Use of tigecycline in critically ill patients with serious nosocomial intra-abdominal infections.

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替加环素药物利用评估标准的建立及应用

替加环素药物利用评估标准的建立及应用

替加环素药物利用评估标准的建立及应用王媛媛;鲁超;赵大海;雷婷【期刊名称】《中国药房》【年(卷),期】2018(029)002【摘要】OBJECTIVE:To provide reference for rational use of tigecycline.METHODS:Based on tigecycline instructions,referring to related specifications and literatures,through pharmacy and clinical expert discussion,DUE criteria for tigecycline was established from medication indications,medication process,medication results and administrative supervision.In retrospective study,DUE criteria was used to evaluate medical records of inpatients in our hospital during Jan.2015-Dec.2016.RESULTS:A total of 71 medical records of inpatients receiving tigecycline were included.The use of tigecycline in our hospital was basically up to DUE criteria.But there still was unreasonable phenomenon,such as microbial inspection rate was 81.7% (aiming at 90%);the rate of medication course meeting the criteria was 76.1% (aiming at 90%);the proportion of patients with consultation records was 81.7%(aiming at 100%);the rate of prescribing authority meeting the criteria was 85.9% (aiming at 100%).CONCLUSIONS:The established DUE criteria for tigecycline shows strong operability and practicability,and provide reference for the work development of doctors and clinical pharmacists.%目的:为临床合理应用替加环素提供参考.方法:以替加环素药品说明书为基础,参考相关规范和文献,并通过与临床专家讨论协商,从用药指征、用药过程、用药结果和行政监管4个方面建立替加环素药物利用评估(DUE)标准;同时,采用回顾性调查方法,对我院2015年1月-2016年12月使用替加环素的住院患者病历应用该DUE标准进行评估.结果:共纳入使用替加环素的住院患者病历71份.经评估我院替加环素使用总体基本符合该DUE标准的要求,但尚存在一些不合理情况,包括微生物送检率为81.7%(目标值为90%),给药疗程符合标准率为76.1%(目标值为90%),病历中有会诊记录的患者比例为81.7%(目标值为100%),处方权限符合标准率为85.9%(目标值为100%).结论:所建立的替加环素DUE标准有较强的可操作性和实用性,可为医师和临床药师开展相关工作提供参考.【总页数】5页(P187-191)【作者】王媛媛;鲁超;赵大海;雷婷【作者单位】安徽医科大学第二附属医院药剂科,合肥230601;安徽医科大学第二附属医院药剂科,合肥230601;安徽医科大学第二附属医院呼吸内科,合肥230601;安徽医科大学第二附属医院药剂科,合肥230601【正文语种】中文【中图分类】R95;R969.3【相关文献】1.某院替加环素药物利用评价标准的建立与应用分析 [J], 王桂凤;李雪芹;刘锐锋;李运景;黎一山;何慧清2.替加环素超说明书药物利用评价标准的建立与应用 [J], 杨雪婷;郑鹏程;曹玮3.泮托拉唑药物利用评价标准的建立与应用 [J], 王鹏;崔健毓;林勇;彭勤;袁浩宇4.万古霉素、美罗培南及替加环素在重症医学科药物利用评价标准的建立与应用分析 [J], 于馨;梁爽;纪俐娜;李飞;冷萍5.万古霉素、美罗培南及替加环素在重症医学科药物利用评价标准的建立与应用分析 [J], 于馨;梁爽;纪俐娜;李飞;冷萍因版权原因,仅展示原文概要,查看原文内容请购买。

肝移植受者围手术期应用替加环素预防感染的效果及低纤维蛋白原血症发生情况

肝移植受者围手术期应用替加环素预防感染的效果及低纤维蛋白原血症发生情况

第14卷 第2期2023年3月Vol. 14 No.2Mar. 2023器官移植Organ Transplantation ·论著·肝移植受者围手术期应用替加环素预防感染的效果及低纤维蛋白原血症发生情况徐静 赵圆圆 陈知水 杨博 陈栋 魏来【摘要】 目的 探讨肝移植受者围手术期使用替加环素预防感染的效果及低纤维蛋白原血症发生情况。

方法 回顾性分析40例使用替加环素进行预防感染的肝移植受者的临床资料,分析受者感染事件和供者来源感染事件发生情况;分析替加环素治疗时、结束时及治疗结束后(7±2)d 受者临床指标变化情况;总结低纤维蛋白原血症的发生及治疗情况。

结果 40例肝移植受者中,2例受者发生感染,分别为黑曲霉和巨细胞病毒感染,均不属于替加环素抗菌谱所覆盖的范围,调整抗感染方案后感染情况控制良好。

9例供肝相关培养阳性,但均未发展为供者来源性感染事件。

40例受者均于术后2周左右肝功能恢复良好出院,其中6例于术后2~4 d 出现低纤维蛋白原血症伴凝血功能障碍,而转氨酶、胆红素、感染相关指标术后逐步下降,白蛋白水平稳定,予以补充人纤维蛋白原及凝血酶原复合物,凝血功能好转,但纤维蛋白原水平持续下降。

