Industry Insights

Preparing Your BSL-3 Lab for Hurricane Season: Essential Steps for Safety and Continuity

As hurricane season approaches, the need for robust preparedness in high-containment laboratories, particularly BSL-3 labs, becomes critical. These labs handle dangerous pathogens that require stringent safety measures, making them especially vulnerable during severe weather events like hurricanes. Ensuring the safety and continuity of operations in these labs is paramount to protect both the research being conducted and the surrounding environment. Here’s a guide to help you prepare your BSL-3 lab for hurricanes and other storms. 1. Develop and Regularly Review the Comprehensive Emergency Plan The first step in preparing your BSL-3 lab for hurricane season is to review your current plan or establish a detailed emergency plan. This plan should outline the procedures for securing the lab before a storm, as well as the steps to take during and after the event. It’s crucial to review and update the emergency plan regularly, ensuring that any changes are communicated to all personnel. Key elements of the plan should include: Risk Assessment: Identify potential risks specific to your lab’s location and operations. This includes evaluating the lab’s structural integrity, utilities, fuel supply and access to essential emergency services. Emergency Contacts: Maintain an updated list of key personnel, including lab managers, safety officers, and local emergency services. Ensure that all staff members are aware of the contact procedures. Evacuation Procedures: Clearly outline evacuation routes and procedures, ensuring that all personnel are trained and familiar with them. Their safety as well as their families is paramount. Onsite personnel need a family evacuation plan. 2. Safeguard Critical Research and Equipment Hurricanes and storms can cause significant damage to laboratory equipment and disrupt ongoing research. To minimize the impact, it’s essential to safeguard critical research materials and equipment: Backup Data: Regularly back up all important data and research findings. Store backups in a secure, off-site location or use cloud-based storage solutions that are accessible from remote locations. Protect Equipment and Research Materials: Secure sensitive equipment and research materials by moving them to safe areas within the lab, away from windows and potential water damage. Use waterproof coverings and store materials in sealed containers. Refrigeration and Power Backup: Ensure that freezers, refrigerators, and other essential equipment have backup power sources. Verify that the critical systems maintain power in the event of a power outage. 3. Ensure Structural Integrity and Facility Safety The physical safety of your BSL-3 lab or ABSL-3 lab is a top priority during hurricane season. Conducting a thorough inspection of the facility can help identify potential vulnerabilities: Inspect Building Structure: Check the building’s roof, windows, overhead storm drainage piping and doors for any signs of wear or damage that could be exacerbated by high winds or heavy rain. Reinforce these areas as needed. Secure Hazardous Materials: Ensure that all hazardous materials are properly stored and secured. This includes double-checking that all containment procedures are followed, and that chemical storage areas are reinforced against potential leaks or spills. Test Emergency Systems: Regularly test all emergency systems, including fire alarms, ventilation, differential pressure alarm and emergency power to include local Uninterrupted Power Supply (UPS). Station flashlights throughout the laboratory and support spaces. Make sure these systems are fully operational, and that staff knows how to use them in an emergency. 4. Plan for Post-Storm Recovery Preparation doesn’t end when the storm passes. Having a post-storm recovery plan in place is crucial for resuming operations quickly and safely: Damage Assessment: As soon as it is safe to do so, conduct a thorough assessment of the lab to identify any damage or safety hazards. This should include structural checks as well as an inventory of equipment and materials. Structural issues could affect containment. Check differential pressures to ensure HVAC equipment has not been damaged. Take photographs for the facilities department of the wet sections of drywall, as mold remediation will likely be necessary. Decontamination Protocols: If any containment breaches occur, have decontamination protocols ready to address spills, leaks, or other contamination issues. This may involve specialized cleaning teams or additional safety measures to ensure the lab is safe for re-entry. Communication: Keep open lines of communication with all personnel and relevant authorities throughout the recovery process. Ensure that everyone is informed about the status of the lab and any steps needed to restore normal operations. 5. Review and Update Protocols Regularly Finally, it’s essential to regularly review and update your emergency preparedness protocols to reflect any changes in the lab’s operations or physical layout. Hurricane season can be unpredictable, and having an up-to-date plan ensures that your lab is always ready to respond effectively. 6. Evacuation Establish in advance the scenarios that would require laboratory evacuation. Maintaining constant communication with facilities and executive management during the devolution of the facility is crucial for determining when evacuation is necessary. Conclusion Preparing your BSL-3 lab for hurricanes and other severe storms is not just about protecting equipment and data—it’s about ensuring the safety of your personnel and the integrity of your research. By developing a comprehensive emergency plan, safeguarding critical assets, ensuring the structural integrity of your facility, and planning for post-storm recovery, you can mitigate the risks associated with severe weather events. World BioHazTec is here to support your lab with expert advice and services, ensuring that your high-containment laboratory remains safe and operational, even during the most challenging conditions. Schedule a free 30-minute consultation or send us an email. Our services to support you include: Risk assessment Lab inspection Certification including testing emergency backup power Emergency response training and drills Writing and/or reviewing emergency response plans

