iW3620_Datasheet
基于数字PWM控制器iW3620的AC／DCLED驱动器设计
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GL3520- Datasheet
1.08
08/07/2014 Updated QFN64 Package Information.
1.09
09/24/2014 Updated CH3.2 Pin Descriptions, p.14
© 2014 Genesys Logic, Inc. - All rights reserved. GLI Confidential
3.2 Pin Descriptions ........................................................................................................... 13
CHAPTER 4 FUNCTION DESCRIPTION ................................................................... 16
1.05
01/15/2014 Updated CH2 Features, p.8
1.06
02/19/2014 Updated CH8 Ordering Information, p.32
1.07
06/04/2014
Updated CH2 Features, p.8, 9 Added CH5.8 ACA-Dock, p.25
Genesys Logic, Inc.
12F., No. 205, Sec. 3, Beixin Rd., Xindian Dist. 231, New Taipei City, Taiwan Tel : (886-2) 8913-1888 Fax : (886-2) 6629-6168
4.1 Block Diagram ............................................................................................................. 16
蜂巢电子产品指南：第十一月二〇二〇版本B，第二个标准产品提供说明书
Standard Product Offerings* Special order onlyOther products may be available. Refer to individual EW-series’ sheets for full range of solutionsNote: All images herein are generic and may not be representative of actual productElliptical Waveguide and AccessoriesProduct GuideEW17 Series (Special Order Only)Connectors Auxiliary ProductsAccessoriesEW20 Series (Special Order Only)Connectors Auxiliary ProductsAccessoriesEW28 Series (Special Order Only)Connectors Auxiliary ProductsAccessoriesHoistingEW37 SeriesConnectors Auxiliary ProductsAccessoriesEW43 SeriesConnectors Auxiliary ProductsAccessoriesEW52 SeriesConnectors Auxiliary ProductsAccessoriesEW63 SeriesConnectors Auxiliary ProductsAccessoriesHoistingEW64 SeriesConnectors Auxiliary ProductsAccessoriesEW77 SeriesConnectors Auxiliary ProductsAccessoriesEW85 SeriesConnectors Auxiliary ProductsAccessoriesEW90 SeriesConnectors Auxiliary ProductsAccessoriesHoistingEW127A SeriesConnectors Auxiliary ProductsAccessoriesEW132 SeriesConnectors Auxiliary ProductsAccessoriesHoistingEW180 SeriesConnectors Auxiliary ProductsAccessoriesHoistingEW220 SeriesConnectors Auxiliary ProductsAccessoriesHoistingEW240 SeriesConnectors Auxiliary ProductsAccessoriesConnector KitsSplice HardwareGrounding KitsUniversal Grounding Kit 60”UG1215B4-TCompatible with EW63 – EW180Individual specifications can be found in the E-CatalogWaveguide HangersWaveguide Entry EquipmentBoot AssembliesEntrance PanelsElliptical Waveguide - CommScope vs. CompetitorsVisit our website or contact your local CommScope representative for more information.© 2020 CommScope, Inc. All rights reserved.All trademarks identified by ® or ™ are registered trademarks or trademarks, respectively, of CommScope, Inc. This document is for planning purposes only and is not intended to modify or supplement any specifications or warrantie,d in accordance with international standards, including ISO 9001, TL 9000, and ISO 14001.Further information regarding CommScope’s commitment can be found at /About-Us/Corporate-Responsibility-and-Sustainability .CO-114132.1-EN (12/20)CommScope pushes the boundaries ofcommunications technology with game-changing ideas and ground-breaking discoveries that spark profound human achievement. We collaborate with our customers and partners to design, create and build the world’s most advanced networks. It is our passion and commitment to identify the next opportunity and realize a better tomorrow. Discover more at 。
iW3617 datasheet
