Literature DB >> 33991279

Healthcare Utilization and Impact of Antifungal Stewardships Within Respiratory Care Settings: A Systematic Literature Review.

Salma Aldossary1, Anand Shah2,3.   

Abstract

INTRODUCTION: Fungal infection and sensitization are common in chronic respiratory patient populations such as bronchiectasis, chronic obstructive pulmonary disease (COPD), and cystic fibrosis (CF) and are often associated with prolonged antifungal therapy (Hohmann et al. in Clin Infect Dis 15:939-940, 2010; Vissichelli et al. in Infect Prev Pract 1:100029, 2019), morbidity, and mortality. Although the use of antifungal stewardship (AFS) is increasing within an invasive fungal disease setting, its use and impact within a chronic respiratory setting have not been defined.
METHODS: A systematic literature review was conducted using PRISMA guidelines to evaluate the use of antifungal stewardship within a chronic respiratory care setting. Three databases have been searched, Medline via Ovid, Embase and GlobalHealth, for papers published between 1949 and 2020.
RESULTS: The initial search identified 987 papers from Medline, 1761 papers from Embase, and 481 papers from GlobalHealth. Only 28 papers met the criteria for inclusion in this systematic literature review. The included studies were subjected to CASP and GRADE assessments to rank their quality and applicability. Only two studies were focussed on Aspergillus species infection.
CONCLUSION: Although antifungal stewardship is increasing, its applications are still limited in chronic respiratory care settings despite the prolonged requirement for antifungal therapy and high antimicrobial resistance.
© 2021. The Author(s).

Entities:  

Keywords:  Antifungal; Antifungal resistance; Aspergillus fumigatus; Chronic; Respiratory disease; Stewardship

Mesh:

Substances:

Year:  2021        PMID: 33991279      PMCID: PMC8536614          DOI: 10.1007/s11046-021-00547-z

Source DB:  PubMed          Journal:  Mycopathologia        ISSN: 0301-486X            Impact factor:   2.574


Introduction

Individuals with chronic respiratory diseases are susceptible to fungal infection and allergy, which can cause a spectrum of diseases depending on the underlying host response. This can typically vary from sensitization, allergic bronchopulmonary aspergillosis (ABPA), chronic pulmonary aspergillosis (CPA), semi-invasive and invasive infection [1, 2]. There is a large global burden of fungal-related chronic lung disease, with global estimates of CPA at ~ 3 million cases [3, 4]. There is furthermore a recent appreciation of the impact of fungal infection and sensitization on morbidity of globally widespread chronic lung disease such as non-CF bronchiectasis and chronic obstructive pulmonary disease (COPD), which is additionally a significant risk factor for invasive fungal infection. Aspergillus-related disease also affects ~ 20% of individuals with cystic fibrosis (CF), leading to increased exacerbation frequency [3]. Oral triazole antifungal drugs are effective against A. fumigatus and are predominantly first-line therapy in the management of Aspergillus–related infection and allergy in chronic respiratory disease. However, there has been a rapid and global emergence of multiple triazole resistance phenotypes in A. fumigatus over the past decade, with a particularly high prevalence noted in patients with chronic lung disease [5]. Individuals with chronic lung disease and fungal infection/allergy often require a prolonged duration of antifungal therapy, with intra-pulmonary fungi within cavitatory or hypoxic microenvironments, likely predisposing to antifungal resistance development [6, 7]. Triazole resistance has been associated with increased mortality both within an invasive and chronic pulmonary aspergillosis setting [8]. Antifungal stewardship aims to provide a meaningful mechanism to guide medication prescription in these at-risk cohorts to improve outcome and reduce toxicity and emergence of antifungal resistance [9, 10]. The principle is based on existing antimicrobial stewardship programs (ASPs), which optimize antibiotic prescriptions by taking into account the range of action, pharmacokinetics, and pharmacodynamics (PK/PD) properties, length, and route of administration. Key to stewardship programs is therapy optimization with population level screening through regular therapeutic drug monitoring (TDM) to ensure that optimum PK/PD is achieved to increase effectiveness and reduce adverse outcomes and antifungal resistance [11, 12]. However, the impact and evidence-base for the use of antifungal stewardship in a chronic respiratory disease setting is not yet well defined. We perform a systematic literature review aiming to evaluate the current evidence of the use and impact of antifungal stewardship within a chronic respiratory disease setting.