laboratory with a high-containment design

The Importance of Redundant Systems in High-Containment Laboratory Design

In the realm of high-containment laboratories, where safety, reliability, and precision are paramount, the design and construction phases demand meticulous attention to detail. One of the most crucial aspects that often distinguishes a well-functioning laboratory from a potentially hazardous one is the incorporation of redundant systems. These systems ensure that critical safety measures remain operational even in the face of unexpected failures, thereby safeguarding both personnel and the research being conducted. Understanding Redundant Systems in Laboratory Design Redundant systems refer to the implementation of backup or secondary systems that can take over the function of a primary system if it fails. In high-containment laboratories, such as those classified as BSL-3 or ABSL-3, where work involves dangerous pathogens or hazardous materials, redundancy is not just a recommendation—it’s a necessity. These laboratories must adhere to safety guidelines set forth by the Centers for Disease Control (CDC) and the National Institutes of Health (NIH). For instance, in the design of HVAC (Heating, Ventilation, and Air Conditioning) systems within these labs, redundancy ensures that air filtration and directional flow are maintained even if one component fails. This is vital in preventing the escape of harmful agents into the environment. Similarly, redundant containment systems, such as double-walled isolation chambers or backup power supplies for critical systems, provide an additional layer of security. Case Study: University Client The recent project for a university to design a BSL-3 laboratory serves as a prime example of the importance of redundant systems. During the design phase, World BioHazTec emphasized the need for integrated redundant systems to ensure the lab’s safety and compliance with industry standards. By proactively identifying potential weaknesses in the design, such as HVAC failure scenarios, and addressing them through redundancy, the project team was able to avoid costly rectifications later in the construction and commissioning phases. Another key focus was implementing administrative controls alongside redundant engineering controls. This approach ensured that even if a primary control system failed, the secondary system would maintain safety protocols, thereby reducing the risk of containment breaches. Why Redundancy Matters The primary reason for incorporating redundant systems in high-containment labs is to protect human life and the environment. In these labs, where the stakes are incredibly high, a single failure can lead to catastrophic consequences. Redundant systems act as a safety net, ensuring that the lab remains secure even in the worst-case scenario. Moreover, redundancy in design also facilitates compliance with regulatory requirements. In the United States, agencies like the CDC require laboratories to demonstrate that they have adequate safety measures in place to handle any potential failures. By integrating redundant systems from the outset, labs can more easily meet these stringent requirements, ensuring a smoother commissioning process. Conclusion Redundant systems are not just an added feature in high-containment laboratories—they are a critical component of safe, reliable and sustainable design. As our university client project illustrates, the careful planning and implementation of these systems can make the difference between a safe, compliant laboratory and one that poses significant risks. For any organization involved in designing or operating high-containment labs, investing in redundancy is investing in safety, compliance, and the long-term success of their research endeavors. World BioHazTec’s commitment to integrating these systems showcases the firm’s dedication to safety and excellence in biocontainment, setting a standard that others in the industry would do well to follow. To learn more about how we can strengthen your design team, schedule a free 30-minute consultation or send us an email. You are a conversation away from starting down a successful pathway to meet BSL-3 facility compliance.