High Power Factor Dimmable LED Drivers●Isolated/non-isolated offline 120VAC /230VACLED driverup to 25W output power●Wide line frequency ranges (from 45Hz to 66Hz)●Meets IEC61000-3-2 requirement●Total harmonic distortion < 15% with PF > 0.95●Wide dimmer compatibilityx Leading-edge dimmerx Trailing-edge dimmerx Digital dimmerx Occupancy sensors and timers●Under 20% output ripple current●Wide dimming range from 1% to 100%●Flickerless TM LED dimming●Resonant control to achieve high efficiency(typical > 85% without dimmer)●Over-temperature LED current foldback●Small solution sizex Two-stage topology enables small-size input and output filter capacitorsx200kHz maximum switching frequency enables small transformerx Intelligent dimmer interface eliminates dedicated high-power bleeder●Primary-side sensing eliminates the need foropto-isolator feedback●Tight LED current regulation (± 5%)●Fast start-up (< 0.5s without dimmer)●Supports hot-plug LED module (Zhaga)●Compatible with NEMA SSL6 dimming curve standard ●Supports wide LED output voltage range●Multiple protection features:x LED open-circuit and short-circuit protectionx Over-current and over-temperature protectionx Current sense resistor short-circuit protectionx AC line over-voltage/-frequency protection The iW3617 is a two-stage, high-performance AC/DC offline power supply controller for dimmable LED luminaires. It applies advanced digital control technology to detect the dimmer type and phase, which provides dynamic impedance to interface the dimmer and control the LED brightness at the same time. The iW3617 uses iWatt’s unique digital Flickerless TM technology to eliminate visible flicker in the entire dimming range and minimize low frequency output ripple current.With advanced dimmer detection technology, the iW3617 can operate with most wall dimmers including leading-edge dimmers (R-type or R-L type) and trailing-edge dimmers (R-C type). In addition, the iW3617’s cycle-by-cycle waveform analysis technology allows fast dimmer setting response. When no dimmer is on the line, the iW3617 optimizes the power factor and minimizes the current harmonic distortion to the AC line.The iW3617 operates the main power converter that delivers constant current to the LED load in quasi-resonant mode to provide high power efficiency and minimize electro-magnetic interference (EMI). It uses iWatt’s patented PrimAccurate TM primary-side sensing technology to achieve excellent LED current regulation under different AC line and LED load voltages, without using a secondary-side feedback circuit and eliminating the need for an opto-coupler.The iW3617 minimizes the external components count by simplifying the EMI filter with iWatt’s EZ-EMI® technology. The intelligent dimmer detection technology eliminates the need for a high-power bleeder. Additionally, the digital control loop of the iW3617 maintains stable overall operating conditions without the need for loop compensation components.●Dimmable LED retrofit lamps up to 25W●Dimmable LED ballast and luminaries up to 25WHigh Power Factor Dimmable LED DriversBooster ConverterFlyback ConverterFigure 3.1 : iW3617 Simplified SchematicHigh Power Factor Dimmable LED DriversiW3617High Power Factor Dimmable LED DriversNotes:Note 1. ψJB [Psi Junction to Board] provides an estimation of the die junction temperature relative to the PCB surfacetemperature. This data is measured at the ground pins (pin 8 and pin 9) without using any thermal adhesives.Absolute maximum ratings are the parameter values or ranges which can cause permanent damage if exceeded. For maximum safe operating conditions, refer to Electrical Characteristics in Section 6.0.High Power Factor Dimmable LED Drivers V = 12 V, -40°C ≤ T ≤ 85°C, unless otherwise specified (Note 1)High Power Factor Dimmable LED DriversV = 12 V, -40°C ≤ T ≤ 85°C, unless otherwise specified (Note 1)High Power Factor Dimmable LED DriversNotes:Note 1. Adjust V CC above the start-up threshold before setting at 12V.Note 2. Operating frequency varies based on the line and load conditions. See the Theory of Operation section for moredetails.Note 3. These parameters refer to digital preset values, and they are not 100% tested.V CC = 12 V, -40°C ≤ T A≤ 85°C, unless otherwise specified (Note 1)High Power Factor Dimmable LED DriversV CC (V)V C C S u p p l y S t a r t -u p C u r r e n t (µA )Figure 7.1 : V CC vs. V CCSupply Start-up CurrentAmbient Temperature (°C)V C C S t a r t -u p T h r e s h o l d (V )11.811.6Figure 7.2 : Start-Up Threshold vs. TemperatureAmbient Temperature (°C)% D e v i a t i o n o f S w i t c h i n g F