PerkinElmer Protome Works System

• Automated sample preparation for mass spectrometry analysis in proteomics research.
• High-throughput protein digestion and peptide purification.
• Robotic handling of microplates and reagents in drug discovery and development.
• Standardisation of protein sample preparation workflows in biotech laboratories.
• Parallel processing of multiple samples for increased laboratory efficiency.

Typical capacity

This class of system commonly handles multiple microplates (e.g., 96-well or 384-well) simultaneously for high-throughput processing.

Power supply

Units of this type typically operate on standard laboratory power, commonly 230V, 50Hz in the UK.

Footprint

Robotic handling systems for lab automation can vary in size, but typically require dedicated bench space or a small laboratory footprint.

Throughput

Designed for automated, unattended operation, offering significantly higher throughput compared to manual methods for sample preparation.

Automation features

Commonly includes robotic arms, liquid handling capabilities, temperature control, and integrated plate readers or incubators.

Software integration

Typically features dedicated control software for programming workflows and integration with laboratory information management systems (LIMS).

• What kind of maintenance does a system like this typically require?

  Routine maintenance commonly involves cleaning, calibration of liquid handling components, and periodic checks of robotic arm mechanics. Specific schedules will be detailed in the manufacturer's manual.

• Can this system be integrated with other lab equipment?

• What are the typical space requirements for a robotic protein handling system?

• Is specialised training required to operate this equipment?

• What consumables are typically used with a system like this?

Robotic handling systems in lab and pharma settings are generally well-regarded for improving throughput and consistency. Buyers typically value their precision, reduced contamination risk, and ability to handle repetitive tasks reliably. When purchasing used equipment, buyers commonly assess mechanical wear, software compatibility with existing systems, and maintenance history. Key strengths include long operational lifespans and relatively straightforward integration into established workflows, though compatibility assessment remains essential.

General overview for this equipment type