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深海电子704自动主动故障模块操作指南说明书

深海电子704自动主动故障模块操作指南说明书

DEEP SEA ELECTRONICS PLC704 AUTOMATIC MAINS FAILURE MODULE OPERATING INSTRUCTIONSAuthor:- John RuddockDeep Sea Electronics PlcHighfield HouseHunmanbyNorth YorkshireYO14 0PHEnglandTel: +44 (0) 1723 890099Fax: +44 (0) 1723 893303email:********************<< This page is intentionally blank >>TABLE OF CONTENTS1 DESCRIPTION OF OPERATION (4)1.1 M ANUAL MODE OPERATION (4)1.2 A UTOMATIC MODE OF OPERATION (5)1.3 W ARNINGS (6)1.4 S HUTDOWNS (6)2 CONFIGURATION INSTRUCTIONS (7)3 CONFIGURATION TABLES (8)4 TERMINAL DESCRIPTION (12)5 SPECIFICATION (13)6 SOLID STATE OUTPUTS (14)7 DIMENSIONS (15)8 TYPICAL CONNECTIONS (15)1 DESCRIPTION OF OPERATION1.1 MANUAL MODE OPERATIONTo initiate a start sequence in MANUALinitiated.If the pre-heat output option is selected this timer is then initiated, and the auxiliary output selected is energised.After the above delay the Fuel Solenoid is energised, then the Starter Motor is engaged.The engine is cranked for a 10 second period. If the engine fails to fire during this cranking attempt then the starter motor is disengaged for a 10 second period. Should this sequence continue beyond the 3 starting attempts, the start sequence will be terminated and Fail to Start fault will be illuminated.When the engine fires, the starter motor is disengaged and locked out at 20 Hz measured from the Alternator output. Rising oil pressure can also be used to disconnect the starter motor, however it cannot be used for underspeed or overspeed detection.After the starter motor has disengaged, the Safety On timer is activated (which is fixed at 12 seconds), allowing Oil Pressure, High Engine Temperature, Under-speed, Charge Fail and any delayed Auxiliary fault inputs to stabilise without triggering the fault.Once the engine is running, the Warm Up timer, if selected, is initiated, allowing the engine to stabilise before it can be loaded.The generator will run off load, unless the mains supply fails or a Remote Start on load signal is applied, at which point the load will be transferred to the generator.The generator will continue to run On load regardless of the state of the mains supply or remote start input until the Auto mode is selected.If Auto mode is selected, and the mains supply is healthy with the remote start on load signal not active, then the Remote Stop Delay Timer begins, after which, the load is disconnected. The generator will then run off load allowing the engine a cooling down period.Selecting STOP de-energises the FUEL SOLENOID, bringing the generator to a stop.1.2confirms this action.Whether the start sequence is initiated by mains (utility) failure or by remote start input, the following sequence is followed:To allow for short term mains supply transient conditions or false remote start signals, the Start Delay timer is initiated. After this delay, if the pre-heat output option is selected then the pre-heat timer is initiated, and the corresponding auxiliary output (if configured) will energise.After the above delays the Fuel Solenoid is energised, then one second later, the Starter Motor is engaged.The engine is cranked for a 10 second period. If the engine fails to fire during this cranking attempt then the starter motor is disengaged for a 10 second rest period. Should this sequence continue beyond the 3 starting attempts, the start sequence will be terminated andFail to Start fault will be illuminated.When the engine fires, the starter motor is disengaged and locked out at 20 Hz measured from the Alternator output. Rising oil pressure can also be used to disconnect the starter motor, however it cannot be used for underspeed or overspeed detection.After the starter motor has disengaged, the Safety On timer is activated, allowing Oil Pressure, High Engine Temperature, Under-speed, Charge Fail and any delayed Auxiliary fault inputs to stabilise without triggering the fault.Once the engine is running, the Warm Up timer, if selected is initiated, allowing the engine to stabilise before accepting the load.If the remote start is being used and has been configured to Remote start is on load, or the mains has failed, the load will be transferred to the generator.On the return of the mains supply, (or removal of the Remote Start signal if the set was started by remote signal), the Stop delay timer is initiated. Once it has timed out, the load is transferred back to the mains (utility). The Cooling timer is then initiated, allowing the engine a cooling down period off load before shutting down. Once the Cooling timer expires the Fuel Solenoid is de-energised, bringing the generator to a stop.If the mains should fail (or a Remote Start signal is re-activated) whilst the generator is Cooling down, the load will be immediately transferred to the generator.Should the mains supply fall outside limits again (or the Remote Start signal be re-activated) during the cooling down period, the set will return on load.1.3 WARNINGSWarnings are used to warn the operator of an impending faultBATTERY CHARGE FAILURE, if the module does not detect a voltage from the warning light terminal on the auxiliary charge alternator, the icon will illuminate. (Either 8 Volts or 16 Volts depending on the configuration of Nominal DC Voltage).Inputs 1 and 2 can be configured as warnings or shutdowns. The relevant icon will be illuminated when the input is active1.4 SHUTDOWNSShutdowns are latching and stop the Generator. The alarm must be cleared, and the fault removed to reset the module. In the event of a shutdown the appropriate icon will be illuminatedFAIL TO START, if the engine does not fire after the pre-set 3 attempts at starting, a shutdown will be initiated.The icon will illuminate.LOW OIL PRESSURE, if the module detects that the engine oil pressure has fallen below the low oil pressure switch after the Safety On timer has expired, a shutdown will occur.The icon will illuminate.HIGH ENGINE TEMPERATURE if the module detects that the engine coolant temperature has exceeded the high engine temperature switch after the Safety On timer has expired, a shutdown will occur.The icon will illuminate.OVERSPEED, if the engine speed exceeds the pre-set trip (14% above the nominal frequency) a shutdown is initiated. Overspeed is not delayed, it is an immediate shutdown.The icon will illuminate.UNDERSPEED, if the engine speed falls below the pre-set trip (20% of the nominal frequency) timer has expired, a shutdown is initiated.Inputs 1 and 2 can be configured as warnings or shutdowns. The relevant icon will be illuminated when the input is active2 CONFIGURATION INSTRUCTIONS♦ With the unit in Stop mode, Configuration Mode is selected by operation of a smallswitch on the rear, left-hand edge of the PCB. This is partially hidden to prevent accidental operation.♦ Once Configuration Mode is selected, the ‘Auto’ LED will commence rapid flashing, and allnormal operation is suspended.♦ The Stoppushbutton can be used to select the LED ‘code’ that corresponds to the required function. The 5 left-hand LED’s will form the code. See configuration table over leaf.♦ The Manualhand LED’s inform the user of the current setting for the chosen function. See configuration table over leaf.♦ When the required parameters are displayed, pressing the Autothe new setting, and the process is repeated for each function change.♦ When configuration is complete, the Configuration Mode Selector Switch should be returnedto the ‘Normal’ position.Parameter Value3 CONFIGURATION TABLES{ { { 0 Seconds { { O 5 Seconds{ O { 10 Seconds { O O 15 SecondsO { { 20 Seconds O { O 30 Seconds O O { 60 Seconds Start Delay{ { { O { O O O 180 SecondsUsed to give a delay between activating the remote start input, or a mains failure, and actually starting the engine.{ { { 0 Seconds { { O 5 Seconds{ O { 10 Seconds { O O 15 SecondsO { { 20 Seconds O { O 30 Seconds O O { 60 Seconds Stop DelayMains Return Delay { { { O O O O O 180 SecondsUsed to give a delay between the mains returning and the system switching the load back to the mains. Used to ensure that the mains is steady before this action is executed.{ { { 0 Seconds { { O 5 Seconds{ O { 10 Seconds { O O 15 SecondsO { { 20 Seconds O { O 30 Seconds O O { 60 Seconds Energise to StopHold Timer { { O { { O O O 180 SecondsUsed for the control of the engine stop solenoid. When the engine is to be stopped, the Energise To Stop output becomes active, closing the stop solenoid (fuel valve). When the engine comes to rest, the stop solenoid will remain energised for the period of the Energise To Stop Timer, to ensure the engine has come to a complete stop.{ { { 0 Seconds { { O 5 Seconds{ O { 10 Seconds { O O 15 SecondsO { { 20 Seconds O { O 30 Seconds O O { 60 Seconds Warm-up Timer{ { O { O O O O 180 SecondsDelay between the engine being available for use, and the closure of the generator load-switching device to allow time for the engine to warm before being loaded. This occurs after the 12 second safety on timer.{ { { 0 Seconds { { O 5 Seconds{ O { 10 Seconds { O O 15 SecondsO { { 20 Seconds O { O 30 Seconds O O { 60 Seconds Cooling Timer{ { O O { O O O 180 SecondsDelay between opening the generator load-switching device and stopping the engine to allow time for the engine to cool down before being stopped. This is particularly useful when used in conjunction with turbo-charged engines.{ { { 12V DC (CF 8V)Nominal DC Voltage{ O { { O{ { O 24V DC (CF 16V)The generator battery voltage. Either 12 Volts or 24 Volts. It is used for the charge alternator failure level.{ { { Close on Fault LOP Switch Contact{ O { O { { { O Open on FaultConfiguration for the oil pressure switch. Either to close to battery negative on a fault, or open on a fault.{ { { Close on Fault HET Switch Contact{ O { O O { { O Open on FaultConfiguration for the coolant temperature switch. Either to close to battery negative on a fault, or open on a fault.{ { { Disabled Crank disconnect onOil Pressure { O O { { { {O Enabled (2 SecondDelay)If this is enabled, the starter motor will disconnect 2 seconds after the oil pressure switch detects oil pressure. NOTE:- Not suitable for all generators, due to the different monitoring points on lubrication systems.{ { { Disabled UnderspeedDetection { O O { O { { O Enabled (U/S –20%) If this is enabled, the unit will shut down the generator if the frequency falls below 20% of the nominal frequency.{ { { Remote start Remote startfunction { O O O { { { O Simulated mains Programmable input can be configured to one of the following.♦ Remote start – If the input is active the generator will be started, and stopped if the input is deactive. Mains fail isallways active.♦ Simulated mains – If the input is active the generator will not start in the event of a mains failure. E.G. if thegenerator is supporting a non 24 hour operation, a 24 hour timer can be used to prevent a mains failure from starting the generator and taking load.{ { {Remote start is offload Remote start on load (ignore if simulated mains) { O O O O { { O Remote start is on load The remote start input can be configured to one of the following.♦ Remote start is off load – The generator will start and run off load when the remote start input is active.♦ Remote start is on load – The generator will start, and the load transferred to the generator when the remote startis active.{ { { Not used{ { O Pre-heat{ O { Engine Running { O O Common WarningO { { Common Shutdown O { O System in Auto O O { Common Alarm Auxiliary Output 2 Function O { { O O O O O Energise to StopProgrammable output can be configured to one of the following.♦ Pre-heat. - The output is energised for the period of pre-heat time prior to cranking, and between the crankingattempts.♦ Engine Running. - The output is active after the saftey timer has elapsed.♦ Common warning. - The output is active if there are any warning alarm active. ♦ Common shutdown - The output is active if there are any shutdown alarms active. ♦ System in auto. - The output is active when the system is in automatic mode. ♦ Common Alarm. - The output is active if there is any alarm condition.♦ Energise to stop. - The output is energised when the engine is required to stop (normal or fault conditions), andwill remain energised for the period of the Energise To Stop Timer, to ensure the engine has come to a complete stop.{ { { 60V / 70V{ { O 70V / 80V{ O { 80V / 90V{ O O 90V / 100VO { { 120V / 140V O { O 140V / 160V O O { 160V / 180V Mains Under Voltage (Trip / Return) O { O { { O O O 180V /200VIf for example 180/200 is selected the generator will be started and the load transferred if any phase falls below 180V with respect to the neutral for the duration of the delay start timer. The load will be transferred back to mains when the mains voltage returns to 200V or higher for the duration of the mains return timer. (The system must be in Auto)4 TERMINAL DESCRIPTION1 DC Plant Supply Input(-ve)1.0mm Connected to plant battery negative2 DC Plant Supply Input(+ve) 1.0mm Connected to plant battery positive(Recommended Fuse 2A)3 Fuel relay Output 1.0mm Used to operate the fuel relay.4 Start relay Output 1.0mm Used to operate the cranking relay.5 Auxiliary Output relay 1 1.0mm Configurable output.6 Auxiliary Output relay 2 1.0mm Configurable output.7 Charge Fail Input/ ExcitationOutput 1.0mm Must NOT be connected to plant supplynegative if not used.8 Low Oil Pressure Input 0.5mm Switch to negative.9 High Engine Temp Input 0.5mm Switch to negative.10 Auxiliary Input 1 0.5mm Switch to negative.11 Auxiliary Input 2 0.5mm Switch to negative.12 Remote Start Input 0.5mm Switch to negative.13 Mains loading RelayNormally Open contact 1.0mm Used to close the mainscontactor / breaker14 Generator loading RelayNormally Open contact 1.0mm Used to close the generatorcontactor / breaker15 Functional Earth 1.0mm Connect to a good clean earth point16 Mains L1Voltage Monitoring Input 1.0mm Connect to Mains L1 supply (AC)(Recommend 2A Fuse Max.)17 Mains L2Voltage Monitoring Input 1.0mm Connect to Mains L1 supply (AC)(Recommend 2A Fuse Max.)18 Mains L3Voltage Monitoring Input 1.0mm Connect to Mains L1 supply (AC)(Recommend 2A Fuse Max.)19 Mains NVoltage Monitoring Input1.0mm Connect to Mains N supply (AC)20 Alternator Input L1 1.0mm Do not connect if not used. (2A Fuse)21 Alternator Input N 1.0mm Do not connect if not used.5 SPECIFICATIONDC Supply: 8 Volts to 35 Volts DC Continuous.Cranking Dropouts: Able to survive 0 Volts for 50 mS, providing supply was atleast 10 V before dropout and supply recovers to 5 Volts.This is achieved without the need for internal batteries.Max. Current: Operating 50mAStandby 10mAAlternator Input Range: 75 Volts (ph-N) to 277 Volts (ph-N) AC (+20%)Mains Input Voltage 15 – 277 Volts (ph-N) AC (+20%)Alternator Input Frequency: 50 - 60 Hz at rated engine speed(Minimum: 75V AC Ph-N)(Crank Disconnect from 15V Ph-N @ 20Hz)Overspeed +14% (+24% overshoot)Underspeed –20%Mains Frequency 50 – 60 HzStart Output: 1.2 Amp DC at supply voltage.Fuel Output: 1.2 Amp DC at supply voltage.Auxiliary Outputs: 1.2 Amp DC at supply voltage.Dimensions: 125mm x 165mm x 28 mmCharge Fail: 12 Volts = 8 Volts CF 24 Volts = 16 Volts CF Operating Temperature Range: -30°C to + 700CApplicable Standards Compliant with BS EN 60950 Low Voltage DirectiveCompliant with BS EN 50081-2: 1992 EMC DirectiveCompliant with BS EN 61000-6-4: 2000 EMC DirectiveCompliance to European LegislationRegistered Component for USA & Canada Deep Sea Electronics plc reserve the right to change specification without notice.6 SOLID STATE OUTPUTSDSE’s utilisation of Solid State Outputs gives many advantages, the main points being: ♦ No Moving Parts♦ Fully Overload / Short Circuit Protected.♦ Smaller dimensions hence lighter, thinner and cheaper than conventional relays. ♦ Less power required making them far more reliable.The main difference from conventional outputs is that solid state outputs switch to negative (–ve) when active. This type of output is normally used with an automotive or plug in relay.TYPICAL CONNECTIONSBattery positive (+)Solid state output from DSE moduleeg. Te Fuel Solenoid (+ terminal)relays fitted with integral diodes!Solid State Output from DSE Module Pin Automotive relay Pin8 Pin Plugin relay Function 3 86 7 Fuel Output 85 2 To Positive supply via fuse 30 1 To Positive supply via fuse AB C D87 3 To Fuel SolenoidExample of relay pins connected to DSE solid state output to drive a fuel solenoid.See overleaf for overall typical wiring diagram7 DIMENSIONSDimensions:165mm x 125mm x 29mm(6.5” x 4.9” x 1.2”)Panel cutout:149mm x 109mm(5.9” x 4.3”)Mounting Method:4 x 4.2mm diameter holes suitable for M4screws.8 TYPICAL CONNECTIONSTerminals suitable for 22-16 awg (0.6mm2-1.3mm2 )field wiringTightening Torque = 0.8N-m (7lb-in)。

STW70N65DM6-4 高压N型电流管数据手册说明书

STW70N65DM6-4 高压N型电流管数据手册说明书

STW70N65DM6-4TO247-4Drain(1, TAB)DriverAM10177v2Z Features•Fast-recovery body diode•Lower R DS(on) per area vs previous generation•Low gate charge, input capacitance and resistance•100% avalanche tested•Extremely high dv/dt ruggedness•Zener-protected•Excellent switching performance thanks to the extra driving source pinApplications•Switching applicationsDescriptionThis high-voltage N-channel Power MOSFET is part of the MDmesh DM6 fast-recovery diode series. Compared with the previous MDmesh fast generation, DM6combines very low recovery charge (Q rr), recovery time (t rr) and excellentimprovement in R DS(on) per area with one of the most effective switching behaviorsavailable in the market for the most demanding high-efficiency bridge topologies andZVS phase-shift converters.N-channel 650 V, 36 mΩ typ., 68 A MDmesh DM6 Power MOSFETin a TO247‑4 packageSTW70N65DM6-4DatasheetSTW70N65DM6-4Electrical ratings 1Electrical ratingsTable 1. Absolute maximum ratings1.Pulse width limited by safe operating area.2.I SD ≤ 68 A, V DS (peak) < V(BR)DSS, V DD = 400 V.3.V DS ≤ 520 V.Table 2. Thermal dataTable 3. Avalanche characteristicsSTW70N65DM6-4Electrical characteristics 2Electrical characteristicsT C = 25 °C unless otherwise specifiedTable 4. On/off states1.Defined by design, not subject to production test.Table 5. Dynamic characteristics1.C oss eq is defined as a constant equivalent capacitance giving the same charging time as C oss when V DS increases from 0to 80% V DSS.Table 6. Switching timesSTW70N65DM6-4Electrical characteristicsTable 7. Source-drain diode1.Pulse width is limited by safe operating area.2.Pulsed: pulse duration = 300 μs, duty cycle 1.5%.STW70N65DM6-4Electrical characteristics (curves) 2.1Electrical characteristics (curves)10-210-1t (s)STW70N65DM6-4 Electrical characteristics (curves)STW70N65DM6-4Test circuits 3Test circuits4Package informationIn order to meet environmental requirements, ST offers these devices in different grades of ECOPACK packages,depending on their level of environmental compliance. ECOPACK specifications, grade definitions and product status are available at: . ECOPACK is an ST trademark.4.1TO247-4 package informationFigure 19. TO247-4 package outline8405626_2STW70N65DM6-4Package informationSTW70N65DM6-4TO247-4 package information Table 8. TO247-4 mechanical dataRevision historyTable 9. Document revision historyContentsContents1Electrical ratings (2)2Electrical characteristics (3)2.1Electrical characteristics (curves) (5)3Test circuits (7)4Package information (8)4.1TO247-4 package information (8)Revision history (10)IMPORTANT NOTICE – PLEASE READ CAREFULLYSTMicroelectronics NV and its subsidiaries (“ST”) reserve the right to make changes, corrections, enhancements, modifications, and improvements to ST products and/or to this document at any time without notice. Purchasers should obtain the latest relevant information on ST products before placing orders. ST products are sold pursuant to ST’s terms and conditions of sale in place at the time of order acknowledgement.Purchasers are solely responsible for the choice, selection, and use of ST products and ST assumes no liability for application assistance or the design of Purchasers’ products.No license, express or implied, to any intellectual property right is granted by ST herein.Resale of ST products with provisions different from the information set forth herein shall void any warranty granted by ST for such product.ST and the ST logo are trademarks of ST. For additional information about ST trademarks, please refer to /trademarks. All other product or service names are the property of their respective owners.Information in this document supersedes and replaces information previously supplied in any prior versions of this document.© 2020 STMicroelectronics – All rights reservedSTW70N65DM6-4。

西门子6SE70参数

西门子6SE70参数

6SE70变频器参数详解摘取自网络P072:变频器进线电流P095:电机类型P100:选择开/闭环控制方式的功能参数P114:选择各种工艺边界调节启动控制系统的功能参数P115:选择各种启动环节和特殊功能的功能参数P101:电机额定电压P102:电机额定电流P103:电机励磁电流P104:功率因素P107:电机额定频率P108:电机额定转速P109:电机极对数P113:电机额定转矩P120:与电机额定阻抗相关的电机电感P121:设定定子与电缆电阻P122:根据电机额定阻抗设定的电机定子侧总漏抗P127:估算转子电阻温度影响P128:最大输出电流P130 编码器类型P151 编码器脉冲数P215:在一控制的采样时间(P357)内,设定所允许的转速实际值最大变法P216:设定n/f实际值预控滤波时间常数P223:设定接到速度调节器负输入端的n/f实际值滤波时间常数P235:速度调节器增益P235:速度调节环P参数P240:速度调节环I时间参数P240:速度调节器积分时间P258:最大允许电动的有功功率P259:运行回馈的最大有功功率P273:转矩平滑给定的滤波时间常数功能参数,它只在弱磁区使用P278:在低速范围内,无编码器速度控制(频率控制P100=3)过程中,所需最大附加动态转矩P279:在低速范围内,无编码器速度控制(频率控制P100=3)过程中最大附加动态转矩P283:在调制器异步调制范围内设定PI电流调节器调整增益P284:在调制器异步调制范围内设定PI电流调节器调整时间P303:设定磁通给定滤波时间常数P306:设定最大EMF的功能参数P313:电流模式切换位反EMF模式P315:设定电机额定电压反EMF模式的PI调节器积分增益P316:设定用于反EMF模式的PI调节器积分时间P319:输入电流提升P322:设定低频高加速转矩的附加电流给定P325:f=0Hz时的电压提升P326:设定电压提升结束频率P331:设定电流限幅(Imax调节器)PI调节器增益P334:设定定子电阻或长电缆上电压损耗补偿系数P335:设定转矩电流滤波时间常数P336:设定转差补偿比例增益P337:设定共振阻尼增益P347:校正逆变器IGBTs对称开关管P349:触发单元闭琐补偿时间P350:电流量参考值P351:电压量参考值P352:频率参考值P353:转速参考值P354:转矩参考值P357:采样时间P368:选择转子和定子阻抗温度适配P368:命令源来源P370:激活命令源来源配P380:电机热报警门槛值P381:电机热故障门槛值p383:电机热时间参数P384:电机负载限制P392:设定电机电损允许量P396:DC制动电流给定P397:DC制动持续时间P401:KK41百分比设定值P402:KK42百分比设定值P403:KK43百分比设定值P404:KK44百分比设定值P405:kk45频率设定值P406:kk46频率设定值P407:kk47频率设定值P408:kk48频率设定值P409:KK49转速设定值P410:KK50转速设定值P411:KK51转速设定值P412:KK52转速设定值P443:主给P433:附加给定1P438:附加给定2P486:力矩控制给定P452:正转时最大频率或速度P453:反转时最大频率或速度P462:加速时间从0到100%P464:减速时间从100%到0P471:n/f调节器预控增益P493 Torque-Hight limitP499 Torque-Low LimiP506 力矩附加给定P525:捕捉再启动在无测速机时输入到电机的电流给定值P587:速度环与电流环的连接P554:ON/OFFP555,P556,P557控制停车P558,P559,P560控制快速停车P602 :电机励滋时间P701 串口波特率P734:从变频器送给PLC的内容P918:DP地址U011:KK0411百分比设定值r550:K0030:控制字1r551:K0031:控制字2r552:K0032:状态字1r553:K0033:状态字2r646:数字输入输出端子转速:1)设定速度KK3002:从PLC上发送过来的转速设定值r447:kk0069:主给定设定值r451:KK0071:主给定与附加给定1叠加后的转速给定r460:KK0072:在斜坡函数发生器前的主给定设定值r480:KK0073:在斜坡函数发生器后的主给定设定值r481:KK0074:主给定与附加给定1,附加给定2叠加后的转速给定r482:KK0075:主给定与附加给定1,附加给定2叠加后再经过限幅后的转速给定KK0078:正方向速度设定值限幅KK0079:反方向速度设定值限幅r229:kk0150:在速度调节器的给定与实际值比较之前的经过滤波的速度给定2)实际速度kk0091:n/f(act,encod)r002:kk0020:经过滤波后的最终实际速度????r218:kk0148:在速度调节器的给定与实际值比较之前的在滤波前的速度实际值r230:kk0151:在速度调节器的给定与实际值比较之前的经过滤波的速度实际值r255:k0153:速度调节器速度输出值3)速度偏差KK152:速度调节器输入的给定与实际速度的偏差4)速度调节器r237:k0156:速度调节器的当前增益= p235速度调节器增益的值k0154:速度调节器的比例分量k0155:速度调节器的积分分量k0161:在速度调节器输出的转矩上限值k0162:在速度调节器输出的转矩下限值电流:K0242:从三相主接线输出的电流输出值r004:kk0022:从三相主接线输出的电流经过滤波后的输出值r272:K0167:经转矩和电流限幅后转矩电流分量的给定值(定子电流转矩分量设定值)K0168:电流调节器转矩限幅中的转矩电流分量给定(在K0167后)r129:k0175:电流限幅调节器最大电流限幅的当前有效值K0178:电机空载时低频滤波电流的给定r281:k0179:磁通电流分量的给定K0179:电流磁通分量的给定K0182:电流磁通分量的实际值K0184:电流转矩分量的实际值r511:k0085:附加电流给定r832.1:k0238:变频器U相电流输出瞬时值r832.2:k0239:变频器W相电流输出瞬时值K0204:从三相主接线输出的电压输出值r003:K0021:从三相主接线输出再经过滤波后的电压输出值K0240:直流母排的电压输出值r006:k0025:直流母排的电压经过滤波后的电压输出值转矩:r490:k0080:从动装置的转矩给定r510:k0086:从动装置的附加转矩给定r497:k0082:转矩固定设定值上限r503:k0084:转矩固定设定值下限k0161:在速度调节器输出的转矩上限值k0162:在速度调节器输出的转矩下限值r269:K0165:经过限幅后的转矩输出值r219:K0241:转矩实际值r007:显示转矩,显示值按参考转矩(P354)表称:K0172:速度限幅调节器转矩上限值:K0173:速度限幅调节器转矩下限值r496:k0081 固定转矩上限的最大设定值(这只是一个固定给定值,并非最终转矩上限值)r497:k0082 固定转矩下限的最大设定值(这只是一个固定给定值,并非最终转矩下限值)r005:实际输出的有功功率r833:变频器内部温度r949:Faultr272:K0167:定子电流转矩分量设定值kk0091:n/f(act,encod)r218:KK148:转速实际值r219:K0241:转矩实际值r004:K0242:电流输出值r003:K0021:电压输出值r001:变频器当前状态r002:实际速度值r005:实际输出的有功功率r007:显示转矩,显示值按参考转矩(P354)表称r006:K0025:中间直流母排电压值r550:K0030:控制字1r551:K0031:控制字2r552:K0032:状态字1r553:K0033:状态字2r833:变频器内部温度r949:FaultKK152:速度调节器输入的给定与实际速度的偏差r255:k0153:速度调节器的输出K0154:速度调节器的比例分量K0155:速度调节器的积分分量r237:k0156:速度调节器的当前增r481:KK007 主给定与附加给定1叠加后的转速给定r482:KK0075 主给定与附加给定1叠加后再经过限幅后的转速给定r496:k0081 转矩上限的最大值r497:k0082 转矩下限的最大值k3002:从PLC通过DP送过来的速度设定值。

