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Generative AI (GenAI) and ChatGPT are here to stay. There are an incredible number of accessible AI assistants, including CLAUDE.AI, Microsoft CoPilot, LLAMA, and others,  for immediate implementation into professional workflows. These technologies have changed the way many people do their jobs, improving efficiency.  

Many in biotech and pharma are slowly but surely jumping on the bandwagon. Just look at Moderna’s recent announcement of integrating ChatGPT across all of its business functions.

For the broader life science industry, learning how to use these new tools and leveraging them in our daily lab operations to optimize data access and insight will be very rewarding in the coming years. 

If you’re entirely new to GenAI, fear not; I’ve created a short list of 10 immediate use cases and action items for leveraging ChatGPT for your lab’s work.

Before getting into it, remember that ChatGPT is not the end-all, be-all (for now, anyway!). It is simply a companion tool for your work. Treat it as such, and always verify and validate your work.

#1. Literature Review and Research Assistance

ChatGPT can help researchers quickly sift through vast amounts of literature to:

  • Summarise key findings from relevant research papers.
  • Extract specific information such as methodologies, results, or conclusions from scientific articles.
  • Identify gaps in existing literature and suggest areas for further exploration.
  • Provide insights into the latest trends and developments in biotech research.

Action Items

  • Provide ChatGPT with specific keywords or topics to search for relevant literature.
  • Request summaries or analyses of selected papers to extract essential information.
  • Ask ChatGPT to compare and contrast multiple studies on a particular topic to identify common themes or discrepancies.

#2. Experimental Design Optimisation

Researchers can use ChatGPT to:

  • Brainstorm ideas for experimental designs based on research objectives.
  • Optimize experimental parameters such as sample size, concentration, or incubation time.
  • Explore different methodologies or approaches to achieve desired outcomes.
  • Evaluate the feasibility and potential limitations of proposed experimental designs.

Action Items

  • Describe the research goals and variables to ChatGPT and request suggestions for experimental designs.
  • Seek feedback on proposed methodologies and ask for alternative approaches or optimizations.
  • Use ChatGPT to simulate experimental conditions and predict potential outcomes before conducting actual experiments.

#3. Data Analysis and Interpretation

ChatGPT can assist in data analysis by:

  • Performing statistical analyses on experimental data.
  • Interpreting results and identifying trends or patterns.
  • Generating visualizations to represent data effectively.
  • Providing insights into the significance and implications of research findings.

Action Items

  • Input raw data or summary statistics into ChatGPT and request specific analyses (e.g., t-tests, ANOVA, regression).
  • Ask ChatGPT to explain complex statistical concepts or methodologies used in data analysis.
  • Collaborate with ChatGPT to explore alternative interpretations of experimental results and validate conclusions.

#4. Protocol Development and Troubleshooting

Researchers can seek assistance from ChatGPT to:

  • Develop detailed protocols for experimental procedures.
  • Troubleshoot technical issues encountered during experiments.
  • Guide on optimizing experimental workflows and minimizing errors.
  • Suggest alternative methods or approaches to overcome experimental challenges.

Action Items

  • Describe the experimental procedure or issue to ChatGPT and request step-by-step protocols or troubleshooting tips.
  • Collaborate with ChatGPT to refine existing protocols and streamline experimental workflows.
  • Seek advice from ChatGPT on equipment selection, reagent preparation, and quality control measures.

#5. Hypothesis Generation and Validation

ChatGPT can aid researchers in:

  • Generating hypotheses based on existing data or literature by feeding it into the system.
  • Evaluating the feasibility and testability of proposed hypotheses based on already existing experiments
  • Designing experiments to validate hypotheses and generate empirical evidence.
  • Iterating on hypotheses based on experimental results and feedback from ChatGPT.

Action Items

  • Discuss research objectives and available data with ChatGPT to generate novel hypotheses.
  • Request assistance in designing experiments to test specific hypotheses and predict expected outcomes.
  • Analyse experimental results in collaboration with ChatGPT to validate or refine hypotheses and formulate new research questions.

#6. Documentation and Report Writing

ChatGPT can help researchers with communications efforts, such as:

  • Drafting research proposals, experimental protocols, manuscripts, and reports.
  • Ensuring clarity, coherence, and adherence to scientific writing conventions.
  • Editing and revising written documents for grammar, style, and content.
  • Incorporating feedback from ChatGPT to improve the quality and impact of written communications.

Action Items

  • Provide ChatGPT with an outline or key points to include in the document and request assistance in drafting specific sections.
  • Collaborate with ChatGPT to refine language and structure, ensuring the document is clear, concise, and scientifically accurate.
  • Use ChatGPT to generate figures, tables, or graphical abstracts to enhance the visual presentation of research findings.

#7. Expert Consultation and Collaboration

ChatGPT can bring researchers together by: 

  • Connecting with experts in specific fields or disciplines.
  • Facilitating interdisciplinary collaboration and knowledge exchange.
  • Seeking advice and insights from experts on complex scientific questions or challenges.
  • Fostering a collaborative environment by integrating ChatGPT into research discussions and team meetings.

Action Items

  • Describe the research topic or question to ChatGPT and request recommendations for experts or relevant resources.
  • Use ChatGPT to facilitate virtual meetings or discussions with experts to exchange ideas and seek guidance on research projects.
  • Incorporate input from ChatGPT and external experts into research planning, experimental design, and data interpretation.

#8. Biological Data Mining and Analysis

ChatGPT can assist in mining large amounts of data. It can help:

  • Access and analyze biological databases to extract relevant information.
  • Perform genomic, proteomic, or metabolomic data analysis.
  • Identify patterns, correlations, and biological insights from large datasets.
  • Integrate data analysis results with experimental findings to derive meaningful conclusions.

Action Items

  • Provide ChatGPT with specific queries or datasets and request assistance with data mining and analysis.
  • Collaborate with ChatGPT to interpret complex biological data and identify potential relationships or trends.
  • Use ChatGPT to explore bioinformatics tools and methodologies for data analysis and visualization.

#9. Regulatory Guidance

ChatGPT can aid you in:

Action Items

  • Discuss regulatory concerns with ChatGPT and seek guidance on best practices and compliance requirements.
  • Collaborate with ChatGPT to develop protocols and procedures that adhere to regulatory guidelines.
  • Use ChatGPT to stay updated on relevant regulations, policies, and guidelines from regulatory agencies and professional organizations.

#10.  Continual Learning and Knowledge Expansion

Researchers can use ChatGPT as a learning tool to;

  • Stay updated on the latest advancements and discoveries in biotech research.
  • Explore new research areas, methodologies, and technologies.
  • Enhance understanding of complex scientific concepts through interactive dialogue and exploration.
  • Access educational resources, training materials, and scientific literature to support professional development.

Action Items

  • Engage ChatGPT in discussions about emerging topics or trends in biotech research and request relevant resources or references.
  • Use ChatGPT to explore online courses, webinars, and workshops on specialized topics to expand your knowledge and skills.
  • Collaborate with ChatGPT to develop personalized learning plans and set professional growth and development goals.
  • Regularly interact with ChatGPT to ask questions, seek clarification, and deepen understanding of scientific principles and methodologies.

Conclusion

To utilize AI, GenAI, large language models (LLMs), and machine learning (ML) wisely, it is essential to have structured data to input into the system. If the data is not clean, the insights received from the tool of choice will not have the level of trust that you need for ethical science practices. 

If you’d like to learn more about Digital Lab Strategy, read our comprehensive article on Digital Lab Strategy or schedule a free personal demo with our team.

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AI

Using ChatGPT Wisely with Your Lab Work

Start utilising AI wisely for enhanced productivity and scientific insight in your biotech and pharma endeavours.

eLabNext Team
Zareh Zurabyan
|
5 min read

How Boston College developed a comprehensive program to promote laboratory safety

As Director of Environmental Health and Safety for Boston College, Gail Hall has experienced quite the journey. During her tenure, she’s overseen a transformation in her team and how it manages laboratory safety.

The department experimented with a number of information and training management approaches over the years, from humble beginnings with paper files and binders, to plugging names into an excel spreadsheet, to attempts with home-grown software.

The real traction towards systematic compliance began with the adoption of ChemTracker. Enterprise software allowed the team to begin managing chemical inventory in an efficient, unified fashion. ChemTracker represented a huge advance over the filing cabinets, and it was just the beginning.

Broadening horizons of safety

By 2020, the EHS team saw additional opportunities for improvement.

“The pain point was the diffusion of all kinds of information out there,” said Gail. “We had records here and records there. We needed a better way of keeping track of all that information.”

“The goal was to bring it together, centralize it,” said Gail, recalling the aspirations for a program that went beyond managing chemical inventories. “Linking people to laboratories. Linking people to hazards. Training people for the appropriate hazards in the laboratory.”

The first change was hiring two new Lab Safety Specialists.

The data EHS was able to extract from SciShield demonstrated to the senior administration the need for more people to manage laboratory safety.

With the bolstered team in place, Gail set about implementing a solution to the broader informational challenge.

Building on the SciShield platform

With a clear vision of what they wanted and a successful track record with ChemTracker, the EHS team didn’t have to search far.

“We didn’t really look at other solutions because of our experience with ChemTracker,” said Gail. “It was a matter of convincing the administration that the other pieces of SciShield were important.”

With 99 lab groups and 500 research spaces under the safety department’s purview, the administration quickly understood the case for a unified approach to safety management. Gail’s team set about implementing it.

Boston College expanded on the SciShield platform, adopting modules for SDS Search, Inspection, Biosafety Management, Training LMS, Hazardous Waste, Equipment, Incident Management and other aspects of lab safety.

It was all part of a single, integrated, web-based solution; a robust safety program with comprehensive visibility of the hazards exposed to the campus community of staff and researchers.

Delivering fundamental change

Over the evolution of their program, the BC EHS team has developed true confidence in the reliability, security and availability of their data – and their ability to act on it.

Prior to implementation of the SciShield platform, it would have taken all day to create a report of all lab groups and their principal investigators or lead scientists. Now it can be done in five minutes.

According to Gail, creating a list of lab groups or individuals that work with a particular hazard, or a list of locations with a given hazard, wouldn’t even have been possible prior to SciShield. Now her team can create it in 15 minutes.

Similarly, a report of overall safety compliance, almost inconceivable previously, can be generated in an hour.

On a broader scale, visibility to laboratory data allows EHS to identify trends, justify resources and develop appropriate programs and campaigns to address important safety matters.

For example, observations made during Lab Safety Inspections led to efforts to educate researchers on PPE requirements. In addition to creating fliers for the labs, the team utilized the platform to send seasonal reminders about safe lab uniforms during the summer months.

Continuing improvement: Focus on training

The lab safety team continues to strengthen a safety culture, with regular working-group meetings, extensive communication, and ongoing refinements to the Chemical Hygiene Plan (CHP).

A particular interest of Gail’s is promoting the existing resources to their various labs. One area of focus has been training.

The department provides eight training courses to the Boston College community, six web-based (previously delivered in person or via Zoom, now available remotely within SciShield). EHS also hosts 12 instructor-led sessions per year. In 2023 BC users completed close to 1300 course training records. And every training session directs the participants to resources on Google Sites.

The SciShield Training LMS , with its capability to send automated reminders, has been instrumental to helping people get appropriate training.

“The Training LMS  has allowed us to direct people to the training they need to take, whether it’s radiation training, biosafety training, general lab safety or waste training,” said Gail.

According to Gail, one of the biggest time savings benefits with the Training  is reporting.

“We can readily access data and show how we are doing in the laboratories,” said Gail, who reports to an executive oversight committee. “We pull it right out of the application.”

And since implementing the , her team loves to talk about training.

A training breakthrough

The SciShield platform has helped the team deliver a profound improvement in laboratory safety training.

With the Training LMS  in place, the safety team has newfound confidence that people are adequately trained for hazards, and the training assigned is tailored to personal hazard exposures.

“We have up to 97% compliance,” said Gail.

Additionally, the Training LMS  has eliminated the need for an outside consultant that had provided biosafety training and audits.

Prior to using the Training LMS , producing compliance reports was for the most part infeasible. Now Gail’s team creates a variety of reports in mere minutes:

  • Overall training compliance: 15 minutes
  • Compliance for a given course: 5 minutes
  • Users overdue for a course: 5 minutes
  • Completed records for a course: 5 minutes
  • Report for a department head: 5 minutes

Looking to the future

The work of a safety department is never done. At Boston College, the EHS team continues to seek ways to bring ever more awareness and diligence in all its labs. But with a scalable, centralized information foundation, the program has never been better positioned.

