电位器3296W规格书.PDF
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Philips Semiconductors Product specificationDamper diode BY329X-1500, BY329X-1500Sfast, high-voltageFEATURESSYMBOL QUICK REFERENCE DATA• Low forward volt drop • Fast switching• Soft recovery characteristic• High thermal cycling performance • Isolated mounting tabGENERAL DESCRIPTIONPINNINGSOD113Glass-passivated double diffused PIN DESCRIPTION rectifier diode featuring low forward voltage drop,fast reverse recovery 1anode and soft recovery characteristic.The device is intended for use in TV 2cathode receivers and PC monitors.tabisolatedThe BY329X series is supplied in the conventional leaded SOD113package.LIMITING VALUESLimiting values in accordance with the Absolute Maximum System (IEC 134).SYMBOL PARAMETER CONDITIONSMIN.MAX.UNIT V RSM Peak non-repetitive reverse -1500V voltageV RRM Peak repetitive reverse -1500V voltageV RWM Crest working reverse voltage -1300V BY329X-1500-1500S I F(peak)Peak working forward current f = 16 kHz -6-A f = 70 kHz--6A I FRM Peak repetitive forward t = 25 µs; δ = 0.5; T hs ≤ 86 ˚C -14A currentI F(RMS)RMS forward current-11A I FSM Peak non-repetitive forward t = 10 ms-75A currentsinusoidal; T j = 150 ˚C prior to surge; with reapplied V RWM(max)T stg Storage temperature -40150˚C T jOperating junction -150˚Ctemperature12casePhilips Semiconductors Product specification Damper diode BY329X-1500, BY329X-1500S fast, high-voltageISOLATION LIMITING VALUE & CHARACTERISTICThs= 25 ˚C unless otherwise specifiedSYMBOL PARAMETER CONDITIONS MIN.TYP.MAX.UNITVisol R.M.S. isolation voltage from f = 50-60 Hz; sinusoidal-2500V both terminals to external waveform;heatsink R.H. ≤ 65% ; clean and dustfreeCisol Capacitance from both terminals f = 1 MHz-10-pF to external heatsinkTHERMAL RESISTANCESSYMBOL PARAMETER CONDITIONS MIN.TYP.MAX.UNITRth j-hs Thermal resistance junction to with heatsink compound-- 4.8K/W heatsink without heatsink compound-- 5.9K/WRth j-a Thermal resistance junction to in free air.-55-K/W ambientSTATIC CHARACTERISTICSTj= 25 ˚C unless otherwise statedSYMBOL PARAMETER CONDITIONS TYP.MAX.UNITBY329X-15001500S15001500SVF Forward voltage IF= 6.5 A 1.1 1.3 1.45 1.6VIF= 6.5 A; Tj= 125 ˚C 1.05 1.2 1.35 1.5VI R Reverse current VR= 1300 V-250-250µAVR= 1300 V; Tj= 125 ˚C-1-1mADYNAMIC CHARACTERISTICSTj= 25 ˚C unless otherwise statedSYMBOL PARAMETER CONDITIONS TYP.MAX.UNITBY329X15001500S15001500St rr Reverse recovery time IF= 1 A; VR≥ 30 V;0.180.130.230.16µsdIF/dt = 50A/µsQs Reverse recovery charge IF= 2 A; -dIF/dt = 20 A/µs 1.60.7 2.00.95µCVfr Peak forward recovery voltage IF= 6.5A; dIF/dt = 50A/µs1*******Vt fr Forward recovery time IF= 6.5A; dIF/dt = 50A/µs210220300320nsPhilips Semiconductors Product specificationDamper diode BY329X-1500, BY329X-1500Sfast, high-voltagePhilips Semiconductors Product specificationDamper diode BY329X-1500, BY329X-1500Sfast, high-voltagePhilips Semiconductors Product specificationDamper diode BY329X-1500, BY329X-1500Sfast, high-voltageMECHANICAL DATA1. Refer to mounting instructions for F-pack envelopes.2. Epoxy meets UL94 V0 at 1/8".Philips Semiconductors Product specification Damper diode BY329X-1500, BY329X-1500S fast, high-voltageDEFINITIONSData sheet statusObjective specification This data sheet contains target or goal specifications for product development. Preliminary specification This data sheet contains preliminary data; supplementary data may be published later. Product specification This data sheet contains final product specifications.Limiting valuesLimiting values are given in accordance with the Absolute Maximum Rating System (IEC 134). Stress above one or more of the limiting values may cause permanent damage to the device. These are stress ratings only and operation of the device at these or at any other conditions above those given in the Characteristics sections ofthis specification is not implied. Exposure to limiting values for extended periods may affect device reliability. Application informationWhere application information is given, it is advisory and does not form part of the specification.© Philips Electronics N.V. 1998All rights are reserved. Reproduction in whole or in part is prohibited without the prior written consent of the copyright owner.The information presented in this document does not form part of any quotation or contract, it is believed to be accurate and reliable and may be changed without notice. No liability will be accepted by the publisher for any consequence of its use. Publication thereof does not convey nor imply any license under patent or other industrial or intellectual property rights.LIFE SUPPORT APPLICATIONSThese products are not designed for use in life support appliances, devices or systems where malfunction of these products can be reasonably expected to result in personal injury. Philips customers using or selling these products for use in such applications do so at their own risk and agree to fully indemnify Philips for any damages resulting from such improper use or sale.分销商库存信息:NXPBY329X-1500S,127BY329X-1500,127。