BL702 704 706 无线通信芯片数据手册说明书

BL702 704 706 无线通信芯片数据手册说明书

BL702/704/706数据手册版本:2.1版权@2021Features•无线–2.4GHz射频收发器–蓝牙规范v5.0–蓝牙低功耗1Mbps和2Mbps–蓝牙®Long Range Coded500Kbps和125Kbps–Zigbee3.0,基本设备行为,Core Stack R21,绿色能源标准–IEEE802.15.4MAC/PHY–支持BLE/zigbee共存–集成balun,PA/LNA•MCU子系统–带FPU(浮点单元)的32位RISC CPU–一级缓存–1个RTC计时器,最长计数周期为1年–2个32位通用定时器–8个DMA通道–CPU频率可配置为1MHz至144MHz–JTAG开发支持–XIP QSPI Flash/pSRAM具备硬件解密功能•内存–132KB RAM–192KB ROM–1Kb eFuse–嵌入式Flash闪存(选配)–嵌入式pSRAM(BL704/BL706,选配)•安全机制–安全启动–安全调试端口–QSPI Flash即时AES解密(OTFAD)-AES-128和CTR+模式–支持AES128/192/256位加密引擎–支持MD5,SHA-1/224/256/384/512–真实随机数发生器(TRNG)–公钥加速器(PKA)•外设–USB2.0FS(全速)设备接口–红外遥控接口–1个SPI主/从机–2个UART支持ISO17987(本地互连网络)–1个I2C主机–1个I2S主/从–5个PWM通道–正交解码器–按键扫描矩阵接口–12位通用ADC–10位通用DAC–被动红外(PIR)检测–以太网RMII接口(BL704/BL706)–摄像头接口(BL706)–15(BL702)/23(BL704)/31(BL706)个GPIO(功能可配置)•电源管理模式–CPU正常运作BL702/704/706数据手册2/43@2021Bouffalo Lab–空闲模式–睡眠模式(可配置不同区域)–休眠模式–电源关闭模式–主动接收–主动发送•时钟架构–外部主时钟XTAL32MHz–外部低功耗和RTC时钟XTAL32/32.768kHz –内部RC32kHz振荡器–内部RC32MHz振荡器–内部系统PLL–内部音频PLLContents1概述 (9)2功能描述 (10)2.1CPU (11)2.2缓存 (11)2.3内存 (11)2.4DMA控制器 (11)2.5总线结构 (11)2.6中断 (13)2.7启动选项 (13)2.8电源管理单元 (13)2.9时钟架构 (13)2.10外设 (14)2.10.1GPIO (15)2.10.2UART (15)2.10.3SPI (15)2.10.4I2C (15)2.10.5I2S (15)2.10.6TIMER (15)2.10.7PWM (16)2.10.8IR(IR-remote) (16)2.10.9USB2.0(Full Speed) (16)2.10.10EMAC (16)2.10.11QDEC (16)2.10.12ADC (16)2.10.13DAC (17)2.10.14调试接口 (17)BL702/704/706数据手册3管脚定义 (18)4电气特性 (26)4.1绝对最大额定值 (26)4.2运行条件 (26)4.2.1电源特性 (27)4.2.2温度特性 (27)4.2.3通用工作条件 (27)4.2.4GPADC特性 (27)5产品使用 (30)5.1湿敏等级(MSL) (30)5.2静电放电(ESD) (31)5.3回流焊接曲线(Reflow Profile) (31)6参考设计 (33)7封装信息QFN32 (34)8封装信息QFN40 (36)9封装信息QFN48 (38)10标志定义 (40)11订购信息 (41)12版本信息 (43)List of Figures1.1功能框图 (9)2.1系统框图 (10)2.2时钟框图 (14)3.1BL702管脚布局 (18)3.2BL704管脚布局 (19)3.3BL706管脚布局 (20)5.1Classification Profile(Not to scale) (31)6.1参考设计 (33)7.1QFN32封装图 (34)8.1QFN40封装图 (36)9.1QFN48封装图 (38)10.1标志定义 (40)11.1型号命名 (41)List of Tables2.1总线连接 (11)2.2地址映像 (12)2.2地址映像 (13)3.1管脚定义 (20)3.1管脚定义 (21)3.1管脚定义 (22)3.2GPIO Muxed Pins (23)3.2GPIO Muxed Pins (24)3.3UART信号映射表(Default) (25)3.4UART信号映射表(Example) (25)4.1电源的绝对最大额定值 (26)4.2建议电源值范围 (27)4.3建议温度值范围 (27)4.4一般操作条件 (27)4.5GPADC特性 (28)4.6ADC electrical characteristic (29)5.1Reference Conditions for Drying Mounted or Unmounted SMD Packages(User Bake:Floor life be-gins counting at time=0after bake) (30)5.2Classification Reflow Profiles (32)7.1尺寸说明(测量单位:毫米) (34)7.1尺寸说明(测量单位:毫米) (35)8.1尺寸说明(测量单位:毫米) (36)8.1尺寸说明(测量单位:毫米) (37)9.1尺寸说明(测量单位:毫米) (38)9.1尺寸说明(测量单位:毫米) (39)11.1订购选项 (42)12.1修改记录 (43)1概述BL702/BL704/BL706是用于物联网应用的高度集成的BLE和zigbee组合芯片组。

三汇示波器说明书(Ver1.0)

三汇示波器说明书(Ver1.0)
5.3.1 XY格式............................................................................. 24 5.4 菜单框和菜单框选择按钮............................................................ 25 5.5 水平控制..................................................................................... 26
DST4000 和 DST1000 系列数字存储示波器用户手册
i
目录
5.1 显示区 ........................................................................................ 20 5.2 信息区域..................................................................................... 23 5.3 波形显示..................................................................................... 23
三汇系列产品
DST4000 和 DST1000 系列 数字存储示波器
Version 1.0
杭州三汇科技有限公司 www.
目录
目录
目 录 ...........................................................................................................i 版权申明 .......................................................................................................................................................................v 第 1 章 安全事项......................................................................................... 1

STM704SM6E中文资料

STM704SM6E中文资料

1/31September 2004STM690, STM704, STM795STM802, STM804, STM805, STM8063V Supervisor with Battery Switchover* Contact local ST sales office for availability.FEATURES SUMMARY■■NVRAM SUPERVISOR FOR EXTERNAL LPSRAM■CHIP-ENABLE GATING (STM795 only) FOR EXTERNAL LPSRAM (7ns max PROP DELAY)■MANUAL (PUSH-BUTTON) RESET INPUT ■200ms (TYP) t rec■WATCHDOG TIMER - 1.6sec (TYP)■AUTOMATIC BATTERY SWITCHOVER■LOW BATTERY SUPPLY CURRENT - 0.4µA (TYP)■POWER-FAIL COMPARATOR (PFI/PFO)■LOW SUPPLY CURRENT - 40µA (TYP)■GUARANTEED RST (RST) ASSERTION DOWN TO V CC = 1.0V■OPERATING TEMPERATURE:–40°C to 85°C (Industrial Grade)Table 1. Device OptionsNote: 1.2.Open drain output.Watchdog InputActive- Low RST (1)Active- High RSTManual Reset Input Battery Switch-overPower-fail Compar-atorChip-Enable GatingSTM690T/S/R ✔✔✔✔STM704T/S/R ✔✔✔✔STM795T/S/R ✔(2)✔✔STM802T/S/R ✔✔✔✔STM804T/S/R ✔✔(2)✔✔STM805T/S/R ✔✔(2)✔✔STM806T/S/R✔✔✔✔STM690/704/795/802/804/805/806TABLE OF CONTENTSFEATURES SUMMARY . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .1Figure 1.Packages. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .1 Table 1.Device Options . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .1SUMMARY DESCRIPTION. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .4Figure 2.Logic Diagram (STM690/802/804/805) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .4 Figure 3.Logic Diagram (STM704/806) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .4 Figure 4.Logic Diagram (STM795). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .4 Table 2.Signal Names . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .4 Figure 5.STM690/802/804/805 Connections. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .5 Figure 6.STM704/806 Connections. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .5 Figure 7.STM795 Connections . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .5 Pin Descriptions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .6 Table 3.Pin Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .6 Figure 8.Block Diagram (STM690/802/804/805). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .7 Figure 9.Block Diagram (STM704/806). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .7 Figure 10.Block Diagram (STM795) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .8 Figure 11.Hardware Hookup. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .8OPERATION . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .9Reset Output . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .9 Push-button Reset Input (STM704/806). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .9 Watchdog Input (NOT available on STM704/795/806) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .9 Back-up Battery Switchover. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .9 Table 4.I/O Status in Battery Back-up . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . ..9 Chip-Enable Gating (STM795 only) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10 Chip Enable Input (STM795 only). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10 Chip Enable Output (STM795 only) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10 Figure 12.Chip-Enable Gating. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10 Figure 13.Chip Enable Waveform (STM795) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10 Power-fail Input/Output (NOT available on STM795) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11 Applications Information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11 Figure 14.Power-fail Comparator Waveform (STM690/704/802/804/805/806). . . . . . . . . . . . . . . .11 Using a SuperCap™ as a Backup Power Source. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .12 Figure ing a SuperCap™. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .12 Negative-Going V CC Transients. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .12TYPICAL OPERATING CHARACTERISTICS . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .13Figure 16.V BAT-to-V OUT On-Resistance vs. Temperature. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .13 Figure 17.Supply Current vs. Temperature (no load) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .13 Figure 18.V PFI Threshold vs. Temperature. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .14 Figure 19.Reset Comparator Propagation Delay vs. Temperature. . . . . . . . . . . . . . . . . . . . . . . . .14 Figure 20.Power-up t rec vs. Temperature . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .142/31STM690/704/795/802/804/805/806Figure 21.Normalized Reset Threshold vs. Temperature . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .15 Figure 22.Watchdog Time-out Period vs. Temperature . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .15 CON On-Resistance vs. Temperature . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .15 Figure 24.PFI to PFO Propagation Delay vs. Temperature. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .16 Figure 25.RST Output Voltage vs. Supply Voltage. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .16 Figure 26.RST Output Voltage vs. Supply Voltage. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .17 Figure 27.RST Response Time (Assertion). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .17 Figure 28.RESET Response Time (Assertion) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .18 Figure 29.Power-fail Comparator Response Time (Assertion) . . . . . . . . . . . . . . . . . . . . . . . . . . . .18 Figure 30.Power-fail Comparator Response Time (De-Assertion) . . . . . . . . . . . . . . . . . . . . . . . . .19 Figure 31.V CC to Reset Propagation Delay vs. Temperature . . . . . . . . . . . . . . . . . . . . . . . . . . . . .19 Figure 32.Maximum Transient Duration vs. Reset Threshold Overdrive. . . . . . . . . . . . . . . . . . . . .20CON Propagation Delay vs. Temperature . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .20 MAXIMUM RATING. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .21 Table 5.Absolute Maximum Ratings. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .21 DC and AC PARAMETERS . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .21Table 6.Operating and AC Measurement Conditions. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .21 Figure 34.E to ECON Propagation Delay Test Circuit. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .22 Figure 35.AC Testing Input/Output Waveforms. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .22 Figure 36.MR Timing Waveform . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .22 Figure 37.Watchdog Timing . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .23 Table 7.DC and AC Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .23PACKAGE MECHANICAL . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .26 Figure 38.SO8 – 8-lead Plastic Small Outline, 150 mils body width, Package Mech. Drawing. . . .26 Table 8.SO8 – 8-lead Plastic Small Outline, 150 mils body width, Package Mechanical Data . .26 Figure 39.TSSOP8 – 8-lead, Thin Shrink Small Outline, 3x3mm body size, Outline . . . . . . . . . . .27 Table 9.TSSOP8 – 8-lead, Thin Shrink Small Outline, 3x3mm body size, Mechanical Data. . . .27PART NUMBERING . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .28 Table 10.Ordering Information Scheme . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .28 Table 11.Marking Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .29REVISION HISTORY. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .30 Table 12.Document Revision History. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .303/31STM690/704/795/802/804/805/8064/31SUMMARY DESCRIPTIONThe STM690/704/795/802/804/805/806 Supervi-sors are self-contained devices which provide mi-croprocessor supervisory functions with the ability to non-volatize and write-protect external LPSRAM. A precision voltage reference and com-parator monitors the V CC input for an out-of-toler-ance condition. When an invalid V CC condition high in the case of RST). These devices also offer a watchdog timer (except for STM704/795/806) as well as a power-fail comparator (except for STM795) to provide the system with an early warning of impending power failure.These devices are available in a standard 8-pin SOIC package or a space-saving 8-pin TSSOP package.Note: 1.For STM804/805, reset output is active-high and opendrain.Table 2. Signal NamesNote: 1.Open drain for STM804/805 only.2.STM795MR Push-button Reset Input WDIWatchdog InputRST Active-Low Reset Output RST (1)Active-High Reset Output E (2)Chip Enable InputE CON (2)Conditioned Chip Enable Output Vccsw (2)V CC Switch Output V OUTSupply Voltage Output V CC Supply Voltage V BAT Back-up Supply Voltage PFI Power-fail Input PFO Power-fail Output V SSGroundSTM690/704/795/802/804/805/806drain.5/31STM690/704/795/802/804/805/8066/31Pin DescriptionsA logic low on /MR asserts the reset output.Reset remains asserted as long as MR is low and for t rec after MR returns high. This active-low inputhas an internal pull-up. It can be driven from a TTL or CMOS logic line, or shorted to ground with a switch. Leave open if unused.WDI.If WDI remains high or low for 1.6sec, the in-ternal watchdog timer runs out and reset is trig-gered. The internal watchdog timer clears while reset is asserted or when WDI sees a rising or fall-ing edge.The watchdog function cannot be disabled by al-lowing the WDI pin to float.Pulses low for t rec when triggered, and stayslow whenever V CC is below the reset threshold or when MR is a logic low. It remains low for t rec after either V CC rises above the reset threshold, the watchdog triggers a reset, or MR goes from low tohigh.RST (Open Drain).Pulses high for t rec when trig-gered, and stays high whenever V CC is above the reset threshold or when MR is a logic high. It re-mains high for t rec after either V CC falls below thereset threshold, the watchdog triggers a reset, orMR goes from high to low.PFI.When PFI is less than V PFI or when V CC falls below V SW remains high. Connect to ground if unused.When PFI is less than V PFI , or V CC falls be-low V SW high. Leave open if unused.V OUT .When V CC is above the switchover voltage(V SO ), V OUT is connected to V CC through a P-channel MOSFET switch. When V CC falls belowV SO , V BAT connects to V OUT . Connect to V CC if no battery is used.When V OUT switches to battery, Vccsw ishigh. When V OUT switches back to V CC low. It can be used to drive gate of external PMOS transistor for I OUT requirements exceeding 75mA.The input to the chip-enable gating circuit. Con-nect to ground if unused.CON .CON goes low only when E is low and re-set is not asserted. If E CON is low when reset is as-CON goes high, whichever occurs first. In the disabled CON is pulled up to V OUT .V BAT .When V CC falls below V SO , V OUT switchesfrom V CC to V BAT . When V CC rises above V SO +hysteresis, V OUT reconnects to V CC . V BAT may ex-ceed V CC . Connect to V CC if no battery is used.Table 3. Pin DescriptionPinNameFunctionSTM795STM690STM802STM704STM806STM804STM805––6–MR Push-button Reset Input –6–6WDI Watchdog Input777–RST Active-Low Reset Output –––7RST Active-High Reset Output –444PFI PFI Power-fail Input –555PFO PFO Power-fail Output1111V OUT Supply Output for External LPSRAM 2222V CC Supply Voltage 3–––Vccsw V CC Switch Output 4333V SS Ground5–––E Chip Enable Input6–––E CON Conditioned Chip Enable Output 8888V BATBackup-Battery InputSTM690/704/795/802/804/805/806Note: 1.For STM804/805, reset output is active-high and open drain.7/31STM690/704/795/802/804/805/806Note: 1.For STM690/802/804/805.2.For STM795 only.3.Not available on STM795.4.For STM704/806.8/31STM690/704/795/802/804/805/806 OPERATIONReset OutputThe STM690/704/795/802/804/805/806 Supervi-sor asserts a reset signal to the MCU whenever V CC goes below the reset threshold (V RST), a watchdog time-out occurs, or when the Push-but-ton Reset Input (MR) is taken low. RST is guaran-teed to be a logic low (logic high for STM804/805) for 0V < V CC < V RST if V BAT is greater than 1V. Without a back-up battery, RST is guaranteed val-id down to V CC =1V.During power-up, once V CC exceeds the reset threshold an internal timer keeps RST low for the reset time-out period, t rec. After this interval RST returns high.If V CC drops below the reset threshold, RST goes low. Each time RST is asserted, it stays low for at least the reset time-out period (t rec). Any time V CC goes below the reset threshold the internal timer clears. The reset timer starts when V CC returns above the reset threshold.Push-button Reset Input (STM704/806)A logic low on MR asserts reset. Reset remains asserted while MR is low, and for t rec (see Figure 36.,page22) after it returns high. The MR input has an internal 40kΩ pull-up resistor, allowing it to be left open if not used. This input can be driven with TTL/CMOS-logic levels or with open-drain/ collector outputs. Connect a normally open mo-ual reset function; external debounce circuitry is the device is used in a noisy environment, connect a 0.1µF capacitor from MR to GND to provide ad-V CC when not used.Watchdog Input (NOT available on STM704/ 795/806)The watchdog timer can be used to detect an out-of-control MCU. If the MCU does not toggle the Watchdog Input (WDI) within t WD (1.6sec typ), the reset is asserted. The internal watchdog timer is cleared by either:1. a reset pulse, or2.by toggling WDI (high-to-low or low-to-high),which can detect pulses as short as 50ns. If WDI is tied high or low, a reset pulse istriggered every 1.8sec (t WD + t rec).The timer remains cleared and does not count for as long as reset is asserted. As soon as reset is re-leased, the timer starts counting (see Figure 37.,page23).Note: Input frequency greater than 20ns (50MHz) will be filtered.Back-up Battery SwitchoverIn the event of a power failure, it may be necessary to preserve the contents of external SRAM through V OUT. With a backup battery installed with voltage V BAT, the devices automatically switch the SRAM to the back-up supply when V CC falls. Note: If back-up battery is not used, connect both V BAT and V OUT to V CC.This family of Supervisors does not always con-nect V BAT to V OUT when V BAT is greater than V CC. V BAT connects to V OUT (through a 100Ω switch) when V CC is below V SW (2.4V) or V BAT (whichever is lower). This is done to allow the back-up battery (e.g., a 3.6V lithium cell) to have a higher voltage than V CC.Assuming that V BAT > 2.0V, switchover at V SO en-sures that battery back-up mode is entered before V OUT gets too close to the 2.0V minimum required to reliably retain data in most external SRAMs. When V CC recovers, hysteresis is used to avoid oscillation around the V SO point. V OUT is connect-ed to V CC through a 3Ω PMOS power switch. Note: The back-up battery may be removed while V CC is valid, assuming V BAT is adequately decou-pled (0.1µF typ), without danger of triggering a re-set.Table 4. I/O Status in Battery Back-up Pin StatusV OUT Connected to V BAT through internal switchV CC Disconnected from V OUTPFI DisabledPFO Logic LowE High impedanceE CON Logic HighWDI Watchdog timer is disabledMR DisabledRST Logic LowRST Logic HighV BAT Connected to V OUTVccsw Logic High (STM795)9/31STM690/704/795/802/804/805/80610/31Chip-Enable Gating (STM795 only)vents erroneous data from corrupting the external CMOS RAM in the event of an undervoltage con-dition. The STM795 uses a series transmission gate from E to E CON (see Figure 12). During nor-mal operation (reset not asserted), the E transmis-sion gate is enabled and passes all E transitions.When reset is asserted, this path becomes dis-abled, preventing erroneous data from corrupting the CMOS RAM. The short E propagation delay from E to E CON enables the STM795 to be used with most µPs. If E is low when reset asserts,CON remains low for typically 10µs to permit the current WRITE cycle to complete.Chip Enable Input (STM795 only)The chip-enable transmission gate is disabled and E is high impedance (disabled mode) while reset is asserted. During a power-down sequence when V CC passes the reset threshold, the chip-enable transmission gate disables and E immediately be-comes high impedance if the voltage at E is high.transmission gate will disable 10µs after reset as-serts (see Figure 13). This permits the current WRITE cycle to complete during power-down.Any time a reset is generated, the chip-enable transmission gate remains disabled and E remains high impedance (regardless of E activity) for the first half of the reset time-out period (t rec /2). When the chip enable transmission gate is enabled, the impedance of E appears as a 40Ω resistor in se-ries with the load at E CON . The propagation delay through the chip-enable transmission gate de-pends on V CC , the source impedance of the drive connected to E, and the loading on E CON . The chip enable propagation delay is production tested from the 50% point on E to the 50% point on E CON using a 50Ω driver and a 50pF load capacitance (see Figure 35.,page 22). For minimum propaga-CON and use a low-output impedance driver.Chip Enable Output (STM795 only)When the chip-enable transmission gate is en-CON is equivalent to a 40Ω resistor in series with the source driving E. In the disabled mode, the transmission gate is off CON to V OUT (see Figure 12). This pull-up turns off when the trans-mission gate is enabled.Power-fail Input/Output (NOT available on STM795)The Power-fail Input (PFI) is compared to an inter-nal reference voltage (independent from the V RST comparator). If PFI is less than the power-fail threshold (V PFI), the Power-Fail Output (PFO) will go low. This function is intended for use as an un-dervoltage detector to signal a failing power sup-ply. Typically PFI is connected through an external voltage divider (see Figure 11.,page8) to either the unregulated DC input (if it is available) or the regulated output of the V CC regulator. The voltage divider can be set up such that the voltage at PFI falls below V PFI several milliseconds before the regulated V CC input to the STM690/704/795/802/ 804/805/806 or the microprocessor drops below the minimum operating voltage.During battery back-up, the power-fail comparator Figure 14.,page11). This occurs after V CC drops below V SW (2.4V). When power returns, the pow-er-fail comparator is enabled and PFO follows PFI. If the comparator is unused, PFI should be con-nected to V SS and PFO left unconnected. PFO may be connected to MR on the STM704/806 so that a low voltage on PFI will generate a reset out-put.Applications InformationThese Supervisor circuits are not short-circuit pro-tected. Shorting V OUT to ground - excluding pow-er-up transients such as charging a decoupling capacitor - destroys the device. Decouple both V CC and V BAT pins to ground by placing 0.1µF ca-pacitors as close to the device as possible.11/31Using a SuperCap™ as a Backup Power SourceSuperCaps™ are capacitors with extremely high capacitance values (e.g., order of 0.47F) for their size. Figure 15 shows how to use a SuperCap as a back-up power source. The SuperCap may be connected through a diode to the V CC supply. Since V BAT can exceed V CC while V CC is above the reset threshold, there are no special precau-tions when using these supervisors with a Super-Cap.Negative-Going V CC TransientsThe STM690/704/795/802/804/805/806 Supervi-sors are relatively immune to negative-going V CC transients (glitches). Figure 32.,page20 was gen-erated using a negative pulse applied to V CC, starting at V RST + 0.3V and ending below the reset threshold by the magnitude indicated (comparator overdrive). The graph indicates the maximum pulse width a negative V CC transient can have without causing a reset pulse. As the magnitude of the transient increases (further below the thresh-old), the maximum allowable pulse width decreas-es. Any combination of duration and overdrive which lies under the curve will NOT generate a re-set signal. Typically, a V CC transient that goes 100mV below the reset threshold and lasts 40µs or less will not cause a reset pulse. A 0.1µF bypass capacitor mounted as close as possible to the V CC pin provides additional transient immunity.12/31TYPICAL OPERATING CHARACTERISTICSNote: Typical values are at T A = 25°C.13/3114/3115/31Figure 24. PFI to PFO Propagation Delay vs. TemperatureFigure 25. RST Output Voltage vs. Supply Voltage16/31Figure 27. RST Response Time (Assertion)17/3118/3119/31Figure 33. E to E20/3121/31MAXIMUM RATINGStressing the device above the rating listed in the Absolute Maximum Ratings” table may cause per-manent damage to the device. These are stress ratings only and operation of the device at these or any other conditions above those indicated in the Operating sections of this specification is not im-plied. Exposure to Absolute Maximum Rating con-ditions for extended periods may affect device reliability. Refer also to the STMicroelectronics SURE Program and other relevant quality docu-ments.Table 5. Absolute Maximum RatingsNote: 1.Reflow at peak temperature of 255°C to 260°C for < 30 seconds (total thermal budget not to exceed 180°C for between 90 to 150seconds).DC AND AC PARAMETERSThis section summarizes the operating measure-ment conditions, and the DC and AC characteris-tics of the device. The parameters in the DC and AC characteristics Tables that follow, are derived from tests performed under the MeasurementConditions summarized in Table 6, Operating and AC Measurement Conditions. Designers should check that the operating conditions in their circuit match the operating conditions when relying on the quoted parameters.Table 6. Operating and AC Measurement ConditionsSymbol ParameterValue Unit T STG Storage Temperature (V CC Off)–55 to 150°C T SLD (1)Lead Solder Temperature for 10 seconds 260°C V IO Input or Output Voltage –0.3 to V CC +0.3V V CC /V BATSupply Voltage –0.3 to 6.0V I O Output Current 20mA P DPower Dissipation320mWParameterSTM690/704/795/802/804/805/806Unit V CC /V BAT Supply Voltage1.0 to 5.5V Ambient Operating Temperature (T A )–40 to 85°C Input Rise and Fall Times ≤5ns Input Pulse Voltages0.2 to 0.8V CC V Input and Output Timing Ref. Voltages0.3 to 0.7V CCVFigure 34. E to ENote: 1.C L includes load capacitance and scope probe capacitance.Figure 36. MR Timing WaveformNote: 1.RST for STM805.22/31Table 7. DC and AC CharacteristicsSym Alter-nativeDescription Test Condition(1)Min Typ Max UnitV CC,V BAT(2)Operating Voltage T A = –40 to +85°C 1.1(3) 5.5VI CC V CC Supply CurrentExcluding I OUT (V CC < 5.5V)4060µAExcluding I OUT (V CC < 3.6V)3550µAV CC Supply Current inBattery Back-up ModeExcluding I OUT(V BAT = 2.3V,V CC = 2.0V, MR = V CC)2535µAI BAT(4)V BAT Supply Current inBattery Back-up ModeExcluding I OUT(V BAT = 3.6V)0.4 1.0µAV OUT1V OUT Voltage (Active)I OUT1 = 5mA(5)V CC –0.03V CC –0.015V I OUT1 = 75mAV CC –0.3V CC –0.15V I OUT1 = 250µA,V CC > 2.5V(5)V CC –0.0015V CC –0.0006VV OUT2V OUT Voltage (BatteryBack-up)I OUT2 = 250µA, V BAT = 2.3VV BAT –0.1V BAT –0.034VI OUT2 = 1mA, V BAT = 2.3VV BAT –0.14V V CC to V OUT On-resistance34ΩV BAT to V OUT On-resistance100ΩI LI Input Leakage Current (MR)STM704/806 only;MR = 0V; V CC = 3V2075350µA Input Leakage Current (PFI)0V = V IN = V CC–252+25nA Input Leakage Current (WDI)0V = V IN = V CC–1+1µAI LO Output Leakage Current STM804/805/795;0V = V IN = V CC(6)–1+1µAV IH Input High Voltage (MR, WDI)V RST (max) < V CC < 5.5V0.7V CC VV IL Input Low Voltage (MR, WDI)V RST (max) < V CC < 5.5V0.3V CC V23/31V OL Output Low Voltage (PFO,RST, RST, Vccsw)V CC = V RST (max),I SINK = 3.2mA0.3V Output Low Voltage (E CON)V CC = V RST (max),I OUT = 1.6mA, E = 0V0.2V CC VV OL Output Low Voltage (RST)I OL = 40µA; V CC = 1.0V;V BAT = V CC;T A = 0°C to 85°C0.3VI OL = 200µA;V CC = 1.2V; V BAT = V CC0.3VV OH Output High Voltage (RST,RST)(7)I SOURCE = 1mA,V CC = V RST (max)2.4V Output High Voltage (E CON)V CC = V RST (max),I OUT = 1.6mA, E = V CC0.8V CC V Output High Voltage (PFO)I SOURCE = 75µA,V CC = V RST (max)0.8V CC VV OHB V OH Battery Back-up (E CON,Vccsw, RST)I SOURCE = 100µA,0.8V BA T VPower-fail Comparator (NOT available on STM795)V PFI PFI Input ThresholdPFI Falling(V CC < 3.6V)STM802/804/8061.212 1.237 1.262VSTM690/704/8051.187 1.237 1.287VPFI Hysteresis PFI Rising (V CC < 3.6V)1020mVt PFD PFI to PFO PropagationDelay2µsI SC PFO Output Short toGND CurrentV CC = 3.6V, PFO = 0V0.10.75 2.0mABattery SwitchoverV SOBattery Back-upSwitchover Voltage (8,9)Power-downV BA T > V SW V SW VV BA T < V SW V BA T VPower-upV BA T > V SW V SW VV BA T < V SW V BA T V V SW 2.4V Hysteresis40mVSym Alter-nativeDescription Test Condition(1)Min Typ Max Unit24/31。

