’s systematic review was about food-based interventions such as vouchers, food boxes, community gardening, school food, hunting and fishing programs, and food charity. It did not evaluate patented, commercially viable northern production infrastructure whose primary purpose is to lower the cost of producing fresh food year-round. That distinction matters, because not all forms of “food-based” activity operate at the same level of the system. British Columbia’s guide Planning for Small-Scale Controlled Environment Agriculture makes clear that commercially available container systems are still relatively unproven, are best suited to a narrow range of leafy greens, and are often unlikely to be profitable for small operators without subsidy. That is a very different proposition from building durable northern production systems that attack the underlying cost structure.

AgriTech North’s technology pages show exactly which cost drivers it is trying to change. On Inflatable Multi-Layer Greenhouse Envelopes, the envelope reduces heat loss by more than 70% compared with conventional single-layer glass and is being commercialized to be cost-competitive. On Hydronic Microclimate Control Systems (HMCS), the system uses up to 71% less energy than compressor-based refrigerant systems, works without hydrocarbon refrigerants, uses waste heat and renewable thermal energy, and is designed for self-maintenance (following the Right to Repair movement) without requiring a certified Red Seal tradesperson. Sheridan College’s 2025 validation article says researchers modelled the system for the most cost-effective way to run a greenhouse year-round that leveraged AgriTech North's patented technologies, and the Weston Family Foundation's Homegrown Innovation Challenge project page describes the goal as a scalable fresh-food production system that is economically viable and sustainable for northern growers, especially remote and Indigenous communities.

How AgriTech North Can Lower Fresh-Produce Prices

The controlled-environment agriculture (CEA) argument is no longer confined to lettuce, and shouldn't be. AgriTech North’s grocery pages already advertise current products at urban-market pricing. The company’s cucumber page, basil page, and arugula page all state that the produce matches or beats grocery store prices in Dryden while being grown year-round. Its public collections currently show a wider crop mix that includes fruiting and more calorically substantial crops such as cucumbers, tomatoes, peas, and golden squash. FedNor’s 2023 release says federal support for AgriTech North’s systems is intended to expand year-round harvest into tomatoes, cucumbers, and peppers. This is a significant distinction in northern food-security work because many controlled-environment agriculture (CEA) systems stall at leafy greens, whereas food access, culinary use, and household economics improve more substantially when the basket includes fruiting crops and heavier stew-oriented produce as well.

The goal is not speculative. FNFNES explicitly recommends increasing support for programs that reduce food price differences between major urban centres and local First Nations, providing financial support for First Nations-owned food production and distribution businesses, and improving local access to healthy food independent of imports through gardens, greenhouses, hydroponic units, and other appropriate forms of production. AgriTech North’s Inventions page asserts its innovation strategy is designed to protect the cost advantage needed to make projects economically viable at urban food pricing where transport, construction, and service costs are highest. Its public grocery pages also repeat a social mission to reduce fresh-produce costs in Far North Indigenous communities by 25%. That does not prove that every community deployment will immediately reach urban-centre price parity. But it does make price convergence toward urban levels a grounded design objective and a policy-relevant benchmark, not a marketing flourish.

This is also where the fiscal argument should be stated carefully. No serious evidence base currently allows a precise claim that AgriTech North can replace income-support policy at lower cost across all contexts. Rent, utilities, medicine, transportation, debt, and colonial dispossession still matter, and nothing in the literature suggests that technology can substitute for adequate household income. But the Canadian evidence is already strong enough to support a narrower and still significant claim: if a northern production platform can durably lower the retail price of fresh produce, reduce transport dependence, and reduce pressure on emergency food logistics, then it can make every dollar spent on income supports, Nutrition North, community food programs, school food, and public health go further. Canadian Medical Association Journal (CMAJ) and Institute for Clinical Evaluative Sciences (ICES) say reducing food insecurity can offset considerable public health expenditures; Dietitians of Canada quantifies a large existing health-cost burden; and Budget 2024 and Budget 2025 shows Ottawa is already committing major sums to northern subsidies and community food programs. On that basis, the proposition that price-lowering local production could save more public money over time than endless reactive spending is a strong inference. What still needs to be published is a deployment-by-deployment cost-effectiveness analysis specific to AgriTech North; stay tuned for those future publications.

AgriTech North cannot solve rent, low wages, or colonial dispossession by itself, but it can solve a specific structural problem that current policy and charity keep paying around rather than solving directly, namely the lack of commercially viable, year-round fresh-produce production in rugged Canadian climates. In places where households and public programs are spending too much just to access basic fresh food, lowering the local price of that food is not a side issue. It is one of the mechanisms by which income supports, emergency-food budgets, and public health spending can all be made more effective.

The Indigenous Perspective

FNFNES reports that almost half of First Nations families have difficulty putting enough food on the table, that healthy food is often priced beyond the reach of many families, and that decision-makers must address these problems in a way that supports First Nations-led leadership and solutions. Thunder Bay District Health Unit’s Understanding Our Food Systems page describes a participatory, community-engaged project led by fourteen First Nation communities in Northwestern Ontario with the explicit goal of supporting Indigenous Food Sovereignty and Self-Determination. The Frontiers case study Mobilizing Networks and Relationships Through Indigenous Food Sovereignty argues that meaningful responses to Indigenous food insecurity during emergencies must be rooted in a decolonizing framework that centres meaningful relationships and Indigenous leadership. In other words, the Indigenous case is not just that food is expensive. It is that the dominant system has made Indigenous communities dependent on fragile, imported, and externally governed food systems, and that the remedy must include Indigenous control over the infrastructure of food access.

That is also why this article ties back to the Red Paper framework. A Red Paper should not stop at naming the failure of the current system. It should identify who gets to define the solution, who owns the infrastructure, and whether a proposed intervention increases community control rather than dependency. FNFNES explicitly calls for First Nations-owned and operated food production and distribution businesses, for local healthy food access that is less dependent on imports, and for solutions grounded in sovereignty, self-determination, and regional specificity. Budget 2024 says Ottawa is supporting local and Indigenous food production systems, including innovative northern food businesses. On that standard, Indigenous-owned, patented, climate-adapted agricultural infrastructure is not peripheral to the conversation. It is exactly the kind of long-term asset that belongs in it.

What Follows From the Evidence

The correct policy stance is not anti-food bank. It is anti-permanence. Food banks serve an undeniable need, and the people who run them, fund them, and volunteer in them should be celebrated. But emergency food should remain emergency food. It should not be mistaken for a durable food security strategy. The evidence from PROOF, the Public Health Agency of Canada, Public Health Ontario, Thunder Bay’s food strategy work, Feed Ontario, Food Banks Canada, FNFNES, and Northwestern Ontario public health reports all points in the same direction: household food insecurity is fundamentally rooted in economic deprivation, but in rural, remote, Northern, and Indigenous contexts it is intensified by structurally high food prices, supply fragility, and distance from production.

If we take that evidence seriously, then the right conclusion is not “choose between income and local production.” It is “stop pretending charity is a substitute for either.” Income supports, public health interventions, and emergency food programs for people in crisis remain essential. But those interventions should be paired with Indigenous-owned, price-lowering, climate-adapted food infrastructure that can narrow the gap between remote and urban food prices while also reducing long-term dependence on imported fresh foods. A region does not become food secure because its food bank gets bigger. It becomes more food secure when fewer people need that food bank, when healthy food is easier to afford at the checkout, and when rural, remote, Northern, and Indigenous communities control more of the systems that feed them.

AgriTech North for Commercialization

Benjamin Feagin Jr. — Sun, 05 Apr 2026 17:30:00 -0500

Indigenous-Led, Canadian-Made Food Sovereignty Infrastructure

An Indigenous-led company does not protect its mission by refusing to scale. It protects its mission by scaling on terms that keep Indigenous communities, Canadian ownership, Northern economic benefits, and public-benefit purpose in command of the business.

Who is speaking, and what is being argued

AgriTech North is a social enterprise Beneficial-Corp (B-Corp) based in Dryden, Ontario, with a social mission to reduce fresh food costs in Far North Indigenous communities by 25% and increase year-round availability. Our Research and Development (R&D) page says its systems are “Canada’s First Commercially-Viable Year-Round Growing Infrastructure for the North,” “Invented, Patented, Developed, and Commercialized in the North.” Our greenhouse invention page describes the core envelope system as a “grassroots Indigenous-developed and patented technology.” The question, then, is not simply whether AgriTech North has innovative and novel technology. The question is whether AgriTech North is the right organization to retain authority over the commercialization of that technology, so that Indigenous communities remain the priority market, the inventions remain Canadian-controlled, and the systems do not get redirected away from food security and food sovereignty toward generic export optimization. On the evidence, the answer is yes.

In a field as capital-intensive and regulation-sensitive as controlled-environment agriculture (CEA), the organization that commercializes the technology often determines who gets served first, where manufacturing and service capacity sit, how intellectual property is governed, and whether the original public-purpose mission survives later financing rounds. AgriTech North’s homepage ties its operating business directly to year-round production, food security in Northwestern Ontario, and reduced fresh food costs. Sheridan College’s 2025 research article, Mechanical engineering student leverages expertise to drive sustainable innovation in agriculture, independently described AgriTech North as an Indigenous-owned-and-operated B-Corp tackling food insecurity across Canada. That alignment between mission, invention, validation, and geography is precisely why the commercializer matters here.

Commercialization Authority Matters in an Indigenous Food Security Context

In an Indigenous context, commercialization is not just a business question. It is also a governance question. The Canadian United Nations Declaration on the Rights of Indigenous Peoples Act (Canadian UNDRIP Act), which incorporates the Declaration as a federal implementation framework in Canada, includes articles stating that Indigenous peoples have the right to determine and develop priorities and strategies for development, to be actively involved in economic and social programs affecting them, and to maintain, control, protect, and develop their cultural heritage, traditional knowledge, and technologies. The Act’s fact sheet explicitly describes the legislation as a roadmap for implementation in partnership with Indigenous peoples. If technology is being developed to address Indigenous food insecurity, that technology should not be stripped from Indigenous decision-making precisely at the moment it becomes commercially meaningful.

The First Nations Food, Nutrition and Environment Study (FNFNES), in Key Findings and Recommendations for Decision-makers, brings that principle of retaining indigenous control down to ground level. FNFNES reports that many First Nations face food insecurity at rates far above the Canadian population overall and recommends support for First Nations rights, sovereignty, self-determination, and region-specific solutions. It also calls for reducing food price differences between major urban centres and local First Nations, supporting First-Nations-owned-and-operated food production and distribution businesses, and improving local access to healthy foods independent of imports through greenhouses, hydroponic units, agriculture, and other locally appropriate infrastructure. That is not incidental to AgriTech North’s model. It is effectively a policy description of why a company like AgriTech North should exist in the first place.

AgriTech North is Especially Well Positioned

AgriTech North's public mission, technology architecture, and external validation all point in the same direction. Our R&D page presents three core invention families as in-house systems: tower-oriented grow system inserts called Leakstops, the inflatable multi-layer greenhouse and the hydronic microclimate control system (HMCS). Leakstops reduce labour overhead, algae and fungal growth, water and nutrient use, and improve crop quality and yield. The hydronic system can cut heating, ventilation, air conditioning, and dehumidification (HVAC-D) energy consumption by up to 71% using a hydrocarbon refrigerant-free, self-maintainable system powered by renewable and waste-heat sources. The greenhouse is being commercialized to compete on cost with double-pane glass while reducing heat loss by 70% relative to single-pane glass (the most common glass greenhouse). This is not the profile of a reseller or a licensee of someone else’s platform; it is the profile of an Indigenous organization building its own defensible Intellectual Property (IP) around the exact thermal, cost, and maintenance problems that have historically prevented year-round Northern growing from becoming commercially viable.

That identity is reinforced by third-party institutions. Sheridan College’s 2025 article says researchers validated AgriTech North’s greenhouse design by modelling heat retention, solar performance, airflow, heat transfer, and cost-effective year-round operation for Northern Ontario rugged climatic conditions, with on-site measurement to validate the model. FedNor’s 2023 release, Government of Canada invests $177,416 to boost agriculture production and establish a food hub in Dryden, says AgriTech North’s technology would reduce energy consumption, lower production costs, and expand year-round harvest into fruit-bearing crops such as tomatoes, cucumbers, and peppers. The Weston Family Foundation's Homegrown Innovation Challenge grantee archive describes the AgriTech North collaboration with Collège Boréal, Rural Agri-Innovation Network (RAIN), and Truly Northern Farms as a scalable fresh-food production system that is economically viable and sustainable for northern growers, particularly in remote and Indigenous communities. In other words, public third parties are validating not just the science, but the commercialization thesis.

Benjamin's Inventorship and Team Leadership is the Fulcrum

Benjamin Feagin Jr.’s involvement is not interchangeable with ordinary founder branding. It is central to why AgriTech North should be the organization commercializing these systems. He is a scientific engineer, inventor, and entrepreneur with more than 16 years of experience across manufacturing, agritech, lighting, engineering, and commercialization. He has served prior roles such as a Scientific Engineer at Pacific Northwest National Laboratory (PNNL) where he published products of his work and invented research apparatuses that allowed researchers to conduct investigations that they could not with off-the-shelf equipment, and those inventions are still in use today. His team conducted research and developed methods of expediting industry and consumer adoption of new technologies (consumer adoption modelling).