3296w电位器是一种常见的电子元件,具有调节电阻值的功能。
然而,在使用一段时间后,一些用户发现电位器的电阻值会变化,导致电路性能下降。
本文将从深度和广度的角度对这一问题进行全面评估,并提供解决方案。
一、电位器的基本原理电位器是一种用于调节电阻值的被动元件,通常由固定电阻体和可移动接触器组成。
通过旋转可移动接触器,可以改变电路中的电阻值,从而调节电路的性能。
3296w电位器是一种常用的多圈电位器,具有较高的分辨率和稳定性。
二、电位器变化的原因1. 机械磨损:长时间的旋转和摩擦会导致电位器内部的机械零件磨损,使得接触不良,进而影响电阻值的稳定性。
2. 环境因素:温度、湿度等环境因素的变化会对电位器的材料和内部结构产生影响,从而导致电阻值的漂移。
3. 电流作用:大电流经过电位器时,会产生热量并影响电位器内部结构,进而引起电阻值的变化。
三、解决方案1. 选择高质量的电位器,例如采用金属膜电位器代替碳膜电位器,以提高耐磨损性和稳定性。
2. 定期清洁和润滑电位器的机械部件,以减少磨损和摩擦。
3. 控制环境因素,避免电位器长时间处于高温、潮湿等恶劣环境中。
4. 在设计电路时,合理规划电位器的使用范围和额定功率,避免大电流对电位器的影响。
个人观点电位器变化是一个常见但也比较棘手的问题,影响电路性能和稳定性。
为了解决这一问题,除了选用高质量的电位器和控制环境因素外,我认为在电路设计和使用过程中,合理规划和使用电位器也非常重要。
只有全面考虑各种因素,才能更好地解决电位器变化的问题。
总结回顾通过对电位器的基本原理和变化原因进行分析,我们可以看到电位器变化是一个综合影响因素的问题。
要解决这一问题,需要从多个方面综合考虑,并采取相应的措施。
在实际应用中,我们应该重视电位器的选择和使用,以确保电路性能和稳定性。
希望本文的内容对读者有所启发,能够更好地理解和解决电位器变化的问题。
一、电位器的基本原理电位器是一种被动元件,可用于调节电阻值。
16型电位器是一种常见的电子元件,用于调节电压、电流等参数。
其参数如下:1. 阻值范围:电位器的阻值范围通常是从几欧姆到几百千欧不等。
根据具体型号和用途,会有不同的阻值选择。
2. 旋转角度:阻值变化与电位器旋转角度成线性关系,通常会标出不同角度下的阻值变化曲线。
3. 机械特性:包括噪声、扭矩、摩擦和寿命等。
扭矩是指电位器旋转所需的力量,摩擦则是指旋转过程中电位器件之间的实际接触面和中间滑轨之间的实际接触面所产生的阻力。
4. 电气特性:包括电阻温度系数、绝缘性能、噪声系数等。
5. 外观尺寸:16型电位器通常具有标准的16mm直径和3mm深度的主体。
主体和刷子组成的总高度也有一定的标准规格。
6. 旋转方式:一般为轴心径向旋转。
7. 接触情况:确保触点接触良好,以确保可靠的工作。
8. 声音特性:优良的电位器需要具备良好的接触,同时发出的声音要清脆,无杂音。
9. 耐腐蚀特性:某些电位器会暴露在空气中,可能会受到腐蚀性物质的影响,因此需要具有良好的耐腐蚀性。
在选择和使用电位器时,需要遵循以下步骤:1. 根据电路要求选择合适的电位器类型(如直线式电位器、旋转式电位器等)、阻值范围、阻值精度、机械特性和电气特性等参数。
2. 将电位器安装到电路中,确保其固定位置和旋转角度符合要求。
3. 在使用过程中,应注意不要过度用力旋转,避免损坏电位器。
4. 使用完毕后,应及时清理电位器上的污垢,保持其清洁状态。
5. 定期检查电位器的接触情况,如有异常应及时处理。
总之,16型电位器是一种重要的电子元件,其参数多样且重要,在使用过程中需要遵循相应的步骤,以确保其正常工作。
a103电位器规格书A103电位器规格书一、引言A103电位器是一种常见的电子元件,常用于电路中的信号调节和电压分压。
本规格书将详细介绍A103电位器的特性、规格及应用范围,以帮助用户了解并正确使用该电位器。
二、产品特性1. 高精度:A103电位器具有高精度的电阻分配,能够实现精确的电路调节。
2. 稳定性:该电位器采用优质材料制造,具有优异的温度稳定性和长期稳定性,能够在不同环境条件下保持较好的性能。
3. 耐久性:A103电位器的旋转轴、端子和外壳均采用耐磨耐腐蚀的材料制成,能够经受长时间的使用和频繁的调节操作。
4. 多种阻值可选:根据不同的应用需求,A103电位器提供多种阻值可选,满足不同电路的调节要求。
5. 可调范围广:该电位器的调节范围广泛,可满足各种电路对信号强度或电压的要求。
三、规格参数1. 阻值范围:A103电位器的阻值范围为100欧姆至1兆欧姆,可根据用户需求定制。
2. 阻值精度:该电位器的阻值精度通常为±10%。
3. 温度系数:A103电位器的温度系数为±100ppm/℃,能够在不同温度下保持较稳定的性能。
4. 额定功率:该电位器的额定功率为0.1瓦特,能够在正常工作条件下承受一定的功率负载。
四、应用范围1. 音频设备:A103电位器常用于音频设备中,如音响、收音机、调音台等,用于调节音量大小和音调。
2. 显像设备:该电位器也广泛应用于显像设备中,如电视机、显示器等,用于调节亮度和对比度。
3. 电源调节:A103电位器可用于电源调节电路中,通过调节输出电压来满足不同电路的电压要求。
4. 测量仪器:该电位器还可用于测量仪器中,用于调节测量范围或灵敏度。
五、使用注意事项1. 安装方向:安装A103电位器时,应注意旋转轴的方向,确保旋转操作与设备操作一致。
2. 防尘防湿:使用过程中,应避免将电位器暴露在灰尘或湿气环境中,以免影响性能。
3. 避免过载:应避免超过A103电位器的额定功率,以免造成烧毁或损坏。
物料承认书APPROV AL SHEET品名规格/PART NAME 微调电位器3296W生产商/MANUFACTUERE:成都国盛科技有限公司供应商/VENDOR:成都国盛科技有限公司供应商地址/ADD:成都市郫县现代工业港南区和港路29号供应商电话/TEL:************供应商传真/FAX:************承认书编号/FILE NO.版本/VER:承认书页数/PAGE:5页成都国盛科技有限公司3296W型玻璃釉预调电位器技术承认书电气特性Electrical Characteristcs标称阻值范围(Range of normal resistance):50Ω-2M阻值允许偏差(Resistance tolerance):±10%终端电阻(Termial resistance):≤5%R或5Ω接触电阻变化(Contact resistance variation):CRV≤5%或5Ω耐电压(Winthstand Voltage):640Vac绝缘电阻(Insulation resistance):Ri≥1G(100Vdc)有效电行程(Effective electrical travel):>总机械行程的70%(>70%of total mechanical travel)极限动触点电流(Limit current of moving comtact):100mA环境特性Environment Characteristics额定功率(Rated Power)(315V max):0.5W70℃,0W125℃温度范围(Temperature range):-55℃——+125℃温度系数(TCR):±250ppm/℃温度变化(Temperature variation):-55℃,30min,+125℃,30min循环5次ΔR≤5%R,Δ(Uab/Uac)≤±5%振动(Vibration):10-500Hz,0.75mm,6h电气间断(electrical interruption):≤100/usΔR≤5%R,Δ(Uab/Uac)≤±7.5%碰撞(Collision):390m/S2,4000次ΔR≤5%R气候顺序(Climate category):IEC68-2-2等(meet IEC68-2-2etc)ΔR≤10%R,R1≥100MΩ70℃电气耐久性(Electrical endurance at70℃):0.5W,1000hΔR≤10%R CRV≤3%R或5Ω恒定湿热(Steady damp-heat):IEC68-2-3,Ca,96hΔR≤10%R,R1≥100MΩ物理特性Physical Characteristics总机械行程(Total Mechanical Travel):30±2圈(30±2turns)起动力矩(Staring Torque):≤30mN.m标准包装(Standard Packaging):50只/管(50pcs.per tube)标志(Mark):阻值允许偏差(10%不标注)、阻值代码、产品型号Resistance tolerance(when no identification,it is of±10%)resistance code type3296W系列电位器命名规则:3296-W-502±10%产品型号引出方式阻值代码阻值精度标称阻值代码对照表阻值(Ω)阻值代码备注10100低阻部分20200505001001012002015005011,0001022,0002025,00050210,00010320,00020325,00025350,000503100,000104200,000204250,000254500,0005041,000,0001052,000,0002055,000,000505高阻部分注:除以上阻值外,其余全为非标称阻值3296W系列产品尺寸图:。
3296W部分参数顶部调整3296W 系列Bourns 3296 系列方形电阻微调电位计具有细长主体外形,采用密封设计,可耐受浸泡式板冲洗。
它还具有的较大的螺旋槽,更易于调整。
模制主体,带有内置支架。
