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How will AI-ready data enable the automation of drug discovery, development, and manufacturing? Imagine a world where self-driving labs uncover new drugs faster than ever before. The pharmaceutical industry is witnessing a paradigm shift with the adoption of AI-driven processes, enabling the discovery of new drugs in silico through intelligent engines, digital twins, and automation. However, the success of these models hinges on the quality and readiness of the data used. We will discuss how agnostic software solutions facilitate the capture, ingestion, and standardization of data, making it AI-ready and overcoming major bottlenecks in the digital transformation to self-driving labs. These advancements will pave the way for faster, more personalized medicine delivery.
The demand for connected software leveraging the latest technology in science is greater than ever. Imagine laboratory software providing a secure environment for data with capabilities similar to office applications, including real-time collaboration and web-based access. Innovative solutions harmonize processes and accelerate data insights, enhancing current lab operations and shaping the future of scientific research.
Senior Representative, Exyte
The integration of automation and digitalization is revolutionizing laboratory operations. This presentation explores the journey from traditional manual laboratories to fully autonomous laboratories. We will delve into the characteristics, advantages, and challenges of manual, autonomous, and hybrid laboratories, emphasizing the advancement from manual operations to guided digital workflows and ultimately to fully autonomous laboratories. Through real-world examples, we will illustrate the practical applications and benefits of these innovations. Join us as we envision the future of laboratory automation, where efficiency, accuracy, and innovation converge.
In this session, Dr. Mike Egan will examine how the integration of robotics and artificial intelligence is revolutionizing infectious disease research. He will also address key infrastructure challenges involved in developing secure, high-containment laboratories.
Dr. Egan will spotlight the creation of a unique, £10 million Category 3 high-containment laboratory—currently under construction at the Liverpool School of Tropical Medicine. Funded by the Liverpool City Region investment zone and supported by the Infection Innovation Consortium (iiCON), this state-of-the-art facility is set to open in early 2027. It will feature cutting-edge automation and AI technologies designed to accelerate the discovery and development of novel anti-infectives, diagnostics, and preventative products.
Finally, Dr. Egan will explore the collaborative efforts between academia, industry, and the NHS, highlighting how innovative partnerships are addressing pressing global health challenges through advanced research and development.
Deep tech chemistry can transform the way we live today, helping secure a better future for people and our planet. However, ventures developing these technologies are stuck. With long experimental timelines, ventures cannot find suitable facilities to conduct research or scale-up their technologies and are not reaching their potential. No laboratory, no technology research, no impact. This talk focuses on More ChemLabs initiative launched by the RSC. Together with key stakeholders: property developers, investors, universities, research facilities, policymakers, startups we embarked on a journey to understand challenges and driving forces hindering availability of chemistry laboratories for startups and will present the opportunities identified to catalyse system-wide changes.
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Digital transformation has already reshaped laboratories, with cloud computing driving efficiency and scalability. Now, the next revolution for laboratory is here: Generative AI.
Eusoft presents Eusoft IAGO, our generative AI-powered virtual assistant transforming lab management. Integrated with our cloud-native SaaS LIMS, Eusoft.Lab, or as a standalone application, IAGO processes data and documents within the system and immediately generates the information you need, streamlining and accelerating all laboratory activities.
Join us at London Live Lab’s Digital Transformation session to see how labs leverage cloud-native LIMS and AI for productivity, compliance, and innovation
Our microencapsulation slow release technology was developed to enhance nutrient absorption and ensure consistent delivery without common side effects like bloating, constipation, or diarrhea. This innovation led to the creation of our best-selling product, Iron Assist, which supports optimal bioavailability while being gentle on the body. The slow release mechanism promotes steady absorption, minimizing waste and maximizing efficacy. Tested in collaboration with a university research lab over several years, the technology is compatible with a wide range of vitamins and works particularly well with chocolate-based formulations, offering a pleasant taste with no aftertaste.