Why You Should Validate Your Lab Waste Equipment

In laboratories handling biological materials, safety is paramount from the moment research begins to the final disposal of waste. Ensuring that contaminated waste is treated appropriately before it leaves your facility is not just good practice—it’s a critical component of maintaining a safe and compliant laboratory environment. This is where the validation of lab waste equipment becomes essential. The Importance of Waste Equipment Validation The potential for exposure to hazardous biological materials exists at every stage of laboratory work, making the validation of waste equipment a vital process. According to the National Institutes of Health (NIH) and the Centers for Disease Control and Prevention (CDC) in the “Biosafety in Microbiological and Biomedical Laboratories (BMBL), 6th Edition,” it’s necessary to develop and implement a decontamination program with routine verification of the decontamination processes. Additionally, the Federal Select Agent Program (FSAP) regulations specify that any validated methods used for disinfection, decontamination, or destruction of contaminated materials must have a written procedure. This ensures that all processes are consistent, effective, and compliant with federal guidelines. World BioHazTec’s Approach to Waste Equipment Validation World BioHazTec provides site-specific hazardous waste management protocols that include on-site visits to independently verify that your lab’s equipment meets specific standards and safety regulations. This validation process is meticulously documented, ensuring that you have comprehensive records of all biohazard and chemical waste disposal equipment validations. But why is this so critical? The answer lies in the responsibility of ensuring that all waste is treated effectively before it leaves your facility. Here’s how World BioHazTec helps you achieve that: 1. Autoclaves Autoclaves are essential for sterilizing lab waste, but how do you know if they function correctly under all conditions? World BioHazTec develops protocols to validate autoclave cycles by conducting tests under “worst-case scenario” conditions. These tests ensure that even in the most challenging situations, your autoclave effectively sterilizes waste. The data is compiled into a comprehensive validation report, giving you peace of mind that your equipment is up to the task. 2. Decontamination Chambers Decontamination chambers often use fumigation treatments like chlorine dioxide or vaporized hydrogen peroxide (VHP) to neutralize contaminants. World BioHazTec verifies the effectiveness of these treatments by creating and testing protocols with biological indicators. The results are documented in a detailed validation report, ensuring that your decontamination process is effective and compliant. 3. Effluent Decontamination Systems Effluent Decontamination Systems (EDS) are critical for treating liquid waste, but their efficacy needs to be validated to ensure they’re working as intended. World BioHazTec develops site-specific protocols and conducts on-site assessments using biological indicators. The validation report provides a thorough record of the system’s performance, ensuring that waste is adequately sterilized before disposal. 4. Tissue Digesters For labs dealing with infectious tissue waste, including prions, tissue digesters must be validated to ensure they are sterilizing waste effectively. World BioHazTec’s experts create and validate testing protocols and conduct on-site evaluations. The final report details the validation process and results, confirming that your tissue digester performs to the highest standards. Conclusion Validating your lab waste equipment is not just about compliance; it’s about ensuring the safety of your personnel, the public, and the environment. World BioHazTec’s rigorous validation processes provide the assurance you need that your lab’s waste is being treated responsibly and effectively before it leaves your facility. Whether it’s autoclaves, decontamination chambers, effluent systems, or tissue digesters, our comprehensive approach to validation helps you maintain a safe, compliant, and efficient laboratory operation. Investing in proper validation now can prevent costly and dangerous errors in the future, making it a critical component of any laboratory’s safety protocols. For more information about how we can help you validate your decontamination processes, schedule a free 30-minute consultation or email us.