tda7040立体声解码器

tda7040立体声解码器

Fig.5 Signal/noise and channel separation behaviour in Fig.3. at R1 = 270 kΩ and R2 = 13 kΩ; without diode BAW62.
September 1986
Fig.6 Signal/noise and channel separation behaviour in Fig.3. at R1 = 200 kΩ, R2 = 30 kΩ; with diode BAW62.
8
Philips Semiconductors
Low voltage PLL stereo decoder
PACKAGE OUTLINE SO8: plastic small outline package; 8 leads; body width 3.9 mm
Product specification
A
UNIT max. A1
A2
A3
bp
c
D(1) E(2)
e
HE
L
Lp
Q
v
w
y
Z (1)
θ
mm
1.75
0.25 0.10
1.45 1.25
0.25
0.49 0.36
0.25 0.19
5.0 4.8
Low voltage PLL stereo decoder
Product specification
TDA7040T
GENERAL DESCRIPTION
The TDA7040T is a monolithic integrated circuit for low cost FM stereo radios with an absolute minimum of peripheral components and a simple lay-out.

SR701 SR704 AC Current Probes用户手册说明书

SR701 SR704 AC Current Probes用户手册说明书

AC Current ProbeModels SR701 and SR704User ManualDESCRIPTIONThe SR701/SR704 AC Current Probes (Catalog #2116.29 and #2116.30) are designed for use in industrial environments. The ergonomic design allows them to easily attach to cables or small bus bars. The “circular” jaws guarantee a very good accuracy and low phase shift. The probes have a measurement range up to 1000 Arms and are compatible with any AC ammeter, multimeter, or other current measurement instrument with an input impedance lower than 5 Ω. To achieve the stated accuracy, use the SR701/SR704 with an ammeter having an accuracy of 0.75 % or better.WARNINGThese safety warnings are provided to ensure the safety of personnel and proper operation of the instrument. Read the instruction manual completely and follow all the safety information before attempting to use or service this instrument.• Use caution on any circuit: potentially high voltages and currents may be present and may pose a shock hazard.• Do not use the probe if damaged. Always connect the current probe to the measuring device before it is connected around the conductor• Do not use on non-insulated conductor with a potential to ground greater than 600 V CAT III pollution 2.Use extreme caution when clamping around bare conductors or bus bars.• Before each use, inspect the probe; look for cracks in housing or output cable insulation.• Do not use clamp in wet environment or in locations that hazardous gases exist.• Do not use the probe anywhere beyond the tactile barrier.INTERNATIONAL ELECTRICAL SYMBOLSThis symbol signifies that the current probe is protected by double or reinforcedinsulation. Use only factory-specified replacement parts when servicing the instrument.This symbol signifies CAUTION! and requests that the user refer to the user manualbefore using the instrument.This symbol signifies that this is a type A current sensor and that application near andremoval from HAZARDOUS LIVE conductors is permitted.DEFINITION OF MEASUREMENT CATEGORIESCAT IV: For measurements performed at the primary electrical supply (< 1000 V), such as on primary overcurrent protection devices, ripple control units, or meters.CAT III:For measurements performed in the building installation at the distribution level, such as hardwired equipment in fixed installation or circuit breakers.CAT II: For measurements performed on circuits directly connected to the electrical distribution system, such as measurements on household appliances or portabletools.RECEIVING YOUR SHIPMENTUpon receiving your shipment, make sure that the contents are consistent with the packing list. Notify your distributor of any missing items. If the equipment appears to be damaged,file a claim immediately with the carrier, and notify your distributor at once, giving a detailed description of any damage.CURRENT PROBE - SR701/SR704 DRAWINGELECTRICAL SPECIFICATIONS Current Range: 1 mA to 1200 A ac Transformation Ratio: 1000:1 Output Signal: 1 mA AC/A ac(1 A ac at 1000 A)Accuracy and Phase Shift*: Accuracy:(1 to 100) mA: ±3 % Reading ±5 mA(0.1 to 1) A: ±2 % Reading ±3 mA(1 to 10) A: ±1 % Reading(10 to 100) A: ±0.5 % Reading (100 to 1200) A: ±0.3 % Reading Phase Shift:(1 to 100) mA: Not Specified(0.1 to 1) A: Not Specified(1 to 10) A: ≤ 2 °(10 to 100) A: ≤ 1 °(100 to 1200): ≤ 0.7 °*Referenced conditions: 23 °C ± 3° K, (20 to 75) % RH, (48 to 65) Hz, external magnetic field < 40 A/m, no DC component, no external current carrying conductor, test sample cen-tered. Load Impedence: ≤ 1 ΩOverload: 1200 A for 40 min on, 20 min off Accuracy: Per IEC 185Frequency Range: 30 Hz to 5 kHz; current derating above 1 kHz using the formula: 1000 A × 1F (kHz)Load Impedence: 5 Ω maxWorking Voltage: 600 V CAT IIICommon Mode Voltage: 600 V CAT III Open Secondary Voltage:< 25 V by limiting circuitInfluence of Adjacent Conductor:< 1 mA/AACWeight:1.21 lbs (550 g)Output:SR701: (2) standard safety banana jacks (4 mm)SR704: 5 ft (1.5 m) lead with safety 4 mm banana plugSAFETY SPECIFICATIONSElectrical:Double insulation or reinforced insulation be-tween the primary or secondary and the outer case of the handle conforms to IEC 1010-2-032.Common Mode Voltage:600 V CAT III, Pollution Degree 2Electromagnetic Compatibility:Emission and immunity in an industrial envi -ronment according to EN61326-1ORDERING INFORMATIONAC Current Probe SR701 ........Cat #2116.29 AC Current Probe SR704 ........Cat #2116.30Accessories:Lead, set of 2, 5 ft Safety Leads(1000 V CAT IV) .........................Cat #2152.24 Adapter BNC (Male) - Banana (Female)(XM-BB) (600 V CAT III) .............Cat #2118.46 Banana plug adapter(to non-recessed plug)................Cat #1017.45Influence of Conductor in Jaw Opening: 0.1 % of ReadingInfluence of Frequency:From (30 to 48) Hz: < 0.5 % of R From (65 to 1000) Hz: < 1 % of R From (1 to 5) kHz: < 2 % of R MECHANICAL SPECIFICATIONS Operating Temperature:(14 to 122) °F (-10 to 50) °C)Storage Temperature:(-4 to 158) °F (-20 to 70) °C Influence of Temperature:< 0.15 % per 10 °KInfluence of Humidity:From (10 to 90) % RH: 0.1 %Jaw Opening:2.25 in (57mm) max Maximum Conductor Size:2.05 in (52 mm)Envelope Protection: IP 40 (IEC 529)Drop Test: 1 m (IEC 68-2-32)Mechanical Shock: 100 g (IEC 68-2-27)Vibration:(5 to 15) Hz, 0.15 mm (IEC 68-2-6)(15 to 25) Hz, 1 mm (25 to 55) Hz, 0.25 mmMaterial:Handles and jaws: Polycarbonate UL94V0Dimensions:(4.37 x 8.50 x 1.77) in (111 x 216 x 45) mmOPERATIONPlease make sure that you have already read and fully understand the WARNING section on page 1.Making Measurements with the AC Current Probe Models SR701/SR740•Connect the black lead of the current probe to “common” and the red lead to the ACcurrent input on your DMM or other current measuring instrument. Select the appropriate current range (2 A AC range). Clamp the probe around the conductor to be tested with the arrow pointed toward the load. If the reading is less than 200 mA, select the lower range until you obtain the best resolution. Read the value display on the DMM and multiply it by the probe ratio (1000/1). (If reading = 0.659 A, the current flowing through the probe is 0.659 A x 1000 = 659 A AC ).•For best accuracy, avoid if possible, the proximity of other conductors which may createnoise.Tips For Making Precise Measurements• When using a current probe with a meter, please select the range that provides the best resolution. Failure to do this may result in measurement errors.• Make sure that probe jaw mating surfaces are free of dust and contamination.Contaminants cause air gaps between the jaws, increasing the phase shift betweenprimary and secondary. It is very critical for power measurement.MAINTENANCEWarning• For maintenance use only original replacement parts.• To avoid electrical shock, do not attempt to perform any service on the device unless you are qualified to do so.• To avoid electrical shock and/or damage to the instrument, do not allow water or other foreign agents to come into contact with the probe.CleaningTo ensure optimum performance, it is important to keep the probe jaw mating surfaces clean at all times. Failure to do so may result in error in readings. To clean the probe jaws, use very fine sand paper (fine 600) to avoid scratching the jaw, and then gently clean with a soft, oiled cloth. REPAIR AND CALIBRATIONYou must contact our Service Center for a Customer Service Authorization number (CSA#). This will ensure that, when your instrument arrives, it will be tracked and processed promptly. Please write the CSA# on the outside of the shipping container.Ship To: Chauvin Arnoux®, Inc. d.b.a. AEMC® Instruments15 Faraday Drive • Dover, NH 03820 USAPhone: (800) 945-2362 (Ext. 360) • (603) 749-6434 (Ext. 360)Fax: (603) 742-2346 • E-mail: ***************(Or contact your authorized distributor)NOTE: You must obtain a CSA# before returning any instrument. TECHNICAL AND SALES ASSISTANCEIf you are experiencing any technical problems, or require any assistance with the proper operation or application of your instrument, please call, e-mail or fax our technical support team: Contact: Chauvin Arnoux®, Inc. d.b.a. AEMC® InstrumentsPhone: (800) 945-2362 (Ext. 351) or (603) 749-6434 (Ext. 351)Fax: (603) 742-2346 • E-mail: ********************LIMITED WARRANTYThe current probe is warrantied to the owner for a period of two years from the date of original purchase against defects in manufacture. This limited warranty is given by AEMC®Instruments, not by the distributor from whom it was purchased. This warranty is void if the unit has been tampered with, abused, or if the defect is related to service not performed by AEMC® Instruments.Full warranty coverage and product registration is available on our website at:/warranty.html.Please print the online Warranty Coverage Information for your records.99-MAN 100166.v19 03/23。

in4007中文资料_数据手册_参数

in4007中文资料_数据手册_参数

, PEAK FORWARD SURGE (A)
version:02
2of3

1N 4 ant Notice and Disclaimer
•Reproducing and modifying information of the document is prohibited without permission
•Since DIYI uses lot number as the tracking base, please provide the lot number for tracking when complaining.
version:02
3of3

万联芯城-电子元器件采购网,提供一站式配套,解决物料 烦恼,万联芯城销售电子元器件范围包括 IC 集成电路,电 阻电容,二三极管,可进行一站式 BOM 表配单,BOM 配 单整单采购可享优惠价,提交 BOM 表报价,最快可当天发 货,电子元器件一站式采购,满足客户多样化物料需求, 点击进入万联芯城。
SYMBOL 1N
1N
4001G 4002G
1N 4003G
1N 4004G
1N 4005G
1N 4006G
1N 4007G
Unit
VRRM
50
100 200 400 600 800 1000 V
VRMS
35
70
140 280 420 560 700 V
VDC
50 100 200 400 600 800 1000 V
•The products shown herein are not designed and authorized for equipments requiring high level of reliability or relating to human life and for any applications concerning life-saving or life-sustaining, such as medical instruments, transportation equipment, aerospace machinery et cetera. Customers using or selling these products for use in such applications do so at their own ris k andagree to fully indemnify DIYI for any damages resulting from such improper use or sale.

SR704 AC Current Probe操作手册说明书

SR704 AC Current Probe操作手册说明书

AC Current Probe Model SR704The Model SR704 is designed for use in industrial and utility environments. The unique ergonomic design allows it to easily clamp onto cables or small bus bars. It is built to the highest safety and performance standards including the CE Mark and is UL approved for Canada and United States.Excellent transformation and low phase shift, plus a broad frequency response, permit accurate measure-ments of current for power and power quality measurements. The high quality magnetic cores and uniform windings provide sensitivity for very low level current measurements, as well as measurements up to 1200A AC. The Model SR704 works as a traditional current transformer (with a ratio of 1000:1) and provides current outputs in mA/A for use on DMMs, power and harmonic meters, data loggers, recorders or instruments with current ranges. The Model SR704 uses a custom Nickel Cove to improve accuracy and phase shifton the low end of the measurement range Features•Measurement range of1mA to 1200A AC•Large jaw opening accommodatesconductors up to two 500MCMconductors•Ergonomic design and easyoperation•Conforms to EN 61010, 600V Cat. IIIsafety standard•Low phase shift for powermeasurements•Available with mA output signals•Designed for DMMs, recorders,loggers, oscilloscopes, power andharmonic meters•UL approved for Canada andUnited States•Double Insulation•CE MarkApplications•Power quality measuring•Low industrial loads•Measuring around cable bundles•Power load monitoring•Waveform analysisSpecificationsMODEL SR704*Nominal Range1000AMeasurement Range1mA to 1200ATransformation Ratio1000:1Output Signal1mA AC/A AC(1A AC@ 1000A)Accuracy (1000A Range)1mA to 100mA≤3% of Reading ±5µV0.1 to 1A≤2% of Reading ±3µV1 to 10A<1% of Reading ±0.2mV10 to 100A≤0.5% of Reading100 to 1200A≤0.3% of ReadingPhase Shift (1000A Range)1 to 10A≤2°10 to 100A≤1°100 to 1200A≤0.7°Overload1200A for 40 min ON,20 min OFFFrequency Range30Hz to 5kHz;current deratingabove 1kHz usingthe formula:Load Impedance5ΩmaxWorking/Common600Vrms Cat. IIIMode VoltageOutput Termination 5 ft LeadOperating Temperature-14°to 122°F (-10°to 50°C)Storage Temperature-4°to 158°F (-20°to 70°C)Operating Relative0 to 85% @ 35°CHumidityJaw Opening 2.25" (57mm) maxMaximum Conductor Size 2.05" (52mm)Maximum Bus Bar Size One 1.95 x 0.19" (50 x 5mm)Dimensions 4.37 x 8.50 x 1.77" (111 x 216 x 45mm)Weight 1.21 lbs (550g)Polycarbonate Material Handles: Polycarbonate + ABS, Gray, UL94 V0. Jaws: Polycarbonate, Red, UL94 V0 Electrical EN 61010-2-032UL Approval Yes – Canada and United StatesDouble Insulation YesCE Mark YesNote:Reference conditions:23 ±3°K, 20 to 75% RH, 48 to 65Hz, external magnetic field <40A/m, no DC component, no external current carrying conductor,test sample centered.Load impedance 5Ω.*Diode Protection for open secondary (Output)CATALOG NO.AC Current Probe Model SR704 (Lead – 1mA/A – 1000A max). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Cat.#2116.30Includes a user manual Accessories (Optional)Banana (Female) – BNC (Male) Adaptor. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Cat. #2118.464.37" (111mm)3.98" (101mm)2.25" (57mm)8.50" (216mm)1.71" (43.5mm)3.90" (99mm)2.13" (54.1mm)1.22" (31mm)1.38" (35mm)1.77"(45mm)Black RedØ=2.05" (52mm)Conductor sizemax.Leads:Double/reinforced 5 ft (1.5m) lead with safety 4mm banana plugContact UsUnited States an d Canada:Chauvin Arnoux®, Inc.d.b.a. AEMC®Instruments200 Foxborough Blvd.Foxborough, MA02035 USA(508) 698-2115 • Fax (508) 698-2118Customer Support – for placing an order, obtaining price and delivery:************************Sales Department – for general sales information:**************Repair and Calibration Service – for information on repair and calibration, obtaining a user manual: ***************Technical and Product Application Support – for technical and application support:*****************Webmaster – for information regarding :******************South America, Central America, Mexico, Caribbean, Australia an d New Zealand:Chauvin Arnoux®, Inc.d.b.a. AEMC®Instruments15 Faraday DriveDover, NH 03820 USA(978) 526-7667 • Fax (978) 526-7605***************All other countries:Chauvin Arnoux SCA190, rue Championnet75876 Paris Cedex 18, France33 1 44 85 45 28 • Fax 33 1 46 27 73 89***********************。

美国西特压力传感器

美国西特压力传感器
AccuSenseTM 压力传感器 / 变送器 ASL ( 高精度微差压传感器 / 变送器 ) ................................................................................................................................................................. 6 ASM ( 高精度压力传感器 / 变送器 ).................................................................................................................................................................... 8
0.25 0.1(option)
1%FS(zero) 1%FS(span)
-18oC~+79oC √
见选型表
见选型表 -40oC~+60oC

