How to Adopt Laboratory Automation: A Step-by-Step Guide

What if you could cut your lab’s workload in half while boosting accuracy and compliance? Sounds too good to be true, right? Lab automation makes it possible, letting you streamline repetitive tasks, reduce human errors, and enhance productivity. Continue reading to discover how your QC department can benefit from implementing automation tools without breaking the bank.

Philipp Osterwalder
CEO & Co-Founder of 1LIMS. Transforming Labs for sustainable added value 🚀

QC departments at manufacturing companies handle multiple repetitive processes daily. Apart from quality checks, they also re-test samples, calibrate lab instruments, record data from measurements, and create reports. These activities take hours each day, resulting in lost time, low productivity, and human errors.

This is why more and more laboratories embrace laboratory automation. Lab automation involves advanced technologies and software that perform laboratory tasks with minimal human intervention, reducing the employees’ workload and the risk of errors.

Still, some companies hesitate about implementing automation tools, thinking it’s too complex and costly. But in fact, even small labs can allow automation technology without huge time and cost investments. The main question is: How can laboratories choose the right solution and implement it into existing lab processes? Read on to discover.

What is laboratory automation?

Laboratory automation refers to the use of technology and automated systems to streamline workflows, improve operational efficiency, and enhance the quality of scientific research in laboratories. By integrating automated equipment, software, and methodologies, laboratories can perform tasks that were previously done manually, such as sample preparation, data analysis, and experimentation. Laboratory automation systems are designed to increase productivity, reduce errors, and improve the overall efficiency of laboratory operations.

Laboratory automation is particularly beneficial in clinical diagnostics, enhancing productivity and data quality. This transformation allows laboratory staff to focus on more complex and value-added activities, ultimately advancing scientific research and operational efficiency.

Example of lab automation technology

Laboratory automation can mean multiple technologies, from AI tools to electronic lab notebooks (ELNs). But you don’t need to implement everything at once to improve the quality control workflows. The automation solution should tackle specific bottlenecks in your lab processes that slow down your employees and cause errors or delays. So before adopting automation technology, you should ask yourself: “What exact processes are we looking to automate?”

The answer to this question varies depending on your business specifics. For instance, service laboratories may be looking to automate invoicing, while manufacturing companies that test internal production quality might be interested in automating sample management.

So overall, laboratory automation enables new and improved processes, enhancing productivity and simplifying complex workflows. To define how laboratories can automate their workflows, let’s overview the main types of lab automation solutions and what processes they can speed up.

Laboratory information management system

Laboratory information management systems (LIMS) are software solutions that help labs automate data management. In a clinical laboratory, traceability is vital for ensuring patient safety and accuracy, as it allows for comparing test results and fulfilling accreditation requirements. By centralizing all sample-related data in one place, LIMS improves access to data, simplifying collaboration between quality assurance employees and departments. It also enables compliance with stringent regulatory standards while reducing the turnaround time in the lab.

LIMS solutions often integrate with laboratory instruments and ERP systems to automate data transfer and reduce human error.

AI or machine learning (ML) laboratory automation solutions

Labs can adopt AI and ML solutions to quickly and accurately analyze vast amounts of data. For instance, an AI-powered system can sift through terabytes of genetic data in minutes and pinpoint variations that signal a potential disease marker – a task that would take weeks if done manually.

AI powers predictive analytics, helping researchers forecast outcomes based on historical data and identify trends or correlations within datasets.

Collaborative robotics to streamline workflows

Collaborative robots, or cobots, work alongside humans in laboratory settings, automating repetitive tasks that previously required humans. Equipped with advanced sensors and intuitive programming interfaces, cobots can handle a variety of tasks, from simple pick-and-place operations to more complex processes such as pipetting, sample handling, chemical mixing, and so on. Cobots can reduce the risk of injuries or exposure when it comes to hazardous materials.