Methodology

A systematic literature review based on PRISMA guidelines was conducted [13]. Three databases have been searched, Medline via Ovid, Embase, and GlobalHealth, for papers published between 1949 and 2020. The search strategy (see Supplementary information) was designed to find papers that involve antifungal or antimicrobial stewardship. Inclusion criteria involve papers that implemented antifungal stewardship and reported the outcomes or studies that report clinical outcomes of antifungal therapeutic drug monitoring. Exclusion criteria involve papers (1) not in English, (2) case reports, (3) narrative or systematic reviews. Studies were imported to Covidence for screening [14]. After screening, articles were removed for a number of reasons including no focus on antifungal agents or antifungal stewardship, wrong outcomes, wrong study design, systematic review or meta-analysis, not available, wrong patient population, wrong intervention or case reports. The PRISMA checklist was utilized in guiding the systematic literature review. Due to the differences in interventions, patient populations, and outcomes for the studies, the data were descriptively summarized. The findings were drawn after qualitative synthesis of data. The quality of the included studies was determined using the GRADE (Grading of Recommendations, Assessment, Development, and Evaluation methodology), which is categorized to high, moderate, low, and very low [15, 16]. By definition, high classification indicates that further research is very unlikely to change the confidence in the estimate of effect. Moderate quality means further research is likely to have an important impact on the confidence in the estimate of effect. Low-grade classification indicates that further research is very likely to have an important impact, while very low classification indicates that an effective impact of the findings is very uncertain [15]. The studies collected for this review were tested using this approach to answer the clinical question on the usefulness and impact of the antifungal stewardship programs on patients in respiratory care. PRISMA flow diagram of search and selection process Included study characteristics Hospitalized patients on voriconazole, at five hospitals in Japan

Results

The primary search yielded 3229 papers (987 papers from Medline, 1761 papers from Embase, and 481 papers from GlobalHealth). As illustrated in Fig. 1, only 29 papers met inclusion criteria for this systematic literature review (see Supplementary information for references for all included papers). Table 1 provides a summary of the included papers. The predominant fungal infection studied in the eligible articles with inclusion of patients with underlying chronic respiratory disease was Candida species with 25 out of 29 articles focussing on invasive fungal disease infection (IFI). Although fourteen studies included sample populations consisting of patients with chronic respiratory illnesses, only two studies (Nwanko et al. and Browne et al.) had a focus specifically on chronic respiratory fungal infections and pulmonary aspergillosis, indicating a gap in existing knowledge/evidence base in the use of antifungal stewardship in this field [9, 17]. Although focussed in an invasive fungal infection setting, the implementation of antifungal stewardship was shown to be an effective intervention in a number of the included studies, with some (n = 3) having a moderate GRADE quality of evidence.
Fig. 1

PRISMA flow diagram of search and selection process

Table 1

Included study characteristics

Study author, yearStudy designType of fungal speciesInterventionDuration of interventionPatient population, SettingsPresence of chronic respiratory patientsOutcomes after StewardshipGRADE
Shah et al. [28]RetrospectiveCandida speciesInvasive tests48 h–24 daysImmunocompetent adult patients treated in the medical and surgical intensive care unitsYesFungal testing of respiratory tract specimens does not add diagnostic valueLow
Mondain et al. [29]Prospective observationalInvasive aspergillosis and candidaemiaMultifaceted antifungal stewardship discussion48 h–2 weeksFrench teaching tertiary-care hospitalYesAntifungal stewardship programme was feasible, sustainable, and well acceptedLow
López-Medrano et al. [31]InterventionCandida speciesNon-randomized uncontrolled before–after antimicrobial stewardship1–2 yearsThe University Hospital 12 de Octubre. A 1300-bed hospitalYesPrimary outcome of the study was a reduction in antifungal expenditureLow
Alfandari et al. [20]RetrospectiveCandida speciesMultidisciplinary collaborative use of antifungals in haematology4–5 daysAllograft and acute leukemia induction chemotherapy patients. The Lille Regional Teaching HospitalNoDecreased antifungal consumption, stabilized invasive fungal infections (IFI), and decreased IFI-related mortalityLow
Muñoz et al. [32]RetrospectiveCandida speciesEducational and bedside intervention2 yearsHospitalized patients with cases of invasive candidiasis and invasive aspergillosisYesReduced consumption of DDDs and reduced expenditure on antifungalsLow
Vissichelli et al. [2]RetrospectiveAspergillus speciesReview of bronchoalveolar lavage results2 yearsAutologous haematopoietic stem-cell transplant recipientsYesAntifungals were more likely to be escalated or changedLow
Whitney et al. [24]RetrospectiveCandida speciesAntifungal susceptibility testing5–6 daysAdult in patients receiving amphotericin B, echinocandins, intravenous fluconazole, flucytosine, or voriconazole. St. George’s tertiary referral hospitalYesAntifungal expenditure initially reduced then increased to 20% above baseline over a 5-year periodLow
Hamada et al. [33]RetrospectiveN/AVoriconazole trough concentration4 days

