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World BioHazTec has been a leader in biosafety and biosecurity since its inception in 1995. Over the years, we have successfully completed numerous groundbreaking projects and received prestigious awards, showcasing our dedication to excellence and innovation.

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scientist using a pipette in a BSL-3 facility

The 5 Strategic Advantages of Certifying Your BSL-3 Facility

Biosafety Level 3 (BSL-3) incidents are rare, yet their repercussions are monumental. Operating at BSL-3 demands meticulous protocols and unwavering risk mitigation. While rare, any lapses can have far-reaching and potentially devastating consequences. In this article, we explore the significance of BSL-3 certification. Even though it may not be mandatory in your country, it proves to be a vital strategic move. 1. Professional Accountability In a Biosafety Level 3 (BSL-3) facility, professional accountability emerges as the first compelling intention. Activities in a BSL-3 facility include the propagation of high-risk pathogens and long-term storage. This entails a profound responsibility. Researchers operating within BSL-3 facilities are accountable for ensuring not only their safety but also the safety of their colleagues, the community, and the environment. Certification acts as a tangible manifestation of this commitment, demonstrating to stakeholders and regulatory bodies that the organization embraces the gravity of their work. Beyond biosafety, BSL-3 certification also underscores the importance of stringent biosecurity measures, ensuring the safeguarding of these pathogens against unauthorized access and potential misuse. By obtaining BSL-3 certification, operators signal their dedication to maintaining the highest standards of both biosafety and biosecurity, fostering a culture of responsibility and accountability within the facility and beyond. 2. Public Health Preparedness Biosafety Level 3 (BSL-3) facilities play an indispensable role in public health preparedness. When a pandemic strikes, BSL-3 facilities stand at the forefront of the fight, equipped with the expertise and infrastructure necessary to handle and analyze high-risk pathogens. These facilities serve as vital hubs for research, diagnostics, and the development of therapeutic interventions. BSL-3 certification, in this context, becomes a strategic asset, signifying a commitment to being at the forefront of global health emergencies. It positions the facility to swiftly and effectively respond to emerging threats, contributing significantly to public health resilience and preparedness on a global scale. When the real test of a pandemic arrives, a certified BSL-3 laboratory signifies a prepared laboratory, with competent professionals adeptly executing their roles, ensuring a prompt and effective response to safeguard public health. 3. Creating a Safe and Secure Culture In a certified BSL-3 facility, a dedicated commitment to establishing a culture of biosafety and biosecurity is evident. This certification stands as a tangible testament to the management’s unwavering dedication to continuously enhancing biosafety and biosecurity measures. It mirrors a proactive approach towards nurturing a workplace culture that places the well-being of its staff and the integrity of its operations at the forefront. The certification process mandates rigorous adherence to standards, promoting continuous training and evaluation. This level of commitment resonates with the laboratory personnel, instilling confidence that their management is wholeheartedly invested in cultivating an environment where biosafety and biosecurity take precedence. 4. Safety Equals Quality A certified BSL-3 facility not only prioritizes safety and security but also indirectly contributes to the overall quality of results. Taking reference from the World Health Organization’s Handbook on Laboratory Quality Management System, laboratory safety is a cornerstone for establishing robust laboratory practices. By fostering a culture of strict adherence to biosafety protocols, certified BSL-3 facilities systematically integrate quality management principles into their daily operations. This meticulous approach not only safeguards the well-being of personnel but also ensures the integrity of laboratory processes. As safety practices become ingrained in the laboratory’s ethos following international quality management principles, the probability of errors and contamination diminishes, leading to consistently high-quality research outcomes. In essence, the commitment to safety in a certified BSL-3 facility reinforces the crucial connection between safety practices and the reliability of scientific results. 5. International Collaboration Opportunities A certified BSL-3 facility, known for its adherence to rigorous safety and security standards, builds credibility and trust within the scientific community. Collaborators and funding agencies, especially those from different countries, are more likely to engage with a facility that is recognized for its commitment to maintaining high-quality, safe, and secure research environments. BSL-3 facilities that demonstrate adherence to internationally recognized certification standards also make themselves attractive partners for collaborations assuring that research will be conducted in a secure environment, minimizing the likelihood of accidents or incidents. Conclusion In the pursuit of scientific excellence, BSL-3 certification emerges not merely as a commitment to safety but as a strategic gateway to collaborative possibilities. A certified BSL-3 facility, fortified by rigorous safety and security standards, amplifies credibility within the scientific community and encourages collaboration on a global scale. Let World BioHazTec be your strategic partner in preparing your facility to meet our certification requirements, widely acknowledged as the gold standard in BSL-3 certification. Contact World BioHazTec (WBHT) to 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.

