研华科技 无风扇工控机MIC-7700
研华模块化电脑产品与设计协助服务讲义

Dedicated COM AE Dedicated BIOS RD
Thermal/ Mechanical RD
研华COM 优势
--标准制订、丰富产品、快速上市、设计协助服务
研华COM 标准的领导厂商
Advantech 是ETX标准的建立成员之一
–
ETX 2.0 to 3.02
Advantech是COM Express标准的关键成员之一
2013
处理器工艺、性能不断提升同时,伴随功耗优化,总线规格升级
技术平台发展趋势—Intel@中低端处理平台
Atom N455/D525 Atom N2600/N2800/D2550 Atom Bay Trail
网络设备
医疗设备 ● 单/ 双核 ●不支持高清硬解 ● DDR3 Memory ● C0~C4 (N455) ● PATA & SATA ● W/O SDVO ● 双核系列 ● 支持高清硬解 ● DDR3 Memory ● C0~C6 (Mobile) ● SATA Only ● HDMI/DisplayPort/DVI ●更低功耗— CPU TDP 3.5W/10W ● CPU高至四核 ● 内置更高性能图形加速 ● DDR3 up to 4~8GB (ECC) ● 可支持USB3.0扩展
Q4‘13
SOM-4467
Q4‘12 Bay Trail(up to 4 core) ETX 3.0 Q4‘13
SOM-3560
Intel Cedar Trail Q7 1.2
SOM-3567
Bay Trail(up to 4 core) Q7 1.2 Q4 ‘13
Q4‘12
2012
2013
Agilent 7700x 7800 ICP-MS application note说明书

Analysis of flue gas desulfurization wastewaters with the Agilent 7700x/7800 ICP-MS Application noteAuthorsRichard Burrows TestAmerica Laboratories, Inc. USASteve WilburAgilent TechnologiesUSAEnvironmentalIntroductionThe U.S. Environmental Protection Agency (US EPA) is in the processof revising effluent guidelines for the steam electric power generating industry, due to increases in wastewater discharges as a result of Phase 2 of the Clean Air Act amendments. These regulations require SO2scrubbing for most coal-fired plants resulting in ‘flue gas desulfurization’ (FGD) wastewaters. The revised effluent guidelines will apply to plants ‘primarily engaged in the generation of electricity for distribution and sale which results primarily from a process utilizing fossil-type fuel (coal, oil or gas) or nuclear fuel in conjunction with a thermal cycle employing the steam water system as the thermodynamic medium’[1]. This includes most large-scale power plants in the United States. Effluents from these plants, especially coal-fired plants, can contain several hundred to several thousand ppmof calcium, magnesium, manganese, sodium, boron, chloride, nitrate and sulfate. Measurement of low ppb levels of toxic metals (including As, Cd,Cr, Cu, Pb, Se, Tl, V and Zn) in this matrix presents a challenge for ICP-MS,Sample preparationThe samples were collected in HDPE containers and acidified with trace metal grade nitric acid to pH <2. Sample preparation was performed according to EPA 1638, Section 12.2 for total recoverable analytes by digestion with nitric and hydrochloric acid in a covered Griffin beaker on a hot plate. All calibrations wereprepared in 2% HNO 3/0.5% HCl v/v as described in the method.Analytical methodA standard Agilent 7700x ICP-MS with Micromist nebulizer and optional ISIS-DS was used. HMI aerosol dilution was set to medium, using the MassHunter ICP-MS software to automatically optimize the plasma parameters and robustness (CeO +/Ce + ratio ~0.2%). MassHunter uses HMI optimization algorithms that take into account the type of nebulizer used, to ensure reproducible conditions from run to run and from instrument to instrument. Operating parameters are shown in Table 1.Table 1. Instrument parameters used, illustrating simple, consistentHMI modeRobust plasma, medium aerosol dilutionForward RF power (W)1550Carrier gas flow (L/min)0.56Dilution gas flow (L/min)0.33Extraction lens 1 (V)0Kinetic energy discrimination (V)4Cell gas flow (mL/min) 4 (He)4 (H 2)Acquisition conditions Number of isotopes (including ISTDs)253Number of replicates 3Total acquisition time (s)80 (total for both ORS modes)ISIS parameters Sample loop volume (μL)600Online dilution factor1:2due to the very high dissolved solids levels and potential interferences from matrix-based polyatomic ions. Furthermore, FGD wastewater can vary significantly from plant to plant depending on the type and capacity of the boiler and scrubber, the type of FGD process used, and the composition of the coal, limestone and make-up water used. As a result, FGD wastewater represents the most challenging of samples for ICP-MS; it is very high in elements known to cause matrix interferences, and also highly variable. To address this difficult analytical challenge, in 2009 the EPA commissioned the development of a new ICP-MS method specifically for FGD wastewaters. This method was developed and validated at TestAmerica Laboratories, Inc. using an Agilent 7700x ICP-MS equipped with an Agilent ISIS-DS discrete sampling system.Methods and materialsInstrumentationThe Agilent 7700x ICP-MS with ISIS-DS is uniquely suited to the challenge of developing a simple, robust analytical method for the analysis of regulated metals in uncharacterized high-matrix FGD wastewaters. Three attributes of the 7700x system are particularly critical and work together to enable reliable, routine analysis of large batches of variable high-matrix samples:•Agilent’s unique High Matrix Introduction (HMI) system enables controlled, reproducible aerosol dilution, which increases plasma robustness and significantly reduces exposure of the interface and ion lenses to undissociated sample matrix.•The Octopole Reaction System (ORS 3) operating in helium collision mode eliminates matrix-based polyatomic interferences regardless of sample composition, without the need for time consuming sample-specific or analyte-specific optimization.•The optional ISIS-DS discrete sampling system significantly reduces run time, while further reducing both matrix exposure and carryover.The ORS 3 was operated in two modes: helium collision mode (He mode) for all analytes except selenium, which was measured in hydrogen reaction mode (H 2 mode). Twenty-five masses including internal standards were acquired, with typical integration times of 50 ms per replicate and three replicates per sample. Instrument detection limits (IDLs) were automatically calculated by the MassHunter software, based on the precision of the calibration blank measurement and the slope of the calibration plots (Table 2). Method detection limits (MDLs) (3σ) were calculated from 7 replicate analyses of a low-level spike of the synthetic FGD matrix solution.Cr 520.05He Sc 0.17-Mn 550.05He Sc 0.440.68Ni 600.05He Sc 0.170.45Cu 630.05He Sc 0.150.48Zn 660.05He Ge 0.94 2.04As 750.1He Ge 0.490.61Se 780.05H 2Ge 0.080.31Ag 1070.05He In 0.020.29Cd 1110.05He In 0.190.59Sb 1210.05He In 0.050.36Tl 2050.05He Ho 0.020.23Pb2080.05HeHo0.030.36* MDL calculated as 3σ of low-level spike into synthetic FGD matrix sample (n=7). MDL not calculated for chromium due to significant contamination in the synthetic FGD matrix solution. Additional isotopes were acquired for internal confirmation, but not reported.Quality controlThe