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1 hour. For Partners. Optimal Efficiency
A dedicated power-hour of pre-scheduled 1:1 meetings designed to solve specific challenges
Virtual chemical space consisting of tens of trillions of molecules is now readily available. However, searching such spaces to identify biologically relevant hits and ensure diverse coverage of the space is not a simple task. As a result, much of the chemical space can often be left unexplored. To facilitate exploration of such large space, 2D searches are frequently utilized, due to computational restraints, but this is misaligned with the fundamentally 3D-nature of molecular recognition.
A range of technologies are now emerging that utilize advanced hardware, machine-learning and AI to rapidly explore ultra-large chemical spaces. Herein, we present low-cost workflows that combine the virtual exploration of our highly synthesizable, multi-trillion virtual library with rapid automated synthesis (2-4 weeks). In collaboration with our clients, such approaches have delivered outstanding confirmed hit rates (> 50%) following biological testing.
Real-world data (RWD) is essential to biopharma R&D, but critical signals often remain locked in unstructured data types such as clinical notes, out of reach from standard analytics. Automation alone cannot reliably extract these features; success requires context, and context only emerges when clinical expertise is embedded throughout such workflows.
To capitalize on the phenotypic depth of its EHR-derived RWD, NashBio built a multi-layer LLM extraction system designed around clinical experts who informed extraction criteria, guided prompt and workflow refinements, and evaluated model output against source records to improve capture of clinically meaningful events. Applied to a 2,800 patient inflammatory bowel disease (IBD) cohort, the pipeline surfaced treatment response outcomes from each patient’s IBD clinic notes, spanning a predefined list of 25 medications. The result was more than 58,000 structured medication-response assessments, each substantiated by a verbatim quote from the attending healthcare provider and reviewable in context. This human-in-the-loop architecture achieved >90% accuracy on sampled review and 96% reproducibility – a level of rigor typically reserved for manual chart review – delivered at scale to advance more personalized medicine. Automation alone also missed important documentation patterns unique to specialty care and institutional practice.
NashBio's experience challenges the perception that AI eliminates the need for humans. This work reinforced the fact that, as extraction systems scale, human-in-the-loop matters more, not less; it is what keeps accuracy and context intact. We will also demonstrate how this framework extends to other applications relevant for biopharma R&D, including hepatology feature extraction and biomarker curation.
Pharmaceutical and biotech organizations are leveraging Hybrid AI innovation across public and private environments to accelerate drug discovery by enabling secure, scalable access to complex scientific and clinical data. This distributed approach, combined with Hybrid AI capabilities that blend centralized model training with local AI inferencing for low-latency decision-making, helps shorten time to insight through faster analytics, improved data integration, and seamless collaboration across research and development teams, while maintaining data security, privacy, and regulatory compliance. By extending these capabilities across the value chain, biotech organizations can optimize discovery and development workflows through predictive modeling and real-time data analysis.
The Hybrid AI approach enables a balance between centralized intelligence and localized inference, improving responsiveness, compliance, and efficiency across environments. Together, these improvements strengthen operational agility and precision, ultimately helping organizations deliver measurable ROI across the drug development lifecycle.
Large Language Models are only as good as the context they receive. In this keynote, discover how knowledge graphs provide the semantic foundation for enterprise AI: powering GraphRAG, improving reasoning, reducing hallucinations, and delivering more accurate, explainable results. Through real-world examples from the pharma and life sciences industry, learn how organizations combine LLMs with knowledge graphs to accelerate research, enhance decision-making, and unlock greater value from connected data.
The decisive advantage in Precision Medicine will not belong to whoever holds the largest data silo or trains the largest frontier model. It will belong to whoever maximizes access to patient data. Most of the industry is investing as if the opposite were true.
The evidence is already on the record. Sequencing costs have fallen five orders of magnitude in two decades, yet the cost of assembling a usable cohort has risen; in the UK, per-patient trial costs nearly tripled between 2018 and 2023. Data has never been cheaper, while accessible and genuinely usable datasets have never been more expensive. It took a decade and hundreds of millions in public funding to build the most utilized biobank, and over a billion in private capital to create an industry leader in precision oncology, because the hard part was never the data, it was the governance layer around it.
The same logic exposes the AI race: a proprietary model trained on datasets everyone can license is a commodity. A $300M deal for a consumer-genetics database was renewed for a fraction; the data was abundant, the signal was not. The window for a genuine solution has been open for a decade, especially for the well-funded digital health industry.
This talk sets out where durable advantage in health data research actually accrues, connecting the dots from persons to health systems, from patients to nations, and confronts the choices the industry has avoided to make precision medicine a reality for all patients, not just those who happen to sit in the right data bucket.