温度范围:55 °C 至+125 °C### 特点多转/金属陶瓷/工业/密封5 种端子类型Chevron 密封设计提供带装和卷装额定功率| 0.5W | 工作温度| -55 至150°C---|---|---|---电压最大值| 300 V | 末端电阻| 2Ω 最大值有效移距(标称)| 标准25 转| 触点电阻变化| 1% 或1Ω(以较大值为准)电阻容差| ±10% | 线性或者对数| 线性温度系数| ±100ppm/°C | 引线间距| 2.54mm工作扭矩| 35 mNm | 引脚| 0.51 x 0.03mm旋转寿命| 200 个周期| 尺寸| 10 x 9.52 x 4.83mm功率| 0.5W | 工作温度| -55 → +125°C---|---|---|---有效移距(标称)| 25 转| 触点电阻变化(最大值)| 1% 或1Ω(以较大值为准)电阻容差| ±10% | 尺寸(垂直类型W Y 和X)| 10 x 9.52 x 4.83mm电压最大值| 300 V | 尺寸(水平类型P)| 4.83 x 9.52 x 10.03mm温度系数| 0 to +250ppm/°C (<100Ω), ±100ppm/°C (>100Ω) | 引线间距| 2.54mm末端电阻| 2 Ω | 引脚| 0.51 ± 0.03 mm工作扭矩| 35 mNm | 线性或者对数| 线性旋转寿命| 200 个周期| |。
ERP物料命名规则及示例-电子及电气连接类本规则覆盖电子类物料和电气连接类物料。
电子类物料包含所有有源电子元件、无源电子元件、模块、电源等。
电气连接类物料包含各种接插件、接线端子、线头端子、各种导线等。
物料名称与物料描述遵循简洁、实用的原则,尽量减少字节数,以方便书写。
物料描述信息除特殊要求外,一般不包含供应商信息。
1 电子类物料编制:审核:批准:1.1.1 电阻器件小类命名及描述示例:(K=103,M=106,W=瓦)电阻-碳膜 100R 5% 0.25W 编带电阻-碳膜 1K 5% 2W 编带电阻-金属膜0.33R 1% 2W 编带电阻-金属膜1K 1% 0.5W 编带电阻-锰铜0.01R 1% φ1.5 脚距10电阻-康铜0.01R 1% φ1.5 脚距10电阻-跳线镀锡铜线φ0.8 脚距10电阻-绕线68R 5% 0.5W 编带电阻-电位器3296W 10K电阻-贴片 3.3R 5% 0603电阻-贴片 3.3K 1% 0603电阻-贴片 3.3M 5% 0805电阻-贴片 3.3R 1% 0805电阻-贴片 3.3K 5% 1206电阻-贴片 3.3M 1% 1206电阻-热敏NTC测温10K 2% B=3380 1% MF52A103G3380F电阻-热敏NTC测温10K 2% B=3900 1% 贴片0805 QN0805X103F3900FB 电阻-热敏NTC功率10R 4A B=2800 φ13 脚距7.5 内弯 MF73T-1 10/4电阻-热敏PTC 1K 200mA 75℃φ6 脚距5 内弯 MZ11A-75HV102NU电阻-压敏470V φ12.5 脚距7.5 脚长4 内弯 10D471K电阻-压敏100V 贴片1206 TG1206ML101K1.2.1 电容器件小类命名及描述示例:(J=5%,K=10%,M=20%,h=小时)电容-电解10uF 25V 85℃ 2000h φ5*11 脚距2 脚长8 90度弯脚电容-电解 4.7uF 400V 105℃ 6000h φ8*12 脚距3.5 CD11GHS 湖南艾华电容-电解-高频低阻 220uF 25V 105℃ 2000h φ6.3*12 脚距2.5电容-电解-高频低阻 470uF 25V 105℃ 2000h φ8*12 脚距3.5 CD110电容-电解-贴装 100uF 16V 105℃ 2000h φ5*8 脚距5电容-电解-贴装 100uF 35V 85℃ 2000h φ6*13 脚距2电容-电解-钽贴片 22uF 10V 1206电容-电解-钽贴片 47uF 16V 1206电容-瓷片 681K 2KV P=10 低损电容-瓷片681K 2KV P=10 普品电容-涤纶224J 100V P=5 CL21电容-涤纶563J 400V P=10 CL11电容-CBB 103J 630V P=10 CBB22电容-CBB 472J 1250V P=15 CBB81电容-安规104K 275VAC P=10 X2电容-安规222M 250VAC P=7.5 Y2电容-独石105K 50V P=5 X7R电容-贴片103K 50V 0805 X7R电容-贴片30P50V 0805 COG电容-贴片106M 25V 1206 Y5V1.3 电磁类器件(电感、滤波器、变压器)命名及描述规则1.3.1 电磁器件小类命名及描述示例:变压器EE19-11-220 4+4针卧式变压器EE13-300-6 4+4针立式加宽型电感-E型EE10A-162 4+4针立式电感-磁环 22uH 1.5线φ27*12 铁硅铝电感-磁环100uH 1.0线φ22*10 黄白环电感-磁环 22uH 1.6线φ27*12 铁粉芯电感-工型100uH 0.45线φ9*12 PC40 短脚4电感-贴装 68uH 0.6线 7*7*4 CDRH74电感-贴装 33uH 0.35线 5*5*5 CD54-330M电感-共模 5mH 0.3线 2+2针 UU9.8电感-色环 100uH 0.5W电感-叠层 100uH 12061.4 过流保护类器件(保险熔断器)命名及描述规则1.4.1 过流保护器件小类命名及描述示例:保险-玻璃保险管1A 250V φ3*10 铜脚编带保险-玻璃保险管20A 250V φ5*20 带脚保险-陶瓷保险管1A 250V φ5*20 不带脚保险-保险管座内腔5*20 开孔12.5 外径15 带帽黑色保险-保险管座5*20保险盒带透明盖插件保险-保险管座5*20保险管夹插件保险-插片保险5A 32V 11*17小号汽车保险保险-插片保险座15*5 脚距3.7+4.3+3.7 小号汽车保险连体座保险-贴片保险5A 250V 2410贴片保险-方形保险1A 250V 8*4*8 脚距5 插件保险-圆柱形保险1A 250V φ8*8 脚距5 插件保险-自恢复保险(PPTC) 0.5A 60V 1812贴片保险-自恢复保险(PPTC) 0.1A 250V φ7.8*4.5 脚距5.1 插件保险-熔断器芯63A 250V φ14*51保险-熔断器座φ14*51 RT18-63X1.5 通断控制类器件(开关、按钮、断路器、继电器)命名及描述规则1.5.1通断控制器件小类命名及描述示例:开关-船型16A 250V 四脚带指示灯红色 KCD4-201开关-钥匙φ12 单拨 2P2.54插头 10cm线长开关-干簧管2*14 常开玻璃封装按钮-方型14*14 1A/250V 常闭自复式红黑色按钮-控制NP4 φ22 平钮 2常开自复绿色 NP4-20BN按钮-轻触6*6*15 立式按钮-轻触6*6*14 卧式按钮-轻触6*6*10 卧式高脚7.5 铜支架按钮-轻触-贴装6*6*15 立式断路器 16A 2位 DZ47S C16断路器32A 2位 DZ47S C32断路器63A 3位 DZ47S C63继电器 3V 0.2W 5A 1开1闭5脚 PZ-T73-03-1C继电器12V 0.9W 30A 1开1闭6脚 SLA-12VDC-SL-C 松乐继电器12V 0.36W 10A 1开1闭5脚 T73继电器12V 5A 1开1闭5脚 T78继电器12V 80A 1开1闭5脚 DH 4141F继电器AC220V 10A 2开2闭 8扁脚 JQX-13F 正泰继电器DC36V 10A 2开2闭 8扁脚 JQX-13F 正泰交流接触器AC220V 10A 3常开主触头 1常开辅触头 CJX2-12101.6 电声类器件(蜂鸣器、喇叭)命名及描述规则1.6.1 电声器件小类命名及描述示例:蜂鸣器-电磁无源85dB 2KHz 42R φ12*9 F:6.5 脚长5.5 蜂鸣器-电磁有源85dB 2.7KHz 5V φ12*9 F:5.0 脚长5.5 蜂鸣器-压电无源85dB 4KHz 5Vp-p φ12*9 F:5.0脚长5.5 蜂鸣器-压电有源85dB 4KHz 5V φ12.5*9.5 F:5.0 脚长5.5 喇叭 8R 0.5W φ40*5.51.7 晶体谐振器命名及描述规则1.7.1 晶体谐振器命名及描述示例:晶振8.0MHz SMD3225贴装晶振8.0MHz 49SM-2.5贴装晶振8.0MHz 49US-3.2插件晶振32.768KHz DT38(D3*L8)插件1.8 二极管类器件(二极管、稳压管、TVS管、桥堆)命名及描述规则1.8.1 二极管小类命名及描述示例:二极管-整流1A 1000V DO-41插件1N4007 铜脚编带二极管-整流1A 1000V SMA贴片 1N4007二极管-快恢复1A 1000V SMA贴片 FR107二极管-超快速1A 400V SMA贴片 ES1G二极管-开关150mA 100V LL34贴装 1N4148二极管-肖特基1A 60V SMA贴片 SS16二极管-肖特基20A 45V TO-220AB插件 SBR2045CT稳压管 5.1V 1W DO-41插件稳压管 5.1V 0.5W LL34贴装TVS管36V 单向 SMA贴片SMAJ36ATVS管36V 双向 SMB贴片SMBJ36CA桥堆0.5A 1000V SOP-4贴片 MB10F1.9 三极管、场效应管、晶闸管类器件命名及描述规则1.9.1 三极管、场效应管、晶闸管类器件小类命名及描述示例:三极管-NPN 100V 6A TO-220插件 TIP41C HFE>50三极管-NPN 40V 3A TO-126插件 D882三极管-PNP 40V 3A TO-126插件 B772三极管-PNP 40V 1.5A TO-92插件 SS8550三极管-NPN 40V 0.5A SOT-23贴片S8050 HFE=200-350 三极管-NPN 40V 3A SOT-89贴片 D882三极管-PNP 40V 0.5A SOT-23贴片 S8550场效应管-N沟道55V 55A TO-220AB插件 CSZ44V场效应管-P沟道55V 12A TO-220AB插件 IRF9Z24N场效应管-N沟道20V 2.3A SOT-23贴片 SI2302场效应管-P沟道30V 25A TO-252-2L贴片 SPP3052晶闸管-单向可控硅晶闸管-双向可控硅晶闸管-IGBT1.10 光电耦合器(光耦)命名及描述规则1.10.1 光电耦合器小类命名及描述示例:光耦-线性PC817C 4脚贴片光耦-线性HCNR200 8脚贴片光耦-非线性4N25 6脚插件光耦-非线性4N35 6脚插件1.11 传感器命名及描述规则1.11.1 传感器小类命名及描述示例:传感器-红外传感PIR D203S TO-5传感器-声音传感(咪头) CZN-15E MIC10 φ12*9 F:5.01.12 集成电路(IC)命名及描述规则1.12.1 集成电路小类命名及描述示例:IC-电源-线性稳压AMS1117-5.0 SOT-223 15V 