Food waste and loss
Not all food makes it to our plates. A shocking amount is lost or wasted at different stages of the food systems: on farms, in processing plants, during transportation, and even in our own kitchens. Consider this: 61 percent of the 3.3 billion tonnes of carbon emissions generated by food waste comes from households10, including everyday items like dairy products, fruits, vegetables, and bread. For example, studies show that over 20 percent11 of people discard bread when it becomes dry.
In regions without proper cold storage infrastructure, food loss happens even earlier in the supply chain, long before it reaches consumers. Meanwhile, supermarkets often discard products near expiration — even if they are still perfectly safe to eat — contributing to unnecessary waste while millions of people around the world struggle with food insecurity.
And what about your burger? If lettuce, tomatoes, or dairy-based toppings spoil before they hit the market, that is wasted food and wasted resources. Even the bun has an expiration date, and without proper storage, it might end up in the trash instead of on your plate. Food waste isn’t just an environmental problem. It is a problem that affects what ends up on your plate and how much it costs.
The toll of dealing with challenges in food systems
What we have discussed until now are just a few pieces of the massive puzzle that makes up our food systems. Each part, whether it is soil health, plant health, animal health, food waste, or protein production, comes with its own set of challenges.
For decades, the default solution to these challenges was chemicals. If crops needed a boost, we turned to chemical fertilizers. If pests and diseases threatened harvests, pesticides and fungicides were the answer. To prevent food from spoiling too soon, we relied on chemical preservatives. And when we wanted to transform plants into protein-rich food, we used a mix of chemicals to enhance taste and texture.
But this approach has come at a cost. The widespread use of synthetic chemicals has put pressure on the environment, disrupting ecosystems, depleting soil health, contaminating water sources, and driving up carbon emissions from food systems. The very solutions meant to sustain food production have started to threaten its future.
But now, a shift is underway. Science is unlocking new ways to tackle food system challenges, this time using nature’s own tools. Enter biosolutions, biological alternatives that work with nature rather than against it. From improving soil fertility without synthetic fertilizers to protecting crops without harmful pesticides, biosolutions are proving to be a more sustainable way forward.
So, what exactly are biosolutions, and how are they transforming the way we grow, protect, and produce food?
The role of biosolutions in food systems
Biosolutions are changing the way we produce and manage food.
Across different areas of the food system, we are already seeing a shift where biosolutions are replacing chemicals or working alongside them, helping us reduce our dependency on chemicals. This not only helps lower the environmental burden but also makes food systems more productive and sustainable.
To get a better sense of their impact, let us break food systems down into four key areas where biosolutions are making a difference:
- Soil and plant health
- Protein production
- Food manufacturing
- Food access
Now, we shall explore some real-world examples of how biosolutions are reshaping each of these areas.
Soil and plant health
A single gram of soil can contain up to 10 billion microbes12—bacteria, fungi, and other tiny organisms that are invisible to the naked eye. But their impact is anything but small. These microbes help plants absorb essential nutrients like nitrogen and phosphorus, boost their immunity, and even protect them from extreme conditions like drought and disease.
Biosolutions harnesses this natural connection between plants and microbes to create healthier crops and soils. One great example is biostimulants — products that enhance plant growth by improving how they take in nutrients. One such biostimulant combines three powerful microbes13:
- Bacillus amyloliquefaciens – a bacterium that helps plants grow stronger
- Penicillium bilaiae – a fungus that boosts phosphorus absorption
- Trichoderma virens – a fungus that enhances plant defense mechanisms
Together, these microbes make it easier for plants to access nutrients, leading to healthier crops and higher yields. In fact, studies show that a biostimulant using these three microbes can increase wheat yields by up to 3.8 bushels per acre14.
Another type of biosolution, biopesticides, uses beneficial microbes to protect crops from pests and disease-causing organisms. Unlike chemical pesticides, these natural alternatives do not harm soil health or disrupt ecosystems. By adopting biostimulants and biopesticides, farmers can grow healthier crops while reducing their reliance on synthetic chemicals.
Protein production
In 2018, the global demand for protein was 202 million tonnes, and it is projected to double by 2050 as both income levels and populations increase14. We need to find ways to produce more protein without increasing the environmental impact. Biosolutions are helping in two key ways:
- Improving feed efficiency in livestock – making sure animals absorb nutrients better so they grow more efficiently
- Developing novel proteins – creating high-quality protein from fungi, bacteria, and even carbon dioxide
In traditional livestock farming, most of the feed that farmers buy (which accounts for nearly 70 percent of their costs15) is converted into body mass. The more efficiently animals process their food, the better the protein yield. Biosolutions enhance digestion in livestock, poultry, and fish, making it easier for them to absorb nutrients and grow faster. They also improve immunity, reducing the risk of disease and lowering economic losses for farmers.
But biosolutions are not just helping with traditional protein sources. They are also driving innovation in plant-based protein foods. Scientists have developed high-protein foods from fungi, which provide a nutritious, affordable, and low-emission alternative to meat. Other biosolutions use fermentation to extract proteins from unused plant materials or even generate proteins directly from carbon dioxide in the air. These breakthroughs are paving the way for a more sustainable and diversified protein supply.
Food manufacturing
A significant portion of food waste can be prevented by addressing two key factors: minimizing the loss of raw materials used in food production and extending the shelf life of perishable products.
Every processed food we consume starts with raw ingredients that undergo transformation — milk is turned into cheese, seeds are pressed for oil, and grains are milled into flour. But in these processes, a substantial amount of food is lost. Take oil extraction as an example—what if we could extract more oil from olives or sunflower seeds, ensuring that fewer resources go to waste?