停用替加环素后,纤维蛋白原水平逐渐恢复至正常,考虑可能为替加环素相关药物不良反应。

结论 肝移植受者围手术期使用包含替加环素在内的预防感染方案可以降低敏感细菌导致的感染发生率,但药物使用期间需密切关注低纤维蛋白原血症的发生。

【关键词】 肝移植;感染;替加环素;低纤维蛋白原血症;药物不良反应;多重耐药菌;供者来源性感染;凝血功能障碍【中图分类号】 R617,R978.1 【文献标志码】A 【文章编号】1674-7445(2023)02-0010-07【Abstract 】 Objective To evaluate the efficacy of perioperative use of tigecycline in preventing infection and the incidence of hypofibrinogenemia in liver transplant recipients. Methods Clinical data of 40 liver transplant recipients given with tigecycline to prevent infection were retrospectively analyzed. The incidence of infection in recipients and donor-derived infection were analyzed. The changes of clinical indexes in recipients during, upon the completion and (7±2) d after tigecycline treatment were analyzed, respectively. The incidence and treatment of hypofibrinogenemia were summarized. Results Among 40 liver transplant recipients, 2 cases were infected by aspergillus niger and cytomegalovirus, out of the antibacterial spectrum of tigecycline. After adjusting the anti-infection regimen, the infection was properly controlled. Liver allografts were positive for relevant culture in 9 cases, whereas none of them progressedEfficacy of perioperative use of tigecycline in preventing infection and incidence of hypofibrinogenemia in liver transplant recipients Xu Jing, Zhao Yuanyuan, Chen Zhishui, Yang Bo, Chen Dong, Wei Lai. Institute of Organ Transplantation, Tongji Hospital, Tongji Medical College, Huazhong University of Science and Technology, Key Laboratory of Organ Transplantation of Ministry of Education, Key Laboratory of Organ Transplantation of National Health Commission of China, Key Laboratory of Organ Transplantation of Chinese Academy of Medical Sciences, Wuhan 430030, ChinaCorrespondingauthor:WeiLai,Email:***************DOI: 10.3969/j.issn.1674-7445.2023.02.010基金项目:湖北省重点研发计划项目(2022BCA015)作者单位:430030 武汉,华中科技大学同济医学院附属同济医院器官移植研究所 器官移植教育部重点实验室 国家卫生健康委员会器官移植重点实验室 中国医学科学院器官移植重点实验室作者简介:徐静,硕士研究生,研究方向为器官移植,Email:**********************通信作者:魏来,博士,主任医师,研究方向为肝移植Email :***************·242·第14卷器官移植随着手术技术和免疫抑制药的进步,实体器官移植成为治疗终末期器官衰竭的重要策略,而细菌感染仍然是实体器官移植受者术后死亡的最主要原因[1]。

重症感染

重症感染

D-二聚体 > 2000 ug/L
持续高水平的血管紧张素Ⅱ
Nat Commun,2014,5:3595.
感染严重程度思维图
重症感染
critically ill patient

关键参数ns in critically ill patients
2016 年 CHINET 耐药监测主要菌种分布
因素
COPD 充血性心力 衰竭
n
166 35
重症
34 10
OR
1.909 2.652
95%CI
(1.194, 3.053) (1.190, 5.911)
P值
0.007 0.017
糖尿病
老年痴呆
107
13
25
5
2.441
4.230
(1.434, 4.154)
(1.242, 14.400)
0.001
0.021
• 舒巴坦及舒巴坦合剂对鲍曼不动杆菌属具良好的抗菌活性,目前 国内多使用头孢哌酮/舒巴坦 • 2010年CHINET细菌耐药显示,目前国内临床使用抗菌药中,头 孢哌酮/舒巴坦的耐药率最低 • 对鲍曼不动杆菌敏感株的抗菌活性强 • 但近年来鲍曼不动杆菌对碳青霉烯类的耐药性上升迅速,全球范 围内(包括中国)的耐药率在50%以上 • 这类药物多与其他抗菌药联合治疗敏感鲍曼不动杆菌感染 • 目前我国鲍曼不动杆菌对阿米卡星的耐药率超过50% • 临床应用的多为多粘菌素E,鲍曼不动杆菌对其耐药率低,但异质 性耐药极易发生 • 近期发现其耐药菌株明显增加、常需与其他抗菌药物联合用
多粘菌素+碳青霉烯类 要点:联合、较大剂量、疗程不小于 2 周、注重临床疗效而非细菌学清除
Chinese XDR Consensus Working Group. Clin Microbiol Infect 2015

青霉素的使用和发现英语作文

青霉素的使用和发现英语作文

青霉素的使用和发现英语作文Penicillin, a powerful antibiotic, has revolutionized the field of medicine since its discovery in the early 20th century. This remarkable drug has saved millions of lives by effectively treating various bacterial infections that were once considered fatal. The journey of penicillin from its accidental discovery to its widespread use is an extraordinary tale that highlights the importance of scientific curiosity and perseverance.The story begins in 1928, when Alexander Fleming, a British bacteriologist, was working on a culture of Staphylococcus aureus, a common bacteria that can cause severe infections. Fleming noticed that a mold growing nearby had produced a substance that inhibited the growth of the bacteria. Intrigued by this observation, he conducted further experiments to isolate and study the mold and its antibacterial properties.The mold was identified as Penicillium notatum, and the substance it produced was named penicillin. Flemingrealized that this substance had the potential to revolutionize the treatment of bacterial infections.However, the road to its clinical use was fraught with challenges. Penicillin was difficult to isolate in pure form, and it was unstable and easily destroyed by heat and acids.Despite these obstacles, Fleming's work caught the attention of other scientists, and a collaboration between the University of Oxford and the pharmaceutical company Boots led to the development of a purer and more stable form of penicillin. In 1942, during the height of World War II, penicillin was first used to treat a patient with a severe infection, and its effectiveness was remarkable. The drug quickly became a staple in hospitals and clinics worldwide, saving countless lives.The discovery and use of penicillin marked asignificant milestone in the history of medicine. It marked the beginning of the antibiotic era, which has transformed the way we treat infectious diseases. Penicillin and other antibiotics have saved millions of lives by eradicating once-fatal infections. However, the widespread use of antibiotics has also led to the emergence of resistantbacteria, a global health challenge that requires urgent attention.The story of penicillin reminds us of the importance of scientific curiosity and perseverance in推动科学进步. Fleming's accidental discovery led to a revolution in medicine, and the collaborative efforts of scientists and pharmaceutical companies resulted in the development of a drug that has saved millions of lives. The challenges faced in the process also highlight the need for continuous research and innovation to address new health challenges. As we look forward, it is crucial that we continue to invest in scientific research and innovation to address the ever-evolving health challenges of our time. The discovery and use of penicillin have taught us that the power of science can transform lives, and it is up to us to harness this power to create a healthier and safer world.**青霉素的发现与使用:医学的革命**自20世纪初被发现以来,青霉素这一强大的抗生素彻底改变了医学领域。

