The integration of artificial intelligence (AI) into the digital landscape is enabling a fundamental shift in how organisations approach innovation and the commercialisation of intellectual property (IP). As AI technologies continue to advance at an exponential rate, understanding their impact on IP management and monetisation has become essential for maintaining a competitive advantage in the digital sector.
The Power of AI in Digital Innovation
AI technologies are a catalyst for digital transformation, revolutionising how companies process data, automate workflows and accelerate innovation. The applications of AI span from predictive analytics and machine learning algorithms to autonomous systems and intelligent automation platforms. These capabilities enable organisations to process vast quantities of data with unprecedented speed and accuracy, leading to more informed decision-making and accelerated innovation cycles. We also see regular advancements in AI coding abilities across all the major AI platforms, as well as in focused AI coding tools.
Economic analysis highlights AI’s dual role as both a facilitator and disruptor of innovation, challenging traditional IP frameworks to balance incentivisation with societal interests.
Just as the European Patent Office is integrating AI into its everyday tools as it examines patent applications, we recommend that IP owners also integrate AI into their everyday operations. For example, in biomedicine, AI-driven tools are now a key part of drug discovery. Within the university IP commercialisation function, teams, such as at Texas Tech, are finding value in using AI for tasks such as processing invention disclosures, prior art searches, market assessment and contract management.
Furthermore, emerging trends include AI-driven dynamic licensing models, AI agents used for IP commercialisation, finding potential infringers, and blockchain-powered IP transaction systems. We also observe an increase in the pace of advancements in the underlying AI technologies which support many AI-powered deployments within innovating companies.
Strategic IP Management and Optimising IP Commercialisation in the AI Age
At Mathys & Squire Consulting, we recommend organisations carefully consider how to protect and commercialise their innovations, particularly in areas such as proprietary algorithms, data processing methodologies, and novel digital solutions. AI-based technologies have created new opportunities in intellectual property management, and AI related filings continue to increase. However, new challenges have also arisen, as key issues such as ownership and patent eligibility remain contentious for AI-generated innovations.
Beyond filing, companies should consider data ownership, internal processes to avoid risk, staff training on IP and intangible assets, and most of all the company’s intellectual property commercialisation strategy. Success in this domain requires a sophisticated understanding of both technological advancement and how increased revenue can be delivered, whether through direct commercialisation, licensing or sale of unused or unwanted intangible assets.
Why Expert Guidance Matters
For organisations aiming to navigate this complex landscape, expert guidance is crucial. Mathys & Squire Consulting offers the expertise needed to unlock the full commercial potential of the intangible assets and intellectual property which arise from AI-based digital innovations. With a deep understanding of AI technologies, their implications and their commercial potential, our team collaborates with innovators and innovative organisations to recognise and manage your intangible assets, and to optimise your commercial success. Our strategic approach ensures that your organisation can capture and convert its innovative ideas into profitable outcomes.
AI and IP: Next Steps?
Reach out to Mathys & Squire Consulting today to discuss your intangible assets, your intellectual property, how you are using or plan to use AI, and your IP commercialisation strategy.
We look forward to collaborating with you to unlock the value in your AI based innovations.
We are excited to share that our German team have now moved to a new office in Munich. The official address of our Munich office is Theatinerstraβe 8, Munich 80333.
The office in Munich opened in 2019, strengthening Mathys & Squire’s already significant European presence. Now, almost six years later, our firm and clients still benefits from the team’s extensive experience and close proximity to the European Patent Office, the German Patent & Trade Mark Office and the German Federal Patent Court.
Following this move, we look forward to continuing to assist our current clients and welcome any opportunities to share our specialist knowledge and international awareness with new clients.
If you require our assistance, please feel free to contact us here.
Es freut uns, mitteilen zu können, dass unser Team in Deutschland in ein neues Büro in München umgezogen ist. Unsere neue Adresse in München ist die Theatinerstraβe 8, München 80333.
Das Büro in München wurde im Jahr 2019 eröffnet und die vorher schon starke europäische Präsenz von Mathys & Squire weiter verstärkt. Fast sechs Jahre später steht unsere Kanzlei und unseren Mandanten weiter mit der tiefgreifenden Sachkenntnis des Teams und der unmittelbarern Nähe zum Europäischen Patentamt, dem Deutsches Patent- und Markenamt und dem Bundespatentgericht zur Verfügung.
Nach diesem Umzug freuen wir uns darauf, unsere bestehenden Mandanten weiter zu unterstützen, und stehen mit unserem Fachwissen und unserer Erfahrung gerne auch neuen Mandanten zur Verfügung.
