Illustrations of the antiseptic system of treatment in surgery. 1867.
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More than 90% of all intravascular device-related septicaemias are due to central venous or arterial catheters. To assess the efficacy of cutaneous antisepsis to prevent catheter-associated infection, we prospectively studied three antiseptics for disinfection of patients' central venous and arterial catheter insertion sites in a surgical intensive care unit. 668 catheters were randomised to 10% povidone-iodine, 70% alcohol, or 2% aqueous chlorhexidine disinfection of the site before insertion and for site care every other day thereafter. Chlorhexidine was associated with the lowest incidence of local catheter-related infection (2.3 per 100 catheters vs 7.1 and 9.3 for alcohol and povidone-iodine, respectively, p = 0.02) and catheter-related bacteraemia (0.5 vs 2.3 and 2.6). Of the 14 infusion-related bacteraemias (4 due to contaminated infusate or catheter hub, 10 due to infected catheters), 1 was in the chlorhexidine group and 13 were in the other two groups (odds ratio 0.16, p = 0.04). We conclude that use of 2% chlorhexidine, rather than 10% povidone-iodine or 70% alcohol, for cutaneous disinfection before insertion of an intravascular device and for post-insertion site care can substantially reduce the incidence of device-related infection.
Catheterization should not be used without true indication. Careful control of hydration, sedation, anesthesia and use of anticholinergic agents before, during and after operation can do a great deal to prevent the need for catheterization. When the procedure is necessary, simple, inexpensive measures of care usually are sufficient. Prophylactic antisepsis before and after, with reexamination of the urine after discontinuance of antiseptic drugs to make sure there is no recrudescence, prevents acute and chronic infections. The catheter recommended for routine male and female catheterization is the 14-16 (French) olive tip coude (Tieman) catheter or the Tieman-Foley. Closed drainage systems are the best. Continuous irrigation is without value. Water is an excellent irrigant. Calcium deposits are prevented by Renacidin(R) instillation and acetic acid irrigation.
Bacteremia that occurs after dental extraction is common. This study assessed the effect of topical antisepsis on the incidence and magnitude of post-extraction bacteremia. On hundred patients scheduled for elective tooth extraction were randomized among four groups: contr-l, mouthrinsing with sodium-p-toluene sulfonchloramide (chloramine-T), toothbrushing with chloramine-T, and irrigation with Lugol's solution. The results showed that 84% of the control group and 59% of the treatment groups had positive blood cultures (290 organisms isolated) after dental extraction. The duration and magnitude of these bacteremias were diminutive as documented by the six serial blood cultures taken for each patient, colony counts per milliliter of blood, and nitroblue tetrazolium and Limulus assays. Brushing the teeth or rinsing the mouth with chloramine-T before dental extraction significantly reduced the incidence of bacteremia (P less than .025) and the number of different organisms recovered from each patient (P less than .05). Thus, topical treatment with chloramine-T is a simple and effective means of reducing the incidence of postextraction bacteremia.
Pseudomonas cepacia or Enterobacter species or both were isolated from blood cultures of 79 patients in a community hospital between April 1971 and March 1972. No common exposures other than venipuncture correlated with positive blood cultures. Pseudomonas cepacia, Enterobacter, and other Gram-negative enteric bacteria were cultured from aqueous benzalkonium chloride used for skin antisepsis prior to ordinary and blood culture venipuncture. Contamination of blood cultures by organisms from the antiseptic most likely accounted for positive cultures in 35 to 38 patients (92%) with P cepacia. The remaining three patients had repeated blood cultures positive for P cepacia and circumstantial clinical evidence of bacteremia; they may have contracted disease through exposure to the contaminated antiseptic. Substitution of an iodine-alcohol antiseptic abruptly reduced the isolation of P cepacia and Enterobacter.
The work of Pasteur on alcoholic and lactic acid fermentation demonstrated that minute organisms (germs) caused these fermentative changes. Lister applied these basic findings in the introduction of his antiseptic system. Its principles were based on the destruction of germs by antiseptics (carbolic acid) to prevent their entering the wound or spreading after surgery. Lister's work on antisepsis was therefore based on the germ theory of disease. The believers of the germ theory defended Lister's theories whereas the nonbelievers of the germ theory created an atmosphere of resistance to Listerism. The work of Koch in 1878 on the etiology of traumatic infective diseases contributed greatly to the acceptance of Lister's antiseptic principles. By the mid 1880s there was a rapid increase in the use of antiseptic technics, soon followed by the introduction of aseptic methods and rapid progress in surgery.
