Food system resilience through cellular agriculture

Introduction

Food system resilience refers to the ability of a food system to withstand, adapt to and recover from disruptions while ensuring the continuous availability, accessibility, affordability and safety of food. Disruptions may arise from climate change, droughts, floods, pandemics, wars, supply-chain failures, disease outbreaks and shortages of agricultural resources. Traditional food production systems are vulnerable to these challenges because they depend heavily on land, water, weather conditions, livestock health and long-distance transportation.

Cellular agriculture is an emerging technology that produces agricultural products through cell cultures, fermentation and other biological processes rather than relying entirely on conventional farming and animal rearing. It includes cultivated meat, precision-fermented dairy proteins, microbial proteins and other cell-based food ingredients. These technologies may strengthen food system resilience by diversifying production methods and reducing dependence on conventional agricultural supply chains.

Meaning and importance of cellular agriculture

Cellular agriculture involves producing food through controlled biological processes. Two major approaches are used:

Cell cultivation: Animal or plant cells are grown in controlled environments to produce food products such as cultivated meat.

Precision fermentation: Microorganisms are programmed or selected to produce specific food ingredients, including proteins, enzymes and fats.

These methods can potentially support food security by providing alternative sources of nutrition. For example, precision fermentation may produce dairy proteins without conventional dairy farming, while cultivated meat may reduce dependence on livestock production.

However, cellular agriculture is not a complete replacement for traditional agriculture. It requires energy, specialised equipment, skilled personnel, suitable growth materials and reliable supply chains. Its contribution to resilience depends on affordability, scalability, environmental performance and regulatory oversight.

Legal and regulatory framework in India

India does not yet have a comprehensive standalone law specifically governing cellular agriculture. However, several existing laws and regulatory mechanisms may apply.

1. Food Safety and Standards Act, 2006

The Food Safety and Standards Authority of India (FSSAI) regulates food safety, manufacture, storage, distribution, sale and import of food products. Section 22 addresses novel foods and certain specialised food categories. Cellular agriculture products may require regulatory assessment under the applicable provisions and regulations before being introduced into the Indian market.

2. Non-Specified Food Regulations, 2017

The Food Safety and Standards (Approval for Non-Specified Food and Food Ingredients) Regulations, 2017 provide an approval framework for foods and ingredients that are not covered by existing standards. Depending on the product and its regulatory classification, cultivated meat and fermentation-derived ingredients may require prior approval and supporting safety information.

3. Food labelling and advertising regulations

The Food Safety and Standards (Labelling and Display) Regulations, 2020 and the Food Safety and Standards (Advertising and Claims) Regulations, 2018 are relevant to consumer information. Products should not be marketed through misleading descriptions or unsupported nutritional and health claims. Clear identification of ingredients, allergens and nutritional characteristics is important for informed consumer choice.

4. Environmental and biotechnology regulation

The Environment (Protection) Act, 1986 and applicable rules may become relevant where cellular agriculture involves regulated genetically engineered microorganisms or organisms. The 1989 Rules governing genetically engineered organisms and hazardous microorganisms may apply to specified activities, depending on the organism and process involved.

Contribution to food system resilience

Cellular agriculture can strengthen food systems in several ways.

First, it can diversify food production. Countries that depend heavily on imported meat, dairy ingredients or specialised food proteins may develop alternative domestic production capabilities. This can reduce exposure to international supply disruptions.

Second, cellular agriculture may reduce pressure on agricultural land and livestock resources. Controlled production systems can operate independently of certain climatic conditions, making them potentially useful where conventional agriculture is affected by droughts or extreme weather.

Third, it may improve supply-chain flexibility. Distributed production facilities could be established closer to consumption centres, reducing transportation requirements for selected products. However, such facilities still depend on reliable electricity, water, equipment and raw materials.

Fourth, cellular agriculture may support emergency food planning by providing alternative production capacity during certain agricultural disruptions. Nevertheless, it cannot automatically solve food insecurity because production costs, infrastructure requirements and consumer acceptance remain significant challenges.

Challenges and legal concerns

Despite its potential, cellular agriculture raises important regulatory and economic concerns. High production costs may make products inaccessible to low-income consumers. Dependence on specialised equipment and imported inputs may create new supply-chain vulnerabilities.

Food safety is another major concern. Regulators must assess microbiological contamination, production residues, allergens, nutritional composition and consistency between batches. Environmental assessment should also consider electricity consumption, water use, waste generation and the source of production inputs.

There are also questions concerning intellectual property, market competition, labelling and farmers' livelihoods. Governments must ensure that technological development does not unfairly disadvantage traditional agricultural communities. Public consultation, transparent approval procedures and accessible consumer information are therefore essential.

Important judicial decisions

There are no established Indian Supreme Court decisions directly addressing cellular agriculture or cultivated meat as a method of strengthening food system resilience. However, several judgments provide relevant legal principles.

1. People's Union for Civil Liberties v. Union of India (2001 onwards)

This continuing public interest litigation, commonly known as the Right to Food case, concerned the implementation of food and nutrition schemes. The Supreme Court issued directions relating to food distribution and government responsibilities.

Its significance lies in recognising the importance of effective food security measures. The principles are relevant when evaluating cellular agriculture policies because technological innovation should support, rather than undermine, access to adequate and nutritious food.

2. Vellore Citizens' Welfare Forum v. Union of India (1996)

The Supreme Court recognised the precautionary principle and polluter-pays principle as important components of Indian environmental law. The judgment is relevant to cellular agriculture because new production technologies must be assessed for potential environmental consequences before widespread commercial adoption.

3. A.P. Pollution Control Board v. Prof. M.V. Nayudu (1999)

The Supreme Court emphasised the importance of scientific expertise in environmental decision-making, particularly where technical uncertainty exists. This principle supports evidence-based assessment of cellular agriculture processes, including their environmental and public-health implications.

4. Swaraj Abhiyan v. Union of India (2016)

The Supreme Court considered government responsibilities during drought conditions and addressed issues concerning food security and relief measures. The decision highlights the need for effective institutional planning during agricultural emergencies. Alternative food-production technologies may form part of broader resilience strategies, although they cannot replace conventional relief obligations.

International regulatory developments

Internationally, cellular agriculture is receiving increasing regulatory attention. Singapore became the first country to approve cultivated meat for commercial sale in 2020, following a safety assessment. In the United States, the Food and Drug Administration and the United States Department of Agriculture share regulatory responsibilities for cultivated meat products. The European Union may regulate qualifying novel foods under Regulation (EU) 2015/2283.

These developments demonstrate the importance of scientific assessment, transparent approval systems and coordination between food-safety authorities.

Conclusion

Cellular agriculture offers an important opportunity to diversify food production and improve resilience against climate-related disruptions, agricultural disease and supply-chain instability. However, its success depends on affordable technology, reliable infrastructure, effective food-safety regulation and public acceptance. India should develop a clear regulatory framework that encourages responsible innovation while protecting consumers, traditional farmers and the environment. Ultimately, cellular agriculture should complement conventional farming and contribute to a diverse, sustainable and secure food system.