Top 7 Innovations That Could Change Islington's Economy

The quantum computing industry has an awkward problem: researchers can demonstrate remarkable physical effects, but turning those experiments into reliable, large-scale machines is extraordinarily difficult. Quantum Motion is pursuing an approach that begins with a familiar material: silicon. Conventional computers already depend on silicon chips manufactured through highly sophisticated industrial processes. Quantum Motion wants to exploit that manufacturing expertise to build quantum processors, rather than relying entirely on unfamiliar materials and bespoke production methods. Its approach uses quantum properties associated with electrons in silicon. The long-term ambition is to combine quantum devices with the control electronics and engineering needed to operate them at scale. That does not eliminate the considerable challenges of cooling, error correction and controlling fragile quantum states, but it offers a potentially powerful route towards industrial production. The company has a registered-office connection to Sterling Way in Islington and has attracted substantial investment. It has also demonstrated an integrated silicon quantum computing system, an important engineering milestone rather than proof that a commercially transformative machine already exists. Why might this matter? Large, reliable quantum computers could eventually tackle selected scientific and computational problems that overwhelm conventional machines, particularly in areas such as chemistry and materials research. The accompanying New Scientist video provides a rare look at the technology and the people attempting to make it practical.

Much of modern scientific discovery still depends on surprisingly repetitive physical work. Samples must be moved, liquids dispensed, plates prepared and instruments operated, often through workflows that involve expensive equipment and highly trained people performing routine tasks. Automata wants to change that. Its laboratory automation technology brings robotics, instruments and software together so experiments can be organised and executed with less manual intervention. Instead of treating each machine as an isolated piece of equipment, the company is working towards laboratories that operate as coordinated systems. That distinction matters. A laboratory may already contain sophisticated instruments yet still rely on researchers to carry samples between them, manage schedules and repeat procedures. Connecting those processes could improve consistency, extend operating hours and allow scientists to spend more time designing experiments and interpreting results. Automata has a documented business connection to White Lion Street near Angel. Its work is particularly relevant to biotechnology and pharmaceutical research, where small improvements in laboratory productivity can have significant commercial consequences. Automation is not a substitute for scientific judgement, and installing an integrated robotic system requires investment and careful validation. Nevertheless, the potential prize is substantial: faster experimentation, more reproducible results and a different economic model for research-intensive businesses. The linked video demonstrates Automata's LINQ laboratory automation platform in action.

One of the greatest obstacles to improving Britain's buildings is knowing precisely where to begin. Older homes can lose heat through roofs, walls, windows and construction defects, but surveying large numbers of properties individually takes time and money. Kestrix is developing a faster approach. Its technology combines thermal imaging captured by drones with artificial intelligence to assess building heat loss and identify opportunities for energy-efficiency improvements. The ambition is to turn a slow, property-by-property investigation into a more scalable process. The Islington connection is unusually concrete. Working with the council, Kestrix carried out a pilot involving approximately 1,900 homes. That gives this entry something more valuable than a local office address: an actual deployment of the technology in the borough. For councils, housing associations and property owners, better information could help prioritise insulation, identify recurring defects and make limited retrofit budgets go further. In a city filled with older buildings, those decisions have major implications for energy bills, carbon emissions and the construction industry. Thermal images still need careful interpretation. Weather conditions, building use and other factors can affect what they reveal, and identifying heat loss does not itself fix a property. The commercial opportunity lies in making the first stage of improvement more accurate and efficient. The accompanying Maps link points to Arsenal Hub, a location associated with a local event about the Islington pilot, rather than Kestrix's headquarters.

Some of the most promising treatments in modern medicine are also among the most complicated to manufacture. Cell and gene therapies may involve living biological material, tightly controlled processes and production methods that are difficult to repeat consistently at commercial scale. Ori Biotech is trying to solve that manufacturing problem. Its technology aims to automate and standardise processes involved in producing advanced therapies, reducing the reliance on labour-intensive, fragmented workflows. This is not simply a question of replacing technicians with machines. Living cells are sensitive to their environment, and each stage of production can affect the quality of the final treatment. Closed, integrated manufacturing systems could help reduce handling, improve consistency and make production easier to monitor and reproduce. Ori Biotech has a documented London business connection to Brandon Road in Islington. Its commercial ambitions extend across the international cell and gene therapy industry, where manufacturing capacity and cost remain major barriers to wider adoption. The potential impact is considerable. A breakthrough treatment is of limited practical value if producing it is prohibitively expensive or difficult to scale. Better manufacturing could help more therapies progress from specialist clinical settings towards broader availability. That outcome is not guaranteed. Advanced therapies remain scientifically and commercially demanding, and manufacturing improvements alone cannot resolve every obstacle. The linked Ori Spotlight episode features chief technology officer Stuart Milne discussing the company's technical approach.

Every day, London's transport infrastructure generates heat that would ordinarily be released into the surrounding environment. In Islington, an unusually inventive engineering project has found a use for some of that energy. The Bunhill Heat Network captures warm air associated with London Underground tunnels and uses heat-pump technology to help supply heating and hot water to local homes and buildings. Its best-known expansion, Bunhill 2, demonstrates how infrastructure designed for one purpose can contribute to an entirely different urban service. The idea is more sophisticated than simply directing warm tunnel air into people's homes. Heat pumps raise the temperature of recovered energy so it can be used within a district heating network, distributing warmth through a connected system. This entry differs from the speculative technologies elsewhere in the ranking because the infrastructure is already operating. It offers a real example of an urban energy system that makes use of a resource cities routinely discard. The broader opportunity is substantial. Data centres, industrial processes, transport networks and commercial buildings all produce waste heat. Recovering it could reduce demand for other heating sources, although the economics depend heavily on local geography, infrastructure and energy prices. Bunhill cannot simply be copied into every neighbourhood. Its significance lies in proving that unexpected connections between existing systems can produce valuable new infrastructure. The accompanying film explores the Islington project and the engineering behind it.

Not every innovation requires a laboratory, a spacecraft or millions of pounds of specialist equipment. Sometimes the challenge is persuading people to stop throwing away the same object every lunchtime. junee has worked on a reusable food-packaging model designed for the realities of busy workplaces and takeaway markets. The principle is straightforward: customers receive food in reusable containers, return them through a convenient system and allow the packaging to be cleaned and circulated again. The difficult part is not inventing a container. It is designing the service around it. Traders need an uncomplicated process, customers need convenient returns, and the operator must manage collection, washing, redistribution and losses without making the whole system more expensive or cumbersome than disposable packaging. An Islington pilot involving 21 market traders and approximately 250 office workers provides a concrete example of the idea being tested locally. The project reported avoiding 650 disposable containers, a modest but measurable result. For urban food businesses, the wider commercial opportunity lies in turning packaging from a product purchased and discarded into an ongoing shared service. If the logistics work at sufficient scale, reuse could become a normal part of buying lunch rather than an environmentally conscious exception. The model still faces challenges around participation, hygiene, transport and cost. Its success depends as much on behaviour and operations as on the packaging itself. The Maps link points to Exmouth Market, one of the locations associated with the pilot.