r e q u e n c y f r o m I d e a l0.3 %Figure 7.3 : % Deviation of Switching Frequency toIdeal Switching Frequency vs. Temperature1.982.001.992.01Ambient Temperature (°C)I n t e r n a l R e f e r e n c e V o l t a g e (V )Figure 7.4 : Internal Reference vs. TemperatureHigh Power Factor Dimmable LED DriversFigure 8.1 : iW3617 Functional Block DiagramThe iW3617 consists of two function blocks: ●Power factor correction and dimmer interface ●LED current regulation and dimming controlThe power factor correction (PFC) and dimmer interfacing block control the boost converter as the first power stage in the iW3617 system (shown in Figure 3.1). It analyzes the rectified AC waveform and determines whether a dimmer is connected on the line. If no dimmer is connected, the block switches the boost BJT (B DRV pin) for PFC and stores the energy in the boost output capacitor. The PFC operation is based on the input voltage (V IN pin), the boost output voltage (V CB pin), and the magnetic flux status of the boost inductor (BV SENSE pin). If a dimmer is connected, the block detects the type of dimmer by analyzing the shape of the rectified AC waveform (V IN pin). It then provides dynamic impedance to interface the dimmer by driving the boost BJT (B DRV pin). The purpose is to match the load requirement of the dimmerwhile storing the energy in the boost output capacitor. To provide accurate impedance, the gain (β) of the boost BJT is calibrated (BI SENSE pin). The block also measures the dimmer phase conduction angle to determine the dimming level (refer to Section 9.2 for details).The LED current regulation and dimming control block control the flyback or buck/boost converter as the second power stage (shown in Figure 3.1). It switches the flyback MOSFET (F DRV pin) to supply constant current to LED load from the energy stored in the boost output capacitor. The constant current regulation algorithm is based on the information of the transformer primary-side peak current (FI SENSE pin) and magnetic flux status of transformer (FV SENSE pin). The block also dims LEDs by adjusting the output current based on dimmer phase conduction angle provided by power factor correction and dimmer interface block. (refer to Section 9.2 for details).V IN BV SENSEV CCV T BI SENSEF DRVV CBCFGB DRVFV SENSE FI SENSEPGND AGNDASUHigh Power Factor Dimmable LED Drivers9.1 System Start UpThis section provides information about iW3617 system start up, which include the IC startup, wall dimmer detection, and the LED current soft start.9.1.1 IC StartupWhen AC voltage is applied, the boost output capacitor in (C3 in Figure 11.1) is charged to the peak of line voltage. ASU pin is open by default so that ASU BJT (Q3 in Figure 11.1) is turned on and V CC capacitors (C8 and C9 in Figure 11.1) is charged through ASU resistor (R9 in Figure 11.1) and ASU BJT. When the V CC voltage reaches start-up threshold V CC(ST), the iW3617’s control logic is activated and the IC starts up. The ASU pin is kept open and the ASU circuit continues charging V CC until 50ms after the main flyback converter starts.Start-up SequencingFigure 9.1 : Start-up Sequencing Diagram9.1.2 Wall Dimmer DetectionThere are two basic categories of phase- cut wall dimmers: leading-edge dimmers and trailing-edge dimmers. If the AC voltage rises at the phase-cut edge, the dimmer is calledleading-edge dimmer (shown in Figure 9.2). Otherwise it is called trailing-edge dimmer (shown in Figure 9.3). Normallyspeaking, leading-edge dimmer is TRIAC based (R-type,RL-type); trailing-edge dimmer is MOSFET or IGBT based(RC-type).AC line before Wall-dimmerAC line after Wall-dimmerFigure 9.2 : Leading-Edge Wall Dimmer WaveformsAC line after Wall-dimmerAC line before Wall-dimmerFigure 9.3 : Trailing-Edge Wall Dimmer WaveformsThe dimmer detection stage occurs in the iW3617 immediately after IC starts up. The iW3617 is driving the boost BJT (Q2 in Figure 11.1) constantly on to do currentsinking during the wall dimmer detection. The purposes of current sinking at startup are: ●Calibrate