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Boston College - A transformational journey

Boston College's EHS team enhances lab safety awareness with a scalable, centralized foundation, ensuring improved diligence in all labs.

eLabNext Team
Craig Morgan
|
5 min read

Electronic lab notebooks (ELNs) benefit both industrial and academic labs. The ability to quickly query all your laboratory activities to identify new avenues for discovery or to troubleshoot an ongoing issue is a massive advantage over traditional paper notebooks. 

However, setting up and maintaining an ELN so that all the benefits of going digital are available is not trivial. 

This is where an ELN consultant (such as Rebecca De Souza) can help set you and your lab up for success! In the blog below, we'll discuss what an ELN consultant is and the top 6 ways I've seen ELN consultants help laboratory teams achieve digitalization zen.

What is an ELN Consultant?

An ELN consultant is a laboratory professional who provides guidance and expertise in choosing, implementing, customizing, and optimizing an ELN for a laboratory. ELN consultants are crucial in helping research organizations effectively leverage digital tools, enhance collaboration, and ensure compliance with industry standards and regulations.

6 Ways an ELN Consultant Can Benefit Your Lab

#1: Take the setup burden off of your laboratory staff

Selecting and setting up an ELN often falls on the shoulders of laboratory personnel, who must balance ELN implementation with their usual lab responsibilities. This makes sense, given that they will be the primary users of an ELN. 

However, it does take away valuable time spent conducting research or other laboratory tasks. In addition, given the newness of ELNs, many lab workers don't have experience using an ELN, much less know the best path to selecting and setting one up. 

An ELN consultant works with lab professionals tasked with ELN selection and setup, providing valuable knowledge through experience. They can help your team establish your lab's needs, show how different ELNs compare when meeting these needs, create a plan for ELN rollout, identify common setup pitfalls and how to avoid them and assist with the training staff. While laboratory staff involvement is a critical component of ELN setup success, having an ELN consultant to help ensures that the laboratory team can focus more on their everyday responsibilities while still staying involved in the ELN selection and implementation process.

#2: Navigate the needs of stakeholders

Three primary stakeholders are invested in the success of an ELN:

  1. The corporation or principal investigator (PI) / lab head
  2. Legal and IP teams
  3. Laboratory staff

Each of these entities has a vested interest in ensuring that lab data is recorded, searchable, and auditable. 

However, each party's expectations may differ or be in direct conflict. For example, the corporation or PI and legal and IP stakeholders may expect overly detailed ELN record keeping but not consider the time investment or practicality of keeping records up to date. Discordance between these three groups can result in low ELN compliance and confusion about the expectations or purpose of the ELN, which can ultimately lead to the abandonment of an ELN. 

Having navigated this trifecta of needs before, an ELN consultant can help those tasked with selecting and setting up an ELN. The consultant can directly interface with all three stakeholders or assist those in charge of the ELN implementation and maintenance with these interactions. Keeping this trifecta of stakeholders in balance will ultimately lead to the long-term success of your lab's ELN.

#3: ELN organization

While the name ELN suggests that it is a simple replacement for a traditional paper notebook, it's more akin to a filing cabinet than a notebook. As this analogy suggests, an ELN (depending on which one you're using) is more like an organizational system allowing data input and storage. 

Most ELNs have a built-in organizational structure. For example, the eLabNext Digital Lab Platform has the Project>Study>Experiment structure, with additional options to create project groups as an extra layer of organization. 

It can be tempting to allow each individual or team in your lab to determine how to use the built-in organizational tools; however, this can lead to confusion when searching for specific data. How a corporation or lab decides how to structure its ELN organization will depend on their individual needs, and an ELN consultant can use their experience to help guide that decision and harmonize the organization structure across team members. If you already have an ELN and need to restructure and re-organize, an ELN consultant can also help with this!

#4: Generating workarounds and increased efficiency

If carefully selected, the ELN you choose should be capable of fulfilling most of your lab's needs — emphasis on the "most," as there are often lab-specific scenarios that no software developer could preconceive. ELN consultants can help devise workarounds to cover these unforeseen situations, whether they are suggesting alternative approaches or working with a software developer on your behalf to create a solution. They can also assist by using their experiences working in a lab with an ELN to assess the impact of required ELN tasks on day-to-day laboratory workflows and where streamlining can be applied to increase efficiency.

#5: Better training and documentation

After selecting an ELN, deciding on its organizational structure, and setting it up, it must be rolled out to the larger team or organization. This involves creating an ELN handbook or usage policies and providing training. 

An ELN consultant can assist by directly creating these documents and training sessions/videos. They can also work with your designated laboratory, "Super Users," to help train current and new staff or with additional training when new ELN features become available. This can reduce your staff's training burden so they can focus on their other research-focused objectives.

#6: ELN compliance

An ELN is only as useful as the data recorded in it. As such, ELN compliance is vital for success. Many of the topics discussed above can impact ELN compliance, and an ELN consultant can assist with avoiding common compliance pitfalls. 

Suppose your organization or lab has known non-compliance issues or needs help identifying compliance issues. An ELN consultant can assist you with assessing the current degree of compliance, identifying barriers to compliance, and creating strategies for increasing compliance.

Experience the Benefits of an ELN Consultant

An ELN consultant can provide valuable assistance as your organization or lab navigates the ELN landscape. They can reduce the burden of setting up and maintaining an ELN, allowing your team to return to what matters most: their next discovery! 

If you need an ELN consultant, contact me at rebecca.a.g.desouza@gmail.com or connect with me on LinkedIn.

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Digitalization

The Benefits of Hiring an ELN Consultant

Unlock the full potential of Electronic Lab Notebooks (ELNs) with insights from our latest article on the benefits of hiring an ELN Consultant.

eLabNext Team
Rebecca De Souza
|
5 min read

Materials that are hazardous due to their biological or infectious properties are called biohazardous materials or simply biohazards. Research laboratories work with a variety of biological agents including recombinant or synthetically derived nucleic acid, blood, tissues, body fluids, cell lines, bacteria, viruses, viral vectors, plasmids, fungi, prions, or parasites that cause disease in humans, animals, or plants.

To ensure the safety of people, the environment, and the public, it’s crucial to have proper biosafety measures in place. Certain workplace safety laws require employers that are exposed to transmissible infectious pathogens to have effective written safety plans and controls in place. Employers must conduct biosafety risk assessments to determine which employees have exposures from work activities or conditions that are reasonably anticipated to elevate risk of contracting a disease caused by an infectious agent.

Laboratories that perform procedures with biohazardous materials that contain transmissible pathogens are likely to have occupational exposure to these agents. A biosafety risk assessment evaluates risks, so the appropriate control measures are implemented to prevent illness.

What is a Biosafety Risk Assessment?

A biosafety risk assessment is a systematic process that identifies, evaluates, and mitigates risks associated with the use of biological agents. It aims to:

  • Identify procedural hazards and hazardous characteristics of biological agents that are handled.
  • Classify biological agents into risk groups according to their degree of risk of infectivity, virulence, pathogenicity, availability of preventive measures and effective treatments, and potential damage to the environment.
  • Determine the appropriate biosafety level for controls and restriction understanding.
  • Consider biosecurity which focuses on the prevention of theft, loss, and misuse of hazardous biological agents and toxins, equipment, and/or valuable information.
  • Identify and implement controls to minimize the risk of exposure to biological agents for workers, the environment, and the community.
  • Ensure regulatory compliance with local and national biosafety regulations.

Other factors to consider in a biosafety risk assessment are the possible routes of transmission of infection in the laboratory, the infectious dose, stability in the environment, host range, whether the agent is indigenous or exotic to the local environment, and the genetic characteristics of the agent. If biological agents are genetically modified, ensure that the risk assessment considers how the agent’s hazard characteristics may change, including its infection potential and severity of disease.

Key Components of a Biosafety Assessment

A comprehensive biosafety risk assessment typically involves five key components:

  1. Hazard Identification: This step involves identifying all the biological agents involved in laboratory activities and the potential hazards associated with the biological agents. Use subject matter experts that are familiar with the hazards to assist with this step.
  2. Hazard Assessment and Risk Evaluation: After identifying the hazards (i.e., biological agents), determine the risks of these agents by evaluating the likelihood of exposure, and the severity of exposure with the following criteria:
    • Routes of transmission – Understanding a biological agent's natural transmission route helps identify potential risks within a laboratory setting. However, the route of infection and resulting disease can differ in laboratory-acquired infections due to the higher concentrations of agents used in the lab and the potential for aerosolization during procedures, even if the agent isn't naturally transmissible by air.
    • Host range –The variety of different species that a biological agent can infect and potentially cause disease in.
    • Virulence – The severity of disease that a biological agent can cause in a susceptible host. It essentially reflects the degree of harm the agent can inflict on an infected individual.
    • Infectivity – Ability of a biological agent to establish an infection in a susceptible host.
    • Pathogenicity – Inherent ability of a biological agent to cause disease in a susceptible host.
    • Allergenicity – Potential of a biological agent to induce an allergic reaction in a susceptible individual.
    • Stability – Ability of a biological agent to maintain its physical, chemical, and biological properties over time and under different conditions.
  3. Risk Management: Based on the hazard assessment and risk evaluation, appropriate measures are put in place to minimize or eliminate identified risks. This may involve elimination or substitution of hazards, the implementation of engineering controls, establishment of safe work practices and training, and usage of personal protective equipment.
  4. Documentation and Communication: Document the risk assessments and findings. All relevant employees and stakeholders should be informed about the risk assessment findings, corrective and preventive actions (CAPAs) to mitigate risks, and CAPA schedule.
  5. Review and Update: Biosafety risk assessments should be reviewed periodically and when hazards or operations change.

Biological Risk Groups and Biosafety Levels

Biological agents are classified according to their risk level when considering infectivity, pathogenicity and availability of preventive measures and treatments for the corresponding disease. The National Institute of Health has established classification of biological agents into four risk groups:

  • Risk Group 1 – Agents that are not associated with disease in healthy humans.
  • Risk Group 2 – Agents that are associated with human disease which is rarely serious or for which preventative or therapeutic interventions are often available.
  • Risk Group 3 – Agents that are associated with serious or lethal human disease for which preventative or therapeutic interventions may be available (high individual risk but low community risk)
  • Risk Group 4 - Agents that are likely to cause serious or lethal human disease for which preventive or therapeutic interventions are not usually available (high individual risk and high community risk).

The risk groups are not equivalent to the biosafety levels (BSL). The BSL assigned to a laboratory is determined by the risk posed by the biological agents being used. Each BSL has specific EHS requirements for laboratory practices and techniques, equipment and containment measures, and facilities design. The BSLs are:

  • BSL-1:
    • Suitable for work involving well-characterized agents not known to cause disease consistently in immunocompetent adult humans.
    • Agents present minimal potential hazards to personnel and the environment.
    • Basic practices such as hand washing, the use of personal protective equipment like lab coats and gloves, and good laboratory hygiene are typically sufficient.
  • BSL-2:
    • Builds upon BSL-1 requirements.
    • Suitable for work involving agents that post moderate hazards to personnel and the environment.
    • Additional precautions beyond BSL-1 include controlled access to the laboratory, specific training for personnel, and the use of appropriate personal protective equipment.
  • BSL-3:
    • Builds upon BSL-2 requirements.
    • Applicable to facilities where work is performed with indigenous or exotic agents that may cause serious or potentially lethal disease through the inhalation route of exposure.
    • In addition to BSL-2 controls, BSL-3 facilities have additional engineering controls such as specialized ventilation systems to prevent the release of infectious aerosols.
  • BSL-4:
    • Builds upon BSL-3 requirements.
    • Required for work with dangerous and exotic agents that pose a high individual risk of aerosol-transmitted infections and life-threatening disease that are frequently fatal and for which there are no vaccines or treatments.
    • Required for related agents with unknown risk or route of transmission.
    • Most stringent safety and containment measures including complete isolation from the outside environment through multiple airlocks and highly specialized ventilation systems.