短链氯化石蜡禁用文件

短链氯化石蜡禁用文件

短链氯化石蜡禁用文件英文回答:Short-chain chlorinated paraffins (SCCPs) are a groupof chemicals that have been widely used in variousindustrial applications due to their flame retardant properties. However, their use has been restricted or banned in many countries due to their potential adverse effects on human health and the environment.The main reason for the prohibition of SCCPs is their persistence and bioaccumulative nature. SCCPs have a long half-life in the environment and can accumulate in living organisms, including humans, through various pathways such as inhalation, ingestion, and dermal contact. Once inside the body, SCCPs can interfere with the normal functioningof organs and systems, leading to a range of health issues.For example, studies have shown that SCCPs can havetoxic effects on the liver, kidney, and reproductive system.They have been associated with liver and kidney damage, reduced fertility, and developmental abnormalities in animals. In humans, exposure to SCCPs has been linked to liver and thyroid diseases, as well as adverse effects on the immune system.Furthermore, SCCPs are also known to be persistent organic pollutants (POPs) that can travel long distances through air and water currents. This means that even countries that have banned the use of SCCPs may still be exposed to these chemicals through imported products or environmental contamination.To illustrate this, let's consider the case of a country that has banned the use of SCCPs in consumer products. Despite the ban, the country may still import SCCP-containing products from other countries where their use is not prohibited. These products can then release SCCPs into the environment during their use, leading to local contamination and potential exposure to the population.In addition to the health risks, SCCPs also pose environmental concerns. They are toxic to aquatic organisms and can accumulate in sediments, posing a threat to the aquatic ecosystem. SCCPs have been found in various environmental compartments, including water, soil, and air, indicating their widespread presence and potential forlong-term environmental impact.Given the potential adverse effects of SCCPs on human health and the environment, it is crucial to restrict or ban their use. Many countries have already taken steps to regulate SCCPs and phase out their use in various applications. This includes the development of alternative flame retardants that are less harmful but still effective in preventing fires.In conclusion, the prohibition of short-chain chlorinated paraffins is necessary to protect human health and the environment. The persistence, bioaccumulative nature, and potential toxic effects of SCCPs make them a significant concern. By implementing restrictions and finding safer alternatives, we can minimize the risksassociated with SCCPs and create a safer and healthier environment for all.中文回答:短链氯化石蜡(SCCPs)是一类具有阻燃性能的化学物质,在各种工业应用中广泛使用。

40例使用替加环素的临床用药分析

40例使用替加环素的临床用药分析

40例使用替加环素的临床用药分析叶伟红;应小飞;傅军霞;郭晶晶;徐艳艳;田伟强【期刊名称】《医药导报》【年(卷),期】2017(36)1【摘要】Objective To evaluate clinical use of tigecycline in hospital patients. Methods Basic diseases, pathologic examinations, concurrent medication, therapeutic efficacy and side effects of 40 patients in Lishui Central Hospital of Zhejiang Province from January 2012 to December 2014 were analyzed retrospectively. Results The effective rate of patients using tigecycline for anti-infection treatment in hospital was 42. 5%. The rates of rational use, basically rational use and irrational use were 17. 5%, 77. 5% and 5. 0%, respectively. Adverse drug reactions occurred in 6 cases of tigecycline use (15. 0%). Conclusion Clinical use of tigecycline in inpatients was basically reasonable in this hospital. The clinical curative effect of tigecycline was good in a variety of infections caused by sensitive bacteria. However, the incidence of adverse drug reactions was high. Attentions should be paid in clinical application.%目的评价使用替加环素的住院患者临床用药情况.方法采用回顾性研究方法,收集浙江省丽水市中心医院2012年1月-2014年12月使用替加环素住院患者的临床资料(基础疾病、细菌学培养结果、联合用药、疗效、不良反应发生情况等),共40例,并对其应用进行合理性评价.结果该院近3年使用替加环素患者的抗感染治疗有效率为42.5%,合理使用率17.5%,基本合理使用率77.5%,不合理使用率5.0%,出现不良反应6例(15.0%).结论该院住院患者替加环素的使用基本合理;替加环素对各类敏感菌引起的感染临床疗效较好,但不良反应发生率较高,临床应用过程中应引起关注.【总页数】4页(P80-83)【作者】叶伟红;应小飞;傅军霞;郭晶晶;徐艳艳;田伟强【作者单位】浙江省丽水市中心医院药学部,丽水 323000;浙江省丽水市中心医院药学部,丽水 323000;浙江省丽水市中心医院药学部,丽水 323000;浙江省丽水市中心医院药学部,丽水 323000;浙江省丽水市中心医院药学部,丽水 323000;浙江省丽水市中心医院药学部,丽水 323000【正文语种】中文【中图分类】R978;R969.3【相关文献】1.我院2013-2014年720例使用万古霉素患者临床用药分析 [J], 陶娌娜;曲晓宇;张四喜;李雪松2.使用六味地黄汤加减治疗男性骨质疏松症40例临床观察 [J], 杨健3.64例替加环素使用病历临床合理用药评价分析 [J], 吴娜梅;林志航;吴水发;黄晓威;洪珊珊4.临床药师对1例400g超早产儿抗感染治疗的用药分析 [J], 吴小燕;文晓柯;冯彬彬5.使用含替加环素方案挽救性治疗52例脓肿分枝杆菌和龟分枝杆菌感染的临床经验 [J], 刘一典;沙巍因版权原因,仅展示原文概要,查看原文内容请购买。