the sinking current to 200mA to compensatefor the BJT gain variation. This 200mA current sinking is used to latch the leading-edge dimmer during the phase-cut in normal operation. ●Place a low impedance resistance on the AC line toaccurately detect whether a dimmer is connected and the type of dimmer connected.The dimmer type can be determined by looking at the derivative of the input AC voltage. A large positive derivative value indicates a leading-edge dimmer. Otherwise, trailing- edge dimmer or no dimmer is detected.High Power Factor Dimmable LED Drivers Once the dimmer type is determined, the iW3617 needs toqualify the AC input signal before delivering current to theLED load. If under any condition the iW3617 does not seethe peak of VIN signal above VIN_ST(MIN)for two consecutiveAC half-cycles or the AC line frequency is out of range, the AC input signal is considered as unqualified. The iW3617 will continuously monitor the AC input signal until it sees a qualified AC input signal and then starts to deliver currentto the LED load. Or if the VCC drops under VCC(UVL)in thisprocess, the iW3617 will reset and the VCC voltage willcharge up again for a fresh start-up.9.1.3 LED Current Soft-StartAfter the iW3617 qualifies the AC input signal, the flyback converter will immediately start to deliver constant current to the LED load. A soft-start algorithm is applied to the flyback converter to gradually ramp up the LED current, thus reducing the stress on the LEDs. If no dimmer or a trailing-edge dimmer is detected, the output current will ramp up to the target current level within several AC half cycles. If a leading-edge dimmer is detected, the ramp up of the LED current is slower to avoid current over-shoot or under-shoot. This is because the leading-edge dimmer’s phase conduction angle is usually not stable when the load on the dimmer is light.If a dimmer is connected, the boost converter will start immediately into leading-edge or trailing-edge mode operation (refer to Section 9.31 and 9.32 for details) to interface the dimmer. If no dimmer is connected, the boost converter will start PFC operation (refer to Section 9.33 for details).9.2 Phase Measurement and DimmingCurveThis section provides information about iW3617 phase measurement and dimming curve.9.2.1 Phase MeasurementDimmer phase conduction angle is measured every AC half cycle. Dimmer phase is determined by the time periodthat VIN stays above the zero-crossing threshold (tCROSS) asshown in Figure 9.4. The threshold is 140mV.V CROSStPERIODtCROSSFigure 9.4 : Dimmer Phase MeasurementAnd the dimmer phase ratio (D ratio) is calculated as:Dimmer Phase Ratio (D ratio) = tCROSS/tPERIOD(9.1)The tPERIODis the period of AC half cycle, which is measured by the time span between the moments that VINrises above the 140mV reference in two consecutive AC half cycles. If the D ratio is above 90%, the iW3617 considers no dimmer is on the line.9.2.2 Dimming CurveThe iW3617 dims the LED by reducing the output current to a certain percentage of the LED current level when there is no dimmer, which is called dimming percentage. A mapping between the D ratio and the dimming percentage is pre-determined in the iW3617. There are two different mapping options, or dimming curves, that can be selected with the CFG pin (refer to Section 9.5 for details). Both dimming curves fall within the limits of the NEMA SSL6 standard (as shown in Figure 10.6). The iW3617 updates the dimming percentage based on the D ratio measurement every AC half cycle to ensure fast dimmer response.9.3 Dimmer Interface and Power FactorCorrection Block OperationThis section provides information about iW3617 dimmer interface and power factor correction block’s operation, which includes leading-edge dimmer mode, trailing-edge dimmer mode, no dimmer mode, and transition between these operation modes.9.3.1 Leading-Edge Dimmer ModeIf a leading-edge dimmer is detected on the line, the boost converter is operated in leading-edge dimmer mode. This mode provides dynamic impedance