Wenn Sie unsere Unterstützung wünschen, können Sie uns hier kontaktieren.
Created in 2018 by the Global Recycling Foundation, March 18th is Global Recycling Day, when we are reminded that recycling is key to protecting our planet and ensuring our vital natural resources do not run out. Managing Associate Oliver Parish investigates the technology which has been developed in response to the need for sustainable recycling methods, looking particularly at e-waste.
Our soaring production of waste is one of the key culprits of the current environmental crisis. Electronics, from phones to household appliances to electric car batteries, are responsible for the fastest-growing category of waste, known as e-waste. Nearly 62 billion kg of e-waste was generated worldwide in 2022, a 24% increase from 2019, expected to rise to 82 billion kg in 2030.
We only recycle about one-fifth of e-waste every year and traditional recycling techniques, such as smelting, are damaging for the environment. They are also ineffective in yielding pure metals which are a key element in electronics. Believe it or not, a tonne of discarded mobile phones is richer in gold than a tonne of gold ore. Recovering these metals is key, as the rapidly accelerating demand for electrical items in the last decade means that we are at risk of running out of the necessary materials. It is particularly difficult to recycle these metals from electronics, however, as they are all mixed together in very small amounts.
Consequently, novel recycling techniques which make the most out of scrapped electronics are still at the forefront of scientific innovation. There has been a significant increase in patent activity related to e-waste management in the past few years, rising from 220 to 787 applications per million between 2019 and 2022, yet few of these were for the recovery of raw materials. In particular, the need for innovation has created exciting opportunities for deep tech companies and start ups, as well as the collaboration between universities conducting insightful research and commercial companies.
The Royal Mint’s Gold Recovery
The Royal Mint, founded in 886AD, is the official maker of British coins. Hitting full capacity in February of this year, they built their Precious Metals Recovery Plant to retrieve precious metals from circuit boards, estimated to contain 7% of the world’s gold. The procedure, pioneered in collaboration with Excir, a Canadian cleantech company, uses patented technology involving a chemical solution to extract the gold from the boards. After the other metals, such as copper and silver, are removed, the extraction takes only four minutes, allowing the facility to process 4,000 tonnes of circuit boards and produce half a tonne of gold annually. Royal Mint’s factory is the first in the world dedicated to the sustainable retrieval of gold.
HyProMag’s Magnet Recycling
HyProMag was founded by Allan Walton and his colleagues, researchers at the University of Birmingham. Their technology enables magnets containing rare earth metals in hard-disk drives to be recycled into new magnets, and requires less processing and energy than other e-waste recycling methods. The waste is placed into a cylinder filled with hydrogen atoms which cause the magnets to crumble and separate from the other elements. The resulting product is sieved and grinded to create an alloy. A new, higher capacity plant in Birmingham will be ready to use in the second quarter of this year and there are plans for another in Pforzheim, Germany, allowing the company to hopefully reach a goal of extracting 350 tonnes of metal alloys a year.
Queen’s University Ionic Liquid Laboratories
Ionic liquids are low-melting salts which can be tailored at a molecular level to have special properties. They do not boil or burn, meaning they can be used safely for a range of purposes. Scientists at Queen’s University in Belfast saw the potential for ionic liquids to aid in the recovery of rare earth metals from magnets, developing recycling technology which they hope to apply to e-waste. The use of ionic liquids instead of strong acids or environmentally harmful solvents allows a cleaner and more efficient method of recycling, as well as producing metals at a very high purity level which can be turned into new magnets. Now taking steps to form the first full industrial-scale recycling plant in the UK, the startup company, Ionic Technologies, emerged from their research. They run a facility in Belfast for the processing of used magnets, where their plans to tackle e-waste will take place.
It turns out that the mountains of unwanted electronics which end up in landfill sites are a vital resource for tackling the climbing demand for electronics and fostering a circular economy. Transforming the way we deal with end-of-life electrical products will reduce the pile up of waste, limit the use of virgin materials, and reduce the emissions which are produced by ore extraction and the destruction of e-waste. It is important that we keep encouraging the innovation and dissemination of new technologies such as the ones above to help support our planet.
As we get ready to celebrate International Women’s Day this weekend, our Partners, Associates and Technical Assistants take a look at the women who have revolutionised the world of science and technology, spanning the sectors Mathys & Squire work with.
In these fields, women are disproportionately underrepresented. For years, women’s involvement in scientific breakthroughs went unacknowledged. Whilst huge progress has been made in the opportunities women have, they are still met with systematic barriers to entry, such as a lack of role models, limited support for a family-work balance, and unconscious bias, which can affect employability and funding possibilities, as well as more explicit sexism in the workplace.
