N. Waidyanatha, S. Prashant, M. Ganesan, A. Dubrawski, Lujie Chen, M. Baysek, M. Careem, Pradeeper Damendra, Mahesh Kaluarachchi
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The present day paper-based disease surveillance and notification systems in Sri Lanka and India [2], confined to a set of notifiable diseases, often require 15-30 days to assemble and communicate field data, and for the central Epidemiology Unit to process it. This latency does not allow for timely detection of disease outbreaks, and it limits the ability of the health system to effectively respond and mitigate their consequences. The Real- Time Biosurveillance Program (RTBP) is a pilot aiming to introduce modern technology to health departments in Tamil Nadu, India, and Sri Lanka to complement the existing disease surveillance and notification systems. The processes involve digitizing all clinical health records and analyzing them in near real-time to detect unusual events to forewarn health workers before the diseases reach epidemic states. Health records from health facilities, namely the patient case disease, syndrome, and demographic information, are collected through the mHealthSurvey mobile phone application [3] and fed in to the T-Cube Web Interface [4], which is a browser based software tool that uses the T-Cube data structure for fast retrieval and display of large scale multivariate time series and spatial information. Interface allows the user to execute complex queries quickly and to run various types of comprehensive statistical tests on the loaded data [5] and [6]. The Sahana Messaging/Alerting Module is used to disseminate detected adverse events to targeted health officials and health workers. The Sahana Alerting module adopts the global content standard: Common Alerting Protocol (CAP) for structuring the messages that are transported via SMS, Email, and Web [7]. Evaluation of the RTBP involves a replication study and parallel cohort study. 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引用次数: 3
摘要
2007年下半年和2008年初,斯里兰卡钩端螺旋体病死亡人数惊人。这种疾病表现出类似流感的症状,不易识别,因为其他更常见的疾病往往在季风季节自然出现类似症状。在雨季,零星的特征性病人的抱怨没有被注意到,直到个别医院报告了一些死亡病例。在特定地理区域(斯里兰卡中北部和西北省)集中出现数量不同寻常的流感样症状,这可能向流行病学家发出异常事件的信号。斯里兰卡和印度目前基于纸张的疾病监测和通报系统仅限于一组应通报的疾病,通常需要15-30天的时间来收集和交流现场数据,并由中央流行病学股来处理这些数据。这种延迟使得无法及时发现疾病暴发,并限制了卫生系统有效应对和减轻其后果的能力。实时生物监测项目(RTBP)是一个试点项目,旨在向印度泰米尔纳德邦和斯里兰卡的卫生部门引进现代技术,以补充现有的疾病监测和通报系统。这一过程包括将所有临床健康记录数字化,并对其进行近乎实时的分析,以发现异常事件,在疾病达到流行状态之前向卫生工作者发出预警。通过mHealthSurvey手机应用程序[3]收集卫生机构的健康记录,即患者病例、疾病、综合征和人口统计信息,并将其输入到T-Cube Web Interface[4],这是一种基于浏览器的软件工具,利用T-Cube数据结构快速检索和显示大规模多元时间序列和空间信息。接口允许用户快速执行复杂查询,并对加载的数据[5]和[6]运行各种类型的综合统计测试。Sahana信息传递/警报模块用于向有针对性的卫生官员和卫生工作者传播发现的不良事件。Sahana告警模块采用全局内容标准:CAP (Common Alerting Protocol)来结构化通过SMS、Email和Web[7]传输的消息。RTBP的评价包括一项重复研究和平行队列研究。本文讨论了在试点中使用的技术以及与系统可用性相关的初步发现。RTBP的研究是通过加拿大国际发展研究中心(105130)的赠款得以实现的。
Real-Time Biosurveillance pilot in India and Sri Lanka
The latter parts of 2007 and early months of 2008 witnessed an alarming number of deaths from Leptospriosis in Sri Lanka [1]. This disease presents with flu like symptoms, and it is not easy to identify because other more common diseases with similar symptoms tend to emerge naturally during monsoon seasons. The scattered number of characteristic patient complaints went unnoticed, during the rainy season, until a few deaths were reported by individual hospitals. An unusual number of flu-like symptoms concentrated in particular geographic areas (North Central and North Western Province in Sri Lanka) could have signaled the epidemiologists of an abnormal event. The present day paper-based disease surveillance and notification systems in Sri Lanka and India [2], confined to a set of notifiable diseases, often require 15-30 days to assemble and communicate field data, and for the central Epidemiology Unit to process it. This latency does not allow for timely detection of disease outbreaks, and it limits the ability of the health system to effectively respond and mitigate their consequences. The Real- Time Biosurveillance Program (RTBP) is a pilot aiming to introduce modern technology to health departments in Tamil Nadu, India, and Sri Lanka to complement the existing disease surveillance and notification systems. The processes involve digitizing all clinical health records and analyzing them in near real-time to detect unusual events to forewarn health workers before the diseases reach epidemic states. Health records from health facilities, namely the patient case disease, syndrome, and demographic information, are collected through the mHealthSurvey mobile phone application [3] and fed in to the T-Cube Web Interface [4], which is a browser based software tool that uses the T-Cube data structure for fast retrieval and display of large scale multivariate time series and spatial information. Interface allows the user to execute complex queries quickly and to run various types of comprehensive statistical tests on the loaded data [5] and [6]. The Sahana Messaging/Alerting Module is used to disseminate detected adverse events to targeted health officials and health workers. The Sahana Alerting module adopts the global content standard: Common Alerting Protocol (CAP) for structuring the messages that are transported via SMS, Email, and Web [7]. Evaluation of the RTBP involves a replication study and parallel cohort study. This paper discusses the technologies used in the pilot and the initial findings in relation to usability of the system. The RTBP research is made possible through a grant received from the International Development Research Center of Canada (105130).