Skip to main content
Ad (425x293)

AI and robots unlock 70 million UK museum specimens in digital revolution

UK researchers are using AI and robots to digitise 70 million natural history specimens, creating an online super-museum that will accelerate understanding of planetary change and help predict future environmental impacts.

By The UK Pulse Editorial Team··7 min read·How we work
Several pinned beetle specimens in a museum-style display tray. Their oval wing cases shine metallic gold, green and bronze under bright light, with fine ridges running lengthways along their backs. The largest beetle, on the right, has six dark grey legs spread outward and curved, claw-like feet. Smaller beetles lie nearby, partly cropped by the frame. Each specimen is mounted on a thin pin above a small white identification label, some with tiny printed codes. The tray has white sides and a pale grey base. The bright reflections make the insects appear almost jewel-like, although they are preserved scientific specimens.

Millions of specimens from natural history collections across the United Kingdom are being transformed into a searchable online database through artificial intelligence and robotic scanning, a project that researchers say will fundamentally reshape our understanding of planetary change and biodiversity.

The initiative, called the Distributed System of Scientific Collections (DiSSCo UK), will eventually make around 70 million animals, plants, fossils and rocks accessible to the public and researchers via computers and mobile devices. The effort combines robotics and AI to accelerate digitisation from a process that would have taken centuries if done manually to approximately one decade, according to programme delivery director Sarah Addezio.

A single preserved beetle is mounted on a long pin against a soft, pale purple background. The insect is shown side-on, facing left. Its body is dark brown to black, long and slightly flattened, with several irregular cream-coloured markings along its wing cases. Fine antennae project from its head, while six slender legs curl beneath its body. Several small paper labels hang below the beetle on the pin. One handwritten label appears to include the species name Cicindela, while printed labels record collection details and a museum reference number. A second pin with a rounded silver head stands just behind the specimen.
Many specimens have scientific labels handwritten decades ago which can now be easily and digitally captured

The project has secured substantial backing: the programme's full business case was approved, unlocking £155.6 million for the 10-year effort. This funding will unlock collections held in drawers and cupboards across more than 100 museums, botanic gardens, universities and other organisations, many of which have remained largely inaccessible to researchers and the public.

Dr Joanna Dunster, an associate director of the Arts and Humanities Research Council (AHRC), which is part of the UK Research and Innovation Agency funding the project, emphasised the importance of opening these collections.

We need to make these collections openly accessible instead of sitting where they can rarely be reached,
she said, adding that she looked forward to exploring the resource with her young son.

Why digitise millions of specimens?

The specimens being scanned represent far more than curiosities: they are detailed records of how the natural world has changed over centuries and even geological timescales. UK natural science collections hold more than 140 million biological and geological specimens, spanning 4.6 billion years, and the programme aims to digitise around half of them.

A wooden specimen display box containing pinned beetles arranged neatly on a white background. Prominently featured in the centre is a large beetle with black-and-white striped markings and outstretched dark wings. Surrounding it are dozens of smaller beetle species of various shapes, sizes, and iridescent or metallic colours.
There are over 35 million pinned insect specimens at the Natural History Museum alone - digitising these helps scientists track insect decline and monitor changing pest populations

The Natural History Museum alone houses over 35 million pinned insect specimens. Digitising these helps scientists track insect decline and monitor how pest populations are shifting in response to environmental changes. The specimens range from the unusual—such as the blind tripod fish that props itself on the seafloor—to the historically significant, including a horse tooth recovered by Charles Darwin around 1833 from northeast Argentina.

Dr Vincent Smith, a research leader at the Natural History Museum in London, argues that the digital museum will

supercharge
research into the natural world.
Natural history collections record long periods of change, often through really fundamental periods, such as the Industrial Revolution. Our collections chart those changes and so you can see what's happened before,
he explained, adding that researchers can then
start to predict what's going to happen next.

A historical pressed botanical specimen pressed onto an off-white paper, set against a dark surface. The plant features vibrant reddish-pink fronds with ruffled, leaf-like edges radiating from a central stem. A small printed label with typed text is affixed near the bottom-left corner.
A red algae species called sea beech, collected in 1969 off the coast of Dorset and preserved in the Natural History Museum

How will this help predict future environmental changes?

By bringing together millions of specimens alongside powerful AI tools, researchers can refine computer models of how the natural world will respond to climate change, food supply pressures and species loss. The digitised collections will enable scientists to understand how the UK has transformed across the entire history of our planet and to anticipate future shifts in biodiversity and ecosystems.

Ad (425x293)

The initiative will also support research into minerals needed for green technology, as uploading more fossils and rock material will aid the search for sustainable alternatives to current extraction practices.