He was also a Director of Business Technology at Optic Arts where he evaluated manuifacturing processes and systems, developed software and hardware solutions to automate and improve efficiency for Sales through Manufacturing and Logistics. As a Research Assistant at Rensselaer Polytechnic Institute (RPI) he taught and led over one hundred students and worked on carbon sequestration, air quality, lighting, environmental sensing, urben ecology, and remediation. Now, he is the co-founder and Chief Executive Officer (CEO) of AgriTech North, leading multidisciplinary work across R&D, Artificial Intelligence (AI) optimized agriculture, advanced manufacturing, commercialization, regulatory and IP compliance, and business development. It also identifies patents and publications across multiple technical domains, some of which are outlined on the Inventions page. That is a rare combination of inventor, applied scientist, manufacturing operator, and commercializer.

The relevant commercial implication is straightforward: these technologies are not being presented as something licensed from elsewhere and repackaged. They are being presented as original AgriTech North inventions, and Benjamin is the primary inventor-commercializer and team leader around whom they have cohered.

The Homegrown Innovation Challenge grantee archive makes this even more concrete. There, Benjamin explains the origin of the greenhouse concept in direct engineering terms: greenhouse envelope technologies had not changed materially in decades, he was familiar with passive building design and envelope thermodynamics from building science research for general occupied spaces, and he began similarly comparing the performance of greenhouse envelopes, which led to the discovery that inflatable transparent multi-layer envelopes could substantially outperform conventional envelope approaches. That matters because it shows the invention did not emerge from a generic agtech trend cycle. It emerged from a specific inventor seeing a thermal-structural problem, connecting disciplines, and building a new solution from that insight. That kind of cross-domain inventorship is exactly what tends to get diluted when a startup becomes merely the commercialization wrapper around other people’s technology. Here, the inventor and the commercialization vehicle are the same project.

A Culture of Innovation, Not Just a Set of Inventions

Benjamin’s importance to AgriTech North is not limited to his role as principal inventor. Equally important is that he has been building an internal culture and process by which innovation can be identified, evaluated, developed, protected, and commercialized across the organization. He also is a leader in curriculum development, workforce development, and knowledge transfer, drawing on years of scientific research, systems engineering, and educational mentorship, including mentoring more than 100 students at Rensselaer Polytechnic Institute (RPI). In other words, the company is not relying on a lone inventor surrounded by passive staff. It is being intentionally trained to think, document, test, and scale more like an R&D organization, where all team members actively participate in the process.

Commercialization is rarely won by invention alone; it is rather won by whether a team can reliably notice problems early, determine whether a commercially available solution already exists, evaluate whether solving a problem in-house creates a meaningful strategic advantage, and then carry that solution through concept development, rapid prototyping, testing, protection, documentation, and eventual market deployment. This logic is already embedded across the organization, continuously developing under our leadership team that has experience spanning cleantech innovation, advanced manufacturing, curriculum development, technical documentation, workforce training, process design, regulatory compliance, operations scale-up, and market adoption. The team embodies “comprehensive cross-sectional expertise,” with active capabilities in intellectual property management, manufacturing and process scaling, publishing, grant management, supply chain development, and community engagement. That is the profile of a company building repeatable innovation discipline, not merely accumulating ideas and patents.

Benjamin’s role in building that discipline is especially significant because it draws directly from both his professional and teaching experience. His ability to bridge innovation with education ensures that commercialization includes workforce development and knowledge transfer. That is a stronger claim than ordinary founder leadership language. It suggests that he is not only developing technologies, but transferring a way of thinking about technology development into the company itself. That is consistent with the way AgriTech North has described its own mission as a Living Lab, where operations, education, invention, and commercialization are deliberately connected rather than treated as separate functions.

In practice, that culture can be seen in the internal expectations that shape how staff participate in problem-solving. Rather than encouraging staff to escalate ordinary frustrations as complaints alone, AgriTech North has been developing a dynamic in which issues should, wherever possible, be brought forward together with one or more proposed solutions for consideration. That may seem like a small management choice, but it changes the structure of organizational feedback. It teaches staff to think diagnostically, to compare commercial solutions against internal innovation opportunities, and to arrive at management discussions ready to advance a decision rather than merely report a problem. Over time, that creates a feedback loop between frontline staff and leadership in which operational friction becomes a source of innovation rather than solely a source of delay.

The same is true of notekeeping and laboratory-style documentation practices. AgriTech North trains staff to record observations, problems, design ideas, considerations, and proposed solutions before they are broadly shared, so that contributions remain identifiable, auditable, and appropriately recognized. In an innovation-heavy company, that matters for far more than internal organization. It supports technical continuity, improves evaluation of alternative solutions, and creates a clearer basis for inventor attribution, publication authorship, and other forms of credit that are often mishandled in conventional corporate environments. Just as importantly, it reduces one of the quietest but most corrosive fears in hierarchical organizations: that a staff member can bring a good idea upward only to have it detached from its source and reappear later as someone else’s contribution. By emphasizing documentation and traceability, AgriTech North is creating a structure in which innovation can be collaborative without becoming extractive. This internal culture also appears to align with the way outside partners are engaging the company.

Niagara College’s Walker Advanced Manufacturing Innovation Centre wrote in a Letter of Support that it would work with AgriTech North to assess the equipment required for manufacturing, conduct cost-benefit analyses on commercially available versus custom-designed equipment, investigate robotics, artificial intelligence, and computer-vision options, and create plant-layout drawings using Lean and Six Sigma principles. That is notable because it mirrors the exact kind of decision pathway Benjamin is teaching internally: identify the problem, compare available options, determine where custom development creates an advantage, and then move systematically toward implementation. In that sense, AgriTech North’s internal innovation culture is not an abstract claim. It is already legible enough that external advanced manufacturing partners are structuring their support around it.

This is one of the strongest reasons AgriTech North should remain the organization commercializing its technologies. If Benjamin’s contribution were only that he invented a set of valuable systems, a larger outside company might plausibly argue that it could license or acquire the inventions and commercialize them at scale. But if Benjamin has also been building the internal culture, decision architecture, documentation discipline, and staff capability needed to continue generating, refining, protecting, and implementing innovations, then what AgriTech North possesses is not just a portfolio of inventions, it is an innovation system. That system includes people who are being trained to think across operations, engineering, compliance, commercialization, and community realities at the same time. It includes a team whose roles are already defined around process design, technical documentation, staff training, operations leadership, regulatory compliance, and Indigenous engagement. And it includes a founder whose educational and scientific background has been deliberately translated into company practice.

That is why Benjamin’s team leadership is inseparable from his inventorship. He has not simply produced technologies and asked others to execute them. He has been developing the human infrastructure needed to sustain innovation after the first inventions, after the first pilot builds, and after the first commercialization milestones. For a company whose value depends on continued invention, adaptation, and disciplined scaling in difficult Northern and remote conditions, that may be one of AgriTech North’s most important strategic assets.

An "Emerging Narwhal" in the Indigenous and Canadian IP Landscape

Statistics Canada’s The Daily — Intellectual Property Awareness and Use Survey, 2019 reported that 18.2% of Canadian businesses owned at least one type of IP, while only 10.1% of businesses with an Indigenous primary decision maker owned some form of IP. Innovation, Science and Economic Development Canada’s page Indigenous peoples and intellectual property states directly that IP protections, services, and resources remain widely underutilized by Indigenous businesses and entrepreneurs across Canada. That does not necessarily mean Indigenous innovation is rare. it could mean formally protected, commercializable IP is underused relative to need.

The Canadian Council for Indigenous Business (CCIB) report Understanding Intellectual Property Awareness & Use by Indigenous Businesses adds useful detail. It was based on a national survey of 1,100 First Nations, Inuit, and Métis business owners and was described by CCIB as the first study of its kind in Canada. CCIB’s accompanying release says one in five Indigenous business owners had sought information, guidance, or advice on patents, trademarks, or other IP in the past several years. ISED’s Indigenous IP page points to the same study as evidence of underutilization. In that context, an Indigenous-led company built around multiple original invention families, formal IP strategy, commercialization planning, and Indigenous-problem alignment is not merely another startup; it is a statistically uncommon form of Indigenous business capacity in Canada.

Why this Work is Poorly Suited to a Multinational-Corporation Framework

This is why Benjamin cannot simply be reduced to “talent” inside a multinational corporation. It is not because multinationals are incapable of engineering excellence, it is because this specific work is not neutral as to mission, market order, and governance. The Organisation for Economic Co-operation and Development (OECD) report Linking Indigenous Communities with Regional Development in Canada says Indigenous entrepreneurship takes place in an institutional context that emphasizes kinship relations, traditional knowledge and cultural practices, and linkage to community economic development. The same report says Indigenous business growth is shaped by barriers around finance, remoteness, and infrastructure, and that policies often fail when they are not adapted to what Indigenous communities want for their own development. Those are not side constraints; they are part of the design brief.

A multinational framework would almost certainly bring different incentives to the table. As an example, Anthropic’s governance paper, The Long-Term Benefit Trust, explains the default problem plainly: ordinary corporate governance tends to make directors accountable to stockholders, which is why Anthropic created an additional governance layer on top of its Public Benefit Corporation (PBC) form. B Lab’s legal-framework page makes a similar argument, saying stakeholder governance is meant to keep companies accountable to workers, communities, customers, suppliers, and the environment, rather than allowing shareholder primacy to dominate after capital raises or liquidity events. The reason this matters here is simple. A multinational corporation is structurally more likely to optimize for the largest, fastest, least-friction markets. AgriTech North’s inventions were developed around Northern climatic realities and Indigenous food security priorities, which are exactly the kinds of priorities that are generally deprioritized when a product is absorbed into a larger platform whose fiduciary logic points elsewhere. That last point is an inference, but it is consistent with governance literature and with how product portfolios are usually rationalized at scale.

The Contradiction is Real: Indigenous Priority Requires Scale, and Scale Requires More than One Market

None of this removes the core commercialization contradiction. AgriTech North can and should remain Indigenous-priority-led, but hard-tech food sovereignty infrastructure still requires capital, market depth, service networks, and manufacturing scale. Global Affairs Canada and the Canadian Council for Indigenous Business (CCIB), in Adàwe: Export experiences of Indigenous entrepreneurs and Atāmitowin: Identifying and overcoming challenges facing Indigenous exporters, found that only 7.2% of Indigenous Small and Medium Enterprises (SMEs) exported in 2020, versus 12.1% for Canadian SMEs overall. At the same time, Atāmitowin reports that 39.7% of Indigenous SMEs identified access to financing as a significant barrier to growth, and that 45.9% of Indigenous SME exporters identified access to equity or capital as a significant barrier to growth. Those are not abstract numbers; they describe the actual financing bottleneck around Indigenous commercialization.

The capital intensity side of the contradiction is equally real. Business Development Bank of Canada's (BDCs) guide 16 ways to finance a cleantech business says cleantech firms tend to be hardware-intensive, and that some capital-intensive segments require tens or hundreds of millions of dollars to build commercial facilities. BDC’s 2022 release on Climate Tech Fund II says climate-tech ventures typically have longer development timeframes and larger capital needs than many other startups. AgriTech North is not claiming to be a giant incumbent, and Benjamin’s profile indicates the company has secured about $5 million to date with a much larger expansion path underway. That is progress, but it is not “deep pockets.” It is, however, exactly the kind of growth-stage position where mission can be lost if the wrong money arrives on the wrong terms.

Why Broader Markets can Strengthen the Mission Instead of Replacing It

The right answer to that contradiction is not to refuse broader markets. It is to structure broader markets so they stabilize the mission. The Homegrown Innovation Challenge grantee archive quotes Benjamin describing the model as “regional food sovereignty,” explaining that if Indigenous communities at the far end of the distribution chain are to be served sustainably, then communities in between must also be served so the distribution burden is shared. That is commercially rational and mission-consistent at the same time. It does not say the mission is secondary, it says the mission becomes financially durable when the deployment base is broad enough to carry installation, servicing, distribution, and manufacturing economics.

Innovation, Science and Economic Development Canada’s article The Domestic Advantage: Scaling within Canada Before Going Global supports the same logic from a market-development perspective. It argues that selling beyond a home province is an important test of scale because it requires navigating policy variation, logistics across vast distances, and multiple market conditions, and that domestic scaling often makes future exporting easier. For AgriTech North, that suggests a coherent sequence: first, prove the systems across Northern, rural, remote, and Indigenous Canadian contexts; second, use that larger Canadian base to lower costs and strengthen service capacity; third, enter other rugged climate markets without giving up the priority status of Indigenous communities in Canada. That sequence is not a betrayal of the mission, it is the way the mission becomes survivable for Seven Generations, and beyond.

Grassroots Organizations like AgriTech North Do Not Have "Deep Pockets," Which is Why Capital Terms Matter So Much

This is also why public capital and values-aligned investment are not luxuries here, they are mission-protection tools. Indigenous Services Canada’s (ISCs) page Aboriginal Entrepreneurship Program: Access to Capital states that the program provides ongoing support to Indigenous businesses through Indigenous Financial Institutions (IFIs) and Métis Capital Corporations, including a “non-repayable equity contribution” and business services to start, expand, or acquire a business. The 2025 ISC ministerial transition material uses the same language, noting that the Access to Capital stream funds non-repayable equity contributions, business support services, and interest rate subsidies. That is important because it shows that Canadian public policy already recognizes the legitimacy of non-dilutive or non-control-seeking capital instruments for Indigenous business growth.