How Chemical Safety Improves Biosafety

If your biosafety program is recognized as a weakness and your organization is stronger in chemical safety, harness your strengths and leverage those best good practices to apply to your biosafety program. Maintaining a comprehensive chemical safety program is helpful for biosafety because it supports organizations to:

  • Comply with regulations – As an example, many regulatory agencies require laboratories to maintain accurate chemical inventories as part of compliance with EHS regulations. Having a well-documented inventory aligns with regulatory, emergency preparedness, and auditing requirements. Laboratories should use a similar system for controlling the inventory of infectious agents.
  • Identify hazards and perform risk assessments – A chemical safety program helps identify and assess the potential hazards associated with the chemicals used in the laboratory. This includes factors like flammability, toxicity, corrosivity, and reactivity. This type of evaluation is important because it highlights taking a risk factor-based approach to manage laboratory hazards, which can be translated over when performing biosafety risk assessments.
  • Emphasizes safe work practices – Hazardous waste can be chemical or biological. Proper procedures to classify, segregate, and dispose of chemical waste aligns with procedures to reduce contamination to the environment or exposure to personnel, which is similar to biosafety. There are safe handling practices for different classes of chemicals, including proper personal protective equipment usage, labeling, and storage procedures. This ensures that chemicals are handled and stored in a way that minimizes the risk of spills or other incidents. Similar practices and procedures should be developed for biosafety.

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  • Integrate training and awareness – Biological and chemical agents are frequently handled together (e.g., research processes, decontamination procedures). An integrated approach ensures that both biosafety and chemical safety principles are covered in training programs for laboratory personnel. This training equips personnel with the knowledge and skills to handle both biological agents and chemicals safely, minimizing the risk of accidents or exposures.

How SciShield Can Standardize Your BioSafety

With SciShield, you can scale your biosafety management to improve safety, reduce time to approval, eliminate error, streamline communications, and meet compliance regulations.

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Community Hub

Biosafety Risk Assessment: What It Is and Why It Is Important

Explore the essentials of biosafety assessments and levels, chemical inventory requirements, and their importance in laboratory safety and compliance.

eLabNext Team
Amber Poltl
|
5 min read

Barcoding biological samples and integrating this information with laboratory sample management software offers a more efficient means for tracking a wide range of biospecimens. The blog below discusses sample barcoding and its advantages over traditional sample tracking methods.

What is Sample Barcoding?

Biological sample barcoding assigns a unique identifier to an individual biospecimen, analogous to barcodes used on consumer products. Barcodes provide a reliable means of cataloging and tracking the location and application of samples used in a laboratory, particularly when integrated with sample management software. 

Before Barcoding: Relying on Manual Methods for Sample Management

Before barcoding was applied in laboratories, researchers employed various traditional methods to track biological samples, often relying on manual and time-consuming processes. One method still used by many labs is documentation in a lab notebook, where detailed records, handwritten notes, and labels are meticulously maintained. This method, however, is prone to human error and could lead to misinterpretation or loss of crucial information. Even when spreadsheets are used to manage and track sample inventories, there is still room for human error and mistakes. 

Physical tagging systems, such as numbered or color-coded labels, are often implemented to distinguish samples. While these methods are better than relying solely on written records, they still have limitations, especially when dealing with large-scale studies or when long-term storage is required. The absence of a standardized and universally applicable system makes data sharing and collaboration challenging. 

The Benefits of Barcoding

Sample barcoding helps provide solutions for these challenges. While not all scientists transitioned from paper records or disjointed software solutions, there are some key reasons for the growing interest in sample barcoding and its integration with comprehensive lab information software.

Sample Identification and Tracking

Barcoding provides a unique identifier for each biological sample, reducing the chances of errors in sample identification. Integration with laboratory sample management software enables real-time tracking of sample locations, movements, and usage history. This metadata provides a more comprehensive view of a sample collection compared to manual sample management methods.

Efficient Data Management

Combining barcodes with sample management software allows for efficient and accurate data entry. Researchers can quickly scan barcodes instead of manually entering sample information, reducing the risk of transcription errors. It streamlines data management by providing a centralized platform for storing and retrieving sample-related information.

Automation and High Throughput

Barcoding facilitates automation in sample-handling processes. Automated systems can scan and process samples more quickly and accurately than manual methods. This is particularly important in high-throughput laboratories where large numbers of samples need to be processed efficiently.

Sample Integrity and Reproducibility

Barcoding helps maintain the integrity of samples by reducing the likelihood of mix-ups or contamination. By integrating with sample management software, researchers can ensure the reproducibility of experiments by accurately documenting and tracking sample conditions and parameters.

Compliance and Quality Control

Barcoding and software integration help laboratories adhere to regulatory and quality control standards. They also enhance traceability and auditability, which is crucial for compliance with various industry and research regulations.

Time and Cost Savings

Streamlining sample management processes through barcoding and software integration can save time and reduce operational costs. Automation and efficient data handling contribute to overall workflow optimization, allowing researchers to focus more on the scientific aspects of their work.

Data Integration and Analysis

Integration with sample management software enables seamless integration with other laboratory systems, facilitating comprehensive data analysis. Researchers can correlate sample information with experimental results, helping them draw meaningful conclusions from their data.

Collaboration and Data Sharing

Barcoding and sample management software facilitate collaboration by providing a standardized and easily shareable format for sample information. Researchers from different labs or institutions can more effectively share data, fostering collaborative efforts and accelerating scientific progress.

Conclusion

Combining barcoding and laboratory sample management software improves the efficiency, accuracy, and overall management of biological samples in research lab settings. 

If you’re considering the eLabNext platform or are a current eLabNext customer who hasn’t taken advantage of sample barcoding yet, explore the Biobanking section of the Marketplace or check the ZPL Printer add-on or FLUICS PRINT add-on. eLabNext can also provide a list of printers and scanners supporting sample barcoding. If you are a ZPL, Brady, or FLUICS customer looking to make your next steps on your digital journey and want to be the with the ‘Easiest to Use’ and ‘Best Value’ ELN provider, then request a demo or jump straight to your free 30-day trial of eLabNext.

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Lab Data Management

The Sample Barcoding Boom in Biotech

Explore the advantages of barcoding biological samples and integrating with laboratory sample management software for efficient tracking

eLabNext Team
Chris Austin
|
5 min read

The National Institutes of Health (NIH) has recently implemented new data management and sharing (DMS) requirements for grant applicants and recipients. For all researchers seeking or currently funded by NIH grants, a data management and sharing plan must be submitted detailing how they will make their data available to other scientists and the public. 

Ultimately, this change benefits science, scientists, and society as a whole: “Sharing scientific data accelerates biomedical research discovery, in part, by enabling validation of research results, providing accessibility to high-value datasets, and promoting data reuse for future research studies,” states the NIH on its website. 

However, realising these benefits and implementing a DMS plan may take a lot of work. Some labs lack the infrastructure and data recording practices for effective data management and sharing. To rectify this problem, labs will have to rid themselves of outdated lab recordkeeping practices – such as paper lab notebooks and rudimentary databases that act as black holes (data goes in, never to be seen again) – which are no longer viable solutions. 

Therefore, winning an NIH grant is now tied to modern digital laboratory platforms, which are more effective data management and sharing tools. Labs lagging on digitisation are facing new financial motivations to implement changes. 

Meeting New DMS Requirements with eLabJournal

To facilitate data sharing through digitalisation, researchers can use eLabJournal, a secure, user-friendly, cloud-based lab notebook and data management platform. eLabJournal makes it easy for researchers to enter, store, and share their data with other scientists and the public while ensuring that sensitive information is protected and data privacy laws are complied with.

Here are a few ways researchers can benefit from using eLabJournal and comply with the NIH’s new DMS requirements.

Store data in a secure and accessible manner

eLabJournal has access control options to ensure that only authorised users can view or modify their data. The platform is built on a Roles & Permissions authentication model to ensure data security within the organisation. Customisable password policies, two-factor authentication, IP range restrictions, and VPN tunnelling all support data security from external threats. All of this is obtained through a web browser interface, meaning the security you put in place will not stand in the way of you accessing your data from wherever you happen to be working that day.

Share data with other scientists and the public

The eLabJournal platform has a customisable data-sharing plan that can be included in a grant application. Through the intuitive interface, users can generate simple, customised exports of sample or experimental records. eLabJournal’s open development architecture supports even more powerful data sharing and manipulation through our extensive library of API calls

Ensure compliance with data privacy laws

eLabJournal uses industry-standard security protocols to protect sensitive information, including 21 CFR part 11, GDPR, GxP, and HIPAA compliance. 

Integrate DMS plans into your digital lab platform

eLabJournal can incorporate many add-ons in the eLabMarketplace, enabling customisation and expanded functionality. One of eLabJournal’s add-ons, DMPTool, presents plan summaries within eLabNext, along with a link to download complete plans. This tool enables researchers to maintain compliance and manage DMS plans from the grant drafting process through the post-award period.

Digitalisation, at no extra cost

The new NIH requirements mean you can build the cost of eLabJournal into your grant itself. The NIH has clarified its instructions: Costs associated with a data management plan, including software subscription fees, may be included in the budget for the related project. 

Data Sharing Requirements and Digitalisation go Hand-in-Hand

In conclusion, the new data-sharing requirements for NIH grants represent a significant change in how research is conducted and how data is shared. Using eLabJournal, researchers can easily meet these requirements, promote collaboration, increase transparency, and improve public access to research data. Furthermore, many old excuses preventing labs from enacting data management modernisation are now moot: If you are applying for NIH funding, digitalisation is necessary.

If you want to see how eLabJournal can help your lab effectively manage and share data, schedule a free demo today!

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Security & Compliance

Understanding the New Data Sharing Requirements for NIH Grants. And How eLabJournal Can Help.

Ensure compliance with data privacy laws and seamlessly incorporate digitalisation into your lab operations while aligning with NIH grant guidelines.

eLabNext Team
Jim St.Pierre
|
5 min read

Lab asset inventory audits are critical for maintaining an organized, efficient, and compliant laboratory environment. A comprehensive lab asset inventory audit can support environment, health and safety (EHS) controls, limit costs, and improve operations. Lab assets encompass everything from equipment, and chemicals, to software and furniture. In this article we highlight the importance and benefits of conducting these audits from an EHS perspective focusing on equipment and chemicals.

The Importance of Asset Management in Labs

Effective asset management in laboratories involves a systematic approach to procurement, maintenance, upgrades, and disposal of assets.

Effective asset management can improve:

  • Procurement of proper equipment that mitigates risks with engineering controls and that is sustainably designed.
  • Maintenance schedules of equipment and potentially reduce malfunctions, injuries, and accidental releases.
  • Optimization of chemical inventories by minimizing hazardous materials storage, and ultimately risks of exposure.
  • Regulatory compliance against preventative maintenance and monitoring requirements.
  • Waste mitigation efforts by extending equipment lifespans and minimizing resource consumption.

1. Defining the Scope and Preparing Resources

The first step of the inventory audit is defining the scope. Identify which facilities, equipment, chemicals, and other assets will be included in the audit. Identify any applicable compliance obligations for the audit (e.g., Occupational Safety and Health Administration Nationally Recognized Testing Laboratory [OSHA NRTL] Program).

Assemble your team for the inventory audit. Gather resources by preparing checklists, barcode scanners (when applicable), and labels for tagging assets. Prepare the lab inventory management software (if available).

2. Performing the Initial Inventory Audit

  • Start with tangible equipment such as lab equipment. Record the
    • Location
    • Condition
    • Make and model
    • Relevant dates (e.g., acquisition)
    • Brief description of the asset
  • When possible, group similar assets together to simplify identification.
  • After entering this data into your database, tag the equipment with concise labels with essential information such as name, ID number, date of acquisition, and safety information. Consider a color-coding system when labeling to distinguish ownership, health and safety classification, lab zones/work areas, etc.
  • Assign specific locations for each category of assets to avoid clutter and facilitate retrieval, where applicable. Ensure storage areas are accessible and appropriate for the specific items (e.g., temperature-controlled for certain chemicals).
  • Inventory all chemicals by the following classifying information but not limited to:
    • Estimated volumes
    • Storage locations
    • Expiration dates
    • Supplier/manufacturer information.
  • Use all available resources such as colleagues to help inventory, bar coding system, and chemical inventory management software, if available.

