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Senior Representative, WuXi Biologics
Senior Representative, Danaher
Senior Representative, WuXi XDC
Senior Representative, FUJIFILM Biotechnologies
First-in-human dose selection remains one of the highest-stakes decisions in oncology drug development—particularly for complex modalities such as Antibody-Drug Conjugates (ADCs) and T-cell Engagers (TCEs). Misjudging this step can lead to delayed development, unnecessary patient risk, and significant value loss.
In this workshop, LYO-X presents an integrated, model-informed strategy to de-risk and accelerate FIH dose prediction. For ADCs, the focus is on translating preclinical data into a robust understanding of therapeutic dose and window. For TCEs, the challenge lies in identifying a starting dose that is both safe and sufficiently close to pharmacological activity, minimizing dose-escalation steps and avoiding subtherapeutic exposure.
By combining in vitro and in vivo preclinical data with advanced PK/PD and quantitative systems pharmacology (QSP) modelling, LYO-X demonstrates how to generate data-driven, decision-ready dose recommendations. The session will highlight how this approach enables more confident clinical entry, optimizes trial design, and ultimately accelerates time to proof-of-concept.
Senior Representative, Probiogen
Senior Representative, Mosaic Biosciences
Senior Representation, Kactus Bio
· Overview of unconventional T cell biology and why iNKT cells are attractive therapeutic candidates
· How functional and metabolic diversity influences anti-tumour activity
· Translating these insights into next-generation, off-the-shelf cancer immunotherapies
-In silico and wet lab automated workflows for recombinant protein expression
-Developing the next generation predictive model for optimal codon usage at the translation initiation region
Advanced cell line development is critical to the success of biotherapeutic development, requiring high productivity, stability, and consistent performance from early stages through commercial manufacturing. Building on the Selexis® SUREtechnology™ foundation and CHO-M™ cell line, we have evolved our TranspoEase™ platform to enhance efficiency and flexibility. Our in-house engineered transposase drives improved integration and higher titers, while our novel Biselect multi-selection strategy ensures optimal chain pairing and strong expression of complex, multi-chain molecules without added vector design complexity. We also integrate developability assessment early in the workflow to support smarter candidate selection and reduce downstream risk. Looking ahead, we are redefining safety standards with the development of the first RVLP-low host cell line on the market—setting a new benchmark for next-generation biomanufacturing.
Senior Representative, Lonza
Despite the breakthrough of immune checkpoint blockade, the majority of cancer patients still fail to benefit due to a lack of cancer-specific T cells. Although various immunization approaches have been explored to increase T cell responses, most rely on non-targeted antigen delivery systems, leading to limited efficacy. Using our single-domain antibody (sdAb) platform, we selectively deliver cancer antigens directly to antigen-presenting cells (APCs), thereby inducing stronger T cell responses compared with conventional methods. This novel immune-priming technology has the potential to significantly boost anti-tumor T cell responses and promote cancer elimination by harnessing the patient’s own immune system.
Senior Representative, Cradle
Senior Representative, Thermo Scientific
Senior Representative, IQVIA, a Specifica Company
Protein formulation development has traditionally prioritized vial stability, shelf-life, and manufacturability under static conditions — an approach increasingly insufficient for today's high-concentration biologics and subcutaneous delivery formats. This presentation reimagines formulation as a lifecycle discipline that spans from molecule design through to in-vivo performance. High-throughput screening, physiological compatibility testing, and biopharmaceutics-informed strategies can replace narrowly focused stability paradigms. By embedding this integrated mindset early in development, the industry can reduce attrition, lower cost of goods, and improve clinical outcomes.
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Senior Representative, Nona Biosciences
Senior Representative, Lonza
In this communication, we report on the engineering of recombinant Protein A (rProtein A) to enhance its key properties, particularly alkaline stability.
We focused on targeted modifications to the C domain of the native Protein A, evaluating these changes through the development of multimeric variants. Among the variants assessed, the selected one shows remarkable alkaline stability up to 1.5M NaOH.
This ligand was used for the preparation of two different rProtein A agarose resins.
One of them was designed to be cost-effective, highly stable showing extremely high DBC.
A second rProtein A agarose resin was developed to maintain high DBC and alkaline stability with improved pressure flow characteristics thanks to a specific and innovative agarose resin design.
This presentation will discuss critical performance parameters when designing new agarose resins. Development, characterization & biomolecule application data for two Protein A affinity resins and other functionalized resins will be discussed.
Seniorr Representative, ACROBiosystems
Senior Representative, Atum
Senior Representative, BSP Pharmaceuticals
Reserved for Nanotemper
Key Takeaways:
I’ve delivered Talent Science™ Boardrooms and keynotes at major global conferences including BPI (Europe & Boston), The Economist, Advanced Therapies, Bio-IT, Bio-Europe and DCAT, and would be delighted to explore how this could enhance the Festival’s strategic and leadership-focused sessions.
