Infection control at an urban hospital in Manila, Philippines: a systems engineering assessment of barriers and facilitators
Antimicrobial Resistance & Infection Control volume 6, Article number: 90 (2017)
Healthcare facilities in low- and middle-income countries, including the Philippines, face substantial challenges in achieving effective infection control. Early stages of interventions should include efforts to understand perceptions held by healthcare workers who participate in infection control programs.
We performed a qualitative study to examine facilitators and barriers to infection control at an 800-bed, private, tertiary hospital in Manila, Philippines. Semi-structured interviews were conducted with 22 nurses, physicians, and clinical pharmacists using a guide based on the Systems Engineering Initiative for Patient Safety (SEIPS). Major facilitators and barriers to infection control were reported for each SEIPS factor: person, organization, tasks, physical environment, and technology and tools.
Primary facilitators included a robust, long-standing infection control committee, a dedicated infection control nursing staff, and innovative electronic hand hygiene surveillance technology. Barriers included suboptimal dissemination of hand hygiene compliance data, high nursing turnover, clinical time constraints, and resource limitations that restricted equipment purchasing.
The identified facilitators and barriers may be used to prioritize possible opportunities for infection control interventions. A systems engineering approach is useful for conducting a comprehensive work system analysis, and maximizing resources to overcome known barriers to infection control in heavily resource-constrained settings.
No health care facility in the world is immune to the burden of hospital-acquired infections (HAIs). Those in low- and middle-income countries such as the Philippines experience especially high rates of HAIs [1, 2], perhaps due to the added challenges they face in achieving effective infection control. These challenges include a higher prevalence of multi-drug resistant organisms (MDROs), lack of HAI surveillance, antibiotic overuse and misuse, and international migration of their healthcare workforce [3,4,5]. Assessing and improving the quality of infection control policies, hand hygiene, and HAI surveillance in these settings is critical .
In order to develop effective interventions, it is essential to understand how the work system in a healthcare setting may impede successful implementation . The Systems Engineering Initiative for Patient Safety, or SEIPS framework, is well suited for its ability to analyze the impacts of a work system on both patient and organizational outcomes . The work system includes the components of person (e.g. skills, motivation, and needs), tasks (e.g. job content), tools and technologies (e.g. information technologies or medical devices), the physical environment (e.g. layout and work station design), and organizational components (e.g. patient safety culture and communication). This model has been used to improve patient safety in a variety of healthcare contexts, including both outpatient and inpatient settings [9, 10].
Although the Philippines has a high HAI burden, an understanding of the facilitators and barriers to hospital infection control in this country is lacking [1,2,3]. To address this gap, we used the SEIPS framework to evaluate barriers and facilitators to infection control at a private, tertiary hospital located in Manila.
The study was conducted at a private, 800-bed, tertiary hospital in Manila, Philippines. The facility is one of five hospitals in the Philippines accredited by the Joint Commission International. It employs 1000 physicians and over 2000 allied medical and administrative staff, and handles both routine and complex cases in many departments. The hospital has an infection control program that was established in 1986, and at the time of our study included six dedicated infection control nursing staff. Infection control policies are implemented and reviewed by the Hospital Infection Control Executive Committee. The facility has designated medical floors for those needing airborne isolation (e.g. pulmonary tuberculosis).
We completed a total of 22 semi-structured interviews with physicians (n = 10; three male, seven female), nurses including infection control staff (n = 10; two male, eight female), and clinical pharmacists (n = 2; two female). Potential participants were selected by convenience sampling to cover a range of job types, experience levels, and clinical departments. Subjects who were available during the time investigators were conducting interviews were asked if they could participate and were identified on clinical wards by members of the research team. A few participants, including the two clinical pharmacists, were approached and recruited directly. Departments included cardiology, clinical pharmacy, gastroenterology, infection control, internal medicine, obstetrics and gynecology, oncology, pediatrics, and pulmonary medicine. Most participants worked in general wards in these departments, although two worked in the emergency department and two worked in the intensive care units (ICUs). Criteria for inclusion were formal employment by the hospital and active involvement in patient care. Status as a medical or nursing student or as a non-English speaker were criteria for exclusion, although no potential participants were excluded for these reasons.
