# How to Build a Biosafety Program from Scratch: A Step-by-Step Guide A [biosafety program](/knowledge/diagnostics/emerging-tech/biosafety-program-implementation-a-roadmap-for-diagnostic-laboratories) is the documented system of risk assessment, containment, training, and verification that lets a laboratory handle infectious material without harming the people who do the work. Building one from scratch converts habits and good intentions into something a new employee can follow on day one and an auditor can verify on day three hundred. This guide shows how to establish a biosafety program step by step for a clinical or research microbiology laboratory, from the first conversation with leadership to the first annual program review. The method achieves four things. It identifies which agents and procedures actually put staff at risk. It matches containment and equipment to those risks. It trains staff and verifies competency against a written standard. It produces the records that accreditors, clients, and regulators expect. Diagnostic laboratories routinely handle infectious biological materials that can endanger personnel, the healthcare system, and the surrounding community when controls fail [1]. A written program is how those controls stop depending on memory. Use this guide when a laboratory has no formal program, when a program exists on paper but not on the bench, or when an incident or a leadership change forces a rebuild. The steps assume a US clinical or research microbiology setting and scale to any facility size. Time is the honest constraint. For a single BSL-2 laboratory, plan on 60 to 100 hours of hands-on work spread over 3 to 6 months of elapsed time. Writing the manual takes weeks, training cycles take months, and the first internal audit closes the loop. Larger facilities scale with bench count and the size of the agent inventory, not with new principles. ## What a Biosafety Program Does and When You Need One Biosafety is the protection of people and the environment from the biological agents they work with. Biosecurity is the protection of those agents from theft, loss, diversion, and misuse. A complete program covers both, plus the occupational health link that treats exposures when prevention fails. A functioning program contains eight parts: a charter with named responsibility, a documented risk assessment for every routine process, containment matched to assessed risk, a written manual with standard operating procedures, tiered training with competency verification, waste and decontamination streams, incident reporting with investigation, and scheduled audits with metrics reported to leadership. Professional bodies treat this as a management discipline in its own right, and the American Biological Safety Association's journal dedicates entire special issues to national and international biosafety program management [2]. The trigger points for building one are simple. New laboratories need a program before the first specimen arrives. Established laboratories without written programs need one before the first serious exposure, not after. Laboratories with inherited programs need a rebuild when audit findings repeat year after year, when training records have gaps, or when nobody can name the person accountable. ## The Principle: Risk Assessment Drives Everything A biosafety risk assessment is the structured evaluation of what could go wrong with a specific agent in a specific procedure, and what controls reduce that risk to an acceptable level. It is the engine of the entire program. Every cabinet, every SOP, and every training module should trace back to a documented risk decision. A risk assessment weighs three groups of factors. Agent factors include pathogenicity, infectious dose, route of infection, disease severity, and the availability of treatment or prophylaxis. Procedure factors include whether the method generates aerosols, the volume and concentration of the material, and how often it is performed. People factors include the number and experience of staff and the supervision available. Risk is then read as the product of likelihood and consequence, both before and after controls. Controls follow the hierarchy of controls, a standard safety framework that ranks interventions by reliability: eliminate the hazard, substitute a safer agent or method, install engineering controls, apply administrative controls, and use personal protective equipment last. A sealed centrifuge rotor beats a reminder to be careful. Containment is expressed as [biosafety levels](/knowledge/diagnostics/emerging-tech/biosafety-levels-1-4-a-decision-framework-for-diagnostic-laboratories). BSL-1 covers well-characterized agents not known to consistently cause disease in healthy adults, handled on an open bench with standard microbiological practices. BSL-2 covers agents of moderate hazard, including all human-source material, and adds restricted access, biohazard signage, sharps precautions, a certified biological safety cabinet for aerosol-generating work, and an autoclave on site. BSL-3 covers agents with serious or lethal disease potential spread by aerosols, adding directional airflow, respiratory protection, and controlled access. BSL-4 covers dangerous exotic agents in maximum containment. Most [clinical microbiology](/knowledge/diagnostics/microbiology/clinical-microbiology-from-specimen-collection-to-pathogen-identification) laboratories