1AIC-电源-电压基准TL431 SOT-23 40V 0.1A 0.5%IC-电源-AC/DC降压DK912 SOP-8 12WIC-电源-DC/DC升压TX4211 SOT23-6 26V 2AIC-电源-DC/DC降压TD1509-ADJ SOP-8 45V 2AIC-电源-DC/DC升降压MC34063A SOIC-8 40V 1.5AIC-电源-PWM控制TL494 SO-16 42VIC-电源-半桥驱动iT2153S SOP-8L 625VIC-电源-APFC L6562A SO-8 400WIC-电源-同步整流IC-LED驱动-高压BP2831A SOP-8 12W 非隔离IC-LED驱动-高压BP3167F DIP7 24W 隔离IC-LED驱动-低压SY7203 DFN3x3-10 32V 4A BOOSTIC-LED驱动-低压MP24833A SOIC-8EP 57V 3A BOOST/BUCKIC-传感器-红外感应BISS0001 SO-16IC-传感器-红外感应SP012 SOP-8IC-传感器-声光控KU5518 SO-8IC-模拟-AD ICL7135 DIP28 4位双积分IC-模拟-DAIC-模拟-运算放大器TL084C DIP14 8MHz ±18V 四单元IC-模拟-比较器LM339 DIP14 ±18V 四单元IC-数字-逻辑74HC138 SOIC-16 3-8解码器IC-数字-逻辑74HC595 SO16 8位串并移位寄存器IC-通信-串口SP3232E SOP-16 RS-232串行收发器IC-通信-PBUS PB331 SOP-8IC-语音SZY20499_A SOP-8 检验码 7A5CF41.13 单片机命名及描述规则1.13.1 单片机命名及描述示例:单片机TDC01B01S SOP-8 同尤达集电集控照明灯(含冠安授权)单片机TDC01A01S SOP-8 同尤达集电集控标志灯(含启成授权)单片机NY8B062E-ZMD SOP16 启成集电集控照明灯带授权带滚码 50%亮度单片机APM32E103RET6 LQFP-641.14 模块(部件)命名及描述规则1.14.1 模块命名及描述示例:外购部件-开关电源100W 15V NES-100-15外购部件-风扇12V 0.39A 8cm 滚珠轴承 8025外购部件-工控电脑主机系统:WIN7 32位 CPU:1037U 1.8G双核内存:DDR3 1G 型号:GZ-1037外购部件-小键盘迷你有线 USB接口外购部件-USB小音箱DC5V 13.7*9.1*7.4cm 颠屁虫010自制部件-智能网络主控器TDU MC2000自制部件-通讯模块PBUS-SM6912-A自制部件-充放电模块BAT001-A自制部件-显示模块PSM5C31m-A1.15 光源类器件(LED等)命名及描述规则1.15.1 光源类器件小类命名及描述示例:LED-绿光1206贴片 20mA 2.7-2.9V 520-525nmLED-椭圆绿光φ5插件 20mA 2.7-2.9V 520-525nm 白发绿高亮无卡LED-蓝光φ3插件 20mA 2.8-3.3V 465-475nm 白发蓝高亮带卡LED-白光2835贴片 0.2W 2.8-3.3V 20lm 5500-6000KLED-草帽灯珠φ8插件 0.5W 2.8-3.2V 50lm 5500-6000KLED-COB 19*19芯片 7W 300mA 23V 700lm 5500-6000KLED-指示灯φ3*5 绿发绿高亮长脚卡位5LED-指示灯φ3*5 红发红普亮短脚4LED-指示灯φ3*10黄发黄普亮短脚4LED-透镜 5054灯珠透镜角度60信号灯φ22 红光 AC/DC6.3V AD16-22D/S22信号灯φ22 红光 AC/DC6.3V IP65 AD16-22D/S221.16 电池类产品命名及描述规则1.16.1电池产品小类命名及描述示例:电池-镍镉 3.6V 800mAh 品字排带板线长80mm 2P2.54插头图号:xxxxxx 电池-镍镉 2.4V 600mAh 并排带板线长50mm 2P1.27插头图号:xxxxxx 电池-镍氢 1.2V 600mAh 带板线长90mm 2P2.54插头图号:xxxxxx电池-三元锂11.1V 2000mAh 一字排带板线长150mm 2P3.96插头图号:xxxxxx 电池-磷酸铁锂 9.6V 1500mAh 一字排带板线长150mm 2P3.96插头图号:xxxxxx 电池-铅酸12V 33Ah 195*130*155mm 三瑞牌电池-铅酸12V 65Ah 260*168*230mm DJM12-65 理士电池2.电气连接类物料2.1连接器类物料命名及描述规则2.1.1连接器小类命名及描述示例:接线端子-PCB焊接-按压接线4P 3.5 Wago250-204接线端子-PCB焊接-螺钉接线5P 5.0 绿色 XP126接线端子-PCB焊接-螺钉接线3P 7.5 升降式绿色 FS128-750-3P接线端子-PCB焊接-螺钉接线5P 9.5 栏栅式带盖 HB-9500-5P接线端子-螺钉固定-螺钉接线12P 12 带盖孔距153 电流25A TB-2512接线端子-导轨固定-螺钉接线轨距35 间距20 电流60A TBR-60A接线端子-导轨固定-螺钉接线轨距35 间距6.3 电流32A UK2.5B线头端子-UT叉形裸端头4平方开口6 UT4-6线头端子-OT圆形裸端头6平方孔径8 OT6-8线头端子-EN管形裸端头0.75平方长度12 EN7512线头端子-C45鸭嘴端头16平方 C45-16线头端子-螺旋接线帽内径9.7 弹簧螺旋式阻燃橙色 P3线头端子-尼龙压线帽铝环内径4.5 阻燃白色 CE-5接插件-PCB焊接插座6P 1.27 立式贴装接插件-PCB焊接插座5P PH2.0 卧式贴装接插件-PCB焊接插座3P XH2.54 立式插件中空1位带扣接插件-PCB焊接插座3P XH2.54 卧式插件中空1位带扣接插件-PCB焊接插座8P VH3.96 立式贴装接插件-PCB焊接插座6P 2.54 排针座单排立式插件接插件-PCB焊接插座3P 2.0 排针座双排立式贴装接插件-PCB焊接插针6P 2.54 排针单排卧式插件针长11.6接插件-面板固定插座DB9串口母头 9P 弯脚接插件-面板固定插座香蕉插座带接线螺母 M4 长39 纯铜红色接插件-面板固定插座航空插座 5芯 GX16-5接插件-面板固定插座220V电源插座三芯接插件-插头跳线帽 2P 2.54接插件-插头航空插头 5芯 GX16-5接插件-插头香蕉插头 4mm 黑色接插件-空中对接7P 3.5 插拔式螺钉接线端子一套接插件-空中对接2P SM2.54 公端子+母端子一套2.2 线材类物料命名及描述规则2.2.1线材小类命名及描述示例:电源线-3芯国标电源线0.75平方长100cm 弯头弯尾外购电源线-2芯国标电源线0.75平方长100cm 直头直尾外购电源线-5芯电批电源线0.5平方长150cm 两头带航空插头外购电源线-2芯DC母插电源线0.5平方长100cm 单头带插正红负黑中心正极电源线-3芯XH插头电源线0.5平方长350cm 线头带插带扣带接地线耳线尾去皮0.5cm上锡棕蓝黄绿三芯护套线电源线-2芯卡扣电源线0.75平方长150cm 扣内3cm 去皮0.3cm拧紧上锡扣外12cm 去皮0.8cm拧紧上锡棕蓝二芯白色护套线电源线-单条电源线6平方长75cm 线头OT6-8 线尾SC6-8 红色 ZR-RV数据线-高清视频信号线长100cm 两头带插HDMI2.0 外购数据线-9芯RS232串口线长100cm 一头母插一头公插 2-3脚交叉带屏蔽黑色外购连接线-9芯VH插头连接线 1.25平方长45cm 两头带插交叉连接全红色连接线-6芯1.27插头排线0.15平方长45cm 两头带插交叉连接连接线-7芯XH插头排线0.15平方长74cm 两头带插交叉连接连接线-2芯排线0.55平方长50cm 两头去皮0.3cm上锡2.3 绝缘材料类物料命名及描述规则2.3.1绝缘材料小类命名及描述示例:绝缘材料-热缩套管直径6mm 长度25mm 壁厚0.18mm 2倍收缩红色绝缘材料-黄蜡套管直径6mm 长度50mm 1.5KV 白底红条绝缘材料-玻钎套管(定纹管)直径6mm 长度50mm 1.5KV 白色绝缘材料-导热软硅胶垫长宽厚20*30*1.5mm 导热系数3.6W/m.k绝缘材料-导热硅胶垫片长宽厚20*30*0.2mm 耐压3KV/mm 导热系数1W/m.k绝缘材料-96氧化铝陶瓷片长宽厚20*30*0.5mm 耐压10KV/mm导热系数24W/m.k绝缘材料-绝缘粒子M3 TO-220A。
PCD1.B1120-A20E-Line RIO 16DI, 4RelData sheetDimensions and installationf S-Bus protocol optimized for fast data exchangef Modbus protocol for integration in multi-vendor installations*f Local override operating level via web panel or buttons on the module f Easy programming using the FBox library and web templates f Industrial hardware in accordance with IEC EN 61131-2 f Pluggable terminal blocksf Bridge connectors for power supply and communication f Bus termination on boardf Configurable Bi-Colour LEDs and labelling for I/Os* B y default the module is working in S-Bus Data Mode with Autobaud detection. To configure Modbus the Windows based Application “E-LineApp” is required.FeaturesOn a 35 mm top-hat rail ( i n accordance with DIN EN 60715 TH35)General technical dataPower supplyThe S-Serie E-Line RIO modules are controlled via the RS-485 serial communication protocols S-Bus and Modbus for decentralised automation using industrial quality