Interview questions were adapted for context from an interview guide our group previously used to study facilitators and barriers to infection control at a large, private hospital in Gurgaon, India . The questions were based on the SEIPS framework and included questions in the categories for work systems: person, organization, task, physical environment, and technology and tools. Interviews were audio recorded and typically lasted ten to twenty minutes in length. No identifiable information was collected. Preliminary analysis was conducted throughout the study to refine the interview guide and assess theoretical saturation. No further interviews were completed once theoretical saturation was reached.
All interviews were transcribed. Interview transcripts were independently coded in NVivo software (Version 11, QSR International) by two individuals to identify trends, following a previously described method for line-by-line coding . The two versions of coding were compared and found to have high inter-rater reliability. As a quality improvement project, this study was granted exemption from review by the UW-Madison Institutional Review Board and received expedited review and approval at the study site.
The multiple roles of the hospital’s infection control nursing staff were regarded as having a positive impact on the infection control process. They conducted HAI surveillance through review of medical records and bedside follow-up of high-risk patients. Infection control staff monitored hand hygiene compliance by performing daily audits through direct observation on each ward, and they also reviewed video footage of provider entry and exit from patient rooms using the hospital’s closed-circuit television system (Table 1, quotations 1 and 2). The infection control nurses and their duties were viewed with respect, and were regarded by other clinical staff as a vital component of the healthcare process (Table 1, quotation 3).
Another person-level factor was differing hand hygiene compliance between healthcare worker types. Both doctors and nurses reported that nurses had the highest hand hygiene compliance, while attending physicians had the lowest (Table 1, quotation 3). It was also noted that amongst the doctors, older consulting physicians tended to be the least compliant. This behavior was suggested to have a magnified impact on hand hygiene practices, as the senior physicians set “an example” for others (Table 1, quotation 5). Several doctors reported that verbal reminders, either from nurses or other physicians, would be a useful strategy to improve hand hygiene. However, it was also noted that the success of reminders would depend on the social dynamic between individual healthcare workers, as some attending physicians were more likely to be amenable to receiving feedback than others (Table 1, quotation 6).
The hospital’s infection control executive committee was recognized as the organizational body that develops fundamental infection control guidelines such as those for hand hygiene, antimicrobial stewardship, and contact and other precautions. The representation of multiple departments on the committee was described as a necessary aspect of developing these guidelines (Table 1, quotation 7). These policies were monitored by the infection control staff, described above. The committee also organized promotional events and offered training for hand hygiene (Table 1, quotation 8). The committee and infection control guidelines could be called upon to resolve any disputes regarding appropriate patient care pertinent to infection control (Table 1, quotation 9). For example, they could be consulted for decisions regarding the appropriate placement of patients on the hospital’s isolation ward.
The hospital has prioritized funding and staffing for laboratory facilities, which were vital for performing tests to inform patient treatment plans and infection control surveillance. The turnaround time and communication of lab results through electronic reports were described favorably (Table 1, quotation 10). Efficient laboratory testing was thought to be particularly important for detecting antibiotic-resistant infections in patients who may have been exposed in the community, or another healthcare setting, prior to admission (Table 1, quotation 11).
There was considerable variation in the patient-to-provider ratios described across hospital departments, based on patient complexity and length of stay. The number of patients per nurse was estimated to be 1:1 or 2:1 in the ICUs, 5:1 or 6:1 in the obstetrics/gynecology and cancer wards, and approximately 16:1 in the cardiology ward. Several providers noted that a lack of time due to high patient volumes was a major barrier to hand hygiene compliance (Table 1, quotation 12).