quality control used for the new FGD wastewater method was based on the typical protocols used in other EPA methods. Prior to commissioning for routine operation, initial method validation requires determination of method detection limits, linear ranges, and analysis of multiple, single-element interference check solutions, to assess the effectiveness ofpolyatomic interference removal under the collision/reaction cell conditions used in the method. In routine use, daily quality control in a typical analytical sequence includes the analyses outlined in Table 3.The FGD wastewater method requires the analysis of two new QC samples: a synthetic FGD matrix sample and a fortified FGD matrix sample.Prior to preparing the synthetic FGD matrix samples, each potential matrix component was analyzed as a separate single-element standard, in order to determine the source and magnitude of any potential contaminants and the effectiveness of He mode atremoving matrix-based interferences. Results are shown in Table 4. Nearly all contaminants and interferences were sub-ppb. The most significant contaminants were Cr, Ni and Zn in the 10,000 ppm Ca solution, confirmed by measuring secondary or qualifier isotopes for the analytes. Approximately 2 ppb of V was detected in the 10% HCl solution. This was either due to contamination, a small residual interference from 35Cl 16O, or acombination of the two, but at less than 2 ppb it did not present a problem for this analysis.After each matrix component was characterized individually, a mixed synthetic FGD solution was prepared with the composition shown in Table 5, together with a second solution with the same matrix components but additionally spiked with all the analyte elements at 40 ppb. These new FGD matrix samples are analogous to the interference check solutionsICS-A and ICS-AB required by EPA method 6020, except the synthetic FGD samples are much higher in total dissolved solids (TDS) than the ICS-A and AB solutions, and contain those matrix elements that are commonly high in actual FGD samples. The detailed composition of the FGD matrix samples, which contain a total of >1% (10,000 ppm) TDS, is listed in Table 5, and results from the analysis of the synthetic FGD matrix blank and synthetic FGD matrix spike are shown in Table 6.Table 3. Typical FGD analytical sequence including all required quality control. ICV: Initial Calibration Verification, ICB: Initial Calibration Blank,CCV: Continuing Calibration Verification, CCB: Continuing Calibration Blank, LCS: Laboratory Control Sample, MS/MSD: Matrix Spike/Matrix Spike DuplicateTable 4. Initial demonstration of interference removal in single-element matrix solutions. Analyte concentrations (ppb) for each matrix (sum of analyte52 Cr0.7710.0000.17155 Mn0.0190.1370.64760 Ni 1.1150.7400.07863 Cu-0.0950.1870.17866 Zn 2.7060.160-0.12675 As0.689-0.1540.27178 Se0.0290.2130.320107 Ag0.0120.0400.002111 Cd-0.005-0.031-0.044121 Sb0.6560.0280.542205 Tl0.0620.013-0.003208 Pb0.0580.1350.037Table 5. Composition of synthetic FGD matrix sample. Laboratory fortified synthetic FGD sample is spiked with 40 ppb of each of the target elementsCalcium2000 mg/LMagnesium1000 mg/LSulfate2000 mg/LSodium1000 mg/LButanol 2 mL/LTable 6. Analysis of mixed matrix