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National Guideline Alliance (UK). Cystic Fibrosis: Diagnosis and management. London: National Institute for Health and Care Excellence (NICE); 2017 Oct 25. (NICE Guideline, No. 78.)
I.1. Diagnosis of cystic fibrosis
Not applicable for this review.
I.2. Information and support
Not applicable to this review.
I.3. Service delivery
I.3.1. Service configuration
I.3.1.1. Home-based care
Comparison 1.1: home versus hospital care for the administration of intravenous antibiotics (IV AB) in people with CF experiencing an acute pulmonary exacerbation
Figure 4People starting next course of AB more than 12 weeks after completing the previous course (proxy outcome for time to next exacerbation) at 18 days follow-up
Comparison 1.2. Home versus hospital care for the administration of intravenous antibiotics (IV AB) in people with CF and chronic pulmonary infection with P. Aeruginosa
I.3.1.2. CF centre care
Comparison 2.1. CF centre care versus shared care
Figure 13Lung function: Change from first to last FEV1 % predicted per year at 3 years follow-up (range of scores: 0–100)
Comparison 2.2. CF centre care versus local care (below CF Trust recommendations)
Figure 20Lung function: Change from first to last FEV1 % predicted per year at 3 years follow-up (range of scores: 0–100)
Figure 21Lung function: Slope FEV1 % predicted per year at 3 years follow-up (range of scores: 0–100)
Comparison 2.3. CF centre care versus general clinic (non-CF)
Data could not be plotted.
I.3.1.3. Shared care
Comparison 3.1. Local care (below CF Trust Standards) versus shared care (UK equivalent)
Figure 24Lung function: Change from first to last FEV1% predicted per year at 3 years follow-up (range of scores: 0–100)
I.3.2. Multidisciplinary teams
Not applicable, as no studies were included in this review.
I.4. Transition
Not applicable to this review.
I.5. Complications of cystic fibrosis
Not applicable to this review.
I.6. Monitoring for pulmonary disease
I.6.1. Review 1. Monitoring for pulmonary disease onset in people with CF without clinical signs or symptoms of lung disease
Comparison 1. Lung function tests versus imaging tests
No forest plots available.
I.6.2. Review 2. Monitoring for evolving pulmonary disease in people with CF with established lung disease
Not applicable, as evidence was found for this review.
I.6.3. Review 3. Monitoring for evolving pulmonary disease in people with CF following an acute pulmonary exacerbation
Comparison 1. Monitoring using bronchoalveolar lavage (BAL) versus standard monitoring
I.7. Airway clearance techniques
Comparison 1. Manual physiotherapy versus no airway clearance techniques
No evidence was found for this comparison.
Comparison 2. Manual physiotherapy techniques versus oscillating devices
Comparison 3. Manual physiotherapy versus high frequency chest wall oscillation (HFCWO)
Comparison 4. Positive expiratory pressure mask (PEP) versus no airway clearance technique
Comparison 5. Positive expiratory pressure mask (PEP) versus active cycle of breathing techniques (ACBT)
No evidence was found for this comparison.
Comparison 6. Positive expiratory pressure mask (PEP) versus oscillating devices
Figure 47Patient preference (measured as self-withdrawal due to lack of perceived effectiveness) at 1 year follow-up
Figure 48Hospitalisations due to respiratory exacerbations (mean number per participant) at 13 months follow-up
Comparison 7. Positive expiratory pressure mask (PEP) versus high frequency chest wall oscillation (HFCWO)
Comparison 8. Active cycle of breathing technique (ACBT) versus no airway clearance technique
No evidence was retrieved for this comparison.
Comparison 9. Active cycle breathing technique (ACBT) versus autogenic drainage (AD)
No evidence was retrieved for this comparison.
Comparison 10. Autogenic drainage (AD) versus no airway clearance technique
No evidence was retrieved for this comparison.
Comparison 11. Oscillating device versus no airway clearance technique
No evidence was retrieved for this comparison.
Comparison 12. Oscillating device versus high frequency chest wall oscillation (HFCWO)
Comparison 13. High frequency chest wall oscillation (HFCWO) versus no airway clearance technique
No evidence was found for this comparison.
