Pulmonary infection is a kind of infectious disease that seriously damages human health. It usually starts quickly and progresses rapidly in clinical manifestations, and is often accompanied by upper respiratory tract infection symptoms. With the increasing use of broad-spectrum antibiotics in clinical practice, the failure of anti-infection caused by drug-resistant bacteria is more and more common. Once a patient develops carbapenem-resistant gram-negative bacteria (CRO) infection, there are limited drug options. Therefore, HAP, as a serious and common complication, has a high incidence and mortality for ICU patients. In this study, patients who met the diagnostic criteria for pulmonary infection caused by CRO that was clearly or strongly suspected to be resistant to carbapenems but sensitive to CMS were selected, and the combined treatment regimen of CMS intravenous atomization was adopted. To explore the therapeutic effect of CMS combined with intravenous atomization in patients with carbapenem resistant gram-negative bacteria in lung infection. To evaluate the safety and tolerability of the combination regimen in patients with pulmonary infections caused by CRO. The purpose of this study was to explore the efficacy and safety of CMS combined with intravenous atomization in the treatment of patients with CRO induced pulmonary infection, and to provide a basis for its clinical rational application.
Study Type
INTERVENTIONAL
Allocation
NA
Purpose
TREATMENT
Masking
NONE
Enrollment
200
To explore the therapeutic effect of CMS combined with intravenous atomization in patients with carbapenem resistant gram-negative bacteria in lung infection.
The First Affiliated Hospital of Ningbo University
Ningbo, Z, China
Clinical effective rate
Clinical effective rate = (number of effective cases/total number of treated cases) × 100% Effective cases are those that include complete response (disappearance of symptoms), partial response (significant improvement in symptoms), or those that meet specific efficacy criteria. Inactive cases are patients whose symptoms do not improve or worsen.
Time frame: From enrollment to the end of treatment at 14 days
Microbial clearance
The microbial clearance rate can be calculated by calculating the change in the number of microorganisms before and after disinfection. Specifically, the number of microorganisms before disinfection minus the number of microorganisms after disinfection, divided by the number of microorganisms before disinfection, to obtain the proportion of microbial reduction.
Time frame: 14-day treatment
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