3. Evaluating Results

Identify the gaps, missing items, outdated equipment, duplicate chemicals, etc. This may take a long period of time to understand trends but it’s important to analyze the asset usage patterns and compare them with the inventory.

Assess the condition and performance of the equipment. Flag any equipment that requires maintenance, repair, upgrade, or needs to be safely decommissioned and disposed of. It may be an inventory but you’re also visually inspecting for any noticeable damage or defects.

For chemicals, evaluate the usage data and expiration dates across several inventory audits to avoid unnecessary hazardous chemical storage and disposal, which could have environmental impacts.

4. How to Automate Best Practices, Corrective and Preventive Actions (CAPAs)

Assigning Team Responsibilities

  • Determine roles and responsibilities for inventory audit tasks and ensure your team is trained on the system.
  • Build and foster a culture of shared responsibility for inventory management. Increased ownership/engagement, visibility, and communication of the inventory activities brings forth proactive solutions, promotes efficiency and optimizes processes.

Organization and Storage

  • Implement a first-in, first-out system to avoid expiring chemicals persisting in storage areas.
  • Regularly dispose of obsolete or damaged items. Don't let outdated equipment or expired chemicals occupy valuable space and pose health and safety risks. Establish clear disposal protocols for different asset types.
  • Store equipment based on frequency of use. Keep frequently used equipment within reach while infrequently used items be stored on higher shelves or in designated areas.
  • Streamline asset identification and data entry with barcode scanners.

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Procurement and Cost Management

  • Forecast future asset needs and use bulk purchases when possible, to take advantage of any discounts.
  • Seek help from your procurement department (if applicable) and compare prices across different suppliers to find what works best for you from an EHS perspective but also operationally and financially.

Maintenance and Calibration of Equipment

  • Implement routine maintenance schedules for equipment to ensure optimal performance and prevent unexpected breakdowns.
  • Document equipment usage and calibration records. Maintain accurate records of usage logs and calibration certificates for compliance.

Automate Recordkeeping and Documentation

  • Recordkeeping and documentation are prone to error due to their history of being maintained with only Excel spreadsheets and physical notebooks. Lab inventory management software to ensure accurate documentation and uniformity with your data.
  • Set clear expectations for your team on recordkeeping.
  • Move from Excel spreadsheets and physical notebooks to lab inventory management software to automate your documentation and ensure accuracy.
  • Develop templates or forms to ensure consistency in data collection.
  • Ensure that records are complete when conducting the inventory audit, so you don’t have to double your effort.

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Conducting Routine Inventory Audits

  • Communicate the importance of routine audits to your team and lab personnel. Routine audits ensure you meet compliance obligations for asset management, chemical storage, and equipment safety. Failure to comply could result in serious penalties, injuries, and fatalities.
  • Implement a regular schedule for inventory audits (e.g., monthly, quarterly, annually).
  • Update records with current information with each subsequent inventory audit.

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5. Specific Considerations for Lab Relocation

Lab relocations can be complicated, especially when it comes to asset inventories. Some tips for navigating a lab relocation are:

  • Conduct a comprehensive inventory of all assets, prioritizing the criticality of the assets (e.g., EHS critical equipment, frequently used assets, and assets with special transportation or storage requirements).
  • Identify the chemicals and equipment that need to be either disposed of properly or decommissioned first to avoid unnecessary transport risks.
  • Use appropriate storage containers to protect equipment and prevent exposure to chemicals.
  • Ensure that chemicals and chemical storage containers/boxes are labeled appropriately according to regulatory requirements.
  • Maintain a record or chain of custody of asset movement to avoid loss or damage.
  • Implement safe work practices including proper waste disposal procedures for the new lab.
  • Schedule calibration for equipment upon arrival. Perform a Pre-Startup Safety Review (PSSR), as needed, to check for potential hazards prior to using the equipment.

Conclusion

In conclusion, lab asset management isn't centered around just operational efficiency and cost cutting; it also involves proactive EHS monitoring and measurement. By conducting routine inventory audits, you are fostering a culture of continual improvement that values the protection of personnel, the environment, and your company’s reputation.

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Community Hub

5 Steps for Conducting an Lab Asset Inventory Audit

This step-by-step guide will offer directions on how to conduct a lab safety inspection in your laboratory space.

eLabNext Team
Amber Poltl
|
5 min read

Scientific research is rapidly evolving. The traditional approaches to documenting seed and plant storage face inherent challenges that hinder efficiency and progress. This has sparked a transformative shift towards digital technologies that address these challenges and provide solutions.

Opting for an electronic storage system represents a strategic decision to streamline operations while enhancing the accuracy, accessibility, and longevity of valuable genetic resources.

In this blog, we'll delve into the impact of electronic technology, such as specimen management inventories, in revolutionising the entire process of managing critical data.

Meticulous Documentation is the Key to Success

Before transitioning into the digital realm, it's crucial to recognise the paramount importance of appropriate sample storage and management.

  • Seeds and plants represent the foundation of agricultural and ecological studies, acting as reservoirs of genetic diversity.
  • A precise record-keeping system ensures the preservation of this diversity for ground-breaking research, innovative breeding programs, and impactful conservation initiatives.

Essential Features of A Digital Seed and Plant Storage System

Exploring how a virtual documentation platform can revolutionise the research experience:

Electronic Databases: Your Gateway to Intelligent Sample Management

  • An online inventory provides a seamlessly organised system on a centralised platform.
  • Researchers can experience efficient input, management, and retrieval of specimen data. Everything from species characteristics to geographic origins and genetic information.
  • Examples like GRIN and Genesys showcase the power of electronic databases in transforming the storage and accessibility of crucial data.

Barcode Technology: Precision In Every Scan

  • Say goodbye to the tedious process of data entry and minimise the risk of manual errors with an efficient barcoding system.
  • Every specimen is assigned a unique identity. This ensures quick and accurate identification, tracking, and management.

Climate-Controlled Storage with Sensor Integration: Preserving Nature’s Blueprint

  • An electronic platform safeguards each specimen with climate-controlled conditions to ensure an optimal storage environment for seed integrity and viability.
  • Real-time monitoring and integrated sensors provide an alert mechanism to promptly detect any deviations.

Mobile Applications: Empowering Researchers On The Go

  • Transform your field research experience with cutting-edge mobile applications for on-the-go data capture.
  • Information such as storage location, images, and associated notes can be recorded in the app and seamlessly synchronised with a centralised database.

Advantages of Digital Documentation

Efficiency and Time Savings

  • An online system transforms time-consuming tasks such as manual record-keeping and data entry into an automated process.
  • Researchers can focus on analysis and experimentation, which significantly boosts overall productivity.

Data Accuracy and Integrity

  • Eliminate the risk of illegible handwriting and transcription errors with a paperless solution.
  • A digital platform ensures the data linked to every plant and seed is accurate and reliable, which ensures the integrity of research outcomes.

Global Collaboration

  • Overcome geographical barriers with the power of a system platform, enabling researchers to collaborate globally with ease.
  • If appropriate, access to a centralised database could facilitate information exchange, fostering shared germplasm contribution to the global genetic resource pool.

Adaptability to Changing Technologies

  • In the fast-paced world of scientific research, a digital documentation system can be easily updated and integrated with the latest tools and applications.
  • This adaptability ensures that seed and plant storage practices remain at the forefront of scientific advancements.

Conclusion

The digital management of seed and plant storage represents a paradigm shift in scientific research practices. By embracing technological solutions, researchers and scientists can enhance work productivity and contribute to the global effort of preserving biodiversity and advancing agricultural and ecological knowledge.

As we continue to navigate the complexities of our ever-changing world, the virtual landscape offers a promising path for the sustainable management of genetic resources.

Elevate your research potential with an advanced electronic sample management platform. Embark on a new era of efficiency in the digital world today.

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Sample Management

Revolutionising Seed and Plant Sample Management with Digital Solutions

Seeds and plants represent the foundation of agricultural and ecological studies, acting as reservoirs of genetic diversity. Learn how Digital Solutions can revolutionise this industry of research.

eLabNext Team
Chris Austin
|
5 min read

Lab safety inspections are crucial for a variety of reasons, but their ultimate purpose is to protect the well-being of everyone in the lab and the environment. Here are the primary reasons why lab safety inspections are conducted:

  • Prevent Accidents and Injuries: Labs are filled with potentially hazardous materials and equipment. Inspections identify and address health and safety hazards to prevent accidents, protecting lab personnel and visitors from injuries like burns, explosions, and exposure to harmful substances.
  • Ensure Regulatory Compliance: Labs are subject to various regulations regarding safety procedures, waste disposal, and environmental protection. Inspections ensure that labs comply with these regulations and help avoid fines and legal consequences.
  • Promote Safe Work Practices: Inspections assess if proper safety work practices are being followed, like wearing personal protective equipment (PPE), handling/storing of chemicals, and disposing of hazardous waste. An evaluation of internal adherence with these work practices promotes a culture of safety within the lab and encourages everyone to prioritize working safely.
  • Identify Improvement Opportunities: Inspections can reveal areas where procedures can be improved, controls can be upgraded, or training can be enhanced. This continuous improvement leads to a safer lab environment for everyone.

Conducting the Lab Inspection

  • Define the Scope and Prepare Resources

The first step of the lab inspection is defining the scope. Identify which buildings and labs will be included in the inspection. Gather as much information as you can, such as:

    • The type of activities taking place in the lab
    • An overview of the hazardous materials and equipment
    • Lab safety manual, SOPs, and emergency procedures
    • Previous inspection reports, including outstanding issues

Are there specific programs or safe work practices that you’ll be evaluating or is this a general lab inspection? Familiarize yourself with the regulations and standards that apply to your lab from agencies such as the Occupational Safety and Health Administration (OSHA) or National Fire Protection Association (NFPA). Assemble your team and prepare checklists for the inspection (e.g., lab inspection software on tablets, hard copy documents, etc.).

  • Schedule the Inspection

Contact the lab manager(s) to schedule a convenient time for the inspection. Note that some inspections may need to be unannounced so you’re able to observe how the lab normally operates without any audit preparation.

Outline the areas you’ll visit in the lab and the order you’ll visit them in. Allocate sufficient time for each area based on its complexity and potential hazards.

  • Review of Lab Safe Work Practices and Programs

There are several programs you may need to include in your lab inspection. Below are some examples of guidelines or requirements that you’ll want to consider including in your inspection checklist.

General Safety Best Practices

Below are some general safety guidelines to keep in mind during a lab safety inspection:

  • Follow general housekeeping and cleanliness guidelines. Look for clutter, spills, and improper storage of chemicals or equipment.
  • Wear appropriate personal protective equipment (PPE) as required by the lab, including lab coats, safety glasses, and gloves.
  • Always wear appropriate clothing when working in a lab. Protect your skin, avoid open-toed shoes and long/dangling jewelry, and keep sleeves at an appropriate length.
  • Be familiar with the emergency procedures and the locations of emergency equipment, such as fire extinguishers, fire blankets, safety showers, and eye wash stations.
  • Use appropriately designated waste containers to dispose of liquid and solid waste.
  • Report any accidents or injuries to supervisors immediately.

Chemical Safety Best Practices

Chemicals are some of the most dangerous hazards in a lab. Here are some of the requirements to look out for regarding chemical safety.

  • Eyewash stations should be readily accessible in case of chemical splashes. Ideally, they should be located within a 10-second walking distance from any potential chemical splash hazard. Obstructions should be cleared from the path to the eyewash station and in the immediate surrounding area.
  • Chemical labels should clearly identify the chemical name, hazards (including pictograms) in accordance with the Globally Harmonized System (GHS) of Classification and Labeling of Chemicals, CAS number, concentration, and any special handling instructions.
  • Flammable liquids, acids, and bases are to be stored in approved storage cabinets and cabinets, ensuring incompatible chemicals are not stored together.
  • Requirements for maximum allowable quantities (MAQs) of chemical storage.
  • Chemical fume hoods should be used appropriately and tested/certified.

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Hazardous Waste Safety Best Practices

Adequate handling, storage, and disposal of hazardous waste protects workers from exposure, reducing the risk of occupational illnesses and injuries. Proper hazardous waste management also ensures local ecosystems and communities are shielded from the negative environmental consequences of hazardous waste disposal. Below are some key areas to inspect:

  • Hazardous waste storage area (i.e., Satellite Accumulation Area and Main Accumulation Area) requirements ensure compliance with specific regulations governing the storage of hazardous waste on-site.
  • Properly maintained containers help prevent leaks and spills that could lead to environmental contamination and health & safety hazards. Clear labeling ensures that hazardous waste containers are properly identified, which facilitates tracking, inventory management, and regulatory compliance. Container condition and compatibility with the waste are also important in prevention of incidents.