Very high rates of nursing staff turnover also contributed to a high clinical workload. One nurse estimated that within the past six months, thirty out of ninety nurses had left the emergency department staff. The emigration of skilled healthcare workers from the Philippines was described as common; many nurses were motivated to move for higher-paying jobs abroad, leaving vacant positions that required continual resources to fill (Table 1, quotation 13). Most newly-hired nurses began jobs at this hospital directly out of nursing school, and needed a considerable amount of on-the-job infection control training (Table 1, quotation 14).
Variations in the layout and quantity of hand hygiene supplies were believed to affect hand hygiene feasibility in certain departments. Alcohol-based hand rub dispensers were reported to be located outside of patient rooms, though the emergency department and ICU had additional dispensers located within patient rooms or cubicles. Sinks for handwashing were positioned at the nursing stations on most wards. However, the airborne isolation floor, emergency department isolation room, obstetrics/gynecology ward, and one select floor of private rooms had additional sinks within patient rooms. Several nurses described that the additional hand hygiene locations were an asset for those units (Table 1, quotation 15).
Multiple doctors stated that even though there were alcohol-based hand rub dispensers on every ward, these dispensers could not always be used conveniently (Table 1, quotation 16). Another barrier to the availability of hand hygiene supplies was the occasional theft of sanitizer or whole dispensers by patients, which was reported in multiple areas including the emergency department (Table 1, quotation 17). Several providers believed that the hospital could increase hand hygiene compliance by providing personal alcohol-based hand rub dispensers to each healthcare worker (Table 1, quotation 18).
Technology and tools
This facility employed multiple technologies for hand hygiene auditing. A closed circuit television surveillance system was used to collect video footage of healthcare worker hand hygiene practices at the time of entry and exit from patient rooms. Although infection control nurses frequently reviewed the video footage, the data were not effectively communicated to clinical staff. Several doctors and nurses believed this footage was rarely or never reviewed. Others had received department-level feedback of hand hygiene compliance, but felt that reporting of compliance data to individual providers would be more helpful (Table 1, quotations 19 and 20).
Radio-frequency identification (RFID) badges utilized in the ICU were another innovative technology at this facility. These badges were detected by sensors on alcohol-based hand rub dispensers that recorded the duration and frequency of hand hygiene occurrences. The badges also provided instant reminder alarms for healthcare workers to perform hand hygiene (Table 1, quotation 21). All ICU nurses wore their own badge, allowing for individual compliance data to be tracked and reported in real-time on a television monitor prominently displayed in the ICU. However, visiting healthcare providers, including those that provided consults in the ICU, shared group RFID badges and their hand hygiene could not be monitored individually.
Medical trolleys were available on the airborne isolation ward of the hospital, and proved a useful tool for improving hand hygiene compliance for this area. The trolleys provided a place to set down medical supplies, making it easier for nurses to perform hand hygiene prior to entering the patient’s room. Several nurses expressed that having medical trolleys available on all wards would help improve hand hygiene throughout the hospital (Table 1, quotation 22). However, this would require the purchasing of trolleys out of the budget for each additional unit.
Our study design centered on the perspectives of healthcare providers to optimize future infection control interventions. Using the SEIPS model, we have framed multiple barriers and facilitators that were reported by nurses, doctors, and pharmacists at a private hospital in Manila, Philippines.
The long-established prioritization of an infection control program at this hospital is an organizational strength that is often lacking from the infrastructure of healthcare facilities in low- and middle-income countries [1, 13]. The representation of multiple departments on the program’s executive committee is aligned with a World Health Organization recommendation that hospital infection control policies be developed by a multidisciplinary team . This program is especially important given the high prevalence of HAIs and inappropriate usage of antibiotics throughout the Philippines [3, 15,16,17], which likely introduce external factors into an institutional work system where infection surveillance, laboratory testing, and disease management are otherwise very consistent (External Environment in Fig. 1). The overall purpose and processes of the infection control executive committee were well-received by healthcare providers, likely because the long-standing policies have become a normal part of the hospital’s culture during the past thirty years. Previous studies support this notion, showing that institutional etiquette and social norms can influence overall compliance with infection control programs .