operate at BSL-2 as a baseline, with BSL-3 practices or referral pathways for high-risk tasks such as manipulating mycobacterial cultures. Write the assessment down. An unwritten risk assessment cannot be reviewed, cannot be updated, and cannot defend the program when something goes wrong. ## Materials, Equipment, and Documents You Need The table lists the physical and documentary inventory for a BSL-2 microbiology program. Quantities scale with bench count. Working concentrations are given where they matter. | Item | Specification or working concentration | Purpose in the program | |--|--|--| | Class II Type A2 biological safety cabinet | Certified annually in place, and after any move or filter work | Primary engineering control for aerosol-generating work | | Autoclave | Gravity or pre-vacuum cycles at 121°C, 15 to 20 minutes for standard loads | Decontamination of infectious waste before disposal | | Biological indicators | Geobacillus stearothermophilus spore strips, one per representative cycle | Proof that the autoclave actually sterilizes | | Chemical indicators | One per cycle | Routine cycle monitoring between biological indicator tests | | Sodium hypochlorite (household bleach) | 1:10 dilution of 5 to 6 percent stock, about 0.5 percent final, prepared fresh daily | Surface and spill disinfection | | Ethanol | 70 percent v/v in water | Rapid disinfection of cabinet surfaces and gloved hands | | Quaternary ammonium disinfectant | Diluted per label | Alternative where bleach corrodes equipment | | Sharps containers | Puncture resistant, closable, replaced at the fill line | Safe collection of needles, tips, and slides | | Biohazard waste bags | Autoclave rated, color coded per the facility scheme | Segregation of infectious solids | | Spill kit | Absorbent material, prepared disinfectant, gloves, gown, eye protection, tongs, dustpan, biohazard bag | Contained response within minutes of a spill | | Personal protective equipment | Fluid resistant lab coats, disposable gloves, safety glasses or face shield, fit tested N95 respirators where the risk assessment requires | Last line of defense | | [Biosafety manual](/knowledge/diagnostics/emerging-tech/biosafety-manual-development-a-template-for-diagnostic-laboratories) | Version controlled, dated, reviewed annually | Single source of truth for the program | | Risk assessment forms | One per routine agent-procedure pair | Documented risk decisions | | Training curriculum and competency checklists | Tied to each SOP | Proof that staff can do the work safely | | Incident and near-miss report forms | With an investigation template | Learning system for failures | | Exposure response plan | Agreed with occupational health, contact numbers posted | Same-day treatment after exposures | | Entry signage | Biohazard labels, PPE requirements, emergency contacts | Communication at the door | *Safety note: diluted bleach is corrosive to eyes and skin and releases chlorine gas when mixed with ammonia or acids. Prepare it in a ventilated area, label the bottle with the date and time of preparation, and never combine it with other cleaners. Rinse bleach-treated stainless steel with water or wipe with 70 percent ethanol afterward to limit corrosion. *Safety note: 70 percent ethanol is flammable. Keep bulk stock in a flammables cabinet and do not use it near open flames. Cabinet work should be flameless anyway, since open flames disturb airflow. ## How to Establish a Biosafety Program Step by Step The twelve steps below run in order. Each includes the reason the step exists, because a program built without its reasons tends to lose those parts at the first budget cut. ### Step 1. Get a written mandate and appoint a biosafety officer Draft a one-page charter for the laboratory director to sign. It names the biosafety officer, grants authority to stop unsafe work, commits a budget line, and sets the review cycle. The biosafety officer should be a senior scientist or manager who knows the bench work and reports to leadership directly. Reason: programs fail at the authority layer first. A coordinator who can only suggest changes cannot enforce them, and research on program implementation in another sector found that leadership, clear communication, and stakeholder engagement predicted compliance outcomes, explaining a substantial share of the variation (adjusted R² of 0.432) [3]. ### Step 2. Inventory every agent, specimen type, and activity Walk every bench and list what is actually handled: expected agents, agents that arrive uninvited (Brucella and Francisella in blood cultures, Mycobacterium tuberculosis in respiratory specimens), specimen types, volumes, and each procedure that touches them, from receipt and centrifugation to vortexing, aliquoting, identification, and disposal. Note who performs each task and how often. Reason: you cannot assess a risk you have not listed, and the uninvited agents are the ones that surprise people. Standard practice treats unidentified isolates as potentially hazardous until proven otherwise, which is why presumptive identification rules belong in this inventory. ### Step 3. Perform a biosafety risk assessment for each process For each agent-procedure pair, rate the likelihood of exposure and the severity of the outcome, list the controls already in