Hospitalized patients on voriconazole, at five

hospitals in Japan

NoReduced incidence of hepatotoxicityLow
Shah et al. [34]RetrospectiveCandida speciesAdministration of fluconazole or an echinocandin5 + or − 2 daysHospitalized patients with candidaemiaNoLess than 40% of echinocandin-treated patients with fluconazole-susceptible organisms were de-escalated to fluconazoleLow
Gurram et al. [43]RetrospectiveCandida speciesBronchoalveolar lavage6–12 monthsAdult immunocompromised patients who underwent bronchoscopy with Immunocompromised Host (ICH) ProtocolYesPatients with Candida sp. in bronchoscopy cultures are not likely to be intervened uponLow
Rautemaa-Richardson et al. [35]RetrospectiveCandida speciesAntifungal therapy4 monthsPatients prescribed micafungin for suspected or proven invasive candidosis. UK tertiary referral teaching hospitalYesNumber of patients treated for invasive candidiasis decreasedLow
Mondain et al. [30]Prospective observationalCandida speciesSystematic evaluation2–5 daysTeaching tertiary-care hospitalNoImproved quality of care and stable antifungal use and cost in the hospitalVery low
Antworth et al. [36]Single-centre, quasi-experimentalCandida speciesComprehensive candidemia care bundle3 daysPatients with candidemia. A 930-bed academic hospitalNoImproved management of patients with candidemiaLow
Menichetti et al. [21]RetrospectiveCandida speciesInfectious disease consultation30 daysPatients with documented candidemia cared for in Pisa tertiary care, University hospitalNoA lower 30-day in-hospital mortality rate for candidemia patients treated with infectious diseases consultation (IDC) with respect to those treated withoutModerate
Swoboda et al. [19]RetrospectiveCandida speciesStandardized practice of antifungal therapy45 daysPatients with an intensive care unit (ICU) stay of 1–24 h and either recovery of fungi from any site and/or application of systemic antifungalsNoSignificant decrease in the use of antifungal agents as well as costsModerate
Browne et al. [9]RetrospectiveCandida speciesComplex lung infection multidisciplinary meeting6–12 monthsHospitalized patients with suspected fungal lung diseaseYesAllowed a refinement in diagnosis of Aspergillus-associated lung diseases and improved stewardship of triazole drugsVery Low
Reed et al. [37]Quasi-experimentalCandida speciesASP pharmacist's intervention1–2 yearsThe Ohio state Wexner Medical Centre, a 1229-bed teaching hospitalYesTimely notification from microbiology to the ASP PharmD in conjunction with ASP PharmD interventions resulted in more patients with candidemia receiving timely effective antifungal therapyModerate
Veringa et al. [38]RetrospectiveCandida speciesTherapeutic drug monitoring (TDM) of anti-infective drugs1–2 daysIn-patientsNoTDM plays an important role in the optimization of treatment with anti-infective drugsLow
Morris et al. [4]Phased, multisite cohortCandida speciesAntimicrobial stewardship3–5 daysPatients admitted to each ICU at the academic ICUs in Toronto, CanadaYesSustained improvements in antimicrobial consumption and costLow
Pfaller and Castan Heira [39]ProspectiveCandida speciesRapid diagnostic testing and antifungal stewardship24 h, 7 daysHospitalized individualsNoImproved care by increasing the awareness of candidiasis. Improve diagnostic effortsLow
Märtson et al. [40]RetrospectiveCandida speciesTherapeutic drug monitoring of posaconazole1–3 yearsPatients with haematological malignancies. The University Medical Center Groningen, the NetherlandsNo64% was the adequate posaconazole exposure; in the longitudinal analysis from all the confounders, only dose had a significant effect on posaconazole concentrationsLow
Kawaguchi et al. [41]Single-centre, observationalCandida speciesAntifungal stewardship programs (AFSPs)1–3 yearsPatients who received systemic antifungals at the Osaka City University Hospital (980-bed, tertiary-care teaching hospital)YesAs the appropriate selection of antifungals increases, a decrease in antifungal usage and cost reduction also occurs. This trend leads to improved prognoses of patients with candidemiaLow
Ito-Takeichi et al. [42]Single-institutional prospective cohortCandida species1‐3, β-d-glucan (βDG) testing1–2 daysIn patients receiving intravenous antifungals at the 614-bed Gifu University HospitalNoParental antifungal use was significantly reducedLow
Cavalieri et al. [46]RetrospectiveCandida speciesMALDI-TOF mass spectrometry / Vitek 21–2 daysHospitalized patientsYesAn average 18 h faster microbial ID and antimicrobial susceptibility test resultsLow