The facility’s infection control nursing staff is another asset that was acknowledged to have a positive impact on patient outcomes. The six-person team at this 800-bed hospital surpasses the Centers for Disease Control recommendation of at least one full-time infection control staff for the first 100 beds, and another staff member for each additional 250 beds . Infection control staff frequently utilize one of the tool-level factors identified in our study, the closed circuit television system, for hand hygiene surveillance. However, several providers felt that reporting the results of compliance data to large groups was ineffective for improving hand hygiene at the individual level. Implementing a monitor display may prove useful, as previous video surveillance interventions have found that continuously displaying the results of hand hygiene behavior on a monitor can yield a sustained improvement in compliance rates [20, 21].
Our study found that the prominent monitor display of RFID badge data in the hospital’s ICU may be an effective way to ensure individual accountability for hand hygiene compliance. One weakness of this system is the use of a shared ‘guest’ badges by all clinicians who visit the ICU from other departments. This could be addressed by providing regularly visiting providers with their own badges. While this type of system can provide powerful feedback to providers, implementing the badges throughout an entire institution could be cost-prohibitive . Acquiring new equipment can be difficult in a resource-constrained facility, especially since increased patient charges are often the primary means of covering such costs. This was a concern among nurses in the discussion of medical trolley purchases. While trolleys are a useful tool in the airborne isolation unit, their absence in other floors is a barrier to hand hygiene compliance. Purchasing additional trolleys would likely be less costly than adding more RFID badges. Prioritizing the purchase of new trolleys at an organizational level, rather than on a ward-by-ward basis, could rapidly improve hand hygiene feasibility for healthcare workers.
The high turnover of nursing staff is also concerning, as it necessitates constant training and use of educational resources. A systematic review of nurses’ motivational factors in numerous developing countries identified key factors for successful retention packages . In addition to financial incentives, these packages must include ways of strengthening healthcare workers’ motivation through personal recognition and career development opportunities.
Another reported barrier was the low hand hygiene compliance of attending physicians compared to nurses, a trend that is consistent with numerous institutions worldwide [24, 25]. One potential reason for this is the minimal time physicians have between patients during rounds. As several subjects suggested, providing personal portable dispensers of alcohol-based hand rub is potentially low-cost, time-saving, and would also prevent theft concerns. This type of intervention has been successful in other facilities, resulting in up to a 64% increase in hand hygiene compliance [26,27,28].
Implementing a verbal reminder process for hand hygiene could be another helpful practice. Several interviews suggested having the providers with the best compliance, the nurses, remind others to perform hand hygiene. This potentially nurse-driven intervention would need to account for suboptimal communication within the hierarchy of health professionals. Previous efforts to improve interprofessional collaboration have highlighted the importance of senior doctors and nurses setting an example for more junior healthcare workers, and encourage the development of shared mental models [29, 30]. This could be fostered through increasing collaborative practice, interprofessional patient rounds, or implementing a communication skills training . Increasing open communication between nurses and physicians is crucial for patient safety, and interventions based on shared accountability models have had favorable impacts on hand hygiene adherence and rates of HAIs [32, 33].
Our study had several limitations. It was conducted at a single, private hospital that is considered one of the pioneers of infection control in Manila. Private hospitals comprise 60% of the roughly 1800 hospitals in the Philippines, and generally serve patients who can afford fee-for-service payments . Thus, our findings may not be generalizable to smaller, community hospitals located in more rural areas of the country or to institutions that lack organizational support for infection control policies. In our institution, for example, the rate of ESBL Klebsiella pneumoniae based on a hospital antibiogram in 2016 for non-ICU and ICU patients was between 16 and 19% (n = 125), compared to a much higher rate of 40% (n = 8861) among 24 surveillance sites all across the Philippines. Similarly, the rate of carbapenem resistant Acinetobacter baumanni, though very high at 27–34% (n = 116), was still lower than the 52.1% (n = 3967) found in these surveillance hospitals .