place, and decide whether the residual risk is acceptable. Assign the working [biosafety level](/knowledge/diagnostics/emerging-tech/biosafety-levels-1-4-a-comparative-framework-for-diagnostic-laboratory-design) and record the decision on a form. Reassess whenever an agent, method, instrument, or staffing pattern changes. Reason: the documented risk assessment is the backbone of the program. It justifies every cabinet, every vaccination policy, and every dollar, and it is the first document an auditor requests. ### Step 4. Assign containment and engineering controls ![Decision path for BSL-2 work: aerosol-generating procedures go in a certified Class II cabinet; low-risk tasks may use the open bench.](/article-images/illustrations/how-to-establish-a-biosafety-program-cabinet-or-bench.webp) Match the assessed risk to hardware. Place the Class II biological safety cabinet away from doors, traffic lanes, and supply air diffusers, and train staff to work at least four inches behind the sash opening without blocking the front grille. Use sealed rotors or aerosol-tight safety cups for centrifugation of human material, loaded and opened inside the cabinet. Confirm the autoclave is accessible to the sections that generate infectious waste. For any task that exceeds BSL-2, define the referral pathway before the task is performed. Reason: engineering controls work when people are tired, rushed, or new. Behavior is the least reliable control in the hierarchy, so buy reliability where the risk assessment says it matters. ### Step 5. Write the biosafety manual and the SOPs Assemble the manual from the documents you have already created: the charter, the agent inventory, the risk assessments, and then the standard operating procedures. Each SOP embeds its safety steps in the workflow itself, not in an appendix nobody opens. Add the spill response procedure, waste streams, exposure response, and training plan. Number every document, date it, and give it a review date. Reason: the manual is the program's single source of truth. A practice that is missing from the manual is a habit, not part of the program. ### Step 6. Build the microbiology biosafety training program Structure training in tiers: orientation for new staff before they touch specimens, agent-specific modules for the hazards on their bench, procedure-specific training tied to each SOP, and observed competency assessment before independent work. Add an annual refresher and mandatory retraining after incidents, equipment changes, or new methods. Evaluate training by behavior, not attendance. In one evaluation of a distance-learning program, competency measured with 360-degree questionnaires rose from a range of 7.43 to 8.22 before training to 9.17 to 9.49 after, which is the level at which training actually changes what people do at work [4]. Reason: attendance sheets prove people were in the room. Observed competency proves the training transferred, and audit evidence links training frequency to lower laboratory risk [1]. ### Step 7. Set up medical surveillance and exposure response Agree with occupational health on who receives which screening and vaccination. Staff with reasonably anticipated exposure to human-source material should be offered hepatitis B vaccination, and the offer must be documented. Post the exposure protocol at every phone: for punctures, wash with soap and water, for splashes to the eyes or mouth, flush with water for 15 minutes, then report and be evaluated the same day. Reason: the minutes after an exposure determine whether post-exposure prophylaxis can work. A protocol that lives in a drawer does not function at 9 pm. ### Step 8. Define decontamination and waste streams Set the rules for surfaces and waste. Work surfaces are disinfected before and after bench work and after any spill. Fresh 1:10 bleach is the default for spills, poured from the perimeter inward with a contact time of at least 10 minutes, then absorbed and collected. Ethanol at 70 percent handles cabinet surfaces between tasks. Waste is segregated at the point of generation: sharps into puncture-resistant containers, infectious solids into autoclave bags, chemical and radioactive waste on separate streams. Audit the bins, not the posters. In one university waste study, students showed low awareness of waste classification and very low compliance with segregation, and the authors linked the gap to inadequate awareness campaigns, which is why audits must verify behavior rather than trust signage [5]. Reason: waste handling is the most visible part of the program to outsiders, and it is where the gap between policy and practice shows first. *Safety note: during a spill response, cover the spill before wiping so that aerosol generation stays low, wear the PPE in the spill kit, and never leave a spill unattended to fetch supplies. ### Step 9. Schedule equipment certification and maintenance Put every containment device on a calendar. Biological safety cabinets are certified annually in place and after any move or filter work, with airflow alarms checked in daily use. Autoclaves get biological indicators with representative loads on a defined schedule. Centrifuges get rotor inspections. Pipettes get calibrated, because a leaking pipette is an aerosol generator. Reason: containment hardware degrades silently, and skipped maintenance surfaces later as