FGD interference check sample and spiked52 Cr12.699*96.6%0.01548.8510.11755 Mn-0.10194.3%-0.32848.4350.10060 Ni0.24788.4%-0.00948.5350.15463 Cu0.09491.6%0.09647.3160.11566 Zn 3.18186.1%-0.30249.8040.10075 As0.107110.0%-0.04348.2050.00978 Se0.538120.2%-0.14449.6050.186 107 Ag0.14594.3%0.01047.6320.003 111 Cd0.03998.9%-0.01748.6950.017 121 Sb0.18198.4%0.01550.8060.031 205 Tl0.02190.3%0.00048.1080.008 208 Pb0.43692.1%0.00348.3810.008* Cr contamination verified by secondary isotope.ResultsInitial performance verification indicated that the 7700x with HMI was able to analyze the very high matrix samples, and He mode successfully eliminated matrix-based spectroscopic interferences, while the use of ISIS-DS helped to minimize memory effects (Table 6). Accuracy, both in terms of calibration stability (CCV) and for spike recoveries in the matrix (spiked FGD solution), were well within the standard operating procedure (SOP) requirements (CCV ± 15%, matrix spike recoveries ± 30%).When running real FGD samples in a long sequence, continuing instrument performance must be monitored according to typical EPA criteria. Each group of 10 samples must include one laboratory control sample (LCS) of known concentration, and one matrix spike/ matrix spike duplicate (MS/MSD) pair in addition to 7 unknown samples.After each block of 10 samples, calibration and blank levels were verified through the analysis of a CCV and CCB standard (Figure 1). Additionally, internal standards were monitored for all samples and easily met the requirement to fall within 60 to 125% of the intensity measured in the calibration blank (Figure 2). Internal standard recoveries provide information on sample-specific matrix effects as well as longterm instrument drift.Figure 1. CCV recoveries over a sequence of 88 analyses including real FGD samples, all required QC samples and synthetic FGD matrix samples. Control limits (85–115%) are indicated in red.Internal standard recoveries for the 88 sample validation sequence are shown in Figure 2. All samples met the ISTD QC requirements of 60 to 125% recovery and total instrument drift over the course of the sequence was less than 10% as indicated by the ISTD response for the final CCV sample.In the complete sequence, a total of six MS/MSD pairs were analyzed and the relative percent difference (RPD) calculated for each pair is shown in Table 7. The method limit for RPD is < 20% which includes both measurement and sample preparation errors. Only silver proved to be problematic late in the sequence, most likely due to chemical stability/solubility problems in samples containing high and variable levels of chloride.Figure 2. Internal standard recoveries for entire 88 sample sequence. Control limits (60–125%) are indicated by red dashed lines.Table 7. Matrix spike (MS) and matrix spike duplicate (MSD) results and relative percent differences (RPD) for the sequence of 88 analyses. Spike concentrationwas 20 ppb except silver, which was 5 ppb.51 V21.4321.99 2.6%22.2021.85-1.6%21.3122.08 3.6%52 Cr20.0820.190.5%20.9519.55-6.7%20.4420.15-1.4%55 Mn5093.085097.500.1%5060.455121.08 1.2%5444.415340.90-1.9%60 Ni25.1720.08-20.2%19.0023.0721.4%20.5319.39-5.5%63 Cu19.2619.53 1.4%19.4518.73-3.7%19.2219.230.1%66 Zn21.4421.27-0.8%20.4721.73 