Advancements in microbiome research demand efficient, scalable, and high-quality analytical solutions. Our approach leverages automation and adaptable workflows to enhance the precision and reproducibility of microbiome studies, from sample processing to data analysis. By integrating cutting-edge technology and flexible methodologies, we enable researchers to accelerate discoveries while ensuring high-throughput and cost-effective solutions.
Digital transformation has become a buzzword, but do we still understand what it truly means? Many organizations focus on technology upgrades, automation, and data strategies, but are these the activities that drive real impact? This session challenges conventional thinking, exposes common misconceptions, and explores what genuinely moves the needle in transformation efforts. By cutting through the clichés and highlighting disruptive yet practical insights, we’ll redefine what success looks like in a digital-first world. We will cover what works, what doesn’t, and where the real value of digital transformation lies.
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One size fit all is no longer good enough.
Modern laboratory automation increasingly depends on the integration of three fundamental layers: the Physical, Logical, and Data. The Physical layer interfaces directly with instruments and devices, ensuring that experimental procedures are executed with precision. The Logical layer governs the design and execution of workflows, embedding robust process controls and error management. Finally, the Data layer connects these operations with broader IT systems, enabling comprehensive data capture and analysis. This orchestrated approach not only enables complex end-2-end workflows, it enhances operational efficiency, improves error resilience and process traceability, all attributes that benefit any operation. In this presentation, we will dissect the principles underpinning each layer, examine how their convergence elevates laboratory performance, and explore emerging methodologies that are redefining modern lab automation practices.
Sponsored by PerkinElmer
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Focusing on the future of labs requires strategic prioritisation to balancesustainability, functionality,and cost.
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As industries strive to maintain a competitive edge, leveraging AI in R&D activities has become a powerful catalyst to spur innovation and efficiency. However, integrating AI and machine learning within the R&D sector necessitates a foundational shift towards structured data management.
This talk covers the significance of structured lab data in fostering innovations and maps out a strategic roadmap for organizations to fully optimize their R&D outcomes.
By understanding and establishing the proper foundation of data, R&D organizations will be well equipped and confident that the data they collect today, continues to add value to the data and experiments they run in the future. Structured data is the key to ensuring better decision-making and a competitive advantage today and in the long term
We give examples of what FAIR (Findable, Accessible, Interoperable, Reusable) data means for R&D, and why FAIR data is essential for the efficient running of an R&D function. To help make FAIR data stick in Johnson Matthey, we have recently appointed Data Stewards and Data Owners. We will talk about how the appropriate personnel are properly informed and empowered to make the decisions necessary for making R&D data fit for purpose.
Senior Representative, Clinisys
Research and innovation are providing solutions to the “wicked” problems of our times. Yet the twin challenges of climate change and biodiversity loss mean the environmental impact of these activities cannot remain unexamined and unquestioned. This session explores two mechanisms that aim to drive change in how research and innovation are conducted and to promote sustainable practices: the UK sector-owned Concordat for the Environmental Sustainability of Research and Innovation Practice and the Wellcome Trust’s Environmental Sustainability funding policy. Learn what it means to be a signatory of the concordat and about Wellcome’s expectations for researchers and their organisations.
This presentation will provide an overview of synthetic data including what it means the different types of synthetic data and their applications. In a world of increasing data governance requirements making data access challenging, the talk will discuss the role of synthetic data as a privacy-enhancing technology (PET) that could unblock data access. In addition, case studies will be included on how synthetic data could be used in the development of AI algorithms, to understand the impact of biases on AI algorithm performance and as a counterfactual to test the robustness of an AI algorithm when exposed to non-standard scenarios.
Material Acceleration Platforms (MAPs) represent a transformative approach to the development of resilient and sustainable technology value chains. These platforms can identify candidate chemistries and structures via simulations, and database searches and leverage machine learning-based rapid screening to accelerate the discovery and deployment of novel materials, thereby addressing critical challenges in modern technology sectors.
