大包下渣监测系统说明书

SenTec数字监测系统NICU中的持续无创通气和氧合监测PCO2|PO2持续 | 无创 | 准确 | 安全| 使用容易经皮无创血气监测克服动脉血气、etCO2和SpO2监测的局限性评估新生儿患者的通气和氧合情况不是一件容易的事情。

在新生儿中维持正常的PaCO2范围非常重要，因为PaCO2值异常对新生儿大脑和肺脏可有不良的影响。

重症监护室的新生儿经常会有PaCO2波动1。

动脉血气采样每数个小时才提供一次样本数据并有侵入性风险—尤其在新生儿患者中2，并且痛苦。

持续和无创tcPCO2和tcPO2监测符合新生儿重症监护病房的新生儿治疗指南撤机CO2 (etCO2)监测在潮气量小3 的患者中有时无效，而在某些通气 模式（如HFO4）下不适用。

仅测量SpO2不足以检测通气过度或通气不足。

仅通过SpO2监 测无法检测到动脉CO2浓度的变化。

无创通气例如，高流量氧疗或nCPAP有创通气例如，常规通气或 HFOV/HFJV稳定预防撤机康复NICU 中新生儿的康复过程专注于满足新生儿的需求SenTec的数字式经皮（tc）传感器提供持续和精准的测量，为专业医护人员监测新生儿的通气和氧合功能提供支持。

在最关键的地方提供更佳的患者结果。

不同的显示选项：– tcPCO2、tcPO2和加热功率趋势–基线和增量值V-Sign™传感器PCO2PCO2通过Stow-Severinghaus 型电极测量。

– 安全可靠– 临床上信任超过10年可选：OxiVenT™传感器PCO2|PO2SenTec的OxiVenT TM传感器将光学tcPO2与最先进的tcPCO2技术相结合。