1 hour. For Partners. Optimal Efficiency
A dedicated power-hour of pre-scheduled 1:1 meetings designed to solve specific challenges
In the age of highly available, high throughput next generation sequencing, users want to leverage cloud infrastructure to orchestrate bioinformatics pipelines at immense scale. In the past, this has required the joint effort of multiple personas: the bioinformatician, the wet lab scientist, the cloud engineer, and the IT manager all working at different paces and with different priorities. Today, this can be achieved self-service by a number of personas. In this session, we will demonstrate how agentic tooling can be leveraged to provision, deploy, debug, and monitor bioinformatics pipelines powered by purpose-built infrastructure like AWS HealthOmics, compressing the time to science from months to hours.
Talk I, From Blank Page to First Draft, introduces the challenges of regulatory writing and the motivation for AI-assisted drafting. Building on our PRINCE multi-agent framework, we demonstrate how approaches such as prompt engineering, draft reflection, and model customization enable the transition from fragmented source material to structured first drafts, while keeping expert oversight central to the process.
Talk II, The Harness Engineering for Deep Research, focuses on the system architecture required to support reliable, long-running workflows. Regulatory writing is inherently iterative, involving clarification, evidence retrieval, synthesis, drafting, and refinement. We highlight key design patterns in harness engineering and context engineering, including agent orchestration, tool integration, state management, and iterative reflection, to ensure robustness and adaptability.
In this session we will show how to enablecross-site process comparability, faster tech transfer, AI-ready manufacturing data, and frictionless regulatory submissions. The interoperability pillar (shared ontologies across sites and systems) is where the biggest wins and biggest effort lie.
In agentic AI for drug discovery, the model is only as useful as the biological context it can access, connect, and reason over. ETL pipelines and ELN/LIMS repositories store and organize records, but they are not designed to fully represent biology: data joins can remain syntactic, retrieval may rely on text similarity, and functional relationships, cross-modal linkage, reasoning provenance, and negative-result memory can remain fragmented. The data can sit static, and relations and semantics can stay incomplete. ReefIQ™, powered by HYFT® Technology, is MindWalk’s newly launched biological context layer for AI in drug discovery. It connects and contextualizes discovery data across sequence, structure, function, mechanism, pathway, and literature in one connected representation, creating queryable biological context designed to work with the AI infrastructure around it — whether a customer’s own AI models or MindWalk’s LensAI™ platform. In either configuration, ReefIQ provides the connected context, structured retrieval, and validation layer, while reasoning happens in the AI layer above it. When paired with LensAI™, MindWalk’s reasoning and application layer, that context can inform auditable, human-in-the-loop decision support across target discovery, pan-serotype biologic design, candidate diligence, and mechanism-aware variant interpretation. Ultimately, context can become more useful with each program and measurement as relationships within the data are refined over time.
As agentic AI moves from demos to decisions, pharma leaders must decide what to build, what to buy, and where partnership creates advantage. This panel cuts through hype to debate ownership, governance, validation, and the real sources of competitive moat.
Actionability of data in drug discovery depends on the completeness of underlying datasets and the analytical infrastructure to generate meaningful insights. This is amplified in the era of AI-driven interpretation, where models are only as powerful as the data they're trained on. As drug discovery teams adopt rapidly advancing approaches like machine learning for target identification, virtual cell modeling, and multiomic profiling, access to large-scale, diverse datasets with complete metadata has become a strategic imperative. This panel examines how hyperscale initiatives like the Alliance for Genomic Discovery (350,000+ whole genomes and 50,000+ linked proteomes) and the Illumina Billion Cell Atlas are providing the foundational data infrastructure for next-generation drug discovery. Panelists will bring expertise spanning functional genomics, machine learning, ADME, antibody developability and more to discuss what it takes to build AI-ready datasets, the importance and challenges of integrating across diverse datasets and infrastructures, and how both proprietary and pre-competitive collaboration are impacting today’s R&D landscape.
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1 hour. For Senior Decision Makers. Optimal Efficiency
A dedicated power-hour of pre-scheduled 1:1 meetings designed to solve specific challenges
Abstract: The promise of AI to revolutionize drug discovery and development is undeniable. However, moving from isolated AI projects to enterprise-wide, value-driving capabilities presents a formidable challenge for even the most innovative Pharma organizations. The true test lies not in the algorithm, but in the ability to scale.
This panel brings together senior industry leaders to share their strategic perspectives on this critical journey. We will move beyond the hype to address the core operational, technical, and cultural questions that define AI readiness. Our discussion will explore actionable strategies for:
1 hour. For Partners. Optimal Efficiency
A dedicated power-hour of pre-scheduled 1:1 meetings designed to solve specific challenges
For years, digital transformation in clinical R&D has primarily focused on automating existing processes—often reinforcing long‑established functional silos such as data management, statistical programming, analysis, and reporting.