Other public programs point the same way. Natural Resources Canada’s (NRCans) applicant guide Building new domestic production capacity – Indigenous-led projects explicitly allows non-repayable contributions for some Indigenous-led projects, with stacking of multiple government funding sources to 100%. That is highly relevant to AgriTech North’s situation. It shows a federal policy logic already exists for public money to support Indigenous-controlled commercialization without automatically taking the IP or forcing control concessions that would hollow out the mission.

Indigenous-led capital institutions matter as well. National Aboriginal Capital Corporation Association (NACCA) says its IFI network has provided more than $3.2 billion supporting 50,000 SME loans across Indigenous communities, and that its board is 100% Indigenous. NACCA’s Indigenous Growth Fund page describes a $153 million Indigenous social impact fund designed to improve access to capital for IFIs and Indigenous SMEs. The Ontario Chamber of Commerce (OCC) and CCIB, in their 2025 release Access to capital can power the Indigenous economy, new report, argue that access to financial capital remains a major barrier to Indigenous business expansion and community development. This is the ecosystem in which AgriTech North should be capitalized: public and Indigenous-led instruments first, then private capital that accepts mission-protective terms rather than treating them as optional.

The Guardrails Should be Explicit, Not Implied

Because the capital risk is real, the guardrails have to be explicit. At a minimum, that means:

mission-protection provisions in corporate documents and investment agreements that prevent the company’s purpose from being rewritten after capital arrives;
Indigenous control or veto rights over any change to mission, transfer of core IP that would sever those protections, and any material change in priority deployment order;
restrictions on selling or assigning core Indigenous-developed IP outside Canada without extraordinary approval; and
recurring reporting that measures not only revenue and growth, but whether the social missions remain priority.

British Columbia’s official benefit company guidance, Choosing your business type in B.C., provides the clearest Canadian statutory example of this logic by requiring a public benefit statement, a benefit provision in the articles, an annual benefit report, and directors who balance the best interests of the company with promotion of its public benefits. Anthropic’s Long-Term Benefit Trust shows the same principle in another sector: capital can be combined with additional governance mechanisms when ordinary board accountability is not enough to protect the mission. These are governance analogies, not one-to-one templates, but the design principle is sound.

What “Beneficial-Corp” Positioning is Attempting to Solve

AgriTech North is a social enterprise “Beneficial-Corp (B-Corp).” That language signals that the company is trying to occupy the difficult space between ordinary profit-maximizing corporations and organizations that are socially focused but structurally unable to raise growth capital. In Canada, British Columbia’s benefit-company model is the clearest statutory expression of this idea. The province says a benefit company is a for-profit corporation that commits to promoting one or more public benefits for people beyond shareholders, must include those benefits in its governing documents, must publish an annual benefit report, and must require directors to balance ordinary corporate duties with the duty to promote the company’s stated public benefits. That is materially different from an ordinary critique that “all for-profits will eventually put profit first.” The whole point of this governance form is to narrow the legal and cultural space in which that drift can happen.

This also explains why a nonprofit structure is not a complete answer for a company like AgriTech North. Corporations Canada’s guidance, Are all not-for-profit corporations the same?, states that not-for-profit corporations do not issue shares, have members rather than shareholders, and cannot pay dividends. That makes certain forms of philanthropic and grant support possible, but it constrains ordinary equity financing. At the same time, a recent BMC Public Health scoping review, Mission and money, found that food- and nutrition-focused social-enterprise models can endure for long periods, with an average lifespan of 16.5 years in the reviewed cases, and can combine income generation with measurable food and health outcomes. The relevant lesson is not that every social enterprise succeeds, it is that mission and commercialization do not have to be enemies if the structure is designed for both.

That said, the risk of mission drift is real enough that it should be named directly. The recent Journal of Business Economics article Managing scaling tensions: the case of differentiation and integration in social enterprises notes that social enterprises are hybrid organizations combining social and commercial logics, and that scaling makes tensions around financial sustainability and social mission more salient. The right response is not to avoid scale. It is to scale with governance that anticipates this pressure. In AgriTech North’s case, that means using the “beneficial” or public-benefit concept as a real governance discipline, not as a branding adjective.

Why Canadian-Made, and Why Northern Manufacturing Matters

Canadian-made production is not a sentimental preference here. It is part of the food sovereignty logic. The Weston Family Foundation’s 2025 release The Future of Food Is Made in Canada says the purpose of the Homegrown Innovation Challenge is to reduce Canada’s reliance on imports and strengthen sustainable domestic production. Budget 2024, Chapter 6: A Fair Future for Indigenous Peoples, states that many Northerners and Indigenous people in isolated communities lack affordable, year-round access to nutritious food and that federal funding is being directed toward local and Indigenous food production systems, including innovative Northern food businesses. If the systems were invented in Dryden and are being commercialized in Dryden for Northern and Indigenous food security purposes, then the strongest policy and mission case is to keep as much manufacturing, integration, and service capacity as possible in Canada’s North rather than allowing it to migrate South or offshore at the first scale-up opportunity.

That recommendation is reinforced by Northern economic development policy. FedNor’s 2026–2027 Departmental Plan says Northern Ontario’s remoteness creates significant challenges for mobility, market access, and service delivery, and that the region includes 106 First Nations communities, many of them remote or fly-in. The same plan says FedNor’s priorities include strengthening critical supply chains, supporting Northern manufacturing, improving resilience, and empowering Indigenous communities through innovation and economic infrastructure. CanNor’s 2025 release Minister Anandasangaree announces support for Indigenous and community-based food solutions in the North and Inuit Nunangat says community-led food projects reduce reliance on Southern supply chains. Taken together, those sources support a straightforward industrial conclusion: Northern food security infrastructure should, wherever feasible, be manufactured and serviced inside the same Northern Canadian context it is meant to stabilize.

There is also a broader economic reason for keeping that value chain inside Canada. Statistics Canada’s input-output multiplier framework says final demand in an industry has direct, indirect, and induced effects on Global Domestic Product (GDP), jobs, and imports. That does not automatically prove a precise multiplier for AgriTech North, but it does establish the general economic principle: when manufacturing, integration, and servicing are domestic, more of the economic effects stay domestic. In the Northern context, that matters doubly because the communities most affected by food insecurity are also the ones most affected by leakage of economic activity out of the region. If food sovereignty infrastructure is built with Canadian public money, Canadian know-how, and Indigenous ingenuity, then keeping more of the associated manufacturing economics in Northern Canada helps create the kind of positive feedback loop public policy is supposed to produce. That is partly an inference, but it is an orthodox economic one.

Offshoring also increases exposure to external pricing power and supply-chain shocks. Bank of Canada analysis in The trade conflict hasn’t derailed supply chains. Here’s why, Business Outlook Survey—First Quarter of 2025, and Risks in the April 2025 Monetary Policy Report all note that supply chain disruptions, tariffs, supplier shifts, and imported input costs can raise production costs, import prices, and selling prices. That is the real danger of letting Indigenous-developed food security infrastructure become too dependent on foreign production or foreign supply chains: Canada can end up buying back the product of Indigenous innovation through costlier, less controllable channels. That is exactly the opposite of food sovereignty.

Canada’s Sell-Versus-Scale Problem is Already Well Documented

This is also where AgriTech North’s IP stance becomes nationally important. Canada already has a documented tendency to invent well and retain poorly. The Institute for Research on Public Policy study To Sell or Scale Up: Canada’s Patent Strategy in a Knowledge Economy says many Canadian researchers and firms sell their IP to foreign entities rather than scaling up and commercializing in Canada. It reports that the share of Canadian-invented U.S. patents assigned to foreign entities more than doubled over two decades, from 18% to 45%, and that many Canadian-invented patents do not result in Canadian-owned patents. The same study argues that patent ownership matters because it affects a firm’s ability to obtain financing, ward off competition, and pursue future commercialization. In other words, Canada’s problem is not merely invention. It is retaining enough control over invention to build companies around it.

Innovation, Science and Economic Development Canada’s case study IP in action shows that this can be done differently. It notes that Canada has high rates of foreign ownership of IP generated by Canadians, then highlights Scale AI’s approach (this is why we referenced Anthropic earlier), where ecosystem projects were structured so that the IP remained 100% Canadian-owned and more than 90% was commercially deployed by domestic businesses. That example matters because it disproves the fatalism that Canadian innovators must eventually sell to foreign buyers if they want to scale. They do not. But avoiding that outcome requires deliberate policy, capital structure, and governance choices. AgriTech North should be understood in that same frame: not as an invention that Canada develops only to lose, but as one that Canada has reason to keep.

In the Indigenous context, the case for retention is even stronger. If Canada already underuses IP among Indigenous-led businesses, and if Indigenous-developed technologies aimed at Indigenous food insecurity are relatively uncommon in the formal IP and commercialization landscape, then selling those assets early would reproduce the exact pattern that public policy says it wants to escape. Indigenous communities and Canadian institutions would then be at risk of buying back Indigenous innovation later, through someone else’s pricing logic, someone else’s capital stack, and someone else’s deployment priorities. That is not just a missed business opportunity, it is a policy failure.

Conclusion

The strongest case for AgriTech North is not that it should never grow beyond Indigenous communities, nor that exports are somehow impure. The strongest case is that AgriTech North is unusually well aligned with the problem it is trying to solve. It is Indigenous-led. Its public mission is explicitly tied to lowering fresh food costs and increasing year-round access for Far North Indigenous communities. Its core technologies are publicly presented as original inventions developed, patented, and commercialized in the North rather than licensed from elsewhere. The inventions have been externally validated. The founder at the centre of them is not merely a manager, but an inventor with national laboratory R&D experience, manufacturing-system leadership, and direct commercialization competence. The broader Canadian policy environment already says Indigenous-led, community-led, and domestic food systems should be strengthened. The Canadian IP literature already warns that we too often sell instead of scale. These are not separate issues, they all converge in AgriTech North.

That is why AgriTech North should be the organization to commercialize these technologies. Not because growth is irrelevant, but because growth needs a steward. Not because capital is unnecessary, but because capital needs guardrails. Not because Canadian-made manufacturing is symbolic, but because retaining invention, production, and service capacity in Canada’s North strengthens food sovereignty, economic resilience, and public return. And not because Indigenous communities should be kept separate from wider markets, but because the wider markets should be made to serve the original purpose, which is to ensure that Indigenous communities remain the priority, not the origin story that gets left behind once the business becomes investable.

Chlorine, Chloride, and Nutrient Dynamics

Fabian Velez — Sun, 12 Apr 2026 19:00:00 -0500

Chlorine is a chemical element with the symbol Cl and atomic number 17. It belongs to the halogen group and is a highly reactive element that is rarely found in its elemental form naturally. Instead, it most commonly exists as chloride (Cl⁻), a stable ionic form present in salts such as sodium chloride and in natural water systems. In environmental and biological contexts, chloride is far more common than elemental chlorine and plays important roles in plant and animal physiology, particularly in ionic balance and osmotic regulation (Marschner, 2012).

When sodium and chlorine atoms come together to form sodium chloride (NaCl), they transfer an electron.

Within plant systems, chloride is considered an essential micronutrient, required only in very small quantities. It contributes to key physiological processes such as photosynthesis (specifically in the oxygen-evolving complex), osmotic regulation, and enzyme activation. However, the threshold between beneficial and excessive concentrations is narrow. When chloride accumulates beyond optimal levels, it can lead to osmotic stress, reduced water uptake efficiency, leaf tip burn, and overall growth suppression, particularly in sensitive crops such as lettuce (White & Broadley, 2001).

In agricultural systems, chloride enters soils and hydroponic solutions through both natural and anthropogenic sources. Irrigation water is a major contributor, but an equally important source is potassium-based fertilizers. One of the most significant is potassium chloride (KCl), also known as muriate of potash. This compound is widely used because it supplies potassium, an essential macronutrient required in large quantities for plant growth, yield increases, and water regulation. However, chloride is co-introduced as part of its chemical structure. Because chloride is not extensively metabolized by plants, it tends to remain in solution or accumulate unless removed through leaching or hydroponic fluid replacement (White & Broadley, 2001).

Muriate of Potash (MOP) in raw, granular form

Potassium chloride is the dominant global potassium fertilizer because of its economic and industrial advantages. It is extracted from naturally occurring potash deposits and requires relatively simple purification compared to other potassium fertilizers. As a result, it has become the most cost-effective source of potassium on a per-unit basis. In contrast, chloride-free alternatives such as potassium sulfate (K₂SO₄) and potassium nitrate (KNO₃) require additional chemical processing or provide multiple nutrients, making them significantly more expensive. Agricultural economic data from the Food and Agriculture Organization (FAO) and International Fertilizer Association (IFA) consistently show that potassium chloride remains the lowest-cost potassium fertilizer, while sulfate- and nitrate-based alternatives are typically 1.5 - 4.0 times more expensive depending on global market conditions.

These alternative potassium sources are primarily used in systems where chloride management is critical. Potassium sulfate provides potassium and sulfur without introducing chloride, while potassium nitrate supplies both potassium and nitrogen in a chloride-free form. These fertilizers are commonly used in controlled environment agriculture (CEA), greenhouse production, and research-based nutrient formulations such as Hoagland solution systems. However, their higher cost limits widespread use in large-scale commercial agriculture, where cost efficiency per yield remains a key constraint (Taiz et al., Plant Physiology and Development).

