Objective To evaluate the efficacy and safety of Shengmai injection for hypoxic-ischemic encephalopathy (HIE). Methods We searched MEDLINE (1966 to February 2007), EMBASE (1980 to February 2007), CBM (1978 to 2006), CNKI (1979 to February 2007), VIP (1989 to February 2007), and handsearched five Journals on Pediatrics. We evaluated features of quality of included studies, including randomization, blinding, allocation concealment and loss of follow-up. Meta-analyses were performed using The Cochrane Collaboration’s RevMan 4.2.8. Results Seven randomized controlled trials were included. The cure rate on day 5 in the Shengmai injection group was higher than in the control group (RR 1.55, 95%CI 1.25 to 1.93), but this rate was similar on day 10 (RR 0.74, 95%CI 0.43 to 1.29). No significant difference in cure rate was noted between the Shengmai injection group and naloxone group (RR 0.88, 95%CI 0.53 to 1.46). No significant differences were observed in mortality (RR0.44, 95%CI 0.16 to 1.19) and mutilation rate (RR 0.58, 95%CI 0.21 to 1.56) between the Shengmai injection group and the control group. For those babies suffering from HIE combined with myocardial damage, Shengmai injection could speed up the recovery of ECG (WMD=–2.02, 95%CI –2.76 to –1.28) and myocardial enzymogram (CK-MB: WMD= –4.78, 95%CI –6.77 to –2.79; CK-BB: WMD=–2.68, 95%CI –4.58 to –0.78). Significant differences in NBNA score were noted between the Shengmai injection group and the control group on day 5 (WMD=4.05, 95%CI 2.47 to 5.63) and day 10 (WMD=3.50, 95%CI 2.26 to 4.74). No fatal side effects were reported. Conclusions Shengmai injection has certain therapeutic values in treating HIE. Shengmai injection can speed up the recovery ECG, CK-BM and CK-BB of HIE patients, especially in those who have myocardial damage. Shengmai injection can also improve the NBNA score. However, because of the low statistical power and high risks for selection bias, performance bias and measurement bias in the included trials, these conclusions need to be interpreted cautiously.
The management of neonates with high risk congenital diaphragmatic hernia (CDH) which gives rise to respiratory distress syndrome in 6 hours after born is so troublesome that the mortality is very high. The past advocation that CDH should accept emergency operation has been called in question. Another therapeutic procedure is recommended that CDH repair operation should be performed after the respiration and circulation has been stabilized. This procedure has presented better effect than before. The present advances in the management including general measures, mechanical ventilation, extracorporal membranous oxygenator (ECMO), nitric oxide (NO) inhalation, glucocorticoid, pulmonary surfactant, CDH repair and so on were reviewed.
ObjectiveTo explore the risk factors for neonatal nosocomial infection and the pathogen resistance, in order to provide the basis for hospital infection control. MethodsSurveillance of hospital infection in newborns hospitalized for more than 48 hours were carried out from January to December 2012, and the risk factors for hospital infection were analyzed. ResultsThere were 54 newborn cases with neonatal nosocomial infection, and the infection rate of newborns was 1.25%. The major infection sites were respiratory tract (66.7%), gastrointestinal tract (18.5%), skin and soft tissues (9.2%). Birth weight (χ2Trend=126.88, P<0.001), hospitalization days (χ2Trend=106.89, P<0.001), invasive operation (χ2=5.338, P=0.021) were the major risk factors. A total of 54 strains of pathogenic bacteria were isolated from 54 newborn cases with neonatal nosocomial infection. Twenty-three strains of gram-positive bacteria accounted for 42.6%, which were generally resistant to penicillin and large ring lactone class antibiotic drugs. Thirty-one strains of gram-negative bacteria accounted for 57.4%, which were mainly resistant to the three generations of cephalosporins. ConclusionThe hospital infection rate of newborns is low. Birth weight, hospitalization days and invasive operation are the major risk factors for neonatal nosocomial infection.
ObjectiveTo explore the incidence, treatment and prognosis of neonatal respiratory failure (NRF).
MethodsThe clinical data of 421 neonates with NRF treated between January 2011 and December 2013 were retrospectively analyzed.
ResultsThe incidence and the mortality of NRF was 4.8% and 14.5%, respectively. The main primary disease of NRF was neonatal respiratory distress syndrome (36.1%) and aspiration pneumonia (29.0%). Mechanical ventilation was the main treatment for NRF (77.2%). Premature (χ2=12.216, P<0.001), low birth weight (χ2=8.932, P=0.003) and the neonatal asphyxia (χ2=6.199, P=0.013) were closely related to the prognosis of NRF, which were the risk factors of the death of NRF.
ConclusionNRF is a disease with high incidence and high mortality; make effective prevention and treatment measures are important to improve the success rate of therapy for NRF.
Omphalocele is a less common congenitalmalformation in neonates and belongs to the realm of emergent surgical treatment. Early repair is of crucial importance for saving the patient s life. Ten neonates with omphalocele have undergone early surgical repair since 1988. The overall result was satisfactory. There were 8boys and 2 girls. The time of operation ranged from one to fortyeight hours after birth (24 hours in 8 cases). All of them were term neonates, except in onecase being premature. None of them had rupture of the sac membrane. The minor and major omphalocele were in 8 and 2 cases, respectively. Five cases accompaniedwith other congenital malformations (1 to 3 kinds). One case of them was complicated by exompholos-macroglossia-gigantism (EMG syndrome). Nine cases were treated by primary stage of surgical repair. One case with major omphalocelehad undergone two-staged operation. Nine neonates were survived and only onedied of pneumonia and scleroderma postoperatively. The patients were followed up for 3 months to 5 years, 9 cases were satisfactory. Early surgical repairwas essential to successful treatment. The choice of surgical methods, the management of concomittant malformation in the alimentary tract and the factors influencing the prognosis were discussed.