Artificial Intelligence represents a far more structural shift. Rather than simply accelerating current workflows, AI challenges how organizations are designed, governed, and held accountable.
In this joint session,Johnson & JohnsonandSASexplore how AI enables a move from siloed execution to anorchestration‑based model, where human experts leveragespecialized AI agents across data management, statistical programming, analysis, and reporting.
The discussion highlights how governed, auditable AI platforms make this model operational at scale, while addressing emergingrisks and regulatory expectations. A forward‑looking perspective on how health authorities approach AI adoption completes the session.
This session is for leaders looking to understand the fundamental shift in value, from manual production to judgment‑driven decision‑making, coordination, and transparency.
Roughly 40% of the clinical facts research needs never reach a structured data field: diagnoses, medication adherence, biomarkers, staging, social determinants, family history. Frontier LLMs can read that text, but at population scale they're expensive, non-deterministic, and hard to audit. This session shows how specialized medical language models extract and de-identify clinical facts at regulatory-grade accuracy: 98% F1 on PHI detection, and primary site, histology, and tumor staging extracted from unstructured pathology text at regulatory-grade accuracy (over 95%) – all at over 80% lower cost than current frontier models, with deterministic, reproducible output. Those facts become a governed, OMOP-standard real-world-evidence asset, with every value traced to its source note and every extraction carrying a confidence score. With that foundation in place, and a shared MCP boundary on top of it, use cases like cohort building, real-world evidence, clinical trial matching, and protocol design become far easier to build and to audit.
How we are moving from fragmented data and an outsourcing model to an integrated, AI and agentic powered R&D engine. What works (and does not) along the way.
AI is transforming drug discovery and clinical development faster than any organization can navigate alone. For NGOs, this isn't just a technological shift — it's a defining moment.
DNDi has spent decades proving that partnership is the most powerful engine for impact: 14 new treatments, 6 deadly diseases defeated, millions of lives saved. Now, AI is supercharging that model. From intelligent compound screening to automated clinical documentation and real-time safety surveillance, the opportunities are immense — and they are accelerating.
But here's the hard truth: no NGO can capture this potential in isolation. The data, the talent, the infrastructure required to deploy AI at scale demand a new level of collaboration. The organizations that will lead the next era of global health innovation are those bold enough to build coalitions, join consortia, and co-create shared platforms with aligned partners.
This session makes the case that AI is not just a tool — it's the catalyst for a more connected, more ambitious NGO ecosystem. The future of equitable drug development won't be built by any single organization. It will be built together.
This session explores how Roche is transforming manufacturing shop floor operations through AI-driven digitalization and intelligent process automation. The presentation highlights the Digital Operational Excellence Program (DOEP) and the deployment of a MuleSoft-based MCP (Model Context Protocol) architecture integrated with Tulip to modernize data capture, connectivity, and operational decision-making across manufacturing sites.
Attendees will learn how Roche is replacing manual paper-based shop floor logging with real-time digital process capture, enabling centralized data integration and conversational AI capabilities for manufacturing users. The session willexplainhow AI-powered insights, streamlined workflows, and interoperable systems accelerate operational excellence, reduce manual effort, and improve manufacturing agility at scale.
Key topics include:
1 hour. For Partners. Optimal Efficiency
A dedicated power-hour of pre-scheduled 1:1 meetings designed to solve specific challenges
Artificial intelligence is rapidly entering clinical trial design and execution, yet its value depends on how well it addresses the real-world challenges faced by investigators, sites, sponsors, and patients. This presentation explores AI in clinical trials from the investigator’s perspective, focusing not on technical algorithms but on practical clinical and operational impact.
The session will examine where AI can meaningfully support trial feasibility, patient identification, eligibility screening, recruitment, retention, risk-based monitoring, endpoint assessment, data quality, and safety oversight. It will also distinguish realistic current applications from hype, while addressing key limitations including bias, poor data quality, lack of transparency, regulatory expectations, and the risk of over-automation.
Attendees will leave with a clear framework for evaluating AI-enabled trial solutions, collaborating effectively with sponsors and technology partners, and adopting AI in ways that improve efficiency while preserving patient safety, data integrity, scientific credibility, and investigator judgment
Most transformations do not fail because people were not informed. They fail because awareness was mistaken for adoption.
This session reframes change as a behavioral journey, not a go-live activity. It explores how Organizational Change Management can help people move from understanding achange, to engaging with it, toconfidently working in a new way. Drawing on experience across complex enterprise IT transformations, the session focuses on designing change interventions that reduce friction, create relevance, and sustain momentum beyond implementation.