“Like Patenting the Sun”: America’s Fight Against Polio and the Power of a Vaccine

In the early 1950s, as the United States relaxed in the post-WWII glow, a terrifying disease threatened to disrupt the safety and peace that families had fought so hard to secure. Polio, a virus that cast a shadow over families for decades, surged to alarming levels, with a peak of 57,879 reported cases in 1952, resulting in 3,145 deaths. This terrifying epidemic, which primarily struck children, shattered the idealized vision of suburban life and posed an existential threat to the very idea of family safety in a modern, scientifically advanced world. A Nation Gripped by Fear For middle-class American families, polio was an unwelcome intrusion into a life they believed they could control. The postwar years had promised safety—victory over the Great Depression, success in World War II, and the newfound comforts of suburban living. But polio, which could paralyze or kill seemingly without reason, introduced a sense of vulnerability and helplessness. The random nature of its spread left families in constant fear. An otherwise healthy child could be struck down in an instant, leaving parents to wonder where they went wrong. The polio virus could take anywhere from six to twenty days to incubate and remained contagious for up to two weeks. Its long incubation period, coupled with the fact that the virus was highly stable in the environment, made it nearly impossible for experts to track how it was spreading. Some believed it was spread through water, leading to public pools and beaches being closed during the summer months. In fact, one book about the epidemic is aptly titled The Summer Plague, emphasizing how the virus seemed to return each year, adding to the dread. The Impact of Polio on Daily Life During the height of the epidemic, life as usual was put on pause. Swimming pools, movie theaters, and even playgrounds were shut down to protect children from the virus. Parents, gripped by the fear that their children could "catch polio" at any given moment, kept them isolated, away from friends, and away from public spaces. Rumors abounded, blaming soft drinks, weather patterns, or even the use of paper money for spreading the disease. Health officials, overwhelmed by the unpredictability of the virus, took extreme measures—such as isolating children suspected of being infected and quarantining them in sanitariums. By the time the polio epidemic reached its peak, fear was ingrained into American life. Each summer, when the virus was most active, the country seemed to hold its breath, waiting for the next wave of infections. Counterintuitive Culprit: Hygiene and Clean Water Polio had existed in obscure forms before the twentieth century, with occasional outbreaks in the 18th and 19th centuries. But it wasn't until the early 1900s that the disease became a widespread epidemic. The clue to its terrifying rise was hidden in something presumably beneficial: improving sanitation and clean water systems. Before the 20th century, the virus was rampant in water supplies. When a very young child was exposed, it would often cause a mild reaction, such as diarrhea, that would lead to lifelong immunity. But as public health efforts improved sanitation and water systems, children no longer had the mild exposure that would naturally build immunity. As a result, polio began to affect older children and young adults who were not immune. With no understanding of the virus’s transmission or how to prevent it, epidemics like the one in 1916, and later ones in the 1940s and 1950s, were disastrous. Polio's victims were disproportionately from the middle class, which struck fear into this emblem of American global superiority. The virus struck at a time when modern society had assumed it had mastered infectious diseases. Polio was the cruel reminder that not even the most advanced systems could protect against everything. The Search for a Vaccine: A Triumph of Science and Collaboration In the midst of this