0.02
0.004% FS/ oC(zero)
0.002% FSoC(span)
0oC~+45oC
数字显示






电容式
电容式
电容式
470
600~1100hPa 0~100psia
-18oC~+65oC
电压输出









电流输出







ICP DAS I-7043D 16通道数字输出数据获取模块快速启动指南说明书

ICP DAS I-7043D 16通道数字输出数据获取模块快速启动指南说明书

I-7043D16 Channel Digital Output Data AcquisitionModuleQuick Start GuideProduct Website:https:///i_7043_d.html/dcon_utility_pro.html1. IntroductionThe I-7043D offers 16 digital output channels, each of which are non-isolated and support sink-type output using an open collector. There are also options to enable both power-on and safe values. The I-7043DD has 16 LED indicators that can be used to monitor the status of DO channels. The hardware specifications for the M-7043D are the same as the I-7043D, and both support the Modbus RTU and DCON protocols, which can be configured via software.2. Terminal AssignmentI-7043D 16 Ch DO DAQ Module- QuickStart (Jul/2018)3. Block/ Wiring Diagram4. Default SettingsDefault settings for the I-7043D DIO modules are as follows: 。

Module Address: 01。

DIO Type: Type 40。

电磁保护设备TeSys GV系列产品参数表说明书

电磁保护设备TeSys GV系列产品参数表说明书

C i r c u i t b r e a k e r sCircuit breakersTeSys GV, GBC ontrol and P rotection C omponentsChapterB60.75g g 1.1g g 1.5375 2.533.5 LR2 K0308GV2LE071.1g g –––––– 2.533.5 LR2 K0308GV2LE071.5g g 1.5g g 3375451 LR2 K0310GV2LE08––– 2.2g g –––451 LR2 K0312GV2LE082.2g g 3501004375 6.378 LR2 K0312GV2LE103g g 410100 5.537510138 LR2 K0314GV2LE144g g 5.510100–––10138 LR2 K0316GV2LE14––––––7.537510138 LRD 14GV2LE14––––––937514170 LRD 16GV2LE165.515507.56751137514170 LR2 K0321GV2LE167.5155096751537518223 LRD 21GV2LE20915401147518.537525327 LRD 22GV2LE2211154015475–––25327 LRD 22GV2LE2215105018.54752237532416LRD 32GV2LE32(1) As % of Icu.g ) > 100 kA.GV2 LE10D F 526144.t i fC i r c u i t b r e a k e r s0.09––––––0.45LRD 03GV2L030.12g g –––0.37g g 0.638LRD 04GV2L040.18g g ––––––0.638LRD 04GV2L04––––––0.55g g 113LRD 05GV2L050.25g g ––––––113LRD 05GV2L05––––––0.75g g 113LRD 06GV2L050.37g g 0.37g g –––113LRD 05GV2L050.55g g 0.55g g 1.1g g 1.622.5LRD 06GV2L06–––0.75g g ––– 1.622.5LRD 06GV2L060.75g g 1.1g g 1.54100 2.533.5LRD 07GV2L07Example: GV3 L32 becomes GV3 L326.(1) As % of Icu. Associated current limiter or fuses, where required. See characteristics page B6/33.g > 100 kA.GV2 L10D F 526145.t i fGV3 L65D F 526146.t i fTeSys GVThermal-magnetic motor circuit breakers GV2 ME0.06gg––––––0.16…0.252.4GV2ME020.09g g––––––0.25…0.405GV2ME030.12 0.18g g g g – –– –– – 0.37 –g–g –0.40…0.638GV2ME040.25gg––– 0.55gg0.63…113GV2ME050.37 0.55 –g g –g g –0.37 0.55 0.75g g g g g g – 0.75 1.1– g g – g g 1…1622.5GV2ME060.75g g1.1gg1.5375 1.6...2.533.5GV2ME071.1 1.5g g g g 1.5 2.2g g g g 2.2 3 3 375 75 2.5 (4)51GV2ME082.2gg350100 43754...6.378GV2ME103 4g g g g 4 5.510 10100 100 5.5 7.5 3 375 756 (10)138GV2ME145.5 –15 –50 –7.5 – 6 –75 – 9 11 3 375 759…14170GV2ME167.5155096751537513…18223GV2ME209154011475 18.537517…23327GV2ME2111154015475 –––20…25327GV2ME22 (3)15105018.54752237524 (32)416GV2ME32Motor circuit breakers from 0.06 to 15 kW / 400 V, with lugsTo order thermal magnetic circuit breakers with connection by lugs, add the digit 6 to the end of reference selected above.Example: GV2 ME08 becomes GV2 ME086.Thermal magnetic circuit breakers GV2 ME with built-in auxiliary contact block With instantaneous auxiliary contact block (composition, see page B6/11):b GV AE1, add suffix AE1TQ to the motor circuit breaker reference selected above. Example: GV2 ME01AE1TQ .b GV AE11, add suffix AE11TQ to the motor circuit breaker reference selected above. Example: GV2 ME01AE11TQ .b GV AN11, add suffix AN11TQ to the motor circuit breaker reference selected above. Example: GV2 ME01AN11TQ .These circuit breakers with built-in contact block are sold in lots of 20 units in a single pack.(1) As % of Icu.(2) The thermal trip setting must be within the range marked on the graduated knob.(3) Maximum rating which can be mounted in enclosures GV2 MC or MP , please consult your Regional Sales Office. g > 100 kA.GV2 ME10D F 526134.t i fC i r c u i t b r e a k e r sTeSys GVTeSys protection componentsThermal-magnetic motor circuit breakers GV2 MEReferences0.06g g ––– 0.16…0.25 2.4GV2ME0230.09g g ––– 0.25…0.405GV2ME0330.120.18g g g g –––0.40…0.638GV2ME0430.250.37g g g g 0.37g g 0.63…113GV2ME0530.370.55g g g g 0.370.550.75g g g g g g 1…1.622.5GV2ME0630.75g g1.1g g 1.6…2.533.5GV2ME0731.11.5g g g g 1.52.2g g g g 2.5…451GV2ME0832.2g g 350100 4…6.378GV2ME10334g g g g 45.510101001006…10138GV2ME1435.515507.5675 9…14170GV2ME1637.515509675 13…18223GV2ME203911151540401147517…23327GV2ME2131115401547520 (25)327GV2ME223Contact blocksDescription Mounting Maximum number Type of contacts Sold in lots of Unitreference Instantaneous auxiliary contactsFront 1N/O + N/C 10GVAE113N/O + N/O 10GVAE203LH side2N/O + N/C 1GVAN113N/O + N/O1GVAN203AccessoryDescriptionApplicationSold in lots of Unitreference Cable end reducerFor connection of conductors from 1 to 1.5 mm 220LA9D99(1) For connection of conductors from 1 to 1.5 mm 2, the use of an LA9 D99 cable end reducer is recommended.(2) Maximum rating which can be mounted in enclosures GV2 MC or MP , please consult your Regional Sales Office (3) The thermal trip setting must be within the range marked on the graduated knob.g > 100 kA.GV2 ME pp 3D F 526135.t i fLA9 D99D F 533898.e p sTeSys GVReferencesTeSys protection componentsThermal-magnetic motor circuit breakersGV2 P, GV3 P and GV3 ME80GV2 P10D F 526137.t i fGV3 P65D F 526139.t i fGV3 P651D F 526140.t i fC i r c u i t b r e a k e r sTeSys GVReferences93610011181001581007.59707010010091150501001001115101010010012…20GV7RS20 2.0109113636100100111518181001001518.58810010015…25GV7RE25 2.0109117070100100111550501001001518.5101010010015…25GV7RS25 2.01018.53610018.522181810010022810025…40GV7RE40 2.01018.57010018.550100221010025…40GV7RS40 2.0102236100301810030810030…50GV7RE50 2.01522701003050100301010030 (50)GV7RS502.01537361004555181810010055810048...80GV7RE80 2.040377010045555050100100551010048...80GV7RS80 2.0404536100–1810075810060...100GV7RE100 2.0404570100–50100751010060...100GV7RS100 2.0405575353510010075903030100100901108810010090 (150)GV7RE1502.020557570701001007590505010010090110101010010090…150GV7RS150 2.02090110353510010011013216030303010010010016020088100100132…220GV7RE220 2.3509011070701001001101321605050501001001001602001010100100132…220GV7RS220 2.350(1) As % of lcu.TeSys protection componentsThermal-magnetic motor circuit breakers GV7 RGV7 RE40D F 526138.t i fGV7 RS220D F 526141.t i f0.12–0.120.180.18–0.370.40…0.6313GV2RT040.090.120.250.370.250.370.370.550.63…122GV2RT050.180.250.370.550.370.550.370.550.750.751.11…1.633GV2RT060.370.750.751.1 1.11.51.6…2.551GV2RT070.550.75 1.11.5 1.51.52.2 2.23 2.5…478GV2RT081.12.22.23344…6.3138GV2RT101.52.234445.5 5.57.56…10200GV2RT142.23 5.55.57.57.59119…14280GV2RT1647.57.5991513…18400GV2RT205.5911111118.517…23400GV2RT21(1) The thermal trip setting must be within the range marked on the graduated knob.GV2 RTD F 526142.t i fC i r c u i t b r e a k e r sblack handle, blue legend plate(1) The thermal trip setting must be within the range marked on the graduated knob.(2) Other accessories such as mounting, cabling and marking accessories are identical to those used for GV2 ME motor circuit breakers, see page B6/13.GV2 RTD F 526142.t i fD F 526340.e p sC i r c u i t b r e a k e r sTeSys GVDescription Mounting Maximum number Type of contacts Sold inlots of Unitreference Instantaneous auxiliary contactsFront (1)1N/O or N/C (2)10GVAE1N/O + N/C 10GVAE11N/O + N/O10GVAE20Side (LH)2N/O + N/C1GVAN11N/O + N/O1GVAN20Fault signalling contact + instantaneous auxiliary contact Side (3) (LH)1N/O (fault)+ N/O1GVAD1010+ N/C1GVAD1001N/C (fault)+ N/O1GVAD0110+ N/C1GVAD0101Short-circuit signalling contactSide (LH)1C/O common point1GVAM11(1 block on RH sideof circuit breaker GV2 ME)50 Hz GVAX11560 Hz GVAX116127 V60 Hz GVAX115220…240 V 50 Hz GVAX22560 Hz GVAX226380…400 V50 Hz GVAX38560 Hz GVAX386415…440 V 50 Hz GVAX415440 V60 Hz GVAX385Add-on contact blocksDescriptionMountingMaximum number Reference Visible isolation block (5)Front (1)1GV2AK00 (6)LimitersAt top(GV2 ME and GV2 P)1GV1L3Independent1LA9LB920(1) Mounting of a GV AE contact block or a GV2 AK00 visible isolation block on GV2 P and GV2 L .(2) Choice of N/C or N/O contact operation, depending on which way round the reversible block is mounted.(3) The GV AD is always mounted next to the circuit breaker.(4) To order an undervoltage trip: replace the dot (p ) in the reference with a U , example: GV AU025. To order a shunt trip: replace the dot (p ) in the reference with an S , example: GV AS025.(5) Visible isolation of the 3 poles upstream of circuit breaker GV2 P and GV2 L .Visible isolation block GV2 AK00 cannot be used with motor circuit breakers GV2 P32 and GV2 L32 (Ith max = 25 A).(6) Ie Max = 32 A.ReferencesTeSys protection componentsThermal-magnetic and magnetic motor circuit breakers GV2 with screw clamp connectionsAdd-on blocks and accessoriesCharacteristics:pages B6/89 and B6/94Dimensions, schemes:pages B6/70 to B6/82LA9LB920D B 126629.e p sC i r c u i t b r e a k e r sTeSys GVTerminal blockfor supply to one or more GV2 G busbar setsConnection from the top1GV1G09Can be fitted with current limiter GV1 L3 (GV2 ME and GV2 P)1GV2G05Cover for terminal block For mounting in modular panels10LA9E07Flexible 3-pole connection for connecting a GV2 to a contactor LC1-D09…D25 Centre distance between mounting rails: 100…120 mm10GV1G02Set of connections upstream/downstream For connecting GV2 ME to a printed circuit board 10GV2GA01“Large Spacing” adapter UL 508 type EFor GV2 P pp H7 (except 32 A)1GV2GH7Clip-in marker holders (supplied with each circuit breaker)For GV2 P , GV2 L, GV2 LE and GV2 RT (8 x 22 mm)100LA9D92ReferencesTeSys protection componentsThermal-magnetic and magnetic motor circuit breakers GV2 with screw clamp connectionsAccessoriesDimensions, schemes:pages B6/70 to B6/82D B 417942.e p sTeSys GVD B 126631.e p sD B 126630.e p sD B 126632.e p s7P B 106297_45.e p sExtended Rotary HandleAllows a circuit breaker or a starter-controller installed in back of an enclosure to be operated from the front of the enclosure.A rotary handle can be black or red/yellow, IP54 or IP65. It includes a function for locking the circuit breaker or the starter in the O (Off) or I (On) position(depending of the type of rotary handle) by means of up to 3 padlocks with a shank diameter of 4 to 8 mm. The extended shaft must be adjusted to use in different size enclosures. The IP54 rotary handle is fixed with a nut (Ø22) to make easierthe assembling. The new Laser Square tool brings the accuracy to align the circuit breaker and the rotary handle.device(padlocks not included)ReferencesTeSys protection componentsThermal-magnetic and magnetic motor circuit breakers GV2 with screw clamp connectionsC i r c u i t b r e a k e r sTeSys GVDescriptionMounting Maximum number Type of contacts Sold inlots of Unitreference Instantaneous auxiliary contactsFront1N/O or N/C (1)10GVAE1N/O + N/C 10GVAE11 (2)N/O + N/O10GVAE20 (2)Side (LH)2N/O + N/C1GVAN11 (2)N/O + N/O1GVAN20 (2)Fault signalling contact + instantaneous auxiliary contactFront 1N/O (fault)+ N/O1GVAED101 (2)N/O (fault)+ N/C1GVAED011 (2)Side (3) (LH)1N/O (fault)+ N/O1GVAD1010+ N/C1GVAD1001N/C (fault)+ N/O1GVAD0110+ N/C1GVAD0101Short-circuit signalling contact Side (LH)1C/O common point 1GVAM11(4)MountingVoltage ReferenceSide(1 block on RH side of circuit breaker)24 V 50 Hz GVA p 02560 Hz GVA p 02648 V 50 Hz GVA p 05560 Hz GVA p 05610050 Hz GVA p 107100…110 V 60 Hz GVA p 107110…115 V 50 Hz GVA p 11560 Hz GVA p 116120…127 V 50 Hz GVA p 125127 V 60 Hz GVA p 115200 V50 Hz GVA p 207200…220 V 60 Hz GVA p 207220…240 V 50 Hz GVA p 22560 Hz GVA p 226380…400 V 50 Hz GVA p 38560 Hz GVA p 386415…440 V 50 Hz GVA p 415415 V 60 Hz GVA p 416440 V 60 Hz GVA p 385480 V 60 Hz GVA p 415500 V 50 Hz GVA p 505600 V60 HzGVA p 505AccessoriesDescription Reference Sets of 3-pole 115 A busbars Pitch: 64 mm2 tap-off GV3 P pp and GV3 L pp GV3G2643 tap-off GV3 P pp and GV3 L pp GV3G364Cover “Large Spacing” UL 508 type E (Only one cover required on supply side)GV3 P ppGV3G66(1) Choice of N/C or N/O contact operation, depending on which way round the reversible block is mounted.(2) Contact blocks available in version with spring terminal connections. Add a figure 3 at the end of the references selected above. Example: GV AED101 becomes GV AED1013.(3) The GV AD pp is always mounted next to the circuit breaker.(4) To order an undervoltage trip: replace the dot (p ) in the reference with a U , example: GV AU025. To order a shunt trip: replace the dot (p ) in the reference with an S , example: GV AS025.Add-on blocks and accessoriesGV3 G66D F 537424.e p sTeSys GVD B 126637.e p sD B 126636.e p sD B 126632.e p s7P B 106297_45.e p sExtended Rotary HandleAllows a circuit breaker or a starter-controller installed in back of an enclosure to be operated from the front of the enclosure.A rotary handle can be black or red/yellow, IP54 or IP65. It includes a function for locking the circuit breaker or the starter in the O (Off) or I (On) position(depending of the type of rotary handle) by means of up to 3 padlocks with a shank diameter of 4 to 8 mm. The extended shaft must be adjusted to use in different size enclosures. The IP54 rotary handle is fixed with a nut (Ø22) to make easierthe assembling. The new Laser Square tool brings the accurency to align the circuit breaker and the rotary handle.For English 10-GVAPSEN For German 10-GVAPSDE For Spanish10-GVAPSES For Chinese 10-GVAPSCN For Portuguese 10-GVAPSPT For Russian 10-GVAPSRU For Italian10-GVAPSITD F 526342.e p sB6/21C i r c u i t b r e a k e r sTeSys GVfor locking the Start button (on open-mounted product)using up to 3 padlocks(padlocks to be ordered separately)External operator for mounting on enclosure door.Red Ø40 knob on yellow plate, padlockable in position O (with up to 3 padlocks). Door locked when knob in position I, and when knob padlocked in position O.GK3AP03(1) 1 voltage trip OR 1 fault signalling contact to be fitted inside the motor circuit breaker.Other versions24 to 690 V, 50 or 60 Hz voltage trips for circuit breakers GV3 ME80.Please consult your Regional Sales Office.ReferencesTeSys protection componentsMotor circuit breakers GV3 ME80 and GK3 EF80Add-on blocks and accessoriesCharacteristics:pages B6/89 and B6/92Dimensions:page B6/47B6/22D F 526344.e p sB6/23C i r c u i t b r e a k e r sTeSys GVThese allow remote indication of the circuit breaker contact states. They can be used for signalling, electrical locking, relaying, etc. They are available in two versions: standard and low level. They include a terminal block and the auxiliary circuits leave the circuit breaker through a hole provided for this purpose.They perform the following functions, depending on where they are located in the circuit breaker:Low levelGV7AB11Fault discrimination devicesThese make it possible to:b either differentiate a thermal fault from a magnetic fault,b or open the contactor only in the event of a thermal fault.VoltageReference a 24...48 and c 24…72 V GV7AD111 (1)z 110…240 VGV7AD112 (1)Electric tripsThese allow the circuit breaker to be tripped via an electrical control signal.b Undervoltage trip GV7 AUv Trips the circuit breaker when the control voltage drops below the tripping threshold, which is between 0.35 and 0.7 times the rated voltage.v Circuit breaker closing is only possible if the voltage exceeds 0.85 times the rated voltage. Circuit breaker tripping by a GV7 AU trip meets the requirements of IEC 60947-2.b Shunt trip GV7 ASTrips the circuit breaker when the control voltage rises above 0.7 times the rated voltage.b Operation (GV7 AU or GV7 AS)v When the circuit breaker has been tripped by a GV7 AU or AS, it must be reset either locally or by remote control. (For remote control, please consult your Regional Sales Office).v Tripping has priority over manual closing: if a tripping instruction is present, manual action does not result in closing, even temporarily, of the contacts.v Durability: 50 % of the mechanical durability of the circuit breaker.TypeVoltageReference Undervoltage trip48 V, 50/60 HzGV7AU055 (1)110…130 V, 50/60 Hz GV7AU107 (1)200…240 V, 50/60 Hz GV7AU207 (1)380…440 V, 50/60 Hz GV7AU387 (1)525 V, 50 HzGV7AU525 (1)Shunt trip48 V, 50/60 HzGV7AS055 (1)110…130 V, 50/60 Hz GV7AS107 (1)200…240 V, 50/60 Hz GV7AS207 (1)380…440 V, 50/60 Hz GV7AS387 (1)525 V, 50 HzGV7AS525 (1)(1) For mounting of a GV7 AD or a GV7 AU or AS.ReferencesTeSys protection componentsThermal-magnetic motor circuit breakers GV7 R with screw clamp connectionsAdd-on blocks and accessoriesCharacteristics:pages B6/51, B6/52 and B6/56Dimensions:pages B6/79 to B6/81Schemes:page B6/83B6/24B6/25C i r c u i t b r e a k e r sTeSys GVDescription ApplicationFor use on contactors Sold in lots of Unitreference Clip-on connectors for GV7 RUp to 150 A, 1.5…95 mm 2–3GV7AC021Up to 220 A, 1.5…185 mm 2–3GV7AC022Spreader 3-pole (1)To increase the pitch to 45 mm–1GV7AC03Terminal shields IP 405 (1)Supplied with sealing accessory–1GV7AC01Phase barriersSafety accessories used when fitting of shields is impossible –2GV7AC04Insulating screens Ensure insulation between the connections and the backplate –2GV7AC05Kits for combination with contactor (2)Allowing link between thecircuit breaker and the contactor. The cover provides protection against direct finger contactLC1 F115…F1851GV7AC06LC1 F225 and F2651GV7AC07LC1 D115 and D1501GV7AC08Replaces the circuit breaker front cover; secured by screws. It includes a device for locking the circuit breaker in the O (Off) position by means of up to 3 padlocks with a shank diameter of 5 to 8 mm (padlocks not included). A conversion accessory allows the direct rotary handle to be mounted on the enclosure door. In this case, the door cannot be opened if the circuit breaker is in the “ON” position. Circuit breaker closing is inhibited if the enclosure door is open.Description TypeDegree of protection Reference Direct rotary handleBlack handle, black legend plate IP 40GV7AP03Red handle, yellow legend plateIP 40GV7AP04Adapter plate (3)Four mounting direct rotary handle on enclosure doorIP 43GV7AP05Allows a circuit breaker installed in the back of an enclosure to be operated from the front of the enclosure. It comprises:b a unit which screws onto the front cover of the circuit breaker,b an assembly (handle and front plate) to be fitted on the enclosure door,b an extension shaft which must be adjusted (distance between the mounting surface and the door: 185 mm minimum, 600 mm maximum). It includes a device for locking the circuit breaker in the O (Off) position by means of up to 3 padlocks with a shank diameter of 5 to 8 mm (padlocks not included). This prevents the enclosure door from being opened.DescriptionTypeDegree of protection Reference Extended rotary handleBlack handle, black legend plate IP 55GV7AP01Red handle, yellow legend plateIP 55GV7AP02Allows circuit breakers not fitted with a rotary handle to be locked in the O (Off) position by means of up to 3 padlocks with a shank diameter of 5 to 8 mm (padlocks not included).Description ApplicationReference Locking deviceFor circuit breaker not fitted with a rotary handleGV7V01(1) Terminal shields cannot be used together with spreaders.(2) The kit comprises links, a protective shield and a depth adjustable metal bracket for the breaker.(3) This conversion accessory makes it impossible to open the door if the device is closed and prevents the device from being closed if the door is open.ReferencesTeSys protection componentsThermal-magnetic motor circuit breakers GV7 R with screw clamp connectionsAccessoriesGV7 AC07D F 537429.e p sGV7 AC08D F 537428.e p sDimensions:pages B6/79 to B6/81B6/260.5 6.63GB2DB051143GB2DB062263GB2DB073403GB2DB084503GB2DB095663GB2DB106833GB2DB1281083GB2DB14101383GB2DB16121653GB2DB20162203GB2DB21202703GB2DB22(1) Conforming to IEC 60947-1.GB2 CBppD F 526243.t i fGB2 CD ppD F 526244.t i fGB2 DBppD F 526245.t i fPresentation, selection :page B6/84Characteristics :pages B6/85 to B6/87Dimensions :page B6/88Schemes :page B6/88B6/27C i r c u i t b r e a k e r s(1) Conforming to IEC 60947-1.Accessories for circuit breakers GB2-CB, DB and CSDescriptionSold in lots of Unitreference Busbar set for supply to 10 GB2 DB or20 GB2 CB or GB2 CS with 2 connectors1GB2G210Supply connector 10GB2G01GB2 CS ppD F 526246.t i fPresentation, selection :page B6/84Characteristics :pages B6/85 to B6/87Dimensions :page B6/88Schemes :page B6/88B6/28B6/29B6/30TeSys GVCharacteristicsTeSys protection componentsMagnetic motor circuit breakers GV2 LE and GV2 LReferences:pages B6/2 and B6/3Dimensions:pages B6/43 to B6/47Schemes:page B6/48add-on contact blocks. Side by side mounting is possible up to 40 °C.(2) When mounting on a vertical rail, fit a stop to prevent any slippage.(1) As % of Icu.Average operating times at 20 °C related to multiples of the setting currentD F 534092.e p s1 3 poles from cold state2 2 poles from cold state3 3 poles from hot stateDynamic stressI peak = f (prospective Isc) at 1.05 Ue = 435 VD F 534093.e p s1 Maximum peak current2 32 A3 25 A4 18 A5 14 A6 10 A7 6.3 A8 4 A9 2.5 A 10 1.6 A11 Limit of rated ultimate breaking capacity on short-circuit of GV2 LE (14, 18, 23 and 25 A ratings).Dynamic stressI peak = f (prospective Isc) at 1.05 Ue = 435 VD F 534094.e p s1 Maximum peak current2 32 A3 25 A4 18 A5 14 A6 10 A7 6.3 A8 4 A9 2.5 A 10 1.6 A11 Limit of rated ultimate breaking capacity on short-circuit of GV2 LE (14, 18, 23 and 25 A ratings).Thermal limit in kA 2s in the magnetic operating zone Sum of I 2dt = f (prospective Isc) at 1.05 Ue = 435 V22Prospective Isc (kA)D F 534095.e p s1 32 A 2 25 A3 18 A4 14 A5 10 A6 6.3 A7 4 A8 2.5 A9 1.6 AThermal limit in kA 2s in the magnetic operating zone Sum of I 2dt = f (prospective Isc) at 1.05 Ue = 435 V22D F 534096.e p s1 25 A and 32 A 2 18 A3 14 A 4 10 A5 6.3 A6 4 A7 2.5 A8 1.6 AThermal limit in kA 2s in the magnetic operating zone Sum of I 2dt = f (prospective Isc) at 1.05 Ue = 435 V22D F 534097.e p s1 32 A (GV2 LE32)2 25 A and 32 A (GV2 L32)3 18 A4 14 A5 10 A6 6.3 A7 4 A8 2.5 A9 1.6 A10 Limit of rated ultimate breaking capacity on short-circuit of GV2 LE (14, 18, 23 and 25 A ratings).Average operating time at 20 °C without prior current flowx the setting current (Ir)D F 534098.e p s1 3 poles from cold state2 2 poles from cold state3 3 poles from hot stateA Thermal overload relay protection zoneB GV3 L protection zoneDynamic stressI peak = f (prospective Isc) at 1.05 Ue = 435 VProspective Isc (kA)D B 418280.e p s1 Maximum peak current2 GV3 L653 GV3 L504 GV3 L405 GV3 L326 GV3 L25Thermal limit in A 2sSum of I 2dt = f (prospective Isc) at 1.05 Ue = 435 V2Prospective Isc (kA)D B 418279.e p s1 GV3 L652 GV3 L503 GV3 L404 GV3 L325 GV3 L25TeSys GVDimensions, mountingD F 537440.e p sD F 537441.e p sD F 537444.e p sTeSys protection componentsMagnetic motor circuit breakers GV2 L and GV2 LETeSys GVDimensions, mounting TeSys protection componentsMagnetic motor circuit breakers GV2 L and GV2 LED B 127415.e p sD B 127414.e p sa b Mini Maxi Mini Maxi GV2 APN pp140250GV2 APN pp + GV APH02151250GV2 APN pp + GV APK11250434--GV2 APN pp + GV APH02 + GV APK11--250445TeSys GVDimensions,mounting Sets of busbars GV2 G445, GV2 G454, GV2 G472, with terminal block GV2 G05D F 537451.e p sGV2 G445224269314359GV2 G454260314368422GV2 G472332404476548D F 537452.e p sD F 537454.e p sGV2 G345 (3 x 45 mm)134GV2 G354 (3 x 54 mm)152TeSys protection componentsMagnetic motor circuit breakers GV2 L and GV2 LED F 537480.e psD F 537435.e p sD F 510637.e p sD F 510638.e p sD B 127416.e p sD B 127417.e p sa b Mini Maxi Mini Maxi GV3 APN pp189300--GV3 APN pp + GV APK12300481GV3 APN pp + GV APH03--200300GV3 APN pp + GV APH03 + GV APK12--300492TeSys GVSchemesTeSys protection componentsMagnetic motor circuit breakers GV2 L, GV2 LE, GV3 LD F 537474.e p sD F 537475.e p sD F 537476.e p sGV2 ME, GV2 P , GV3 ME, GV3 P and GV7 R motor circuit breakers are 3-pole thermal-magnetic circuit breakers specifically designed for the control and protection of motors , conforming to standards IEC 60947-2 and IEC 60947-4-1.Connection GV2GV2 ME and GV2 P circuit breakers are designed for connection by screw clamp terminals.Circuit breaker GV2 ME can be supplied with lugs or spring terminal connections.Spring terminal connections ensure secure, permanent and durable clamping that is resistant to harsh environments, vibration and impact and are even more effective when conductors without cable ends are used. Each connection can take two independent conductors.GV3GV3 circuit breakers feature connection by BTR screws (hexagon socket head), tightened using a n° 4 Allen key.This type of connection uses the Ever Link ® system with creep compensation (1) (Schneider Electric patent).This technique makes it possible to achieve accurate and durable tightening torque, in order to avoid cable creep.GV3 circuit breakers are also available with connection by lugs. This type of connection meets the requirements of certain Asian markets and is suitable for applications subject to strong vibration, such as railway transport.GV7GV7 circuit breakers: with connection by screw clamp terminals (for bars and lugs) and by clip-on connectors.OperationControl is manual and local when the motor circuit breaker is used on its own.Control is automatic and remote when it is associated with a contactor.GV2 ME and GV3 ME80Pushbutton control.Energisation is controlled manually by operating the Start button “I” 1.De-energisation is controlled manually by operating the Stop button “O” 2, or automatically by the thermal-magnetic protection elements or by a voltage trip attachment.GV2 P , GV3 P and GV7 Rb Control by rotary knob: for GV2 P and GV3 P b Control by rocker lever: for GV7 R.Energisation is controlled manually by moving the knob or rocker lever to position “I” 1.De-energisation is controlled manually by moving the knob or rocker lever to position “O” 2.De-energisation due to a fault automatically places the knob or rocker lever in the “Trip” position 3.Re-energisation is possible only after having returned the knob or rocker lever to position “O”.(1) Creep: normal crushing phenomenon of copper conductors, that is accentuated over time.GV2 MEwith screw clamp terminals124D F 526134.t i fGV2 MEwith spring terminals connections124D F 526135.t i fGV3 P1324D F 526136.t ifGV2 P1342D F 526137.t i fGV7 R132D F 526138.t i f。