Industry sponsors planning a multicentre clinical study in Switzerland — and the academic researchers they collaborate with — face a fragmented service landscape. Biobanking, trial conduct, data interoperability, ethics submission and regulatory clearance each sit with a different institution; entry points vary by canton; visibility across providers is poor. In this ecosystem, findability is a problem long before interoperability is.
The CPCR Service Finder — technically led by Swiss Biobanking Platform under a SAMS / SERI mandate — applies FAIR principles to services rather than to data. Every offer from the four national research infrastructures, and now from regulators including swissethics, is mapped against a common taxonomy of research activities, making services Findable and Interoperable. Discovery is federated: each organisation owns its descriptions and no content is centralised. An AI-augmented multilingual semantic search captures user intent, with contextual filters, transparent ranking rules and a “Why this result?” affordance on every match. The full stack is open source and Swiss-hosted, a condition of institutional and industry trust.
An open user-testing campaign reached 300+ registrations and engaged 30 participants in task-based search scenarios (data-management-plan templates, consent-form templates, cantonal ethics submission). Navigation scored 4.3 / 5; 72 % asked for an expanded result view and 69 % for predefined filters — both shipped. Insiders rated the tool more appropriate than outsiders, prompting cold-start affordances for sponsors and CROs less familiar with the Swiss landscape. Adoption created its own pull: swissethics is indexed, and Swissmedic, FOPH and SwissPedNet are next.
The result is a reusable, FAIR-aligned discovery layer that bridges three constituencies — academic services, industry sponsors and regulators — in a federated ecosystem where the sovereignty of each actor is non-negotiable. The model transfers readily to any federated resource-discovery problem beyond clinical research.
Biotech companies operate across multiple languages and cultures, yet the LLMs supporting their R&D, clinical and regulatory workflows are still built largely on English-only biomedical corpora, including models trained exclusively on PubMed abstracts. At the same time, multilingual clinical NLP research shows uneven data availability and inconsistent model performance across languages, raising important questions about how reliably AI can support global evidence extraction and documentation.
This panel opens a discussion on what happens when multilingual organisations rely on monolingual models – and what teams can do about it. Where do gaps, risks and inefficiencies emerge in cross-site collaboration, terminology alignment, documentation practices and knowledge sharing – and where might new opportunities arise? Bringing together perspectives from AI development, clinical and regulatory operations as well as linguistic diversity management, we explore what it takes to make LLMs more reliable and usable across global teams.
Create your personal agenda –check the favourite icon
1 hour. For Senior Decision Makers. Optimal Efficiency
A dedicated power-hour of pre-scheduled 1:1 meetings designed to solve specific challenges
Strong innovation doesn’t automatically lead to commercial success. Many science-led companies struggle to translate capability into revenue. This session introduces a platform thatidentifies commercial gaps and turnsinnovation into a clear, execution-ready growth strategy.
This talk presents a practitioner’s view on agentic competitive intelligence built on LLMs, grounded in real deployments of a competitive intelligence agent. I examine the core tension between trustworthiness, coverage, and response time, and show how to balance these forces on a tightrope — keeping agents credible, comprehensive, and timely enough for industrial decision workflows.
The promise of an "all-in-one" PPM platform is often a digital trap. My experience with enterprise-scale rollouts has shown that monolithic tools frequently create a "transformation deadlock," stifling the very decision-making they aim to support. This session introduces a Modular PPM architecture—a framework that separates your System of Record from your essential Logic and Narrative layers. Learn how to architect a technology stack that captures standardized data without sacrificing the "ground-truth" human intelligence required for high-accuracy forecasting and decisive strategic action.
Background:To estimate remaining data utility, we evaluated three data strategies: Anonymization, Federated Approaches, and OMOP-CDM transformation.
Methods: CDISC-SDTM Data from a retrospective HER2+ breast cancer study (73 variables) were anonymized and mapped to OMOP-CDM. Using DataSHIELD, we tested a federated approach by splitting SDTM and OMOP databases into three samples. Statistical analyses (descriptive statistics, regression methods, survival analyses) for each method were compared against the raw CDISC-SDTM gold standard, focusing on information loss, consistency, and reproducibility.
Results: None of the anonymization methods successfully reproduced all statistical analyses. The federated approach demonstrated good consistency but showed decreased accuracy in multivariate models due to database variability. Conversely, CDISC-SDTM was successfully mapped to OMOP-CDM, showing high statistical concordance.Conclusions: Whilst data was successfully mapped to OMOP, utility was reduced when further privacy preserving methods were applied. A trade-off has to be found between privacy and usefulness of data.