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EXECUTIVE SUMMARY The "Guideline for Prevention of Surgical Site Infection, 1999" presents the Centers for Disease Control and Prevention (CDC)'s recommendations for the prevention of surgical site infections (SSIs), formerly called surgical wound infections. This two-part guideline updates and replaces previous guidelines.1,2 Part I, "Surgical Site Infection: An Overview," describes the epidemiology, definitions, microbiology, pathogenesis, and surveillance of SSIs. Included is a detailed discussion of the pre-, intra-, and postoperative issues relevant to SSI genesis. Part II, "Recommendations for Prevention of Surgical Site Infection," represents the consensus of the Hospital Infection Control Practices Advisory Committee (HICPAC) regarding strategies for the prevention of SSIs.3 Whenever possible, the recommendations in Part II are based on data from well-designed scientific studies. However, there are a limited number of studies that clearly validate risk factors and prevention measures for SSI. By necessity, available studies have often been conducted in narrowly defined patient populations or for specific kinds of operations, making generalization of their findings to all specialties and types of operations potentially problematic. This is especially true regarding the implementation of SSI prevention measures. Finally, some of the infection control practices routinely used by surgical teams cannot be rigorously studied for ethical or logistical reasons (e.g., wearing vs not wearing gloves). Thus, some of the recommendations in Part II are based on a strong theoretical rationale and suggestive evidence in the absence of confirmatory scientific knowledge.It has been estimated that approximately 75% of all operations in the United States will be performed in "ambulatory," "same-day," or "outpatient" operating rooms by the turn of the century.4 In recommending various SSI prevention methods, this document makes no distinction between surgical care delivered in such settings and that provided in conventional inpatient operating rooms. This document is primarily intended for use by surgeons, operating room nurses, postoperative inpatient and clinic nurses, infection control professionals, anesthesiologists, healthcare epidemiologists, and other personnel directly responsible for the prevention of nosocomial infections. This document does not: Specifically address issues unique to burns, trauma, transplant procedures, or transmission of bloodborne pathogens from healthcare worker to patient, nor does it specifically address details of SSI prevention in pediatric surgical practice. It has been recently shown in a multicenter study of pediatric surgical patients that characteristics related to the operations are more important than those related to the physiologic status of the patients.5 In general, all SSI prevention measures effective in adult surgical care are indicated in pediatric surgical care. Specifically address procedures performed outside of the operating room (e.g., endoscopic procedures), nor does it provide guidance for infection prevention for invasive procedures such as cardiac catheterization or interventional radiology. Nonetheless, it is likely that many SSI prevention strategies also could be applied or adapted to reduce infectious complications associated with these procedures. Specifically recommend SSI prevention methods unique to minimally invasive operations (i.e., laparoscopic surgery). Available SSI surveillance data indicate that laparoscopic operations generally have a lower or comparable SSI risk when contrasted to open operations.6-11 SSI prevention measures applicable in open operations (e.g., open cholecystectomy) are indicated for their laparoscopic counterparts (e.g., laparoscopic cholecystectomy). Recommend specific antiseptic agents for patient preoperative skin preparations or for healthcare worker hand/forearm antisepsis. Hospitals should choose from products recommended for these activitie
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The activity of chlorquinaldol, a derivative of hydroxy-8-quinolein used for local antisepsy, was studied against Neisseria gonorrhoeae and Chlamydia trachomatis. The weak solubility of the product and the special growth conditions of the organisms made an adaptation of the AFNOR norm necessary. For 0.1 to 0.2% (W/V) chlorquinaldol concentrations, a reduction of about 10(4) organisms was obtained after 60 minutes for N. gonorrhoeae and C. trachomatis. However, for technical problems, the concentrations tested were 10 to 100 times lower than the doses usually recommended for this antiseptic.
In 2002, the Centers for Disease Control and Prevention (CDC) published guidelines for surgical handwashing and hand antisepsis on the Internet. According to these guidelines, we revised our surgical handwashing method from scrubbing with brushes to rubbing with antiseptic. The new method consists of scrubbing around the nails with brushes and rubbing the hands and arms with antiseptic from the elbow to the antebrachium. A total of 182 surgeons and operating-room nurses participated in the current study. Bacterial contamination was investigated using the glove-juice method. The new surgical handwashing method is simple, and requires only a short time to perform (2 minutes 50 seconds). The bacterial examination confirmed that rubbing the hands with antiseptic was significantly more effective than scrubbing with brushes. In terms of sterilization or prolonged effects, 4% chlor-hexidine gluconate (CHG) was superior to 7.5% povidone-iodine (PVI) throughout a 3-hour period after hand antisepsis. Although bacterial counts were increased 3 hours after the beginning of surgery, additional hand rubbing with 0.2% chlorhexidine-83% ethanol (Hibisoft(TM)) was effective in suppressing the number of bacteria. Hibisoft(TM) successfully prolonged sterilization for more than 3 hours. For long surgical procedures, CHG should be used as an antiseptic and gloves should be changed every 3 hours, alcohol-based hand rubbing should also be performed 3 hours after the initial handwashing. This new technique will be included in the OSCE curriculum to ensure its standardization. Moreover, in-depth education regarding central operating-room practices is desired.