PCI High Potent Manufacturing
LB Bohle – 10.06.2025
Temax_Krautz

Current Edition

Current Edition

Subsection - CDMO

Examining how innovative technologies, integrated manufacturing approaches and AI are shaping manufacturing.

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Subsection - Injectables

Exploring advances in injectable drug delivery and sterile manufacturing, designed to improve patient-centric delivery.

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Subsection - Neurodegenerative Diseases

Exploring emerging approaches to neurodegenerative disease research and treatment.

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Subsection - Nasal & Pulmonary

Highlighting how advances in nasal and pulmonary drug delivery, formulation, devices and analytics are enabling more complex therapies.

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CPHI 2027
DDL 2026

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Nipro August 26

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Merxin March 2026

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Aurisco 300×250

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Lifecore Biomedical

Fragment Screening of Massively-Parallel Ligand Arrays Using the Carterra® Ultra® SPR Platform

Key Highlights
• Carterra Ultra® offers the enhanced speed and sensitivity necessary to support Fragment-Based Lead Discovery (FBLD).
• Ultra’s large ligand array allows for many targets, off targets, mutants, and multiple species to be measured in parallel; a 100-fold enhancement over other SPR systems.
• Utilise ready-made panels of biotinylated-proteins to standardise the assay parameters so you can move directly to finding hits and drive your medicinal chemistry programmes.

Fragment-Based Lead Discovery (FBLD) has emerged as a core approach to early-stage hit finding in drug discovery programmes.¹ This form of drug discovery is distinguished by the screening of libraries of very small chemical compounds (heavy atom count < 17), that bind with low affinity (double digit micromolar to millimolar KD) to therapeutic targets. Screening small compounds allows for an efficient sampling of the chemical space relevant to medicinal chemistry. The identified binders, in concert with X-ray co-crystal or cryo-electron microscopy structures, serve to provide a map of how chemical matter can interact efficiently with the targets.

The first step in FBLD is the screening of a fragment library using one or more hit-finding technologies capable of detecting the low-affinity transient interactions of very small compounds with drug targets. Surface Plasmon Resonance (SPR) has found widespread use in industry and academia for initiating and supporting FBLD programmes from hit finding through lead optimisation. SPR offers a broad dynamic range (mM to pM), sensitivity (100 kDa proteins), applicability to a wide range of target classes including membrane proteins, cost effectiveness, flexibility (direct binding and competition formats), and throughput.²,³ The throughput of various commercial SPR platforms has improved with successive generations of instruments through a combination of reduced sample injection cycle times and increased ligand capacity allowing the testing of a single compound against multiple proteins simultaneously. This capability is frequently used to increase the target throughput of an SPR lab in supporting screening and hit-to-lead campaigns, provide information about mutants and off targets, and compile data on target ligandability.

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MedPharm 16/07

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Biopharma group march 2026

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Silgan March 2026

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Terumo 06/26

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Scott Pharma – 25.03.2025

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Bespak

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Solstice

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Bachem skyscraper
Tjoapack
Aptar – 08/01/2026