In hydroponic systems, nutrient solutions are continuously recirculated, meaning water and dissolved minerals are reused over multiple crop cycles. Research demonstrates that these systems are chemically dynamic rather than static, as nutrient concentrations shift over time due to plant uptake, evaporation, and repeated fertilizer additions (Goddek et al., 2015). This creates a system where nutrient balance must be actively managed rather than assumed to remain stable.

A key challenge in recirculating systems is the behavior of conservative ions such as chloride. Unlike nutrients that are actively incorporated into plant biomass or transformed biochemically, chloride does not degrade, volatilize, or readily precipitate. As a result, its concentration tends to increase gradually unless it is physically removed through water exchange or dilution.

Example recirculating hydroponics system at AgriTech North

Commercial hydroponic fertilizers such as Masterblend 8-15-36 lettuce formula and Greenway Biotech Lettuce Fertilizer (8-15-36) and are widely used in these systems due to their balanced nutrient profile and affordability. This fertilizer supplies nitrogen, phosphorus, potassium, calcium, magnesium, and essential micronutrients required for lettuce production. However, part of its potassium source is derived from potassium chloride (muriate of potash), meaning chloride is introduced with each nutrient application. In addition, municipal tap water, commonly used in hydroponics, often contains background chloride concentrations ranging from approximately 10 to over 100 mg/L depending on local water sources and treatment processes (World Health Organization (WHO), 2017). In our own municipality of Dryden, Ontario, the 2025 Dryden Drinking Water System Annual Water Quality Report chloride itself is not reported; chlorine residual is 1.26-1.74 mg/L in treated water, and vinyl chloride is reported as <0.1 µg/L. Water samples collected from our municipal water on-site and sent to SGS Canada for independent testing reported chloride at 9 mg/L in 2025 and 15 mg/L in 2022. These baseline figures illustrate why at least annual water testing on-site for agricultural operations is required, as these residual and baseline levels of chloride must be factored into the fertigation, irrigation, and refresh scheduling.

When these inputs are combined in a recirculating hydroponic system using a fixed nutrient recipe, chloride accumulation follows a gradual but predictable pattern. With the baseline nutrient recipe, during the initial 2-4 weeks of using a brand new system, chloride levels remain relatively stable, although increases may occur due to repeated nutrient dosing and water evaporation. Between 4-8 weeks, chloride input begins to exceed baseline plant uptake. Beyond 8-12 weeks, chloride levels reach ranges that induce osmotic stress in sensitive crops if the nutrient solution is not refreshed or adjusted (White & Broadley, 2001). These timelines shorten relative to the basline levels of chloride and chlorine in the supply water source discussed prior. Also, if the hydroponic system uses a media that saturates, or any water remains throughout the system during refreshes, then prior chloride levels cannot effectively be returned to baseline, further reducing future refresh cycle timing.

Example loose leaf lettuce from AgriTech North

Lettuce is considered moderately sensitive to salinity, and chloride is one of the primary ions contributing to salinity stress in hydroponic environments. While low concentrations are beneficial or neutral, excessive chloride can lead to physiological disorders such as tip burn, reduced leaf expansion, and decreased market quality. Hydroponic studies consistently show that lettuce performance depends strongly on maintaining balanced ionic composition, and that long-term deviation in nutrient ratios negatively affects both yield and crop uniformity (Goddek et al., 2015).

The chloride content associated with Masterblend fertilizer is primarily derived from its inclusion of muriate of potash (potassium chloride). This compound contains approximately 47-48% chloride by weight and is used because it is the most cost-effective potassium source available at industrial scale. Its economic advantage results from the abundance of natural potash deposits and relatively low processing requirements compared to sulfate- and nitrate-based fertilizers. However, this cost advantage introduces chloride into hydroponic systems, where it becomes a long-term accumulation factor in closed-loop operation.

We are routinely attempting to increase operational gains while lowering costs, but when does lower costs generate the opposite of our intention?

Because of this, Masterblend represents a cost-efficient but chemically chloride-influenced nutrient system. In hydroponics, chloride accumulation is not due to improper formulation, but it can be inappropriate in hydroponics rather due to the inherent nature of system closure and continuous nutrient recycling. Without periodic reservoir replacement, dilution, or nutrient recalibration, chloride and other ions gradually drift upward in concentration as plant uptake is insufficient to fully balance inputs over time.

In conclusion, chlorine exists primarily in nature as chloride, a biologically essential but low-demand micronutrient. In agricultural systems, chloride is introduced mainly through potassium chloride fertilizers such as muriate of potash, which are widely used due to their low cost and high potassium efficiency. In hydroponic systems using Masterblend fertilizer and tap water, chloride accumulates in recirculating solutions due to repeated inputs and limited biological removal. While lettuce can tolerate moderate chloride levels, long-term stability in such systems requires active nutrient management, including monitoring and periodic solution replacement. Therefore, Masterblend is an effective and widely used fertilizer for lettuce production, but alternatives without muriate of potash would reduce overall nutrient waste and extend the life of water in these systems.

Academic & Institutional References

FAO. Fertilizer and Plant Nutrition Resources
https://www.fao.org/fertilizer-and-plant-nutrition/en/
Goddek, S. et al. (2015). Recirculating aquaponics/hydroponics nutrient dynamics
https://doi.org/10.1016/j.aquaeng.2015.02.001
International Fertilizer Association (IFA). Fertilizer statistics and reports
https://www.fertilizer.org/
Marschner, P. (2012). Mineral Nutrition of Higher Plants. Academic Press
https://www.sciencedirect.com/book/9780123849052/marschners-mineral-nutrition-of-higher-plants
Taiz, L., Zeiger, E., Møller, I. M., & Murphy, A. (2015). Plant Physiology and Development (6th ed.). Sinauer Associates. https://global.oup.com/academic/product/plant-physiology-and-development-9780197619230/
White, P. J., & Broadley, M. R. (2001). Chloride in plants. Journal of Experimental Botany
https://doi.org/10.1093/jxb/52.360.175
World Health Organization (2017). Drinking-water quality guidelines
https://www.who.int/publications/i/item/9789241549950

Indigenous Ag & Food Systems Workshop

Benjamin Feagin Jr. — Thu, 23 Apr 2026 16:07:00 -0500

Conference Date: April 21, 2026

AgriTech North participated in the Thunder Bay regional workshop of the Indigenous Agriculture and Food Systems (IAFS) engagement series, a national initiative developed through Farm Credit Canada (FCC) and Mokwateh to gather region-specific perspectives on land access and management, food security, economic and market opportunities, and capital solutions. For our team, this was not simply another event on the calendar. It was a meaningful opportunity to bring Northwestern Ontario’s realities into a room specifically intended to hear from Indigenous agriculture and food system leaders, and to ensure that the region’s structural barriers were not flattened into generic national talking points.

Why This Workshop Mattered

What made this workshop especially valuable was that the series is explicitly asking the right questions. The IAFS engagement materials do not stop at abstract encouragement about growth or participation. They ask about barriers to land use, barriers to capital, barriers to market access, barriers to processing, and what regionally grounded solutions might actually work. For Northern and Indigenous agriculture, the main challenges are rarely about willingness or imagination; they are usually about infrastructure, geography, policy design, and the persistence of Southern assumptions in Northern contexts. When a process is designed to surface those realities, the conversation becomes far more useful.

Northwestern Ontario’s Food Infrastructure Gap

For AgriTech North, one of the most important contributions we brought to the workshop was a clear insistence that Northwestern Ontario cannot be discussed as though it were operating within the same food-system conditions as Southern Ontario. The region continues to face exceptionally high food costs, long transport distances, difficult logistics, and fragmented procurement pathways. Public health data from the Northwestern Health Unit (NWHU) has repeatedly shown how severe these pressures are. In its reporting on the Ontario Nutritious Food Basket, NWHU noted that the cost of feeding a family of four in its catchment area reached $1,412.32 per month in 2023, and described food insecurity in Northwestern Ontario as being driven by higher transportation and fuel costs, greater risk of perishable loss in transit, and limited grocery competition. Those are not marginal issues, they are foundational.

That structural context is why we emphasized a point that has been central to our own thinking: Northwestern Ontario still lacks the kind of consolidated food terminal and distribution infrastructure that other parts of Ontario rely on, whether directly or indirectly, to stabilize procurement, lower handling inefficiencies, and improve access to food products. Ontario’s broader food economy has long included centralized wholesale produce infrastructure, most notably through the Ontario Food Terminal. Northwestern Ontario does not benefit from an equivalent regional backbone, and that absence affects everything from fresh food pricing to institutional procurement. In our view, this is one of the most important missing pieces in the North, and it must be addressed if the province is serious about food security, food sovereignty, and equitable agri-food development.

Why School Food Programs Cannot Simply Be Replicated in the North

This issue becomes even more visible when discussing school food. Across Ontario, school nutrition programs can often build on denser supply chains, lower procurement friction, and more consistent access to consolidated distribution. In Northwestern Ontario, that model does not translate neatly. Student Nutrition Ontario and the broader Ontario Student Nutrition Program do critically important work, and regional lead agencies are doing the best they can in difficult circumstances. However, where food prices are already among the highest in Ontario, where distribution is fragmented, and where institutions cannot easily procure through a nearby terminal or hub, replicating Southern school food successes becomes much more difficult. In other words, the constraint is not a lack of desire to feed children well, it is the regional food infrastructure underneath the program.

That point was central to what we wanted the room to understand. If Northwestern Ontario had better consolidated procurement and distribution infrastructure, then school food programming could operate very differently. It could be more repeatable, more efficient, and more affordable. It could also create more stable demand pathways for regional producers, processors, and Indigenous businesses and agri-food projects. Without that infrastructure, however, the burden falls back onto individual organizations, schools, or communities to piece together procurement under conditions that are already structurally expensive. We believe that is one reason the North cannot simply copy Southern models and expect identical outcomes. The starting conditions are not the same, so the policy instruments cannot be identical either.

Land Access, Geography, and Northern Agricultural Reality

Another major contribution we made at the workshop concerned land access. Too often, agriculture policy discussions treat land as though it were an abstract, interchangeable input. In Northwestern Ontario, land access is shaped by history, treaty realities, Indigenous community boundaries, geography, soil capability, transportation, and capital. We raised that many Indigenous people and organizations in the region were not left with access to broad expanses of arable land, and that for many communities, land access cannot be discussed without also discussing colonial displacement, constrained community boundaries, surrounding territorial realities, and the unfinished or unresolved character of broader land relationships. Even before one gets to financing or operations, the physical and political geography already looks very different from the assumptions built into mainstream agriculture programs. The fact that land access and management was one of the core themes of the IAFS series made this an especially important point to put on record.

Beyond "Grow in the Ground": The Limits of Southern Assumptions

We also found it necessary to challenge an assumption that appears frequently in agriculture conversations, namely that “real” or “proper” growing must happen in the ground, in soil, and preferably in the same conventional format that dominates Southern agricultural practice. One exchange at the workshop illustrated this problem clearly. A non-Indigenous participant strongly emphasized growing in the ground and appeared to regard non-soil systems with skepticism, if not condescension. From a Northwestern Ontario perspective, that position is often detached from the facts and reality our communities face every day. Much of Northern Ontario lies within the Canadian Shield, and Ontario’s own agricultural and geological resources make clear that soil depth, soil capability, bedrock exposure, and land suitability vary dramatically across the province. "The Canadian Shield, which covers much of eastern and Northern Canada, has thin, rocky soils that are not suitable for large-scale farming." In many Northern settings, productive agricultural land is limited, shallow, discontinuous, or difficult to access at economically viable scale.

From that perspective, simply instructing Northern or Indigenous communities to “grow in the dirt” is not a serious policy answer. In some contexts, productive soil would effectively need to be imported or significantly amended, which immediately raises cost and sustainability questions. It is not coherent to criticize alternatives to in-ground growing while also objecting to the fact that soil itself may need to be trucked in. That is precisely why place-based innovation matters. Controlled-environment agriculture (CEA), hydroponics, aeroponics, and other non-soil systems are not ideological departures from agriculture. In many Northern contexts, they are practical responses to environmental and infrastructural conditions that conventional assumptions fail to address. Ontario’s own soil capability resources, and broader research on Northern agriculture, support the basic point that Northern production conditions are materially different and cannot be reduced to Southern farming norms.

Structural Barriers to Indigenous Business Financing

This ties directly into another issue we raised at the workshop: the design of financing and business support programs for Indigenous enterprises. In our view, Indigenous businesses are too often treated as though formal equality were the same thing as equity. A business may be evaluated under the same eligibility criteria, the same collateral expectations, the same performance thresholds, and the same repayment logic as a non-Indigenous counterpart, while starting from profoundly unequal conditions. That inequality is not hypothetical; it is bound up with the historic denial of land access, interrupted wealth accumulation, exclusion from multigenerational business development opportunities, uneven access to private capital, and the simple fact that many Indigenous entrepreneurs are working in regions where the infrastructure deficits are much greater. Treating these businesses “the same” or similar can therefore produce deeply ineffective and unequal results.

We argued that funding and financing programs need to account for those structural realities much more honestly. Eligibility criteria and performance metrics should be relaxed or redesigned where necessary, not to lower standards arbitrarily, but to correct for the fact that the baseline conditions are not comparable. It is neither accurate nor fair to assess an Indigenous business in Northwestern Ontario as though it had inherited the same financial footing, geographic advantages, supplier density, market access, and collateral profile as a firm operating in a far more developed corridor. If economic reconciliation is to mean anything operationally, then it must appear in underwriting logic, program design, milestone expectations, and definitions of risk, not only in public-facing language.

