Search
Search
Antibody-drug conjugate (ADC) development often involves chemical and biological steps that do not typically behave predictably. Factors such as conjugation variability, shifts in solvent behavior, handling of hydrophobic reagents, and strict controls for cytotoxic materials can influence process development stability as work moves closer to manufacturing. Strengthening these points early can reduce operational strain later in the workflow and supports steadier progress as programs advance.
ADC development relies on a sequence of operations that must hold steady as conditions shift. Solvent behavior, reaction setup, and early purification steps can run a process off course if they are not coordinated. Establishing a path across these activities helps teams anticipate variation, maintain steadier drug-to-antibody (DAR) ratios, and reduce the minor disruptions that accumulate during batch-to-batch work.
ADC bioprocessing brings together the steps required to create an antibody-drug conjugate, starting with monoclonal antibody preparation and moving through conjugation, purification, formulation, and final fill-finish. Each stage needs careful control to maintain stability and manage the distribution of conjugated species. When these steps work together smoothly, the resulting material can be prepared consistently for storage and clinical use.
Development teams often face a combination of chemical, biological, and operational pressures during development and ADC manufacturing. Cytotoxic materials require strict handling controls. Shifts in drug-to-antibody ratio distribution can make downstream work more demanding. Aggregation may surface during or after reaction steps, while solvent compatibility influences mixing, temperature management, and chromatography. Because DAR species and hydrophobic components behave differently, purification strategies often need to be adjusted.
Integrated solutions help steady the steps sensitive to shifts in ADC workflows. POROS HIC resins can separate DAR species with clear resolution, while mixed-mode resin can support flow-through reduction of aggregates without adding extra complexity to downstream work. Flexible solvent and buffer management, supported by reliable sourcing and preparation, helps teams maintain stable reaction conditions and reduce the operational strain associated with handling organic solvents.
Workflow optimization helps teams limit the factors that commonly lead to material loss or repeat work. Reducing aggregation lowers the burden on downstream steps. Improving consistency during conjugation supports steadier DAR distribution. More reliable buffer and solvent management reduce the chance of off-spec batches tied to preparation errors. Together, these improvements help stabilize raw material use and minimize batch-to-batch variability.
Thermo Fisher aims to bring together conjugation, purification, containment, and analytical tools into a single connected framework. Early steps benefit from robust mixing and solvent management options, while POROS HIC resins, as well as mixed-mode resin, help manage DAR distribution and aggregation. Containment systems and global sourcing capabilities support handling and supply chain continuity, giving teams a workflow that adjusts as programs move toward clinical development.
Thermo Fisher supports a variety of bioprocessing applications and therapeutic antibody workflows, including monoclonal antibodies and bispecific formats.
For research use or further manufacturing. Not for diagnostic use or direct administration into humans or animals.