– PCO2通过Stow-Severinghaus 型电极测量。

– 光学测量PO2（几乎无偏移）。

可连接两种不同的SenTec TC传感器用户资料根据您的需要快速调整设置：选择存储在监控仪中的各自定制的资料。

只需将传感器放入坞站中，校准将自动完成。

安全可靠经过临床验证在新生儿领域中，SenTec数字监测系 统已在很多临床研究中使用。

As a market leader based in Switzerland, Bell Food Group is one of the major processors of meat and convenience products in Europe. The company has been the exclusive meat supplier, within Switzerland, for an international fast food chain for a number of decades. A new X-ray inspection solution at Bell's Oensingen site in Switzerland checks the customer's burger patties for various foreign bodies, plus product errors and visual defects, such as patties joined together, holes, dents and product flakes.Increased customer requirements and demands in terms of quality assurance andBell Food GroupLoose-flow Burger PattiesThe X39 X-ray Inspection SystemF o o d S o l u t i o n2State-of-the-Art Product Inspection"I think X-ray inspection is currently the ultimate extra that we can offer our customers when it comes to detecting foreign bodies in the burger patties," says Niki Berger, who is responsible for the quality management of fresh goods at Bell's Oensingen site. "Along with metallic contaminants, it can detect various additional foreign bodies that are commonly found in meat, including bone and cartilage, as well as stones, high-density plastic or glass. The X39 X-ray system also provides a wholerange of other options for checking the patties for product errors and visual defects."Ueli Schönenberger, in charge of patty production at Bell, discusses the way in which the purchasedecision was made in favour of the X39 X-ray system. "First of all, we looked all over Europe at what was available on the market and who was using what system. We were able to experience the METTLER TOLEDO X-ray inspection system in real-time and in a comparable environment at two sites – one in Ireland and theother in Germany. The exchange of system experiences with the local line managers encouraged us to contact METTLER TOLEDO."Automated Product Integrity ChecksThe X39 X-ray inspection system has been in use in Oensingen since January 2017 andunderwent a successful customer audit in May 2017. It currently casts a strict x-ray eye over well above a million patties a week– most of these being the three standard products, which vary in terms of size, form and weight. "In comparison to previous product inspection technologies, we can now trace and reject foreign bodies that are half the size. A definite bonus when it comes to safety", says Niki Berger. His colleague Ueli Schönenberger also highlights the high standard of the automated product integrity checks: "We used to remove patties that were broken or had holes in themfrom the belt by hand or separate them manually before packaging. With the X-ray inspection system and its integrated control laser, we can now detect and visualize such faulty products automatically and reject the relevant patties without manual intervention." The line manager defines the tolerance limits for visual defects. The system will inspect for edge defects, flakes on the top or bottom of the patties, as well as holes, cracks and dents.Detailed Error IndicationDepending on the variant of burger patty that Bell are producing the x-ray system will inspect between three and six lanes. If a visual defect is detected, the relevant patty is rejected using multi-lane air nozzles. This significantly reduces the volume of patties rejected in comparison to simpler x-ray system variants that reject the entire batch from production. "We can even differentiatebetween these individual rejections by product error," says Ueli Schönenberger."In practice, this means we can first define and save the tolerance parameters for individual reasons for rejection. Then we can get an extremely detailed picture of how many patties were rejected as theresult of foreign bodies such asBell Food Group manufactures burger patties for some of the worlds most recognizable fast food chains.F o o d S o l u t i o n3Networked AccessThe majority of product settings for each patty variant has now been validated after just over half a year and have been saved in the X39. Employees therefore only have to select a product from the product library in order to run the inspection process, based on the pre-approved product data. While employees can carry out calibrations and rectify simpledefects, line managers have further access options that enable them to carry out additional settings changes on the x-ray system. "The next step that we want to consider in terms of validating and refining the product library is the subject of glass when it comes to detecting foreign bodies," says Niki Berger. "Another subject that we still have on the agenda for this year is networked access to the data that our X-ray