Comparison 14. Non-invasive ventilation (NIV) versus no airway clearance technique
I.8. Mucoactive agents
I.8.1. Mannitol
Comparison 1.1. Mannitol versus placebo
Figure 68Lung function: change in FEV1 % predicted at 2 weeks and 2, 4 & 6 months follow-up (range of scores: 0–100)
Figure 69Lung function: change in FEV1 % predicted in children and young people at 2, 4 & 6 months follow-up (range of scores 0–100)
Figure 70Lung function: change in FEV1 % predicted in adults at 2, 4 & 6 months follow-up (range of scores 0–100)
Figure 72Number of children and young people with protocol defined exacerbations at 6 months follow-up
Figure 75Quality of life: change in CFQ-R respiratory at 4 & 6 months follow-up (range of scores: 0–100)
Figure 76Quality of life: change in CFQ-R vitality at 4 & 6 months follow-up (range of scores: 0–100)
Figure 77Quality of life: change in CFQ-R physical at 4 & 6 months follow-up (range of scores: 0–100)
Figure 78Quality of life: change in CFQ-R emotion at 4 & 6 months follow-up (range of scores: 0–100)
Figure 84Quality of life: change in CFQ-R digestion at 4 & 6 months follow-up (range of scores: 0–100)
Comparison 1.2.1. Mannitol versus Dornase alfa
Comparison 1.2.2. Mannitol + Dornase alfa versus Dornase alfa alone
Comparison 1.3: Mannitol versus nebulised sodium chloride
No evidence was found for this comparison.
Comparison 1.4. Mannitol versus acetylcysteine
No evidence was found for this comparison.
I.8.2. Dornase alfa
Comparison 2.1. Dornase alfa versus placebo
Figure 92Lung function: relative mean % change in FEV1 at 10 days; and at 1, 3 & 6 months follow-up (range of scores: 0–100)
Figure 93Lung function: relative mean % change in FEV1 at 1 month follow-up (range of scores: 0–100) (subgroup analysis based on disease severity)
Figure 94Lung function: mean % change in FEV1 at 1 month follow-up (range of scores: 0–100) (subgroup analysis: participants with acute exacerbation)
Comparison 2.2. Dornase alfa versus nebulized sodium chloride
Comparison 2.3. Dornase alfa versus acetylcysteine
No evidence was found for this comparison.
I.8.3. Nebulised sodium chloride
Comparison 3.1. Nebulised sodium chloride (> 3% concentration) versus placebo (0.9% to 0.12%) or low-concentration (≤ 3%)
Figure 104Lung function: % change in FEV1 at 2, 4, 12, 24, 36 & 48 weeks follow-up (range of scores: 0–100)
Comparison 3.2. Nebulised sodium chloride versus acetylcysteine
No evidence was found for this comparison.
I.8.4. Acetylcysteine
Comparison 4. Acetylcysteine versus placebo
I.9. Pulmonary infection – prophylaxis
Comparison 1. Continuous oral flucloxacillin versus antibiotics as required
Figure 116Number of children from whom S. Aureus was identified at least once during 3 years follow-up
Figure 117Number of children admitted to hospital due to pulmonary exacerbations (annualised rates) during 3 years follow-up
Comparison 2. Continuous oral Cephalexin versus antibiotics as required
Figure 119Number of children from whom S. aureus was identified at least once during 6 years follow-up
Figure 122Number of children admitted to hospital due to pulmonary exacerbations (annualised rates) during 6 years follow-up
I.10. Pulmonary infection – acute
I.10.1. Pseudomonas aeruginosa
I.10.1.1. Antimicrobial treatment for pulmonary exacerbations due to P. aeruginosa
Comparison 1. Single IV antibiotic versus single IV antibiotic
Comparison 2. Single IV antibiotic (with placebo) versus combination IV
Figure 126FEV1 % predicted (absolute change) at 10 days follow-up (range of scores: 0–100) [Tobramycin + placebo versus tobramycin + ceftazidime]
Figure 127FEV1 % predicted (relative change) at end of 2 weeks course (range of scores: 0–100) [tobramycin + placebo versus tobramycin + piperacillin (different regimens)]
Figure 128Adverse effects: sensitivity reaction at end of 2 weeks course [tobramycin + placebo versus tobramycin + piperacillin (all regimens)]
Figure 129Adverse effects: number of hospital admissions due to tinnitus during 10 day course [tobramycin + placebo versus ceftazidime + tobramycin]