We shared our own experience as a concrete example of this problem. In our case, AgriTech North was rejected for an Indigenous business financing opportunity, yet was able to secure a standard small business loan of the same amount on worse terms from the same agency. That experience illustrates a serious structural concern. A program designed to improve accessibility for Indigenous businesses should not, in practice, be harder to obtain than a conventional offering that does not carry the same stated mandate. We do not raise that point to disparage any one institution; we raise it because it reveals a wider problem in program architecture. Accessibility cannot be judged by branding alone. It has to be measured by actual outcomes and by whether businesses facing the greatest structural barriers can realistically qualify and succeed.

This is one reason we believe that performance metrics also need to be reconsidered. Many public and quasi-public programs still rely on metrics that make intuitive sense in mature Southern markets but can distort reality in Northern or Indigenous contexts. A business that is building community capacity, strengthening food security, lowering long-term regional costs, creating culturally grounded employment, or establishing foundational infrastructure may not fit neatly into the same short-horizon expectations used elsewhere. If the goal is to support transformative Indigenous agri-food development, then some programs need to evaluate not only immediate private return, but also regional systems impact, public benefit, infrastructure creation, resilience, and long-term sovereignty outcomes. Those are not secondary effects. In many Northern contexts, they are the real value proposition.

What We Hope Changes Next

This workshop also reaffirmed how closely these issues connect to arguments we have already been making in our own Red Papers. In “Food Charity Is Not Food Security,” we argue that emergency response has an essential role, but that long-term food security requires durable supply-side infrastructure, commercially viable local production, and policy designs that actually lower the cost of fresh food over time. In “AgriTech North for Commercialization,” we argue that Indigenous-led commercialization must not mean surrendering control to outside structures that are misaligned with Indigenous priorities, and that Canadian-made, Indigenous-led infrastructure matters if food sovereignty is to be real rather than symbolic. The Thunder Bay workshop showed, again, that these are not separate conversations. Infrastructure, commercialization, sovereignty, school food, and financing are all parts of the same system.

What we appreciated most about the workshop was that there was room to say these things plainly. Too often, Northern conversations are expected to remain polite at the expense of precision, or optimistic at the expense of structural honesty. This session gave space for directness. It was a fantastic opportunity, and we were genuinely honoured to participate. More importantly, we were grateful to be heard. When a room is willing to listen seriously to the lived realities of Indigenous businesses and Northern food system operators, the conversation immediately becomes more useful, more grounded, and more likely to lead somewhere productive.

We also left with a renewed sense that there is real appetite for structural change, even if much work remains. The IAFS series is asking substantive questions, and that alone is encouraging. If those questions are followed by equally substantive action, whether in land-access policy, infrastructure planning, procurement design, capital reform, or Indigenous business supports, then the process may contribute meaningfully to a better future for Indigenous agriculture and food systems across the country. In Northwestern Ontario, that future must include distribution infrastructure, regionally realistic program design, and a serious respect for the fact that Northern conditions are not a minor variation on Southern agriculture. They are their own reality, and they require their own solutions.

For AgriTech North, the workshop reinforced something we have known for a long time: the barriers facing current and future Indigenous agri-food businesses are not the result of insufficient effort or ambition; they are structural and systemic. That means the response must also be structural and systemic. We need capital frameworks that recognize unequal starting points. We need land conversations that recognize actual geography and actual history. We need food policy that understands logistics, not just aspiration. We need school food systems that are built on infrastructure, not patched together around its absence. And we need the province and the country to understand that the North cannot continue to be treated as an afterthought in food system design.

We are thankful to the organizers, participants, and to everyone who made space for these discussions in Thunder Bay. We left the workshop encouraged, not because the problems are small, but because the opportunity for change is real when people are willing to confront the more difficult issues honestly. We hope that the conversations begun there will support present and future Indigenous agri-food businesses more effectively, more equitably, and more practically than the status quo has allowed. If this process helps move even a few key systems, whether around distribution, financing, business supports, land access, or institutional procurement, then it was well worth the trip.

Accounting Punishes Businesses for Grants

Benjamin Feagin Jr. — Sun, 31 May 2026 14:34:00 -0500

Canadian governments use grants and contribution agreements to help private businesses build assets that Canada needs: food infrastructure, manufacturing capacity, clean technology, automation, energy systems, regional development projects, and productivity-enhancing equipment. In principle, that public funding should strengthen a business. In practice, under Accounting Standards for Private Enterprises (ASPE), a business is financially misrepresented on the Balance Sheet and will likely appear insolvent, even bankrupt, after accepting the grant.

The issue is structural. ASPE Section 3800, Government Assistance, gives private enterprises two balance-sheet choices for assistance related to fixed assets. Under the "Offset Method," the company can deduct the grant from the related asset, which reduces the asset’s carrying value and makes the business appear less capitalized. Or under the "Deferral Method," it can defer the grant and amortize it into income over time, which preserves the gross asset cash value but presents the unamortized grant value as a deferred credit, a long-term liability, making the business appear more leveraged than its economic substance supports.

ASPE’s current methods can match income over time, but they do not faithfully present the company’s asset base, liability profile, or capitalization when the grant is vested, non-repayable in the ordinary course, and used to acquire a real productive asset. The authoritative text is in the Chartered Professional Accountant (CPA) Canada Handbook – Accounting, Part II, accessible through the CPA Canada Standards and Guidance Collection, including the ASPE sections discussed in this article.

The misrepresentation is not a theoretical accounting inconvenience. Balance sheets are used by lenders, suppliers, insurers, landlords, investors, grant administrators, and other counterparties to evaluate whether a business is solvent, capitalized, creditworthy, and capable of executing a project, and the presented state of the financial statements is considered the authority. The Business Development Bank of Canada (BDC) describes the debt-to-equity ratio as a measure of how much debt a business is carrying compared to the amount invested. If ASPE forces non-debt public capital to either disappear from the asset base or sit in a liability-like deferred credit, then the very ratios used to evaluate financing capacity become distorted.

For AgriTech North, the negative impact of this structural accounting issue is approximately $4,000,000. The scale of the issue is significant. The accounting treatment can misrepresent a company that has successfully attracted and deployed public capital to look materially weaker than it is, even insolvent. That is the opposite of what public funding programs are designed to achieve.

The Short Version (TL;DR)

ASPE should be amended to add a third method for fully vested, non-repayable government assistance related to long-lived productive assets called "Restricted Government Capital Reserve," within equity.

The proposed method is:

At recognition or vesting
- Dr. Cash / government assistance receivable
- Cr. Restricted Government Capital Reserve, within equity
Each year, as the related asset is depreciated:
- Dr. Depreciation expense
- Cr. Accumulated depreciation
And, to match the grant benefit to the depreciation period:
- Dr. Restricted Government Capital Reserve
- Cr. Government assistance income

This would preserve the full asset, avoid treating vested non-debt public capital like leverage, and maintain ASPE Section 3800’s existing income-matching principle. It would not allow speculative grants to be booked as equity. It would apply only where the grant is vested, relates to long-lived productive assets, is supported by contribution agreement procurement controls, and is not intended to be repaid.

In plain language, Restricted Government Capital Reserve is vested grant equity. It is not ordinary share capital. It is not unrestricted retained earnings. It is not a revaluation surplus. It is a separate equity reserve that represents market-tested public capital embedded in productive assets.

What ASPE Currently Requires

The central standard is ASPE Section 3800, Government Assistance. Section 3800 defines government assistance as governmental action that provides specific assistance to an individual enterprise to influence business decisions such as investment, hiring, plant location, and similar matters. Section 3800 then identifies two broad approaches to accounting for government assistance: the capital approach and the income approach. Under the capital approach, government assistance would be treated as a capital transaction and credited to contributed surplus. Under the income approach, government assistance affects income through revenue, expense reduction, reduced depreciation based on reduced asset cost, or amortization of deferred credits.

The important point is that ASPE already understands the argument for capital treatment. Section 3800 acknowledges that government assistance can have financing characteristics. It states that those favouring the capital approach argue that government assistance is a financing device, reduces the capital required through loans and share capital, and does not reduce the assets employed in the business. That is exactly the economic problem this article addresses. Public capital used to acquire assets does not make those assets less real. It makes them less debt-funded.

But Section 3800 previously rejected that capital approach. Paragraph 3800.09 adopts the income approach, stating that although government assistance may have financing characteristics, it confers a benefit on the enterprise that should be reflected in income sooner or later. For assistance related to fixed asset acquisition, Section 3800.22 gives two methods: deduct the assistance from the related fixed assets ("Offset Method"), with depreciation calculated on the net amount, or defer and amortize the assistance to income on the same basis as the related depreciable assets are depreciated ("Deferral Method"). Public practitioner summaries, including BDO Canada’s Government Assistance and Investment Tax Credits, ASPE Section 3800, describe the same two fixed-asset grant methods.

Those two choices are the problem. ASPE can match income over time, but it cannot properly show the capital structure of a business that has received vested, non-repayable public funding for productive assets.

The Offset Method: When the Asset Disappears

Under the offset method, the grant is deducted from the related fixed asset. Assume a company buys $10,000,000 of equipment or facility improvements and receives a $4,000,000 government contribution. If the company uses the offset method, it records only $6,000,000 as the net asset cost for accounting purposes, before depreciation. If the company borrowed $6,000,000 to fund the remaining project cost, the balance sheet can appear to show $6,000,000 of debt against $6,000,000 of asset carrying value (a 1:1 ratio).

That presentation may technically comply with ASPE Section 3800, but it is commercially misleading. The business still controls and operates a $10,000,000 productive asset. It still insures the full asset, maintains the full asset, repairs the full asset, and uses the full asset to generate output. The grant did not reduce the physical asset. It reduced the amount of debt or owner capital needed to acquire it.

ASPE Section 3061, Property, Plant and Equipment, defines property, plant, and equipment as identifiable tangible assets held for use in production, supply, rental, administration, or development, acquired or developed for continuing use, and not intended for sale in the ordinary course of business. It defines cost as the consideration given up to acquire, construct, develop, or better the item, including directly attributable costs required to install it at the location and condition necessary for its intended use. ASPE Section 3061 also requires property, plant, and equipment to be recorded at cost.

The offset method therefore creates a difference between the asset’s productive reality and its reported carrying amount. That difference may be acceptable where the grant is small. It becomes a serious balance-sheet distortion where the grant is large.

The Deferral Method: When Non-debt Capital Looks Like Overleveraging

The deferral method solves the first problem but creates a second one. Under this approach, the company records the full $10,000,000 asset and records the $4,000,000 grant as a deferred credit as a long-term liability. The deferred amount is then amortized to income over the same period as the related asset is depreciated.

This produces a rational income statement. The company records depreciation expense on the asset, and a portion of grant income is recognized each year to match the cost being depreciated. That is economically sensible. But the balance sheet can now show the $10,000,000 asset, $6,000,000 of debt, and a $4,000,000 deferred grant balance as if it were a loan. Since the deferred balance is read as liability-like financing, the business appears significantly overleveraged.

This is not a mere presentation preference. In small-business credit analysis, total liabilities, debt-to-equity, tangible net worth, debt-to-assets, and related ratios matter as they are presented in the formal financial statements. A deferred grant balance is not the same as bank debt where the grant is vested and repayment is not likely. It is not a supplier payable. It is not a demand loan. It is not a mortgage. It is an accounting mechanism used to match grant benefit with depreciation.

The conceptual problem is that ASPE’s deferral method presents a timing account in a way that can impair a reader’s understanding of the company’s actual capitalization. The company has not borrowed the $4,000,000 from the government in the ordinary commercial sense. The company received public capital to build or acquire a productive asset. Repayment is not intended and no substantive unfulfilled condition remains, so the unamortized grant balance is not economically equivalent to leverage.

The False Choice

The offset method understates the asset. The deferral method overstates liability-like financing. Both methods obscure equity.

The offset method says the company owns less asset than it actually controls. The deferral method says the company has more liability-like financing than it economically bears. Neither method states the basic economic fact: a portion of the company’s productive asset base was funded by vested, non-debt public capital.

That is why this is not just an accounting issue. It is a capital formation issue. A grant-funded company may look weaker precisely because it succeeded in attracting government support.

Why “The Grant is Not Shareholder Equity” is True, But an Incomplete Representation

A predictable objection is that government is not a shareholder. That is correct. An ordinary government grant is not share capital, and it is not contributed surplus in the ordinary shareholder sense.

ASPE Section 3251, Equity, defines equity as the residual interest in the assets of the enterprise after deducting liabilities. It defines contributed surplus as amounts paid in by equityholders, including share premiums, proceeds from donated shares, and other contributions by equityholders above amounts allocated to share capital. That means ordinary grants cannot simply be treated as shareholder contributed surplus under current ASPE.

Section 3800 also has a specific rule for government-as-shareholder cases. When assistance is received from a government that holds an equity position and the assistance is provided by virtue of the government’s position as shareholder, it is credited to contributed surplus. But where the assistance is unrelated to the government’s position as shareholder, it is accounted for under Section 3800. This confirms that ordinary grants cannot be treated as contributed surplus merely because they improve capitalization.