Steuber et al. [18]Single-centre, retrospective, observationalCandida speciesT2 Candida Panel (T2CP)3 yearsPatients with positive or negative T2CP at a 971-bed community hospitalNoAntifungal optimization occurred in 54% of patients who had antifungal orders at the time of T2CP testLow
Hashemi et al. [45]RetrospectiveCandida speciesDisc diffusion and micro-dilutionN/AClinical isolates of CandidaNoThe Candida studied had the highest rates of sensitivity to caspofungin and amphotericin B. Among azoles, the highest sensitivity, respectively, is to miconazole, econazole, and then to fluconazoleVery low
Chabavizadeh et al. [44]RetrospectiveCandida speciesGanoderma lucidum (alcoholic extract)N/APatients with candidemia admitted to some specialized hospitals in TehranNoGanoderma lucidum can be used as an antifungal product in future studies for control and treatment of candidiasisVery low
Nwankwo et al. [17]ProspectiveAspergillusspeciesAntifungal stewardship team impact assessment18 monthsChronic lung disease in patients and out-patients with fungal infectionsYesThe commonest infection was CPA, reduction in monthly antifungal expenditure as well as antifungal use after implementing AFS without increase in mortality/morbidityLow
Disease area of focus Of the two studies that analysed implementation of antifungal stewardship in a chronic respiratory disease setting, Nwanko et al. conducted a prospective cohort study over a 18-month period with 178 patients to determine the impact of an antifungal stewardship team in patients with chronic lung diseases at a tertiary cardio-pulmonary hospital [17]. The researchers implemented an antifungal stewardship team consisting of a mycologist and pharmacist provided weekly stewardship rounds, a multidisciplinary meeting twice a week and an outpatient clinic. The most common underlying fungal disease amongst the cohort was CPA by 32%. The study demonstrates through stewardship implementation the delivery of 285 specific recommendations to improve outcome. A statistical increase in therapeutic azole dosing was noted as a result of stewardship implementation alongside a significant 44% reduction in monthly antifungal expenditure, with no deleterious effect on outcome. The study by Browne et al., in which complex fungal lung infections, defined as sub-acute invasive aspergillosis (SAIA), CPA, CPA/ABPA overlap, and ABPA/bacterial infection overlap, were managed through a novel MDT, which comprised three respiratory physicians, an infectious disease specialist, a microbiologist and two pharmacists. They met six times in a 12-month period to review patients on antifungal medication with chronic lung infection [9]. Out of the 32 cases the team discussed, 13 were categorized as complex fungal lung infection. Therapeutic drug monitoring was implemented for these cases and a significant reduction in development of resistance was noted.The quality of the included studies was determined using the Grading of Recommendations, Assessments, Development, and Evaluations (GRADE) methodology, a widely used systemic approach to making clinical recommendations. The studies collected for this review were tested using this approach to answer the clinical question on the usefulness and impact of the antifungal stewardship programs on patients in respiratory care. According to the GRADE classification, the majority of the included records start with very low and low classification as the majority of them are observational studies. Three studies reached moderate GRADE quality classification, however, due to the impact of findings. Studies’ characteristics are shown in Table 1. Optimization of antifungal use: Eleven articles concluded that antifungal stewardship is associated with increased appropriate use of medication and a reduction in the overuse/misuse of antifungal therapy. The reduction of unnecessary antifungal use importantly did not negatively affect the quality of care or patient outcomes. Quality of study analysis Reported outcomes: Mortality/morbidity: within the papers identified by the systematic review, some of the intervention measures initiated in the systematic literature review such as optimizing diagnosis through novel rapid diagnostics (e.g. T2CP and use of MALDI-TOF mass spectrometry) resulted in quicker diagnosis and reduced inappropriate antifungal use [18]. Integrated multidisciplinary antifungal stewardship programmes were associated with a reduction in incidence in antifungal-attributed toxicities such as hepatotoxicity, as well as a reduction in 30-day in-hospital mortality rates for candidaemia [19-21].