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Biological Safety Best Practices

There are many measures to maintain a safe laboratory environment with biological hazards, protecting employees from potentially harmful biological agents and preventing the spread of contamination. Here are a few:

  • Similar to chemicals, use appropriate containers like vials, biohazard bags, and secure freezers for different types of materials and ensure clear labeling with agent information, storage temperature, date of collection, etc.
  • Clear and visible biohazard signs serve as visual reminders of potential risks and encourage safe practices. They should be placed at the entrance of the lab, on biohazard waste containers, and near areas where biological agents are handled.
  • Wear appropriate PPE. Lab coats/gowns act as a physical barrier, protecting from splashes, aerosols, and contact with potentially infectious materials. They should be worn whenever handling biological agents, even for short procedures.
  • Ensure access to appropriate disinfectants for quickly and effectively decontaminating surfaces and equipment after use. Prompt and thorough disinfection prevents the spread of contamination within the lab and protects employees from exposure.
  • Biological safety cabinets (BSCs) provide a controlled environment for handling highly infectious or volatile agents. The cabinet's airflow and filtration systems protect users from airborne contaminants. Regular certification by qualified professionals ensures the BSC is functioning properly and meeting safety standards. A compromised BSC can increase the risk of exposure. }

Radiation Safety Best Practices

Understanding and implementing proper measures is crucial to protect employees and the environment from the potential harm radiation exposure can cause. Here are some critical areas to inspect:

  • Clear and visible radiation warnings and easily recognizable symbols like "Caution: Radioactive Materials" must be displayed on storage containers, equipment, and areas where radioactive materials are present.
  • Regularly calibrated Geiger-Müller counters (GM meters) allow for precise measurement of radiation levels in the air and on surfaces.
  • Designated, secured storage areas with controlled access minimizes the risk of unauthorized access or accidental exposure.
  • Clear and detailed labels including materials, activity level, potential hazards, etc. provide important information for safe handling and use.
  • Permits and licenses for radioactive materials should be current and include the radioactive material type, quantities, and intended use.

Additional Considerations

Laboratory inspections can include a wide range of Environment, Health and Safety (EHS) programs in the scope, or they can be more focused. Ensure you know what’s included in the scope of your inspection so you can be as efficient as possible. Some other considerations when conducting an inspection are:

  • Review the safety training records and ensure all personnel have received mandatory training.
  • Check for proper documentation of chemical inventories, incident reports, and previous safety inspections.
  • Verify that any corrective and preventive actions (CAPAs) following previous inspections have been implemented effectively.
  • Offer constructive feedback and suggestions for improvement in a positive and collaborative manner.
  • Recognize and praise good safety practices observed during the inspection to encourage a culture of safety in the lab.}

Resources

Resources you’ll want to keep handy are lab inspection templates such as the Lab Audit Checklist, a list of applicable regulations, and other EHS resources from government agency or laboratory organization websites such as:

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Community Hub

How to Conduct a Lab Safety Inspection

This step-by-step guide will offer direction on how to conduct a lab safety inspection in your laboratory space.

eLabNext Team
Amber Poltl
|
5 min read

In June 2013, a Canadian medical lab, Lifelabs, lost patient files and personal information of more than 16,000 patients. A computer sent for servicing was returned without its hard drive, containing valuable ECG results gathered at three local facilities between 2007 and 2013. Its lab data management failed due to its enormous cost.

More recently, in April 2023, a ransomware attack at a medical testing lab, Enzo Clinical Labs, based in New York, caused a serious data breach, exposing more than 2.5 million customers. Personal data, medical files and lab results were compromised.

Theft and destruction: Today, holding critical data on hard drives is risk-prone and not considered best practice. They’re a single point of failure, and this centralised storage is vulnerable to destruction, theft and corrupt data. While no system is impervious to being attacked, measures around the privacy of your customers, lab research and confidential information must be taken seriously.

The Investigator pointed out that “healthcare providers are prime targets for ransomware attackers. They sometimes have less robust IT systems and have a high incentive to pay the ransom to regain control of systems and protect patient data.”

Old data: Another serious issue is data loss due to the unsuccessful transfer of physical medical files and data to electronic versions. Today, data is lost at a rate of 17% annually, and 80% of datasets older than 20 years are no longer available.

  • How robust are the privacy measures around your lab’s research data?
  • Are you confident that your files are secure?
  • Are your old and historical data archived properly?

Find out how eLabNext can provide a solution for your lab requirements.

In this blog, you will find:

  1. What is Lab Data Management (LDM)?
  2. What digital platforms does your lab need?
  3. What happens when your LDM fails?
  4. What are the priorities of lab data management?
  5. A checklist of a proper lab data management system
  6. How did you rate?
  7. An elegant, all-in-one lab data management solution

Let's begin!

What is Lab Data Management?

Lab Data Management (LDM) is the systematic organisation, storage, retrieval and analysis of data generated in a laboratory environment. This encompasses samples, inventory, experiments, findings, instruments, photos and more. It is crucial and central to many industries and disciplines, including biology, chemistry, physics and environmental sciences. 

The primary goal of lab data management is to ensure that data is: 

  • Accurately recorded
  • Securely stored
  • Easily accessible for analysis and reporting

It’s imperative to assess the scalability and flexibility of the system to accommodate future growth and changes in research teams. Beyond that, its users are human beings with a mix of IT savviness, so user-friendly interfaces and ease of integration with existing laboratory instruments and systems are pivotal in decreasing human input error and accidental data removal.

A good LDM system will factor in the following:

  • The size of the laboratory
  • The complexity of experiments
  • Data security requirements
  • Regulatory compliance needs
  • Budget constraints

A successfully implemented LDM mitigates theft, loss of data and human error.

What digital platform does your lab need?

It’s important to understand the differences in labels and offerings out there so that your lab has the best digital platform for its needs, objectives and flow. Broadly speaking, there are LIS platforms and ELN platforms.

LIS has increasingly (and confusingly) come to mean a few different things: Lab Information Systems and Lab Inventory Systems. 

ELN is an electronic lab notebook platform. It is meant to replace physical notebooks found in labs. 

Very few LIS or ELN platforms today offer a complete lab solutions platform for inventory, protocol and journaling that all labs need. Most are complicated, require third-party software that forces disparate software to work as one and are not as versatile with cross platforms.

Do you know which platform is best suited to your needs? Why?

Make sure you check out our next blog, where we deep dive into these different platforms and compare elements to aid you in ensuring the platform you use for your lab is best suited to your needs.

Information integrity today: when a LDM fails

Today, information is money. Medical facilities and research labs come under attack because of the rich content of personal information, including addresses, passwords, contact details, health vulnerabilities, patent information, corporate secrets and research findings. They are targeted in various ways, including:

  • Ransomware Attacks Cybercriminals may deploy ransomware to maliciously encrypt critical medical and research data, demanding a ransom for its release. 
  • Data Breaches Attackers may aim to steal sensitive patient information, research data, or intellectual property. Stolen healthcare records can be valuable on the dark web for identity theft, insurance fraud or other malicious activities.
  • Phishing Attacks Phishing emails, which attempt to trick individuals into divulging sensitive information, are a prevalent threat. In healthcare and research settings, attackers may use fake emails to access login credentials, financial information or sensitive research data.
  • Supply Chain Attacks Cybercriminals may target the supply chain of medical facilities or research labs. Compromising the security of vendors, suppliers, or partners can provide attackers with a pathway to infiltrate the primary target.
  • Advanced Persistent Threats (APTs): APTs involve highly sophisticated, targeted attacks often carried out by well-funded and organised groups. These attacks aim to gain persistent access to networks, often for espionage purposes and can be particularly challenging to detect.
  • Disruption of Healthcare Services Cyberattacks may be aimed at disrupting critical healthcare services, such as patient care systems, medical devices or communication infrastructure. This has severe consequences for patient safety and overall healthcare operations.
  • Intellectual Property Theft Research labs are often targeted for intellectual property theft, including valuable scientific discoveries, experimental data or proprietary information.
  • Internet of Things (IoT) Vulnerabilities Many medical devices and laboratory equipment leverage the Internet of Things If IoT devices are not properly secured and managed. Security vulnerabilities in these devices can be exploited to gain unauthorised access, disrupt operations, or steal sensitive information if IoT devices are not properly secured and managed.

In May 2019, an American Medical Collection Agency (AMCA) data breach impacted the privacy of more than 22 million patients. It costs €361,000 to involve IT professionals and consultants from three different firms to identify the source of the breach, diagnose its cause and implement appropriate solutions. Furthermore, 

more than €3.5 million was spent meeting legal requirements and regulatory obligations. AMCA was forced to reduce its workforce from 113 to 25 employees to cope with its sudden financial repercussions.

  • How savvy is your lab data management system?

The priorities of Lab Data Management

Where do issues arise when choosing an LDM? What do you need to consider before making the choice? Does your LDM provider cover the following?

Data Quality Assurance

Data Quality Assurance in Lab Data Management refers to the systematic process of ensuring the accuracy, completeness and reliability of laboratory data. It involves validating data at various stages, implementing quality control measures and adhering to standardised protocols. This ensures that research findings and clinical results derived from the data are trustworthy and meet regulatory requirements. 

If this is compromised or fails, it can lead to inaccurate research outcomes, compromised patient care decisions, and regulatory non-compliance. Inaccurate data may result in flawed analyses, misinterpretations, and erroneous conclusions, impacting the integrity of scientific research or diagnostic procedures. 

What is lost if your lab’s data quality assurance is weak? It’s the trust your customers place in laboratory results that can hinder further collaboration. It poses serious ethical and legal consequences in the fields of healthcare and scientific research.

Have you heard of Samplecheck5000? It may sound particularly attractive to labs, but it is actually malware developed to specifically target labs for its sensitive data!

Data security and confidentiality

The data your lab collects is confidential for your customers and your proprietary research and findings. Protecting your data’s confidentiality and security involves implementing measures to safeguard sensitive information generated or stored in laboratories. This includes protecting patient records, research findings and proprietary data from unauthorised access, disclosure or alteration. Security measures may include encryption (in transit and at rest), access controls and secure storage protocols.

Inadequate measures to protect your data can destroy the integrity of your business and cause massive financial debts to fix and compensate for damages. In today's IoT era, it is easy to gain unauthorised access to sensitive patient information, intellectual property theft or regulatory violations. Patient privacy may be jeopardised, leading to legal consequences and damaging an institution's reputation. Research findings may be at risk of theft or manipulation, impacting the validity and trustworthiness of scientific outcomes. 

ISO 27001 The ISO 27001 is an international standard published jointly by the International Organization for Standardization and the International Electrotechnical Commission in 2005. It provides benchmarks for managing information security, and the latest standards were updated in 2022. When an organisation is aligned and certified by ISO 27001, it becomes a tool for risk management, cyber-resilience and operational excellence.

  • Is your LDM ISO 27001 certified?

Data storage and retrieval

Data storage and retrieval in Lab Data Management refer to the systematic organisation, storage and efficient retrieval of laboratory data. Today, scalable solutions are vital to cope with the evolving growth of samples or customers needed. Hard drives or even servers have limited capacity for storage—Cloud-based solutions offer flexibility and are engineered to remove single points of failure. 

It is imperative that your lab data management involves establishing secure and accessible repositories for diverse types of data, such as experimental results, patient records and research findings. Effective storage systems ensure data integrity, accessibility and long-term preservation. 

If compromised, data storage and retrieval issues can lead to data loss, corruption or delays in accessing critical information. Lab researchers can run into issues hindering scientific progress and decision-making. In a healthcare setting, patient care is impacted when there are delays in accessing vital medical records—or even worse, when data is lost. 

Old and historical data, particularly within a medical environment, is still relevant when treating a patient—if those files and folders succumb to fire, flooding, accidental destruction or chemical damage, the valuable information is irretrievably lost. Not to mention printing inks that might fade over time or suffer insect attacks, such as silverfish. Proper archiving is essential to prevent further loss.