Comparison 3. Single IV antibiotic versus combination IV antibiotic for pulmonary exacerbations with PA
Figure 131FEV1 (relative change) at 10 to 14 days follow-up (range of scores: 0–100) [ceftazidime versus tobramycin & ticarcillin]
Figure 133FEV1 % predicted (absolute change) at 14 days follow-up (range of scores: 0–100) [ceftazidime versus tobramycin + piperacillin]
Figure 134Eradication: number of people in whom pseudomonas isolates were eradicated at end of course at 10 days follow-up [piperacillin versus piperacillin & tobramycin]
Figure 135Time to readmission (in months) at 24 to 26 months follow-up [ceftazidime versus tobramycin + piperacillin]
Figure 136Number of admissions requiring IV antibiotics or death at 3 months follow-up [ceftazidime versus tobramycin & ticarcillin] (follow-up 3 months)
Comparison 4. Combination IV antibiotics versus combination IV antibiotics for pulmonary exacerbations
Figure 140Eradication of pathogen at 2 weeks follow-up [aztreonam + amikacin versus ceftazidime + amikacin]
Figure 141FEV1 % predicted (absolute change) at 2 weeks follow-up (range of scores: 0–100) [IV combination A vs IV combination B]
Figure 142FEV1 % predicted (relative change) at 2 weeks follow-up (range of scores: 0–100) [meropenem + obramycin versus ceftazidime + tobramycin]
Comparison 5. Two IV antibiotics + inhaled antibiotic versus 2 IV without inhaled antibiotic
Figure 144Eradication of P. aeruginosa at 15 days follow-up [IV ceftazidime + IV amikacin + inhaled amikacin versus IV ceftazidime + IV amikacin]
I.10.1.2. Antimicrobial treatment for acute infection with P. aeruginosa
Comparison 7. Oral ciprofloxacin + inhaled colistin versus inhaled tobramycin
Comparison 8. Inhaled colistin + oral ciprofloxacin versus inhaled tobramycin + oral ciprofloxacin
Figure 149Relative change in % predicted FEV1 from baseline at 54 days follow-up (range of scores: 0–100)
I.10.2. Staphylococcus aureus
Not applicable, as no studies were identified for inclusion.
I.10.3. Burkholderia cepacia complex
Not applicable, as no studies were identified for inclusion.
I.10.4. Non-tuberculous mycobacteria
Not applicable, as no studies were identified for inclusion.
I.10.5. Non-identified pathogen
Not applicable, as no studies were identified for inclusion.
I.11. Pulmonary infection – chronic
I.11.1. Pseudomonas Aeruginosa
I.11.1.1. NMA outcomes
Outcome 1: NMA FEV1 % predicted (range of scores: 0–100)
Figure 152Forest plot showing mean differences (with their 95% CI) of study estimates for interventions versus placebo
Outcome 2: NMA number of patients experiencing at last one exacerbation
Figure 154Forest plot showing odds ratios (with their 95% CI) of NMA estimates for each intervention versus placebo for the number of people experiencing at least one exacerbation with short-term (4–10 weeks) treatment
I.11.1.2. Non-NMA outcomes (pairwise comparisons)
Pairwise comparison 1: Aztreonam lysine versus placebo
Figure 156Lung function: relative change in FEV1% predicted at 28 days follow-up (range of scores: 0–100)
Figure 157Suppression of the organism: adjusted mean change in P. aeruginosa sputum density (log10), at 4 weeks follow-up
Pairwise comparison 2: Ciprofloxacin versus placebo
Pairwise comparison 3.1. Colistin versus placebo
Figure 169Suppression of the organism: eradication of the organism from sputum, at 3 months follow-up
Pairwise comparison 3.2. Colistin inhalation powder (COLO DPI) versus colistin inhalation solution (COLI nebulised)
Figure 171Lung function: % mean change in FEV1% predicted at 4 weeks follow-up (range of scores: 0–100)
Pairwise comparison 3.3. Colistin versus tobramycin
Figure 174Lung function: mean % change in FEV1% predicted at 1 to 3 months follow-up (range of scores: 0–100)
Figure 175Lung function: mean % change in FEV1% predicted at 4 weeks follow-up (range of scores: 0–100)
Figure 176Lung function: mean % change in FEV1% predicted at 12 weeks follow-up (range of scores: 0–100)
Figure 177Lung function: mean % change in FEV1% predicted at 24 weeks follow-up (range of scores: 0–100)
Figure 178Time to next pulmonary exacerbation: time to first additional antipseudomonal treatment (days), at 24 weeks follow-up