A black-and-white X-ray showing the internal skeletal structure of two seahorses against a plain white background. A larger seahorse dominates the right side with its tail curled downward, while a smaller inset image on the left displays a second seahorse in a similar orientation.
Some specimens like this seahorse have already been digitised - researchers can analyse internal bone structures remotely without dissecting or damaging specimens

Which specimens are being digitised first?

The opening phase of digitisation is beginning in Wales and Scotland, focusing on the small, less glamorous specimens that actually provide the best record of environmental change. Rather than scanning large animals such as whales or dinosaurs, the project is prioritising beetles, butterflies, moths, flies, pressed flowers and ferns—organisms that are among the most sensitive indicators of landscape health.

In Cardiff, the team will scan around half a million insect and plant specimens, from large, showy butterflies down to flies so tiny they could be lost on a fingertip. In July 2026, Amgueddfa Cymru secured £1.6 million to lead the West Hub, which plans to digitise about 500,000 specimens across Wales, south-west England and Northern Ireland.

A detailed scan of a coiled ammonite fossil against a solid black background. The fossil displays a distinct spiral shell structure with prominent ridged or ribbed textures winding inward toward the centre.
From rocks and minerals to fossils, UK collections preserve millions of geological specimens

Jenny Geroni, head of Natural Sciences and Research at Amgueddfa Cymru—Museum Wales, highlighted the value of bringing together material from across the country.

Each collection is unique. We have a lot of Welsh material that is not held anywhere else. By taking material from across the UK, it also allows us to build a good picture of what is going on across the whole country. And everyone adding their world collections will build a much stronger picture of what is going on elsewhere,
she said.

In Scotland, the Royal Botanic Garden Edinburgh and National Museums Scotland hold 13 million specimens between them—the UK's second-largest natural science collection. Together with 50 smaller Scottish collections, these holdings span from sea level to mountain tops, representing two centuries of documented change in Scottish plants and insects across every type of landscape. The Scottish phase aims to create about 700,000 records, including more than 250,000 insects and 388,000 herbarium specimens.

A close-up shows an aged herbarium sheet: a pressed plant specimen fixed to cream-coloured paper. On the right, delicate brown fern fronds spread across the page, their narrow leaflets arranged in neat, feather-like rows along branching stems. The plant is dry and flattened, but its fine structure remains clear. On the left and beneath the specimen are several old labels, filled with faded handwritten notes in black ink. Some writing appears to record the plant’s name, its location and the date it was collected, including “1769”. The paper is yellowed and slightly stained with age, giving the image a quiet archival atmosphere.
Britain's pressed plants and flowers collected over hundreds of years will form an important part of the new digital museum

What technical challenges does digitisation involve?

Scanning specimens is not a straightforward process. Each specimen must be photographed, and the tiny labels containing crucial scientific information—often handwritten decades or even centuries ago—must be carefully recorded and digitally captured. The team calculated that performing this work manually would have required hundreds of years of labour, but robotic systems combined with AI analysis can now accomplish the task within a decade.

The AI tools enable researchers to connect and analyse information at an unprecedented scale.

What we're able to do now is connect and analyse that information at a scale that's unprecedented and has not been possible before,
Addezio said.

In a bright scientific imaging laboratory, a man in a blue shirt sits at a long white workbench, leaning forward in concentration. He holds fine tweezers over a small object or specimen on the desk. To his left, a large computer monitor displays a photo-management or imaging program with tiny insect photographs and scientific images. Behind the work area, several digital cameras are mounted on stands around a brightly lit specimen box, connected by yellow cables. Clear plastic containers, small tools and a computer mouse sit on the bench. Tall vertical blinds admit daylight. At right stands a large white machine labelled “Axio Scan.Z1”, used for high-resolution imaging.
Dr Vince Smith said the digital museum will accelerate research into the natural world

What happens next?

The first funded organisations are due to begin digitising in 2026, with this initial work continuing until 2028. The Central England Hub, led by Oxford and Cambridge institutions, is expected to contribute 1,195,419 specimen records, including nearly 771,000 newly digitised records with a focus on British plants and insects.

The next round of funding applications is scheduled to open in 2027, with digitisation from that round expected to start in 2028. This phased approach will allow the programme to expand systematically across the country, gradually unlocking the full potential of the UK's natural science collections.

Key Facts

  • The DiSSCo UK programme will make approximately 70 million specimens accessible online to researchers and the public
  • Robotic scanning and AI reduce digitisation time from hundreds of years to approximately one decade
  • Over 100 institutions across the UK are participating in the project
  • The initial phase focuses on insects, plants and flowers rather than large animals, as these provide the most sensitive records of environmental change
  • The project will enable researchers to model future climate impacts, species loss and food supply challenges using historical specimen data

This article was sourced from bbc

Ad (425x293)

Related News