failed biological indicators and airflow alarms rather than as visible damage. *Safety note: autoclave loads are scalding and pressurized. Use heat-resistant gloves, crack the door slowly to release steam away from your face, and let liquids cool before handling. ### Step 10. Create incident reporting and investigation Define reportable events broadly: exposures, spills, releases, equipment failures, and near misses. Make reporting blame-free and easy, with a 24-hour clock for exposures and a simple form for everything else. Investigate with a template that captures what happened, the root cause, the corrective action, a named owner, a due date, and a verification step. Reason: near misses are free lessons. A program that punishes reporters trains the laboratory to hide its warning lights. ### Step 11. Plan audits, drills, and program metrics Schedule a quarterly self-inspection with a written checklist, an annual external or cross-department audit, and a spill drill at least twice a year. Build the metrics page around the public health logic model, which sorts program work into inputs (staffing and budget), activities (risk assessments, training, surveillance, incident response), and outcomes (exposures, injuries, compliance, satisfaction) [6]. Send leadership a one-page monthly report. Reason: what gets measured gets funded, and leadership cannot value what it never sees. ### Step 12. Review and improve on a fixed cycle Run the program on a plan-do-check-act cycle: plan the controls from the risk assessments, do the work, check with audits, drills, and metrics, then act by closing corrective actions and updating documents. Hold a formal annual program review that updates the agent inventory, the risk assessments, the training plan, and the manual. Reason: stale programs rot quietly. The annual review is where the program admits what changed and rewrites itself. ### Tips for the First 90 Days Start with the highest-risk process, not the easiest one, because early credibility depends on visible progress where it matters. Recruit one safety champion per shift so the program has eyes when the biosafety officer is off site. Pilot the training package with a single section, fix it, then roll it out. Put every audit, drill, and certification date on the shared calendar on day one. Keep the first manual short, because a manual nobody reads protects nobody. ## Controls: Verifying That the Program Works In laboratory language, a control is a check that detects drift before it causes harm. A biosafety program needs its own controls, separate from the daily bench work. Verification activities form the core. Observed competency assessments confirm that training changed behavior. Biological indicators confirm the autoclave kills spores, not just that the machine ran. Certification reports confirm the cabinet holds airflow. Drills confirm the spill kit and the call tree work at the worst hour of the day. Audit closure rates confirm that corrective actions actually happened rather than being written and forgotten. Indicators split into two kinds. Leading indicators predict trouble: training completion rates, near-miss reports, drill findings, overdue certifications. Lagging indicators record trouble that already happened: exposures, spills, lost time. A healthy program watches the leading side, because a month with zero near-miss reports usually means underreporting, not perfection. Treat a silent reporting system the way you would treat a QC chart that never varies, as evidence that something upstream is broken. ## Expected Results and How to Read Them A program built this way shows a predictable timeline. By 30 days, the charter is signed, the agent inventory exists, and the first risk assessments are drafted. By 90 days, the manual is in version one, training has launched, waste streams are live, and the first drill has run. By 6 months, the first internal audit is closed with verified corrective actions. By 12 months, the program has completed one full plan-do-check-act cycle and can face an external audit without panic. The evidence from diagnostic laboratories supports this emphasis. In an analysis of 214 biosafety audit records and safety program reports, biosafety protocol compliance showed the strongest association with reduced laboratory-associated risk (F=7.24, p=0.001), followed by staff training frequency (F=6.47, p=0.002) and containment equipment maintenance (F=5.93, p=0.003) [1]. Read that ordering carefully. Compliance behaviors, training, and maintenance outrank paperwork volume as protective factors, which is a useful check on where the program spends its hours. Reporting also has a communication problem to solve. Within the profession, a good day is one where nothing bad happens, which makes prevention invisible to the people who fund it [6]. The monthly one-page report is the antidote, because it shows the volume of risk assessments completed, training delivered, and audits closed, turning invisible prevention into visible work. ## Troubleshooting a New Program | Symptom | Likely cause | Fix | |--|--|--| | Staff work at the open bench on aerosol-generating tasks | Cabinet inconveniently located or a training gap | Relocate the cabinet closer to the workflow and retrain with observed competency | | Biological indicators fail repeatedly | Overloaded autoclave, wrong cycle parameters, or