inspection system provides. In future, we want to archive all data collected by the X39 within a network and evaluate it. This makes it easier for us to pass on quality indicators to customers. In turn, the customers can then analyse the figures for their own quality optimization processes."customer without losing out on any of the benefits of our product integrity check solution."Meeting Audit Requirements with Complete Documentation Standard settings for tolerance limits are saved in the X39 software for each patty product variant. "By observing and evaluating these limits, we are able to keep on narrowing error tolerances," says Niki Berger. "For additional safety measures, once an employee logs into the system any changes that they are able to make have already been pre-defined depending on their role within the business. All changes that the employee makes to the saved standard settings are documented. A further benefit which differs from our old solution is that, this data is available to us together with the inspection results data in digital form. This simplifies not only our internal processes for further process optimization, but also the quality managementdocumentation for our customers."bone and cartilage or as the result of visual defects. We can therefore reject the patties into different disposal containers, depending on the cause of the error, e.g. separated into those containing foreign bodies and those with visual defects. An image of each individual rejected patty is saved in the image library so that we can analyse exactly where and how the problems occurred. In my opinion, the combination of all thesecapabilities is far more than other providers can offer."Once the patties enter the x-ray system its integrated control laser checks if the patties have been separated properly. If the spacing between two patties falls below the minimum spacing of five millimetres, these patties are rejected through a failsafe reject flap and returned directly to the production line in preparation for rework. "We're talking here about so-called width errors where the necessary separation for the downstream detection stages is insufficient," explains StephanBauert, METTLER TOLEDO Business Area Manager. "We reject these patties – even though they have no detected errors – before inspection so that they can be fed back into the production line immediately from their upstream position. Thisminimizes product loss for theThe X39 can inspect and reject non-conforming burger patties in a multi-lane format.For more information/xray-X39Harsh Washdown Environment The X39 device installed on the burger patty production line isIP69-rated and is therefore suitable to undergo intensive daily cleaning processes. The infeed and outfeed belts in the X-ray inspection system are subject to particular stresses. While the deep-frozen patties tend to slide at belt transition points, the tension of the infeed belts can slacken under the hard water jet pressure in regular washdowns, making readjustment necessary. "All in all, this purely mechanical effect has turned out to be amajor challenge for us," says Ueli Schönenberger. "We are reallyvery satisfied with the advice and support provided and theinstallation of the system. We have worked with METTLER TOLEDO directly on site to set upinteractive fine-tuning such as the optimization of the conveyor belts and conveyor belt transition points and adapt this to the individual products and the environment.”For us, X-ray technology brings enormous benefits in terms of quality assurance. The burger patties can be levelled out evenly and we have fewer problems with both our own and our customers’ packaging systems.Each individual patty that goes through the system isphotographed and then saved as an individual file, we can access these files at any time. We can call up each individual patty image and use various tools to take a detailed look at where there is a defect in that particular patty.Each patty type is registered in the product library and with every product change, an employee can simply select the product using the touchscreen buttons and start the inspection process.The X-ray technology provides us with enormous benefits in terms of quality assurance. We inspect the patties not only to check for foreign bodies, but also to ensure that the patties have no visual defects. This simplifies packaging and the customer receives a perfect-looking burger./xray-X39When required, reject confirmation sensors can be pulled out and cleaned, ensuring all products not meeting the pre-defined standards continue to get rejected from production.Mettler-Toledo GroupProduct Inspection DivisionLocal contact: /contactsSubject to technical changes© 10/2017 METTLER TOLEDO. All rights reserved PI-XR-CS-EN-GEN-Bell-112017。