ST M74HC07 HEX BUFFER (OPEN DRAIN) 数据手册

ST M74HC07 HEX BUFFER (OPEN DRAIN) 数据手册

1/10May 2003sHIGH SPEED:t PD =6ns (TYP .)at V CC =6V sLOW POWER DISSIPATION:I CC =1µA(MAX.)at T A =25°C sHIGH NOISE IMMUNITY:V NIH =V NIL =28%V CC (MIN.)sWIDE OPERATING VOLTAGE RANGE:V CC (OPR)=2V to 6VsPIN AND FUNCTION COMPATIBLE WITH 74SERIES 07DESCRIPTIONThe M74HC07is an high speed CMOS HEX OPEN DRAIN BUFFER fabricated with silicon gate C 2MOS technology.The internal circuit is composed of 2stages including buffer output,which enables high noise immunity and stable output.All inputs are equipped with protection circuits against static discharge and transient excess voltage.M74HC07HEX BUFFER (OPENDRAIN)PIN CONNECTION AND IEC LOGIC SYMBOLSORDER CODESPACKAGE TUBE T &R DIP M74HC07B1R SOP M74HC07M1RM74HC07RM13TR TSSOPM74HC07TTR查询74HC07供应商M74HC072/10INPUT AND OUTPUT EQUIVALENT CIRCUITPIN DESCRIPTIONTRUTH TABLEZ :High ImpedanceABSOLUTE MAXIMUM RATINGSAbsolute Maximum Ratings are those values beyond which damage to the device may occur.Functional operation under these conditions isnot implied(*)500mW at 65°C;derate to 300mW by 10mW/°C from 65°C to 85°CRECOMMENDED OPERATING CONDITIONSPIN No SYMBOL NAME AND FUNCTION 1,3,5,9,11,131A to 6A Data Inputs 2,4,6,8,10,121Y to 6Y Data Outputs 7GND Ground (0V)14V CCPositive Supply VoltageA Y L L HZSymbol ParameterValue Unit V CC Supply Voltage -0.5to +7V V I DC Input Voltage -0.5to V CC +0.5V V O DC Output Voltage -0.5to V CC +0.5V I IK DC Input Diode Current ±20mA I OK DC Output Diode Current ±20mA I ODC Output Current±25mA I CC or I GND DC V CC or Ground Current±50mA P DPower Dissipation 500(*)mW T stg Storage Temperature -65to +150°C T LLead Temperature (10sec)300°CSymbol ParameterValue Unit V CC Supply Voltage 2to 6V V I Input Voltage 0to V CC V V O Output Voltage 0to V CC V T op Operating Temperature -55to 125°C t r ,t fInput Rise and Fall TimeV CC =2.0V 0to 1000ns V CC =4.5V 0to 500ns V CC =6.0V0to 400nsM74HC073/10DC SPECIFICATIONSAC ELECTRICAL CHARACTERISTICS (C L =50pF,Input t r =t f =6ns)SymbolParameterTest ConditionValue UnitV CC (V)T A =25°C -40to 85°C -55to 125°C Min.Typ.Max.Min.Max.Min.Max.V IHHigh Level Input Voltage 2.0 1.5 1.5 1.5V 4.5 3.15 3.15 3.156.0 4.24.24.2V ILLow Level Input Voltage2.00.50.50.5V4.5 1.35 1.35 1.356.0 1.81.8 1.8V OLLow Level Output Voltage2.0I O =20µA 0.00.10.10.1V4.5I O =20µA 0.00.10.10.16.0I O =20µA 0.00.10.10.14.5I O =4.0mA 0.170.260.330.406.0I O =5.2mA 0.180.260.330.40I I Input Leakage Current6.0V I =V CC or GND ±0.1±1±1µA I OZ Output Leakage Current6.0V I =V IH or V IL V O =V CC or GND ±0.5±5±10µA I CCQuiescent Supply Current6.0V I =V CC or GND11020µA SymbolParameterTest ConditionValue UnitV CC (V)T A =25°C -40to 85°C -55to 125°C Min.Typ.Max.Min.Max.Min.Max.t THLOutput Transition Time2.0307595110ns 4.581519226.07131619t PLZPropagation Delay Time2.0R L =1K Ω1090115135ns4.571823276.06152023t PZLPropagation Delay Time2.0R L =1K Ω1790115135ns4.571823276.05152023M74HC074/10CAPACITIVE CHARACTERISTICS1)C PD is defined as the value of the IC’s internal equivalent capacitance which is calculated from the operating current consumption without load.(Refer to Test Circuit).Average operating current can be obtained by the following equation.I CC(opr)=C PD x V CC x f IN +I CC /6(per gate)TEST CIRCUITL R T =Z OUT of pulse generator (typically 50Ω)WAVEFORM :PROPAGATION DELAY TIME (f=1MHz;50%duty cycle)SymbolParameterTest ConditionValue UnitV CC (V)T A =25°C -40to 85°C -55to 125°C Min.Typ.Max.Min.Max.Min.Max.C IN Input Capacitance 5.05101010pF C OUT OutputCapacitance5.03pF C PDPower Dissipation Capacitance (note 1)5.04pFM74HC07Information furnished is believed to be accurate and reliable. However, STMicroelectronics assumes no responsibility for the consequences of use of such information nor for any infringement of patents or other rights of third parties which may result from its use. No license is granted by implication or otherwise under any patent or patent rights of STMicroelectronics. Specifications mentioned in this publication are subject to change without notice. This publication supersedes and replaces all information previously supplied. STMicroelectronics products are not authorized for use as critical components in life support devices or systems without express written approval of STMicroelectronics.© The ST logo is a registered trademark of STMicroelectronics© 2003 STMicroelectronics - Printed in Italy - All Rights ReservedSTMicroelectronics GROUP OF COMPANIESAustralia - Brazil - Canada - China - Finland - France - Germany - Hong Kong - India - Israel - Italy - Japan - Malaysia - Malta - Morocco Singapore - Spain - Sweden - Switzerland - United Kingdom - United States.© 10/10。

704A系列手持测试仪产品介绍说明书

704A系列手持测试仪产品介绍说明书

Highlights●Rugged, Lightweight & Hand-Held●RJ-11 Modular JackDual Min-Phone Jacks (Bantam)tion for installation and maintenance of analog voice and data cir-cuits. Users for all models of the 704A-400 Series are DS0/DS1,Central Office (CO), Digital Operations Group (DOG), SpecialServices, and CO/OSP Construction Technicians.A pplicationsServices TestedAll Models perform the following tests:HDSL (E, F and G NoiseFilter, Impulse Noise) POTS, Analog Special Services, PBX Trunks(No CO/PBX Emulation for the 704A-410). The704A-430 and the704A-460 both include CO/PBX Emulation and can be substitutedfor a CO switch or PBX, while the 704A-460 includes CLASS CPEEmulation which can be substituted for CPE at MDF or NID.Facilities Tested/QualifiedAll models perform Facilities Testing/Qualified. These categories© 2005 CXR/Larus Corporation (P/N 96-50000-502, Rev. A)Other product and company names referenced herein may be trademarks or trade names of their respective owners. Features and specifications are subject to change without notice.Sp ecificationsINTERFACESAll Models: 2- or 4-Wire RJ-11, dual Bantam IMPEDANCESAll Models: 100, 135, 600, 900, 1200 Ohm & Bridged PHYSICAL ●Dimensions:9.5 in x 6.33 in x 3.5 in (L x W x H)(Equipped with all options - Less than 2.2 lbs.)9.5 in x 6.33 in x 2.63 in (L x W x H)(Basic 704A-400 Series – Weight approx. 3 lbs.)●Operating Environment: 32°to 122°F (0°to 50°C), 0 to 95% R.H.(Non-Condensing)●Power Requirements: 5 Watts at 115 VAC, 60Hz nominal for 9 VDC external DC power supply ●CLEI Codes:TETMAAE7AA, TETMAAF7AA●Battery: 4 Hours continuous operation from the internal 7.2 VDC NimH pack. Charge time: 14 hours ●2W/4W Interface:RJ-11 C or Dual Bantam (210) connector ●Impedance:100/135/600/900/1200 ohms in terminated mode; >30K Ohms in bridged mode.●Longitudinal Balance:Better than 60dB from 200Hz to 1.5MHz●Audio & Display:Built in speaker with volume control. Display is LCD, 4 line x 20 character●Line Hold:Electronic, internally current limited to 24mA on either the 2W or 4W-XMT port when Off-Hook ●Dial:16 Character DTMF generation, 12 character MF generation, 10 digit Dial Pulse generation●Measurements:Level (dBm), Frequency, Weighted Noise, Notch Noise, Signal to noise ratio, Impulse Noise, Return Loss, 23-Tone Sequence (RMS level/frequency, individual level/frequency, IMD, EDD, S/TD, SNR), Advanced Caller ID CND/CNAM (optional), Line voltage, current and ring voltage, Load Coil Detect, MF/DTMF/Dial Pulse analysisSIGNALING ●Signaling Interfaces:Emulate network and terminal end of Loop Start, Ground Start, Direct Inward Dial, E&M I-IV, Originate or terminate call, Analyze digits, perform transmission tests●Signaling Modes:MF/DTMF/Dial Pulse analysis ●CO Emulation:Wink start or immediate start●Measurements:Pre-wink, wink duration and answer delay for up to 999ms with 1ms resolution●Loop Current Detection:Loop current detector must exceed 20ms to detect a valid off-hook state●DTMF Generation:Transmit level of -7 ±0.2dBm, with 1.5dB twist ●MF Generation:Transmit level of -7 ±0.2dBm●Dial Pulse Generation:-10 Pulses per second with 60% break and 250mS inter-digit time●PBX Emulation Mode:Wink start or immediate start with pre-wink time of 1 sec and wink duration of 250mS ± 2mS ●Measurements:Up to 9999mS maximum post wink time with 1mS resolution and ± 1mS accuracy●Battery Feed:-48 VDC 400 ohm DC feed limited to 24mA ●MF Receiver:All 15 valid MF tones received at levels as low as -30dBm●DTMF Receiver:16 digit receiver (1-9, 0, A, B, C, D, *, #)●Dial Pulse Receiver:12 digit receiver (1-9, 0, *, 3) Range is from 3 to 29 pulses per second with a 10 to 90% break DTMF ANALYSIS ●Frequency Meas:A high/low group frequency accuracy of ±3Hz with 1Hz resolution●Level Meas:A high/low tone group range accuracy of +1.5 to -28dB with 0.1dB resolution and ±0.5dB accuracy●Timing Meas:1mS to 65.5 seconds with 1mS resolution and ±1mS accuracy●Tone Acceptance:Maximum twist of ±10 dB with 35 mS minimum tone duration. 18 dB maximum dial tone level toleranceCLASS SERVICES TESTING (OPTIONAL)●Enhanced Caller/Name ID:Test Functions ●Timing Measurements:1mS to 60 seconds with 1mS resolution and±1mS accuracyCLASS SERVICES TESTING (OPTIONAL - CONTINUED)●Receiver Sensitivity:Carrier must be received at -45dB minimumreceiver sensitivity●FSK Data Detection:Continuous phase coherent FSK detection(1200/2200Hz ±1%) @ 1200 BPS●Ring Voltage Measurements:40 to 140 VAC with 1 volt resolution and ±2 Vaccuracy GENERATOR ●Variable Tone:Frequency adjustable from 50Hz to 1.5MHz in1Hz steps: accurate to within ±0.5Hz●Fixed Tones:Program 50Hz, 100Hz, 1kHz, 5kHz, 8kHz, and 15kHz. (transmit level fixed at 0.0dBm)●ADSL Tones:28kHz, 40kHz, 48kHz, 82kHz, 196kHz, 392kHz (level adj. +13dBm to –40dBm)●Wideband Sweep:400Hz to 3200Hz in 200Hz steps, 4800Hz, 8000Hz, 28kHz, 32kHz, 36kHz, 48kHz, 80kHz, 82kHz. Level adjustable from +13dBm to –40dBm●3–Tone Slope:404Hz, 1004Hz, 2804Hz, each at ±0.5Hz. Level adjustable in 4 steps of 0, -10, -13 and –16dBm ±0.2dBm●2713Hz Loop Back Generated at at ±0.5Hz. Level adjustable as in 3-Tone Slope●Level Accuracy:600/900/1200 ohm mode ±0.1dB from 400 to 10,000Hz; ±0.5dB from 200 to 30,000Hz●100/135 Ohm 4W Mode:±0.2dB from 400 to 30,000. Optional wideband 135 ohm; ±0.5dB from 250 to 1.5MHzLevel adjustable from +13dBm to –40dBm in 0.1dB steps●23-Tone Test:Generate 23-Tone sequence per IEEE-1995 at –6dBm to –40dBm. Measures individualfrequencies and level, RMS composite tone, IMD,EDD, S/TD and S/NR●Return Loss:Continuous generation of band limited noise signal sent at –6 ±1.0dBm in each of three bands●DTMF Generation:XMT level of –7 ±0.2dBm, w/1.5dB twist: freq Accurate to –0.5Hz, 75mS on, 75mS offRECEIVER ●Level Accuracy:+13 to - 72 dBmFor 600, 900 and 1200 ohm impedance :±0.2dB from 200Hz to 20,000Hz For 135 and 100 ohm impedance:±0.5dB from 1,000Hz to 600,000Hz and ±1dB from 600,000Hz to 1,500,000Hz●Frequency:For 50 to 1,500,000 Hz, frequency measurement accuracy is ±1 Hz resolution with 0.005% accuracy with 1Hz resolution●Noise:15 to 95dBrn with 1dBrn resolution and ±1dBrn accuracy from 20 to 90dBrn●Noise Filters:C-MSG, 3KHz Flat (D), Program, 15KHz Flat and E, F and G●Notched Noise:1010Hz notch, with a minimum of 50dB attenuation in the band of 995 to 1025Hz●Signal to Noise Ratio:Holding tone (1004Hz) must be in the range of +6 to –45dB: Measured S/N ratio range from from 10 to 55dB with 1dB resolution and ±2dB accuracy●3-Level lmpulse Noise:Threshold can be set from 30 to 90dBrn: 3 level difference fixed at 4dBrn with a measurement accuracy of ±1dBrn. Blanking interval fixed at 125ms with 3 independent counters●23-Tone Test:Generate 23-Tone sequence per IEEE-743(1995 Edition) at -6dBm to -40dBm.Measures individual frequencies and level, RMS Composite Tone, IMD, EDD, S/TD and S/NR ●Return Loss:Three bands: ERL, SRL-HI, SRL-LO; Range of 0 to -30dB with 1dB resolution and ±1dB accuracy. Continuous generation of band limited noise signal sent at -6 ±1.0 dBm in each of 3 bands ●Line Voltage Measurement 2 to 85 VDC : 0.1 Volt resolution and ±1 Volt accuracy●Line Current Measurement10 to 80mA; 0.1mA resolution and ±1mA accuracyHalcyon 704A-400 SeriesPlease contact CXR for the Ordering Configurations,accessories and options associated with the 704A-400 Series.。