public health crisis, hope emerged in the form of a vaccine. Dr. Jonas Salk, a name now synonymous with polio eradication, developed the inactivated polio vaccine (IPV), which would change the course of history. By 1955, the vaccine had been tested and found to be both safe and effective. This was a monumental breakthrough. For Salk, the success of the vaccine was not about personal profit—he famously refused to patent it, saying it would be like “patenting the sun.” The introduction of the vaccine led to a massive public health campaign. Between 1955 and 1962, over 400 million doses of the vaccine were distributed, dramatically reducing cases by 90%. Polio, once the most feared disease in America, began to fade into memory. The collective effort that brought the vaccine to fruition—through the leadership of President Franklin Roosevelt, the work of scientists like Salk, and the bravery of volunteers who tested the vaccine—was a triumph of cooperation and public trust in science. The Cold War Twist: The Sabin Vaccine and Global Cooperation While Salk’s vaccine was taking hold in the U.S., another breakthrough emerged. Dr. Albert Sabin developed an oral polio vaccine, which could be taken in a simple pill rather than requiring an injection. However, by the time Sabin was ready to test his live-virus vaccine in the U.S., many children had already received the Salk vaccine, so he turned to Eastern Europe for testing. In one of the most remarkable stories of Cold War collaboration, Sabin tested his vaccine on millions of children in the Soviet Union, Hungary, and other Eastern European countries, where the results were overwhelmingly positive. The success of the Sabin vaccine in these countries demonstrated the power of international cooperation during a time of immense political tension. Hungary, in particular, became a pioneer in polio vaccination, beginning its nationwide vaccination campaign in 1959—four years before the United States adopted the Sabin vaccine. This global effort to eradicate polio marked a rare moment of unity in an era defined by the ideological divide of the Cold War. A Faint Memory: Polio's Legacy and the Ongoing Struggle By the end of the 20th century, the specter of polio had receded into the background of public consciousness. With vaccination programs and public health campaigns, polio became a disease of the past in many parts of the world. However, the legacy of this disease lives on, not only in the memories of those who lived through the epidemic, but also in the ongoing fight to eradicate it completely. In some ways, polio is now a victim of its own success. Today’s parents, who have never seen the disease’s devastating effects, may take vaccines for granted. But the history of polio serves as a reminder of the power of science, collaboration, and public trust. It also underscores the importance of remaining vigilant in the face of new and evolving health threats. References Janssen, Volker. (2023). When Polio Triggered Fear and Panic Among Parents in the 1950s. Retrieved from https://www.history.com/news/polio-fear-post-wwii-era Kurlander, Carl. (2020). How the deadly polio epidemic changed American life for decades before a vaccine was found. Retrieved from https://www.milwaukeeindependent.com/syndicated/deadly-polio-epidemic-changed-american-life-decades-vaccine-found/ Lienhard, John H. Polio and Clean Water. Retrieved from https://engines.egr.uh.edu/episode/1527 Rochford, Rosemary. (2022). A virologist explains polio’s history as fears of a resurgence grow. Retrieved from https://arkansasadvocate.com/2022/09/08/a-virologist-explains-polios-history-as-fears-of-a-resurgence-grow/ Vargha, Dóra. (2018). Polio Across the Iron Curtain: Hungary’s Cold War with an Epidemic. Retrieved from https://www.ncbi.nlm.nih.gov/books/NBK565345/ Weeks, Linton. (2015). Defeating Polio, The Disease That Paralyzed America. Retrieved from https://www.npr.org/sections/npr-history-dept/2015/04/10/398515228/defeating-the-disease-that-paralyzed-america