兴奋剂应该要被禁止吗英语作文

兴奋剂应该要被禁止吗英语作文

兴奋剂应该要被禁止吗英语作文The use of stimulants is illegal, and the law stipulates that the use of stimulants must be punished. Scientific research has proved that the use of stimulants will cause many direct harm to people's physical and mental health.The harm of doping mainly comes from hormones and stimulants. What is particularly worrying is that many harmful effects only show up after a few years, and even doctors can't tell which athletes are in danger and which won't go wrong for the time being.It is a kind of cheating for athletes to use stimulants. Because the use of illegal drugs and methods will give users an advantage in the competition. This illegal behavior is not in line with the sports ethics of honest and fair competition. Modern sports emphasize the principle of fair competition. Fair competition means "clean competition", proper methods and aboveboard behavior. The use of stimulants is not only against sports laws and regulations, but also against basic sports ethics. Doping makes sports unfair, and athletes are no longer at the same starting point of equality.。

不动杆菌耐药机制及其基因检测进展

不动杆菌耐药机制及其基因检测进展

to
in—
[9]Bone
and
RC,Balk BA,cara FB,et a1.Definitions for sepsis failure and guidelines for the
use
diseraes[J].Trends
Immunol,2002,23(9):450一
organ
of innoVatiVe
therapies in
sepsis[J].chest,】992,101(3):1644—665. learned[J].Shock,1998,9(6):1—11.
(收稿臼期:2009一05—12)
口] 邸]
姚榛祥.重症胰腺炎现代治疗的认识口].中华肝胆外科
杂志,1999,5(2):76—78.
[10]Deitch
干扰。
对p内酰胺类抗菌药物的耐药机制不动杆菌对p_内酰
胺类抗菌药物的耐药机制包括:产p-内酰胺酶、青霉素结合蛋 白的改变以及外膜蛋白通透性降低。其中产生p内酰胺酶是 最主要的耐药机制。H ejnar等[3]检测结果表明,有49.4%的 菌株产染色体介导的Ampc酶。Magnet等[4]认为高产染色 体介导的Ampc酶是细菌对P内酰胺类抗菌药物耐药的主要 因素。不动杆菌产TEM一1、TEM一2、0XA-21、0xA一37型内酰 胺酶,对氨苄西林、羧基青霉紊、脲基青霉素耐药。不动杆菌主 要产生诱导性AmpC型,AmpD基因进行性突变或因抗菌药 物选择压力造成的突变均导致AmpC的过度表达,同时外膜
manniiJ[J].Antimicro
1201-1203.
Agents
Chemother,1995,39(5):
PCR扩增
扩增目标DNA使用琼脂糖电泳、探针杂交
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5668Rev Esp Quimioter 2013;26(1):56-63Uso de tigeciclina en pacientes críticos con infección intraabdominal nosocomial graveRESUMENLa infección intraabdominal (IIA) es una patología habitual en la unidad de cuidados intensivos quirúrgica (UCIQ) y se asocia a una considerable mortalidad. Tigeciclina es el primer antibiótico de la familia de las glicilciclinas que presenta un amplio espectro de actividad frente a las bacterias habituales responsables de la IIA. Este estudio observacional retrospectivo tiene como objetivo describir la experiencia con tigeciclina en los pacientes con IIA nosocomial grave ingresados en la UCIQ. Los datos fueron recogidos en 23 pacientes consecutivos admitidos en la UCIQ con IIA nosocomial grave que habían recibido tratamiento antibiótico empírico con tigeciclina. En todos los casos, la IIA fue diagnosticada mediante cirugía urgente. En el 56,5% de los pacientes se encontró sepsis grave y el 43,5% presentaron shock séptico. La enfermedad concomitante más fre-cuente fue la enfermedad oncológica (60%). El SAPS III (Simplified Acute Physiology Score ) a las 24 h del diagnóstico de la IIA fue 57,5 ± 14,7 y un 87% de los pacientes presentaron un McCabe > 1 (2 o 3). El patógeno más frecuente fue Escherichia coli (43,5%), seguido de Bacteroides spp y Streptococcus spp (30,4%, respectivamente). Todos los pacientes excepto uno de ellos, recibieron tigeciclina en combinación con otros antimicrobianos (95,7%), con más frecuen-cia fluconazol (52,2%), seguido de piperacilina-tazobactam (43,5%). El tratamiento antibiótico empírico fue considerado adecuado en el 95% de los pacientes. La duración media del tratamiento antibiótico fue 8,5 ± 4,5 días. Se consiguió una respuesta favorable en el 78% de los pacientes. No se observó fracaso del tratamiento antibiótico en ningún paciente. Tampoco en ningún caso hubo que suspender el tratamiento con tigeciclina debido a la presencia de reacciones adversas. La mortalidad en la UCIQ fue del 13%, y ninguna muerte fue atribuible a tigeciclina. E stos hallazgos sugieren que la uti-lización de tigeciclina en combinación con otros antimicrobianos es un tratamiento eficaz y bien tolerado en los pacientes con IIA noso-comial grave ingresados en la UCIQ.Palabras clave: infección intraabdominal, pacientes críticos, UCIQ, tratamiento empírico, tigeciclina.ABSTRACTIntra-abdominal infection (IAI) is a frequent complica-tion found in surgical intensive care unit (SICU) and continues to be associated with considerable mortality. Tigecycline, the first-in-class glycylcycline has demonstrated a broad spec-trum of activity against a wide range of bacteria commonly found in IAI. This observational retrospective study aimed to describe the experience with tigecycline for serious nosocomial IAI in the SICU. Data were collected from 23 consecutive pa-tients admitted to SICU with serious nococomial IAI who had received empirical treatment with tigecycline. In all cases, IAI was diagnosed via emergency surgery. Severe sepsis was found in 56.5% and 43.5% developed septic shock. Oncological dis-ease was the most common comorbidity (60%). The mean Sim-plified Acute Physiology Score (SAPS) III within 24 hours from IAI diagnosis was 57.5±14.7, and 87% showed a McCabe score >1 (2 or 3). Escherichia coli was the most common pathogen (43.5%), followed by Bacteroides spp. and Streptococcus spp. (30.4%, respectively). All but one patient received tigecycline in