Meggitt SA IPC704信号条件器说明说明书

Meggitt SA IPC704信号条件器说明说明书

© Meggitt SA / 262-710 / Version 12 / 08.11.2017 / E 1 / 16Information contained in this document may be subject to Export Control Regulations of the European Union, USA or other countries. Each recipient of this document is responsible for ensuring that transfer or use of any information contained in this document complies with all relevant Export ControlRegulations. ECN N/A.IPC704Signal conditionerFEATURES»From the Vibro-Meter ® product line »For CAxxx piezoelectric accelerometers and CPxxx dynamic pressure sensors »Configurable high-pass and low-pass filters »Frequency range: 0.5 Hz to 20 kHz»Optional integrator to produce a velocity output »Optional 2-wire current or 3-wire voltage transmission»Certified for use in potentially explosive atmospheres»A range of installation options are availableIPC704IECEx NEPSI KGSDESCRIPTIONThe IPC704 signal conditioner converts the charge-based signal from a piezoelectric-based transducer into a current or a voltage signal. This current or volt-age signal is transmitted to the processing electronics via a standard 2-wire or 3-wire transmission cable. The current modulation technique allows transmis-sion over a distance of up to 1 km. A GSI galvanic separation unit is required for this configuration.The electronic circuitry of the IPC704 signal condi-tioner is incorporated into a moulded aluminium enclosure. The signal conditioner has configurablehigh-pass and low-pass filters and an optional inte-grator to give a velocity output. Furthermore, RFI fil-ters protect the input and output against radio-frequency interference and other electromagnetic influences.A range of installation options are available for the IPC704 signal conditioner, including:» A polyester enclosure providing environmental protection against dust, oil and water jets.»A mounting adaptor allowing the IPC704 signal conditioner to be mounted on a DIN rail.Signal conditioner IPC7042 / 16© Meggitt SA / 262-710 / Version 12 / 08.11.2017 / EDESCRIPTION (continued)Two versions of the IPC704 signal conditioner are available:»An IPC704 for sensors using standard piezoelectric materials, for example, CAxxx,CP10x and CP2xx(ordering number 244-704-000-042-... ).»An IPC704 for sensors using GaPO4 piezoelectric material, for example, CP50x (ordering number 244-704-000-511-... ).BLOCK DIAGRAM(electrically c onductive)COM O/P +24VSPECIFICATIONSEnvironmental characteristics(Specifications according to IEC 60068-2 recommendations)GeneralTemperature•Operation:−30 to +85 °C•Storage:−40 to +85 °CHumidity:Max. 95 % non-condensing.Note: For operation in a humid environment, ordering option A3 (pottedversion) should be considered.Protection rating(according to IEC 60529):IP40Vibration(according to IEC 60068-2-26):2 g peak between 10 and 500 HzShock acceleration(according to IEC 60068-2-27):15 g peak (half sine, 11 ms duration)Industrial housing (ordering option G1)Protection rating(according to IEC 60529):IP66Impact resistance:> 4mJ/mm2 (DIN 53453)Chemical resistance:Good resistance to seawater, acids, alkaline solutions, gasoline and oils Flammability:UL94V-0 self-extinguishing© Meggitt SA / 262-710 / Version 12 / 08.11.2017 / E3 / 16Signal conditionerIPC704Explosive atmospheresAvailable in Ex approved versions for use in hazardous locationsType of protection Ex i: intrinsic safety (ordering option A2)EuropeEC type examination certificate LCIE 02 ATEX 6085 XII 2G (Zones 1, 2)Ex ib IIC T6 … T4 GbNorth AmericaC CSAUS certificate C CSA US 1243981Class I, Division 1, Groups A, B, C, DEx ia (T6 to T4)International IECEx certificate of conformity IECEx LCI 06.0009XEx ib IIC T6 … T4 GbChina NEPSI certificate of conformity*GYJ12.1450XEx ib IIC T6 to T4 GbKoreaKGS certificate of conformity 12-GA4BO-0396XEx ib IIC T6 to T4Type of protection Ex nA: non-sparking (ordering option A3)EuropeVoluntary type examination certificate LCIE 09 ATEX 1027 XII 3G (Zone 2)Ex nA IIC T6 … T5 GcNorth AmericaC CSA US certificate C CSA US 1243981Class I, Division 2, Groups A, B, C, D Ex nA IIC T6 to T5 Gc Class I, Zone 2AEx nA IIC T6 to T5 GcInternationalIECEx certificate of conformity IECEx LCIE 13.0053XEx nA IIC T6 … T5 Gc* N ot engraved on the product marking.For specific parameters of the mode of protection concerned and special conditions for safe use, refer to the certificates that are available from Meggitt SA on demand.When using protection mode ‘nA’ (non-sparking apparatus), the user shall ensure that the signalconditioner is installed in an enclosure that ensures a protection rating of at least IP54 (or equivalent).For the most recent information on the Ex certifications that are applicable to this product, refer to the Ex product register (PL-1511) document that is available from Meggitt SA.Industrial housing (ordering option G1)Available in Ex approved versions for use in hazardous locations•Environment:II 2 G (Zones 1, 2) Ex e II < 109Ω (DIN 53482)•Surface resistivity for Ex version:Stuffing glandsAvailable in Ex approved versions for use in hazardous locations•Environment:II 2 G/D (Zones 1, 2) Ex e II For specific parameters of the mode of protection concerned and special conditions for safe use,refer to the certificates that are available from Meggitt SA on demand.For the most recent information on the Ex certifications that are applicable to this product, refer to the Ex product register (PL-1511) document that is available from Meggitt SA.SPECIFICATIONS (continued)Signal conditioner IPC7044 / 16© Meggitt SA / 262-710 / Version 12 / 08.11.2017 / EPower supply to IPC704Voltage :18 to 30 V DC Current:25 mA (max.)Transfer characteristics (ordering option B)IPC704 for sensors using standard piezoelectric materials (244-704-000-042-... )•Transfer without integrator:0.1 to 10 mV/pC or 0.1 to 10 µA/pC •Transfer with integrator:981 to 98 100 mV/(pC.s) or 981 to 98 100 µA/(pC.s)IPC704 for sensors using GaPO 4 piezoelectric material (244-704-000-511-... )•Transfer:0.1 to 50 mV/pC or 0.1 to 50 µA/pC Linearity error:≤ 0.2 %Temperature stability :100 ppm / °C typicalPhase:180° between the input signal and the acceleration output.180° between the input signal and the pressure output. 90° between the acceleration and velocity outputs.See the graph below.Input characteristics (ordering option C)Compatible sensors:Any piezoelectric-based transducer – symmetrical or non-symmetrical, case grounded or insulated Dynamic range:100 000 pC peak Input sensitivity•Accelerometers:See IPC704 for accelerometers (acceleration output) using standard piezoelectric materials on page 6 andIPC704 for accelerometers (velocity output) using standard piezoelectric materials on page 6•Dynamic pressure transducers:See IPC704 for pressure sensors using standard piezoelectric materials on page 7 andIPC704 for pressure sensors using GaPO4 piezoelectric material on page 8Charge amplifier:Symmetrical RFI filter:Symmetrical LC network Resistance:≥ 50 k Ω (sensor and cable)Capacitance:≤ 10 nF (sensor and cable)SPECIFICATIONS(continued)Input signalAcceleration and pressureVelocity At© Meggitt SA / 262-710 / Version 12 / 08.11.2017 / E 5 / 16Signal conditionerIPC704Output characteristics (ordering option D)RFI filter:Symmetrical LC network 2-wire current transmission•Dynamic signal:Max. ± 5 mA peak •Standing current :12 mA ± 0.5 mA•Electrical connection:+24 V = “+”, COM = “−”•Output sensitivity:See Ordering information on page 12•Max. dynamic range:5 mA peak / o utput sensitivity 3-wire voltage transmission•Dynamic signal :Max. ± 5 V peak •Standing voltage :7.5 V ± 0.2 V•Output sensitivity:See Ordering information on page 12•Output impedance:750 Ω (3-wire configuration)•Max. dynamic range :5 V peak / o utput sensitivityThe 3-wire voltage output without galvanic separation unit should only be used with piezoelectric-basedtransducers which are insensitive to frame voltage.Dynamic pressure transducers should always be used with a GSI galvanic separation unit .Filter characteristics (ordering options E and F)High-pass filter•Cutoff frequencies (at −3 dB):0.5, 1, 2, 5 or 10 Hz (all ± 20 %)•Slope:24 dB/octave (4th order)When selecting a high-pass filter, be careful to select an appropriate frequency for the charge amplifier. See the charge amplifier frequencies versus transfer unit graphs on the following pages.Low-pass filter•Cutoff frequencies (at −1 dB):200, 500, 1 000, 2 000, 5 000, 10 000 or 20 000 Hz (all ± 10 %)•Slope:12 dB/octave (2nd order)SPECIFICATIONS(continued)Signal conditioner IPC7046 / 16© Meggitt SA / 262-710 / Version 12 / 08.11.2017 / ECharge amplifier frequencies versus transfer unitIPC704 for accelerometers (acceleration output) using standard piezoelectric materialsIPC704 for accelerometers (velocity output) using standard piezoelectric materialsSPECIFICATIONS (continued)Output sensitivity (mV/ g or µA / g )T r a n s d u c e r s e n s i t i v i t y (p C / g )1001NotesFor operation in different regions of the chart, the cutoff frequency of the IPC704’s charge amplifier dictates the required high-pass filter settings. (See the HP FILTER (E) option in ordering information.)Region 1: Cutoff frequency is 0.5 Hz → HP filter ≥0.5 Hz.Region 2: Cutoff frequency is 1 Hz → HP filter ≥1Hz.Region 3: Cutoff frequency is 2 Hz → HP filter ≥2Hz.Region 4: Cutoff frequency is 3 Hz → HP filter ≥5Hz.200100502010521502010Ordering number 244-704-000-042-... with ordering options B01 and B02T r a n s d u c e r s e n s i t i v i t y (p C / g )1001502010Output sensitivity (mV/ m m/s or µA / m m/s)1005020105210.5Output sensitivity (mV/ i ps or µA / i ps)2540127050825412750.825.412.7Ordering number 244-704-000-042-... with ordering options B03, B04, B05 and B06NotesFor operation in different regions of the chart, the cutoff frequency of the IPC704’s charge amplifier dictates the required high-pass filter settings. (See the HP FILTER (E) option in ordering information.)Region 1: Cutoff frequency is 0.5 Hz → HP filter ≥0.5 Hz.Region 2: Cutoff frequency is 1 Hz → HP filter ≥1Hz.Region 3: Cutoff frequency is 2 Hz → HP filter ≥2Hz.Region 4: Cutoff frequency is 3 Hz → HP filter ≥5Hz.© Meggitt SA / 262-710 / Version 12 / 08.11.2017 / E 7 / 16Signal conditionerIPC704IPC704 for pressure sensors using standard piezoelectric materialsSPECIFICATIONS (continued)Output sensitivity (mV/ m bar or µA / m bar)T r a n s d u c e r s e n s i t i v i t y (p C /b a r )95010750250190Output sensitivity (mV/ p si or µA / p si)25T r a n s d u c e r s e n s i t i v i t y (p C / p s i )NotesFor operation in different regions of the chart, the cutoff frequency of the IPC704’s charge amplifier dictates the required high-pass filter settings. (See the HP FILTER (E) option in ordering information.)Region 1: Cutoff frequency is 0.5 Hz → HP filter ≥0.5 Hz.Region 2: Cutoff frequency is 1 Hz → HP filter ≥1Hz.Region 3: Cutoff frequency is 2 Hz → HP filter ≥2Hz.Region 4: Cutoff frequency is 3 Hz → HP filter ≥5Hz.Ordering number 244-704-000-042-... with ordering options B07, B08, B09 and B10Signal conditioner IPC7048 / 16© Meggitt SA / 262-710 / Version 12 / 08.11.2017 / EIPC704 for pressure sensors using GaPO 4 piezoelectric materialSPECIFICATIONS (continued)Output sensitivity (mV/ m bar or µA / m bar)T r a n s d u c e r s e n s i t i v i t y (p C / p s i )T r a n s d u c e r s e n s i t i v i t y (p C / b a r )Output sensitivity (mV/ p si or µA / p si)NotesFor operation in different regions of the chart, the cutoff frequency of the IPC704’s charge amplifier dictates the required high-pass filter settings. (See the HP FILTER (E) option in ordering information.)Region 1: Cutoff frequency is 0.5 Hz → HP filter ≥0.5 Hz.Region 2: Cutoff frequency is 1 Hz → HP filter ≥1Hz.Ordering number 244-704-000-511-... with ordering options B07, B08, B09 and B10Signal conditionerIPC704Physical characteristicsSignal conditioner without industrial housing (ordering option G0)•Enclosure:Injection moulded aluminium, anodized•Mounting:Two or four M4 screws•Weight:Standard version: 170 gEx version: 250 g (the signal conditioner is moulded into silicon)•Dimensions:See Mechanical drawings on page 10•Electrical connection (input):Three screw terminals – wire section 2.5 mm2 (max.)•Electrical connection (output):Three screw terminals – wire section 2.5 mm2 (max.)Signal conditioner with industrial housing (ordering option G1)•Enclosure:Polyester reinforced with glass fibre•Cover seal:Silicone gasket•Mounting:M6 x 30 mm Allen screws•Dimensions:See Mechanical drawings on page 10Input/output stuffing glands (ordering options H and I)•Type:See Ordering information on page 12•Material:Nickel-plated brass with Viton® sealSignal conditioner with MA130 mounting adaptor (ordering option G2)Universal DIN rail holder type:TSH 35DIN rail type(according to EN 50022 / IEC 60715):TH 35-7.5 or TH 35-15SPECIFICATIONS (continued)© Meggitt SA / 262-710 / Version 12 / 08.11.2017 / E9 / 16Signal conditioner IPC70410 / 16© Meggitt SA / 262-710 / Version 12 / 08.11.2017 / EMECHANICAL DRAWINGSSignal conditionerIPC704MECHANICAL DRAWINGS (continued)Signal conditioner IPC704ORDERING INFORMATIONIPC704 signal conditioner for sensors using standard piezoelectric materials Ordering number: 244 - 704 - 000 - 042ENVIRONMENT (A)Standard 1Explosive Ex i 2Explosive Ex nA3TRANSFER UNIT (B)INPUT OUTPUT pC/g µA/g 01pC/g mV/g 02pC/g µA /m m/s 03pC/g mV/ m m/s 04pC/g µA /i n/s 05pC/g mV/ i n/s 06pC/bar µA/mbar 07pC/bar mV/mbar 08pC/psi µA/psi 09pC/psimV/psi10OUTPUT CABLE FITTING (I)No cable fitting (no hole)0M16 x 1.5 with plug1Cable gland M16 x 1.5 for cable Ø4 - Ø7 mm 3Cable gland M16 x 1.5 for cable Ø7 - Ø11 mm 4Adaptor M16 x 1.5 / PG9 with plug 8Adaptor M16 x 1.5 / M20 x 1.5 with plug10B A D E F G H IC INPUT SENSITIVITY (C)Sensor sensitivityOUTPUT SENSITIVITY (D)Value per mechanical unitLP FILTER (F)Value in HzHP FILTER (E)Value in HzINPUT CABLE FITTING (H)No cable fitting (no hole)0M16 x 1.5 with plug1Cable gland M16 x 1.5 for cable Ø4 - Ø7 mm 3Cable gland M16 x 1.5 for cable Ø7 - Ø11 mm 4Adaptor M16 x 1.5 / PG9 with plug 8Adaptor M16 x 1.5 / M20 x 1.5 with plug10INSTALLATION (G)Signal conditioner only0Signal conditioner with industrial housing 1Signal conditioner assembled on MA130 mounting adaptor2Low-pass filter200 Hz 500 Hz 1 000 Hz 2 000 Hz 5 000 Hz 10 000 Hz 20 000 HzHigh-pass filter0.5 Hz 1 Hz 2 Hz 5 Hz 10 Hz(2)(2)(1)Notes1. With options A3 and G0 / G 2, the user shall ensure that the signal conditioner is installed in an enclosure that ensures a protection rating of at least IP54 (or equivalent).2. With option H0, only option I0 is available.Signal conditionerIPC704IPC704 signal conditioner for sensors using GaPO 4 piezoelectric material ORDERING INFORMATION (continued)Ordering number: 244 - 704 - 000 - 511ENVIRONMENT (A)Standard 1Explosive Ex i 2Explosive Ex nA3TRANSFER UNIT (B)INPUT OUTPUT pC/bar µA/mbar 07pC/bar mV/mbar 08pC/psi µA/psi 09pC/psimV/psi10OUTPUT CABLE FITTING (I)No cable fitting (no hole)0M16 x 1.5 with plug1Cable gland M16 x 1.5 for cable Ø4 - Ø7 mm 3Cable gland M16 x 1.5 for cable Ø7 - Ø11 mm 4Adaptor M16 x 1.5 / PG9 with plug 8Adaptor M16 x 1.5 / M20 x 1.5 with plug10B A D E F G H IC INPUT SENSITIVITY (C)Sensor sensitivityOUTPUT SENSITIVITY (D)Value per mechanical unitLP FILTER (F)Value in HzHP FILTER (E)Value in HzINPUT CABLE FITTING (H)No cable fitting (no hole)0M16 x 1.5 with plug1Cable gland M16 x 1.5 for cable Ø4 - Ø7 mm 3Cable gland M16 x 1.5 for cable Ø7 - Ø11 mm 4Adaptor M16 x 1.5 / PG9 with plug 8Adaptor M16 x 1.5 / M20 x 1.5 with plug10INSTALLATION (G)Signal conditioner only0Signal conditioner with industrial housing 1Signal conditioner assembled on MA130 mounting adaptor2Low-pass filter200 Hz 500 Hz 1 000 Hz 2 000 Hz 5 000 Hz 10 000 Hz 20 000 HzHigh-pass filter0.5 Hz 1 Hz 2 Hz 5 Hz 10 Hz(2)(2)(1)Notes1. With options A3 and G0 / G 2, the user shall ensure that the signal conditioner is installed in an enclosure that ensures a protection rating of at least IP54 (or equivalent).2. With option H0, only option I0 is available.Signal conditioner IPC704MOUNTING ACCESSORIESABA160 industrial housingNotes1. Suitable for potentially explosive atmospheres only when used with Ex i certified products from Meggitt Sensing Systems’ Vibro-Meter p roduct line. A ll machining on the industrial housing must comply with the operational manual of the housing manufacturer.2. With option B00, only option C00 is available.Ordering number: 830 - 160 - 000 - 111ENVIRONMENT (A)Standard polyester 1Explosive Ex i2CABLE FITTING INPUT (B)No cable fitting (no hole)00M16 x 1.5 with plug01Cable gland M16 x 1.5 for cable Ø4 - Ø7 mm 03Cable gland M16 x 1.5 for cable Ø7 - Ø11 mm 04Adaptor M16 x 1.5 / PG9 with plug 08Adaptor M16 x 1.5 / M20 x 1.5 with plug (cable Ø12 mm max.)10CABLE FITTING OUTPUT (C)No cable fitting (no hole)00M16 x 1.5 with plug01Cable gland M16 x 1.5 for cable Ø4 - Ø7 mm 03Cable gland M16 x 1.5 for cable Ø7 - Ø11 mm 04Adaptor M16 x 1.5 / PG9 with plug 08Adaptor M16 x 1.5 / M20 x 1.5 with plug (cable Ø12 mm max.)10A B1C1(2)(2)(1)Signal conditionerIPC704MA130 mounting adaptorOrdering number: 809-130-000-011Base plate for IPC704 signal conditionerThis aluminium base plate can be used when an old IPC620 unit is replaced by an IPC704 signal conditioner. The housing of the IPC620 can be reused and the IPC704 mounted on it.Ordering number: 244-620-002S034MOUNTING ACCESSORIES (continued)Note: All dimensions in mm unless otherwise stated.R 49123054~ R 2~ R 24.53970139Ø5, 5H 114.527454.5130148Note: All dimensions in mm unless otherwise stated.Signal conditionerIPC704Headquartered in the UK, Meggitt PLC is a global engineering group specializing in extreme environment components and smart sub-systems for aerospace, defence and energy markets.Meggitt Sensing Systems is the operating division of Meggitt specializing in sensing and monitoring systems, which has operated through its antecedents since 1927 under the names of ECET, Endevco, Ferroperm Piezoceramics, Lodge Ignition, Sensorex and Vibro-Meter. Today, these operations are integrated under one strategic business unit called Meggitt Sensing Systems, headquartered in Switzerland and providing complete systems, using these renowned brands, from a single supply base.The Meggitt Sensing Systems facility in Fribourg, Switzerland was formerly known as Vibro-Meter SA, but is now Meggitt SA. This site produces a wide range of vibration and dynamic pressure sensors capable of operation in extreme environments, leading-edge microwave sensors, electronics monitoring systems and innovative software for aerospace and land-based turbo-machinery.All statements, technical information, drawings, performance rates and descriptions in this document, whilst stated in good faith, are issued for the sole purpose of giving an approximate indication of the products described in them, and are not binding on Meggitt SA (Meggitt Sensing Systems) unless expressly agreed in writing. Before acquiring this product, you must evaluate it and determine if it is suitable for your intended application. You should also check our website at /energy for any updates to data sheets, Ex certificates, product drawings, user manuals, service bulletins and/or other instructions affecting the product. Unless otherwise expressly agreed in writing with Meggitt SA, you assume all risks and liability associated with use of the product. Any recommendations and advice given without charge, whilst given in good faith, are not binding on Meggitt SA.Meggitt SA (Meggitt Sensing Systems) takes no responsibility for any statements related to the product which are not contained in a current Meggitt Sensing Systems publication, nor for any statements contained in extracts, summaries, translations or any other documents not authored and produced by Meggitt SA. Meggitt SA reserves the right to alter any part of this publication without prior notice.In this publication, a dot (.) is used as the decimal separator and thousands are separated by thin spaces. Example: 12 345.678 90.Sales offices Your local agent Head officeMeggitt Sensing Systems has offices in more than 30 countries. For a complete list, please visit our website.Meggitt SARoute de Moncor 4PO Box 16161701 FribourgSwitzerlandTel: +41 26 407 11 11Fax: +41 26 407 13 01*****************.com /energyISO 9001FS 584089。