The study population was limited to a small size and selected based on convenience sampling. While we sought to include participants representing a wide range of clinical experiences, our results may not reflect hospital-wide opinions regarding infection control. Other key stakeholders, such as patients, hospital management, and environmental cleaning staff may have additional perceptions and should be included in future studies.
These limitations notwithstanding, our study findings have implications for infection preventionists, hospital epidemiologists, and clinicians in resource-constrained settings. For example, the emphasis on and interest in hand hygiene compliance monitoring at our study site suggests that interventions to optimize hand hygiene might be a high priority, even in low-resource settings. Moreover, our systems approach may serve as an exemplar for other facilities seeking to prioritize infection control resources.
Previously studied infection control interventions in the Philippines have either demonstrated minimal impact, or have examined only a single disease outcome (catheter-associated urinary tract infection) [36, 37]. These studies suggest that infection control interventions in this country have the potential for success, but are also faced with the inherent difficulties of resource-limited settings. The perceived availability of resources is another challenging aspect of intervention implementation; even if resources do exist within a healthcare facility, they will not be useful if clinicians are unaware of them or do not believe they are readily available . In recognition of these concerns, we incorporated the perceptions held by key stakeholders in order to prioritize areas for future intervention.
Discussions with healthcare providers revealed that infection control practices in a resource-limited setting were perceived positively by most. Primary facilitators in this institution included a well-established infection control unit with support from the rest of the healthcare team and hospital organization. There are several viable opportunities for future intervention to overcome the existing barriers. These include real-time feedback of hand hygiene surveillance data, provision of medical trolleys and portable alcohol-based hand rub dispensers, improvement of retention packages for nursing staff, and advancement of interprofessional communication. These measures may provide important tools for reducing HAIs in this type of resource-limited healthcare facility.
Closed circuit television
Hospital Infection Control Executive Committee
Intensive care unit
Multi-drug resistant organism
Systems Engineering Initiative for Patient Safety
Allegranzi B, Nejad SB, Combescure C, Graafmans W, Attar H, Donaldson L, Pittet D. Burden of endemic health-care-associated infection in developing countries: systematic review and meta-analysis. In Book Burden of endemic health-care-associated infection in developing countries: systematic review and meta-analysis, vol. 377. City: Elsevier; 2011. p. 228–41.
Navoa-Ng JA, Berba R, Galapia YA, Rosenthal VD, Villanueva VD, Tolentino MC, Genuino GA, Consunji RJ, Mantaring JB 3rd. Device-associated infections rates in adult, pediatric, and neonatal intensive care units of hospitals in the Philippines: international nosocomial infection control consortium (INICC) findings. Am J Infect Control. 2011;39:548–54.
The Philippine Action Plan to Combat Antimicrobial Resistance: One Health Approach. http://arsp.com.ph/wp-content/uploads/2016/07/Action-Plan-final_orig.pdf.
Safdar N, Sengupta S, Musuuza JS, Juthani-Mehta M, Drees M, Abbo LM, Milstone AM, Furuno JP, Varman M, Anderson DJ, et al. Status of the prevention of multidrug-resistant organisms in international settings: a survey of the Society for Healthcare Epidemiology of America research network. Infect Control Hosp Epidemiol. 2017;38(1):53–60.
Allegranzi B, Pittet D. Healthcare-associated infection in developing countries: simple solutions to meet complex challenges. Infect Control Hosp Epidemiol. 2007;28:1323–7.
Report on the burden of endemic health care-associated infection worldwide. In Book Report on the burden of endemic health care-associated infection worldwide. Geneva: World Health Organization; 2011.
Carroll C, Patterson M, Wood S, Booth A, Rick J, Balain S. A conceptual framework for implementation fidelity. Implement Sci. 2007;2:40.