combination (95.7%), particularly with fluconazole (52.2%), followed by piperacillin-tazobactam (43.5%). E mpirical an-tibiotic therapy was considered adequate in 95%. The mean duration of treatment was 8.5±4.5 days. A favorable response was achieved in 78%. Failure of the antibiotic therapy was not observed in any patient. None of the patients discontinued ti-gecycline due to adverse reactions. SICU mortality was 13%, with no deaths attributable to tigecycline. These findings sug-gest that tigecycline combination therapy is an effective and well tolerated empirical treatment of serious nosocomial IAI in the SICU.Keywords: intra-abdominal infections, critical patients, SICU, empirical treatment, tygeciclineUse of tigecycline in critically ill patients with serious nosocomial intra-abdominal infectionsServicio de Anestesia y Reanimación, Hospital Universitario La Paz, Madrid, SpainEmilio MasedaSantiago Ernesto Denis Ana Riquelme Fernando GilsanzCorrespondence:Dr. Emilio MasedaServicio de Anestesiología y ReanimaciónHospital Universitario La Paz, Pº de la Castellana, 261 28046. MadridTel: +34 629018689 - Fax: +34 914561105E-mail: emilio.maseda@OriginalUse of tigecycline in critically ill patients with serious nosocomial intra-abdominal infectionsE. Maseda, et al.6957Rev Esp Quimioter 2013;26(1):56-63The present study describes the experience with tigecy-cline in patients with serious nosocomial IAIs in the surgical ICU (SICU) of a University hospital and their clinical outcome in routine clinical practice.PATIENTS AND METHODSStudy population and design. All consecutive patients admitted for serious nosocomial IAI to the SICU of a University hospital were retrospectively analyzed. The study population included patients of both sexes and 18 years or older who had received at least one dose of tigecycline for treatment of IAI.This was a non-interventional retrospective registry lim-ited to collecting the information recorded in the data base of patients with IAI, which reflects the experience with tigecy-cline in the SICU in routine clinical practice. The data collected for each patient included: demographic data (age, gender), an-thropometric data (weight, height, BMI), co-morbidity, data on IAI, microbiological data, treatment related data (tigecycline therapy, previous and concomitant antibiotic treatment, ad-equacy of antibiotic treatment in the first hours of infection), and data on patient outcome (clinical efficacy, death).Assessment of severity of underlying disease at 24 hours from diagnosis of infection was performed using the follow-ing severity scores: Simplified Acute Physiology Score III (SAPS III)21, Sequential Organ Failure Assessment (SOFA)22, McCabe score 23 and serum lactate levels.Identification of microorganisms was performed according to the standard microbiological procedures of our institution.Definitionsa) Treatment adequacy.Empirical antibiotic treatment in the first 6 hours in the SICU was considered adequate or inadequate in terms of cov-erage of the antimicrobial agents used against the microor-ganisms isolated, and based on the clinical improvement of the patient.b) Clinical outcome of patients.The clinical outcome of patients was analyzed by assess-ing whether they showed a favorable clinical response, suf-fered a treatment failure, experienced a new suture failure, or if they died.Clinical response was determined based on the investiga-tor’s judgment as a favorable clinical response or treatment failure according to usual clinical practice criteria. A favorable clinical response was considered when the clinical outcome of the patient was assessed as cure or improvement based on resolution or improvement of signs and symptoms; so that the patient did not require new antibiotic treatment, or there were no serious adverse effects requiring discontinuation of tigecy-cline-based therapy. Treatment failure was defined as persis-tence or worsening of clinical signs and symptoms of IAI or ap-pearance of new signs or symptoms associated with infection, requirement of additional antibiotic treatment, or replacement of tigecycline for an alternative antibiotic treatment.INTRODUCTIONIntra-abdominal infection (IAI) is one to the most fre-quent complications treated in the surgical area. At present, a high proportion of patients with IAI require admission to an intensive care unit (ICU) and mortality continues to be above 20%1. Increased bacterial resistance 2, inadequate empirical treatment 3, and poor control of the infectious focus 4, may be, among others, the factors responsible for failure of its man-agement.In recent years we have witnessed a significant increase in the incidence of multiresistant microorganisms both in the community and hospital setting 5, particularly in ICUs 6,7. This scenario has created an urgent need to develop new antibi-otics with a broad antimicrobial spectrum that overcome the usual mechanisms of resistance. Moreover, given the polymi-crobial aerobic and anaerobic etiology of IAIs, optimizing the spectrum of antibiotic therapy is crucial to the approach to their treatment.Tigecycline is the first agent in a new class of antibiotics belonging to the glycylcycline group, structurally similar to the tetracyclines whose structure confers a broader antimicrobial spectrum and a decreased susceptibility to the development of resistance