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Sustainability Beyond Production
Sustainable food and agriculture (Fd+Ag) systems are often framed around three pillars: ecological soundness, economic viability, and social fairness. Yet in today’s interconnected, increasingly volatile environment, this framing is incomplete. The rise of zoonotic diseases, cyber threats to agricultural infrastructure, and cascading geopolitical disruptions have exposed vulnerabilities even in the most advanced food-chain networks. Sustainability must now be understood as inseparable from resilience and biosecurity.
Kansas State University (K-State), through its leadership in agricultural sciences—livestock health, cropping systems, food defense, public health (One Health), and risk management—represents a critical node in domestic and international efforts to secure the future of food. Through a systems approach, K-State synthesizes emergency preparedness, cyber-biosecurity, and interagency coordination into actionable frameworks that support long-term sustainability.
The Modern Food System: Vulnerabilities and Complexities
Modern food systems are highly efficient but also highly vulnerable. From seed development and soil health to digital logistics and just-in-time distribution, food chains constitute an intricate web of interdependencies. While these systems boost productivity, they also increase susceptibility to systemic shocks.
For example, agricultural production increasingly depends on sensor-driven machinery and AI-guided precision farming—technologies susceptible to cyberattacks. Likewise, vertical integration in agribusiness can result in widespread disruption from localized incidents, such as pandemic-induced border closures or labor shortages. These realities necessitate not only sustainable but also secure food systems.
This argument has been emphasized in the operational literature, where systems-based preparedness strategies are recommended to uncover vulnerabilities and introduce redundancies that safeguard the availability and safety of food (Dise & Self, 2025).
Land-Grant Universities and Agricultural Resilience
Founded under President Abraham Lincoln, land-grant universities were envisioned as engines of agricultural innovation, resilience, and public service. This historical mission continues to guide institutions like K-State in addressing threats to modern food and agricultural systems.
K-State’s leadership in agricultural sciences is anchored in its Colleges of Agriculture, Veterinary Medicine, and Engineering, as well as its resources in biological informatics, biocontainment, and biomanufacturing. Substantial investments by the State of Kansas, the United States Department of Agriculture (USDA), as well as additional agencies, reinforce its status as a key influencer in extension, engagement, and biodefense networks.
| Key takeaway | Why it matters | Practitioner actions |
| Sustainability must be inseparable from resilience and biosecurity | In a shock-prone, digitally dependent food system, embedding biosecurity reduces systemic risks to availability and safety | Map where biosecurity is (and isn’t) built into sustainability plans |
| Think in systems, not silos
Mono-point ‘fixes’ underperform |
Interdependencies—from genetics and feed to cloud services and logistics—create cascading risks | Run a simulation that follows 1 product from seed-to-shelf; identify single points of failure and add redundancy/alternates. |
| Prioritize systems-based preparedness | Preparedness uncovers vulnerabilities and prepositions mitigations before shocks hit | Stand up a preparedness-log (top 10 scenarios, owners, mitigations); schedule quarterly demonstrations |
| Treat cyber-biosecurity as a core ag-operations function | Biological assets and digital systems are now fused; cyber events can become biosecurity events (and vice-versa) | Establish joint ops among IT/OT security and animal/plant health; add cyber steps to feed/seed/inventory chain-of-custody |
| Use land-grant universities as operational force multipliers | Land-grants translate research into field-ready frameworks and training; extending capacities across counties and sectors | Formalize MoU/MoA and projects with a connecting land-grant for exercises, toolkits, and modeling. |
| Build interagency/interdisciplinary & jurisdictional alignment early | Threats cross borders and mandates; coordinated doctrine prevents duplicative or conflicting responses | Join/organize a multi-sector working group (ag, public health, emergency management); share playbooks. |
| Invest in cross-sector education & workforce
Align preparedness and readiness |
Future practitioners need literacy across policy, cyber-physical systems, animal/plant health, and emergency management. | Launch micro-credentials or brown-bag series (One Health, ICS for ag, cyber-biosecurity basics); require for site leads |
| Integrate risk communication into operations | Clear, trusted messaging preserves public confidence and speeds coordinated action during disruptions | Create message templates for top hazards; pre-approve with legal/leadership; identify spokespersons and backups |
| Embed governance that sustains resilience work | Without ownership and cadence, preparedness decays between crises | Stand up resilience & biosecurity steering huddles with intentional frequency |
| Assess what drives impacts at multiple layers | Field-level controls + enterprise indicators + network-level coordination provide early warning and accountability. | Define a balanced scorecard (site, enterprise, partner network); automate data pulls |
The National Agricultural Biosecurity Center (NABC) embodies the land-grant mission by translating research into biosecurity and emergency response frameworks. Its capacities include biothreat detection, systems modeling of agricultural disruptions, and risk communication planning. These capabilities serve U.S. federal agencies (e.g., USDA, Department of Homeland Security), international bodies (e.g., Food and Agriculture Organization, North Atlantic Treaty Organization (NATO), World Organisation for Animal Health), and local communities alike.
