Future Microbiology · 2016 · 57 citations · 15 references
MedicineInfectious DiseasesMicrobiologyAntimicrobial PharmacologyAntimicrobial ResistanceMedical MicrobiologyAntibacterial PharmacologyAntibacterial TherapyAntibiotic ResistanceAntimicrobial TherapyPulmonary InfectionsRespiratory InfectionsAcinetobacter Baumannii InfectionBacteriophage TherapyDrug-resistant PathogensIntranasal AdministrationIntranasal ApproachRespiratory Bacterial Infections TreatmentRespiratory Tract Infection TreatmentTherapeutic Efficacy Assessment
AIM: With the emergence of drug-resistant bacteria, finding alternative agents to treat antibiotic-resistant bacterial infections is imperative. MATERIALS & METHODS: A mouse pneumonia model was developed by combining cyclophosphamide pretreatment and Acinetobacter baumannii challenge, and a lytic bacteriophage was evaluated for its therapeutic efficacy in this model by examining the survival rate, bacterial load in the lung and lung pathology. RESULTS: Intranasal instillation with bacteriophage rescued 100% of mice following lethal challenge with A. baumannii. Phage treatment reduced bacterial load in the lung. Microcomputed tomography indicated a reduction in lung inflammation in mice given phage. CONCLUSION: This research demonstrates that intranasal application of bacteriophage is viable, and could provide complete protection from pneumonia caused by A. baumannii.
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