Data integration

Data comes from all sources, particularly if we include historical and archived data—which can be important to derive valuable patterns and trends for lab and research use.

Data integration in Lab Data Management involves consolidating diverse data sets from different sources within a laboratory or across multiple laboratories. It aims to provide a unified and coherent view of data, facilitating comprehensive analyses and informed decision-making. Effective data integration enhances collaboration, accelerates research and enables a holistic understanding of complex scientific phenomena. 

If compromised, incomplete or inaccurate datasets can hinder researchers' ability to derive meaningful insights. Inconsistencies in integrated data may lead to erroneous conclusions and impact the reliability of research outcomes. Additionally, failed data integration can impede interdisciplinary collaborations, slow down research progress and introduce inefficiencies in laboratory workflows. 

Data governance

Data governance in Lab Data Management refers to the establishment and enforcement of policies, procedures and standards to ensure the quality, integrity and security of laboratory data throughout its lifecycle. It involves defining roles, responsibilities, and guidelines for data management, access, and usage. 

Effective data governance promotes accountability of data streams, data consistency, transparency and compliance with regulatory requirements. 

Data governance issues can lead to data inconsistencies, unauthorised access and regulatory non-compliance. Lack of clear policies and oversight may result in data mismanagement, compromising the reliability and trustworthiness of research outcomes. 

Data backups

Backups are essential in the lab environment. It involves creating duplicate copies of critical data to safeguard against loss or corruption. This process ensures the availability of data in the event of accidental deletion, hardware failure or other unforeseen issues—and can help protect against ransomware. Regular backups contribute to data resilience and are crucial for maintaining the integrity of research findings and patient records. 

Cloud-based Lab Data Management (LDM) solutions offer benefits such as automated backups, scalability, and accessibility. With cloud-based LDM, data is stored off-site, reducing the risk of data loss due to on-site disasters. A good SAAS-delivered LDM platform will ensure your data should be encrypted in transit and at rest.

The consequences of not backing up data or not being rigorous in choices, levels of security and frequency can be severe. Loss of critical data may impede ongoing research, disrupt laboratory workflows and compromise the continuity of patient care. Without reliable backups, recovery from data loss becomes challenging, potentially resulting in permanent loss of valuable information, setbacks in research projects and compromised scientific integrity. 

Data traceability

Increasingly, data provenance is highly sought—as it allows the data to be traced to its source, its human owner and inputter and creates accountability and integrity.

The ability to track and document the origin, processing steps and modifications of laboratory data throughout its lifecycle is essential to publishing research, accessing research grants and moving the needle forward to creating a successful solution/product. It involves maintaining a comprehensive audit trail that ensures transparency, accountability and compliance with regulatory standards. 

With data traceability, researchers can validate and reproduce results, verify the quality of data, and adhere to stringent documentation requirements. Cloud-based LDM solutions enhance data traceability by providing de-centralised storage, automated version control and access logs. This facilitates collaboration, reduces the risk of errors and ensures that data can be reliably traced back to its source.

Compliance

Maintaining compliance in a lab environment, particularly in environments governed by Good Laboratory Practice (GLP) guidelines, is critical. The GLP is a set of principles and standards established 

by various national and international regulatory agencies. One of the key organisations involved in developing and promoting GLP principles at the global level is the Organisation for Economic Co-operation and Development (OECD). In the European Union, GLP regulations are outlined in Directive 2004/10/EC, which was later incorporated into the Good Laboratory Practice Regulation (EU) No 2017/160.

The primary objective of GLP is to facilitate the generation of high-quality and credible data, particularly in industries such as pharmaceuticals, chemicals and biotechnology. Regulatory bodies rely on the data generated in non-clinical studies to make decisions about the safety and efficacy of products before they reach the market. Adherence to GLP helps ensure that the data produced is of the highest quality, minimising the risk of errors, fraud and misinterpretation.

Compliance encompasses data collection, storage, retrieval, and documentation processes to meet regulatory requirements and maintain the quality of research outcomes.

A cloud-based LDM system provides several benefits, such as de-centralised and secure storage, automated audit trails, and version control mechanisms that facilitate traceability, allowing organisations to demonstrate compliance during regulatory inspections within their supply chain. Cloud-based solutions also enable scalability, accommodating the growing volume of data generated in research labs and ensuring efficient and cost-effective management.

The consequences of non-compliance can be severe, especially when failing to meet GLP guidelines. Regulatory penalties, data rejection by authorities and damage to the institution's reputation are potential outcomes. 

🡪 What can happen at a legal level if your lab is not digitised? Read our whitepaper. 

Version control

Systematic management and tracking of changes made to datasets, software and analysis tools over time ensures version control for a successful Lab Data Management (LDM). With effective version control, researchers can identify, compare and revert to previous versions of data or software, maintaining data integrity and reproducibility. 

Failure to have effective version control results in challenging management of multiple versions of datasets. The reliability and efficacy of data sets weaken, leading to confusion, errors and difficulties in reproducing or validating research results. 

Data ownership and intellectual property

Data ownership and intellectual property (IP) involve defining and protecting the rights and responsibilities associated with generated data and intellectual contributions. In the context of a research lab, IP encompasses the creations, innovations and discoveries conducted within the laboratory. It often includes:

  • Patents
  • Copyrights (software code, scientific publications)
  • Trademarks (lab names, logos or brand names)
  • Trade secrets like methods, techniques or procedures, recipes (e.g., in perfumery, food & drink production)
  • Databases/sets
  • Innovations (e.g., if a lab or organisation designs their own novel equipment or devices.)

Researchers, institutions and collaborators need clear agreements on data ownership, authorship and intellectual property rights to avoid disputes and ensure ethical use. De-centralised LDM systems can facilitate these aspects by providing transparent access controls, audit trails and collaborative platforms. Permissions can be fine-tuned, ensuring that only authorised individuals can access, modify or share specific datasets, safeguarding sensitive information and adhering to legal and ethical standards.

This is an extremely important facet of your Lab Data Management. If this is compromised, costly disputes may arise over authorship, data usage or intellectual property rights.  Inadequate protection may discourage innovation, collaboration and the secure exchange of data, hindering scientific progress. 

Training and documentation

At the end of the day, any Lab Data Management system is only as good as the ability of the user to comply. It is no good if the user insists on sticking with notebooks, pens and pencils! Training and education on proper data management practices and maintaining comprehensive records outlining data handling procedures are vital for lab users. While the software may be intuitive, it still needs humans to be properly initiated into its usage.

Training ensures that individuals understand the importance of data integrity, security and compliance with relevant regulations. Clear documentation provides guidelines and standard operating procedures (SOPs) for data collection, storage, analysis and sharing.

Documentation is also crucial: Cloud platforms facilitate real-time updates, ensuring all users can access the latest information. Training modules can be delivered remotely, fostering efficient onboarding and continuous education for lab personnel.

Data reporting

Efficient data reporting is crucial for communication, decision-making and meeting regulatory requirements. 

Data reporting is the systematic and accurate presentation of research findings, experimental results and analytical outcomes. This process includes creating comprehensive reports, summarising key insights and ensuring that the data presented is clear, transparent and adheres to relevant standards. Cloud-based solutions enhance data traceability, ensuring that the reported information can be linked back to its source and supporting reproducibility.

Without high-level data reporting, the dissemination of inaccurate or incomplete information results in flawed interpretations hinders collaboration and impacts the credibility of research outcomes. Inadequate reporting practices can also lead to regulatory non-compliance, especially in industries where adherence to standards is essential. 

Electronic Lab Notebooks (ELN) integration

Electronic Lab Notebooks (ELN) are digital versions of traditional paper lab notebooks. They enable researchers to record, organise and share experimental data electronically, improving collaboration, data accessibility and traceability in laboratory settings. There are many ELN software in the market but few integrate seamlessly with inventory systems, LIMS and LIS software too—particularly one within its own ecosystems.

Does your Electronic Lab Notebooks (ELN) integrate seamlessly with the other systems in your Lab Data Management (LDM) or is it disparate and glitchy? The benefits of ELN integration include being able to access their electronic notebooks securely from anywhere, facilitating remote collaboration; while real-time synchronisation ensures that the latest data entries are instantly available to the entire team. 

Data silos are a very real problem when integration fails, causing data to be scattered across various platforms, hindering collaboration and traceability. Incomplete integration may result in data duplication or loss, affecting the accuracy and completeness of experimental records. Security vulnerabilities in the ELN integration can expose sensitive information to unauthorised access, risking data integrity and confidentiality.

Resource constraints

Every lab has to work within set budgets, personnel and IT support. Integrating considerations regarding implementing and maintaining advanced data management systems into decision-making within a laboratory setting is vital. Laboratories often face challenges in allocating funds and dedicated personnel for robust data management infrastructure.

Select Cloud-based LDM solutions that eliminate the need for extensive in-house IT infrastructure, reducing upfront costs and providing scalable and secure solutions. Cloud-based LDM also allows labs to benefit from regular updates and improvements without the need for costly in-house IT support.

Without adequate financial investment, labs might resort to suboptimal data management practices, potentially leading to data loss, inconsistency and reduced data quality. 

Collaboration

By definition, research within the lab environment often sits in collaboration with teams, not only within the physical confines of the lab but with partners and other teams around the world. The science world is a highly social world, with the need to collaborate with other teams in moving the process forward for their innovation, be it chemical, medical or aeronautical.

Is your Lab Data Management system able to work with other platforms seamlessly? Does it recognise other platforms?

Collaboration in Lab Data Management (LDM) involves the seamless sharing, integration and coordination of research data among team members—in- and out-of-house—and across different projects. Effective collaboration is essential for enhancing research outcomes, accelerating discoveries and fostering interdisciplinary cooperation within laboratories.

Cloud-based LDM systems allow researchers to work on the same datasets in real-time, irrespective of geographical location. These platforms also support standardised collaboration tools, ensuring uniformity in data management practices and enhancing interoperability.

Inconsistencies lead to errors, misinterpretations and delays in research projects. Inventory can be mixed up, ELN entries can be confusing, leading to data silos, hindering efficient information exchange and collaborative decision-making. Progress of research is impeded, which undermines the quality of scientific outcomes.

A checklist of a proper Lab Data Management system

Is your Lab Data Management system up to scratch? Will it pass muster today? Does it include the following?

  • Data quality assurance.
  • ISO27001 level security for my data so that confidentiality is maintained.
  • Data is stored following modern best practices so that theft, destruction, misplaced hard drives, and computers can easily be avoided.
  • My data storage flexes and scales with the needs of my team and research.
  • I can easily and reliably access and retrieve my data, no matter how old it is.
  • My LDM facilitates easy data integration with multiple platforms and diverse data sets.
  • My data is governed by the proper establishment and enforcement of policies, procedures and standards to abide by regulatory requirements.
  • My LDM ensures proper backups to secure ISO 27001-certified solutions.
  • I have the ability to track and document the origin, processing steps and modifications of my laboratory data throughout its lifecycle.
  • My LDM provides a high level of GLP-compliant checks to ensure my data is credible so that I can rest easy, knowing that my innovation/product is both safe and efficacious.
  • My LDM systematically manages and tracks changes made to datasets, allowing me to identify, compare and revert to previous versions of data if I need to.
  • My LDM provides transparent access controls, audit trails and collaborative platforms, negating issues of data ownership and compromised intellectual property.
  • My LDM provider ensures that my team and I are adequately trained to use the software and have proper documentation to refer to for help.
  • My LDM generates reporting for systematic and accurate presentation of research findings, experimental results and analytical outcomes.
  • My LDM seamlessly integrates my ELN with our inventory systems, LIMS and LIS software.
  • My LDM comfortably fits within our lab’s allotted budgets, personnel and IT support.
  • My LDM allows me to collaborate with my team effortlessly—and even others within the ecosystem of my study.

How did you rate?

Data is increasingly valuable—which also means it is increasingly vulnerable. Labs spend tens of thousands to ensure the integrity, security, integration and strength of their lab data management. And yet, many don’t work seamlessly and are stapled together piecemeal, often using a workaround.

🡪 What other lab data management considerations are there? Read our other whitepapers.