Senior Representative, Schrödinger
Senior Representative, Adimab
Senior Representative, Lonza
This talk presents Boehringer Ingelheim’s platform‑based approach to developability for biologics, supporting a broad and diverse pipeline of molecule modalities. It highlights standardized, partially automated screening work packages across upstream processing, downstream purification, and formulation development, designed to generate early, comparable insights under harmonized conditions. By embedding automation, platforming, and risk mitigation into early CMC activities, this approach enables data‑driven candidate selection, improves predictability, and lays a robust foundation for efficient, scalable manufacturing strategies.
Antibody-drug conjugates (ADCs) are a rapidly expanding class of targeted therapeutics that combine the specificity of antibodies with potent payloads. Advances in antibody engineering, linker chemistry, and payload design have enabled the development of next-generation ADCs with increased versatility. This presentation will provide an overview of emerging ADC modalities, including conventional cytotoxic ADCs, bispecific ADCs, unconventional ADCs incorporating novel payloads, and immunoconjugates designed to modulate biological responses.
A new wave of monoclonal antibody therapeutics is in development that utilize complex molecular structures as a route to enhanced efficacy. These challenging molecules require new synthetic pathways for their creation, pathways that present unique purification challenges which must be overcome for commercial viability. Increasingly, the choice of affinity resin in the purification workflow is critical to obtaining viable results that can be scaled to commercial volumes. This presentation describes how the unique features of modern affinity resins can be leveraged to create robust purification workflows for even the most challenging molecules.
Senior Representative, Lonza
Senior Representative, Abzena
Improving pharmacokinetics (PK) remains highly relevant for enabling flexible and patient‑centric therapies. Our novel pH-dependent Nanobody® molecules target a unique epitope on the neonatal Fc receptor (FcRn) that does not compete with albumin- or Fc-binding sites. We harness this non-competitive binding mechanism to achieve significantly improved PK properties across multiple therapeutic modalities. In a complementary application, we exploit our FcRn-binding Nanobody® domain to improve on existing FcRn antagonists. Our studies and subsequent human simulations provide compelling evidence that the enhanced potency of our molecules could translate into meaningful clinical benefits
As the global landscape of biologics evolves, many regulatory authorities in emerging markets face the challenge of balancing rigorous safety assessments with the urgent need for patient access. This presentation explores how regulatory reliance pathways, where authorities leverage the assessment work of mature agencies can serve as a critical bridge. We will examine how this strategy enables patients to receive life-saving treatments while providing emerging agencies the time, framework, and collaboration opportunities needed to build their own robust, sustainable regulatory capacities.
Senior Representative, Icosagen
Senior Representative, Genscript
1. Latin America's biologics landscape: complexity and opportunity. Understanding the region's unmet healthcare needs, the growing role of biosimilars as cost-effective alternatives, and the unique challenges of navigating diverse regulatory and market environments.2. A strategic framework for market entry and expansion. Exploring how global innovation can be translated into regional impact through three key levers:regulatory timing, market access strategies across public and private systems, and sustainable pricing models in dynamic markets.3. Collaboration models that drive sustainable access. Examining successful partnership models that have enabled the adoption of high-regulation biosimilars across multiple markets — delivering measurable savings for healthcare systems and payers, achieving first-to-market positioning, and expanding patient access to specialty care therapies previously unavailable in the region.
Reserved for Heidelberg Pharma
The AI: STEAD / PhialBCR. A permutation-invariant deep-learning model that learns target specificity directly from B-cell receptor (BCR) repertoires computationally assembled from tens of thousands of tumor samples — enabling concurrent target and antibody discovery without protein structure modeling or pre-existing antigen databases.
The discovery: IGSF8 as a novel innate immune checkpoint. PhialBCR prioritized IGSF8 from patient-derived antibody repertoires; orthogonal TCGA genomics and a CRISPR NK-cytotoxicity screen converged on the same target. The same AI then designed GV20-0251, a fully human anti-IGSF8 antibody, from the tumor-derived BCR pool.
The clinical readout: NCT05669430 (n=42). GV20-0251 monotherapy was well tolerated with no DLTs; in anti-PD-1 primary-resistant metastatic melanoma, 3 of 9 evaluable participants achieved confirmed partial responses (ORR 33.3%), with one response ongoing >20 months — AI target prediction to first patient clinical response in ~3 years versus the typical 10–15.