Carayon P, Hundt AS, Karsh BT, Gurses AP, Alvarado CJ, Smith M, Brennan PF. Work system design for patient safety: the SEIPS model. Qual Saf Health Care. 2006;15:i50–8.
Yanke E, Zellmer C, Van Hoof S, Moriarty H, Carayon P, Safdar N. Understanding the current state of infection prevention to prevent Clostridium Difficile infection: a human factors and systems engineering approach. Am J Infect Control. 2015;43:241–7.
Carayon P, Wetterneck TB, Rivera-Rodriguez AJ, Hundt AS, Hoonakker P, Holden R, Gurses AP. Human factors systems approach to healthcare quality and patient safety. Appl Ergon. 2014;45:14–25.
Barker AK, Brown K, Siraj D, Ahsan M, Sengupta S, Safdar N. Barriers and facilitators to infection control at a hospital in northern India: a qualitative study. Antimicrob Resist Infect Control. 2017;6:35.
Corbin J, Strauss A. Basics of qualitative research: techniques and procedures for developing grounded theory. Thousand Oaks: Sage Publications; 2014.
Shears P. Poverty and infection in the developing world: healthcare-related infections and infection control in the tropics. J Hosp Infect. 2007;67:217–24.
Prevention of hospital acquired infections - A practical guide. http://whqlibdoc.who.int/hq/2002/WHO_CDS_CSR_EPH_2002.12.pdf.
Rosenthal VD, Maki DG, Salomao R, et al. Device-associated nosocomial infections in 55 intensive care units of 8 developing countries. Ann Intern Med. 2006;145:582–91.
Hardon AP. The use of modern pharmaceuticals in a Filipino village: doctors' prescription and self medication. Soc Sci Med. 1987;25:277–92.
Lansang MA, Lucas-Aquino R, Tupasi TE, Mina VS, Salazar LS, Juban N, Limjoco TT, Nisperos LE, Kunin CM. Purchase of antibiotics without prescription in manila, the Philippines. Inappropriate choices and doses. J Clin Epidemiol. 1990;43:61–7.
De Bono S, Heling G, Borg MA. Organizational culture and its implications for infection prevention and control in healthcare institutions. J Hosp Infect. 2014;86:1–6.
Stone PW, Dick A, Pogorzelska M, Horan TC, Furuya EY, Larson E. Staffing and structure of infection prevention and control programs. Am J Infect Control. 2009;37:351–7.
Armellino D, Hussain E, Schilling ME, Senicola W, Eichorn A, Dlugacz Y, Farber BF. Using high-technology to enforce low-technology safety measures: the use of third-party remote video auditing and real-time feedback in healthcare. Clin Infect Dis. 2012;54:1–7.
Ellingson K, Haas JP, Aiello AE, Kusek L, Maragakis LL, Olmsted RN, Perencevich E, Polgreen PM, Schweizer ML, Trexler P, et al. Strategies to prevent healthcare-associated infections through hand hygiene. Infect Control Hosp Epidemiol. 2014;35:937–60.
Yao W, Chu CH, Li Z. The use of RFID in healthcare: Benefits and barriers. In 2010 IEEE International Conference on RFID-Technology and Applications; 17–19 June 2010. J Med Syst. 2012;36(6):3507-25.
Willis-Shattuck M, Bidwell P, Thomas S, Wyness L, Blaauw D, Ditlopo P. Motivation and retention of health workers in developing countries: a systematic review. BMC Health Serv Res. 2008;8:247.
Erasmus V, Daha TJ, Brug H, Richardus JH, Behrendt MD, Vos MC, van Beeck EF. Systematic review of studies on compliance with hand hygiene guidelines in hospital care. Infect Control Hosp Epidemiol. 2010;31:283–94.
Allegranzi B, Gayet-Ageron A, Damani N, Bengaly L, McLaws M-L, Moro M-L, Memish Z, Urroz O, Richet H, Storr J, et al. Global implementation of WHO's multimodal strategy for improvement of hand hygiene: a quasi-experimental study. Lancet Infect Dis. 2013;13:843–51.