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Five Design Considerations for Animal Laboratories

At the beginning of the design process, there are many decisions that must be made regarding equipment, sinks, showers, biological safety cabinets (BSCs), and other primary barrier equipment, the configuration of the HVAC system, and contingencies based upon the facility design elements required by the agents that will be worked with or studied. Sustainability, maintainability, and energy usage must also be factored into the design. Organizational preferred operations must be included, and SOPs often dictate final designs. Spatial relationships need to be evaluated to determine flow and function. When animals are part of the laboratory work, additional design features are needed which add complexity to the design. 1.  Design Standards, Guidelines, and Regulations for Animal Laboratories Paramount to safety is the understanding of the application and intent of biosafety and biocontainment guidelines. Biosafety design is based upon risk assessment. The design team should be accustomed to working with the Biosafety Officer, users, and stakeholders in formulating and documenting risk assessments when needed to support design decision-making. Determining your research goals or planned laboratory work, grant design requirements, and regulatory compliance will drive the design criteria. When designing an animal facility such as an ABSL-2 or ABSL-3 laboratory, beyond the compulsory local national and international guidance documents, you may want to also consider the following guidelines and standards: NIH Design Requirements Manual for Biocontainment Laboratories; U.S. Department of Agriculture (USDA) Research Service Guidelines, (as applicable); Association for Assessment and Accreditation of Laboratory Animal Care (AAALAC); National Research Council Guide for the Care and Use of Laboratory Animals; National Research Council Occupational Health and Safety in the Care and Use of Research Animals; and National Research Council Occupational Health and Safety in the Care and Use of Nonhuman Primates. 2.  Odor  The management of odor from animal facilities, autoclaving, waste treatment, and tissue digesters is unique to containment facilities. Elevator shafts and loading docks serve as pathways for the distribution of odors. Using positive pressured elevator vestibules, adjoining positive pressured corridors, and local ventilation can contain odors. Dedicating an elevator for vertical movement of animals from receiving to the animal suite will also control odors. Adding a pneumatic waste removal system can contain waste removal odors from the animal suite to the building loading dock area. These engineering controls allow for the placement of vivariums anywhere vertically in a research tower instead of the traditional basement location. 3.  Noise Subjecting animals to noise and vibration can have significant impact on animal reproduction and sensory development, behavior, and can expose animals to injury startle responses. The location of rotating machinery in animal facilities can stress animals, so cage washing areas and mechanical spaces with fans and pumps need to be distanced from animal holding areas. Another source of noise is the ventilation system with elevated room level supply and exhaust noise. In addition to negatively affecting animals, this can also affect workers’ communication and awareness to their surroundings. 4.  Space Requirements Caging design, rack sizes and types, and animal model are key factors in analyzing space requirements. Identifying the maximum number of types of animals to be housed according to biosafety level can maximize space utilization for the present and the future. This information bears heavily on the design approach to room space allocation, cage washing equipment, whether disposable caging is more economical, cage changing stations or BSCs, and watering system versus bottle caging. 5.  Emergency Signaling Systems Placement of emergency signaling systems (e.g., fire alarm, HVAC failure alarm, room pressurization alarm, security alarm) is essential to alert personnel to act. Signaling systems must be accessible for lab personnel, biosafety officers, and emergency response personnel. Ever conscious of animals, the alarms cannot be strobing in holding facilities so as not to stress animals. Animal Laboratory Design Recommendations In analyzing the final design, emphasis needs to be placed on the details. Constant referral to the research program requirements, containment guidelines, lessons learned, project construction and operating budgets, and the completeness of the design documents are essential to a successful design that meets the users’ and the stakeholders’ needs and provides sustainability. Efforts spent in design by an integrated team of users, professionals, and stakeholders will culminate in a safe, sustainable, efficient, and secure research facility. Are you planning to build or renovate a BSL-3/ABSL-3 laboratory? No matter what project phase you are in, contact World BioHazTec (WBHT) to schedule a free 30-minute consultation or send us an email. We can prepare a feasibility study, develop conceptual designs with cost estimates, perform a site assessment, peer review design documents, commission/certify your animal facility, and train staff. You are a conversation away from starting down a successful pathway to meet containment compliance and sustainability.

