Transforming Productivity, Precision, and Scientific Innovation

Figure 1. Laboratory robotics provide the flexibility to automate multiple instrument types in a safe, efficient and error-free workflow.

In laboratories around the world, a new chapter of automation is being written. From high-throughput screening in pharma to AI-driven analysis in life sciences, automation has long shaped how science is done. Yet today’s rise of robotic automation is more than just incremental progress, it is a revolution. By combining robotics, AI, and data-driven workflows, labs are moving beyond efficiency gains into a new era of precision, reproducibility, and scientific discovery.

Figure 1. Laboratory robotics provide the flexibility to automate multiple instrument types in a safe, efficient and error-free workflow.

The new generation of collaborative robots (cobots) goes far beyond task-based automation. They link sample preparation, instrument tending, data management, and reporting into seamless end-to-end workflows. For labs, this change comes at a crucial moment.

Workforce shortages remain a persistent challenge across industries. Robotics help fill these gaps, not by replacing scientists, but by liberating them from repetitive work like pipetting, weighing, or reagent addition. Scientists gain time to focus on higher-value tasks, while the lab gains an engine that never clocks out. Running overnight, on weekends, or through holidays, robotic systems can multiply output three- to fivefold simply by converting idle hours into active ones.

The benefits extend well beyond productivity. Robotic consistency eliminates the variability inherent in manual steps such as titrations or pipetting, ensuring reproducible results across every dataset. And by removing repetitive tasks, labs also combat “boreout,” allowing scientists to focus on the intellectually stimulating work that drives innovation.

Smarter Workflows, Smarter Labs

Modern robotics already span the full spectrum of laboratory tasks: preparing and distributing samples with microliter precision, mixing and vortexing, autonomously loading and unloading instruments, and directly integrating with LIMS, ELN, or LES systems. These capabilities streamline operations from start to finish, reducing errors while ensuring data integrity and traceability.

The next leap forward lies in intelligent workflow design. With digital twin technology, laboratories can design and optimize robotic workflows in a virtual space before implementation, ensuring smooth replication across global sites, a breakthrough for pharmaceutical R&D where consistency is critical.

Artificial intelligence and machine learning take this even further. Companies such as Atinery are pioneering self-optimizing systems that analyze experimental data in real time, adapt protocols dynamically, predict errors, and accelerate R&D cycles. In pharmaceutical development, this translates to shorter timelines, lower costs, and faster regulatory approvals. Coupled with predictive maintenance and intelligent scheduling, AI-driven robotics are laying the foundation for the autonomous laboratory of the future.

Figure 2. Flexible workflows require interchangeable grippers so that the right tool is used for the right job.

For many laboratories, the perceived high cost of robotics has been a barrier. Yet realistic return-on-investment assessments tell a different story. A compact industrial-grade robotic arm like ABB’s GoFa targets a return on investment of approximately two to three years, especially in multi-shift operations. Industrial-grade robots require minimal maintenance and come with long lifespan expectancy, these systems can even outlast conventional laboratory instruments, delivering value well beyond the initial investment.

Figure 3. Here, the the ABB GoFa is able to pickup different pipettes to ensure the maximum accuracy in sample preparation.

Looking Ahead: The Future of Lab Robotics

Pharmaceutical, biotech, chemical, environmental, and battery labs are leading adoption. For these sectors, the ability to process large sample volumes with minimal human input is game-changing, whether for QC, stability testing, or regulatory compliance.

The next frontier will not be about replacing humans, but collaboration: Cobots working side by side with scientists, supporting innovation rather than displacing it. With advances in modular platforms, even smaller labs will gain access to robotics, democratizing innovation across the scientific landscape.

Figure 3. Here, the the ABB GoFa is able to pickup different pipettes to ensure the maximum accuracy in sample preparation.

To bring this transformation to life, ABB and METTLER TOLEDO are inviting lab leaders to experience robotic automation firsthand through free Gemba-style lab walks.

A Gemba walk takes you directly to the laboratory floor, where you can observe processes in action, speak with experts, and explore opportunities for improvement. This immersive, hands-on experience allows you to see how robotics can fit into your workflows and unlock new levels of efficiency and precision.

Schedule your Gemba walk today and discover how robotics can reshape your laboratories for the future.

Figure 4. Combining robot solutions from ABB and METTLER TOLEDO Laboratory instruments ensures the maximum coverage of your laboratory workflows in one system.

Simon Taylor

Simon Taylor leverages 20+ years in analytical chemistry and product management to advance laboratory technology.

A green energy expert, he develops strategic solutions for the ever-changing battery industry, driving growth and positioning Mettler-Toledo at the helm of sustainable innovation.