Figure 179Suppression of the organism: change in sputum P. aeruginosa density Log10 CFU/ml, at 4 weeks follow-up
Figure 181Quality of life: CFQ-R all domains, at 24 weeks follow-up (range of scores: 0–100)
Pairwise comparison 4.1. Tobramycin versus placebo
Figure 194Lung function: mean % change in FEV1% predicted at 1 to 3 months follow-up (range of scores: 0–100)
Figure 195Suppression of the organism: eradication of the organism at 4, 6, 12, 8, 20 and 24 weeks follow-up
Figure 196Suppression of the organism: change in P. aeruginosa sputum density log10 CFU/G, at 4 weeks follow-up
Pairwise comparison 4.2. Tobramycin inhalation powder (TOBI DPI) versus tobramycin inhalation solution (TOBI nebulised)
Figure 202Lung function: mean change in FEV1% predicted at 4, 20 and 24 weeks follow-up (range of scores: 0–100)
Figure 203Suppression of the organism: mean change in P. aeruginosa sputum density log10 CFU, at 4 to 20 weeks follow-up
Pairwise comparison 4.3. Tobramycin versus Aztreonam lysine
Figure 207Suppression of the organism: adj mean change sputum density log10 PA CFU/G, at 20 weeks follow-up
Figure 209Quality of life: CFQ-R respiratory, adj mean change, at 20 weeks follow-up (range of scores: 0–100)
Pairwise comparison 5. Combination of fosfomycin + tobramycin versus placebo
Figure 216Lung function: relative change in FEV1% predicted, at 4 weeks follow-up (range of scores: 0–100)
Pairwise comparison 6. Continuous alternating therapy versus intermittent treatment: aztreonam lysine + tobramycin or placebo + tobramycin
Figure 218Lung function: % change in FEV1% predicted (values at 4, 12 and 20 weeks were averaged) (range of scores: 0–100)
Figure 220Quality of life: change in CFQ-R (scores were averaged from weeks 4, 12 and 20) (range of scores: 0–100)
I.11.2. Staphylococcus Aureus
Not applicable, as no relevant studies were identified.
I.11.3. Burkholderia Cepacia Complex
Not applicable, as no relevant studies were identified.
I.11.4. Aspergillus Fumigatus
Pairwise comparison 7: Itraconazole versus placebo
Figure 222Percentage change in FEV1 from baseline at 24 and 48 weeks follow-up (range of scores: 0–100)
Figure 224Number of pulmonary exacerbations requiring AB or hospitalization, at 24 and 48 weeks follow-up
Figure 225Quality of life
I.12. Immunomodulatory agents
I.12.1. NMA outcomes
I.12.2. Non-NMA outcomes (pairwise comparisons)
Pairwise comparison 1. Fluticasone versus placebo
Pairwise comparison 2. Prednisone/Prednisolone versus placebo
Pairwise comparison 3. Azithromycin versus placebo
Pairwise comparison 4. Ibuprofen versus placebo
I.13. Nutritional interventions
Comparison 1. Oral supplements versus usual care
Comparison 1.2 Oral calorie supplementation versus nutritional advice
Comparison 2. Enteral tube feeding versus nutritional advice
Figure 270Change in FEV1 % predicted at 6 months and at 1, 2, 3 years follow-up (range of scores: 0–100)
Comparison 3. Appetite stimulants versus placebo
Comparison 4. Nutrition education versus usual care
Comparison 5.1 Behavioural intervention versus usual care
Comparison 5.2 Behavioural intervention versus education and attention control treatment
Comparison 5.3. Behavioural management training plus educational intervention versus educational intervention alone
I.14. Exocrine Pancreatic insufficiency
Comparison 1. Acid suppressing agents as adjuvant therapy to PERT
No forest plots available.
Comparison 2. High dose versus low dose PERT
Comparison 2.1. High-dose PERT versus low dose PERT in children
Comparison 2.1. High-dose PERT versus low dose PERT in children
No forest plots available.
I.15. Distal intestinal obstruction syndrome
Not applicable, as no studies were included in this review.
I.16. Monitoring liver disease
Not applicable to this review.
I.17. Ursodeoxycholic acid
Comparison 1. UDCA versus placebo or control
Figure 304No development of liver disease at 6 months follow-up
I.18. Monitoring for CF related diabetes
Not applicable, as no studies were identified for this review.
I.19. Bone mineral density
Not applicable to this review.