Incorporating high-fidelity advanced characterization in the early phases of material development is crucial for early de-risking. Advanced characterization techniques, such as X-ray diffraction, advanced electrochemical and spectroscopic techniques provide comprehensive insights into the structural, chemical, and physical properties of materials. Long-term testing further contributes to the de-risking process by evaluating the durability and stability of materials under various environmental and operational conditions. Early identification of potential degradation mechanisms enables the refinement of material compositions and processing methods, ultimately leading to the development of more resilient materials.
The poster will give an overview of the MAPs in operation at the Federal Institute for Materials Research and Testing (BAM, Berlin, Germany) which cover a wide range of application fields, from nanomaterials to electrochemistry, from novel glasses to energy materials. It will also showcase how different digital tools are supporting the MAPs@BAM initiative.
My Green Lab Certification has become the global standard for laboratory sustainability, with over 4,000 labs certified across 50 countries. This session will highlight the momentum behind the movement and introduce My Green Lab Certification 2.0 and the updated ACT Label—tools that emphasize third-party verification, robust data, and measurable environmental impact. These programs align with international best practices and are designed to help labs meet their net-zero and procurement goals. Attendees will learn how scientific organizations are using certification to drive systemic change, and how credible, standardized metrics are transforming the way labs approach sustainability around the world.
Aaron Kalvani will share how advanced data governance and AI strategies are revolutionizing laboratory environments and scientific research. Drawing from real-life case studies across diverse global settings—including Canada, Costa Rica, India, Singapore, and Georgia (Sakartvelo)—he will demonstrate how data-driven innovation is enhancing research accuracy, operational efficiency, and regulatory compliance. Attendees will gain practical insights on implementing robust data governance frameworks within laboratory contexts, fostering responsible AI adoption while addressing emerging challenges. This session is designed for lab managers, data scientists, researchers, and policy-makers focused on the future of laboratory technology and innovation.
Vault offers a powerful platform for generating standardized small molecule datasets enriched with metadata, optimizing them for AI-driven applications. Its advanced search AI facilitates rapid and secure compound searches across ChEMBL, SureChEMBL, Enamine, and other public databases, clustering similar structures by scaffold and enabling the integration of additional molecular properties for deeper analysis. Vault’s bioisosteric suggestion algorithm aids molecular design by proposing relevant fragments. Users can explore search results and bioisostere suggestions through visualization tools, accelerating the development of novel therapeutic compounds.
Sustainability in research is often linked to reducing environmental impact. But it also means conducting research that is relevant, reliable, and reproducible. In this talk, we’ll explore how sustainable practices contribute to higher research quality and integrity. Through real-world case studies, we’ll highlight the essential connection between sustainability and excellence in scientific work.
Digital tools will be a critical part of making chemistry research laboratories more sustainable. Our AI4Green open-source electronic laboratory notebook (ELN),https://ai4green.app, combines features including data archival and collaboration tools. The application's design facilitates the integration of auxiliary sustainability applications. For example, the open-source retrosynthesis software, AiZynthFinder has been integrated into the platform. AI4Green features a sustainable solvent selection tool, which comprises the Solvent Guide and the Solvent Surfer. The latter is an interactive principal component analysis (PCA) that provides users with an easy method to determine greener solvent alternatives and allows the exploitation of interactive PCA to tailor embeddings
In the face of a rapidly expanding selection of 'AI enabled' tools for Lab Operations, are we missing the point? In this presentation we will discuss what 'AI enabled' means for Lab Operations, and reflect on some practical (and not so practical!) examples of approaches seen to date.
An overview on how a holistic approach to Knowledge Management, combined with an effective change management and adoption strategy and supported by GenAI, is making a quantifiable tangible impact in Novartis, through increased productivity and improved decision-making.
Over recent decades, the drive for cleaner energy, sustainable chemicals, and greener mobility has transformed industrial research and development. At Johnson Matthey (JM), this challenge has brought together a diverse community of materials scientists, chemists, engineers, computer scientists, and mathematicians, all working collaboratively toward shared goals. At the center of this transformation is the ability to interpret and utilize increasingly complex datasets, ranging from high-resolution microscopy and spectroscopic data to correlative three-dimensional tomographic reconstructions.