6.1%21.0218.23-13.3%75 As25.7122.84-11.2%24.0724.080.0%24.1822.80-5.7%107 Ag 6.02 2.87-52.3% 5.758.3044.3% 5.22 6.0215.2%111 Cd17.6920.0613.4%17.4818.19 4.0%19.0018.71-1.5%121 Sb21.4222.69 5.9%21.6121.650.2%22.3821.82-2.5%205 Tl20.7920.45-1.7%20.4420.540.5%21.0820.53-2.6%208 Pb19.4019.62 1.1%19.4719.73 1.3%19.3019.27-0.2%ConclusionsFlue gas desulfurization (FGD) wastewater samples are extremely challenging due to their high and variable matrix composition and the fact that most of the required analytes can suffer from overlap from matrix-based polyatomic interferences. However, the new EPA method development and validation has demonstrated that these difficult sample matrices can be routinely analyzed for trace metal contaminants using the Agilent 7700x ICP-MS with optional ISIS-DS discrete sampling accessory.Based on extensive initial validation and strict ongoing EPA mandated quality control, the new method has been shown to be simple, robust, and reliable. Using the combined advantages of a highly robust plasma, HMI aerosol dilution, helium collision mode to eliminate interferences, and discrete sampling, this method has achieved performance comparable to that normally expected when analyzing much simpler samples such as waters and soil digests.References1. Technical Support Document for the Preliminary 2010 Effluent Guidelines Program Plan, 40 CFR Part 423.10, NoteResults presented in this document were obtained using the 7700x ICP-MS, but performance is also validated for the 7800 ICP-MS.Agilent shall not be liable for errors contained herein or for incidental or consequential damages in connection with the furnishing, performance or use of this material.Information, descriptions, and specifications in this publication are subject to change without notice.© Agilent Technologies, Inc. 2015Published June 1, 2015Publication number: 5990-8114EN。
小型化 模组化工控机介绍 -陈俊

2 Expansion Slots IPC AiMC-3201 Key Features
AiMC-3201
▪ H81 PCH ▪ Support Core i7/i5/i3 Desktop CPU ▪ DDR3 1066/1333/1600 Max 16GB ▪ One PCIe x16 & One PCIe x1 Expansion Slot ▪ Two GbE ports ▪ 4 USB, 2 PS/2 ports, 2 COM ▪ 80Plus 250Watt PSU ▪ 0~40 degree operating temperature ▪ Dimension (WxHxD): 232 x 90 x 232 mm
Q3’16
Module 2-slot Width 4-slot Width
MIC-75M13
• 1 PCIEx16/ 3 PCI • 1 2.5” HDD
•Optional FAN module Q1’16
MIC-75M40
• 1 PCIEx8/ 3 PCIEx4 • 1 2.5” HDD
•Optional FAN module Q2’16
AiMC-2100
• Intel Ivy Bridge/ QM77 •1 PCIe x16 slot
AiMC-3422 Q2’16
• Intel Skylake CPUs • H107 • DDR4 Max 32GB • 1 PCIex16, 1 PCIex1 , 2 PCI slots*
AiMC-3202 Q2’16
Planning
Conceptual
Fanless
AiMC-55M13 4-slot Module
Fan-base System
研华工控机选型手册简介

1. RS-232 COM 端口 x3
7. 电源开关
2. RS-232/422/485 COM 端口 8. 10/100B-T Ethernet
3. USB2.0 Host x 2
9. CF卡
4. PCI-104 槽
10. PS/2 x 2
5. 保险丝
11. 并口
6. 电源插口
4
5 10 3 8 11
专为运行 Windows® CE 而设计
采用相同LCD尺寸,都使用相同的外壳设计,同时使用相同的开 口尺寸。
丰富的 I/O 接口选项,包括串口、以太网端口和一个CAN 总线 端口,具有无线功能。
多个串口和以太网端口
CF 卡安装: 易于插拔,用于 外部存储
支持 Windows® CE 4.2/5.0
9
9
7
62
1
X86系统15”触摸式平板电脑(TPC)
TPC-1570H 系列
带有15”XGA TFT LCD 的Intel Celeron M 触摸式平板电脑(TPC)
1. RS-232 COM 端口 x 2 2. RS-232/422/485 COM 端口 3. VGA 4. USB2.0 Host x 2 5. 保险丝 6. 电源插口 7. 电源开关
4
触摸式平板电脑(TPC)概述
无风扇系统结构
无风扇系统: 整体采用无旋转机械部件(无风 扇)大幅提高系统可靠度。这种系统易于维护, 无需更换风扇滤网,使用低功耗 CPU和经过精 密计算与验证的整体散热结构进行散热。
