The Future of Food: Between Efficiency and System Resilience

🇵🇱 Polski
The Future of Food: Between Efficiency and System Resilience

📚 Based on

Future of Food ()
Bloomsbury Academic
ISBN: 9798765129852

👤 About the Author

Honor May Eldridge

Food Standards Agency

Honor May Eldridge is a policy and advisory expert specializing in food systems and environmental impact. With over a decade of experience in both the United Kingdom and the United States, she has worked extensively in government and for non-profit organizations, including the Food Standards Agency, the Sustainable Food Trust, the Soil Association, and the Center for Food Safety. Her work focuses on sustainable agriculture, trade policy, agri-tech innovation, and the social and environmental consequences of food production. Eldridge is a published author who provides research and briefings for political and civil society audiences, advocating for more resilient and equitable food systems. She is recognized for her expertise in food policy, having authored several books that explore the complexities of modern food supply chains and the future of food governance.

Introduction

The modern food system is built upon an illusion of affordability that masks immense ecological and social costs. This article analyzes the conflict between efficiency and systemic resilience, highlighting resource degradation and a public health crisis.

Readers will discover why low retail prices are misleading and how agrotechnology impacts our independence. The text argues that without institutional changes, technology will merely serve as a tool for measuring catastrophe rather than providing a solution.

The Hidden Water Balance of Food Products

Food production generates both an explicit market cost and a hidden water footprint. According to the Water Footprint Network, a kilogram of beef requires an average of 15,400 liters of water, while wheat requires approximately 1,827 liters. These figures do not represent direct consumption by plants or animals.

The water footprint is divided into green water (rainwater), blue water (surface and groundwater), and grey water (the amount needed to dilute pollutants). This distinction is crucial, as blue water directly competes with human needs. The high water consumption associated with meat products stems primarily from the massive demand for feed and the maintenance of industrial livestock farming.

Cheap Food: An Illusion Masking Systemic Fragility

Low retail prices do not mean that products are actually cheap. Instead, costs are shifted onto the environment, public health, and laborers. This model promotes efficiency without resilience, rendering supply chains extremely fragile in the face of shocks such as pandemics or wars.

Full supermarket shelves do not guarantee urban food security. The just-in-time system eliminates inventories to reduce costs, which increases the risk of logistical paralysis. In this arrangement, the primary losers are the poorest residents of so-called 'food deserts,' where access to fresh produce is limited in favor of cheap, ultra-processed foods.

Agrotechnology as a Tool for Precision and the Risk of New Dependencies

Modern technologies, such as precision agriculture and IoT systems, allow for the optimization of water and chemical use. However, they cannot save the system on their own, as they do not address issues of power, seed monopolies, or farmer debt.

There is a risk that agrotechnology will deepen inequalities. Small farms may be excluded due to high entry costs and dependence on data platforms. Without institutional support, the digital revolution will become a tool for further capital concentration rather than the democratization of food access.

Technology should merely support a paradigm shift from profit maximization toward building resilience and distributional justice.

Summary

The future of food requires moving away from treating sustenance as an anonymous commodity. We must replace the logic of quarterly financial reports with the rhythms of nature and a commitment to public health, lest we inhabit a world where medicine is merely a prosthesis for dietary failures.

The key lies in the courage to redefine luxury. True luxury should not be cheap abundance, but rather access to real food and dignity in the process of its production.

📖 Glossary

Ślad wodny (Water Footprint)
Całkowita objętość słodkiej wody zużytej i zanieczyszczonej na wszystkich etapach produkcji danego produktu.
Woda szara
Umowna ilość wody potrzebna do rozcieńczenia zanieczyszczeń powstałych przy produkcji do poziomu zgodnego z normami jakości.
Rolnictwo precyzyjne
Podejście do upraw wykorzystujące technologię (IoT, drony), aby dostarczać zasoby dokładnie tam i wtedy, gdzie są one niezbędne.
System kwitów magazynowych
Mechanizm finansowy pozwalający rolnikowi zdeponować plony w certyfikowanym magazynie i uzyskać dokument potwierdzający ich wartość, co pozwala opóźnić sprzedaż.
Podejście One Health
Koncepcja zakładająca, że zdrowie ludzi, zwierząt i środowiska jest nierozerwalnie połączone i powinno być traktowane jako jedna całość.
Filozofia od nosa do ogona (nose-to-tail)
Etyka kulinarna i gospodarcza zakładająca maksymalne wykorzystanie wszystkich części zwierzęcia po uboju, aby ograniczyć marnotrawstwo.