A key component of JM’s strategy is the integration of characterization techniques across multiple length scales. These include X-ray tomography (XRT), focused ion beam (FIB) tomography, and transmission electron microscopy (TEM), which together provide a comprehensive view of hierarchical structures. This enables the discovery of subtle relationships between material structure and catalytic performance, from micron-scale features captured by XRT, through meso- and nanoscale insights revealed by FIB, to atomic-level details exposed by TEM.
To manage the growing volume and diversity of data, JM has developed a powerful and adaptable platform built on Python-based tools, parallel computing libraries, and cloud infrastructure. This framework supports seamless workflows for data ingestion, preprocessing, analysis, and visualization. It enables fast collaboration, informed decision making, and predictive modeling that strengthens the connection between theory and experiment.
In this talk, we explore how JM uses data-driven approaches in catalysis science, showing how the combination of advanced instrumentation, computational analytics, and modern software platforms leads to new levels of scientific understanding.
LabOpsUK is an initiative that allows Lab Operations Professionals to network and share knowledge. Our mission is to establish a vibrant community of LabOps professionals in the UK, dedicated to fostering a culture of collaboration, knowledge sharing, and to create opportunities for networking, mentorship and to engage in constructive discussions.
Learn about the events we organise and how you can join this free networking group to drive forward professional goals.
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PSDI aims to accelerate research in the physical sciences by providing a data infrastructure that brings together and builds upon the various data systems researchers currently use. We have created tools and services for the community to enhance their research and data capabilities across the research data lifecycle. We provide access to highly curated datasets and have developed guidance and training materials designed to inform and upskill the community. This presentation will provide an introduction to PSDI and detail our range of offerings for physical scientists, and explain how you can get involved with and benefit from our infrastructure.
Is your lab using data to support your spending decisions, or relying on intuition? Agilent Digital Services provides laboratories with a holistic view of what is really happening in the lab. But how are laboratories capitalising on utilisation and service data and insights? We look at case studies where CrossLab Connect is empowering Lab Managers and Purchasing Managers to reduce costs, improve productivity and meet sustainability goals.
Since Clarence Birdseye invented the frozen category nearly 100 years ago, the assumed temperature for storing frozen food industry-wide has never changed. We have therefore launched a breakthrough project aiming to explore whether frozen products can be stored at different temperatures and understanding the benefits / drawbacks of doing so.
This session will showcase the latest technologies shaping modern laboratories. It will cover the role of LIMS systems in streamlining laboratory processes, the capabilities of AI-powered tools like Copilot4Labs to support decision-making, and the potential of augmented reality with Holo4Labs, enabling data integration directly at the workstation. The presentation will demonstrate how these technologies enhance the daily operations of laboratories, improving efficiency, regulatory compliance, and innovation.
Visual Intelligence – the Missing Piece of the Science Automation Puzzlereveals how Visual AI solves a persistent gap in scientific automation. Observation – the cornerstone of science – remains manual, qualitative, and fragmented. Visual data is still captured as narrative, filtered through human perception. Visual AI transforms this into structured, continuous insight – capturing critical latent datasets from workflows, materials, and environments. By going beyond traditional computer vision, Visual Intelligence provides the quantitative, real-time feedback needed for informed decision-making and action – enabling science and manufacturing to make a meaningful use of their data and accelerate science.
Testing plays a crucial role in Additive Manufacturing (AM), as it helps address the unique challenges of material anisotropy, variability between builds, and the need for specialized materials. By exploring the necessary testing and characterization techniques, we can make more informed decisions, improve consistency, and drive continuous improvement throughout the AM process
Machine learning (ML) and Artificial Intelligence (AI) have great potential to help us truly understand chemical reaction processes. However, development of these algorithms is currently hampered by the limited availability of structured reaction data.
The Open Reaction Database (ORD,open-reaction-database.org) is an initiative to improve the state of predictive chemistry by providing a structured, open-access schema and repository for sharing reaction data. This talk will provide an introduction to the ORD Schema, an exploratory snapshot of the ORD database, and present some opportunities for data generators, data consumers, and technology vendors to get involved.
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