Discussion

In this systematic review to evaluate the evidence base for antifungal stewardship in a chronic respiratory disease setting, we show that the majority of the studies performed to date are focussed in an invasive fungal disease setting, predominantly with Candida species infection, with only four studies reaching moderate grade evidence. There is nevertheless evidence in this setting indicating the effectiveness of antifungal stewardship as an implementation strategy, with improved appropriate use of optimal antifungal therapy and evidence to suggest benefit in reducing attributable mortality. With clear protocols for indication and dosage alongside therapeutic drug monitoring of antifungal medication, there was improved optimization of antifungal therapy, with corresponding reductions in drug toxicity. It is unclear as yet, whether long-term, improved delivery of optimal antifungal therapy can reduce acquisition or development of antimicrobial resistance. Our systematic literature review, however, showed very limited current evidence within a chronic respiratory care setting. Only two studies were focussed on chronic lung disease patients with fungal infection. Both of these studies confirm the susceptibility of chronic respiratory patients to fungal infection. However, there are significant limitations in the evidence on antifungal stewardship application in a chronic respiratory care setting [22, 23, 24]. Two of the included studies (Nwanko et al. and Browne et al.) are classified as low-quality evidence according to GRADE classification [9, 17]. The prospective and retrospective studies highlighting antifungal stewardship in respiratory care settings may contain bias given the small sample size utilized in both studies with imprecisions due to a confidence interval of less than 95% in the results obtained. Nevertheless, according to several of the included studies, antifungal stewardship is an effective means of regulating antifungal use, advocating for optimal use of the drugs, and reducing unintended harm. Given the duration of antifungal therapy often required within a chronic respiratory setting, this indicates significant potential benefit from stewardship implementation. However, as yet, there is a lack of evidence, and given the high burden of disease with rising antimicrobial resistance levels, there is an urgent requirement for a robust systematic evidence base for widespread adoption. Although antifungal medication is used widely within chronic respiratory fungal allergic diseases with a number of studies highlighting the impact of fungal sensitization on chronic respiratory disease, none of the papers within our systematic review have analysed the effects of antifungal stewardship implementation on fungal sensitization control. Previous studies have suggested the importance of optimal azole therapeutic dosing within ABPA, and this is again a topic that requires further systematic prospective evidence base [25]. To date, there is little evidence on optimal antifungal management of fungal disease in a chronic respiratory setting, with significant variability in management and diagnosis. A survey on laboratory setting capability for fungal testing in the UK in 2017 found that the practice remained sub-optimal, with a lack of a standardized approach to fungal testing unlike bacterial infections and variable testing and documentation of antifungal resistance [26, 27]. We highlight in this systematic review the significant benefits following implementation of antifungal stewardship in an invasive fungal disease setting, with a lack of evidence base for implementation in a growing burden in a chronic respiratory disease setting with high antifungal resistance prevalence.

Conclusion

This systematic literature review shows that antifungal stewardship is an essential extension of ASPs and presents many of the same benefits for patients in an invasive disease setting. However, the application and evidence base for antifungal stewardship are still limited in a chronic respiratory disease setting despite a high burden of fungal disease and antifungal resistance. Further research is urgently needed to understand the factors that lead to the development of antifungal resistance and assess the impact of antifungal stewardship within a chronic respiratory disease setting. Below is the link to the electronic supplementary material. Supplementary file1 (DOCX 21 kb)
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