丝芯实验室 Si70xx 温度与湿度传感器说明书

丝芯实验室 Si70xx 温度与湿度传感器说明书

Si70xx&Relative&Humidity&&&Temperature&Sensors On&Board&TrainingD A N IE L'H O N N I B A L L'|'M A R C H'2018!Silicon'Labs’'Si70xx'temperature'and'humidity'sensors'used'in'many'applications!Industry:leading'low'power'consumption'extends'battery'life !High'accuracy'meets'the'needs'of'demanding'applications !Fully'factory'calibrated!14:bit'ADC'delivers'higher'precision'than'MCU:based'temperature'sensors!0.1°C'sensor'(Si7051)'can'be'used'in'applications'measuring'human'body'temperatureSi70xx&Humidity&&&Temperature&Sensor&ApplicationsInternet'of'Things Internet'InfrastructureIndustrial'ControlRemote'monitoring'and'asset'trackingAutomotiveHVAC Home'Automation Consumer'DevicesWearable'temperature'sensingHealthcareCPAP'machines PatientTemperature Management!Humidity(is(meaningful(in(determining(comfort(level!Heating(and(air(conditioning!Can(significantly(reduce(HVAC(cost(by(adding(humidity(control !Automatic(activation(of(vent(fans!Mold(prevention(and(comfort!Weather(stations!Humidity(control(for(high(value(goods!Detect(if(a(sealed(case(with(desiccant(has(been(breached !Perishable(goods(monitoring !Electronics(cabinets!Industrial(applications!Humidity(affects(paper(handling,(chemical(processing!Medical(applications((Respiratory(health,(comfort)!Automotive((cabin(comfort(and(window(fog)Why$Measure$Humidity?!Accurate(sensing!RH(accuracy(as(good(as(±3%(RH!Best(in(class(temperature(accuracy(of(+/<0.1°C !<40(to(+125(°C(temperature(range(!Industry’s(lowest(power(consumption!1(µW(@(1.8(V,(8<bit,(1(sample/second((RH)!<0.5uW(@(1.8(V,(8<bit,(1(sample/second((Temp)!Si70xx(feature(set(provides(unmatched(ease(of(use!Full(factory(calibration(and(internal(compensation !Industry<standard(footprint(and(software(interface !Support(for(2<zone(temperature(sensor((Si7013)RH/Temp(Sensors(Value(PropositionTEMPERATURE HUMIDITYThe(simpler,(greener(way(to(measure(relative(humidity(&(temperature!Moisture)(H2O))content)in)air:!Saturated)vapor)pressure)(SVP)!Maximum)water)that)the)air)can)hold !Very)dependent)on)temperature)!Absolute)vapor)pressure)(AVP)!Actual)amount)of)water)present!Relative)Humidity)definition!%RH)=)AVP)/)SVP!Dew)point)definition!For)a)given)RH)and)temp,)the)temperature)at)which)condensation)would)form)if)the)air)were)cooled !Meaningful)as)an)indicator)of)comfort!Key)point)K heating)air)just)1°C)drops)relative)humidity)by)5%!Because)the)air)can)hold)more)humidity)(SVP)increases)!Small)amounts)of)heating)can)have)large)effect)on)relative)humidityRelative(Humidity((%RH)(and(Dew(Point%RH)is)a)measurement)for)how)much)water)is)in)the)air)versus)how)much)it)can)hold!Humidity(is(sensed(by(measuring(the(capacitance(change(of(a(polyimide(film(applied(to(the(surface(of(the(die!Polyimide(film(is(exposed(through(a(cavity(in(the(package!Capacitance(of(polyimide(film(increases(as(the(ambient(air(becomes(more(humid!Permittivity(of(dielectric(material(is(proportional(to(the(amount(of(moisture(it(has(absorbed!Temperature(is(sensed(by(a(precision(Vbe referenced(circuit(on(the(die!Thermal(input(is(through(the(DFN(exposed(paddle((ePAD)(under(the(package!Both(temperature(and(humidity(are(measured(in(extremely(close(proximity(on(the(same(monolithic(deviceFunctional*Description!Select&Si70xx&humidity&sensors&are&available&with&an&optional&hydrophobic&protective&cover!Pre:installed&by&Silicon&Labs!Available&on&Si7006,&Si7013,&Si7020&&&Si7021!Made&of&expanded&polytetrafluoroethylene&!(ePTFE)&aka&Gore:Tex ®!Protects&sensor&from&liquids,&dust,&light&&&ESD!<1&µm&pore&blocks&dust&&&liquid,&passes&H 2O&vapor !IP67&rated&to&block&liquid&water&up&to&1m&depth !SMT&and&reflow&compatible!Solder&and&flux&resistant&(up&to&260&°C)&!Cover&has&minimal&impact&on&response&timeHumidity(Sensor(Protective(CoverSi7013&with&coverSi7013&without&cover Option Protection+During+PCB+Assy.Protection+During+Operation Additional+Labor+Cost Si70xx+Filter Cover Yes IP67Yes IP67NoneCompetitors&Kapton Tape YesNone~$0.40Competitors&Plastic CapNone Yes ~$0.20Design'in(Challenges(with(All(RH(SensorsIssue(s)Legacy SolutionsSilicon2Labs2Si70xxCalibrationDiscretes/analog(circuits(require(calibration;not(interchangeable Factory(calibrated(and(interchangeableProtection during(PCB(assembly;(rehydrating(the(sensor(afterward Use of(Kapton ®tape(or(sockets(or(optional(preEinstalled(tape;(forced(rehydration(requiredConvenient cover(protects(before,(during(and(after(assembly;(rehydrates(at(ambient(conditionsLifetime(protection from(damage/contamination(Disclaimed(in(data(sheet;(optional(filters offered(by(a(few(vendors Impact(of(long(exposure(to(extremes of(temperature/RH Readings(can(drift/shift;(known(characteristic(of(polymers;(disclaimed(in(data(sheetsCan(be(reduced(using onEchip(heaterTemperature correction(and(linearization(of(RH(readings Polynomial(correction(on MCU(host On(chip(for(Si7013/20/21Compatibility(with(pickEandEplace(and/or(solder(reflowMany(MCMs/hybrids/modules/discretes(are(incompatibleStandard(SMT(manufacturing(flow(with(pickEandEplace!Si70xx2solves2these2key2customer2issues"Reducing(design(risk,(manufacturing(time,(and(cost!RH2sensors2have2unique2design2and2use2considerations"Must(be(calibrated,(protected,(and(work(over(extended(periods(of(time(!One$of$the$more$common$customer$issues$is$thermal$isolation !The$Si70xx$parts$measure$the$environment$they$are$in!Just$1C$of$heating$reduces$humidity$by$5%!If$the$system$produces$heat$the$Si70xx$must$be$thermally$isolated$from$the$system$!Also,$mount$the$Si70xx$on$a$paddle$to$thermally$connect$it$to$the$outside$environment!Please$refer$to$AN607$and$AN1026$for$more$detail!Best$accuracy$is$achieved$by$isolating$the$sensor.$In$some$cases,$compensation$for$the$system$heating$as$well$as$thermal$mass$of$the$system$must$be$done$as$wellThermal(Isolation(EFM32(STK’s(have(an(example(of(a(recommended(PCB(design(for(good(thermal(isolationEFM32$STKThunderboard$SenseHandling(Requirements(for(Humidity(Sensors!All)humidity)sensors)including)competitive) parts)have)these)issues!Improper)handling)is)a)major)source)of) customer)issues!While)this)is)covered)in)data)sheets)and)AN607)it)is)worth)emphasizing!Use)reflow)soldering)only!Hand)soldering,)wave)soldering)and)other)methods)like)vapor)phase)reflow)can)cause)accuracy)issues!Avoid)board)washing)after)soldering!Organic)solvents)will)cause)issues!Low)pressure)water)spray)can)be)done)with) care)but)is)best)avoided !Be)careful)about)conformal)coating!Don’t)get)it)on)the)part!Use)low)VOC)conformal)coating)materials!Dry)in)a)well)ventilated)area!Check)the)conformal)coating)process)!Be)careful)about)storage!Store)devices)and)completed)boards)in)a)temperature)and)humidity)controlled)area !Avoid)organic)fumes)–paint,)glue)etc.!Do)not)use)polyethylene)bags)(typically)pink,) yellow)or)blue)antistatic)bags)!Metallic)sealable)moisture)barrier)bags)work)well!Collateral!Si7006/7/13/20/21/22/23/342data2sheets!AN607:2Si70xx2Humidity2Sensor2Designer’s2Guide!AN1026:2Si70xx2Temperature2Sensor2Designer’s2Guide !White2Paper:2Compact(Digital(Humidity(Sensor(IC(Extends(Battery(Life(and(Reduces(Design(Complexity!Software!Evaluation2Software2GUI2supports2all2Si70xx2devices!Si7013USBODONGLE,2Si7006O07OEVB,2Si7022O23OEVB,2Si7034OEVB!Thunderboard TM iOS2&2Android2apps2for2React2and2Sense !Weather2station2demo2in2Simplicity2Studio!Linux2driver2example2code2(Lm=sensors framework)Temperature)and)Humidity)Sensor)Collateral)LinksAll#Si70xx#collateral#and#software#is#available#at /products/sensors/humidityOsensors/%RH)App)Note AN607)LinkTemperature AN1026)LinkSi7021)Datasheet)Link Si7020)Datasheet)Link Si7006)Datasheet)Link Si7013)Datasheet)LinkTemperature)and)Humidity)portfolioPart%Number Accuracy%(Max)Package%Size VDD%(V)Si7034±4%)RH±0.4)°C)2x2)mm)QFN 1.67)–1.98)VSi7013)(w/2Jzone temp)sensor)Si7021)(I2C)Si7023(PWM)±3%)RH±0.4)°C)3x3)mm)QFN 1.9)–3.6)VSi7020)(I2C) Si7022)(PWM)±4%)RH±0.4)°C)3x3)mm)QFN 1.9)–3.6)VSi7006)(I2C) Si7007(PWM)±5%)RH±1.0)°C)3x3)mm)QFN 1.9)–3.6)VPart%Number Temp%Accuracy%(max)Package VDD%(V)Si7050JA20JIM±1.0)°C3x3)mm)QFN 1.9)–3.6Si7051JA20JIM±0.1˚C)(36J41˚C)3x3)mm)QFN 1.9)–3.6Si7053JA20JIM±0.3)°C3x3)mm)QFN 1.9)–3.6Si7054JA20JIM±0.4)°C3x3)mm)QFN 1.9)–3.6Si7055JA20JIM±0.5)°C3x3)mm)QFN 1.9)–3.6Si7057JA10JIM±0.35)°C2x2)mm)QFN 1.67)–1.98Si7058JA10JIM±0.5)°C2x2)mm)QFN 1.67)–1.98Si7059JA10JIM±1.0)°C2x2)mm)QFN 1.67)–1.98Si7060/65JB01JIV+/J1°C SOT23J5 1.71J5.5VTemperature)Sensors Humidity)Sensors!Si7060)new)family)of)temperature)sensors!Equipped)with)output)alert)pin!Accuracy:(±1.0˚C((max)([0°C(to(70°C]!±2.0°C((max)([:40°C(to(125°C]!I2C(configurable!4x(I2C(address(options((configured(at(factory)!Configure(output(threshold(over(I2C !Full(Sleep:Mode(with(50nA(Supply(Current !Autonomous(Mode:(Autonomously(monitor(temperature(with(an(output(alert(sampling(at(5Hz(Idd(avg)(=(0.4uA!Active(Mode:(Temperature(conversions(performed(on(I2C(command.(Numerical(measurements(read(out(as(15:bit(valueSi7060&Temp&Sensor:&Autonomous&Sampling&w/&Output&AlertSOT23:5OUTT(°C)T OPT RP Configurable-Output-AlertSOT23-57pin-Package!Medical(and(Consumer(Medical(applications(require(±0.1(˚C(!Typical(digital(temperature(sensors(have(an(accuracy(of(±0.5˚C !More(advanced(products((e.g.(Si7053)(have(accuracies(±0.3˚C!Still(not(good(enough(for(the(human(body(temperature(applications!Si7051(meets(the(requirement(of(±0.1˚C(max!Only(a(few(very(high(end(products(from(competitors(meet(this!Usually(thermometers(must(go(through(expensive(secondary(calibration(step !Si7051(typically(lower(priced(than(competing(alternatives!Exceeds(ASTM(E1112(“Standard(Specification(for(Electronic(Thermometer(for(Intermittent(Determination(of(Patient(Temperature”!±0.1°C((((35.8°C(to(41°C)!±0.13°C((20°C(to(70°C)!±0.25°C((T40°C(to(+125°C)Si7051'High'Accuracy'Temperature'SensorTemperature)and)Humidity)Sensor)ToolsP/N DescriptionSi7013USB8DONGLE General8purpose)evaluation platform)for)Si7013,)Si7020)&)Si7021 Si70228238EVB General8purpose)evaluation platform)for)Si7022)and)Si7023Si70068078EVB General8purpose)evaluation platform)for)Si7006)and)Si7007Si70348EVB General8purpose)evaluation platform)for)Si7034Si7050/1/3/4/58EVB Evaluation)Kits)for)Si7050)through Si7055Si70578EVB Evaluation)Kit)for)Si7057/8/9Thunderboard TM React)BLE)module)Sensor)Evaluation)Platform)with)Si7021 Thunderboard TM Sense)Multi)protocol)SOC)Sensor)Evaluation)Platform)with)Si7021 SLSTK3201A EFM32)Zero)Gecko)Starter)Kit)with)Weather)Station)DemoSi7013USB5DONGLE •USB)Dongle)with)Si7013•“Postage)stamp”)boards)for) Si7013,)Si7020)and)Si7021SLSTK3201A>–Weather>Station>Demo•EFM32)Zero)Gecko)Starter)Kit•Sensor)expansion)card)with)Si7013)and)Si1147•Weather)station)demo)softwareThunderboard TM Sense•Si7021)RHT)Sensor•Si1133)UV)and)Ambient)Light)Sensor•iOS)and)Android)demo)appsThunderboard TM React•Si7021)RHT)Sensor•Si1133)UV)and)Ambient)Light)Sensor•iOS)and)Android)demo)appsTemperature)and)Humidity)Sensors)2Takeaways!New$Temperature$sensors$!Si7057/8/9$Launched$Mid$June$–1.8V$temp$sensors$in$2x2$QFN!Si7051$is$best$in$class$for$body$temperature$monitoring$or$high$accuracy$applications !Meets$±0.1$˚C$requirement$for$medical$and$body$temp$monitoring!Asset$tracking$with$high$accuracy$<0.5°C$requirements!Exceeds$requirements$of$ASTM$E1112$!Lowest$power$and$cost$competitive!Si7060$is$best$for$lower$cost,$lower$accuracy$applications$needing$an$alert$pin!For$humidity$sensors$our$main$differentiation$is$lowest$power!Several$competitors$now$offer$the$filter$covers$and$similar$performance!Simple$design$in$due$to$pin$and$software$compatibility$with$Sensirion devicesThank&you W W W.S I L A B S.C O M!Combines)data)from)multiple)sources!External)thermistor)for)PCB)temperature)measurement !CPU)and)battery)temperature !System)operating)conditions!Battery)charging,)display)brightness,)etc.Adaptive)Compensation)Improves)AccuracyPCB temperatureCPU,and,batteryConditionsSi70xx,Humidity,and,Temperature,MeasurementAdaptive)CompensationSystem,operating,conditions (e.g.,radio)Compensated,humidity,and,temperature,readingsDisplayAdaptive)compensation)development)process!Silicon'Labs'reviews'sensor'placement'and'makes'recommendations!Opening'for'humidity'and'good'thermal'contact'with'the'environment!Silicon'Labs'and'customer'agree'on'performance'objectives'and'host'processor'requirements !Customer'develops'prototype'with'data'logging'capability!Sensor'readings'are'logged'periodically'(typically'once'per'second)!This'data'is'used'to'develop'a'model'for'the'system!Either'customer'or'Silicon'Labs'runs'tests'at'various'temperature'and'humidity'points!The'system'is'quickly'moved'from'one'condition'to'another!The'humidity'and'temperature'in'both'conditions'must'be'accurately'monitored!Several'conditions'are'required!Low'temperature'to'room,'High'temperature'to'room,'Low'RH'to'room,'High'RH'to'room!Algorithm'is'tested'adjusted'as'neededRH#Sensor#References!U.K.$National$Physics$Laboratory$Guide$to$RH$measurement!/publications/goodApracticeAonlineAmodules/humidity/ !Wikipedia:!Relative$Humidity!Dew$Point!I2C!IP$Rating!Polymers!Wave$SolderingRH#Sensor#Glossary!Absolute)vapor)pressure:)A)measure)of)the)actual)amount)of)water)present)in)the)air.!Boutique:)A)small)firm)that)provides)a)limited)range)of)very)specialized)goods)or) services)at)premium)prices.!Dew)Point:)For)a)given)RH)and)temperature,)the)temperature)at)which)condensation) would)form)if)the)air)were)cooled;)meaningful)as)an)indicator)of)comfort.!Hydrophobic:)Water)repellent/resistant.!IP)Rating:)Ingress)Protection)Rating;)first)digit)indicates)level)of)protection)against) particle;)the)second)digit)represents)level)of)protection)against)liquids.!IP67:)An)ingress)protection)rating)indicating)that)the)assembly)is)dust)tight)(6))and)can)withstand)up) to)1m)of)water)pressure)(7).)!Kapton:)A)polyimide)film)developed)by)DuPont)that)is)stable)over)a)wide)temperature) range)(up)to)≈)+400)°C).)It)is)available)in)sheet,)tape)and)“dot”)form)and)is)used)to) protect)selected)components)during)solder)reflow.!Oleophobic:)Oil)repellent/resistant.!Relative)Humidity:)Absolute_Vapor_Pressure)÷Saturated_Vapor_Pressure;)expressed) as)a)percentage.!Saturated)vapor)pressure:)The)maximum)amount)of)water)that)the)air)can)hold;) dependent)on)temperature.)!Why$do$these$parts$require$special$handling?!The$sensor$works$by$detecting$water$vapor$absorbed$in$a$porous$polyimide$film.$Alcohol$cleaning,$solder$ flux,$organic$fumes$and$long$term$exposure$to$hot$humid$conditions$can$affect$accuracy.!Competitive$parts$have$similar$sensitivity$and$all$require$the$same$handling$precautions!The$optional$cover$for$Si70xx$sensors$provides$lifetime$protection$against$liquids$and$dust$which$is$an$ advantage$vs competitive$parts,$but$the$cover$does$not$block$fumes!I$tried$soldering$your$Si7021$into$a$board$that$already$has$SHT21$and$the$accuracy$seems$poor? !The$recommended$procedure$for$soldering$is$reflow$in$a$convection$oven$with$no$clean$flux.$!Hand$soldering$often$results$in$excessive$heat$or$flux$contamination$of$the$sensor!Do$I$take$the$filter$cover$off$after$soldering?!No$it$is$solder$resistant!I$noticed$the$cover$shrank$during$soldering$is$that$normal?!Minor$shrinkage$of$the$cover$is$allowable$and$occurs$at$peak$solder$temperature$near$the$260C$maximum.$If$significant$shrinkage$is$observed$the$soldering$temperature$is$too$high.!How$can$I$use$more$than$one$Si70xx$on$an$I2C$bus?!The$Si7013$has$a$pin$selected$i2C$address$so$two$devices$can$be$used$on$one$I2C$bus!For$more$than$two$devises$on$the$bus,$some$customers$switch$the$I2C$bus$with$an$analog$switch$on$the$ SDA$line!Are$these$parts$ESD$sensitive?!At$normal$IC$level$threshold$of$2KV$they$are$not$ESD$sensitive!However,$the$sensor$must$be$exposed$to$the$environment$and$could$be$subjected$to$ESD$levels$of$15KV.$ The$best$practice$is$to$arrange$exposed$ground$metal$between$the$system$opening$that$lets$air$into$the$ sensor$and$the$IC$itself$so$that$ESD$will$preferentially$arc$to$ground!Will$heat$from$other$components$affect$accuracy?!The$Si702x$will$accurately$sense$the$humidity$and$temperature$of$the$environment$it$is$in.$!However,$just$1$degree$C$of$heat$reduces$humidity$by$approximately$5%$for$humid$air.$So$while$the$ humidity$is$correct,$it$might$not$be$the$ambient$humidity.$In$these$situations,$dew$point$is$still$accurate$ or$if$the$amount$of$heating$is$known$it$can$be$corrected!I"have"a"USB"dongle"evaluation"board"with"a"“postage"stamp”"and"I"notice"the"readings"of"the" two"sensors"are"different."Why?!Be"careful"to"use"the"extension"cord"for"the"USB"dongle"to"keep"it"away"from"heat"from"the"PC!There"is"about"1C"of"heating"from"the"USB"MCU"so"the"sensor"on"the"board"will"tend"to"read"slightly"high"in"temperature"and"up"to"5%"low"in"humidity"(for"humid"air).!Moisture"and"head"from"your"hands"will"affect"readings."So"be"cautious"to"allow"adequate"settling"time"after"handling.!I"checked"the"accuracy"and"it"does"not"agree"with"my"instrument?!Humidity"measurement"is"very"difficult."The"very"best"instruments"are"over"$10,000"and"can"still"only"measure"humidity"over"a"limited"range"to"approximately"1%"accuracy."Common"humidity"measurement"devices"are"only"about"5%"accurate"and"should"be"suspect.!Do"you"have"example"code"and"device"drivers"available?!Yes!""Enter"a"support"request"of"what"you"are"looking"for"at" or"in"Salesforce and"we"will"provide"them.Adding&RH&and&Temp&Sensing&is&Easy&with&Si70xxSchematic•Si70xx&needs just&3&external&components•I2C&interface&connects&easily&to&MCUsLayout•Place&Si70xx&close&to&the outside&edge&of&the&board&away&from&heat&sourcesAssembly •Si70xx is&compatible&with&SMT&pickDandDplace&and& reflow&soldering&processes•Si70xx&is&fully&calibratedSoftware •Download&example&code&and&drivers from&•Si70xx&fully&supported&in&Simplicity&Studio。

Great Plains Industries, Inc. TM Series Electronic

Great Plains Industries, Inc. TM Series Electronic

TM Series ®Electronic Water FlowmetersEN920786-02 Rev D07/16/20201/2 INCH - 2 INCH METER SIZES [TM05XXXXXX - TM20XXXXXX MODELS]Please save these instructions for future reference. Read carefully before attempting to assemble, install, operate or maintain the product described.Protect yourself and others by observing all safety information. Failure to comply with instructions could result in personal injury and/or property damage.Please refer to back cover for information regarding this product’s warranty and other important information.DO NOT RETURN THIS PRODUCT TO THE STORE!Please contact Great Plains Industries, Inc.® before returning any product. If you are missing parts, or experience problems with your installation, contact our Customer Support Department. We will be happy to assist you.Call: 888-996-3837 or 316-686-7361Email: ******************SAVE FOR YOUR RECORDSModel #: ___________________Serial #: ___________________Purch. Date: _______________3SAFETY / SPECIFICATIONS ASSEMBLY / INSTALLATION OPERATION /CALIBRATION MAINTENANCE / REPAIRBEFORE YOU BEGINUsage Requirements• Use TM Series meters with water and other chemicals compatible with wetted components.• DO NOT use to meter fuel or incompatible chemicals.• TM Series meters are very sensitive to electric noise if operated within 1 to 2 inches of some electric motors or other sources ofelectronic noise.UNPACKING/INSPECTIONInspect••Dangers as shown.box.epsmagnify_2.epswarning symbol.epsmeasure.epsplug.epsoil.epsmegaphone.epsbiohaz.epsBattery_Caution1.epsCaution.epsCrush_Caution1.epsHot_surface.epsRecycle.epsResp_protection1.epsResp_protection2.epsTemp_Caution1.epsbody_protection.epschemical_Caution.epsear_protection1.epsexplosive_caution.epseye_protection1.epsfoot_protection.eps waHot_surface.epsRecycle.epsResp_protection1.epsResp_protection2.epsTemp_Caution1.epsbody_protection.epschemical_Caution.epsear_protection1.epsexplosive_caution.epseye_protection1.epsfoot_protection.epsM A I N T E N A N C E / R E P A I R O P E R A T I O N /C A L I B R A T I O N A S S E M B L Y / I N S T A L L A T I O NG E T T I N G S T A R T E D4GENERAL SAFETY INSTRUCTIONSIMPORTANT: It is your responsibility to:•Ensure that all equipment operators have access to adequate instructions concerning safe operating and maintenance procedures.Compatibility of this product’s material and the process fluid and/or environment should be considered prior to putting into service.Product should never be operated outside its publishedspecifications for temperature or pressure. See specifications for your model.Make sure flow and pressure have been eliminated from process pipe prior to installing or removing product.Always use appropriate thread sealant or flange gaskets when connecting product to process piping.To protect against leakage, seal all pipe threads with anappropriate sealing compound. Make sure the sealing compound does not intrude into the flow path.NOTE: If connecting to new male pipe threads, burrs and curls can adversely affect accuracy. Correct the problem prior to turbine installation.Installation near high electromagnetic fields and high current fields is not recommended and may result in inaccurate readings.5GETTING STARTEDASSEMBLY / INSTALLATIONOPERATION /CALIBRATIONMAINTENANCE / REPAIRSAFETY /SPECIFICATIONSO P E R A T I O N /C A L I B R A T I O NA S S E MB L Y / I N S T A L L A T I O NG E T T I N G S T A R T E D6Figure 1M A I N T E N A N C E / R E P A I R7GETTING STARTEDOPERATION /CALIBRATIONSAFETY / SPECIFICATIONSMAINTENANCE / REPAIRINSTALLATIONIMPORTANT: TM Series meters are available with either a computer for local electronic display, or three versions of output modules (see PARTS section of this manual) to provide a digital signal to customer interfacing equipment. TM Series meters with computer display ship pre-configured from the factory in either gallons or liters. The volume unit can be changed to several other options. Refer to the Q9 owner’s manual for details on changing or customizing the volume unit.ConnectionsInstall your meter in-line either horizontally or vertically. Installation to metal connections is not recommended. Install as follows:1. Plan to install turbine with a minimum straight pipe length as follows (see Figure 2):• Upstream from the turbine, allow a minimum straight pipe length of 10 times the internal diameter of the turbine.• Downstream from the turbine, allow a minimum straight pipe length of 5 times the internal diameter of the turbine.2. For Spigot (Pipe) End use only primer and solvents approved for PVCgluing.For NPT and BSP Fittings wrap all connections with 3 to 4 wraps of thread tape (optional to use pipe thread sealant). Make sure the tape does not intrude into the flow path.3. Attach meter with arrow pointed in the direction of fluid flow.4. For NPT and BSP Fittings - Hand tighten the meter at the housing ends.Do not use a wrench or similar tool to tighten. This can damage the housing.8S A F E T Y / S P E C I F I C A T I O N SG E T T I N G S T A R T E DA S S E MB L Y / I N S T A L L A T I O N M A I N T E N A NC E / R E P A I ROPERATION / CALIBRATIONVerify Meter AccuracyBefore using, check the meter’s accuracy and verify calibration.1. Make sure there is no air in the system by starting the flow until it runs steadily. Then, stop or divert the flow using a valve or nozzle2. Meter an exact known volume into an accurate container. For bestresults, meter with one continuous full stream.3. Check the volume against the display or recording equipment. If theamount metered is accurate, further calibration is not necessary. If not, refer to the Q9 Owner’s Manual (Non-Agency) Field Calibration Section for further instructions (see below).NOTE: Make sure you meet the meter’s minimum flowrate requirements:You can download the Q9 Owner’s Manual (Non-Agency) here:or visit to download owner’s manuals and othertechnical documents.9GETTING STARTEDOPERATION /CALIBRATION SAFETY / SPECIFICATIONS ASSEMBLY / INSTALLATIONMAINTENANCENOTE: Proper handling and care will extend the life and service of the meterTurbine RotorThe meter is virtually maintenance-free. However, it is important the rotor moves freely. Keep the meter clean and free of contaminants.If the rotor does not turn freely, apply a penetrating lubricant on the rotor, shaft and bearings. Remove any debris or deposits from the rotor using a soft brush or small probe. Be careful not to damage the turbine rotor or supports.Blowing compressed air through the turbine assemblycould damage the rotor.Do not allow liquids to dry inside the turbine.Handle the rotor carefully. Small scratches or nicks canaffect accuracy.O P E R A T I O N /C A L I B R A T I O NA S S E MB L Y / I N S T A L L A T I O N S A F E T Y / S P EC I F I C A T I O N SG E T T I N G S T A R T E D10PARTS & SERVICEFor warranty consideration, parts, or other service information, please contact your local distributor. If you need further assistance, contact the GPI Product Support Department in Wichita, Kansas, during normal business hours.A toll free number is provided for your convenience.1-888-996-3837To obtain prompt, efficient service, always be prepared with the following information:• The model number of your meter.• The serial number or manufacturing date code of your meter.•Part descriptions and numbers.For warranty work, always be prepared with your original sales slip or other evidence of purchase date.PARTS / ACCESSORIES LIST FOR TM SERIES METERS116000-1Calibration container, Large (5 gallon)901002-52Seal113435-10Conditioned Signal Module (GEN 2)125060-10Pulse Access/External Power/Scaled Module (GEN 2)125100-104-20mA ModuleIMPORTANT: Please contact GPI before returning any parts. It may be possible to diagnose the trouble and identify needed parts in a telephone call.This product is in compliance with the RoHS Directive of the European Parliament and of the Council on the Restriction of the Use of Certain Hazardous Substances in Electrical and Electronic Equipment.Environmental Rating: IP65Do not return this product without prior approval from the GPI Product Support Department. Due to strict government regulations, GPI cannotaccept parts unless they have been drained and cleaned.WEEE DIRECTIVE ROHS COMPLIANT (2011/65/EU)GETTING STARTED NOTESSAFETY / SPECIFICATIONSASSEMBLY / INSTALLATIONOPERATION /CALIBRATION11© 2020 Great Plains Industries, Inc., All Rights Reserved.Great Plains Industries, Inc. / 888-996-3837 / FLOMEC® TWO-YEAR LIMITED WARRANTYGreat Plains Industries, Inc. 5252 E. 36th Street North, Wichita, KS USA 67220-3205, hereby provides a limited warranty against defects in material and workmanship on all products manufactured by Great Plains Industries, Inc. This product includes a 2 year warranty. Manufacturer’s sole obligation under the foregoing warranties will be limited to either, at Manufacturer’s option, replacing or repairing defective Goods (subject to limitations hereinafter provided) or refunding the purchase price for such Goods theretofore paid by the Buyer, and Buyer’s exclusive remedy for breach of any such warranties will be enforcement of such obligations of Manufacturer. The warranty shall extend to the purchaser of this product and to any person to whom such product is transferred during the warranty period.The warranty period shall begin on the date of manufacture or on the date ofpurchase with an original sales receipt. This warranty shall not apply if:A. the product has been altered or modified outside the warrantor’s duly appointed representative;B. the product has been subjected to neglect, misuse, abuse or damage or has been installed or operated other than in accordance with the manufacturer’s operating instructions.To make a claim against this warranty, contact the GPI Customer Service Department at 316-686-7361 or 888-996-3837.Or by mail at:Great Plains Industries, Inc.5252 E. 36th St. NorthWichita, KS, USA 67220-3205The company will step you through a product troubleshooting process to determine appropriate corrective actions.GREAT PLAINS INDUSTRIES, INC., EXCLUDES LIABILITY UNDER THIS WARRANTY FOR DIRECT, INDIRECT, INCIDENTAL AND CONSEQUENTIAL DAMAGES INCURRED IN THE USE OR LOSS OF USE OF THE PRODUCT WARRANTED HEREUNDER.The company herewith expressly disclaims any warranty of merchantability or fitness for any particular purpose other than for which it was designed.This warranty gives you specific rights and you may also haveother rights which vary from U.S. state to U.S. state.Note: In compliance with MAGNUSON MOSS CONSUMER WARRANTY ACT – Part 702 (governs the resale availability of the warranty terms).920786-02 Rev D 07/16/2020IP652011/65/EU。