Frequently Asked Questions

How much water is actually used to produce food, and what do these numbers mean?
The water footprint of food includes water consumed and polluted at all stages of production—for example, an average of 15,400 liters for beef or 1,827 liters for wheat. These figures do not merely indicate the amount of water drunk, but the sum of resources used for things such as feed and system maintenance, distinguishing between green water (rainwater), blue water (surface and groundwater), and grey water (used to dilute pollutants).
Why doesn't a low food price in the store mean that it is truly cheap, and what are the consequences for the security of supply?
Low food prices result from hiding costs in the environment, human health, and the exploitation of workers and animals. Basing the system on cheap resources and long supply chains makes it fragile and devoid of a safety buffer, which threatens the stability of supplies in the face of crises.
Are modern technologies in agriculture sufficient to save the food system?
Modern technologies can improve resource management and reduce pressure on the environment, but they are not sufficient to save the food system. This is because they do not solve structural problems such as corporate monopolies, ownership issues, fair pricing, or the risk of further capital concentration.
Why do we produce enough food, yet a food crisis still exists?
The food crisis results from different types of losses depending on the region of the world. In the Global South, the cause is infrastructural poverty (lack of cold storage, warehouses, and transport), whereas in wealthy countries, food waste occurs at the trade, catering, and household stages, often due to rigorous aesthetic standards for products.
What solutions help reduce food waste and why is technology alone not enough?
Solutions that help reduce food waste include apps saving surpluses, the sale of 'ugly vegetables', upcycling, smart packaging, and waste monitoring systems in gastronomy. Technology alone will not suffice because without responsibility and changes in the consumption model, it will merely be a better report on a catastrophe.
Why is simply appealing to consumers not to waste food insufficient, and what is the role of technology in this context?
Appeals to consumers alone are insufficient because food waste results from the structure of the system and incentives, such as multi-pack promotions or aesthetic pressure. Technology can support the fight against this problem through production optimization, crop protection, and better distribution planning.
Why is the number of metabolic diseases and obesity increasing despite the widespread availability of food?
The cause is a food system that provides an excess of low-quality calories, filling the stomach while starving the body. The main problem is the prevalence of cheap and convenient ultra-processed foods (UPF), designed to maximize profit and taste at the expense of metabolic health.
Why do people with low incomes consume unhealthy food more often, despite being aware of its harmful effects?
The primary cause is poverty, as healthy food can be more expensive per calorie than cheap industrial products. These choices are further determined by stress, fatigue, and limited access to fresh produce, particularly in so-called food deserts.
Why are dietary choices not merely a matter of individual will and biology, but the result of systemic influences and cultural conditions?
Dietary choices are shaped by systemic infrastructure, such as school programs, and the actions of food corporations, which co-create consumer desires through marketing and lobbying. Ultra-processed food often becomes a symbol of social status and modernity, making diet function as a form of social theater rather than just satisfying biological needs.
Why do individual health and medical solutions fail to solve the problem of the food crisis?
The food crisis stems from a system that produces too much harmful, ultra-processed food at the expense of environmental resources and human health. This leads to the creation of a two-tier metabolic system, where access to a healthy diet becomes a luxury for the wealthy, while less affluent individuals receive cheap food that deteriorates their health.
Why are individual choices not enough, and what role do institutions and cities play in repairing the food system?
Individual choices are insufficient because the system has decoupled the product from its actual costs and conditions of choice, requiring food to be treated as a basic good at the institutional level. Institutions should implement policies supporting nutritional quality, education, and public procurement, while cities must become active nutritional organisms that plan supplies and support local markets.
Why do full shelves in supermarkets not guarantee the food security of cities, and who loses out under the current distribution model?
Full shelves result from the 'just-in-time' model, which eliminates inventories, making the system vulnerable to shocks such as pandemics or supply chain disruptions. Residents of low-income neighborhoods lose out under the current distribution model, creating so-called food deserts with limited access to fresh products.
How can changes in the urban environment, infrastructure, and education realistically influence our eating habits and access to healthy food?
Changing urban infrastructure by creating community gardens and farmers' markets brings residents closer to food sources, builds communities, and increases a sense of agency regarding health. In the area of education, schools play a key role, where meals can teach children about seasonality, taste, and respect for food instead of promoting cheap calories.