Therefore, it is important to celebrate the achievements of the women who have made their mark on science, as well as raise awareness of the challenges women face, in the hope of deconstructing them.
Noor Shaker – by Caroline Warren, Partner
“Noor Shaker’s work is an inspiring case in point for how AI can have a real impact on improving people’s lives through its applications in the pharmaceutical industry. As co-founder of Generative Tensorial Networks Ltd, a UK-based startup, she developed an AI-driven model with the aim to reduce the time and costs entailed in the discovery of drugs and development of new medicines. Now she is the CEO of start-up Glamorous AI and has numerous patents, continuing to challenge what we think is possible in regards to AI helping to find life-changing cures for disease.”
Dr. Helen Lee – by Anna Gregson, Partner
“Dr. Helen Lee has pioneered technologies in rapid diagnostic testing for infectious diseases, striving to make testing more affordable, accessible and accurate. She founded her company, Diagnostics for the Real World, with the goal of creating quick and portable testing kits for point-of-care (POC) diagnoses. She invented the SAMBA (Simple Amplification-Based Assay) device to simplify the execution of molecular diagnostic assays.
“The most recent version, named SAMBA II, was launched in 2018. SAMBA II has been used in Africa to improve the detection of HIV and, during COVID-29, was adapted for the pandemic and widely implemented in hospitals for rapid testing. Dr. Lee’s inventions, for which she has won several awards and been granted multiple patents, have improved lives in the UK and worldwide.”
Maria Telkes – by Jane Clark, Consultant Partner
“Maria Telkes, born in 1900, was one of the first scientists to focus exclusively on solar energy and became known as the “Sun Queen” on account of her ground-breaking creations. In the 1950s, she invented the first solar-powered heating system, a trailblazer for modern solar panels, and co-designed the first house heated entirely by solar energy. Another of her inventions was the solar desalination system which was used in WWII on lifeboats, enabling sailors and soldiers to survive by drinking seawater. She held more than 20 patents, including one for her “thermoelectric power generator,” which she was granted in 1958.”
Ada Lovelace – by Johannes Zweck, Associate
“Ada Lovelace, born 1815 in London, is considered a pioneer in the field of computer programming, at a time before computers even existed. She designed the first algorithm for Charles Babbage’s “Analytical Engine” (a digital mechanical general-purpose computer with an arithmetic logic unit, a control flow for branching and loops, and memory). Her algorithm was not too dissimilar from a code written today in assembly language, leading to today’s perception of her being the “first programmer.”
“Though her work was largely forgotten for a century, it was rediscovered in the 20th century and is now regarded as revolutionary. Ada Lovelace challenged the preconceptions of women at the time and her story demonstrates the importance of diversity in creating new inventions. “
Dr. Henrietta Boyd – by Sophie Wilson, Technical Assistant
“As CEO and co-founder of Halocycle, a startup founded in 2020 and awarded the title of UK Tech Innovator in 2024, Dr Henrietta Boyd is one of the women beating the odds faced by female entrepreneurs.
Halocycle develops innovative chemical recycling processes to deal with plastic waste, in particular PVC. PVC poses a problem for both mechanical and chemical recycling due to its chlorine content, resulting in the production of hydrochloric acid when the plastic is broken down. However, Halocycle’s microwave processing technology, which involves a different type of heating than other chemical recycling techniques, can be used for the recycling of packaging containing chlorine and has a lower carbon footprint. Thanks to Dr. Henrietta Boyd’s work, the company is helping foster a more sustainable and circular economy.”
Erna Hamburger – by Andrea McShane, Partner and D&I Officer
“Erna Hamburger was the first woman to be appointed full professor at a Swiss Polytechnic university, becoming a professor of electrometry at EPFL in 1967. Her academic career included research in the fields of radio and high frequency engineering and heading the Laboratory of Electrometry and Electrical Machines, which became the Department of Electric Engineering of the EPFL.
“A patent was granted for her work as an electrical engineer at Paillard SA prior to her appointment to the EPFL (titled “Recording and reproducing of sound”). Beyond her academic focus she worked for a number of international commissions including the ISO in the fields of basic electrical standards and terminology of electrical engineering. Hamburger was engaged in promoting and supporting women in STEM and higher education, and an annual Erna Hamburger Prize recognizes exemplary female careers in science.”