components. The data point mix is specifically designed for building automation applications.The compact design according to DIN 43880 enables the use in electrical distributionboxes even in the most confined spaces. Installation and maintenance are facilitated by the local manual override for each output. Remote maintenance is also possible using the access to the manual override by the web interface in the Saia PCD® controller. Programming is very efficient and fast using a complete FBox library with web templates for S-Bus. Individual programs may directly access the data points via Registers and Flags, a complete documentation is available from this data sheet.Housing width 6 HP (105 mm)Compatible with electrical control cabinet (in accordance with DIN 43880, size 2 × 55mm)/DA+DB-GND+24VOpenClose For easy installation the power supply and communicationbus is available together at one connector. The push-in springterminals enable wiring as well support the connector bridge.Push-in spring terminals enable wiring with rigid or flexible wireswith a diameter up to 1.5 mm². A max. of 1 mm² is permitted withcable end sleeves.Terminal technologyConnection conceptOFF No PowerGreen Communication OKGreen blink Auto bauding in progressOrange No communicationRed ErrorRed/Green alternate B ooter mode(e.g. during Firmware download)Red blink Internal fatal errorStatus LEDThe module provides an active bus termination. It is switchedoff by factory default. To enable the termination, the switchneed to be in the “Close” position.Bus terminationThe USB interface provides access to the communicationprotocol configuration. Firmware updates can also be downloaded via Saia PG5® Firmware Download tool.Service interfaceReset buttonPushed over 20 seconds: The button needs to be pushed forminimum 20 seconds and released during the first minute afterpower up. All user settings are reset to factory default values.Pushed at power up: Power off the device and press thebutton. Power on and release the button before 5 seconds havepassed. The device stays in boot mode for further actions likefirmware download etc.X4 X8PCD1.B5000-A20LI 0RL 0Input/output configurationDigital inputsRelaysAssignment overviewGND +24V/DA+DB–GND +24V/DA+DB–Connection diagramsDigital inputs24 VDCRelay outputRelay changeoverSource operationPower supply and bus terminationOFF No Power Green Communication OK Green blink Auto bauding in progress Orange No communication Red Error Red/Green alternate B ooter mode(e.g. during Firmware download)Red blink Internal fatal errorStatus LEDLED SignalisationThe Output indication LED can be configured in colour and blink code separately for output state Low and High. LED colour f Off f Red f Green*f Orange (red + green)LED blink code f No blink*f Slow blinking (0.5 flashes per second) f Fast blinking (2 flashes per second)*Factory defaultDigital outputThe Manual override LED is Off in automatic mode and orange in case of manual override is active. LED colour f Off (automatic)f Orange manual mode active LED blink codef No blink (local manual override)f Blinking 1 flash per second (remote manual override)Manual modef Data exchange for I/O via optimised S-Busf Configurable save state for bus interruption or timeoutf Direct generation of the symbolsf Reading and writing of the status of the manual override statusf Direct compatibility with web macrosThe modules are addressed and programmed with Saia PG5® Fupla FBoxes. Web templates are available for theoperation and visualisation of the manual override function.Further information, including which FBoxes are supported,Getting Started, etc., can be found on our support page.FuplaCommunication FBoxProgrammingBy using the local override function, commissioning can takeplace independently of the master station.In addition, the manual operation can also be controlledremotely using a touch panel. If the bus line is cut off, themodule keeps the manually set values. Traditional manualoperation in the control cabinet door via potentiometers andswitches can therefore be completely replaced by this solution. E-Line libraryWeb templates are available for the operation and visualisationof the manual override function.Web templatesfrom the E-Line library. Mixed mode operation is not recommended.E-Line RIOs support the device setup by a windows application program connected via USB. The installer is available for down-load from the SBC support page: E-Line RIO IO Modules.The Baudrate can be defined as automatic detection(default) or set to a specific value. The drop down choice willbe available when the check box “Automatic” is unchecked.TN delay and TS delay shall be left