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1/31September 2004STM690, STM704, STM795STM802, STM804, STM805, STM8063V Supervisor with Battery Switchover* Contact local ST sales office for availability.FEATURES SUMMARY■■NVRAM SUPERVISOR FOR EXTERNAL LPSRAM■CHIP-ENABLE GATING (STM795 only) FOR EXTERNAL LPSRAM (7ns max PROP DELAY)■MANUAL (PUSH-BUTTON) RESET INPUT ■200ms (TYP) t rec■WATCHDOG TIMER - 1.6sec (TYP)■AUTOMATIC BATTERY SWITCHOVER■LOW BATTERY SUPPLY CURRENT - 0.4µA (TYP)■POWER-FAIL COMPARATOR (PFI/PFO)■LOW SUPPLY CURRENT - 40µA (TYP)■GUARANTEED RST (RST) ASSERTION DOWN TO V CC = 1.0V■OPERATING TEMPERATURE:–40°C to 85°C (Industrial Grade)Table 1. Device OptionsNote: 1.2.Open drain output.Watchdog InputActive- Low RST (1)Active- High RSTManual Reset Input Battery Switch-overPower-fail Compar-atorChip-Enable GatingSTM690T/S/R ✔✔✔✔STM704T/S/R ✔✔✔✔STM795T/S/R ✔(2)✔✔STM802T/S/R ✔✔✔✔STM804T/S/R ✔✔(2)✔✔STM805T/S/R ✔✔(2)✔✔STM806T/S/R✔✔✔✔STM690/704/795/802/804/805/806TABLE OF CONTENTSFEATURES SUMMARY . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .1Figure 1.Packages. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .1 Table 1.Device Options . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .1SUMMARY DESCRIPTION. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .4Figure 2.Logic Diagram (STM690/802/804/805) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .4 Figure 3.Logic Diagram (STM704/806) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .4 Figure 4.Logic Diagram (STM795). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .4 Table 2.Signal Names . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .4 Figure 5.STM690/802/804/805 Connections. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .5 Figure 6.STM704/806 Connections. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .5 Figure 7.STM795 Connections . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .5 Pin Descriptions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .6 Table 3.Pin Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .6 Figure 8.Block Diagram (STM690/802/804/805). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .7 Figure 9.Block Diagram (STM704/806). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .7 Figure 10.Block Diagram (STM795) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .8 Figure 11.Hardware Hookup. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .8OPERATION . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .9Reset Output . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .9 Push-button Reset Input (STM704/806). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .9 Watchdog Input (NOT available on STM704/795/806) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .9 Back-up Battery Switchover. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .9 Table 4.I/O Status in Battery Back-up . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . ..9 Chip-Enable Gating (STM795 only) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10 Chip Enable Input (STM795 only). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10 Chip Enable Output (STM795 only) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10 Figure 12.Chip-Enable Gating. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10 Figure 13.Chip Enable Waveform (STM795) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .10 Power-fail Input/Output (NOT available on STM795) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11 Applications Information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .11 Figure 14.Power-fail Comparator Waveform (STM690/704/802/804/805/806). . . . . . . . . . . . . . . .11 Using a SuperCap™ as a Backup Power Source. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .12 Figure ing a SuperCap™. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .12 Negative-Going V CC Transients. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .12TYPICAL OPERATING CHARACTERISTICS . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .13Figure 16.V BAT-to-V OUT On-Resistance vs. Temperature. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .13 Figure 17.Supply Current vs. Temperature (no load) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .13 Figure 18.V PFI Threshold vs. Temperature. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .14 Figure 19.Reset Comparator Propagation Delay vs. Temperature. . . . . . . . . . . . . . . . . . . . . . . . .14 Figure 20.Power-up t rec vs. Temperature . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .142/31STM690/704/795/802/804/805/806Figure 21.Normalized Reset Threshold vs. Temperature . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .15 Figure 22.Watchdog Time-out Period vs. Temperature . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .15 CON On-Resistance vs. Temperature . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .15 Figure 24.PFI to PFO Propagation Delay vs. Temperature. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .16 Figure 25.RST Output Voltage vs. Supply Voltage. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .16 Figure 26.RST Output Voltage vs. Supply Voltage. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .17 Figure 27.RST Response Time (Assertion). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .17 Figure 28.RESET Response Time (Assertion) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .18 Figure 29.Power-fail Comparator Response Time (Assertion) . . . . . . . . . . . . . . . . . . . . . . . . . . . .18 Figure 30.Power-fail Comparator Response Time (De-Assertion) . . . . . . . . . . . . . . . . . . . . . . . . .19 Figure 31.V CC to Reset Propagation Delay vs. Temperature . . . . . . . . . . . . . . . . . . . . . . . . . . . . .19 Figure 32.Maximum Transient Duration vs. Reset Threshold Overdrive. . . . . . . . . . . . . . . . . . . . .20CON Propagation Delay vs. Temperature . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .20 MAXIMUM RATING. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .21 Table 5.Absolute Maximum Ratings. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .21 DC and AC PARAMETERS . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .21Table 6.Operating and AC Measurement Conditions. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .21 Figure 34.E to ECON Propagation Delay Test Circuit. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .22 Figure 35.AC Testing Input/Output Waveforms. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .22 Figure 36.MR Timing Waveform . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .22 Figure 37.Watchdog Timing . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .23 Table 7.DC and AC Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .23PACKAGE MECHANICAL . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .26 Figure 38.SO8 – 8-lead Plastic Small Outline, 150 mils body width, Package Mech. Drawing. . . .26 Table 8.SO8 – 8-lead Plastic Small Outline, 150 mils body width, Package Mechanical Data . .26 Figure 39.TSSOP8 – 8-lead, Thin Shrink Small Outline, 3x3mm body size, Outline . . . . . . . . . . .27 Table 9.TSSOP8 – 8-lead, Thin Shrink Small Outline, 3x3mm body size, Mechanical Data. . . .27PART NUMBERING . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .28 Table 10.Ordering Information Scheme . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .28 Table 11.Marking Description. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .29REVISION HISTORY. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .30 Table 12.Document Revision History. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .303/31STM690/704/795/802/804/805/8064/31SUMMARY DESCRIPTIONThe STM690/704/795/802/804/805/806 Supervi-sors are self-contained devices which provide mi-croprocessor supervisory functions with the ability to non-volatize and write-protect external LPSRAM. A precision voltage reference and com-parator monitors the V CC input for an out-of-toler-ance condition. When an invalid V CC condition high in the case of RST). These devices also offer a watchdog timer (except for STM704/795/806) as well as a power-fail comparator (except for STM795) to provide the system with an early warning of impending power failure.These devices are available in a standard 8-pin SOIC package or a space-saving 8-pin TSSOP package.Note: 1.For STM804/805, reset output is active-high and opendrain.Table 2. Signal NamesNote: 1.Open drain for STM804/805 only.2.STM795MR Push-button Reset Input WDIWatchdog InputRST Active-Low Reset Output RST (1)Active-High Reset Output E (2)Chip Enable InputE CON (2)Conditioned Chip Enable Output Vccsw (2)V CC Switch Output V OUTSupply Voltage Output V CC Supply Voltage V BAT Back-up Supply Voltage PFI Power-fail Input PFO Power-fail Output V SSGroundSTM690/704/795/802/804/805/806drain.5/31STM690/704/795/802/804/805/8066/31Pin DescriptionsA logic low on /MR asserts the reset output.Reset remains asserted as long as MR is low and for t rec after MR returns high. This active-low inputhas an internal pull-up. It can be driven from a TTL or CMOS logic line, or shorted to ground with a switch. Leave open if unused.WDI.If WDI remains high or low for 1.6sec, the in-ternal watchdog timer runs out and reset is trig-gered. The internal watchdog timer clears while reset is asserted or when WDI sees a rising or fall-ing edge.The watchdog function cannot be disabled by al-lowing the WDI pin to float.Pulses low for t rec when triggered, and stayslow whenever V CC is below the reset threshold or when MR is a logic low. It remains low for t rec after either V CC rises above the reset threshold, the watchdog triggers a reset, or MR goes from low tohigh.RST (Open Drain).Pulses high for t rec when trig-gered, and stays high whenever V CC is above the reset threshold or when MR is a logic high. It re-mains high for t rec after either V CC falls below thereset threshold, the watchdog triggers a reset, orMR goes from high to low.PFI.When PFI is less than V PFI or when V CC falls below V SW remains high. Connect to ground if unused.When PFI is less than V PFI , or V CC falls be-low V SW high. Leave open if unused.V OUT .When V CC is above the switchover voltage(V SO ), V OUT is connected to V CC through a P-channel MOSFET switch. When V CC falls belowV SO , V BAT connects to V OUT . Connect to V CC if no battery is used.When V OUT switches to battery, Vccsw ishigh. When V OUT switches back to V CC low. It can be used to drive gate of external PMOS transistor for I OUT requirements exceeding 75mA.The input to the chip-enable gating circuit. Con-nect to ground if unused.CON .CON goes low only when E is low and re-set is not asserted. If E CON is low when reset is as-CON goes high, whichever occurs first. In the disabled CON is pulled up to V OUT .V BAT .When V CC falls below V SO , V OUT switchesfrom V CC to V BAT . When V CC rises above V SO +hysteresis, V OUT reconnects to V CC . V BAT may ex-ceed V CC . Connect to V CC if no battery is used.Table 3. Pin DescriptionPinNameFunctionSTM795STM690STM802STM704STM806STM804STM805––6–MR Push-button Reset Input –6–6WDI Watchdog Input777–RST Active-Low Reset Output –––7RST Active-High Reset Output –444PFI PFI Power-fail Input –555PFO PFO Power-fail Output1111V OUT Supply Output for External LPSRAM 2222V CC Supply Voltage 3–––Vccsw V CC Switch Output 4333V SS Ground5–––E Chip Enable Input6–––E CON Conditioned Chip Enable Output 8888V BATBackup-Battery InputSTM690/704/795/802/804/805/806Note: 1.For STM804/805, reset output is active-high and open drain.7/31STM690/704/795/802/804/805/806Note: 1.For STM690/802/804/805.2.For STM795 only.3.Not available on STM795.4.For STM704/806.8/31STM690/704/795/802/804/805/806 OPERATIONReset OutputThe STM690/704/795/802/804/805/806 Supervi-sor asserts a reset signal to the MCU whenever V CC goes below the reset threshold (V RST), a watchdog time-out occurs, or when the Push-but-ton Reset Input (MR) is taken low. RST is guaran-teed to be a logic low (logic high for STM804/805) for 0V < V CC < V RST if V BAT is greater than 1V. Without a back-up battery, RST is guaranteed val-id down to V CC =1V.During power-up, once V CC exceeds the reset threshold an internal timer keeps RST low for the reset time-out period, t rec. After this interval RST returns high.If V CC drops below the reset threshold, RST goes low. Each time RST is asserted, it stays low for at least the reset time-out period (t rec). Any time V CC goes below the reset threshold the internal timer clears. The reset timer starts when V CC returns above the reset threshold.Push-button Reset Input (STM704/806)A logic low on MR asserts reset. Reset remains asserted while MR is low, and for t rec (see Figure 36.,page22) after it returns high. The MR input has an internal 40kΩ pull-up resistor, allowing it to be left open if not used. This input can be driven with TTL/CMOS-logic levels or with open-drain/ collector outputs. Connect a normally open mo-ual reset function; external debounce circuitry is the device is used in a noisy environment, connect a 0.1µF capacitor from MR to GND to provide ad-V CC when not used.Watchdog Input (NOT available on STM704/ 795/806)The watchdog timer can be used to detect an out-of-control MCU. If the MCU does not toggle the Watchdog Input (WDI) within t WD (1.6sec typ), the reset is asserted. The internal watchdog timer is cleared by either:1. a reset pulse, or2.by toggling WDI (high-to-low or low-to-high),which can detect pulses as short as 50ns. If WDI is tied high or low, a reset pulse istriggered every 1.8sec (t WD + t rec).The timer remains cleared and does not count for as long as reset is asserted. As soon as reset is re-leased, the timer starts counting (see Figure 37.,page23).Note: Input frequency greater than 20ns (50MHz) will be filtered.Back-up Battery SwitchoverIn the event of a power failure, it may be necessary to preserve the contents of external SRAM through V OUT. With a backup battery installed with voltage V BAT, the devices automatically switch the SRAM to the back-up supply when V CC falls. Note: If back-up battery is not used, connect both V BAT and V OUT to V CC.This family of Supervisors does not always con-nect V BAT to V OUT when V BAT is greater than V CC. V BAT connects to V OUT (through a 100Ω switch) when V CC is below V SW (2.4V) or V BAT (whichever is lower). This is done to allow the back-up battery (e.g., a 3.6V lithium cell) to have a higher voltage than V CC.Assuming that V BAT > 2.0V, switchover at V SO en-sures that battery back-up mode is entered before V OUT gets too close to the 2.0V minimum required to reliably retain data in most external SRAMs. When V CC recovers, hysteresis is used to avoid oscillation around the V SO point. V OUT is connect-ed to V CC through a 3Ω PMOS power switch. Note: The back-up battery may be removed while V CC is valid, assuming V BAT is adequately decou-pled (0.1µF typ), without danger of triggering a re-set.Table 4. I/O Status in Battery Back-up Pin StatusV OUT Connected to V BAT through internal switchV CC Disconnected from V OUTPFI DisabledPFO Logic LowE High impedanceE CON Logic HighWDI Watchdog timer is disabledMR DisabledRST Logic LowRST Logic HighV BAT Connected to V OUTVccsw Logic High (STM795)9/31STM690/704/795/802/804/805/80610/31Chip-Enable Gating (STM795 only)vents erroneous data from corrupting the external CMOS RAM in the event of an undervoltage con-dition. The STM795 uses a series transmission gate from E to E CON (see Figure 12). During nor-mal operation (reset not asserted), the E transmis-sion gate is enabled and passes all E transitions.When reset is asserted, this path becomes dis-abled, preventing erroneous data from corrupting the CMOS RAM. The short E propagation delay from E to E CON enables the STM795 to be used with most µPs. If E is low when reset asserts,CON remains low for typically 10µs to permit the current WRITE cycle to complete.Chip Enable Input (STM795 only)The chip-enable transmission gate is disabled and E is high impedance (disabled mode) while reset is asserted. During a power-down sequence when V CC passes the reset threshold, the chip-enable transmission gate disables and E immediately be-comes high impedance if the voltage at E is high.transmission gate will disable 10µs after reset as-serts (see Figure 13). This permits the current WRITE cycle to complete during power-down.Any time a reset is generated, the chip-enable transmission gate remains disabled and E remains high impedance (regardless of E activity) for the first half of the reset time-out period (t rec /2). When the chip enable transmission gate is enabled, the impedance of E appears as a 40Ω resistor in se-ries with the load at E CON . The propagation delay through the chip-enable transmission gate de-pends on V CC , the source impedance of the drive connected to E, and the loading on E CON . The chip enable propagation delay is production tested from the 50% point on E to the 50% point on E CON using a 50Ω driver and a 50pF load capacitance (see Figure 35.,page 22). For minimum propaga-CON and use a low-output impedance driver.Chip Enable Output (STM795 only)When the chip-enable transmission gate is en-CON is equivalent to a 40Ω resistor in series with the source driving E. In the disabled mode, the transmission gate is off CON to V OUT (see Figure 12). This pull-up turns off when the trans-mission gate is enabled.Power-fail Input/Output (NOT available on STM795)The Power-fail Input (PFI) is compared to an inter-nal reference voltage (independent from the V RST comparator). If PFI is less than the power-fail threshold (V PFI), the Power-Fail Output (PFO) will go low. This function is intended for use as an un-dervoltage detector to signal a failing power sup-ply. Typically PFI is connected through an external voltage divider (see Figure 11.,page8) to either the unregulated DC input (if it is available) or the regulated output of the V CC regulator. The voltage divider can be set up such that the voltage at PFI falls below V PFI several milliseconds before the regulated V CC input to the STM690/704/795/802/ 804/805/806 or the microprocessor drops below the minimum operating voltage.During battery back-up, the power-fail comparator Figure 14.,page11). This occurs after V CC drops below V SW (2.4V). When power returns, the pow-er-fail comparator is enabled and PFO follows PFI. If the comparator is unused, PFI should be con-nected to V SS and PFO left unconnected. PFO may be connected to MR on the STM704/806 so that a low voltage on PFI will generate a reset out-put.Applications InformationThese Supervisor circuits are not short-circuit pro-tected. Shorting V OUT to ground - excluding pow-er-up transients such as charging a decoupling capacitor - destroys the device. Decouple both V CC and V BAT pins to ground by placing 0.1µF ca-pacitors as close to the device as possible.11/31Using a SuperCap™ as a Backup Power SourceSuperCaps™ are capacitors with extremely high capacitance values (e.g., order of 0.47F) for their size. Figure 15 shows how to use a SuperCap as a back-up power source. The SuperCap may be connected through a diode to the V CC supply. Since V BAT can exceed V CC while V CC is above the reset threshold, there are no special precau-tions when using these supervisors with a Super-Cap.Negative-Going V CC TransientsThe STM690/704/795/802/804/805/806 Supervi-sors are relatively immune to negative-going V CC transients (glitches). Figure 32.,page20 was gen-erated using a negative pulse applied to V CC, starting at V RST + 0.3V and ending below the reset threshold by the magnitude indicated (comparator overdrive). The graph indicates the maximum pulse width a negative V CC transient can have without causing a reset pulse. As the magnitude of the transient increases (further below the thresh-old), the maximum allowable pulse width decreas-es. Any combination of duration and overdrive which lies under the curve will NOT generate a re-set signal. Typically, a V CC transient that goes 100mV below the reset threshold and lasts 40µs or less will not cause a reset pulse. A 0.1µF bypass capacitor mounted as close as possible to the V CC pin provides additional transient immunity.12/31TYPICAL OPERATING CHARACTERISTICSNote: Typical values are at T A = 25°C.13/3114/3115/31Figure 24. PFI to PFO Propagation Delay vs. TemperatureFigure 25. RST Output Voltage vs. Supply Voltage16/31Figure 27. RST Response Time (Assertion)17/3118/3119/31Figure 33. E to E20/3121/31MAXIMUM RATINGStressing the device above the rating listed in the Absolute Maximum Ratings” table may cause per-manent damage to the device. These are stress ratings only and operation of the device at these or any other conditions above those indicated in the Operating sections of this specification is not im-plied. Exposure to Absolute Maximum Rating con-ditions for extended periods may affect device reliability. Refer also to the STMicroelectronics SURE Program and other relevant quality docu-ments.Table 5. Absolute Maximum RatingsNote: 1.Reflow at peak temperature of 255°C to 260°C for < 30 seconds (total thermal budget not to exceed 180°C for between 90 to 150seconds).DC AND AC PARAMETERSThis section summarizes the operating measure-ment conditions, and the DC and AC characteris-tics of the device. The parameters in the DC and AC characteristics Tables that follow, are derived from tests performed under the MeasurementConditions summarized in Table 6, Operating and AC Measurement Conditions. Designers should check that the operating conditions in their circuit match the operating conditions when relying on the quoted parameters.Table 6. Operating and AC Measurement ConditionsSymbol ParameterValue Unit T STG Storage Temperature (V CC Off)–55 to 150°C T SLD (1)Lead Solder Temperature for 10 seconds 260°C V IO Input or Output Voltage –0.3 to V CC +0.3V V CC /V BATSupply Voltage –0.3 to 6.0V I O Output Current 20mA P DPower Dissipation320mWParameterSTM690/704/795/802/804/805/806Unit V CC /V BAT Supply Voltage1.0 to 5.5V Ambient Operating Temperature (T A )–40 to 85°C Input Rise and Fall Times ≤5ns Input Pulse Voltages0.2 to 0.8V CC V Input and Output Timing Ref. Voltages0.3 to 0.7V CCVFigure 34. E to ENote: 1.C L includes load capacitance and scope probe capacitance.Figure 36. MR Timing WaveformNote: 1.RST for STM805.22/31Table 7. DC and AC CharacteristicsSym Alter-nativeDescription Test Condition(1)Min Typ Max UnitV CC,V BAT(2)Operating Voltage T A = –40 to +85°C 1.1(3) 5.5VI CC V CC Supply CurrentExcluding I OUT (V CC < 5.5V)4060µAExcluding I OUT (V CC < 3.6V)3550µAV CC Supply Current inBattery Back-up ModeExcluding I OUT(V BAT = 2.3V,V CC = 2.0V, MR = V CC)2535µAI BAT(4)V BAT Supply Current inBattery Back-up ModeExcluding I OUT(V BAT = 3.6V)0.4 1.0µAV OUT1V OUT Voltage (Active)I OUT1 = 5mA(5)V CC –0.03V CC –0.015V I OUT1 = 75mAV CC –0.3V CC –0.15V I OUT1 = 250µA,V CC > 2.5V(5)V CC –0.0015V CC –0.0006VV OUT2V OUT Voltage (BatteryBack-up)I OUT2 = 250µA, V BAT = 2.3VV BAT –0.1V BAT –0.034VI OUT2 = 1mA, V BAT = 2.3VV BAT –0.14V V CC to V OUT On-resistance34ΩV BAT to V OUT On-resistance100ΩI LI Input Leakage Current (MR)STM704/806 only;MR = 0V; V CC = 3V2075350µA Input Leakage Current (PFI)0V = V IN = V CC–252+25nA Input Leakage Current (WDI)0V = V IN = V CC–1+1µAI LO Output Leakage Current STM804/805/795;0V = V IN = V CC(6)–1+1µAV IH Input High Voltage (MR, WDI)V RST (max) < V CC < 5.5V0.7V CC VV IL Input Low Voltage (MR, WDI)V RST (max) < V CC < 5.5V0.3V CC V23/31V OL Output Low Voltage (PFO,RST, RST, Vccsw)V CC = V RST (max),I SINK = 3.2mA0.3V Output Low Voltage (E CON)V CC = V RST (max),I OUT = 1.6mA, E = 0V0.2V CC VV OL Output Low Voltage (RST)I OL = 40µA; V CC = 1.0V;V BAT = V CC;T A = 0°C to 85°C0.3VI OL = 200µA;V CC = 1.2V; V BAT = V CC0.3VV OH Output High Voltage (RST,RST)(7)I SOURCE = 1mA,V CC = V RST (max)2.4V Output High Voltage (E CON)V CC = V RST (max),I OUT = 1.6mA, E = V CC0.8V CC V Output High Voltage (PFO)I SOURCE = 75µA,V CC = V RST (max)0.8V CC VV OHB V OH Battery Back-up (E CON,Vccsw, RST)I SOURCE = 100µA,0.8V BA T VPower-fail Comparator (NOT available on STM795)V PFI PFI Input ThresholdPFI Falling(V CC < 3.6V)STM802/804/8061.212 1.237 1.262VSTM690/704/8051.187 1.237 1.287VPFI Hysteresis PFI Rising (V CC < 3.6V)1020mVt PFD PFI to PFO PropagationDelay2µsI SC PFO Output Short toGND CurrentV CC = 3.6V, PFO = 0V0.10.75 2.0mABattery SwitchoverV SOBattery Back-upSwitchover Voltage (8,9)Power-downV BA T > V SW V SW VV BA T < V SW V BA T VPower-upV BA T > V SW V SW VV BA T < V SW V BA T V V SW 2.4V Hysteresis40mVSym Alter-nativeDescription Test Condition(1)Min Typ Max Unit24/31。

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