than tetracycline antibiotics. Thus, this antimicro-bial agent is not affected by the main mechanisms of bacte-rial resistance of the tetracyclines, based on the activity of ef-flux pumps that reduce that the intracellular concentration of the antibiotic and ribosomal protection 8. The broad spectrum of action of tigecycline covers gram-positive, gram-negative, anaerobic and atypical pathogens, including microorganisms resistant to multiple antimicrobial agents 9,10. In this regard, ti-gecycline has been reported to have microbiological efficacy against a large number of multiresistant gram-positive patho-gens, including methicillin-resistant Staphylococcus aureus (MRSA), penicillin-resistant Streptococcus pneumoniae (PRSP) and vancomycin-resistant Enterococcus spp.11. In addition, it has been reported to possess a broad spectrum of action against multiresistant gram-negative bacteria such as extend-ed-spectrum beta-lactamase (SBL)-producing Escherichia coli and Klebsiella pneumoniae or carbapenamase-producing Acinetobacter spp.12,13. However, resistance to tigecycline has been shown in Pseudomonas aeruginosa and decreased sensi-tivity in Proteus spp.14.The broad spectrum of action against multidrug resistant bacteria, its wide tissue distribution 15, and the lack of adjust-ments for hepatic or renal impairment, make tigecycline an especially useful antibiotic agent for early treatment of IAIs in the ICU setting 13,16,17. However, available experience on the use of tigecycline in critical patients is scarce and the studies con-ducted have evaluated its use in different hospital settings and in different infections and microorganisms against which it is applied 16,18-20. There are limited observational studies available describing the use of tigecycline in the ICU, and furthermore they consist of heterogeneous reports in terms of the indica-tion for treatment with tigecycline 16,20.Use of tigecycline in critically ill patients with serious nosocomial intra-abdominal infectionsE. Maseda, et al.5870Rev Esp Quimioter 2013;26(1):56-63Statistical analysis of the data was performed using the Statistical Package for the Social Sciences (SPSS) version 17.0 statistical software (SPSS, Chicago, IL, USA).RESULTSClinical and demographic characteristics of patients. A total of 23 patients with serious nosocomial IAI who hadStatistical analysis. To describe the clinical outcome of pa-tients admitted for severe IAI and treated with tigecycline, a de-scriptive analysis was carried out on all qualitative and quantitative variables. Qualitative variables were analyzed using absolute and relative frequencies and quantitative variables using the main mea-sures of central tendency and dispersion (mean, median, standard deviation 5, minimum, maximum, first quartile and third quartile). The results were expressed as mean ± SD and median (range).Table 1 D emographic and clinical characteristics of patients and IAI-related data at SICU admissionASA: American Society Anesthesiology; BMI: Body Mass Index; COPD: Chronic Obstructive Pulmonary Disease; CVV-HDF: Continous Veno-Venous Hemodiafiltration; IAI: Intra-abdominal Infection; LAR: Low Anterior Resection; SAPS III: Simplified Acute Physiology Score; SB: Small Bowel; SICU: Surgical Intensive Care Unit; III; SOFA: Sequential Organ Failure Assessment. aPatients may suffer more than one comorbid condition (multiple response variable). Comorbidities present in at least 5% of patients are presented. bMost frequent surgical procedures used in at least 10% of patients are presented. Data have been calculated over 20 patients. cData have been calculated over 20 patients. dTwo (8.7%) patients showed SAPS III score between 1% and 10%, 10 (43.5%) patients between 10% and 20% and the 3 patients remaining (13.0%) between 30% and 40%.Demographics and clinical characteristics No. patients (%)Demographic and anthropometric data Gender: men, n (%)16 (69.6%)Age (yr, mean ± SD)63.6±16,6BMI (Kg/m2, mean ± SD)24.9±5,1Comorbidity a Cancer 14 (60.9)Neutropenia 4 (17.4)Diabetes mellitus 4 (17.4)Corticotherapy 3 (13.0)Cardiovascular disease3 (13.0)Health care setting within last year 3 (13.0) Chronic kidney disease 2 (8.7)COPD 2 (8.7)IAI related data No. patients (%)IAI non preceded by surgery 4 (17.4)Nosocomial infection 2 (8.7)Community-acquired infection 2 (8.7)Postoperatory IAI19 (82.6)Type of surgical intervention Programmed 11 (55.0)Emergency9 (45.0)Type of surgical procedure b Hemicolectomy 3 (15.0)Esophagectomy2 (10.0)IAI related data No. patients (%)Subtotal gastrectomy 2 (10.0)LAR2 (10.0)SB resection + Anastomosis 2 (10.0)Sigmoidectomy2 (10.0)ASA classification for patients who underwent surgery c Healthy2 (10.0)Mild-moderate systemic disease10 (50.0)Severe systemic disease not associated to disability 8 (40.0)Diagnosis of IAI Septic shock 13 (56.5)Emergency surgery 23 (100.0)Location Colon11 (47.8)Stomach-duodenum 4 (17.4)Small bowel2 (8.7)Complicated cholecystitis-cholangitis 1 (4.3)Pancreas1 (4.3)Severity score within 24h from diagnosis of IAI (mean ± SD) SAPS III scored57.5 ± 14,7Predicted mortality according to SAPS III (%)30SOFA score 7.0 ± 2,2Serum lactate 1.8 ± 1.3McCabe score >1; n (%)20 (87.0)Measures taken for management of infectious process Mechanic ventilation ≥24h 8 (34.8)CVV-HDF6 (27.3)Use of tigecycline in critically ill patients with