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World Space Week 2026 | 4–10 October
World Space Week 2026 celebrates the Rocket Revolution, recognizing how advances in launch technologies, reusable systems and commercial space activities are transforming access to space. As the barriers to reaching orbit continue to change, new opportunities are emerging for research, innovation and economic development.
But what does greater access to space mean for society? And how can we ensure that the benefits of this revolution extend beyond the space sector itself?
These questions are central to the Space for Society research theme at the University of Leicester’s Institute for Space. They invite us to consider space as an increasingly important part of our social, economic, technological and environmental systems, connecting disciplines and creating opportunities to address some of humanity’s most pressing challenges.
Space as an enabler of sustainable development
Space technologies already contribute to our understanding of the Earth and our ability to manage its resources. Satellite observations provide essential information about climate change, land use, agricultural productivity, environmental degradation and natural hazards.
Yet the real opportunity lies in connecting this information with the decisions that shape our societies.
Consider the competing demands placed on land. Food production, renewable energy, biodiversity conservation, housing and infrastructure all depend on finite resources. Addressing these challenges requires us to understand how environmental, economic and social systems interact.
Space-enabled data, combined with local knowledge, economic modelling and policy expertise, can support more informed decisions about how land is managed and valued. This creates opportunities to develop approaches to multifunctional land use, where different priorities can be assessed together and where the wider consequences of decisions become more visible.
These connections contribute to several United Nations Sustainable Development Goals (SDGs), including SDG 2 (Zero Hunger), SDG 7 (Affordable and Clean Energy), SDG 13 (Climate Action) and SDG 15 (Life on Land).
The potential impact comes from integrating scientific evidence into the wider systems through which decisions are made.
Scientific evidence only shapes decisions if it can be accessed and understood by those who make them. Open satellite archives have widened access, yet capacity, infrastructure and interpretation skills remain unevenly distributed. Decision-ready products, training, and co-design with local communities and policymakers are as important as the data itself. Much Earth observation data is open (Copernicus Sentinel, Landsat), but using it needs bandwidth, storage, cloud computing and technical skills. Commercial high resolution data is often paid, and the gap is widest in low income regions. Raw imagery is not evidence. Turning it into decisions needs processing, validation against ground truth, and an understanding of uncertainty and bias. Most decision makers (farmers, planners, local authorities) are not specialists, so they need translation, not data.
A changing relationship between space, technology and society
The Rocket Revolution is taking place alongside another profound transformation: the rapid development of artificial intelligence, autonomous systems and digital technologies.
As space becomes increasingly connected to digital infrastructure, new questions emerge about how information is generated, interpreted, trusted and used.
Satellite data can now be combined with AI, digital platforms and increasingly autonomous decision-making systems. These developments create opportunities to improve environmental monitoring, infrastructure management and access to information. They also raise important questions about governance, accountability, equitable access and the role of human judgement.
There is a cultural dimension to this transformation too. Our understanding of space is shaped by the information we encounter, the technologies we use and the narratives through which we imagine humanity’s future. As more organisations and communities participate in space activities, these perspectives will influence who engages with space, whose priorities are represented and how its benefits are distributed.
Access to data is only the first step in this chain. Programmes such as ESA Copernicus show what is possible: Sentinel data are free and open, so supply is no longer the main barrier. The benefits depend on what happens downstream. Industry plays a central role here, either using the data directly or building the services that make it usable, and through those services the information reaches citizens who will never handle a satellite image themselves: a key barrier here is knowledge translation from technical to application that people can use without any knowledge. How openly, affordably and equitably each of these layers connects to the next will determine whether free data becomes shared benefit.
Understanding these relationships requires collaboration across engineering, computer science, social sciences, humanities, business and policy. A three layer model is here proposed:
- Providers: space agencies and institutions (ESA, EU, NASA) that build, operate and open the data.
- Industry: companies that use data directly (insurance, agriculture, energy, logistics) or enable others by turning it into products, platforms and services which are given a price, taking equality and access into the picture.