A simple solution

eLabNext’s Lab Data Management is simple. We don’t like complicated. Our ecosystem of software comes in three separate modules, but all designed to work as one. What’s more, our entire ecosystem is certified ISO27001, not just the separate modules.

eLabJournal is our all-in-one electronic lab notebook (ELN). It has been designed to work seamlessly with our eLabInventory and eLabProtocol modules, providing the complete software solution for labs all over the world. We offer secure hosting plans as well as our expertise across Cloud-based hosting solutions, such as AWS, which is often considered the gold standard.

🡪Have a read about our take on what to consider when choosing the right ELN for your lab.

To securely manage your data, a decentralised, Cloud-based solution is ideal. It offers the following four main benefits:

Scalability

Because Cloud-based data solutions do not rely on you having a physical disk under your desk or in a cabinet in your building, it can expand and contract with your user pool and needs. It is also able to maintain acceptable performance as demand increases. The Cloud has "infinite" scalability as long as the applications and systems are architected optimally.

eLabNext is a Software as a Service (SaaS) solution—this means scalability is built into its strength and flexibility.

🡪 Read how easy it is to digitise your sample collection, organisation, labelling and more.

Security

Under the hood, Cloud-based data storage is designed to be decentralised, with encrypted parts of the data separated across physical disks and physical cabinets in a data centre, ideally across geographical locations. This allows the data to remain whole even if one physical cabinet fails—the Cloud can intelligently fill in the gaps. 

eLabNext allows you to control and govern your applications and data through user authentication and authorisation. We have systems in place to prevent and detect security events; our Cloud-based solution is more secure because you have a greater ability to manage security settings, which include greater logging and monitoring and the ability to take automatic actions. 

Reliability

Labs need their data and databases to be reliably delivered at any moment. Unreliable systems can mean the loss of important research results and data. Cloud-based lab data management reduces anxiety because it is a system that can serve traffic with minimal/no downtime. Additionally, the Cloud can be more secure because everything is engineered for high availability—after all, it has no single point of failure.

Equally important is eLabNext’s software ecosystem, which allows reliable integration between eLabJournal, eLabInventory, and eLabProtocol. This means no integration issues can disrupt the reliable storage, saving and cataloguing of lab data.

Resiliency

Decentralised storage systems better withstand failures and disruption by design. It can continue to serve traffic while maintaining integrity of security because redundancies are built in. Recovery can also be automated to self-heal.

eLabNext’s ISO 27001 certification includes our expertise in creating environments for your data that protect your valuable findings, patient/sample info, publications and ability to move your product to market.

ISO 27001 The ISO 27001 is an international standard published jointly by the International Organisation for Standardization and the International Electrotechnical Commission in 2005. It provides benchmarks for managing information security; the latest standards were updated in 2022. When an organisation is aligned and certified by ISO 27001, it becomes a tool for risk management, cyber-resilience and operational excellence.

Find out more

Do you want to know more about a lab data management system that ticks all the boxes in our checklist? Our team members are experts in tech and software and have backgrounds in science and lab environments. Speak to an insider about selecting the best lab data management system that is designed from the core for your needs.

We also welcome you to sign up for a trial.

Who is eLabNext?

Please peruse our easy-to-navigate website to find out more about eLabNext. It is our mission to elevate life science research with tools that are elegantly designed from the code-up. Our eLabNext platform is powerful enough to fit the needs of 10 or 5,000 lab research teams—but remains pared down in bulk and unnecessary elements that make software bloat and become clunky over time.

We’re a Dutch-born-and-based software endeavour founded by research scientists in 2010. Erwin Seinen and Wouter de Jong developed eLabNext because they were frustrated with their paper notebooks and how software systems out there were not seamless and did not integrate with each other, including equipment, security, inventory, and sample tools. 

Today, we have offices in the Netherlands, UK, USA and Australia, servicing labs all over the world. We help future-proof their digital platforms so that they can keep doing what they do to help better the human experience and our planet.

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Lab Data Management

Ultimate Guide for Lab Data Management

Discover the critical importance of Lab Data Management in safeguarding sensitive patient information, research data, and intellectual property. Learn how eLabNext provides a comprehensive solution with its secure, scalable, and ISO 27001-certified digital lab platform.

eLabNext Team
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5 min read

Congratulations, you’ve adopted an Electronic Lab Notebook (ELN) and taken a significant step forward in streamlining your laboratory research! With your data organised and accessible in a digital format, you’re on your way to more efficient and collaborative scientific endeavours. However, having an ELN is just the beginning.

Previously, we’ve discussed the step-by-step process of implementing an ELN in a new or existing lab. In this blog, we’ll explore what comes next and how to make the most of this powerful digital tool.

Master the Basics

Before diving into the more advanced features, take the time to familiarise yourself with the basic functionalities of your ELN. Learn how to create and edit entries, organise folders, and attach files and images. Becoming proficient in these fundamental operations will lay a strong foundation for your ELN journey.

Explore Collaboration Tools

ELNs are designed to foster collaboration among researchers. Explore the collaboration features of your ELN, such as shared notebooks, comments, and version history. Collaborators can provide valuable feedback, contribute to experiments, or even take over when you’re away, ensuring continuity in your research.

Take Advantage of Integrations and Add-Ons

Taking advantage of ELN integrations and developed add-ons opens up a world of possibilities for researchers. Integrations with data analysis tools streamline data processing and enable real-time visualisation, empowering researchers to draw meaningful conclusions from their experiments. Additionally, utilising add-ons developed by the ELN provider can extend the platform’s capabilities, providing customised solutions for specific research needs, such as equipment scheduling, electronic signatures for compliance, or sample tracking tools. Embracing these integrations and add-ons maximises the potential of your ELN, making research more efficient, collaborative, and productive.

Set Up Custom Templates

Standardise, standardise, standardise! Tailor your ELN to suit your specific research needs by creating custom templates. Templates can simplify data entry and ensure consistent and standardised formatting across experiments. Consider templates for experimental protocols, project overviews, or data analysis sheets. Investing time in creating templates will save you time in the long run.

Stay Organised

With the ability to generate a vast amount of digital data, staying organised is crucial. Create a clear and intuitive folder structure for your experiments and data. Use tags and metadata to label and categorise entries efficiently. A well-organised ELN will make data retrieval and analysis a breeze.

Backup Regularly

Data is the lifeblood of scientific research, and losing it could be devastating. Always have a robust backup system for your ELN data to “future-proof” your research. Cloud-based solutions or server backups can protect your research from accidental deletions or hardware failures. Most cloud-based ELNs have reliable backup redundancy strategies to ensure your data is safe and secure.

Secure Your Data

As with any digital platform, data security is of utmost importance. Protect your ELN with strong passwords and multi-factor authentication. Ensure your ELN platform complies with relevant data protection regulations to safeguard sensitive research information.

Regularly Review and Revise

Periodically review your ELN entries and make necessary revisions. Keeping your ELN up-to-date and error-free will enhance the reliability of your research and prevent potential issues down the line.

Conclusion

As you navigate this new digital terrain, remember to master the basics, customise your ELN to suit your needs, embrace collaboration, stay organised, and prioritise data security. With the right approach, your ELN will become an invaluable companion in your scientific journey, accelerating your research and promoting collaboration within your team. Happy experimenting!

If you need resources to help you navigate these next steps, contact us today!

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Lab Operations

I Have an Electronic Lab Notebook (ELN)… Now What?

eLabNext Team
Alisha Simmons
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5 min read

At eLabNext, everyone on our team truly loves interacting with our customers. We’re not saying this to be cheesy, we simply “do what we do” to help your lab and organisation succeed, whether you are at the beginning of your digitalisation journey or have been using eLabNext for the past decade. 

That’s why, when one of our customers, Ramzi Abbassi, Ph.D., joined the eLabNext team as a Lab Digitalisation Specialist, we were thrilled. Not only do we get to benefit from his scientific and digitalisation expertise, but we also get an in-depth understanding of what it was like to be a customer, which ultimately makes us better at supporting their needs.

“I’ve spent time in medical, life science, and engineering laboratories at the University of Sydney, University of New South Wales, and University of Oxford,” explains Ramzi. “As a member of the research support team at the Children’s Cancer Institute Australia (CCIA), I worked on ensuring institute-wide safety and compliance. These experiences have unveiled shared challenges that resonate within all of these distinct research communities.”

They also introduced him to the power of digitalisation, digital lab platforms, and, ultimately, eLabNext.

This week, we interviewed Ramzi to learn more about his background, insight into labs’ shared challenges with digitalisation, experience with eLabNext, and view on the future of lab digitalisation looks like. 

Common Lab Challenges 101

Ramzi’s academic journey led him to the quirks and inefficiencies of using non-digital, legacy systems in the modern research world. Later in his career, during Ramzi’s work at the CCIA, he was tasked with identifying a solution to some deeply ingrained institute-wide challenges. 

“The institute wanted to overcome some of the internal challenges with tracking compliance, mitigating risk with paper lab notebooks, and improving inventory and cold storage management,” explains Ramzi.

CCIA wasn’t the only organisation that Ramzi had seen experience these problems. Over the course of his Bachelor’s, Ph.D., and involvement with teaching and managing research operations, Ramzi has seen challenges fall into five distinct buckets.

Insufficient Data Infrastructure and Facilities

Ramzi saw lab managers and supervisors dedicate considerable efforts to ensure appropriate access to data, equipment, and inventories. However, a streamlined digital approach to managing access control remains a relatively untapped opportunity.

Difficulties Managing Compliance

Navigating the intricate landscape of research regulations and ethics committees’ requirements is a common challenge. Despite modern labs boasting cutting-edge instruments and technology, the absence of widely used digital platforms for managing safety protocols poses a collective hurdle. 

The lack of secure and accessible audit trails, coupled with the inability to generate custom reports, particularly concerning chemical and biological hazards, leads to manual and error-prone management, resulting in potentially unsafe laboratories or practices,” says Ramzi.

Documentation Challenges

Ramzi experienced the difficulties of mixed paper and digital record-keeping systems. Coexisting paper lab books and internal servers introduce inefficiencies and risks, with security concerns over non-digital records. Siloed electronic lab notebook systems compound the problem due to a lack of interoperability with research equipment, samples and limited customisation.

Non-standardised Protocols

Ramzi also saw the absence of standardised protocols contributed to experimental inconsistencies and wastage. Ensuring that researchers consistently work with the latest approved versions of protocols is challenging due to the lack of a digital approval process.

Resource Waste

For many labs, data loss, double ordering, and difficulty tracking samples in freezers (which can lead to reduced freezer longevity and increased energy expenditure due to door-open times) are all common problems. 

“This resource wastage is a recurring issue exacerbated by the lack of transparency and inefficient non-digitised processes,” comments Ramzi.

Finding Digital Solutions

As mentioned above, many of these problems have digital solutions. While Ramzi was working at the CCIA, he conducted a thorough exploration of various digital lab platforms and identified eLabNext as a solution that ultimately made laboratory operations more streamlined and efficient.

“eLabNext’s responsiveness, often within six hours despite the time zone difference between Australia and the EU/US, demonstrated a commitment to support,” Ramzi recalls. “The team facilitated online calls, guiding us through implementation, testing, and rollout, and remained receptive to incorporating changes we deemed necessary.”

A lot more factors also went into CCIA’s decision to choose eLabNext. For one, the platform offered a comprehensive suite, including eLabJournaleLabInventory, and eLabProtocols, ensuring a holistic solution to CCIA’s diverse laboratory needs.

“eLabNext emerged as the optimal choice due to its strong cybersecurity measures, cost-effectiveness, responsive customer support, robust product roadmap, and commitment to interoperability,” adds Ramzi. “Its adherence to ISO 27001 standards, support for GxP compliance, focus on research integrity, and custom legal agreements were key factors that aligned perfectly with the institute’s requirements.”

Making Digitalisation a Reality

Once eLabNext’s full suite of tools (eLabJournal, which includes both eLabInventory and eLabProtocols) was implemented at CCIA, eLabJournal enabled the improvement of data organisation and accessibility, compliance, collaboration and efficiency. 

“Over time, the perception of the product only improved as its long-term benefits were realised, including enhanced research integrity, interoperability, and future connectivity with research hardware using Internet of Things (IoT) protocols,” explains Ramzi.

The seamless integration of eLabJournal with eLabInventory and the possibilities presented by eLabMarketplace were particularly impactful. The implementation challenges were effectively addressed with eLabNext’s support, including the advice for a phased rollout and easy setup and installation of a dedicated private cloud.