a failing machine | Reduce load density, verify 121°C exposure time, call for service, and retest before releasing waste | | Bleach bottles smell weak or are days old | Prepared in bulk and stored too long | Prepare 1:10 fresh daily, label with date and time, discard leftovers | | The same audit finding appears every quarter | Corrective actions closed on paper without verification | Assign a named owner and due date, and verify the fix at the next audit before closing it | | Zero incident reports in a year | Underreporting, not safety | Simplify the form, allow anonymous near-miss reporting, and discuss near misses in meetings without blame | | New staff start bench work before training | Hiring pressure and no access gate | Make system access and specimen receipt contingent on documented competency | | Training records have gaps | No single owner for the records | Appoint a registrar, automate reminders, and reconcile records quarterly | | Leadership questions the program's value | Outcomes never reported | Send the monthly one-page report with inputs, activities, and outcomes | ## Variations for Different Laboratory Types Small clinic or satellite laboratory. The minimal viable program is a charter, one risk assessment per process, a short manual, a training checklist, and a waste stream agreement with the parent facility. Borrow the parent institution's occupational health link rather than building one. Hospital clinical microbiology. BSL-2 is the baseline, with written referral pathways for tasks that exceed it, such as manipulation of mycobacterial cultures or fungal cultures producing abundant spores. Specimen triage rules belong in the SOPs, because the highest-risk moment is often the first centrifugation of an unidentified specimen. Research and university laboratories. Add institutional review of agent inventories, shipping and transfer controls, and biosecurity measures for high-consequence agents. The boundary between the biosafety program and animal work needs explicit language. Public health and surge settings. Plan for volume. During COVID-19, one institutional biosafety program found its tasks sorted into three categories: services that were temporarily diminished, services that had to continue for safety or compliance, and services that increased dramatically in volume and novelty [7]. Cataloging those categories in advance is a template for the next pandemic. Digital and AI-supported tools. Digital biosafety management systems and AI-powered risk monitoring are associated with reduced laboratory-associated infection and biosecurity risk in the diagnostic laboratory literature [1]. Adjacent regulated industries show the same direction of travel, using AI for documentation automation, analysis of changing guidelines, and risk analytics [8]. Adopt these tools after the fundamentals exist, not instead of them. ## Storage and Stability: Keeping the Program and Its Reagents Viable A program is a living document set with its own storage and stability rules. Keep the current manual and forms in one controlled location, electronic or paper, with version numbers, effective dates, and review dates. Archive superseded versions rather than deleting them, because the archived version proves what staff were trained on at any past date. Retain training records, certification reports, risk assessments, and incident investigations per your institutional retention policy, and back up the electronic set. Reagents have literal stability limits. Diluted bleach loses hypochlorite activity quickly, which is why standard practice is to prepare the 1:10 working solution fresh daily and label the bottle with the date and time. Stock bleach degrades slowly in storage, so date the container when received and replace it on a schedule. Ethanol at 70 percent is stable but evaporates toward higher concentrations in unsealed containers, and it is a flammable liquid that belongs in a flammables cabinet. Biological indicators carry manufacturer expiration dates, and an expired strip is a failed test waiting to happen. ## Common Mistakes and Limitations Writing the manual before the risk assessments. The manual then describes a laboratory that does not exist. Assess first, write second. Buying equipment the risk assessment did not call for, or failing to buy what it did. Hardware must trace to a documented risk decision, or it will be the first line item cut. Measuring training by attendance. Attendance proves presence, not competence. Evaluate at the level of observed behavior, because that is the level at which training either transfers or does not [4]. Trusting credentials instead of auditing practice. Credentials certify knowledge, not daily behavior. In one credentialing program review, only 4 of 77 practitioners (5 percent) met the optimal safety threshold on every submitted image, and 15 of 77 (19.5 percent) exceeded the satisfactory limit on at least some images [9]. Audit what people do, not what their certificates say. Running awareness campaigns without audits. Posters do not move waste, and audited compliance routinely lags behind campaign-driven awareness [5]. Audit the bins. Letting documentation rot. Documentation fails the same way records programs fail, through inadequate training, insufficient resources, and outdated policies [10]. Give the manual an owner and a review date. Treating