- Citizens: end users who rarely touch satellite data, but receive it through apps, weather and navigation services, farm advisories and alerts.
The middle layer is the multiplier and also the gatekeeper: pricing, licensing and design choices there decide who in layer 3 actually benefits.
Now there’s more: also private are providing data.
This connects space innovation with SDG 9 (Industry, Innovation and Infrastructure), SDG 10 (Reduced Inequalities, i.e. fairer access and opportunities within and among countries) and SDG 16 (Peace, Justice and Strong Institutions), particularly through questions of responsible innovation, access and governance.
From extreme environments to everyday life
Greater access to space also creates opportunities to investigate how humans live, work and remain healthy in challenging environments.
Research into physiological monitoring, wearable technologies, human performance and remote healthcare has applications that extend well beyond space exploration. Radiation, microgravity, isolation and confinement push the human body and its technologies to their limits, much as extreme heat, altitude or remote locations do on Earth. Life at the edge forces us to understand how people can be monitored, protected and supported when conditions leave no margin for error, and the answers rarely stay at the edge.
Technologies developed to support people operating in extreme environments could contribute to healthcare delivery in remote communities, occupational safety, rehabilitation, climate resilience and the monitoring of vulnerable populations.
These opportunities bring together expertise in life sciences, biomedical engineering, sensing technologies, digital healthcare and human-centred design.
The connection with SDG 3 (Good Health and Well-being) is particularly important, alongside SDG 9, as advances in human health technologies create opportunities for research translation and innovation across sectors.
Where disciplines converge, new research is born
The challenges facing society rarely sit within the boundaries of a single discipline. Climate resilience involves environmental science, engineering, economics and policy. Human health connects biology, technology, behaviour and social systems. The responsible development of AI-enabled space infrastructure requires technical expertise alongside governance, ethics and public engagement.
Space provides a powerful meeting point for these different perspectives.
Within the Institute for Space, the Space for Society theme seeks to identify emerging research questions at these intersections and bring together the expertise needed to address them. This includes connecting research with industry, policymakers, communities and international partners to explore how scientific knowledge can translate into practical outcomes.
Such collaboration is fundamental to SDG 17 (Partnerships for the Goals, i.e. cooperation among governments, industry, academia and civil society) and to the wider ambition of ensuring that scientific and technological progress contributes to sustainable development.
Beyond access: the future we choose to create
The Rocket Revolution is opening new possibilities for exploration, scientific discovery and commercial innovation. Its significance will also be measured by what greater access to space enables here on Earth.
As we celebrate World Space Week, we have an opportunity to consider the future of space through a wider lens: how space technologies can contribute to sustainable development, how emerging digital systems will reshape society, and how research across disciplines can generate new knowledge and opportunities.
It is worth recalling how different this moment is from the first space race. In the 1960s, national prestige and geopolitical competition were the undisputed drivers of space activity, and progress was led by public agencies. Today, commercial capability is increasingly decisive. Private companies lead in launch and a growing range of services, supported by sustained technological development, patents and scientific research, while public agencies remain essential partners as customers, funders and regulators. In this setting, leadership tends to follow technological strength, and that strength can concentrate in a small number of actors.
This raises a question that the Rocket Revolution cannot answer on its own: will growing activity in space lead to shared and peaceful progress? Technology alone does not decide it. Existing frameworks such as the Outer Space Treaty of 1967 and more recent arrangements like the Artemis Accords set out principles for peaceful and responsible use, but questions of access, space traffic, resource use and data ownership remain only partly governed.
The answer will therefore depend on governance, transparency and partnerships keeping pace with technological capability. If competition is matched by cooperation, and if commercial success is linked to open data, fair access and responsible practice, a new phase of space activity can support sustainable development here on Earth. This is the choice at the heart of Space for Society.
The next frontier of space innovation is also a societal frontier. Its future will depend on our ability to connect technologies, disciplines and people, recognise emerging challenges and opportunities, and translate scientific progress into benefits for society.
That is the ambition of Space for Society.