ObjectiveTo investigate the distribution and drug resistance of pathogens in neonates with lower respiratory tract infection, and provide evidence for clinical rational antibiotic use.
MethodsA retrospective analysis on 998 strains isolated from 5 486 sputum samples during January 1, 2009 to December 31, 2012 collected from hospitalized neonates was performed.
ResultsOf the 998 isolated strains, the common pathogens were Klebsiella pneumoniae (23.1%), Escherichia coli (E. coli) (21.2%), Staphylococcus aureus (19.4%), and Enterobacter cloacae (8.4%). Klebsiella pneumonia, E. coli and Enterobacter cloacae were generally resistant to penicillin, but enzyme inhibitors could reduce the resistance rate. A large proportion of Klebsiella pneumonia was resistant to the third generation cephalosporins (78.4%), while E. coli and Enterobacter cloacae had a lower resistance rate (46.7% and 46.5%, respectively). There were 7 strains (3.0%) of Klebsiella pneumoniae and 1 (1.2%) strain of Enterobacter cloacae resistant to imipenem. Twenty-three strains (13.6%) of Klebsiella pneumoniae, 1 strain (0.7%) of E.coli and 1 strain (2.5%) of Enterobacter cloacae were resistant to ertapenem. A total of 97.0% of Staphylococcus aureus was resistant to penicillin, but only 11.0% was resistant to oxacillin, and all the isolates were sensitive to vancomycin.
ConclusionGram negative bacteria are the common pathogens in the hospitalized neonates in our hospital. Klebsiella pneumonia, E. coli and Staphylococcus aureus are the common pathogens. The common pathogens show a high resistant level to antibiotics. Clinicians should evaluate the potential pathogens of infections based on the results presented in our study, in order to select antibiotics rationally when treating infections.
ObjectiveTo systematically review the quality of evidence-based guidelines (EBGs) on medication therapy for neonatal bacterial meningitis, and compare differences and similarities of the drugs recommended, in order to provide references for clinical application.
MethodsDatabases such as the TRIP, PubMed, CNKI, VIP, WanFang, CBM, National Guideline Clearinghouse and Guidelines International Network were searched to collect evidence-based guidelines on medication therapy for neonatal bacterial meningitis. Methodological quality of included studies was assessed according to the AGREE Ⅱ instrument, and the differences and similarities among recommendations were compared.
ResultsA total of 4 EBGs were included. Among them, one guideline was developed by the America and three guidelines were by the UK. Only one guideline was developed specially for neonates, while the rest were for neonates and children of different ages. According to the AGREE Ⅱ instrument, "scope and purpose", "stakeholder involvement", "rigor of development", "clarity and presentation", "applicability" and "editorial independence" were scored more than 60%. The recommendations of different guidelines were basically the same, only with conflicts in some areas.
ConclusionAlthough most guidelines concerning neonatal bacterial meningitis are of high quality, grading levels of evidence and strength of recommendation should be unified.
Volume-targeted ventilation has been widely used in neonates requiring mechanical ventilation in recent years. However, as a novel method, its application involves risks. Based on domestic and international evidence, we developed a guideline for the use of volume-targeted ventilation in neonatal respiratory support using the grading of recommendations for assessment, development and evaluation of evidence (GRADE) method, to help neonatal healthcare professionals standardize the use of volume target ventilation.
Objective
To explore the levels and the clinical significance of serum soluble Endoglin (sEng) and soluble Fms-like tyrosine kinase (sFlt-1) in patients with preeclampsia (PE).
Methods
Ninety-six patients with PE were included from June 2009 to June 2014. The patients were divided into mild PE group (n=54) and severe PE group (n=42), while 40 healthy pregnant women were in the control group. The general situation and laboratory testing were recorded and the serum levels of sEng and sFlt-1 were detected. All patients were routinely followed up with the recording of delivery and neonatal situation.
Results
The sEng and sFlt-1 levels were highest in the severe PE group [(7345.02±772.73) and (866.08±203.24) ng/L], which was followed by mild PE [(5 547.08±564.06) and (603.99±138.37) ng/L] and control group [(1 840.93±300.71) and (252.68±83.03) ng/L] (P<0.01). Levels of sEng were significantly correlated with sFlt-1 in both mild and severe PE groups. There were significantly correlations between sEng and sFlt-1 in mild or severe PE group respectively. The level of sEng and sFlt-1 was considerably positively correlated with mean arterial pressure, 24-hour urinary protein, serum creatinine, fibrinogen, umbilical artery shrink/diastole and resistance index value, but negatively correlated with prothrombin time, birth weight and the placenta weight (P<0.05). PE patients with sEng of <5 000 ng/L and sFlt-1 levels of <700 ng/L had the risk of severe complications of 6.8% and 14.0%; while patients with sEng of ≥5 000 ng/L and sFlt-1 of ≥700 ng/L had the ratio fo 40.4% and 37.0% respectively (P<0.01).
Conclusion
Serum levels of sEng and sFlt-1 in PE patients indicate that the severity of disease and outcomes of pregnancy.
ObjectiveTo investigate the caring method for neonatal chylothorax.
MethodsWe retrospectively analyzed the clinical data of four hospitalized patients admitted from December 2011 to February 2013.
ResultsThe treatment course lasted from 7 to 43 days, averaging 25 days. Three patients were cured and discharged from the hospital; one patient with ineffective outcome by conservative treatment was turned into surgical operation.
ConclusionIn order to facilitate the recovery of the neonates suffering from neonatal chylothorax, it is important for us to ensure appropriate dietary management, total parental nutrition support, observation and care of closed drainage tube of thoracic cavity, accurate medication, safe intravenous fluids access and infection control.