serious nosocomial intra-abdominal infectionsE. Maseda, et al.7159Rev Esp Quimioter 2013;26(1):56-63Microbiology. The most frequent microorganisms in IAIs,identified with a frequency higher than 15%, were mainly gram-negative pathogens. E. coli was the microorganism most frequently identified in cultures, present in 10 (43.5%) patients. Anaerobes and gram-positive cocci ranked second in frequency among microbiological cultures of the patients. Bacteroides spp. and Streptococcus spp. were detected in the microbiological cultures of 7 (30.4%) patients, respectively. Enterococcus faecalis was identified in 5 (21.7%) patients and Bacteroides fragilis in 4 (17.4%). The remaining microorgan-isms were identified with a frequency less than 15%. Only 2 patients had P. aeruginosa in their infectious diagnosis as part of their polymicrobial flora (tables 2 and 4).Prior antibiotic therapy and tigecycline treatment a)Prior antibiotic therapy.Only 2 (8.7%) patients had received more than two cy-cles of antibiotic therapy within the year previous to diagno-sis of IAI, whereas 17 (73.9%) patients had received antibiotic therapy within the 2 previous months, and 3 (13.0%) had been treated with fluconazole (table 3).b) Tigecycline therapy and concomitant antibiotic treatment.Tigecycline was used as monotherapy in only one patient, whereas in the remaining 22 (95.7%) patients tigecycline was administered in combination with other antibiotic agents. To-gether with tigecycline, the most frequently selected treat-ment for management of IAI was the antifungal agent flucon-azole, received by 12 (52.2%) patients, followed by the antibi-otic combination piperacillin-tazobactam, given to 10 (43.5%) patients. Caspofungin and anidulafungin were administered in 7 (30.4%) patients, respectively, and 4 (17.4%) received ce-fepime (tables 3 and 4).The mean duration of antibiotic therapy with tigecycline was 8.5 ± 4.5 days. With regard to the drugs used in combina-tion with tigecycline, mean duration was 6.6 ± 4.1 and 5.9 ± 2.4 days for fluconazole and piperacillin-tazobactam, respec-tively (table 3).Among the 21 patients in whom adequacy of treatment was known, empirical antibiotic therapy administered in the first 6 hours from diagnosis of infection was adequate in 20 (95.2%) patients. Treatment was considered inadequate in only 1 patient (table 3).Clinical outcome. Five (21.7%) patients died prior to dis-charge from the hospital. In no case was death attributable to treatment of IAI with tigecycline. Three (13.0%) patients died during their stay in the SICU, whereas the remaining 20 (87.0%) patients continued in the hospital ward after dis-charge from the SICU. The median total duration of hospital-ization was 43 days (range 37-84 days) (table 4).E ighteen (78.3%) patients achieved a favorable response with tigecycline therapy. Failure of the antibiotic therapy for IAI was not observed in any patient. None of the patients needed to discontinue tigecycline treatment due to adverse reactions. Three (13.0%) patients suffered a new suture failure (table 4).received empirical treatment with tigecycline were retrospec-tively analyzed.The main clinical and demographical characteristics of the patients at admission and during their stay in the SICU are shown in table 1. Sixteen (69.6%) patients were men and the mean age was 63.6 ± 16.6 years. Cancer was the most frequent underlying co-morbidity recorded in the medical history, af-fecting 14 (60.9%) patients. Other underlying diseases among patients with IAI were neutropenia and diabetes mellitus in 4 (17.4%) patients respectively.Thirteen (56.5%) patients presented severe sepsis and 10 (43.5%) developed septic shock. In 19 (82.6%) patients, IAI was postoperative in origin. Among patients who developed an IAI after a surgical operation, the most frequent procedure was hemicolectomy, carried out in 4 (20.0%) patients. In all cases, infection was diagnosed via emergency surgery.The mean SAPS III score in the first 24 hours since IAI di-agnosis was 57.5±14.7. Twenty one (87.0%) patients showed a McCabe score of more than 1 (2 or 3).Eight (34.8%) patients required mechanical ventilation for at least 48 hours during their stay in the SICU, while 6 (27.3%) required continuous veno-venous hemodiafiltration (CVV-HDF).Table 2 M icrobiology of IAIMost frequent pathogens identified in microbiologic cultures in more than 5% of patients are presented in the table.aPseudomonas aeruginosa is found as a part of the polymicrobial flora of infection focus.Microorganisms No. patients (%)Gram negatives Escherichia coli 10 (43.5)Bacteroides spp.7 (30.4)Bacteroides fragilis 4 (17.4)Klebsiella spp.3 (13.0)Pseudomonas aeruginosa a 3 (13.0)Prevotella spp. 3 (13.0)Gram positives Streptococcus spp.7 (30.4)Enterococcus faecalis 5 (21.7)Enterococcus faecium 3 (13.0)Clostridium spp. 2 (8.7)Staphylococcus aureus 2 (8.7)Candida albicans 3 (13.0)Candida tropicalis2 (8.7)6072Rev Esp Quimioter 2013;26(1):56-63Use of tigecycline in critically ill patients with serious nosocomial intra-abdominal infectionsE. Maseda, et ed 16,18-20. To our knowledge, this is the first homogeneous se-ries of critically ill patients describing experience with tigecy-cline in the SICU setting in which the specific indication of this antibiotic for the treatment of complicated IAI was assessed. The study population comprised