PORTABLE SYSTEM FOR GROUNDWATER MONITORINGLVLK600 Series$580Basic SystemߜSimple, Plug-In Operation ߜNo Calibration Required ߜNo Conduit NecessaryߜIdeal for Remote Areas ߜThird Party Tested The Model LVLK600 system combines an innovative observation well sensor (LVLK600) with a portable, hand-held monitor (LVHH6). The LVLK600 sensor meets EPA requirements for outof tank product detection by reacting to as little as 1⁄32" of floating hydrocarbon producton the water table.The LVHH6 hand-held monitor may be used with a 4" observation well. When necessary, it’s easy to check operational status with the portable LVHH6 monitor by simply plugging into the sensor’s quick disconnect receptacle. The LVHH6 monitor’s housing is constructed of rugged styrene for years of durableuse, yet it is lightweight, convenient, and easy to carry. A set ofcolor-coded LED’s notifies users ofthe sensor’s contact withgroundwater, and alerts users tohydrocarbon contamination whenpresent. These LED’s also providepower status (9V battery) andassurance that the system isfunctioning as designed.The LVLK600 system is ideal forobservation wells up to 25' deep. Afloat-type liquid level switch detectsa drop in the water table below thehydrocarbon sensor. In addition, apolymer strip is incorporated into theLVLK600 to also indicate thepresence of hydrocarbons. TheLVLK600 sensor responds togasoline within ten minutes.Response time for hydrocarbons inthe C5to C16range takes longer.For example, response time fordiesel is up to one hour. (Heavierhydrocarbons can take severalhours). A watertight cap preventsspilled fuel or other liquids fromentering the well.Shown SmallerThan Actual SizeK-113K-114SPECIFICATIONSLVLK600 SensorWetted Materials:PVC, Polyester,Nitrile, Polypropylene, Polysulfone, EpoxyOperating Temperature:-28.9 to +65.5°C (-20 to +150°F)Approvals:U.L. Classified for Class I,Group D Hazardous Locations. Third Party Tested.LVHH6 Hand-Held MonitorEnclosure and Carrying Handle Material:Polystyrene3.9980" to4.026".The LVLK600 and LVHH6come with a 9 V battery, 4 ft PVC jacketed cable with quick disconnect, and complete operator’s manual.Ordering Example:LVLK603portable groundwater monitoring system with 20 ft.sensor ($416) plus LVHH6handheld monitor ($285), $416+ 285 = $701.The entire unit is easily removed for periodic sensor inspection. If the probe comes in contact with hydrocarbon, simply allow it to air out and reuse. These units are recommended forinstallation in non-contaminated sites only; they are not designed for remediation applications.To detect liquid hydrocarbons, the LVLK600 monitoring sensorincorporates an innovative polymer strip that continuously conducts electricity when voltage is applied.Extending longitudinally within the unit’s protective braiding, the polymer strip physically swells on contact with liquid hydrocarbons anywhere along its length. Theswelling causes a dramatic increase in the electrical resistance of the polymer, which is detected by the LVHH6 portable monitor, causing an LED to light. When allowed to recover outside the well, thepolymer strip reverts to its normal conductive state for reuse.Power Supply:9 V alkaline battery (included)Cable:4 ft PVC Jacketed, with Quick DisconnectLVHH6 LED KeyGreen:Indicates Power is ON Red:Indicates hydrocarbon may be presentAmber:Indicates water is present System Test:Indicates system operating properly and ready to begin testingLVHH6Handheld MonitorCANADA www.omega.ca Laval(Quebec) 1-800-TC-OMEGA UNITED KINGDOM www. Manchester, England0800-488-488GERMANY www.omega.deDeckenpfronn, Germany************FRANCE www.omega.frGuyancourt, France088-466-342BENELUX www.omega.nl Amstelveen, NL 0800-099-33-44UNITED STATES 1-800-TC-OMEGA Stamford, CT.CZECH REPUBLIC www.omegaeng.cz Karviná, Czech Republic596-311-899TemperatureCalibrators, Connectors, General Test and MeasurementInstruments, Glass Bulb Thermometers, Handheld Instruments for Temperature Measurement, Ice Point References,Indicating Labels, Crayons, Cements and Lacquers, Infrared Temperature Measurement Instruments, Recorders Relative Humidity Measurement Instruments, RTD Probes, Elements and Assemblies, Temperature & Process Meters, Timers and Counters, Temperature and Process Controllers and Power Switching Devices, Thermistor Elements, Probes andAssemblies,Thermocouples Thermowells and Head and Well Assemblies, Transmitters, WirePressure, Strain and ForceDisplacement Transducers, Dynamic Measurement Force Sensors, Instrumentation for Pressure and Strain Measurements, Load Cells, Pressure Gauges, PressureReference Section, Pressure Switches, Pressure Transducers, Proximity Transducers, Regulators,Strain Gages, Torque Transducers, ValvespH and ConductivityConductivity Instrumentation, Dissolved OxygenInstrumentation, Environmental Instrumentation, pH Electrodes and Instruments, Water and Soil Analysis InstrumentationHeatersBand Heaters, Cartridge Heaters, Circulation Heaters, Comfort Heaters, Controllers, Meters and SwitchingDevices, Flexible Heaters, General Test and Measurement Instruments, Heater Hook-up Wire, Heating Cable Systems, Immersion Heaters, Process Air and Duct, Heaters, Radiant Heaters, Strip Heaters, Tubular HeatersFlow and LevelAir Velocity Indicators, Doppler Flowmeters, LevelMeasurement, Magnetic Flowmeters, Mass Flowmeters,Pitot Tubes, Pumps, Rotameters, Turbine and Paddle Wheel Flowmeters, Ultrasonic Flowmeters, Valves, Variable Area Flowmeters, Vortex Shedding FlowmetersData AcquisitionAuto-Dialers and Alarm Monitoring Systems, Communication Products and Converters, Data Acquisition and Analysis Software, Data LoggersPlug-in Cards, Signal Conditioners, USB, RS232, RS485 and Parallel Port Data Acquisition Systems, Wireless Transmitters and Receivers。