at their default values of 2.Create a new device configurationOpen an existing device configurationSave the current settings as device configurationUpload configuration from the deviceDownload settings to the deviceThe serial communication protocol can be defined either asS-Bus or Modbus. By default the modules are delivered fromfactory with S-Bus.S-Bus settingsThe station number can be set by the rotary switches at thedevice in the range of 0 … 98. If the rotary switches are set toposition 99 the station number can be defined by the deviceconfiguration in a range of 0 … 253.Modbus settingsThe Baudrate is set by default to 115 k. It can be defined aschoice of the list.For best interoperability the Parity Mode and number ofStop Bits can also be set.S-Bus communication is based on Saia PCD® S-Bus Data Mode. Only the set-up of a unique S-Bus address within the communi-cation line is required to establish a communication between Saia PCD® controllers and E-Line RIO modules. The address can be set by the rotary switches at the front of the module. The baud rate will be learned from the network by factory default. In addition a Windows based application is available for manual parameter setup. Configuration parameters as well as manual override state and value are saved non-volatile. A delay of about one second between a manual state change and none volatile saving has to be taken into consideration.Device address f 0 … 98 Address is taken from the rotary switchesf 99Address is taken from the device configuration. The address is settable with the E-Line configuration software.Start-up procedure f Reboot: All outputs are cleared (Off state) f < 1 sec.Output in manual operation are set according to the state before power down.f Outputs in automatic modeIs no telegram received after reboot within the “safe state power-on timeout” the module enters into the safe state mode and sets the outputs according to their configured values.On reception of a valid command telegram the outputs are controlled by the communication. When no communication update followed within the “safe state com. timeout” the module enters into safe state and sets the outputs according to their configured values.Usage of the E-Line module specific FBoxesThe usage of the E-Line module specific FBoxes from the E-Line S-Bus Fupla library allows an easy and efficient commissioning of the E-Line RIO.The FBox allow to define and configure all possible functionalities of the E-Line RIO like manual override permission, usage of safe state mode, behaviour and colour of the LED’s and so on.In the background, the FBox does use the fast ‘E-Line S-Bus’ protocol for a high speed communication between the master and the RIO.The following chapter describes the media and parameter mapping to Registers and Flags for individual programming. For efficient PCD programming the E-Line RIO FBox family and templates are suitable for most applications. Only individual pro-gramming (e.g. Instruction List) require standard S-Bus communication.Digital inputsNormal operation: The outputs are set according the flag set by the communication.Manual operation: The output are set according to the manual command, the communication flags are ignored. Safe State: In case of a broken communication, a safe state value can be applied, see table Safe State Configuration. Register format for manual override via S-Bus (Reg. 90 … 93): Bit 0 Current output value Bit 30 1: output is driven in manual override by S-Bus Bit 31 1: output is driven in manual override by local push buttons Register format for local manual override (Reg. 94 … 97): Bit 0 Current output value Bit 311: output is driven in manual override by local push buttonsRelay outputs** W riting to these registers has no effect. Used only if hardware permission is set in the configurationDirect access to the RIO media with standard S-Bus send and receive telegramsThe LEDs can be configured individually depending on the I/O state in colour and blink code.LED ConfigurationRegister format:Bit 0 ... 7 I/O state Low LED colour Bit 8 ... 15 I/O state Low LED blink code Bit 16 ... 