Malina Y, Malina Y, Iseri M, Reiner S, Hardman J, Rogers J, Vlasses F. A Portable Trackable Hand Sanitation Device Increases Hand Hygiene. American Journal of Infection Control. 2013;41:S37–8.
Parks CL, Schroeder KM, Galgon RE. Personal hand gel for improved hand hygiene compliance on the regional anesthesia team. J Anesth. 2015;29:899–903.
Koff MD, Corwin HL, Beach ML, Surgenor SD, Loftus RW. Reduction in ventilator associated pneumonia in a mixed intensive care unit after initiation of a novel hand hygiene program. J Crit Care. 2011;26:489–95.
Edwards PB, Rea JB, Oermann MH, Hegarty EJ, Prewitt JR, Rudd M, Silva S, Nagler A, Turner DA, DeMeo SD. Effect of peer-to-peer nurse-physician collaboration on attitudes toward the nurse-physician relationship. J Nurses Prof Dev. 2017;33:13–8.
Weller JM, Barrow M, Gasquoine S. Interprofessional collaboration among junior doctors and nurses in the hospital setting. Med Educ. 2011;45:478–87.
Gonzalo JD, Kuperman E, Lehman E, Haidet P. Bedside interprofessional rounds: perceptions of benefits and barriers by internal medicine nursing staff, attending physicians, and housestaff physicians. J Hosp Med. 2014;9:646–51.
Talbot TR, Johnson JG, Fergus C, Domenico JH, Schaffner W, Daniels TL, Wilson G, Slayton J, Feistritzer N, Hickson GB. Sustained improvement in hand hygiene adherence: utilizing shared accountability and financial incentives. Infect Control Hosp Epidemiol. 2013;34:1129–36.
Tjia J, Mazor KM, Field T, Meterko V, Spenard A, Gurwitz JH. Nurse-physician communication in the long-term care setting: perceived barriers and impact on patient safety. Journal of patient safety. 2009;5:145–52.
Health Service Delivery Profile: Philippines. http://www.wpro.who.int/health_services/service_delivery_profile_philippines.pdf.
Antimicrobial Resistance Surveillance Program 2016 Data Summary Report. http://arsp.com.ph/wp-content/uploads/2017/06/2016_annual_report_summary.pdf.
Navoa-Ng JA, Berba R, Rosenthal VD, Villanueva VD, Tolentino MC, Genuino GA, Consunji RJ, Mantaring JB 3rd. Impact of an international nosocomial infection control consortium multidimensional approach on catheter-associated urinary tract infections in adult intensive care units in the Philippines: international nosocomial infection control consortium (INICC) findings. J Infect Public Health. 2013;6:389–99.
Gill CJ, Mantaring JB, Macleod WB, Mendoza M, Mendoza S, Huskins WC, Goldmann DA, Hamer DH. Impact of enhanced infection control at 2 neonatal intensive care units in the Philippines. Clin Infect Dis. 2009;48:13–21.
AB was supported by a pre-doctoral NIH traineeship, TL1TR000429, administered by the University of Wisconsin Madison, Institute for Clinical and Translational Research, funded by NIH award UL1TR000427.
Availability of data and materials
De-identified interview transcripts collected and analyzed during the current study are available from the corresponding author on reasonable request.
Ethics approval and consent to participate
This study received expedited review and approval from the Institutional Review Board at The Medical City. The Institutional Review Board at the University of Wisconsin-Madison granted this study exempt from review.
Consent for publication
The authors declare that they have no competing interests.
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Mitchell, K.F., Barker, A.K., Abad, C.L. et al. Infection control at an urban hospital in Manila, Philippines: a systems engineering assessment of barriers and facilitators. Antimicrob Resist Infect Control 6, 90 (2017). https://doi.org/10.1186/s13756-017-0248-2
- Systems Engineering Initiative for Patient Safety
- Infection control
- Hand hygiene
- Intervention implementation