matching for the leading-edge dimmers. The leading-edge mode operation can be split into five intervals, as shown in Figure 9.5.During interval 0, the TRIAC in the leading-edge dimmer is turned off and the dimmer requires a low impedance load to charge its internal timing circuit. The boost BJT (Q2 in Figure 11.1) is driven in current sink mode to provide such low impedance load. When the TRIAC inside the dimmer is fired, the operation enters interval 1. Interval 1 is a short period of time after the TRIAC fires. The boost BJT is kept in current sink mode to provide 200mA latching current for the TRIAC. Then the operation enters interval 2. The boost BJT is in switching mode during interval 2. Interval 2 ends at 90˚ of the phase angle. During Interval 2, the iW3617 boosts the energy into the boost output capacitor and provides the holding current of the TRIAC at the same time. Interval 3 is a 400µs blanking time to ensure the TRIAC turns off after enough energy is boosted into the boost output capacitor. Then the operation enters interval 4 in which the boost BJT is in light duty-cycle switching mode to discharge the EMI filter capacitors of the LED driver.9.3.2 Trailing-Edge Dimmer ModeIf a trailing-edge dimmer is detected on the line, the boost converter is operated in trailing-edge dimmer mode. This mode provides dynamic impedance matching for trailing-edge dimmers. The operation can be split into four intervals, as shown in Figure 9.6.During interval 0, the boost BJT is driven in current sink mode to reset the dimmer with a low impedance load. Interval 1 begins as the VINrises above the zero crossing reference. The boost BJT is driven in switching mode to boost energy into the boost output capacitor. Then interval 2 starts at a short period of time before the phase-cut edge to increase the switching duty cycle as a transition state between interval 1 and interval 3. Interval 3 begins right at the phase-cut edge. The boost BJT switches with four times of the duty cycle as in interval 1 to quickly discharge the EMI capacitor inside the dimmer so as to ensure the accurate phase.9.3.3 No Dimmer Mode (PFC Operation)If there is no dimmer on the line, boost converter is operated in PFC mode for optimal power factor and minimum harmonic distortion. The iW3617 switches the boost BJT in valley mode switching to minimize the switching loss and EMI. Input current will follow the input voltage as shown in Figure 9.7.V AC InductorCurrentInputCurrentFigure 9.7 : No Dimmer Boost Mode OperationThe iW3617’s PFC algorithm is based on fixed on-time switching with the compensation of dead-time after the boost inductor resets. The dead-time is measured from the moment that boost inductor resets (determined by BVSENSEHigh Power Factor Dimmable LED Driverspin) to the following boost BJT turn-on moment (determined by B DRV pin). To maximize the power efficiency, the boost output capacitor voltage is set to be 30V above the peak AC line voltage for 230V AC input and 15V above for 120V AC input.9.3.4 Transition Between Operation Modes The iW3617 constantly monitors the derivative of the V IN signal every AC half cycles to ensure the boost converter’s operation is in the correct mode. The mode of the operation is continuously updated based on the latest detected dimmer type.The iW3617 also monitors dimmer existence by looking atthe D ratio. If the D ratio is greater than 90% at any time, theboost converter will enter the No Dimmer mode immediately. 