The high cost associated with manufacturing biologics calls for alternative production platforms that can challenge current paradigms in the pharmaceutical industry. Filamentous fungi are evolutionarily optimized for high-titer protein secretion and while biotechnological workhorses likeTrichoderma reeseihave a decades-long track record in the biofuel, textile, food, detergent, and animal feed industries, their potential for manufacturing of biologics remains largely untapped. We are leveraging the available molecular toolkit forT. reeseito develop next-generation cell factories capable of secreting dozens of grams per liter of heterologous proteins with human-type glycans. This presentation will outline technoeconomic and life cycle assessment data for production of biologics inT. reesei, alongside case studies for production of a human IgA fragment, a plasma protein and an IgG monoclonal antibody currently in development for a high-burden infectious disease. Beyond technical feasibility, our work positions filamentous fungi as a disruptive, low-cost and viable chassis for the production of biologics using processes that are compatible with global access to life-saving treatments.
The rapid expansion of antibody-based therapeutics has intensified the need for robust and predictive developability assessment to ensure a successful transition from discovery to clinical development. Developability encompasses the evaluation of key biophysical and biochemical properties of antibody candidates, including stability, solubility, aggregation propensity, and manufacturability. Despite significant advances in screening technologies, a considerable proportion of otherwise promising candidates continue to fail at later stages due to suboptimal developability profiles.
This presentation will explore the major challenges associated with antibody developability, including the limited predictive power of early-stage screening workflows, the inherent complexity of forecasting long-term stability, and the influence of formulation and environmental conditions on molecular behaviour. Particular attention will be given to the interpretation of biophysical datasets and their effective integration into decision-making processes, especially within a CRO context.
A central theme of this talk will be the urgent need for more standardized, scalable, and predictive methodologies to improve data comparability and decision confidence across programs. Greater adoption of plate-based, high-throughput, and automation-compatible platforms will be highlighted as a key step toward enhancing robustness, reproducibility, and throughput in early developability assessment. In parallel, emerging trends underscore the growing impact of advanced bioinformatical tools and in silico approaches, including sequence- and structure-based analytics, molecular modeling, and the application of machine learning algorithms for predictive developability. Recent advancements in AI-driven models enable improved prediction of stability, aggregation propensity, and manufacturability, supporting more informed candidate selection. Combined with expanded assay portfolios tailored to increasingly complex antibody modalities, these innovations are driving the establishment of standardized, fit-for-purpose strategies aligned with evolving industry needs.
Overall, this presentation aims to provide practical insights into current best practices, identify existing gaps, and outline innovative solutions shaping the future of antibody developability in biologics research and development.
This abstract describes the experience gained with the life‑cycle management of the Inclisiran Anti-Drug Antibody (ADA) assay, covering regulatory‑driven assay optimization and validation followed by the ADA assay transfer to a strategic partner.
The increasing use of oligonucleotide‑based therapeutics has heightened regulatory expectations for robust immunogenicity assessment throughout the clinical program. Therefore, Anti‑drug antibody (ADA) readout represents a critical component of clinical development and long‑term safety monitoring.
Inclisiran is a GalNAc‑conjugated double‑stranded siRNA, targeting hepatic PCSK9 mRNA, leading to sustained reduction of Low-density lipoprotein (LDL) Cholesterol in circulation. Following FDA approval, a Post‑Market Commitment (PMC 4186-4) required the introduction of an affinity‑purified positive control. In parallel, supply shortages of ADA assay plates necessitated evaluation of alternative assay formats to support an expanding clinical program with a global footprint.
A partial revalidation, was successfully completed, demonstrating increased ADA assay sensitivity and improved drug tolerance. The updated assay was subsequently transferred to enable high‑throughput analysis of study samples from late-stage clinical trials.
Neurodegenerative diseases and cancer, despite their differences, share a fundamental challenge: both are complex, dynamic processes driven by heterogeneous and often latent biological mechanisms. In both domains, artificial intelligence has been widely applied, yet many current approaches remain largely correlative, limiting interpretability and clinical impact.
In this talk, we present a multimodal AI framework designed to integrate imaging, molecular, and clinical data to model disease dynamics over time. Originally developed in oncology to characterize tumor behavior at both local and systemic levels, this approach is here extended to neurodegenerative diseases, where long temporal evolution and subtle biological changes pose additional challenges.
The framework focuses on capturing latent biological processes, enabling the identification of patterns not directly observable through standard clinical assessment. We will discuss how this paradigm supports clinically relevant tasks such as early detection, patient stratification, and prediction of disease trajectories, while maintaining interpretability and alignment with known physiological mechanisms.
Finally, we explore how such models can move beyond prediction toward hypothesis generation, bridging domains and providing a unified perspective on complex diseases, with implications for more personalized and adaptive therapeutic strategies.