I.20. Exercise
Comparison 1. Aerobic exercise training programme versus no exercise programme
Figure 307Change in FEV1 % predicted at hospital discharge (mean ≈ 19 days) (range of scores: 0–100)
Comparison 2.1. Strength resistance/anaerobic training programme versus no exercise programme
Figure 320Change in FEV1 % predicted at hospital discharge (mean ≈ 19 days) (range of scores: 0–100)
Comparison 2.2. Strength/anaerobic training programme versus aerobic training programme
Figure 332Change in FEV1 % predicted at hospital discharge (mean ≈ 19 days) (range of scores: 0–100)
Figure 336Change in FVC% predicted at hospital discharge (mean aprox. 19 days) (range of scores: 0–100)
Comparison 3. High-intensity interval training versus standard aerobic and anaerobic exercise programme
Comparison 4. Inspiratory muscle training (IMT) at 80% of maximal effort versus usual care
Comparison 5. Combined aerobic and anaerobic training programme versus no exercise programme
Figure 360Change in quality of life – CFQ-R physical functioning at 3 months follow-up (range of scores: 0–100)
Figure 362Change in quality of life – CFQ-R emotional state at 3 months follow-up (range of scores: 0–100)
Figure 363Change in quality of life – CFQ-R treatment burden at 3 months followup (range of scores: 0–100)
Figure 364Change in quality of life – CFQ-R health perception at 3 months followup (range of scores: 0–100)
Figure 365Change in quality of life – CFQ-R social limitations at 3 months followup (range of scores: 0–100)
Figure 366Change in quality of life – CFQ-R body image at 3 months follow-up (range of scores: 0–100)
Figure 367Change in quality of life – CFQ-R role limitations at 3 months follow-up (range of scores: 0–100)
Comparison 6. Combined inspiratory muscle training (IMT), resistance and aerobic training versus no exercise programme
I.21. Psychological assessment
Not applicable to this review.
I.22. Cross-infection control
I.22.1. Outpatient care
Comparison 1. Cohort segregation by clinic times versus no cohort segregation
4-year prevalence of MRSA at 4 years follow-up
Data could not be plotted
4-year prevalence of non-mucoid PA at 4 years follow-up
Data could not be plotted
4-year prevalence of mucoid PA at 4 years follow-up
Data could not be plotted
Staff compliance at 4 years follow-up
Data could not be plotted
Comparison 2. Cohort segregation by location versus no cohort segregation
Comparison 3. Combination of protective equipment + individual segregation versus incomplete protective equipment + incomplete individual segregation
4-month prevalence of PA infections at 5 years follow-up
Data could not be plotted
4-month prevalence of MRSA infections at 5 years follow-up
Data could not be plotted
I.22.2. Inpatient care
Comparison 4. Cohort segregation by location versus no cohort segregation
Comparison 5. Individual segregation by location versus usual care
Patients’ satisfaction
Data could not be plotted
Parents’ satisfaction
Data could not be plotted
I.22.3. Combined inpatient and outpatient care
Comparison 6. Cohort segregation versus no cohort segregation
Annual incidence of Burkholderia species infection at 1 year follow-up
Data could not be plotted
Prevalence of AES-1 (PA epidemic strain) at 2 years follow-up
Data could not be plotted
Annual prevalence of chronic infection with transmissible PA strain at 1 year follow-up
Data could not be plotted
Comparison 7. Complete cohort segregation versus incomplete cohort segregation
Annual incidence of Burkholderia species at 1 year follow-up
Data could not be plotted
Comparison 8. Individual segregation versus usual care
Patient satisfaction
Data could not be plotted
Comparison 9. Cohort segregation + individual segregation versus cohort segregation
Yearly prevalence of B. Cepacia complex infection at 1 year follow-up
Data could not be plotted
Yearly prevalence of Burkholderia species at 5 years follow-up
Data could not be plotted
Comparison 10. Cohort segregation + individual segregation + protective equipment versus usual care
Annual incidence of B. Cepacia complex infection at 1 year follow-up
Data could not be plotted
Comparison 11. Cohort segregation + individual segregation versus usual care
Patient satisfaction
Data could not be plotted
- Diagnosis of cystic fibrosis
- Information and support
- Service delivery
- Transition
- Complications of cystic fibrosis
- Monitoring for pulmonary disease
- Airway clearance techniques
- Mucoactive agents
- Pulmonary infection – prophylaxis
- Pulmonary infection – acute
- Pulmonary infection – chronic
- Immunomodulatory agents
- Nutritional interventions
- Exocrine Pancreatic insufficiency
- Distal intestinal obstruction syndrome
- Monitoring liver disease
- Ursodeoxycholic acid
- Monitoring for CF related diabetes
- Bone mineral density
- Exercise
- Psychological assessment
- Cross-infection control
- Forest plots - Cystic FibrosisForest plots - Cystic Fibrosis
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