How can we prevent a situation where healthy food becomes a privilege of the wealthy, and how should a city systemically manage access to food?
To prevent food exclusion, mechanisms such as honoring and doubling the value of food stamps, subsidies for lower-income families, and rent regulations should be introduced. The city should systemically manage access to food as an element of public infrastructure, planning needs diagnostics, infrastructure (e.g., marketplaces and community kitchens), public procurement, education, crisis management, and fair pricing mechanisms.
How do the organization of urban space and biotechnologies affect our relationship with food and the resilience of the system?
Integrating edible greenery and local crops into urban spatial planning supports adaptation to climate change, serving as micro-infrastructure. Meanwhile, biological technologies, such as CRISPR gene editing, influence control over seeds and the beginning of the food chain. System resilience, on the other hand, depends on diversifying dependencies and countering social isolation through shared meals and local initiatives.
Can modern plant gene editing realistically help in the fight against hunger and climate change?
Yes, gene editing can help by creating plants resistant to drought, salinity, and diseases, as well as increasing crop yields and their nutritional value. It also allows for the reduction of pesticide and nitrogen fertilizer use, which supports the fight against climate change. However, it must be remembered that technology alone will not solve the problem of hunger without eliminating economic and political barriers and issues regarding seed ownership.
How does the seed patenting system affect farmers' independence and food security in the face of climate change?
The seed patenting system can lead to corporate monopolies and farmers' dependence on a narrow group of suppliers, weakening their autonomy through the necessity of purchasing seeds and licenses annually. This creates a risk that plant traits essential for survival under climate change conditions will become private rents and licensing luxuries rather than public goods.
Do modern plant modification technologies actually solve systemic problems, or do they merely mask the flaws of the current consumption model?
Modern technologies can help, for example, by reducing food waste or fighting vitamin deficiencies; however, they do not solve structural problems such as poverty or a lack of food justice. Often, they serve only to maintain the current consumption model based on aesthetic perfection and the year-round availability of exotic products.
Will new gene-editing technology (CRISPR) solve the problems of the food system, or will it only deepen existing inequalities?
Whether CRISPR solves the problems of the food system or deepens inequalities depends on institutions and political decisions, not on the technology itself. It can become a tool for public good and climate adaptation, or an instrument for concentrating power over food.
Is there a way of raising animals that does not destroy the environment and is ethically and ecologically justified?
Yes, the solution is sustainable livestock farming based on regenerative agriculture and agroecology, which integrates animals into the ecosystem cycle instead of maximizing production. Key methods include rotational and holistic grazing, which allow animals to support soil health, water retention, and carbon sequestration.
Will changing breeding methods to regenerative ones be enough to save the meat production system?
No, switching to regenerative methods is not enough because land and ecosystems have limited capacities. It is necessary to adopt the principle of 'less but better,' meaning eating meat less frequently, but sourcing it from superior systems.
What is the connection between animal husbandry methods and human health and culture?
The way animals live determines the nutritional quality of food products, and human health is inextricably linked to the state of the soil and the entire ecosystem. At the same time, sustainable farming forms the foundation of the identity of many communities, being an element of their rituals, knowledge passed from generation to generation, and a basis for survival.
How can meat consumption be changed to make it ethical and transparent, without excluding less affluent people?
A 'nose-to-tail' philosophy should be implemented, maximizing the use of all parts of the animal, and real transparency regarding the origin of meat should be ensured through reliable certification and audits. To avoid excluding less affluent individuals, it is necessary to create accessible alternatives, such as legumes, culinary education, and support for poorer households.
What systemic conditions and changes in the approach to consumption are necessary so that food ceases to be an anonymous commodity with hidden costs?
For food to stop being an anonymous commodity, it must have a clear origin, standard, and fair price, and its consumption should be limited in frequency. This requires systemic change in subsidies, regulations, and education, as well as the acceptance of the fact that ethical production entails higher costs.

🧠 Thematic Groups

Tags: water footprint food system resilience agrotechnology precision farming food waste green, blue and grey water regenerative grazing food security supply chains warehouse receipt system One Health approach nose-to-tail ethics greenwashing in agriculture hidden balance of food products