符合 NEMA4 / IP65 标准
成熟工业设计
TPC 设计非常适合于工业应用。 该系列产品前 面板符合 NEMA4/ IP65 防护标准,使用满足工 业需求的 18~32VDC 电源范围此外,当用于电 源保护的保险丝损坏后可以非常方便的进行更 换。
7700计算机组态

计算机组态说明一、双击PCmonitor.exe文件启动组态软件,进入密码页面:点击上图的修改密码出现下图:可以输入任何文字或字符作为密码。
初始密码是“1”.二、进入运行模式选择:如果选择7750模块的话,出现如下界面:然后点击“OK”,如果没有通过网络联机的话出现如下提示:通过网络联机后出现如左窗口,中间网络连接标志的图标是连接,表示正常连接。
如果没有连接的话,中间网络连接标志的图标是断开,表示没有连接。
点击“进入”。
硬件设备的初始IP地址是:192.168.0.8。
Channel 1、Channe2、Channe3、Channe4,实时显示各通道信息:仪表类型:包括Vibration、Position、Speed。
重新参数设置并下载后,上位机和仪表的类型参数便可统一。
Value:数据的实测数值。
小数点后三位有效数字。
Transducer status:显示传感器是否工作正常。
Gap:显示使用者观察用直流值,小数点后三位有效数字。
4-20mA output:显示仪表输出的4-20mA值,小数点后三位有效数字。
Alert:显示警告继电器状态,超出警告门限则报警,并弹出复位按钮。
Danger:显示危险继电器状态,超出危险门限则报警,并弹出复位按钮Relay:如果继电器跳闸的话,且该通道设置的“Latching”参数值是“YES”的话,则只能通过手动点击相应的“Reset”按钮才能复位继电器。
如果“Latched”值是“NO”,则当下位机设备检测到报警已经清除的话会自动复位该继电器。
Relay state:显示7个继电器的工作状态,如果处在“Failsafe”状态下,正常工作状态是下排的红色灯亮,继电器动作时下排的红色灯灭而上排绿色灯闪烁。
如果处在“非Nof ailsafe”状态下,除0号继电器意外(系统继电器只有安全模式),正常工作状态是上排的绿色灯亮,继电器动作时上排的绿色灯灭而下排的红色灯闪烁。
研华工控机型号大全_研华工控机选型

研华工控机型号大全_研华工控机选型随着工业4.0时代的到来,工控机已经广泛应用于冶金、交通、金融、制造业和军工等众多领域。
本文首先介绍了研华工控机的特点及优势,其次阐述了研华工控机常用的型号,最后介绍了研华工控机选型的方法,具体的跟随小编一起来了解一下。
什么是工控机工控机(Industrial Personal Computer,IPC)即工业控制计算机,是一种采用总线结构,对生产过程及机电设备、工艺装备进行检测与控制的工具总称。
工控机具有重要的计算机属性和特征,如具有计算机CPU、硬盘、内存、外设及接口,并有操作系统、控制网络和协议、计算能力、友好的人机界面。
工控行业的产品和技术非常特殊,属于中间产品,是为其他各行业提供可靠、嵌入式、智能化的工业计算机。
研华工控机是全球电子平台服务的领导厂商,中国台湾企业,自1983年创立以来,研华致力于工业计算机和自动化领域的创新,发展和提供高品质/高性能电子产品和服务。
经过20年的发展,研华在电子平台服务市场积累了丰富的经验,并引领工业发展方向,为全球用户提供全套硬件/软件/客户服务/全球后台支持和电子商务基础设施等解决方案。
研华将坚持不懈的协助系统集成商实现自身解决方案和服务的增值。
为工厂自动化、交通、能源、医疗、物流等领域提供完整解决方案。
研华工控机的特点1、研华工控机90%具有超强的长时间工作能力。
2、研华工控机的机箱采用钢结构,有较高的防磁、防尘、防冲击的能力。
3、机箱内有专门电源,电源有较强的抗干扰能力。
4、研华工控机的机箱内有专用底板,底板上有PCI和ISA插槽。
5、一般采用便于安装的标准机箱(4U标准机箱较为常见)。
研华工控机的优势1、可靠性:工业PC具有在粉尘、烟雾、高/低温、潮湿、震动、腐蚀和快速诊断和可维护性。
2、实时性:工业PC对工业生产过程进行实时在线检测与控制,对工作状况的变化给予快速响应,及。
研祥工控特种计算机CPC-8204B-中英文说明书-C00

特种计算机Industrial Computer产品说明书User ManualCPC-8204B2U高4槽 6U板卡CPCI系统2U 4-slot CPCI System with 6U BoardVersion: C00法律资讯警告提示为了您的人身安全以及避免财产损失,必须注意本手册中的提示。
人身安全的提示用一个警告三角表示,仅与财产损失有关的提示不带警告三角。
警告提示根据危险等级由高到低如下表示。
危险表示如果不采取相应的小心措施,将会导致死亡或者严重的人身伤害。
警告表示如果不采取相应的小心措施,可能导致死亡或者严重的人身伤害。
小心带有警告三角,表示如果不采取相应的小心措施,可能导致轻微的人身伤害。
注意表示如果不注意相应的提示,可能会出现不希望的结果或状态。
合格的专业人员本文件所属的产品/系统只允许由符合各项工作要求的合格人员进行操作。
其操作必须遵照各自附带的文件说明,特别是其中的安全及警告提示。
由于具备相关培训及经验,合格人员可以察觉本产品/系统的风险,并避免可能的危险。
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如果要使用其他公司的产品和组件,必须得到EVOC推荐和允许。
正确的运输、储存、组装、装配、安装、调试、操作和维护是产品安全、正常运行的前提。
必须保证允许的环境条件。
必须注意相关文件中的提示。
免责声明本公司保留对此手册更改的权利,产品后续相关变更时,恕不另行通知。
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产品型号T-7700

7、具有 3.5mm 耳机接口、3.5mm 话筒输入接口。
8、具有短路输出接口、短路输入接口。
9、支持通过后台对终端进行远程升级。
10、信噪比≥65dB,总偕波失真≤1%,LIEN OUT 频率响应:80Hz~
16KHz,输出电平:1000mV。
其它配套设备
产品型号:T-7707
1、设备壁挂式设计,设备采用嵌入式计算机技术和 DSP 音频处
2、可以指定一个话筒具有最高优先、强行切入优先功能,其和
广州市保
前置放 EMC 最高优先权限功能可交替选择; 1
大器 3、4 路紧急输入线路具有二级优先,强行切入优先功能;
伦电子有
itc
1500 1 台 1500 无
限公司
4、所有 MIC 输入 和 2 路紧急输入(EMC)通道均附设有线路辅
(广州)
序 货物名 号称
技术规格、型号
制造商
品牌
单价
(产地)
一、广播中心机房主控设备
主机服务器
产品型号:T-7700
1、采用工业级工控机机箱设计,具有 15 英寸 LED 液晶显示屏,
支持触摸控制屏;服务器要求运载 windows server 操作系统。
2、支持 1 路短路触发开机接口,用于实现定时驱动开机运行。
2.大屏幕液晶显示屏,图形化界面,操作简单。可显示所有被
控制电源状态指示、日期、星期、时间、下一步程序的信息等。
广州市保
智能控 3.具备钟声输出接口,报警短路信号输入接口。 2
制主机 4.具备触发控制短路信号输出接口,可触发报警器等设备。
伦电子有
itc
3000 1 台 3000 无
限公司
5.设有短路触发输出接口,可控制十六位电源时序器开关,扩
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