Aligning strategic relationship management, manufacturing science, and CDMO execution
· Technology Fit and Platform Compatibility
· Transferring Process Knowledge, Not Just Methods
· Process Robustness, Scalability, and Lifecycle Thinking
· Managing Change in a Science-Driven Environment
· Enablers: Governance Models That Support Technical Excellence
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Novel therapeutic modalities in the Biologics (Bx) space are transforming biomedical research and changing how medicines are discovered and developed.As a result, decidingwhat,when,whereto measure, andwhyit matters, has become both more important and more complex.
To keep pace, bioanalytical organizations must deliver fit-for-purpose assays quickly, while ensuring high-quality consistent data and methods as programs move from early studies to late-stage clinical trials. That requiresBA strategyandexecutionbe co-designed and built into development plans from the start.
At Novartis, we support the BA for Bx development through afour-pillar operating model:
-Align: governance and clear strategy-setting for bioanalytical deliverables
-Orchestrate: portfolio visibility, prioritization, smart risks, and accountable decision-making
-Accelerate: innovation and agility in internal laboratories to enable Phase I and II delivery
-Scale: high-throughput, compliant external delivery to support Phase III and beyond
In this session, we will share how the four pillars work together, with a particular focus on establishing two state-of-the-art bioanalytical facilities and how they enable modern, end-to-end bioanalytical solutions to accelerate getting medicines to patients.
This presentation will cover a multimodal facility offering aseptic manufacturing services for biotech and ATMP products. The main focus is a new concept designed to accelerate launch readiness and streamline technology transfers.
Senior Representative, SKAN
Senior Representative, Datwyler
Senior Representative, Lonza
The discovery of next-generation biologics increasingly depends on identifying novel, high-affinity bioactive molecules from complex natural systems that can be translated into safe, scalable therapeutic platforms. While global drug discovery has traditionally focused on established geographies and synthetic pipelines, emerging biodiversity reservoirs offer untapped opportunities for biologics innovation. This presentation introduces Sabah, Borneo as a strategic reservoir of non-Cannabis phytocannabinoid derivatives (PD) and cannabinoid-mimetic compounds (PM) with therapeutic relevance. Using an integrated discovery pipeline combining hyphenated analytical platforms (LC-MS/QToF-NMR), computational molecular dynamics, and bioactivity-guided screening, we have systematically mapped Sabah native plant species with cannabinoid-like pharmacological profiles. To date, 22 species have been identified to contain PD or PM compounds structurally and functionally related to cannabidiol (CBD), cannabinol (CBN), N-acylethanolamines, β-caryophyllene, and flavonoid-based mimics such as kaempferol. Importantly, selected species including Trema orientalis and Rhododendron rugosum offer a legally compliant, non-psychoactive, and sustainable alternative to Cannabis sativa, addressing regulatory, safety, and supply-chain challenges faced in many jurisdictions. We will present pre-clinical in vivo data on a PD/PM-based formulation targeting antinociception and neurogenic pain, alongside early translational insights relevant to metabolic, anti-infective, and inflammatory indications. The session will conclude with a roadmap for biologics translation, outlining OECD GLP-aligned pre-clinical workflows and NPRA/MOH regulatory readiness in Malaysia, positioning the Borneo reservoir as a scalable and globally relevant pipeline for next-generation antidiabetic, antibacterial, and analgesic biologics.
Positive trial results do not automatically translate into positive reimbursement decisions. Increasingly, the determining factor iswhatwas measured, not justhow wella treatment performed.
This presentation explores endpoint selection as a critical driver of reimbursement success, examining how misalignment between clinical trial endpoints and payer evidence needs can undermine coverage decisions. Using recent reimbursement and HTA examples, it highlights why certain endpoints fail to convince decision-makers and identifies features of endpoints that support favourable assessment, such as clinical relevance, patient meaningfulness, and suitability for comparative and economic evaluation.
By positioning endpoint selection as an early strategic decision with downstream access consequences, this talk aims to help stakeholders design trials whose results are not only positive, but reimbursable.
Expectations, perspectives and benefits for different modalities, incl. key elements of a successful technology platform
Immunogenicity remains a challenge when developing novel biotherapeutics. In silico approaches primarily evaluate immunogenic potentials by predicting HLA ligands. However, not all predicted T cell epitopes result in immune activation, requiring additional screenings to assess immune tolerance and refine immunogenicity analyses.
We introduce here an update to our JanusMatrix algorithm, first designed to assess cross-conservation between therapeutic-derived epitopes and epitopes from the human proteome. JanusMatrix 2.1 enhances assessment of tolerance by integrating expression and prevalence information into a new ML-based model. This new analysis enables the adjustment of immunogenic potentials based on total foreign – non-tolerated – epitope content.
JanusMatrix-adjusted immunogenicity scores provide a better alignment with clinical observations. These improvements were integrated into a new model predicting anti-drug antibody (ADA) responses, leading to a 7-fold increase in the correlation between predicted and observed ADAs, and with over 75% of predicted ADAs falling within 10% of observed values.