9.4 LED Current Regulation andDimming Control Block OperationThis section provides information about iW3617 LED current regulation and dimming control block operation.9.4.1 Cycle-by-Cycle LED Current Regulation The LED current regulation and dimming control block incorporates the iWatt-patented PrimAccurate TM technology. Constant current is guaranteed regardless of the input voltage (boost output capacitor voltage) or the output voltage (LED load forward voltage) of the flyback converter. Figure 9.8 shows the basic principle of this constant current regulation algorithm.I PI Ot ONt OFFt SFigure 9.8 : Constant Current RegulationThe flyback converter is operated in critical discontinuousconduction mode (CDCM). When the flyback MOSFET (Q1 in Figure 11.1) turns on, the transformer primary winding current ramps up linearly and energy builds up in the transformer. The iW3617 turns off the MOSFET when the primary winding current reaches the peak current regulation level. At this moment, the transformer maintains the magnetic flux so that the energy in the transformer generates the secondary winding current that equals to the peak primary winding current multiplied by primary-secondary turns-ratio. Then the secondary winding current ramps down linearly until all the energy in transformer is discharged. After the energy in the transformer is discharged, the iW3617 starts the next switching cycle. The LED load current is the average of the saw-tooth shaped secondary winding current.The LED load current can be determined by an equation asshown below.I OUT = 0.5 × N TR × I PK × T R / T P(9.2)where I PK is the peak of primary winding current. N TR is the primary-secondary turns ratio. T R is the secondary winding current ramp-down time, or the transformer reset time. T P isthe entire switching period.The I PK is determined by the voltage generated on thecurrent-sense resistor: I PK = V PK / R S . Therefore, the equation can be written as:I OUT = 0.5 × N TR / R S × (V PK × T R / T P )(9.3)The iW3617 measures T R and T P on a cycle-by-cycle basis and controls V PK so that the K CC = V PK × T R / T P is always a constant. The K CC is an internally defined constant that equals to 0.7V. Therefore, the I OUT can be determined by the turns-ratio and current sense resistor at the design time of the application circuit. 9.4.2 Dimming ControliW3617 has two dimming scheme options which can be selected by the CFG pin (refer to Section 9.5 for details). The first one is pulse width modulation (PWM) dimming. The second one is constant current pulse frequency modulation (CC-PFM) dimming. ●PWM Dimming ModeFrom 100% to 25% dimming percentage, the iW3617 employs the same constant current regulation algorithm as described in section 9.4.1 while reducing the K CC constant. As a result, the I OUT will proportionally decrease as the K CC decreases. In this process, the switching frequency of the flyback converter will increase. The maximum switching frequency is clamped at 200kHz.At 25% dimming percentage, the iW3617 will clamp the K CC value and switch to the 630Hz PWM dimming. FurtherHigh Power Factor Dimmable LED Driversdimming is achieved by only activating the flyback converter during a certain percentage of time in every 630Hz period. ●CC-PFM Dimming ModeFrom 100% to 25% dimming percentage, the iW3617 operates in the same K CC -reduction dimming method as described in PWM dimming, except that the frequency clamp changes linearly from 200kHz at 100% dimming percentage to 50kHz at 25% dimming percentage. Below 25% dimming percentage, the iW3617 will switch to the CC-PFM mode, which keeps the V PK a constant and increase the T P to achieve further dimming.9.5 CFG PinThe CFG pin is used to select between the two dimming modes (described in Section 9.42) and the two dimming curves (see Figure 10.6). At startup, the CFG pin outputs I CFG after V CC reaches V CC(ST). The iW3617 reads the CFG pin voltage after 40µs. The dimming curve and dimming mode are selected by connecting a resistor with different values to the CFG pin as shown in Table 9.1CFG Option NumberCFG Pin ResistorDimming Curve Number (Fig. 10.6)DimmingControlValueTolerance120k W ≤ 5%1PWM 212.7k W ≤ 5%1CC-PFM 38.87k W ≤ 5%2PWM 45.62k W≤ 5%2CC-PFMTable 9.1 CFG Pin Resistor9.6 Protection FeaturesThis section provides information about iW3617 protectionfeatures.9.6.1 Output Over-Voltage/LED Open ProtectionThe iW3617 includes a function that protects against an output over-voltage.The output voltage is monitored by the FV SENSE pin. The ratio between the FV SENSE pin voltage and output voltage is