When Process Design Fails: 5 Common Planning Gaps That Create Downstream Purification Bottlenecks
Jul. 16, 2026 | 8:00 am PDT, 11:00 am EDT, 17:00 CEST
In this GEN webinar, our speakers will examine five common planning gaps that can contribute to bottlenecks, including single-source material dependency, raw material pack size selection, sensitive buffer designs, and single-use systems designed without realistic failure modes.
Embedding Regulatory Strategy in Cell and Gene Therapy Development
Sep. 17, 2026 | 8:00 am PDT, 11:00 am EDT, 17:00 CEST
In this GEN webinar, experts from Rose BioSolutions, a CDMO and Cell Solutions organization formed from Charles River Laboratories’ businesses, will discuss how integrating regulatory strategy at the earliest stages of development can reduce overall risk and improve program outcomes.
Advancing Microbial-Derived Biologics from Scale-Up to Commercial Production
Sep. 29, 2026 | 8:00 am PDT, 11:00 am EDT, 17:00 CEST
In this GEN webinar, our expert speaker, Sam Zhang, PhD, will discuss emerging trends and capacity needs across the global late-stage microbial pipeline and CDMO landscape.
One Standard, Multiple Platforms: ICH Q2(R2) Qualification of Host Cell Protein Analysis by LC–MS/MS
Sep. 30, 2026 | 8:00 am PDT, 11:00 am EDT, 17:00 CEST
In this GEN webinar, USP and Alphalyse present the work qualifying beta-lactoglobulin (LACB) as a cross-platform standard for LC-MS/MS HCP analysis.
Is Targeted Protein Degradation the “Break” Neurology Needs?
Oct. 01, 2026 | 8:00 am PDT, 11:00 am EDT, 17:00 CEST
In this GEN webinar, our expert speaker Angela M. Cacace, PhD, will discuss the increasing rationale for targeting key drivers of neurological disease with protein degraders and how this approach may enable deeper, more precise modulation of disease biology.
The Next Wave of ADC Innovation: The Science Behind Dual-Payload Bioconjugates
Oct. 09, 2026 | 8:00 am PDT, 11:00 am EDT, 17:00 CEST
In this GEN webinar, our expert speaker, Cindy Cheng, PhD, will explore how mechanism-driven payload pairing counters specific resistance pathways by combining orthogonal or complementary mechanisms.