But that is not the end of the analysis. The proposed fix does not require pretending that government is a common shareholder. It requires recognizing that ASPE lacks a proper category for vested public capital. Government grants used to acquire long-lived productive assets are not shareholder investments, but, once vested and non-repayable in the ordinary course, they are also not ordinary liabilities. ASPE needs a separate equity reserve for this fact pattern.

Contribution Agreements Already Include Fair-Market Value Discipline

The strongest reason to allow a Restricted Government Capital Reserve is that government grant contribution agreements do not hand out arbitrary amounts based on a company management’s opinion. They impose eligibility rules, claim procedures, procurement requirements (including fair-market value), documentation requirements, and funder review. Larger acquisitions generally require multiple bids, competitive quotes, and formal approval processes. Those conditions are not incidental. They are the mechanism that connects the government’s contribution to a verifiable asset cost.

Government funding is often project-based and subject to legally binding contribution agreements before funding is provided. FedDev Ontario, for example, explains on its Funding for businesses in southern Ontario: How funding works page that funding is project-based, linked to Government of Canada priorities, and subject to funding rules and reporting requirements. It also states that an approved applicant is expected to sign a legally binding contribution agreement before funding is provided.

The federal Treasury Board Directive on Transfer Payments requires contribution funding paid under a funding agreement not to exceed the eligible expenditures actually incurred by the recipient, or the portion of those expenditures to be funded under the agreement. Ontario’s Transfer Payment Operational Policy similarly sets out operational requirements and best practices to support oversight of transfer payment activities. These frameworks reinforce the point that contribution funding is tied to eligible expenditures, accountability, and oversight rather than unsupported internal valuation.

This matters for accounting. ASPE already recognizes, in other contexts, that independent evidence can support a transaction amount. Section 3840, Related Party Transactions, says independent evidence supporting an exchange amount can include independent appraisals, valuations, approvals by qualified unrelated parties, comparable quoted market prices, comparable independent bids on the same transaction, or comparable transactions actually undertaken with unrelated parties. It also states that the sufficiency and appropriateness of independent evidence is a matter of professional judgment and that unrelated-party involvement generally makes the evidence more persuasive. Although Section 3840 is not the government grant standard, it demonstrates an ASPE-native principle: independent bids, approvals, and unrelated-party market evidence can support recorded transaction amounts.

This is the missing evidentiary link. A contribution agreement with procurement requirements is not the same as a formal fair-value appraisal, but it often contains a built-in market discipline process. Competitive quotes, eligible-cost review, claim approval, proof of payment, and arm’s-length supplier rules can provide strong evidence that the grant-funded amount represents real capital deployed into the asset at a market-tested acquisition cost.

How ASPE Supports a Market-Tested Grant Amount

ASPE Section 3061, Property, Plant and Equipment, records property, plant, and equipment at cost. Cost includes the purchase price and other directly attributable acquisition, construction, development, installation, and preparation costs required to bring the asset to the location and condition necessary for its intended use. In other words, ASPE already treats documented acquisition cost as the primary measurement basis for productive assets.

Contribution agreements add an important evidentiary layer to that cost model. Grants are generally not disbursed against unsupported management estimates. They are disbursed against eligible costs, invoices, proof of payment or payable, project claims, procurement requirements, and funder review. Larger asset acquisitions require multiple quotes, competitive bids, conflict-of-interest controls, and funder approval (generally in advance). Those procurement requirements create a market-tested acquisition-cost record.

The proposed Restricted Government Capital Reserve would recognize that the vested grant amount is tied to documented, eligible, market-tested asset costs under an ASPE cost framework.

ASPE also contains native fair value and independent evidence concepts that support this approach. ASPE Section 3063, Impairment of Long-Lived Assets, defines fair value by reference to the amount of consideration that would be agreed upon in a transaction between knowledgeable, willing parties under no compulsion to act. Its fair value guidance recognizes quoted market prices, prices for similar items, and other valuation techniques when direct quoted prices are unavailable. ASPE Section 3840, Related Party Transactions, is not the government grant standard, but it is useful by analogy because it identifies independent appraisals, valuations, comparable quoted market prices, comparable independent bids, and comparable unrelated-party transactions as forms of independent evidence supporting an exchange amount.

That is precisely the kind of evidence contribution agreements require. Competitive procurement, eligible-cost review, supplier invoices, proof of payment, and funder approval create a documentary record that is materially stronger than an internal estimate. They show that public capital was not merely promised in the abstract. It was attached to an asset acquisition or construction process that was reviewed, documented, and tested against market evidence.

The proposed ASPE fix should therefore measure the Restricted Government Capital Reserve by reference to the vested amount of government assistance attached to eligible asset costs, supported by procurement and contribution-agreement evidence. The standard should require disclosure of the procurement basis, eligible-cost review, grant terms, vesting status, repayment exposure, and reserve release policy.

This avoids overstating the argument. The grant-funded amount is not automatically a formal fair value measurement of the asset. But where contribution agreements require competitive procurement and eligible-cost verification, the grant-funded amount is strong ASPE-consistent evidence of market-tested capital deployed into a recognized productive asset.

The proposed standard should say so directly: vested government assistance related to long-lived productive assets may be credited to a Restricted Government Capital Reserve when the related eligible costs are supported by invoices, proof of payment or payable, contribution-agreement eligible-cost review, competitive quotes, independent bids, independent appraisal or valuation where applicable, or comparable transaction evidence sufficient to support the recorded amount under ASPE principles.

Why This is Not the Same as Revaluation Surplus

International Financial Reporting Standards (IFRS) is useful for comparison. International Accounting Standards (IAS) 20, Accounting for Government Grants and Disclosure of Government Assistance, also uses an income approach. For grants related to assets, IAS 20 permits presentation either as deferred income or as a deduction from the carrying amount of the asset.

The relevant IFRS contrast is IAS 16, Property, Plant and Equipment. IAS 16 permits a revaluation model for a class of property, plant, and equipment where fair value can be measured reliably. Revaluation increases are generally recognized in other comprehensive income and accumulated in equity as revaluation surplus.

But revaluation surplus is not the right mechanical model for the ASPE fix. IAS 16 revaluation surplus arises from remeasuring an asset to fair value. It requires a fair-value process, applies to an entire class of assets, and is not released through profit or loss. IAS 16 permits transfers from revaluation surplus to retained earnings when the asset is used or derecognized, but those transfers are not made through profit or loss.

By contrast, the proposed ASPE fix is a grant-income model with equity presentation before release. It is not an appraisal reserve. It is not an unrealized fair-value gain. It is a restricted equity reserve representing vested public capital that is released to income on the same systematic basis as depreciation. That preserves the current Section 3800 income-matching objective while correcting the balance-sheet distortion.

Why Vested Grant Capital Should be Released to Income

The proposed treatment should release vested grant capital to income because that is the most coherent way to reform Section 3800 without abandoning its income-matching principle.

Section 3800’s current logic is that government assistance confers a benefit that should affect income sooner or later. For fixed-asset grants, the deferred-credit method implements that logic by amortizing the grant to income as the related asset is depreciated. The problem is not the income matching. The problem is the balance-sheet classification before the grant is released.

This proposed treatment retains the matching:

Dr. Depreciation expense
Cr. Accumulated depreciation
Dr. Restricted Government Capital Reserve
Cr. Government assistance income

The income statement effect is broadly comparable to the current deferred-credit method. Each year, depreciation reflects the consumption of the asset’s service potential, and grant income reflects the portion of vested public capital matched to that depreciation. The difference is that the unamortized vested grant is not shown as a liability-like deferred credit, it sits in equity as restricted public capital.

If the grant is truly vested, non-repayable in the ordinary course, tied to an asset the company controls, and supported by procurement evidence, then presenting it as a restricted equity reserve is more faithful than presenting it as a liability-like balance.

Why Existing ASPE Reserve Rules Need Amendment

ASPE does not currently allow this treatment without amendment.

ASPE Section 3260, Reserves, states that reserves are created or increased only by appropriations of retained earnings or other surplus. It also states that reductions in reserves are returned to retained earnings or other surplus, and cannot be used to relieve income of charges that should properly affect net income. Therefore, under current ASPE, a reserve cannot simply be created from a grant and recycled into income unless Section 3800 is amended to authorize that treatment.

ASPE Section 3610, Capital Transactions, is also relevant. Section 3610 says capital transactions include contributions by owners or others and transfers to and from reserves, and that capital transactions are excluded from net income. If ASPE creates a Restricted Government Capital Reserve and releases that reserve to income, Section 3800 must explicitly override or qualify the normal Section 3610 rule for this specific grant-accounting mechanism.

That is why this article is not arguing that the proposed treatment is currently permitted. It is arguing that ASPE should be fixed.

Why the Current Standard Cannot be Fixed by Interpretation Alone

ASPE Section 1100, Generally Accepted Accounting Principles, requires a private enterprise to apply every primary source of Generally Accepted Accounting Principles (GAAP) that deals with the accounting and reporting of transactions or events encountered by the entity. Section 1100 also states that when concepts in Section 1000 conflict with a primary source of GAAP, the primary source prevails. Because Section 3800 specifically deals with government assistance, a private enterprise cannot simply bypass Section 3800 by analogizing to IFRS, Section 1625, Section 3251, or general concepts of faithful presentation.

That makes this a standard-setting issue. The solution is not aggressive accounting. The solution is an amendment to ASPE Section 3800.

This distinction matters for credibility. Practitioners will object if we imply that existing ASPE already permits ordinary vested grants to be booked as equity. The correct argument is that current ASPE produce a structural misrepresentation and should be amended as soon as possible.

What ASPE Gets Right

ASPE Section 3800 gets several things right. It requires analysis of economic substance. It recognizes that government assistance may be tied to different components, such as fixed assets and labour costs, and that those components should be accounted for according to their nature. It requires income recognition over appropriate periods rather than immediate profit recognition for all capital grants. It also requires disclosure of assistance received or receivable, amounts credited to income, deferred credit or fixed assets, relevant terms and conditions, contingent repayment liabilities, amortization method for deferred credits, and unforgiven balances for forgivable loans.

Those principles should be retained. The proposed fix does not ask ASPE to recognize speculative applications, uncertain grants, unvested claims, or management-created valuations. It asks ASPE to create a better balance-sheet classification for a narrow category: vested, non-repayable government assistance used to acquire long-lived productive assets.

What ASPE Gets Wrong

ASPE gets the balance sheet wrong. It assumes that the income approach can be implemented through asset reduction or deferred credit as a long-term liability without creating serious consequences for financial statement users. That assumption fails for asset-heavy or growing small businesses public funding bodies are actively attempting to support the development of.

Section 1000, Financial Statement Concepts, says financial statements are intended to provide information useful to investors, creditors, and other users in making resource allocation decisions and assessing stewardship. It identifies information about an entity’s economic resources, obligations, equity, changes in those items, and economic performance as central to the objective of financial statements. It also recognizes materiality, relevance, reliability, and comparability as qualitative characteristics.

When the offset method reduces a grant-funded asset, the financial statements provide less useful information about economic resources. When the deferral method makes vested public capital look liability-like, the financial statements provide less useful information about obligations. When neither method shows the non-debt capital embedded in the asset base, the financial statements provide less useful information about equity.

That is the misrepresentation.

Why This Matters Most for Agriculture and Small Businesses

Large public companies can often explain complex accounting presentation issues to analysts, rating agencies, and institutional investors. Agriculture and small private companies often cannot because of how significant these values are relative to the rest of their Balance Sheet. Agriculture organizations are well-known as asset-heavy organizations with low-margin products, so they are disproportionately effected by this misrepresentation.

Agriculture and small business financial statements are regularly reviewed by commercial lenders, grant administrators, credit departments, landlords, insurers, procurement teams, and suppliers who apply conventional ratio screens and refuse to modify the financial statements in any way, to ensure what they believe is fairness and auditability, despite the glaring structural issue.

Private businesses use ASPE because it is intended to be practical and proportionate. BDC describes ASPE as a Canadian financial reporting framework designed specifically for private enterprises, and notes that private companies may choose between ASPE and IFRS depending on reporting needs. BDC’s ASPE glossary is a useful plain-language reference for business readers.

But “just switch to IFRS” is not a realistic answer for many small businesses. A Canadian Financial Executives Research Foundation study, The Cost of IFRS Transition in Canada, found that IFRS transition involved categories such as planning, training, audit, external accounting support, technical experts, valuation experts, IT consultants, and internal staff time, which on average exceed $150,000. Those costs vary by company, but the study supports the practical point that IFRS conversion is not a trivial solution for a private enterprise.

For agriculture and small business, ASPE should not be the trap it currently is. It should not force a company to spend substantial money on IFRS transition merely to make vested public capital stop looking like a missing asset or a liability.

Why This is Timely

The Accounting Standards Board (AcSB) has released a consultation process for a detailed review of ASPE. The public FRAS Canada consultation page, Detailed Review of Accounting Standards for Private Enterprises, says the review is intended to identify complex ASPE requirements, especially where the cost-benefit threshold is not met and issues are widespread among private enterprises. BDO’s ASPE Update 2025 similarly notes that the AcSB launched a detailed ASPE review to identify standards that are complex to apply or result in information of limited value to financial statement users, and to consider practical solutions.

We have attempted to engage the AcSB about this issue, and we are unable to obtain a response to ensure this structural issue is resolved during this short engagement window. We need assistance and intervention.

