临床实验室自动化的最新趋势。

R S Markin
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引用次数: 0

摘要

概念的融合已经允许临床实验室自动化在更多的实验室中进行:开发自动化控制接口,直接跟踪采样,并采用通用接口。实验室自动化系统(LAS)必须与实验室信息系统(LIS)接口,该系统提供路由和调度以及未来基于规则的处理所需的信息,这是实验室自动化系统的一个重要组成部分。自动化系统还必须在实时或接近实时的环境中运行,并且每个载波使用单管模式。LAS的能力应跨越临床实验室,并在信息流方面与LIS并行运行。实验室自动化软件将控制将临床实验室仪器捆绑在一起的自动化技术和运输系统。它必须能够驱动硬件组件并与患者信息源接口,并且它应该通过支持结果优化和实验室资源的利用管理来进一步实现医疗保健提供系统的目标。基于化学或血液学等学科的工作细胞的发展正在并将继续对临床实验室自动化技术的接受产生重大影响。
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Recent trends in clinical laboratory automation.

A convergence of concepts has allowed clinical laboratory automation to proceed in a greater number of laboratories: developing automation control interfaces, direct track sampling, and adopting a universal interface. The laboratory automation system (LAS) must interface to the laboratory information system (LIS), which provides the information necessary for routing and scheduling and for future rules-based processing, an important component of the LAS. The automation system also must operate in a real-time or near real-time environment and use the single tube per carrier paradigm. LAS capabilities should span the clinical laboratory and run parallel to the LIS with respect to information flow. The laboratory automation software will control the automated technology and the transportation system that binds clinical laboratory instruments together. It must be able to both drive the hardware components and interface with patient information sources, and it should further the goals of the health-care delivery system by supporting outcomes optimization and utilization management of laboratory resources. The development of workcells based on disciplines such as chemistry or hematology is having and will continue to have a significant effect on the acceptance of clinical laboratory automation technologies.

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