patients with severe sep-sis and septic shock (57%), who underwent emergency ab-dominal surgery. Most patients had some relevant comorbid-ity, and 60% were oncological patients. The severely ill patient population analyzed in the present study is underrepresented or even excluded from pivotal clinical trials of tigecycline, since the number of patients with severe underlying disease, such as immunosuppressed patient, those with an acute Physi-ology and Chronic Health Evaluation II (APACHE II) score> 15 (4%), or with multiple intraabdominal abscesses (10%), was very limited in these trials 24.The pivotal trials on which approval of the use of tige-cycline in IAIs was based are part of a pooled analysis of the randomized trials that were the basis for the recent United States Food and Drug Administration (FDA) alert describing the increased mortality risk associated with the use of tigecycline compared to other drugs in the treatment of a variety of se-rious infections, including complicated IAIs 25. In this scenario, there are discrepancies between the evidence of the clinical trials, which generally exclude severely ill patients treated with tigecycline, and the situation the clinician must face in daily management of critically ill patients as a result of the high rate of multiresistant pathogens and the few available treatment options evaluated for this type of patients, especially in sep-sis 26. In this regard, clinical studies are needed to evaluate the efficacy of tigecycline in critically ill patients.Morbidity and mortality for severe IAI is high, particularly in patients with more severe infections and greater comorbid-ity 1. The mortality rate (21.7%) for the population of critically ill patients was lower than the predicted mortality according to SAPS III severity score shown within the 24h from diagnosis of IAI based on their baseline comorbidity (30%). Even though they were critically ill patients with relevant associated comor-bidities, the mortality rate was relatively low (21.7%). Further-more, the mortality seen in the current series was even lower than that reported in a German study in patients with severe sepsis and septic shock in the SICU setting (30%)20.The favorable clinical response achieved with tigecycline therapy in our study was consistent regardless of the etiology of the infections. Among the most common pathogens treat-ed were E. coli and B. fragilis , two enterobacteria strains that typically colonize the gastrointestinal tract. After the Entero-bacteriaceae family, the next most common infection was that caused by enterococci, with a greater presence of E. faecalis and to a lesser extent E. faecium . Accordingly, piperacillin-tazobactam in combination with tigecycline was the predomi-nant regimen used in order to provide adequate enterococcal coverage due to the worse prognosis of patients infected with Enterococcus spp.27.An incidence of Candida spp. infection of around 6% has been reported In the ICU setting, with a higher mortality rateDISCUSSIONThe findings of the present investigation demonstrated that tigecycline combination therapy is an effective and well tolerated empirical treatment for critical patients with serious nosocomial IAIs. Although these were critically ill patients with severe sepsis and septic shock, 78% achieved a favorable re-sponse with tigecycline therapy. None of the patients showed failure of the antibiotic therapy for IAI. The mortality rate in this series was 21.7%, and there were no deaths attributable to tigecycline therapy.Available experience on the use of tigecycline in critically ill patients is scant and the studies conducted to date dif-fer with regard to its use (empirical or rescue therapy), types of infection treated and microorganisms against which it isTable 3 Tigecycline treatment and previousand concomitant therapyaThree patients received antifungal treatment with fluconazole within the 2 previous months before the start of treatment with tigecycline.bMultiple response variable. cDuration of antibiotic treatments administered to more than 40% of pa-tients are presented.dAdequacy of empiric treatment administered within the first 6h of IAI. Adequacy of treatment was unknown in 2 patients.Antibiotic treatmentNo. patients (%)Antbiotic treatment prior to tigecycline >2 cycles of antibiotics within the year prior to tigecycline2 (8.7)Antibiotic therapy within the 2 previous months a 17 (73.9)Tigecycline treatment Combined therapy22 (95.7)Concomitant treatment with tigecycline b Fluconazole 12 (52.2)Piperacillin-tazobactam 10 (43.5)Caspofungin 7 (30.4)Anidulafungin 7 (30.4)Cefepime 4 (17.4)Voriconazole 2 (17.4)Amikacin1 (8.7)Treatment duration c (days, mean ± SD)Tigecycline 8.5±4,5Fluconazol6.6±4,1Piperaciline-Tazobactam5.9±2,4Adequate treatment within the first 6 h d Adequate 20 (95.2)Inadequate1 (4.8)7361Rev Esp Quimioter 2013;26(1):56-63T a b l e 4 M a i n c h a r a c t e r i s t i c s o f p a t i e n t s , a n t i b i o t i c t r e a t m e n t a n d c l i n i c a l o u t c o m eN o .A g e (y r )C o m o r b i d i t y aS A P S I I I bM i c r o b i o l o g yT i g e c y c l i n e t r e a t m e n t d u r a t i o n (d a y s )C o m b i n a t i o n t r e a t m e n t s C l i n i c a l o u t c o m e169C a n c e r , D M52B a c t e r o i d e s s p p . 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