Your browser doesn't support javascript.
loading
Show: 20 | 50 | 100
Results 1 - 2 de 2
Filter
1.
Article in English | IMSEAR | ID: sea-138749

ABSTRACT

Background. Relevance of C-reactive protein an acute phase reactant and a sensitive marker of low-grade systemic inflammation in bronchial asthma has not been fully studied. Objective. To evaluate the significance of high-sensitivity C-reactive protein (hs-CRP) in atopic and non-atopic asthma using an ultra sensitive assay. Methods. The levels of hs-CRP of 200 patients with bronchial asthma and 50 non-asthmatic control subjects were measured using a Latex enhanced immunoturbidimetric test. Spirometry with reversibility study, serum immunoglobulin-E (IgE) measurement and skin test for allergy was done in all the patients. Results. There was a significant increase in hs-CRP levels with age in atopic asthmatics but no such association was observed in the non-atopic asthmatics and control subjects. The hs-CRP levels were not influenced by sex in any group. Smokers in all the three groups had a significantly higher hs-CRP levels as compared to non-smokers. Patients with asthma had higher hs-CRP values as compared to controls. Patients with non-allergic asthma had higher mean hs-CRP as compared to atopic asthmatics and control subjects. Conclusions. The study suggests that there exists a certain degree of low-grade systemic inflammation in addition to the local bronchial inflammation in non-atopic asthmatics. Hence, hs-CRP may be used as a surrogate marker for the airway inflammation in non-atopic asthma patients.


Subject(s)
Adult , Asthma/blood , Asthma/physiopathology , Biomarkers/blood , C-Reactive Protein/metabolism , Female , Follow-Up Studies , Forced Expiratory Volume , Humans , Male , Nephelometry and Turbidimetry , Prognosis , Retrospective Studies , Severity of Illness Index , Spirometry
2.
Ann Card Anaesth ; 1999 Jan; 2(1): 10-4
Article in English | IMSEAR | ID: sea-1654

ABSTRACT

In a randomized double blind study, 30 patients posted for CABG surgery were assigned to 3 groups of 10 each. Group A received 140 mg (1,000,000 KIU) of aprotinin after induction of anaesthesia but before sternotomy, an equal amount in the pump prime and a maintenance dose of 70 mg/hr throughout cardiopulmonary bypass (standard dose). Group B received placebo after induction of anaesthesia, 70 mg (500,000 KIU) aprotinin in the pump prime with a placebo as a maintenance dose (minimal dose). Group C received a placebo after induction of anaesthesia, in the prime and as a maintenance dose (control group). The mean chest closure times were insignificantly lower in the aprotinin groups; 35.83 +/- 13.93 mins in group A and 37.5 +/- 10 mins in group B as against 57.25 +/- 26.54 mins in group C. Post-operative haemoglobin loss was significantly lower (P<0.01) in aprotinin groups, 5.42 +/- 1.6 gm in group A and 6.28 +/- 2.49 gms in group B, as against 39.77 +/- 27.51 gm in group C. Whole blood transfusion requirement was also significantly reduced from 4.12 +/- 1.79 units in the control group to 2.5 +/- 0.75 units in group A (p < 0.05) and 2 +/- 1.3 units (p<0.01) in group B. We conclude that a minimal dose of aprotinin 70 mg (500,000 KIU) is effective in reducing postoperative blood loss, blood transfusion requirement and is economical.

SELECTION OF CITATIONS
SEARCH DETAIL