High-throughput screening (HTS) platforms

High-throughput screening (HTS) platforms, often part of a laboratory automation system, enable researchers to quickly test thousands of chemical compounds by integrating various analyzers and clinical IT solutions to streamline processes. Automating the mixing of chemicals and helping researchers to measure biological responses, HTS platforms can be used to speed up the discovery process in drug development and reduce the amount of manual labor in the lab.

Remote monitoring and control systems

Remote monitoring and control systems allow researchers to adjust temperature and humidity levels in incubators, monitor the progress of experiments through live camera feeds, control the speed and duration of sample mixing processes, and perform other lab operations remotely. Thanks to remote monitoring systems, researchers can control critical lab parameters and analyze data without the need for frequent physical checks and interventions.

Modular platforms

Modular platforms are flexible systems with interchangeable parts like pipettes, centrifuges, robotic arms, or sensors that automate specific processes. For example, labs can integrate a module for pipetting liquids or for spinning samples in a centrifuge. These modules work together to automate tasks that previously were done manually, making experiments faster and more accurate.

To sum up, here's a comparative table of each technology type and processes they automate:

Each system highlighted requires a strategic approach for successful implementation. To get a better picture, let’s look at some key considerations regarding lab automation and how it’s performed.  

Lab automation systems: key considerations and main steps to adopt it

When implementing lab automation systems, several key considerations must be taken into account to ensure a successful transition. First, it’s crucial to select the appropriate automation technology that aligns with your laboratory’s specific needs. This includes evaluating the level of integration required with existing laboratory equipment and determining the extent of customization needed to meet unique laboratory requirements. Additionally, comprehensive training for laboratory staff is essential to ensure they can effectively operate and maintain the new systems. A well-defined plan for ongoing maintenance and troubleshooting is also necessary to sustain the system’s performance. Lastly, consider the cost savings and return on investment (ROI) that lab automation systems can offer, as these factors play a significant role in justifying the initial investment and long-term benefits.

Lab automation is a straightforward process that involves several major stages. For your convenience, we've split each step into checklists to follow.

Step 1: Evaluation

  • Evaluate the laboratory's specific needs, the expected return on investment (ROI) from automation, and the budget.
  • Analyze existing processes to identify areas that can be improved with lab automation. Select processes that achieve maximum efficiency and accuracy through automation.
  • Choose the proper solution for the chosen processes (LIMS for data management, robotics for sample handling, or else).

Step 2: Implementation

  • Choose a trustworthy vendor that specializes in laboratory automation. Ensure the solutions they offer meet your lab's requirements. For example, you can book a free system demo to see how a specific solution works in action.
  • Customize automation solutions according to your laboratory's specific needs and workflows. This may involve configuring robotic systems and integrating existing software platforms and systems used in the laboratory, such as laboratory information management systems (LIMS), electronic lab notebooks (ELNs), and data analysis software.
  • Conduct a pilot phase to assess the performance of the automated systems in real-world laboratory conditions. Ensure the system meets regulatory requirements, produces reliable results, and maintains data integrity. If needed, make adjustments based on feedback from laboratory staff.
  • Ensure comprehensive training for staff to manage, maintain, and troubleshoot automated systems.

Step 3: Maintenance

  • Keep maintaining the solution. Introduce new features or adapt the system to changing needs over time.

With this checklist, you'll be able to integrate any automation solution into your existing lab workflows.

Measuring success and overcoming challenges

Measuring the success of lab automation systems involves tracking key performance indicators (KPIs) such as productivity, error rates, and cost savings. These metrics provide valuable insights into the effectiveness of the automation system and its impact on laboratory operations. However, implementing lab automation is not without challenges. Integrating new equipment with existing systems, ensuring software compatibility, and providing adequate staff training can be significant hurdles. To overcome these challenges, it is essential to have a clear implementation plan, including a detailed timeline, comprehensive training programs for laboratory staff, and access to ongoing technical support. By addressing these challenges proactively, laboratories can maximize the benefits of their automation systems and achieve their operational goals.