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Emergency Extrication from Containment Laboratories

A laboratory team member has collapsed in containment. Will other team members know how to properly extricate and transfer them to emergency services? An important part of laboratory worker safety is emergency preparedness and incident response. An emergency is typically defined as “an event that poses an immediate risk to health, life, property, or the environment.” Most emergencies require urgent intervention to prevent a worsening of the situation. In the case of responding to a worker who has become incapacitated within a containment laboratory, rapid response is crucial. Training on the proper procedures for emergency extrication should be conducted regularly to ensure the safety of not only the injured worker, but also that of the responding worker. Most of all, laboratory workers must be confident in the procedures, know how to quickly locate rescue equipment, and know the proper calls to make to be effective. Although the agencies involved and the procedures used may vary due to government requirements and facility layouts, there are basic guidelines that are universal. After 16 years as a First Responder, I have been on scenes where workers did not know how to respond to an emergency. Below are recommendations specifically for containment laboratory settings and tips for proper extrication to ensure the safety of all. The first step is for the responding worker to remain calm and control their breathing. It is human nature for stress to increase in emergency situations. Providing training and keeping workers informed in emergency response will build workers’ confidence and ability to remain calm. Alertness Level (AVPU Scale): Upon initial contact with the patient, the responding worker should first determine if the patient is: 1. Alert and conscious? 2. Verbal (Do they look at you when you speak to them?) If not, then: 3. Pain (Do they respond to touch, such as patting hand, shaking the shoulder?) If not, then they are: 4. Unresponsive (There is no response.) Visual/Tactile: • Are they breathing? Does the chest rise? • Is the PAPR working? Do I Perform CPR Before Calling Emergency Services? No. Call 911 first or your country’s emergency services contact number. It is urgent that emergency services are called first to minimize response time. If there is more than one co-worker in the lab, one worker can proceed with decontamination and prepare to move the patient while the other notifies 911 and the safety team. Also, there are no AEDs in containment. Getting them to the anteroom for CPR and other lifesaving measures is crucial. Call Script For Emergency Response Posted By The Phone. It is also recommended to have an emergency call script posted by the laboratory phone to ensure that important information is not missed. It should include: 1. The location, including building and precise room number. Do not leave blanks. People under stress may not recall the precise location. 2. Description of the type of lab by biosafety level. Use layman’s terms for 911 call takers and fire/EMS personnel as they may not be familiar with laboratories and containment levels. 3. Has there been a breach of containment outside of the suite? 4. Describe the emergency and how many people are involved. 5. The patient status: conscious, (not) breathing, non-responsive, approximate age. Locate The Portable Transport Unit The portable transport unit may also be known as a portable stretcher or gurney. There are many styles and manufacturers. Instructions for use should be reviewed with workers as part of training and left with the unit inside the lab. Unfold and prepare the unit. It may be marked to indicate where the patient’s head and feet should be placed. There may also be long drag straps at the head of the unit. These straps are used to drag the patient to minimize strain on the responder and prevent injury. These units can be used by a single responder. Some institutions recommend decontamination prior to being placed on the stretcher. Decontaminate the patient’s first level of personal protective equipment (PPE) and remove outer gloves and booties. Then the responder decontaminates themselves to prepare to enter the anteroom. (See your institution’s procedures for decontamination procedures.) Follow the manufacturer’s instructions on rolling the patient onto the unit. Your institution’s SOP will dictate good practice to move a patient. Remember that practice makes perfect execution. Remember: The portable transport unit is now considered contaminated. It must not be given to First Responders. First Responders will have their own transport unit. When transferring the patient to First Responders, place the unit and all PPE that has been removed into the lab for decontamination/disposal after it is safe to enter. Work with your local Fire and EMS to arrange for review of procedures, call numbers, and conduct demonstrations for safe extrication. World BioHazTec provides training, reviews emergency procedures, runs tabletop exercises and designs scripts for drills to ensure safe operations for laboratory workers.   About Officer Jacob “Jake” Haskell, MBA Officer Jacob “Jake” Haskell has served as a First Responder for sixteen years. He is a police officer working for the state of Maryland. Prior to becoming a police officer, he was a firefighter for the City of Annapolis. Officer Haskell is a volunteer firefighter and officer for Kensington Volunteer Fire Department. Officer Haskell has provided EMS training for the Department of Health and Human Services, Food and Drug Administration, and the National Institutes of Health. As an American Heart Association (AHA) certified trainer, Officer Haskell provides certified training in first aid and CPR. Officer Haskell has a master’s and an undergraduate degree in business administration and has associate degrees in criminal justice, political science, and culinary arts.

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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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