Grant-funded asset accounting belongs in that review. It is not an isolated annoyance. It affects how public capital appears in private enterprise financial statements. It affects leverage, tangible net worth, asset backing, and the ability of small businesses to raise follow-on capital after completing grant-funded projects.

The Proposed ASPE Amendment

ASPE Section 3800 should be amended to add a third method for government assistance related to long-lived productive assets.

The proposed new method is proposed to be called the Restricted Government Capital Reserve Method.

Our draft standard-setting provision:

“Government assistance related to the acquisition, construction, or development of depreciable fixed assets may be credited initially to a separately identified restricted government capital reserve within equity when all of the following conditions are met:

the enterprise controls the related fixed asset;
the assistance has been received or is receivable;
there is reasonable assurance that the enterprise has complied, and will continue to comply, with the conditions for receipt;
the assistance has vested, and no substantive unfulfilled condition remains other than conditions whose breach would give rise to a repayment obligation;
repayment is not likely;
the amount of assistance can be measured reliably;
the eligible cost of the related asset has been supported by invoices, proof of payment or payable, contribution-agreement eligible-cost review, procurement requirements, arm’s-length supplier evidence, competitive quotes, bids, or other independent evidence via a contribution agreement or similar; and
the enterprise discloses the relevant terms, restrictions, repayment provisions, contingent repayment exposure, amortization basis, and reserve release policy.”

The release paragraph:

“Amounts credited to the restricted government capital reserve shall be recognized in income on a systematic basis over the periods in which the related depreciable fixed asset is depreciated, in a manner consistent with paragraph 3800.22(b). The release shall be presented as government assistance income or as a reduction of the related depreciation or amortization expense, provided the presentation is applied consistently and disclosed.”

This amendment would not abolish the existing offset and deferral methods. It would add a third method for cases where the existing methods distort the balance sheet.

Why Release to Income is Better Than Release to Retained Earnings

There are two possible equity-reserve models.

One model would credit the vested grant to equity and transfer it from restricted reserve to retained earnings over the asset’s useful life. That is clean from an equity perspective, but it abandons Section 3800’s income approach.

The better model credits the vested grant to restricted equity and releases it to income over the related asset’s depreciation period. This preserves Section 3800’s matching principle. It also makes the reform easier to justify to standard setters because it does not create permanent equity for amounts that Section 3800 believes should affect income sooner or later.

Under this model, the balance sheet is corrected immediately, and the income statement remains disciplined over time.

A Simple Example

Assume a business acquires $10,000,000 of equipment and receives a $4,000,000 vested non-repayable government grant. The equipment is depreciated over 10 years on a straight-line basis. The business borrows $6,000,000 to finance the rest.

Under the Offset Method:

Asset recorded: $6,000,000
Debt: $6,000,000
Grant shown separately in equity: $0
Annual depreciation: $600,000

The business appears to have no grant-funded asset base, even though it controls $10,000,000 of productive equipment.

Under the Deferral Method:

Asset recorded: $10,000,000
Total Long-Term Liabilities: $10,000,000
- Debt: $6,000,000
- Deferred grant credit: $4,000,000
Annual depreciation: $1,000,000
Annual grant income: $400,000

The income statement is matched, but the unamortized grant appears debt-like.

Under the proposed Restricted Government Capital Reserve Method:

Asset recorded: $10,000,000
Debt: $6,000,000
Restricted Government Capital Reserve: $4,000,000
Annual depreciation: $1,000,000
Annual grant income released from reserve: $400,000
Restricted Government Capital Reserve after year one: $3,600,000

This model presents the asset, the debt, and the vested public capital separately. It also produces the same annual net matching logic as the deferred method.

Why This Would Not Invite Abuse

The proposed method is narrow and evidence-based.

It should not apply to grant applications. It should not apply merely because management expects funding. It should not apply to operating subsidies. It should not apply to grants with substantive unfulfilled performance conditions. It should not apply where repayment is likely. It should not apply where the related cost cannot be documented. It should not apply to amounts unsupported by eligible-cost review, procurement documentation, or other reliable evidence.

The safeguards should include:

First, vesting. The grant must be received or receivable with reasonable assurance, and no substantive unfulfilled condition should remain.
Second, asset linkage. The grant must relate to acquisition, construction, or development of long-lived productive assets.
Third, procurement evidence. The cost must be supported by contribution-agreement requirements, invoices, proof of payment, competitive bids, quotes, eligible-cost review, or similar evidence.
Fourth, repayment assessment. Repayment must not be likely. If a clawback becomes likely and estimable, it should be recognized under the applicable contingency or liability guidance.
Fifth, restricted presentation. The reserve must be shown separately within equity. It must not be treated as share capital or unrestricted retained earnings.
Sixth, systematic income release. The reserve should be released to income over the same period as depreciation of the related asset, unless the asset is disposed of, impaired, or the grant becomes repayable.
Seventh, disclosure. The financial statements should disclose the amount recognized, amount released to income, closing reserve balance, asset classes, grant terms, conditions, contingencies, procurement basis, and repayment exposure.

ASPE already contains disclosure concepts that can be adapted. Section 3800 requires disclosure of amounts received and receivable, amounts credited to income, deferred credit or fixed assets, relevant terms and conditions, contingent repayment liabilities, and amortization method for deferred credits. The proposed reserve method should use the same disclosure architecture and add a reserve reconciliation.

What About Clawbacks?

Grant clawbacks should not prevent equity-reserve treatment where repayment is not likely, but they must be disclosed and accounted for properly.

ASPE Section 3290, Contingencies, defines a contingency as an existing condition involving uncertainty as to possible gain or loss, ultimately resolved by future events. It uses probability categories of likely, unlikely, and not determinable, and it requires judgment based on available information. If a loss is likely and reasonably estimable, accrual is required. If repayment is not likely, disclosure may still be necessary depending on the terms.

Section 3800 also deals with repayment of government assistance. It states that the liability to repay government assistance is accounted for in the period when conditions arise that will cause the assistance to be repayable. This is consistent with treating clawback exposure as a contingency or liability issue, not as a reason to force all vested grant capital into a liability-like deferred credit from day one.

The distinction is important. A breach-triggered clawback is not the same as an ordinary debt obligation. If breach becomes likely, recognize the liability. If breach is not likely, disclose the terms. Do not classify the entire vested grant as leverage merely because clawback provisions exist.

How This Differs From Forgivable Loans

ASPE Section 3800 treats forgivable loans as government assistance when the enterprise becomes entitled to receive the amount, because in substance there is no difference between a forgivable loan and a grant with contingent repayment. This is useful because ASPE already accepts that legal form is not the end of the analysis. Economic substance matters.

The proposed reserve method follows the same substance-based logic. If the government assistance is effectively vested public capital, not ordinary debt, it should not be shown in a way that makes the business appear overleveraged.

Why ASPE Section 1625 Does Not Solve the Problem

ASPE Section 1625, Comprehensive Revaluation of Assets and Liabilities, allows comprehensive revaluation only in very narrow circumstances, such as certain acquisitions of virtually all equity interests or financial reorganizations where control changes. It is not a general revaluation model for ordinary operating companies. It also states that issuing debt based on asset appraisals does not justify comprehensive revaluation by itself.

Section 1625 is still useful by analogy. It shows that ASPE can recognize revaluation adjustments within equity in defined circumstances. Section 3251 also requires separate presentation of equity components of different natures, including revaluation adjustments upon push-down accounting.

That supports the reform argument. ASPE already has the conceptual machinery for separately identified equity components. It just does not currently apply that machinery to vested government capital.

Why Contribution-Agreement Procurement Evidence Should Be Central

The proposed method should be explicitly tied to procurement and eligible-cost evidence.

This is important for three reasons.

First, it addresses measurement reliability. A grant-funded asset acquisition is usually not just management asserting a value. It is supported by invoices, competitive quotes, bid records, eligible-cost schedules, proof of payment, and funder review.
Second, it limits the scope of the proposal. The method would not apply to vague, unsupported, or internally estimated benefits. It would apply where public capital has been deployed into a documented asset acquisition.
Third, it responds to fair-value concerns. IFRS 13 correctly distinguishes entry price from exit price, but ASPE does not need the proposed reserve to be a formal fair-value measurement. It needs the reserve to be a reliable accounting of vested public capital tied to documented asset cost. Procurement requirements provide that reliability.

We therefore emphasize: the fair-market discipline is already built into the contribution-agreement process.

The Balance-Sheet Logic

A balance sheet should distinguish three different things:

The productive asset the company controls.
The debt the company must repay.
The vested public capital that helped fund the asset.

ASPE currently collapses this distinction. The offset method hides the public capital by reducing the asset. The deferral method preserves the asset but makes the public capital look liability-like. The proposed reserve method presents all three elements separately.

That is better information for creditors, investors, grant administrators, suppliers, and policymakers.

The Policy Problem

Government grants are designed to correct market failures. They help private firms build assets that produce public benefits: food security, productivity, clean technology, regional employment, automation, export capacity, and supply-chain resilience. If the accounting standard makes the recipient look weaker, a large part of the public-policy benefit is lost.

This is especially problematic in capital-intensive sectors. Agriculture, controlled-environment agriculture (CEA), cleantech, manufacturing, energy efficiency, food processing, automation, and infrastructure projects require large upfront assets. Grant programs are supposed to reduce debt dependence and accelerate progression toward National Food Security. But under ASPE, the grant is instead misrepresented to make the company look under-asseted or overleveraged.

That should concern policymakers. Public money intended to improve private-sector capital formation should not be routed through an accounting model that makes the recipient appear less bankable.

The Standard-Setting Case

The standard-setting case is narrow and practical.

ASPE Section 3800 should not abandon the income approach for all grants. Operating grants, wage subsidies, price supports, training subsidies, and expense reimbursements can remain income-oriented.

The reform should only apply to asset-related assistance where the grant is:

material;
linked to long-lived productive assets;
received or receivable;
vested;
non-repayable in the ordinary course;
supported by procurement and eligible-cost evidence;
not likely to be clawed back; and
subject to clear disclosure.

That is not aggressive. It is more faithful.

Proposed Disclosures

The amended Section 3800 should require, at minimum:

Opening Restricted Government Capital Reserve.
Government assistance credited to the reserve during the period.
Amounts released from the reserve to income.
Closing restricted government capital reserve.
Related asset classes.
Depreciation period or release period.
Grant program names or categories, where disclosure would not breach confidentiality.
Key restrictions and conditions.
Remaining clawback or repayment exposure.
Basis for concluding repayment is not likely.
Summary of procurement evidence or eligible-cost verification.
Whether the grant-funded assets are pledged, restricted, or subject to retention requirements.

This disclosure would give users more information than current ASPE, not less.

Why This is Better Than Forcing IFRS

IFRS conversion may be appropriate for some companies, but it is not a proportionate fix for the ASPE grant-accounting problem. IFRS 1, First-time Adoption of International Financial Reporting Standards, requires an opening IFRS statement of financial position and consistent IFRS accounting policies throughout the periods presented. It is a full reporting framework transition, not a single-line balance-sheet repair.

If ASPE can be amended narrowly, small businesses should not need to incur IFRS transition cost merely to avoid an avoidable grant presentation problem. The AcSB’s own ASPE review process is the proper forum for this issue.

The Proposed Article Position in One Sentence

ASPE should stop forcing vested, non-repayable, procurement-tested government capital for long-lived productive assets into either reduced asset values or liability-like deferred credits, and should instead permit a Restricted Government Capital Reserve within equity, released to income over the related asset’s depreciation period.

Conclusion

ASPE Section 3800 made a choice. It considered the capital approach, acknowledged that government assistance can be a financing device, acknowledged that it reduces the need for loans and share capital, and acknowledged that it does not reduce assets employed in the business. Then it rejected that approach and adopted the income approach.

That rejection may have been reasonable for many forms of government assistance. It is no longer adequate for material, vested, non-repayable government assistance used to acquire long-lived productive assets.

The current methods create a false choice. Offset the grant, and the asset disappears. Defer the grant, and non-debt capital looks like leverage. Neither method properly shows that the business controls the full asset and that part of that asset was funded by vested public capital.

The solution is to create a new ASPE category that reflects the economic substance of the transaction: a Restricted Government Capital Reserve. The reserve would be credited when the grant is vested and supported by eligible-cost and procurement evidence. It would be released to income systematically as the related asset is depreciated. It would be separately disclosed, restricted, and protected against abuse.

That reform would preserve ASPE’s income-matching principle, improve the balance sheet, help lenders understand actual capitalization, and support the public policy objective of helping agriculture and small businesses build productive assets in Canada.

For our own business, the issue creates an approximately $4,000,000 misrepresentation of our true capital position. For Canada’s grant-funded small businesses more broadly, the issue is larger than one company. It is a structural flaw in private-enterprise accounting that should be corrected as quickly as possible.

Harvesting Waste Heat Sources for CEA

Blaise Eygun — Fri, 19 Jun 2026 15:43:00 -0500

Controlled Environment Agriculture (CEA), such as vertical farming and greenhouse production, enables highly efficient food production using less land and water than field farming, while delivering reliable year-round yields. In addition to the many other benefits, the ability to build and operate CEA facilities nearly anywhere in the world enhances food security and reduces food miles by enabling food production closer to population centers. However, to maintain optimal growing conditions, CEA requires significant energy, particularly due to high HVAC loads and artificial lighting. Thankfully, this agricultural method has many opportunities and technologies that allow for significant reductions in energy generation by reducing energy inputs and using alternative energy sources (Engler & Krarti, 2021).

