Transforming data to transform the environment

This article is taken from 'Transforming the planet: Our vision for the future of environmental science', which sets out a vision for the role of environmental science in facilitating the transition to a sustainable society.

That vision is one where environmental scientists help people to solve environmental challenges and co-create a sustainable society where people and nature thrive. Throughout the IES’s Future of ES23 horizon scanning and foresight project, the role of data was a recurring theme in unlocking the potential to achieve that future.

Read our full vision in Transforming the planet.


Data is the cornerstone of environmental science. It provides us with the ability to observe the world around us, measure trends, and understand our impacts. It is a fundamental part of solutions-led science, giving us the tools to quantify the impact of our activities and use this to inform future evidence-based action. 

Over the last few decades, the data landscape has shifted significantly, with a substantial increase in our ability to collect and curate data. This has revolutionised the amount, quality, connectivity and granularity of the data we collect. Technological innovation has allowed us to collect data at the hyperlocal to global scales, leading to vast datasets collected through diverse means – from hand-sampling to remote sensing to global observation systems. In turn, new technologies and statistical software utilising machine learning Artificial Intelligence (AI) allow us to analyse data at a scale previously impossible. 

New developments in data can help to make transformative change a reality. To realise that possibility, environmental science must unlock data’s potential across the field, including better data collection through technology and citizen science, better consolidation through collaboration, and better utilisation of data by decision makers.

Unlocking citizen science for data collection

Technological innovation has also enabled extensive growth in the number of citizen scientists mobilising to collect environmental data, from measuring soil health to water quality to wildlife sightings.

Declining government investment in environmental protection is leading to a lack of evidence around aspects of the environment. There is a need to supplement sparse datasets with new information to support targeted action and measure effectiveness of policies and interventions. Citizen science data can be combined with other data sources, such as remote sensor data and infrastructure-level data, to support powerful insights in environmental science. 

This can be a useful tool for filling data gaps in national datasets, as well as empowering and building environmental citizenship among members of the public through ‘hands-on’ experience of environmental work. Increasing public connection with the environment supports other important pathways to improving the impact of environmental work, supporting behavioural change and community-led action. Citizen science can democratise the process of evidence gathering and gather new insights into different individual and cultural approaches to evidence gathering and analysis. 

The rise of citizen science data does not come without challenges. There are many schemes nationwide, with great diversity in how they are implemented and managed, and varying levels of quality assurance protocols. Although citizen science data can lead to locally rich pictures of environmental status, the data landscape as a whole is fragmented due to the range in quality of citizen science projects and the resulting data.

In order to maximise the vast potential benefits of the work of citizen scientists in the future, it is important to put in place a national standardised framework for citizen science projects which can support the development of schemes that meet the scientific rigour needed to support evidence-based change.

Unlocking existing data

There is already a vast quantity of data available on the environment around us. However, a large amount of this is proprietary, locked behind paywalls, or hidden in different areas of the internet. To ensure that we are not just collecting data, but actually translating its findings into learning and action, an increase in the amount of open data will be essential for unlocking the value of large datasets. Open data is incredibly important for supporting systemic change and allows for the same dataset to be put to myriad uses, providing a much more efficient and equitable system.

Data should be managed in a centralised database to maximise accessibility. To make the most of the data available, we also need to ensure that is interoperable so that it can be used across systems for a multitude of stakeholders and applications. Application Programme Interfaces (APIs) should also be developed to support data analysis and visualisation across the sector. 

To support the establishment of centralised databases, it is vital that open data standards are developed. This will support stakeholders in collecting, publishing, accessing and sharing data that is of better quality and aligned with an agreed ‘common language’ for data. This is also a useful tool for sharing data across disciplines, where there may be different norms around dataset formats — essential for supporting interdisciplinary science. One of our immediate goals should be to move towards coherence and standardisation of environmental data to ensure validity and consistency of data, and to improve transparency. 

Transforming data into actionable information requires powerful visualisation techniques which can highlight insights, such as trends, anomalies and statistically significant findings into easily digestible information for a variety of stakeholders. Decision makers need data to inform evidence-based policy, often in fields in which they are not specialists. This means that data needs to be presented in a robust but understandable format. 

Data can also be a powerful tool for engaging with the public, helping to cut through scientific jargon to deliver targeted messages that can support awareness-raising and behavioural change. Data visualisations should be used to their full potential in these areas, whilst ensuring that insights are not oversimplified or misinterpreted.

Unlocking data for decision making

Increasing the evidence-base for environmental science is a fundamental requirement for quantifying and mitigating the impact of human activity and supporting national and local policy development. Real-time environmental data can provide evidence on the success of interventions at the hyperlocal, local and national levels. 

Data and evidence also play an important role in accountability and ensuring that stakeholders are meeting their requirements, targets or pledges. Increasingly sophisticated data collection can also pinpoint harmful practices and hold perpetrators accountable, helping to trace environmental incidents and sources of pollution. This can play an important role in supporting the ‘polluter pays’ principle in environmental regulation.

Current environmental goals and targets will never materialise into environmental improvement in the future, unless we can measure progress towards them and scale up or adapt approaches in response to findings. If we continue with ‘business as usual’ whereby we focus our data insights on informing target setting, rather than target delivery, we will not achieve the environmental improvement needed. 

Monitoring methodologies and data collection must therefore be an integral part of environmental projects, to report and monitor progress towards environmental goals, review the effectiveness of policy interventions, and allow for continuous improvement.

Assessing progress towards long-term environmental improvement will need to go beyond purely monitoring data. Integrated assessment approaches will be needed to address effectiveness of interventions on complex, systemic environmental issues. This will also support a move towards more interdisciplinary science by combining insights across disciplines.

What next?

Data developments have had profound implications on the work of environmental scientists. Skills in handling and analysing big datasets, managing diverse datasets, modelling, and data collection techniques are important to effectively leverage the opportunities that data brings. This will shift the focus for environmental scientists to integrating data insights with real-world assessment to feed into decision making.

In the future, this is likely to continue with digital literacy and associated skills becoming increasingly important in all sectors of society. Managing digital workspaces, using new technologies and handling data will all be important aspects of the future environmental profession.

Unlocking the value of data will be an important part of the mission of future environmental scientists. These insights will be vital to enabling evidence-informed decision making, designing interventions to support the restoration and conservation of our ecosystems, and supporting our transition to a society in harmony with our environment

Header image credit: © Akarawut via Adobe Stock