5 Key Takeaways from the ISO 35001:2019 Lead Auditor Course

Since its launch in 2019, ISO 35001 has gained significant global interest, particularly among organizations seeking to strengthen biosafety and biosecurity risk management in the workplace. Learning from Dr. Stefan Wagener of Biorisk Management International (BRMI) during this course was both intensive and enriching. Representing our teams across Asia, North America, and Latin America, here are five key takeaways from the course. Enhancing Our Value as Certifiers and Consultants At World BioHazTec, we serve our clients in both certification and consulting roles, though never simultaneously—a critical principle emphasized in this course. As lead auditors, we must assess every clause of ISO 35001, as none can be excluded. With limited time on-site and hundreds of mandatory "shall" requirements, how do we efficiently gather evidence? Learning to think like a lead auditor not only strengthens our audit process but also enhances the quality of our consulting services. A Hands-On, Interactive Learning Experience ISO 35001 sets a high bar, and so does this course—daily individual and group exercises, quizzes and a final exam demand full attention and deep engagement. Fortunately, Stefan Wagener and the team at BRMI ensure the material is far from dry or overly technical. Through interactive exercises, real-world case studies, and engaging discussions, participants gain hands-on experience applying ISO 35001 principles. What made this experience even more valuable was the diverse perspectives in the room. With attendees from around the world—biosafety professionals, biosecurity experts, scientists, and engineers—discussions often revealed different interpretations shaped by cultural and regulatory contexts. This collaborative learning environment made the course dynamic and insightful, while also providing practical strategies for auditing clients from various industries. ISO 35001:2019 Requires Serious Commitment Adopting ISO 35001 is not just a box-checking exercise—it demands a long-term commitment from organizations. Successful implementation requires: ✅ Strong leadership support to drive adoption ✅ Comprehensive training to ensure conformity ✅ Adequate financial resources for a sustainable biorisk management system Without these elements, achieving and maintaining conformity becomes incredibly challenging. However, ISO 35001 incorporates a structured "Plan, Do, Check, Act" approach to biorisk management, ultimately strengthening an organization’s biosafety culture and moves biorisk management to the system level. The Course is Designed for Subject Matter Experts (SMEs) ISO 35001 follows a familiar clause-based framework, but its specialized focus on a biorisk management system sets it apart from other ISO standards and requires an upfront knowledge of laboratory biosafety and biosecurity, As our instructor pointed out, it’s easier for a biosafety SME to learn auditing than for an ISO 9001 auditor to transition into ISO 35001 auditing. For biosafety practitioners, this course provides the necessary structure, tools, and knowledge to successfully conduct both internal and external ISO 35001 audits. If you’re already working in biosafety or biosecurity, this training will significantly enhance your auditing capabilities. Before Learning ISO 35001:2019, You Need to Understand ISO 19011 ISO 35001 does not stand alone—it relies heavily on ISO 19011, the global guideline for auditing management systems. ISO 19011 provides the principles, procedures, and competency requirements for auditors across various fields, including quality, environmental, safety, and information security. A solid understanding of ISO 19011 is essential for conducting effective and structured ISO 35001 audits. At World BioHazTec, we have long adhered to these principles as certifiers. Applying ISO 19011’s systematic approach has allowed us to continuously improve our audit processes and enhance our team’s competencies. Final Thoughts The ISO 35001:2019 Lead Auditor Course is an intensive yet high-value training program designed for biosafety and biosecurity professionals looking to deepen their expertise in biorisk management system implementation and auditing. This course goes beyond theory, offering real-world applications of ISO 35001 while fostering global collaboration among industry experts. For those looking to elevate their knowledge of biorisk management systems, this BRMI course is an investment worth making—but be prepared for a challenging, rewarding, and highly engaging experience! Learn more about how World BioHazTec can assist you with your biorisk management system.

Celebrating 30 Years of Excellence: World BioHazTec’s Journey in Biosafety and Biosecurity

