Science and technological innovation: foundations of global stability, peace, and resilience

The The Budapest Declaration highlighted that scientific knowledge is a shared asset of humanity.

Building on this principle, the United Nations (UN) and UNESCO have launched the International Decade of Sciences for Sustainable Development (2024–2033). This initiative reaffirms science, technology, and innovation (STI) as a global public good in service of the 2030 Agenda and the Sustainable Development Goals (SDGs)

The challenge is fundamentally operational: without science applied to real-world conflicts, lasting peace is difficult to achieve. When science for peace is not translated into action—whether in conflict-zone hospitals, displaced communities, or reconstruction efforts—conflicts tend to become entrenched and recovery can take generations.

The CTI influye directamente en la desigualdad global. Por ejemplo, donde no hay acceso al agua, a la energía o al conocimiento, las tensiones tienden a multiplicarse. Reducir esas brechas forma parte, también, de una política de seguridad.

At the same time, UNESCO has begun addressing more recent threats through the concept of cognitive peace, understood as the protection of information ecosystems against scientific misinformation (fake science) and algorithm-driven manipulation campaigns capable of destabilizing societies and institutions.

Within this framework, technological governance and scientific ethics become essential tools for guaranteeing the right to participate in scientific progress, a principle recognized by both the Universal Declaration of Human Rights and the International Covenant on Economic, Social and Cultural Rights (ICESCR)

As a result, the responsible use of artificial intelligence in pre-conflict and high-risk scenarios requires ethical safeguards today—not tomorrow.

In an increasingly unstable geopolitical landscape, technological autonomy and science diplomacy have emerged as fundamental pillars for safeguarding global resilience and sustaining international dialogue.

In the face of geopolitical crises, strategic technology is a key asset for ensuring both human security (in the first two cases we present) and the critical autonomy on which it depends (in the third case described below):

• Cybersecurity and satellite networks: Protected communications safeguard civilian populations and enable governments to maintain operations when terrestrial infrastructure becomes unavailable.
• Artificial intelligence and predictive models: Early-warning systems powered by advanced algorithms can anticipate supply-chain disruptions, disease outbreaks, and mass migration driven by conflict or prolonged drought.
• Semiconductors and critical materials: Competition for rare earth elements, lithium, and gallium increasingly influences industrial and geopolitical strategy. Advanced materials are fundamental to both the energy transition and defense capabilities, making technological sovereignty a key factor in long-term stability.

Global security increasingly depends on energy sovereignty and digital technologies capable of protecting vulnerable populations.

• Energy sovereignty: The transition from fossil fuels to decentralized renewable energy systems, supported by international climate frameworks, has become a direct geopolitical safeguard against energy coercion. Every microgrid strengthens local autonomy and contributes to long-term peace.
• Financial inclusion and resilience: Mobile payments, blockchain solutions, and parametric insurance mechanisms help sustain economic activity in conflict-prone or underserved regions. These tools also contribute to food security in areas affected by water scarcity and climate change.

The conclusion is increasingly evident: social stability depends on technological, energy, and infrastructure autonomy.

When political channels break down, science diplomacy often preserves dialogue. Examples include initiatives such as the Israeli-Palestinian Science Organization (IPSO), the SESAME project in Jordan—where scientists from Israel, Palestine, Cyprus, and other countries collaborate—and multiple scientific partnerships across the Indo-Pacific region. These initiatives function as a form of scientific soft power, creating channels of cooperation even between geopolitical rivals.

Likewise, North-South and South-South partnerships play a critical role in preventing global technological fragmentation. In a world marked by growing tensions, the practical exchange of technologies—from telemedicine systems in remote regions to ecosystem monitoring and illegal deforestation detection—acts as a force for cohesion.

Crisis-management networks such as the Digital Humanitarian Network and initiatives like 100 Resilient Cities demonstrate that resilience is built through cooperation rather than competition.

These alliances are further reinforced through initiatives such as the International Decade of Sciences for Sustainable Development, supported by key organizations including UNCTAD and the International Science Council (ISC).

Ultimately, science increasingly serves as the common language when traditional diplomatic channels become ineffective.

Another critical dimension of the relationship between science and peace is the growing role of female leadership in deep tech startups, that is redefining the community resilience in crisis situations.

Across fields such as cybersecurity, biotechnology, dual-use defense technologies, and humanitarian response, female scientists and founders are bringing perspectives that have historically been underrepresented.

This reality, championed by organizations such as UN Women, is reflected in gender-sensitive healthcare protocols in conflict zones, biotechnology solutions designed for displaced populations, and digital tools aimed at combating violence in wartime environments.

It is important to remember that women account for only around one-third of researchers worldwide, according to UNESCO. Closing that gap is not simply a matter of representation—it is a strategic necessity.

The increasing influence of women-led scientific alliances, particularly in South-South cooperation networks, is already demonstrating remarkable scalability and impact through approaches such as citizen science and community-driven innovation. escalabilidad y ciencia ciudadana (citizen science).

The challenge that remains is ensuring that resilience-enhancing technologies become a standard rather than a privilege. This will not happen while a significant global gap persists in research and development investment.

According to UNESCO’s Science Report, Sub-Saharan Africa invests approximately 0.4% of GDP in R&D, compared with an average of around 2.5% across North America and Western Europe.

In this context, UNESCO’s call for “Trust, Transformation and the Future: The Science We Need for 2050” highlights the importance of measuring access to knowledge, international cooperation, and climate innovation through their tangible impact.

One example is Colombia’s science and innovation strategy, which integrates science, technology, and innovation into post-conflict reconstruction efforts.

At Bolboreta Innova Group we share this perspective. We believe that science and technology only fulfill their purpose when they generate tangible impact.

For this reason, through Bolboreta Investiga, we support scientific projects from the earliest stages of hypothesis validation through their evolution into startups capable of delivering measurable outcomes. We transform innovation into practical solutions for strategic sectors, aligning them with complex geopolitical realities and ESG principles..

If you would like to explore the resources and methodologies that can help connect your idea with real-world applications, we invite you to get in touch with our team..