Many strategies exist to reduce the energy footprint of CEA, such as increasing the facility/greenhouse envelope’s insulation, or implementing high efficiency HVAC systems. Another approach is to reduce reliance on purchased energy by integrating alternative energy sources such as renewable energy or recovered waste heat. AgriTech North’s Hydronic Microclimate Control System is an example of this approach, using alternative energy, such as waste and renewable thermal energy to deliver heating, cooling, and dehumidification with significantly lower energy consumption than conventional systems. This paper introduces the concept of waste heat, methods of waste heat recovery and how CEA can benefit from using previously discarded thermal energy.

Waste heat

Waste heat is thermal energy produced as an unintended byproduct of energy conversion processes. Because no energy conversion system is perfectly efficient, a portion of the input energy is inevitably transformed into less useful forms. This loss most commonly appears as heat generated through mechanical friction, electrical resistance, or nuclear and chemical reactions. When this thermal energy is not needed for the intended purpose of the system and is instead rejected to the environment, it is referred to as waste heat.

To understand waste heat, it is helpful to consider how frequently energy is converted from one form to another (Fig 1). In modern society, energy conversion enables nearly all aspects of daily life, from powering homes and transportation to enabling food production and manufacturing. While all energy conversions produce some degree of waste heat, its significance depends on the scale and purpose of the system, with the relevance and impact of waste heat increasing alongside the size and intensity of the energy conversion process.

Figure 1 - Examples of daily energy conversions

The systems responsible for converting energy from one form to another to perform useful work are known as energy conversion devices (Radovic, n.d.). Many of the largest of these systems, such as power plants and combustion engines, convert chemical or nuclear energy into useful motion or electricity. However, these systems are also among the least efficient forms of energy conversion. Their efficiency is defined as the fraction of the input energy that is converted to a useful output, with the remaining energy classified as waste energy.

The definition of “useful” energy depends on the intended purpose of the system. For this reason, a system which makes use of the thermal energy that it produces has an increased efficiency compared to an equivalent system which rejects its waste heat. The technology employed to make use of the thermal energy produced in large energy conversion systems, such as power plants and combustion engines, is Combined Heat and Power (CHP) generation. CHP involves simultaneously producing electricity and thermal energy from a single fuel source, greatly increasing the system’s energy efficiency and reducing heating costs for its thermal energy recipients. For example, in a case study on a gas turbine power plant, it is demonstrated that incorporating waste heat recovery, by operating as a CHP plant, increases its’s efficiency from approximately 33.66% to 50.20%, while also raising power output from about 57.5 MW to 85.7 MW using the same fuel input (Saturday, & Yahaya, 2025).

Figure 2 – Combined Heat and Power diagram

Cars are another example of inefficient energy conversion systems. Only a small portion of a car’s input energy is converted to useful output with a typical internal combustion engine operating at about 20-25% efficiency, with roughly 60-70% of the fuel’s chemical energy being released as waste heat (Vasta, 2023). As shown in the energy diagram in Figure 3, only a fraction of the energy consumed by the engine is converted to mechanical work, while the majority is lost through exhaust gases and engine cooling systems.

Figure 3 - Energy flow Sankey Diagram for an average car engine

Because waste heat is an unavoidable byproduct of energy conversion, removing this heat becomes a critical requirement for nearly all machinery and electrical systems. This often requires additional energy input, further contributing to the total energy consumption. In many cases, the energy used for cooling and heat removal represents a significant portion of the system’s overall energy use, as shown in the coolant energy consumption in Figure 3. The magnitude of energy required for waste heat removal is highlighted by high heat producing systems like data centers, where cooling systems can account for up to 40% of total energy consumption. By implementing waste heat recovery, energy conversion systems not only improve efficiency but can also greatly reduce cooling loads associated with expelling waste heat.

In most applications, waste heat is simply expelled into the environment despite containing significant amounts of usable energy. A common example is fossil-fueled plants, which reject excess heat into bodies of water or into the atmosphere through cooling towers, steam plumes and exhaust gases. In the United States, the average energy efficiency of fossil-fuelled power plants is 36%, meaning most of its input energy is lost to the environment as heat. Not only is this wasteful, but it is thermal pollution, which leads to the destruction of natural ecosystems inhabiting these bodies of water or the plant’s surrounding area.

In many cases, this thermal energy can be recovered and reused for heating or further energy conversion processes. By redirecting waste heat, overall energy consumption can be reduced, system efficiency can be improved, and a low-cost, sustainable energy source can be created for secondary applications.

Waste heat recovery

This leads to the concept of waste heat recovery, which refers to processes used to capture and reuse thermal energy that would otherwise be rejected to the environment. Waste heat recovery systems either redirect this thermal energy to an application where it can be used directly or convert it into another useful form. Direct heat reuse is the most common approach, as it is the simplest and most cost-effective method, avoiding additional energy losses from further conversion processes.

There are different waste heat recovery systems depending on the temperature of the available waste heat. At temperatures over 400°C, high-grade waste heat is typically produced by direct combustion processes present in power generation and industrial manufacturing. At these higher temperatures, recovery is more effective due to the greater energy content of the heat. An example of this is regenerative and recuperative burners, used in metal and glass furnaces, where hot exhaust gas transfers heat to a heat-resistant medium that preheats incoming combustion air, reducing energy demand for the process. Medium-grade waste heat (100-400°C) is commonly found in combustion exhaust streams and is often used to boil water to be used for heating as well as producing electricity through further energy conversions. Low-grade waste heat (below 100°C), the most abundant form, originates from sources such as data centres or machinery cooling (Jouhara et al., 2018). Although low-grade waste heat is more difficult to utilize due to its lower energy content, its continuous availability and low temperature are well suited for applications such as district or CEA facility heating. It can also be converted into other useful outputs such as cooling and electricity (Ling-Chin et al., 2018). The recovery of low-grade waste heat is common practice in rural and remote areas in the form of district heating. An example of this is the recovery and use of thermal energy produced by electricity generators in communities in Nunavut, which has resulted in 10% reduction in heating costs for their customers as well as a reduction equipment maintenance and carbon emissions.

When direct use of thermal energy is not feasible due to factors such as temperature, location, or timing, waste heat can instead be converted into other forms of energy. This is often achieved using thermodynamic cycles, such as the Rankine cycle, in which waste heat is used to vaporize a working fluid, expanding it through a turbine producing mechanical power and electricity (Oluleye et al., 2016). Another important example is the use of adsorption chillers, which convert low grade waste heat to produce cooling. This technology allows systems that already produce waste heat to meet part of their cooling demand internally, reducing dependence on conventional, energyintensive cooling technologies and improving overall energy efficiency of the system. This technology is ideal for warmer climates/seasons where waste heat is not desired and can instead be converted into much needed cooling.

Waste Heat Recovery in CEA

While waste heat recovery has traditionally been applied to buildings and industrial systems, its characteristics align particularly well with the needs of Controlled Environment Agriculture. CEA facilities are inherently energy-intensive, requiring continuous and precise control of temperature, humidity, lighting, and airflow to optimize plant growth. This makes them ideal recipients for waste heat and well positioned to recover and reuse their own waste heat. By making use of water-based heating and cooling, CEA facilities can allow for thermal energy produced by energy conversion devices to be captured and used efficiently elsewhere in the facility. AgriTech North’s Hydronic Microclimate Control System allows for this by recovering thermal energy and using it to supply heating, cooling and dehumidification enabling a great reduction in energy costs.

The energy consumption of CEA results in substantial amounts of waste heat production from equipment such as LED lighting, chillers, and dehumidifiers. Typically, this waste heat is vented out or cooled, requiring additional energy to do so. By implementing waste heat recovery, enhanced by thermal storage, hydronic heating and adsorption cooling, CEA facilities can greatly improve their efficiency by reusing energy, and cut down on energy consumption. A case study of a 25-acre tomato greenhouse demonstrates the benefits of integrating waste heat recovery with thermal storage, which resulted in a 18.94% decrease in energy procurement cost and a 24.34% reduction in operational emissions (Seiler et al., 2025).

Because CEA facilities run continuously, demand large amounts of energy and can use both high and low-grade thermal energy, they are uniquely well-suited to utilize external waste heat streams that might otherwise be rejected into the environment. This creates opportunities for industrial symbiosis, where waste heat from one process is used as an energy input for another, leading to mutual economic benefits and reduced carbon emissions. Data centres are examples of energy conversion systems that benefit greatly from a symbiotic relationship with CEA facilities. Nearly all energy used by data centres is released as low-grade heat. By redirecting this heat to be used in CEA, data centres can greatly reduce cooling loads, reduce emissions, and provide inexpensive, constant thermal energy to CEA operations. An example of this type of symbiotic relationship is Truly Green Farms in Chatham-Kent, Ontario, which utilizes waste heat and CO2 from a nearby ethanol plant. By locating the greenhouse adjacent to the plant, a heat exchanger is used to capture waste heat at 65-70 °C and transfer it to the greenhouse in the form of hot water to provide heating to the facility. Spanning 90 acres, Truly Green Farms’ greenhouse has a minimal carbon footprint by virtually eliminating heating and CO2 input, while reducing the ethanol plant’s emissions.

Cooling and dehumidification represent the second-largest energy demand in CEA systems after artificial lighting. Heat from artificial lighting, solar radiation, and facility equipment requires continuous cooling to maintain optimal growing conditions. In parallel, humidity control is critical, as plant transpiration releases moisture into the air, increasing indoor humidity levels. Both processes require the generation of chilled water that is typically provided by vapor-compression based systems, such as AC units and compression chillers. Adsorption chillers are an alternative to vapour-compression based cooling, which is typically powered by electricity and uses refrigerants as its working fluid. Instead, adsorption chillers are powered by low-grade thermal energy and use water as their working fluid (Fig 4), allowing integration with various waste heat recovery methods due to the abundance of low-grade waste heat sources. In addition, the elimination of high global warming potential refrigerants reduces environmental impact as well as allowing for self maintenance. These characteristics make adsorption chillers well suited for CEA applications, particularly in remote settings, which is why AgriTech North’s Hydronic Microclimate Control System uses this technology to deliver cooling and dehumidification.

Figure 5 – Adsorption chiller diagram

The benefits of waste heat for CEA are even more evident in cold climates/seasons. In these situations, space heating represents a major portion of CEA’s operating energy demand, especially in greenhouses, which have significantly lower insulation compared to conventional buildings. As a result, in colder climates, greenhouse production is often limited to the warmer months of the year due to the high energy costs of heating. Integrating CEA systems with external waste-heat sources such as data centres, generators and power plants can allow for these systems to provide low-cost thermal energy, enabling year-round production thanks to the greatly reduced energy costs. For this reason, Combined Heat and Power (CHP) plants are commonly used to heat CEA facilities in cold climates, particularly in European countries where CHP is becoming a common energy solution for commercial greenhouse operations. An example of this is the Boden greenhouse project in Sweden, which uses waste heat from a nearby data centre to power year-round food production in a subarctic climate. Similarly, RegEnergy Frövi operates a 10-hectare greenhouse heated entirely by waste heat from a paper mill, supplemented by hydropower, resulting in an 83% reduction in global warming impact for its production of tomatoes.

The recovery and use of waste heat has shown to be an ideal energy source for CEA, both on a large scale such as industrial symbiosis between greenhouses and power plants, but also on a smaller scale, such as a CEA operation capturing and reusing waste heat generated on site. Regardless of if operations are in cold or warm climates, substantial amounts of waste heat can be recovered and used for heating through direct heat reuse or cooling, dehumidification and even electricity powered devices through further energy conversions. As energy costs continue to rise and CEA facilities look to reduce emissions, CEA operators are looking for energy efficient and sustainable solutions to maintain ideal growing conditions. Waste heat continues to demonstrate that it can be a reliable energy source for these facilities going forward.

Academic & Institutional References

Engler, N., & Krarti, M. (2021). Review of energy efficiency in controlled environment agriculture. Renewable and Sustainable Energy Reviews, 141, 110786.
Jouhara, H., Khordehgah, N., Almahmoud, S., Delpech, B., Chauhan, A., & Tassou, S. A. (2018). Waste heat recovery technologies and applications. Thermal Science and Engineering Progress, 6, 268–289.
Ling-Chin, J., Bao, H., Ma, Z., Taylor, W., & Roskilly, A. P. (2018). State-of-the-art technologies on low-grade heat recovery and utilization in industry. In I. H. Al-Bahadly (Ed.), Energy conversion—Current technologies and future trends. IntechOpen.
Oluleye, G., Jobson, M., Smith, R., & Perry, S. J. (2016). Evaluating the potential of process sites for waste heat recovery. Renewable and Sustainable Energy Reviews, 60, 642–653.
Radovic, L. R. (n.d.). Chapter 4: Energy conversion. Pennsylvania State University.
Saturday, E. G., & Yahaya, E. M. (2025). Thermodynamic and economic evaluation of a simple cycle gas turbine plant conversion to a combined cycle plant. International Journal of Advances in Engineering and Management (IJAEM).
Seiler, J. C., Pavlak, G., & Freihaut, J. D. (2025). Energy dispatch optimization at controlled environment agriculture sites with CHP: How energy utilization, storage, and market exports impact operational costs. Energy Conversion and Management, 332, 119743.
Vasta, S. (2023). Adsorption air-conditioning for automotive applications: A critical review. Energies, 16(14), 5382.