Patricia Bath – by Jessie Harrison, Associate
“Patricia Bath revolutionised eye care with her invention of a ‘Laserphaco Probe’ for cataract surgery in 1986. Before this invention, cataract surgery necessitated the manual removal of the cloudy lens, whereas Bath’s method uses a laser to break up the cataracts and a suction device to remove the debris, which is a lot less invasive and time-consuming. She was granted a patent for the Laserphaco Probe in 1988, paving the way for the use of lasers in medical surgery and becoming the first African American woman to receive a medical patent in the United States.”
Professor Dame Carol Robinson – by Maxwell Haughey, Associate
“Professor Dame Carol Robinson has made remarkable contributions to the pharmaceutical field through her work in mass spectrometry and structural biology. She developed innovative techniques using mass spectrometry to study proteins, improving our understanding of how drugs interact with the body. Her contributions have revolutionised drug discovery, and her research has helped pharmaceutical companies to design better targeted drugs.
“Her career also showcases important steps for women in STEM and academia: she was the first female Professor of Chemistry at both the University of Cambridge and the University of Oxford, and was awarded a Damehood in 2013 for her impact on science. Last July, Professor Dame Carol Robinson was presented with the Lifetime Achievement Award by the EPO.”
Tu Youyou – by Lindsay Pike, Associate
“Tu Youyou is a pharmaceutical scientist responsible for one of the greatest medical breakthroughs of the 20th century. She was appointed to lead Project 532 in 1967, a research project initiated to find a treatment for malaria, operating in secrecy during the Cultural Revolution in China. Through her study of traditional Chinese herbal remedies, she discovered that artemisinin (found in sweet wormwood) can kill the malaria parasite when isolated using specific extraction methods.
“Her discovery was life-changing, especially during a time when malaria was killing thousands of soldiers and civilians during the Vietnam War, and the drug has gone on to save millions of lives, reducing malaria deaths by 50% since 2000. Artemisinin-based combination therapies are still the most effective malaria treatment in the world, despite emerging drug-resistance in malaria parasites. Tu Youyou became the first Chinese woman to win a Nobel Price (Medicine, 2015), and has also been awarded the Order of the Republic, the highest civilian honour in China.”
Janine Connes – by Louis Brosnan, Technical Assistant
“Janine Connes was a French astronomer and physicist who improved the resolution of imaging through Fourier Transform Infrared Spectroscopy by several orders of magnitude, working on the method between 1961-1968. She regularly worked alongside NASA at the Jet Propulsion Laboratory, and later captured planetary spectra of Mars and Venus in far greater detail than previously possible. Thanks to her contributions, new uses for the imaging of spectra were developed in the fields of nanotechnology, microscopy and chromatography. She was appointed as a director of the French National Centre for Scientific Research (CNRS) in 1969, leading their electronic computing division.”
The examples above are just a small fraction of the many women that have helped advance what is possible within IT and Engineering, and Life Sciences and Chemistry. They demonstrate that overhauling the exclusion of women from these sectors will not only help women, but help our planet and the people on it.
We would like you all to join us in wishing a happy International Women’s Day to the women around us!
On Thursday 6 March 2025, Mathys & Squire hosted Roma Agrawal MBE, prominent engineer and advocate for women in science, in our London office, in honour of International Women’s Day this weekend.
Roma Agrawal is a structural engineer who has worked with signature architects to design a wide range of important structures, from bridges to skyscrapers. Most famously, as part of her fourteen-year career, she spent six years working on our office’s building, the Shard, designing the foundation and the ‘Spire.’
She is also an author and a broadcaster with five published books and her own podcast, Building Stories. Cited as “the new voice of women talking about science […] and making it cool” by the Telegraph, she imparts her knowledge of the structures around us. Her first book, Built: The Hidden Stories Behind Our Structures, looks at the broad, and often unexpected, impact of engineering and architecture on humanity, whilst How Was That Built?: The Stories Behind Awesome Structures is one of her illustrated books aimed at younger readers, illuminating the engineering ingenuity behind famous landmarks.
Through her platforms, and talks at universities, schools and other organisations, she hopes to inspire everyone to be curious about the world around them, as well as raise awareness for engineering and technical careers among young people, particularly those from underrepresented groups.
Roma Agrawal speaking in The Shard today
Roma gave a talk which covered a fascinating range of topics: from the large, delving into the science behind the tallest building in Western Europe, to the very small, revealing how something as seemingly inconsequential as a spring allowed us to measure time.
Calling attention to International Women’s Day, Roma shared the story of the inspiring woman behind the construction of the Brooklyn Bridge, Emily Roebling. She then discussed how her gender impacted her own career, talking about the lack of awareness of women in engineering, as well as the difficulties she faced due to being one of only a few women on the Shard building site.
You can read more about Roma Agrawal on her website here