23 I/O state High LED colour Bit 24 (31)I/O state High LED blink codeLED colour 0: Off1: Red2: G reen 3: Orange (red + green)LED blink code 0: No blink 1: Slow blinking (0.5 flashes per second) 2: Fast blinking (2 flashes per second)Factory default:Low: off, High: LED colour 2 (green), no blinkDigital inputsConfiguration for safe state and manual overrideManual operation mode:f Disabled (0)f Local operation only (4, Bit 2 set)f Local operation enabled, remote limited (6, Bit 1 and 2 set), defaultf Local and remote operation enabled (12, Bit 2 and 3 set)f Remote operation only, local operation disabled (8, Bit 3 set)The safe state enable flag and the safe state value are combined in the following way: Setting the enable flag to 0 keep the output value unchanged in case of safe state occurrence.Setting the enable flag to 1 writes the safe state value in case of safe state occurrence.Device Information*** The four registers contain the ASCII characters of the product type.E.g. for PCD1.A2000-A20:0605: 50434431H 0606: 2E413230H 0607: 30302D41H 0608: 32300000HModbus fulfils the requirements for standard communication protocols. It is based on Modbus RTU. The Windows based configu-ration software is required to enable and set up the Modbus communication parameters. The device address can be set up with the rotary switches at the front of the module. Configuration parameters as well as manual override state and value are saved non-volatile. A delay of about one second between a manual state change and non-volatile saving has to be taken into consideration. Device addressf0 … 98 Address is taken from the rotary switchesf99 Address is taken from the device configuration. The address is settable with the E-Line configuration soft-ware.Start-up proceduref Reboot: All outputs are cleared (Off state)f<1 sec. Output in manual operation are set according to the state before power down.f Outputs in automatic modeIs no telegram received after reboot within the “safe state power-on timeout” the module enters as will intothe safe state mode and sets the outputs according to their configured values.On reception of a valid command telegram the outputs are controlled by the communication. When no com-munication update followed within the “safe state com. timeout” the module enters into safe state and setsthe outputs according to their configured values.The following chapter describes the media and parameter mapping to Registers and Flags (=Coils).Supported Modbus services:f Function code 1 (read outputs)f Function code 3 (read registers)f Function code 15 (write multiple outputs)f Function code 16 (write multiple registers)The CRC has to be calculated over all telegram bytes starting with address field up to the last data byte. The CRC has to be attached to the data. Please find an example at the appendix of this document. For more details, please refer the publicly available Modbus documentation .Normal operation: The outputs are set according the flag set by the communication.Manual operation: The output are set according to the manual command, the communication flags are ignored.Safe State: In case of a broken communication, a safe state value can be applied, see table Safe State Configuration.Register format for manual override via Modbus (Reg. 180 … 187):Bit 0 Current output value Enable Reg. Bit 14 1: output is driven in manual override by Modbus Enable Reg. Bit 15 1: output is driven in manual override by local push buttons Register format for local manual override (Reg. 188 … 195):Value Reg. Bit 0 Current output value Enable Reg. Bit 15 1: output is driven in manual override by local push buttonsRelay outputs Digital outputs** Writing to these registers has no effect. Used only if hardware permission is set in the configurationDigital inputsLED ConfigurationOutput L, Bit 0 … 7 I/O state Low LED colourOutput L, Bit 8 … 15 I/O state Low LED blink codeOutput H, Bit 0 … 7 I/O state High LED colourOutput H, Bit 8 … 15 I/O state High LED blink codeLED colour 0: Off1: Red2: Green3: Orange (red + green)LED blink code 0: No blink1: Slow blinking (0.5 flashes per second)2: Fast blinking (2 flashes per second)Factory default: L ow: off,High: LED colour 2 (green), no blinkThe LEDs can be configured individually depending on the I/O state in colour and blink code.Configuration for safe state and manual overrideManual operation mode:f Disabled (0)f Local operation only (4, Bit 2 set)f Local operation enabled, remote limited (6, Bit 1 and 2 set), defaultf Local and remote operation enabled (12, Bit 2 and 3 set)f Remote operation only, local operation disabled (8, Bit 3 set)The safe state enable flag and the safe state value are combined in the following way: Setting the enable flag to 0 keep the output value unchanged in case of safe state occurrence.Setting the enable flag to 1 writes the safe state value in case of safe state occurrence.Device Information1210…1217: 5043H | 4431H | 2E41H | 3230H | 3030H | 2D41H | 3230H | 0000HCRC Generation ExampleThe function takes two arguments: unsigned char *puchMsg; A pointer to the message buffer containing binary data to be used for unsigned short High-Order Byte TableLow-Order Byte Table(Source: /docs/PI_MBUS_300.pdf , the following content of this page is copied from the referenced document. In case of any questions, please check out the original source)generating the CRC unsigned short usDataLen; The quantity of bytes in the message buffer. The function returns the CRC as a type unsigned short.CRC Generation FunctionCRC16(puchMsg, usDataLen) ; unsigned char *puchMsg ; /* message to calculate CRC upon */ unsigned short usDataLen ; /* quantity of bytes in message */ { unsigned char uchCRCHi = 0xFF ; /* high byte of CRC initialized */ unsigned char uchCRCLo = 0xFF ; /* low byte of CRC initialized */ unsigned uIndex ; /* will index into CRC lookup table */ while (usDataLen--) /* pass through message buffer */ { uIndex = uchCRCHi ^ *puchMsgg++; /* calculate the CRC */ uchCRCHi = uchCRCLo ^ auchCRCHi[uIndex]; uchCRCLo = auchCRCLo[uIndex]; } return (uchCRCHi << 8 | uchCRCLo); }/* Table of CRC values for high-order byte */ static unsigned char auchCRCHi[] = {0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40, 0x01, 0xC0, 0x80, 0x41, 0x01, 0xC0, 0x80, 0x41, 0x00, 0xC1, 0x81, 0x40 }; /* Table of CRC values for low-order byte */ static char auchCRCLo[] = {0x00, 0xC0, 0xC1, 0x01, 0xC3, 0x03, 0x02, 0xC2, 0xC6, 0x06, 0x07, 0xC7, 0x05, 0xC5, 0xC4, 0x04, 0xCC , 0x0C , 0x0D , 0xCD , 0x0F , 0xCF , 0xCE , 0x0E , 0x0A , 0xCA , 0xCB , 0x0B , 0xC9, 0x09, 0x08, 0xC8, 0xD8, 0x18, 0x19, 0xD9, 0x1B , 0xDB , 0xDA , 0x1A , 0x1E , 0xDE , 0xDF , 0x1F , 0xDD , 0x1D , 0x1C , 0xDC , 0x14, 0xD4, 0xD5, 0x15, 0xD7, 0x17, 0x16, 0xD6, 0xD2, 0x12, 0x13, 0xD3, 0x11, 0xD1, 0xD0, 0x10, 0xF0, 0x30, 0x31, 0xF1, 0x33, 0xF3, 0xF2, 0x32, 0x36, 0xF6, 0xF7, 0x37, 0xF5, 0x35, 0x34, 0xF4, 0x3C , 0xFC , 0xFD , 0x3D , 0xFF , 0x3F , 0x3E , 0xFE , 0xFA , 0x3A , 0x3B , 0xFB , 0x39, 0xF9, 0xF8, 0x38, 0x28, 0xE8, 0xE9, 0x29, 0xEB , 0x2B , 0x2A , 0xEA , 0xEE , 0x2E , 0x2F , 0xEF , 0x2D , 0xED , 0xEC , 0x2C , 0xE4, 0x24, 0x25, 0xE5, 0x27, 0xE7, 0xE6, 0x26, 0x22, 0xE2, 0xE3, 0x23, 0xE1, 0x21, 0x20, 0xE0, 0xA0, 0x60, 0x61, 0xA1, 0x63, 0xA3, 0xA2, 0x62, 0x66, 0xA6, 0xA7, 0x67, 0xA5, 0x65, 0x64, 0xA4, 0x6C , 0xAC , 0xAD , 0x6D , 0xAF , 0x6F , 0x6E , 0xAE , 0xAA , 0x6A , 0x6B , 0xAB , 0x69, 0xA9, 0xA8, 0x68, 0x78, 0xB8, 0xB9, 0x79, 0xBB , 0x7B , 0x7A , 0xBA , 0xBE , 0x7E , 0x7F , 0xBF , 0x7D , 0xBD , 0xBC , 0x7C , 0xB4, 0x74, 0x75, 0xB5, 0x77, 0xB7, 0xB6, 0x76, 0x72, 0xB2, 0xB3, 0x73, 0xB1, 0x71, 0x70, 0xB0, 0x50, 0x90, 0x91, 0x51, 0x93, 0x53, 0x52, 0x92, 0x96, 0x56, 0x57, 0x97, 0x55, 0x95, 0x94, 0x54, 0x9C , 0x5C , 0x5D , 0x9D , 0x5F , 0x9F , 0x9E , 0x5E , 0x5A , 0x9A , 0x9B , 0x5B , 0x99, 0x59, 0x58, 0x98, 0x88, 0x48, 0x49, 0x89, 0x4B , 0x8B , 0x8A , 0x4A , 0x4E , 0x8E , 0x8F , 0x4F , 0x8D , 0x4D , 0x4C , 0x8C , 0x44, 0x84, 0x85, 0x45, 0x87, 0x47, 0x46, 0x86, 0x82, 0x42, 0x43, 0x83, 0x41, 0x81, 0x80, 0x40 };Wiring example with fuses Relay changeoverPCD1.K0206-005PCD1.K0206-025PCD1.B1120-A20Saia-Burgess Controls AGBahnhofstrasse 18 | 3280 Murten, Switzerland T +41 26 580 30 00 | F +41 26 580 34 ********************|Order detailsTerminal set 32304321-003-S。
a103电位器规格书A103电位器是一种常用的电子元件,其具有可调节电阻值的特点,在电子电路中起到辅助调节电路电阻、电流和电压的作用。
下面将详细介绍A103电位器的规格以及一些相关参考内容。
1. 规格:A103电位器的规格主要包括外观尺寸、电阻值范围、额定功率和使用环境等。
一般来说,A103电位器的外观尺寸较小,通常为直径10mm,高度约为6mm,适用于紧凑的电子设备中安装。
电阻值范围一般为100Ω到1MΩ之间,可供不同电路需求选择。
额定功率一般为0.05W,即在正常使用环境下,电位器可以承受的功率不超过0.05瓦。
在使用环境方面,A103电位器一般适用于工作温度为-10°C到+85°C的场合。
2. 机械特性:A103电位器的机械特性主要包括旋转角度、转动力矩和耐久性等。
常见的A103电位器一般具有270度的旋转角度,即可以进行从0度到270度的连续旋转调节。
转动力矩一般较小,操作手感较轻。
耐久性方面,A103电位器一般具有较高的使用寿命,可以经受多次损耗,具有较好的耐用性。
3. 电学特性:A103电位器的电学特性主要包括电阻值范围、电阻误差、线性度和温度系数等。
电阻值范围一般为100Ω到1MΩ之间,可以提供不同的电阻值选择。
电阻误差一般在±20%以内,也有更高精度的型号可供选择。
线性度一般为±5%,即在旋转过程中电阻值变化较为匀称平稳。
温度系数一般为±100ppm/°C,即在不同温度下,A103电位器的电阻值变化范围较小。
4. 应用领域:A103电位器广泛应用于各种电子设备中,包括音频设备、电子仪器、通信设备和家用电器等。
在音频设备中,A103电位器通常用于控制音量大小,调节音效均衡等;在电子仪器中,可以用于调节测量电路的灵敏度,校准仪器等;在通信设备中,常用于调节信号强度和频率;在家用电器中,常用于调节电器的亮度、速度和功率等参数。
3296w电位器过段时间变化的问题回顧與評估中文文章:3296w 電位器過段時間變化的問題作為你的文章寫手,我將會根據你提供的主題「3296w 電位器過段時間變化的問題」進行全面評估,撰寫一篇高質量的中文文章。
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讓我們來解釋一下「3296w 電位器過段時間變化的問題」是什麼。
電位器是一種用來調節電流的裝置,它隨著時間的推移,可能會出現變化。
在這個主題中,我將會探討電位器變化的原因、影響和解決方法,以及個人對這個問題的看法。
首先要提及的是,「3296w 電位器過段時間變化的問題」是一個普遍存在的現象。
在使用電位器的過程中,很多人都可能遇到這個問題。
其原因可能與電位器自身的品質、使用環境和操作方式有關。
這對我們在使用電位器時提出了一個關鍵問題:為什麼「3296w 電位器過段時間變化」?這也是我們需要深入探討的問題之一。
接下來,我將會根據這個主題進一步探討它的深層原因。
為了更好地理解這個問題,我們需要先了解電位器的工作原理和結構。
3296w 電位器是一種多圈型電位器,通常由一個旋轉式引腳和一個定位的滑動引腳組成。
在長時間使用後,電位器的內部結構和材料可能會出現變化,導致其性能和精度下降。
這種變化可能是由於磨損、潮濕、灰塵等外部因素的影響,也可能是由於內部元件的老化等內部因素所導致。
對於這個問題,我個人認為,解決的關鍵在於對電位器進行定期的維護和檢測。
當我們發現電位器的性能有所下降時,應該及時進行維修或更換,以確保其正常使用。
與此同時,製造商也應該加強對電位器品質的監控和控制,提高產品的耐用性和穩定性,以減少「3296w 電位器過段時間變化」這一問題的發生。
總的來說,「3296w 電位器過段時間變化的問題」是一個需要我們重視和解決的問題。