The Jump Onto eLabNext’s team

Ramzi’s transition from being a client of eLabNext to joining the eLabNext team happened when the CCIA requested an eLabNext support team member to be present in their geographical location. This request aligned with eLabNext’s strategy: To provide customer support in clients’ local time zones. 

Ramzi ended up being the perfect fit for such a position. 

“Being part of both sides of the equation has allowed me to connect with everyone I’ve encountered in my research career, from researchers to biotech founders in Australia,” Ramzi describes. “It’s been a fantastic opportunity to collaborate with those addressing real-world problems and to leverage my unique perspective to help eLabNext’s clients in Australia, New Zealand, and the greater Asia Pacific.”

The Future of Lab Digitalisation

As Ramzi continues to support eLabNext users with his digital and scientific expertise, he, along with the entire eLabNext team, is looking toward the future of lab digitalisation. 

“In the short term, I envision lab digitalisation becoming increasingly integrated with AI and machine learning, enabling smarter data analysis and automation of routine tasks,” speculates Ramzi. “Innovations like eLabNext’s add-ons – Pipsqueak ProAI Protocol GeneratorImmunomind, and mpVision, are already paving the way for more intelligent and efficient lab operations.” Further out, Ramzi thinks that lab digitalisation may evolve to encompass virtual labs and immersive technologies, transforming the way we conduct experiments and collaborate globally.

Eppendorf and eLabNext’s strategic vision to deepen their integration into the Eppendorf ecosystem heralds an epoch of synchronised research excellence, propelling laboratories towards heightened efficiency, collaboration, and a sustainable digital future of scientific exploration and innovation.

To learn more about lab digitalisation in Life Science and Biotech Research, check out this Eppendorf Lab Channel webinar, “Digitalisation in Life Science and Biotech Research.”

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Digitalization

From Client to Team Member: An Interview with eLabNext Evangelist Ramzi Abbassi, Ph.D.

Join Ramzi as he shares his experiences, insights, and the future of lab digitalisation, offering a unique perspective from both sides of the equation.

eLabNext Team
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5 min read

Agri-tech, or ag-tech, is a rapidly evolving field focused on utilising advanced technologies to increase agricultural productivity and sustainability. It is a booming market filled with R&D scientists looking to provide more farmers with tools and technologies to improve crop yields, make plants resistant to insects and harsh weather, and increase nutritional value. 

With such ambitious goals comes the "stalk-high" task of creating efficient and optimised laboratory workflows that drive progress. What are the critical technologies needed to manage such an undertaking? And, just as important, how do you sync them to work effectively? In this blog, we'll highlight the importance of running a centralised agri-tech lab, some of the essential technologies in the industry, and how to integrate them all. 

The Dangers of De-Centralized Data

The issue many agri-tech labs face is that much of the vast data being generated is siloed (pun intended) between several stand-alone software platforms, incapable of communicating with one another. This hinders efficiency, reproducibility, and scalability. The backbone of an efficient lab is a single, unified environment for managing all aspects of laboratory operations, from sample tracking and data management to reporting and analysis. Let's look at the key technologies in agri-tech and the features to look for in streamlining those workflows.

Key Technologies for Agri-Tech

Molecular-Based Testing

Genotyping, marker-assisted breeding, and GMO testing provide ways to identify traits that would otherwise be impossible to select based on phenotype alone. Researchers use this to develop new crops with higher yields or improved nutritional value. 

  • Real-World Example: Development of golden rice or better seed germination in forages like millet.
  • Necessary Software Feature to Have: Visualise genetic sequences and allow for lab-wide collaboration among scientists.

Proteomics

Proteomics can be used to identify proteins that are involved in specific biological processes, such as plant stress response, nutrient uptake, metabolism, or insect resistance. This information is used to develop crops that grow in new environments or new pesticides that target specific proteins. 

  • Real-world Example: Aphid control in sorghum crops or canola cultivation in colder environments.
  • Necessary Software Feature to Have: Fully customisable metadata fields with advanced search functions for real-time reporting.

Bioimaging & Phenotyping

Visualising biological structures at the molecular level shows how phenotypes emerge from cellular-level traits. These technologies identify and characterise desirable characteristics to study the effects of different fertilisers or pesticides on plant growth.

  • Real-world Example: Disease resistance in cassava or less pesticide usage in soybean. 
  • Necessary Software Feature to Have: See the full history of a sample with parent-child sample relationships and see clone lineage quickly.

Soil, Feed, Fertiliser, and Water Analysis

Crops cannot flourish without the right ecological factors in place. Physical and chemical analysis of these components can be used to optimise crop yields, improve plant health, and ensure food safety. 

  • Real-World Example: Growing wheat or corn in extreme weather or ecological conditions.
  • Necessary Software Feature to Have: The ability to send out to third-party chemical testing companies for analysis.

Let Your Agri-Tech Laboratory Bloom

The technologies available to agri-tech labs have grown by leaps and bounds, but traditional software used in the lab has not. Don't let outdated lab software hinder your agri-tech lab's growth. Discover how eLabNext's digital lab platform can elevate your research work, improve efficiency, and ensure compliance. 

Take the first step to enhance your lab's performance with our personal demo or a free 30-day trial.

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Digitalization

The Growing Need for Centralised Lab Data in Agri-Tech

eLabNext Team
Jonathan Amadio
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5 min read

Last updated on 19 June, 2024.

BOSTON, MA – eLabNext (an Eppendorf Group company), the provider of a Digital Lab Platform with lab inventory management system (LIMS), electronic lab notebook (ELN), and artificial intelligence (AI)/machine learning(ML) solutions for life science laboratories, and Promega Corporation (Promega), a global leader in innovative technologies, tools, and technologies for the life science industry, announced a collaboration today to make Promega’s standard operating procedures (SOPs) readily accessible within the eLabNext Digital Lab Platform.

This partnership will enable select protocols associated with Promega’s Wizard™ Extraction Chemistries, GoTaq® Master Mixes, and Bioluminescence Glo® Assays products to be hosted on eLabNext’s web-based protocol and SOP management platform, eLabProtocols, allowing integration and incorporation into users’ eLabJournal, eLabNext’s easy-to-use, fully customizable ELN platform.

“As the industry matures, and the knowledge and need for lab digitization expands, especially with the inevitable acceptance of the role of AI in biotechnology, we have been seeing more and more of our customers requesting more easily accessible protocols for their assays,” says Zareh Zurabyan, Head of eLabNext, Americas. “We have noticed an uptick in requests for Promega Cell Biology, Protein Analysis, and other protocols, and given the mutual connections between Promega and us, it was a natural progression to work together so we can provide more comprehensive digital solutions for our mutual customers. Ultimately, our goal is to make scientists’ lives easier and integrating Promega’s SOPs directly into our platform will enable them to stay on top of the most recent protocol updates in real-time.”

“Promega is committed to providing digital tools to customers in academic, applied, pharma, biotech, and clinical research that increase accessibility to our leading tools and technologies,” says Tom Livelli, Vice President of Life Science Products and Services at Promega. “eLabProtocols provides a platform to easily adapt our reagent protocols to a laboratory’s specific research and quickly share them with colleagues to foster better collaboration.

The integration of Promega’s protocols serves as another example of the open and customizable functionality of eLabNext’s platform through eLabMarketplace.

About Promega Corporation

Promega Corporation is a leading provider of innovative solutions and technical support to the life sciences industry. With over 40 years of experience, the company offers a diverse portfolio of more than 4,000 products supporting various life science disciplines, including cell biology, DNA, RNA, protein analysis, drug development, human identification, and molecular diagnostics. Promega's tools and technologies have continually evolved and expanded their applications in academic and government research labs, forensics, pharmaceutical companies, and clinical diagnostics facilities, as well as in agricultural and environmental testing. Headquartered in Madison, WI, USA, Promega Corporation operates globally, with branches in 16 countries and an extensive network of over 50 global distributors.

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News

eLabNext Partners with Promega to Make Product Protocols Accessible for eLabProtocols Users

eLabNext Team
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5 min read

As an academic or industry scientist, no matter how large or small your research group is, the legal implications of your everyday work may be one of the furthest things from your mind. In the short term, you’ve got experiments to plan, funding to apply for, budgets to manage, and data to analyse.

But, while you’re focused on your “to-do” list for the week, there are long-term legal repercussions for everything you do. For instance, the experimental results and analyses you perform and record today can have far-reaching implications for intellectual property (IP) protection and future patent disputes over the timing of discovery. With the most recent events of former Harvard President Claudine Gay's resignation around allegations of plagiarism, it is imperative to discuss the legal expectations in the scientific world, whether it is in R&D, clinical trials, or drug discovery. 

Digitalising lab operations and implementing a defined Digital Lab Strategy has become a key step in “future-proofing” labs against legal complications, data loss, accidental or purposeful plagiarism, and procedural inefficiencies. While operating without digitalisation in a laboratory may not intrinsically lead to legal problems, there are several potential challenges and risks that can arise. These difficulties aren’t limited to paper-based record keeping but include inflexible digital platforms that aren’t tailored to the lab environment.

Data Security and Privacy Concerns

Paper-based records are more vulnerable to physical theft or unauthorised access than digital data. Failure to adequately protect sensitive information can result in legal consequences, especially if there are ISO or other regulations in place, such as GDPR or HIPAA, that mandate the protection of personal or sensitive data.

Alternatively, some labs may use a combination of digital tools that aren’t tailored to the laboratory environment. While these can be useful, some may not offer the security to keep sensitive data safe or protect against cyberattacks. Unpredictable events, such as natural disasters, may lead to data loss if data is stored in a paper format or digitally on a local network.

Documentation and Record Keeping

Inaccurate or incomplete manual records may lead to regulatory compliance issues. Audits and inspections by regulatory bodies are common in highly regulated environments and may be more challenging without organised and easily accessible digital records. Paper lab notebooks are not fully traceable and present challenges with linking data to specific instruments or equipment. Even digital platforms that some researchers use to record lab operations, such as OneNote, may not comply with 21 CFR Part 11 regulations, which lay out criteria for electronic records and signatures.  

Data Management

Paper-based record-keeping can create problems with retrieving, analysing, and interpreting data. Digital tools not tailored to the laboratory environment can make managing data, from creation to archival, slower and more error-prone. Without digital tools that are made for the data-heavy lab environment, research groups cannot demonstrate data integrity and traceability, which could pose compliance issues.

Reporting and Compliance

The regulatory environment is constantly changing. When using paper or piecemeal software tools, it can be difficult to generate timely and accurate reports required for compliance or to keep up with the ever-changing regulatory requirements. Flexible, customisable, and searchable digital lab platforms can help with this, particularly if bulk changes need to be made across multiple reports or notebook entries. 

Collaboration and Communication

Establishing and maintaining collaborations using paper-based notebook entries requires manual, time-consuming, and inefficient tasks. First, paper notebooks aren’t easily searchable, making finding specific entries or data difficult. Once found, entries must be scanned or copied to transmit electronically to a collaborator. Lack of efficient communication channels can lead to misunderstandings or delays in decision-making. With digital lab platforms, sharing and controlling entry permissions is as easy as a Google Doc. 

Intellectual Property Protection

Using paper lab notebooks can lead to IP problems due to the inherent risks of loss, damage, or unauthorised access. Paper records may be easily misplaced or damaged, resulting in the permanent loss of crucial experimental data, which can impact the claims made in patent applications or scientific publications. 

Additionally, the lack of version control in paper notebooks may make establishing the timeline of discoveries challenging, potentially leading to disputes over priority and ownership of intellectual property. Embracing electronic lab notebooks with secure access controls and data backup features can mitigate these risks and provide a more robust framework for protecting valuable intellectual property.

Conclusion

Laboratories need to assess their specific needs and regulatory requirements and determine how much digitalisation can address the legal challenges discussed above. Implementing an appropriate digital lab platform can help mitigate risks and enhance overall efficiency and compliance in laboratory operations.

To learn more about eLabNext and how our digital lab platform can help protect you from future legal trouble, read our report, “The Legal Implications of an Un-Digitized Lab,” or book a personal demo today.

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Security & Compliance

Avoiding Legal Complications Through Lab Digitalisation

Dive into the risks associated with un-digitalised operations, including data security concerns, documentation challenges, data management issues, and compliance hurdles.

eLabNext Team
Zareh Zurabyan
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5 min read
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