For three decades, World BioHazTec has been at the forefront of biosafety and biosecurity consulting, helping countless organizations meet rigorous standards and create safer laboratory environments. What started as a small, specialized consulting firm has evolved into a global leader known for its innovative solutions, expert guidance, and unwavering commitment to protecting both people and the planet. As we celebrate our 30-year milestone, we’d like to reflect on how we got here and share what’s on the horizon. A Legacy of Expertise and Innovation When World BioHazTec opened its doors 30 years ago, biosafety was still an emerging field. Laboratories and research facilities often grappled with a patchwork of safety guidelines and minimal oversight. Recognizing a need for clear, consistent standards, we set out to develop comprehensive consulting services that would empower organizations to reach the highest level of safety and regulatory compliance. Over time, we’ve embraced technology-driven solutions—from advanced laboratory design tools to sophisticated HVAC diagnostics—that continue to shape the future of biosafety. Guiding the Evolution of Biosafety Standards and Regulations Our influence extends beyond day-to-day consulting projects, as we actively participate in shaping and refining industry guidelines. Over the years, World BioHazTec has consulted on and contributed to the development and review of essential biosafety standards and regulations, such as the Biosafety in Microbiological and Biomedical Laboratories (BMBL), the National Institutes of Health Design Requirements Manual, ANSI/ASSP Z9.14-2020, and the NIH BSL-3 Laboratory Certification Requirements and Checklist. We have also been involved in reviewing the CEN Workshop Agreement 15793: Laboratory Biorisk Management Standard which has been converted to ISO 35001:2019, as well as advising on the Singapore Standard Biorisk Management and the Singapore Biological Agents and Toxins Act. Our deep familiarity with these regulations—and our hands-on industry experience—ensures that the solutions we provide keep laboratories worldwide at the cutting edge of safety and compliance. Driving Global Impact Over the past 30 years, World BioHazTec has established a strong global presence by addressing operational challenges in BSL-2 and BSL-3 laboratories, utilizing in-country resources, and training local personnel to manage biosafety and preventative maintenance effectively. We’ve expanded our reach by opening offices in Singapore and Latin America, where we’ve delivered impactful results. Highlights include becoming the first Ministry of Health-approved facility certifier for BSL-3 and ABSL-3 laboratories in Singapore, certifying the country’s first BSL-3 laboratory under the Biological Agents and Toxins Act, and consulting on the design and construction of Singapore’s first BSL-4 laboratory. In Latin America, we are currently consulting on the design of a BSL-3/BSL-4 cabinet lab in Chile—the first of its kind in the region—and have delivered significant biosafety training by partnering with the Organization of American States to enhance biosafety practices throughout Latin America. In Brazil, we contributed to the design of the nation’s first BSL-4 laboratory, showcasing our expertise in high-containment facilities. Additionally, we’ve engaged with the biosafety community by attending inaugural conferences in Singapore, Indonesia, Korea, the Philippines, and Malaysia. This extensive experience underscores our capability to collaborate on addressing administrative and engineering control challenges in these regions. Collaborative Approach and Trusted Partnerships One key to our longevity has been building strong relationships with clients and collaborators. Over the last 30 years, we’ve partnered with leading academic institutions, research hospitals, and private corporations, supporting them through complex projects. By listening carefully to each organization’s needs—whether it’s a university seeking a new lab layout or a multinational company aiming to comply with evolving regulations—we tailor our solutions to deliver measurable, sustainable results. Our team of engineers, biosafety professionals, scientists, and project managers works closely with every client to ensure transparency, effective communication, and long-term success. Looking Forward While our journey so far has been remarkable, we know that the future holds even more possibilities for growth and innovation. Emerging infectious diseases, evolving regulatory frameworks, and the expansion of high-containment research facilities underscore the ongoing need for diligent, effective biosafety measures. World BioHazTec is dedicated to staying on the cutting edge of this field, combining our decades of experience with new technologies and best practices to safeguard the well-being of lab personnel, surrounding communities, and the environment. Thank You for 30 Years As we commemorate this special anniversary, we want to extend our heartfelt thanks to everyone who has been part of our story: our dedicated employees, loyal clients, and industry partners. Your trust and collaboration have fueled our passion and helped us grow into the organization we are today. We look forward to continuing this journey together—providing top-tier biosafety and biosecurity consulting, adapting to new challenges, and making the world a safer place for groundbreaking research. Here’s to the next 30 years of innovation, collaboration, and excellence in biosafety. We’re excited to see where this path leads, and we invite you to stay tuned for the next chapter in World BioHazTec’s story. If you have any questions or want to learn more about our services and projects, feel free to contact us. We’d love to hear from you!

World BioHazTec is an Accredited Provider (AP) of the International Association for Continuing Education and Training (IACET). As an IACET Accredited Provider, World BioHazTec offers IACET CEUs for its learning events that comply with the ANSI/IACET Continuing Education and Training Information.

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