Cyber-Biosecurity in Agri-Food Planning
Cyber-biosecurity addresses the vulnerabilities that emerge when biological assets, such as seeds, livestock genetics, and surveillance data, are integrated with digital systems. With agriculture now reliant on satellite monitoring, cloud analytics, and genetic diagnostics, disruptions to digital infrastructure pose serious threats to the stability of food systems.
Digital attacks are no longer just about stealing data or money. In the life sciences, they can directly lead to the creation of harmful biological agents, whether by accident or by design, blurring the line between the digital and physical worlds.
Just as a chef’s recipe depends on the precise combination of ingredients, so too do the conditions that give rise to catastrophic outcomes in agriculture and biosecurity systems. When the “ingredients” of vulnerability are present, including outdated software, weak access controls, stove-piped data systems, and insufficient training, they combine under the right “heat” of a motivated adversary to produce a disastrous result. In this recipe, the absence of robust, persistent cyber-biosecurity measures serves as the missing ingredient of resilience, allowing small missteps to escalate into widespread contamination, data loss, or disruption of essential food and agricultural functions along value-chains.
Recent prominent cyber episodes include:
- 2023 DNA Synthesis Screening Bypass (New York University)
- 2021 Colonial Pipeline
- 2020 SolarWinds
Beyond the above incidents, which were more so tertiary (yet plenty disruptive/destructive) to other critical infrastructures in the bio-economy, consider a hypothetical case study:
Targeted Modification of Research Sequences & the Cyber-Biosecurity Imperative
Background: Cyber-biosecurity bridges cybersecurity and biosecurity to address the risks posed by malicious actors exploiting digital vulnerabilities in biological research, development, and biomanufacturing. This includes protecting data, equipment, and biological materials from theft, sabotage, and misuse.
Scenario: Imagine a nation-state actor aiming to disrupt a rival country’s agricultural sector. They target a database containing publicly available, but highly valuable, genetic sequences of staple crops.
Associated Vulnerabilities:
- Vulnerability Exploitation: Actor identifies a vulnerability in the database’s security, possibly through SQL injection, weak authentication, or social engineering.
- Data Exfiltration & Manipulation: The actor gains unauthorized access and selectively extracts crucial DNA sequences of key crop varieties. They then subtly modify these sequences – perhaps adding small, detrimental mutations – before re-uploading them to the database. They also cover their tracks meticulously to avoid detection.
- Dissemination of Modified Sequences: Researchers, unaware of the tampering, download the manipulated sequences and use them to guide their breeding programs or genetic engineering experiments.
- Consequences: Over time, crops derived from these manipulated sequences exhibit reduced yields, increased susceptibility to disease, or other undesirable traits, leading to significant economic losses and potential food insecurity in the targeted country.
Cyber-Biosecurity Failure:
This scenario illustrates a failure in cyber-biosecurity for the following reasons:
- The database lacked adequate security measures to prevent unauthorized access and data manipulation.
- No integrity checks were in place to detect the altered sequences.
- The database lacked proper authentication and authorization protocols.
- There were no monitoring systems to detect suspicious activity.
Importance of Cyber-Biosecurity:
This hypothetical case highlights the importance of implementing stronger research security measures to:
- Protect valuable biological data: Prevent unauthorized access, theft, and manipulation of genetic sequences, biological information, and research data.
- Ensure research integrity: Maintain the accuracy and reliability of research findings by safeguarding data from sabotage.