zero reports as success. A silent incident system means underreporting. Investigate silence the way you would investigate a failed control. Skipping maintenance because nothing looks broken. Containment hardware degrades without visible signs, and the first symptom is usually a failed biological indicator or an airflow alarm. Building no surge plan. Programs that only work at normal volume collapse during outbreaks, when testing volume, staffing gaps, and novel protocols arrive together. This guide is a framework, not a site-specific assessment. Agent inventories, facility layouts, staffing, and applicable regulations differ, and individual facilities need review by a qualified biosafety professional before high-risk work begins. The professional literature on biosafety program management, including dedicated work on risk minimization strategies [2], supplies the depth for specialized settings. ## Frequently Asked Questions ### What is the first step in establishing a biosafety program? The first step is a written mandate from laboratory leadership that appoints a biosafety officer with the authority to stop unsafe work. Everything else, from the risk assessment to the budget, depends on that authority existing on paper. ### How long does it take to build a biosafety program from scratch? A single BSL-2 laboratory typically needs 3 to 6 months from charter to first annual review, with roughly 60 to 100 hours of hands-on work. Larger facilities scale with bench count and the size of the agent inventory. ### What biosafety level does a clinical microbiology laboratory need? Most clinical microbiology laboratories operate at BSL-2 as a baseline, because they handle human-source material and agents of moderate hazard. Specific tasks with aerosol risk, such as manipulating mycobacterial cultures, require BSL-3 practices or referral to a suitably contained laboratory. ### Who should serve as the biosafety officer? The biosafety officer should be a senior scientist or manager who understands the bench work, reports directly to laboratory leadership, and has documented authority to stop unsafe work. Technical knowledge without authority produces a program that exists only on paper. ### How often should microbiology biosafety training be repeated? Staff need training before they work independently, an annual refresher, and retraining after any incident, equipment change, or new procedure. Competency should be verified by direct observation, not by attendance records. ### What is a biosafety risk assessment and how detailed should it be? A biosafety risk assessment evaluates each agent-procedure pair for the likelihood and severity of exposure, then documents the controls that reduce residual risk. One completed form per routine process is a practical minimum, with reassessment whenever agents, methods, or staff change. ### Do I need a biological safety cabinet for BSL-2 work? A certified Class II biological safety cabinet is required whenever BSL-2 procedures can generate aerosols, such as vortexing, open centrifugation, or aliquoting human specimens. Open-bench work is limited to activities the risk assessment rates as low risk. ### How do I show leadership that the biosafety program is worth funding? Report program inputs, activities, and outcomes on a simple monthly page, including training counts, audit findings and closures, incident and near-miss trends, and equipment certification status. Consistent data turns prevention from an invisible cost into a managed investment. ## Sources 1. [Biosafety and Biosecurity in Diagnostic Laboratories: Strengthening Risk Management, Containment Strategies, and Global Regulatory Compliance](https://doi.org/10.55041/ijsrem60365) 2. [Introduction to Applied Biosafety’s Special Issue on Risk Minimization Strategies: National and International Biosafety Program Management](https://doi.org/10.1177/15356760261440528) 3. [The Effect of Change Management Practices on the Budget Compliance for Projects: The Case Study of Digital Ambassadors Program](https://doi.org/10.34104/ijma.025.02220225) 4. [Optimizing Civil Servant Performance Management through Internal Compliance Distance Learning Program](https://doi.org/10.52970/grhrm.v6i2.2272) 5. [Awareness and Compliance on Waste Segregation: Implication to a Waste Management Program in a University](https://doi.org/10.30958/ajs.7-2-1) 6. [Articulating Biosafety Program Activities in the Context of a Simplified Public Health Logic Model](https://pubmed.ncbi.nlm.nih.gov/42205887/) 7. [Pivoting the Biosafety Program in Response to COVID-19: Recommendations of Key Services and Tasks to Consider for the Next Pandemic](https://pubmed.ncbi.nlm.nih.gov/36779201/) 8. [Artificial Intelligence and Program Management in the Pharmaceutical Industry: Streamlining Decision-Making, Clinical Trials, Regulatory Compliance, Commercialization, and Risk Management](https://doi.org/10.37745/ijbmr.2013/vol13n81345) 9. [Do clinical practitioners seeking credentialing for nuchal translucency measurement demonstrate compliance with biosafety recommendations? Experience of the Nuchal Translucency Quality Review Program.](https://pubmed.ncbi.nlm.nih.gov/24958407/) 10. [Records Management Compliance of Cagayan State University, Sanchez Mira Campus, Philippines: Basis on Intervention Program](https://doi.org/10.9734/ajarr/2024/v18i12851)