Where do you start?

As you have learned, there are many laboratory automation solutions out there. Despite that, many QC labs, especially those in the manufacturing industry, are still stuck in the analog era. They still rely on paper documentation to track and manage samples.

If this is the case in your laboratory, we recommend implementing LIMS first.

1LIMS is an intuitive cloud-based platform that helps service laboratories and QA departments in the manufacturing industry increase turnaround time, stay compliant, and keep control over data.

Let's dive deeper into 1LIMS benefits.

1LIMS – key to lab data management

1LIMS is an ultimate data management solution that brings all lab data to a single digital cloud-based platform, making the data accessible and traceable. It automates data capture and sample management, speeding up workflows in the lab from making test orders to creating reports. Companies using 1LIMS cut the quality management workload by half, on average.

1LIMS enables laboratories to maintain compliance with strict regulatory standards, making compliance audits a stress-free experience. Unlike searching through paper records, lab employees can access any required report with just a couple of clicks.

Finally, by implementing 1LIMS in the laboratory, our customers achieve up to 50% annual savings.

Unlike other similar solutions on the market, it takes only a month to get 1LIMS up and running. We ensure it meets your laboratory requirements using our unique approach, where we evaluate your current needs, provide cost and benefit analysis, and build a roadmap to gradual 1LIMS implementation.

Here is a brief overview of our laboratory digitalization consulting process:

1. Current situation evaluation

Our experts will schedule a visit to your company to evaluate your existing quality control processes.

2. Finding opportunities for optimization

After defining what can be improved, we'll introduce a list of best practices that you can adopt immediately to solve your current bottlenecks.

3. Cost and benefit analysis

We'll estimate the specific cost of implementing a customized 1LIMS and what benefits you will gain with it.

4. Implementation roadmap

Finally, we'll define a detailed roadmap to 1LIMS implementation with specific steps and timelines.  

If you want to take the first step to lab automation, contact us and let's discuss your laboratory needs.

Future of laboratory automation

The future of laboratory automation is both exciting and rapidly evolving. Advances in automation technology, artificial intelligence (AI), and machine learning (ML) are poised to further enhance the efficiency and productivity of laboratory operations. These technologies will enable more sophisticated data analysis, predictive modeling, and automation of complex tasks. Additionally, the growing demand is driving the development of new laboratory automation solutions tailored to these needs. As the field continues to evolve, it is essential for laboratory professionals to stay up-to-date with the latest trends and technologies. By doing so, they can remain competitive and leverage cutting-edge advancements to improve their laboratory operations.

Conclusion

In conclusion, laboratory automation is a critical component of modern laboratory operations. By streamlining workflows, improving operational efficiency, and enhancing the quality of scientific research, lab automation systems can help laboratories achieve their goals and stay competitive. When considering the implementation of lab automation, it is important to evaluate key factors such as automation technology, integration, and customization. Additionally, measuring success and overcoming challenges are essential steps in maximizing the benefits of lab automation. By following these guidelines, laboratories can position themselves for future success and continue to advance the field of scientific research.

TABLE OF CONTENT
Share this post
Philipp Osterwalder
CEO & Co-Founder of 1LIMS. Transforming Labs for sustainable added value 🚀

Learn more about 1LIMS implementation services

Preferences

Privacy is important to us, so you have the option of disabling certain types of storage that may not be necessary for the basic functioning of the website. Blocking categories may impact your experience on the website. More information

Accept all cookies

These items are required to enable basic website functionality.

Always active

These items are used to deliver advertising that is more relevant to you and your interests.

These items allow the website to remember choices you make (such as your user name, language, or the region you are in) and provide enhanced, more personal features.

These items help the website operator understand how its website performs, how visitors interact with the site, and whether there may be technical issues.

Thank you! Your submission has been received!
Oops! Something went wrong while submitting the form.