- Prevent bio-weaponization: Reduce the risk of biological information being misused to create bioweapons or harmful biological agents.
- Safeguard economic stability: Protect critical sectors such as agriculture, healthcare, and biomanufacturing from cyber-attacks that could have devastating consequences.
Cyber-Biosecurity Relevance:
Although the SolarWinds hack did not target biological research explicitly, it highlighted the vulnerability of critical infrastructure and the potential for sophisticated, stealthy attacks to compromise sensitive data. This highlights the potential for similar attacks against biological research institutions, biomanufacturing facilities, and agricultural data systems. The SolarWinds hack underscored the importance of robust security protocols, supply-chain security, and proactive threat detection – all crucial components of comprehensive cyber-biosecurity frameworks. It emphasizes the importance of continuous monitoring and auditing to detect and prevent malicious activity, ensuring the integrity of biological data and research.
The hypothetical scenario of targeted sequence modification, combined with lessons learnt from recent critical infrastructure intrusions, underscores the urgent need to address cyber-biosecurity risks proactively. Implementing robust security measures, establishing comprehensive cyber-biosecurity frameworks, and fostering collaboration between cybersecurity and biological sciences are essential to protecting our biological research, data, and infrastructure from malicious cyber threats. Failure to do so could have far-reaching and devastating consequences for global health, food security, and economic stability.
K-State University, through initiatives at its Open Publishing Exchange (i.e., Cyberbiosecurity Quarterly | Kansas State University Libraries), is advancing threat models that integrate cyber and biological security. These models directly safeguard food systems against converging threats, from ransomware attacks on grain inventories to intentional feedstock contamination. As Rudolph et al. (2019) argue, integrated security strategies rooted in historical biodefense frameworks offer actionable pathways for sustainability.
Interdisciplinary and International Engagement
Land-grant universities like K-State distinguish themselves by engaging beyond academia. Through involvement with organizations such as the World Health Organization’s Technical Advisory Group on the Health Security Interface (TAG-HSI) and NATO’s Joint Health, Agriculture, and Food Group, K-State contributes to global sustainability frameworks.
Such multi-disciplinary engagement connects U.S. agri-security expertise with international policy, enabling strategy alignment across borders. Whether managing avian influenza or food-system disruptions caused by armed conflict, interdisciplinary approaches ensure coherence across health, agriculture, and security sectors.
Implications for Policy and Education
To meet the challenges of modern food systems, policy must evolve alongside interdisciplinary research. Universities like K-State play a central role not just as research hubs but as training grounds for the next generation of agri-food leaders.
K-State’s curriculum increasingly emphasizes cross-sectoral literacy. Veterinary students engage with risk management; engineers learn food safety simulations; and public health students explore the Incident Command System. NABC integrates these fields into real-world scenarios, supporting flexible, systems-literate professionals.
Through a blend of emergency management, research administration, and federal coordination, NABC exemplifies how operational and academic partnerships contribute to food-system resilience.
Resilient Systems, Secure Futures
The path to sustainable food systems depends not only on ecological stewardship and technological innovation but also on resilient and coordinated system design. Sustainability must be understood as a function of resilience and intentional governance.
Kansas State University and the National Agricultural Biosecurity Center offer a compelling example of how academic institutions can operationalize systems thinking. Their contributions span research integrity, federal advising, and global engagement.
As global crises increasingly threaten food access and stability, systems-based biosecurity will be essential. Land-grant universities, as exemplified by K-State, will remain pivotal in securing a sustainable food future.
Acknowledgements
The author recognizes Dr. Marty Vanier, Director of the National Agricultural Biosecurity Center & Associate Director of the Biosecurity Research Institute at Kansas State University, for her leadership in advancing interdisciplinary approaches to agricultural biosecurity, food and agriculture resilience, and health security.
References
Dise, J., & Self, A. (2025). Agriculture security: Systems-based preparedness. Domestic Preparedness, 21(3), 30–37. https://www.domesticpreparedness.com/articles/agriculture-security-systems-based-preparedness
Rudolph, A., et al. (2019). Lincoln’s Biodefense Strategy: Protecting the Agricultural Base. Health Security, 17(1), 80–81. https://doi.org/10.1089/hs.2018.0124