第一章 KSS-200系统简介1.1概述KSS-200煤矿自燃火灾束管监测系统(亦称KSS-200火灾预报系统)，是我公司研制的新一代监测预报井下自然火灾的高科技专利产品(专利号:95 2 35204.4)。

系统在微机控制下可将井下任意地点的气体，通过已敷设的束管连续不断的抽至井上气相色谱仪中进行精确分析，实现对CO、CO2、CH4、C2H4、C2H6、C2H2、O2、N2等气体含量的在线监测，其分析结果用实时监测报告、分析日报表两种方式提供给有关人员的同时，自动存入数据库中，以便今后对某种气体含量的变化趋势进行分析，预报煤炭自燃的趋势；预测预报发火点的温度变化，在不进行束管监测时，可由人工进样进行一般的气体分析，直接输出分析报告和谱图，鉴定矿井瓦斯等级，校验瓦斯监测仪的准确性等方面提供科学的依据。

该系统克服了束管红外线监测气体组分少、精度低、传感器元件需要经常更换，不能有效的对煤炭自燃趋势跟踪预报等缺点。

是目前井下自然火灾监测设备理想的更新换代产品。

1.2系统特点本系统结合了色谱监测的高灵敏度，束管采样直接、无污染，微机控制、自动化程度高的优点，在运行过程中稳定、高效、操作简便。

具体来说，有以下几个特点：1、运行稳定，可靠性强。

由于进入色谱分析仪中的气体直接通过束管在井下采样，气体不会受到任何其它人为因素的影响，能真实的反映井下采样地点的气体变化情况。

用束管采样气体，通过粉尘过滤器和滤水器进行过滤，结构简单，不易发生故障，适应井下多尘、潮湿的环境，所以系统运行稳定，分析结果准确可靠。

2、操作简便。

整个系统在微机控制下运行，显示器和控制柜均能动态的反映出当前束管检测的工组状态，操作人员可以方便的设置各种参数来满足不同的监测需要；全屏幕汉字编辑，操作非常简便。

3、工作效率高。

系统可24小时连续进行采样与分析工作，不用人工下井采样，大大节省了人力、物力，降低检测人员的劳动强度。

4、检修方便。

由于整个系统的控制、运行、分析部分均安装在地面室内，检修十分方便。

高分辨率逐时洪水监测系统v1.0 说明书1. 系统简介本系统基于linux 平台(Ubuntu 18.04 LTS 或CenOS 7)，兼顾平行计算，主要利用csh 脚本代码和Fortran 代码开发而成。

系统利用中国10km ×10km 网格，分别下载处理GPM 逐时降水数据和NECP/NCAR 逐日气温、风速数据并转化为VIC （Variable Infiltration Capacity) 陆面过程模型(开源)逐时输入气象驱动。

将陆面过程模型输出产流转化为大尺度洪泛区汇流模型(Cama ，Catchment ‐Based Macro ‐scale Floodplain ，授权使用)输入，得到相应的淹没高程和流量数据。

最终通过中国数字高程数据(DEM)，将淹没高程降尺到500m ×500m 分辨率的淹没深度，而将流量数据与重现期数据对比获得区域洪水重现期。

该系统主要通过命令行，以手动或者自动方式运行，其运行(设计)流程如图1所示。

图1 系统设计流程及其主要包含过程。

2. 系统模块如图1所示，本系统主要包含5大模块，分别为：主控模块、气象驱动下载处理模块、VIC 初始化及运行模块、产流数据转化模块、Cama 模型初始化及运行模块、洪水信息提取绘图模块。

2.1 主控模块系统主控模块由csh 脚本代码编写而成(cnwj.syst.csh)，通过全局控制参数文件(params_info.txt)直接引导整个系统的运行过程。

其可根据当前系统时间和GPM 数据滞时，初步确定实时监测系统开始、结束时间，而后根据VIC 模型和Cama 模型状态文件对应时间修改监测系统开始时间。

而对于系统结束时间则根据GPM 更新情况进行修改。

通过顺序调用气象驱动处理模块、VIC 初始及运行模块、产流数据转化模块、Cama 初始及运行模块和洪水提取及绘图模块获得实时洪水动态。

该模块可通过记录上次运行开始时间及各模块是否运行避免系统重复运行。

土壤参数监测系统使用说明书（第二版）1.组成和功能系统由控制中心和测试终端组成。

控制中心由短信猫和PC机组成。

测试终端由通讯控制机、含水率传感器和导电率温度传感器组成。

各传感器将测试的含水率、导电率和温度数据由通讯控制机通过GPRS网络送到短信猫，短信猫将测试数据送到PC机，完成土壤参数监测工作。

控制中心可以向测试终端发送系统设置信息和遥测信息，控制测试终端工作。

2.主要工作过程测试终端正常工作前，控制中心必须向测试终端发送设置数据，包括：被测地点编号、控制中心电话号码、标准时间、每日六次定时测量时间、通讯窗口打开时间、通讯窗口关闭时间和每日定时数据发回时间。

