PM Workshops; All Day Training Course; AM Early Career Session - PT (Pacific Time, GMT-08:00)
Add-on this pre-conference training course to your main conference registration package for an additional fee and gain a comprehensive overview of antibody engineering in an easy-to-follow classroom setting to help you prepare for the main conference program.
- Training course registration begins at 8:30am.
- Break Schedule:
- AM Break: 10:30-11:00;
- Lunch: 12:30-1:30;
- PM break: 3:00-3:30
TRAINING COURSE OVERVIEW
Today’s wealth of knowledge of protein structures will be reviewed along with the genetics of diversity generation of antibodies, to give insights into the best strategies for improving protein function. There is particular emphasis on the choice of a functional assay to effectively monitor the changes in a desired property, and the use of functional enrichment steps where a library approach is employed. Not only is amino acid sequence amenable to engineering, but glycan structures and other modifications may also be engineered. The course will focus on the engineering and enhancement of antibodies and antibody-like scaffolds. Examples will include work on antibody fragment affinity improvement by 100-fold to low pM affinity. Also, the engineering of bispecific antibodies by diverse approaches and the adaptation to generate Chimeric Antibody Receptor (CAR) constructs will be discussed. Expression platforms for producing antibodies for testing and for manufacture will also be covered. A background in biochemistry and molecular biology is useful, as the course is designed to progress rapidly from simple to advanced concepts.
INSTRUCTOR
David Bramhill, Ph.D., Founder, Bramhill Biological Consulting, LLC and Research Corporation Technologies
COURSE AGENDA
• Functions amenable to engineering: affinity, specificity, stability,
solubility, immunogenicity
• The measure of success: functional assays
• Engineering by design
• Engineering by random mutation
• Designed libraries
• Display technologies
• Improving manufacturing by protein engineering methods
• Glycosylation engineering – function and homogeneity
• Other protein modifications
• Immunogenicity engineering
• Bispecific antibodies
• Antibody-drug conjugates (ADCs)
• CAR-T strategies
• Expression of antibodies and fragments for discovery and testing
• Manufacturing platforms for antibodies and fragments
- David Bramhill, PhD - Consultant, Bramhill Biological Consulting, LLC
- Bassil Dahiyat, PhD - President and CEO, Xencor
- Stephanie Casey Parks, PhD - Senior Principal Scientist, Amgen
- David Shen, PhD - CEO, Propeller Bio
- Diana Canals, PhD - Associate Scientist, Zymeworks
- Sanjaya Singh, PhD - Founder and Chief Scientific Officer, Third Arc Bio
Clustering of death receptor 5 (DR5) can trigger apoptosis signaling, with higher order clustering inducing stronger signaling. Ozekibart (INBRX-109) is a tetravalent DR5 agonist precisely engineered to drive higher order but controlled clustering of DR5. This results in enhanced potency against tumor cells relative to lower valency agonists (e.g., bivalent conventional antibodies and trimeric recombinant ligand), while minimizing the potential for toxicity that has been seen with higher valency agonists.
- Katelyn Willis - Group Leader - Cell Biology, InhibRx
Molecular design increasingly shapes the clinical development of next-generation biologics. This presentation will discuss how translational PK/PD and quantitative clinical pharmacology inform decision-making from first-in-human dose selection through dose escalation, regimen optimization, and ultimately selection of approved dosing regimens. Case studies from emerging biologic modalities will illustrate how molecular attributes influence pharmacology, clinical development strategy, and dose selection across the development continuum.
- Saileta Prabhu, PhD - Clinical Pharmacologist, Regeneron
Generative biology is opening new ways to design therapeutic proteins with developability in mind from the start. I’ll discuss how predictive models, experimental data, and engineering workflows can be combined to explore sequence space, flag liabilities, and prioritize candidates with better manufacturability and therapeutic potential.
- Marissa Mock, PhD - Executive Director of Protein Therapeutics, Amgen
We present an integrated computational and experimental cascade for developability assessment and optimization of variable domains within multispecific antibodies. Key elements include automated sequence fragmentation of multispecifics, domain-level property annotation, and physics- and ML-guided optimization of individual variable domains within defined property constraints, increasing the likelihood that domain-level improvements translate into well-behaved multispecific constructs without compromising antigen binding.
- Andreas Evers - Scientific Director in Antibody Discovery & Protein Engineering, Global Research & Development, Discovery Technologies, Merck Healthcare
As biologic modalities continue to diversify, understanding how molecular format influences developability has become increasingly important. This presentation will describe J&J's approach to biophysical characterization during discovery and candidate selection and share insights from datasets spanning multiple therapeutic formats and engineering platforms. Examples will illustrate format-dependent trends in key developability attributes and discuss how these learnings guide molecule design, optimization, and selection.
- Steven Jacobs, PhD - Senior Director of Biophysics & Molecular Attributes within Therapeutics Discovery, Johnson & Johnson Innovative Medicine
Reducing viscosity remains a major challenge for high-concentration antibody formulations. We present a hybrid physics-based and machine learning framework for screening novel excipients that mitigate antibody self-association. The approach rapidly identifies promising formulation additives while providing molecular insights into excipient-mediated modulation of protein–protein interactions, enabling rational formulation design.
- Pin-Kuang Lai - Assistant Professor, Stevens Institute of Technology
- Arvind Sivasubramanian, PhD - Senior Director, Computational Biology & Platform, Adimab
Generative AI is transforming antibody engineering, making immunogenicity a critical design parameter. This presentation highlights EpiVax's integrated platform combining AI-driven immunogenicity prediction, human PBMC and whole blood assays, and reverse translation of clinical immunogenicity data to create continuous learning models that optimize antibody design, reduce development risk, and accelerate the development of safer, more effective therapeutic antibodies.
- Vibha Jawa - Chief Scientific Officer, EpiVax, Inc
Are you within 10 years of completing your Master’s or Ph.D. and under the age of 35? If so, unlock a range of exclusive benefits by selecting the "Early Career Scientist" pass when you register. This session will spotlight short, novel research presentations from early career scientists in the antibody engineering and therapeutics community. You’ll also hear inspiring advice from distinguished mid-career scientists, plus enjoy the opportunity to connect and network with peers. You’ll also receive free admission to the afternoon pre-conferences workshops on December 13 and the opportunity to present a free poster during the main conference. Please Note: Access to the early career scientists session is only available to those who register for the main conference by selecting the “Early Career Scientist” pass. All passes subject to approval by conference organizers.
To be considered for a short oral presentation in this session, or for general information about this session, please contact Michael Keenan at Michael.keenan@informa.com
- Karen Silence, PhD - Head Preclinical Product Development, Argenx
- Robert Chen, PhD - Antibody Engineer, Chai Discovery