测试终端测试完成后，会将测试地点编号、测试时间、土壤温度、电导率、含水率和电池电量，每日六次测量数据定时一次自动发送到控制中心，也可在通讯窗口打开时间内通过控制中心直接发送遥测命令给测试终端控制测试终端测试，并将监测数据实时发回控制中心。

3.操作使用3.1短信猫a 用螺丝刀拧开短信猫的六个螺丝，打开盒盖，再下滑打开线路板上的翻盖式SIM卡卡座盖，将二代G网SIM卡插入盖上（注意：SIM卡铜引脚面朝下），再将其盖住反向滑动锁住SIM卡。

b 用专用电缆连接短信猫和PC机。

c 将12V稳压器插头插入短信猫电源插孔，给短信猫供电。

d 接通电源后，单片机指示灯以2秒周期闪烁，通讯模块指示灯先是以1秒种闪烁，当收到GPRS网络后，变为3秒闪烁（一般在30秒内完成），此时可以正常通讯。

e 盖上短信猫盒盖，拧上螺丝，打开PC机通讯软件。

f 此时可按照通讯协议，通过PC机向测试终端发送设置命令和遥测命令，同时也可接收测试终端的测试数据。

3.2传感器a 选择有代表性的测试地点。

b 挖一个超过20厘米深的坑。

c 将含水率传感器和导电率温度传感器至少相距20厘米插入坑中的泥土中，将两传感器填土埋好。

d 将两传感器航空插头与通讯控制机对接（大对大，小对小），尤其注意插头和插座的定位槽和定位销对好后插入，以防插针损坏。

目录1、连铸机主要技术参数及技术要求 (2)1.1生产工艺流程 (2)1.2主要技术参数 (2)1.3结晶器主要参数 (2)1.4振动装置主要参数 (3)1.5拉矫机主要参数 (3)1.6火焰切割机 (3)1.7技术要求 (4)2、岗位技术操作规程 (5)2.1大包浇钢工技术操作规程 (6)2.2中间包浇钢工技术操作规程 (8)2.3主控工技术操作规程 (11)2.4拉矫、切割、出坯工技术操作规程 (12)2.5配水工技术操作规程 (14)2.6推钢工技术操作规程 (16)3、中间包快速更换技术操作规程 (17)3.1准备工作 (17)3.2换包操作 (18)4、中间包准备操作规程 (18)4.1中间包永久层打结规程 (18)4.2中间包机件安装技术操作规程 (19)4.3中间包干式料修砌技术操作规程 (20)4.4翻包操作 (20)1、连铸机主要技术参数及技术要求1.1生产工艺流程大包——中间包——结晶器——二冷段——拉矫机——切割机——辊道——移钢机——冷床——码垛(热送)——精整——装车外运1.2主要技术参数机型：STEL—TEK弧型连铸机铸机半径：1#、2#机（R6/12m）3#机4#机（R8/16m）流数：1#、3#、4#机（5流）2#机（4流）流间距：1#、2#机（1200mm）3#机（1250mm）4#机（1400mm）浇注断面：130×130mm 165×225mm2150×150mm 165×280mm2180×180mm2 Ф150～Ф220 mm定尺：2.8~12.0m浇注方式：定径水口、塞棒式+浸入式水口全保护浇注拉速：平均拉速最大拉速130×130mm 3.0m/min 3.5m/min150×150mm 2.7m/min 3.2m/min180×180mm2 1.8m/min 2.4m/min165×225mm2 1.7m/min 2.0m/min165×280mm2 1.3m/min 1.6m/minФ150～Ф220 mm 2.1～1.2 m/min浇铸钢种：普碳钢、低合金钢﹑优质碳结钢﹑弹簧钢。