equal to the transformer auxiliary to secondary winding turns-ratio multiplied by the FV SENSE resistor divider ratio (R20, R21 in Figure 11.1). If the voltage at the FV SENSE pin exceeds V SENSE(MAX), the iW3617 shuts down immediately. After the shutdown, the iW3617 remains powered which discharges the V CC . In order to avoid over-charging the output voltage, the iW3617 employs an extended discharge time as described below. Under the fault condition, the iW3617 tries to start up for three consecutive times. If all three start-up attempts fail, the iW3617 enters the inactive mode, during which the iW3617 does not respond to the V CC power-on requests. The iW3617 is activated again after it sees 29 start-up attempts. The iW3617 can also be reset to the initial condition if the V CC is completely discharged. Typically, this extended discharge time is around three to five seconds, and it allows the iW3617 to support hot-plug LED modules without causing ouput over-voltage while maintaining a quick recovery.9.6.2 Output Short ProtectionThe iW3617 includes a function that protects against an output short-circuit fault.If the voltage at the FV SENSE pin is below 0.228V, the iW3617 shuts down immediately. After the shutdown, the iW3617 remains powered, which discharges the V CC . In order to avoid excessive power stress due to auto-restart, the iW3617 employs an extended discharge time (as described in Section 9.61).To support applications with high output capacitance, output short protection is not activated in the initial LED current soft start period. This allows the voltage to build up in the output capacitor without mis-triggering the protection.9.6.3 Over-Temperature ProtectionIf an NTC thermistor is connected between the V T pin and the GND, the iW3617 is able to detect and protect against an over-temperature event.The iW3617 provides an I VT to the V T pin and detects thevoltage on the pin. Based on this voltage, the iW3617 canmonitor the resistance of the NTC thermistor, which is related to the temperature of the thermistor. As the V T pin voltagereduces, the iW3617 reduces the power in boost and flybackconverter.High Power Factor Dimmable LED DriversFigure 9.9 : V T Pin Voltage vs. % of Nominal Output CurrentWhen the V T pin voltage reaches V P-LIM(HI) the output current begins to reduce linearly from 100% to 20% as shown in Figure 9.9. At V P-LIM(LO) the output current will be clamped to1%. If the V T pin voltage further decreases to below V SH_TH , the iW3617 will shut down.The iW3617 will remain in shut-down mode as long as the V T pin voltage is below V SH_TH . If the V T pin voltage rises above V SH_TH at any time, the device will start up and the output will be clamped at 1%. Once the V T pin voltage reaches V P-LIM(LO), the output current will increase to 20%. From V P-LIM(LO) to V P-LIM(HI), the output current will increase linearly from 20% to 100% as shown in Figure 9.9. Finally, the device will go back to normal operation when the V T pin voltage rises above V P-LIM(HI).This bi-directional operation of the V T pin enables the LED current thermal foldback instead of an abrupt shut-down of the light. As the output power decreases under the mild over-temperature condition, the amount of heat generated by the LED also decreases, which reduces the possibility of furthertemperature rise of the system.9.6.4 Over-Current ProtectionOver-current protection (OCP) is a feature that is built into theiW3617.With the FI SENSE pin the iW3617 is able to monitor the primary peak current of the flyback converter. This allows for cycle-by-cycle peak current control and limit. When the primary peak current multiplied by the FI SENSE sense resistor(R15 in Figure 11.1) is greater than V OCP(FLYBACK), over-current is detected and the iW3617 immediately turns off the gate drive until the next cycle. The F DRV pin sends out switching pulse in the next cycle, and the switching pulse continues if the V OCP(FLYBACK) is not reached; or, the switching pulse turns off again if the V OCP(FLYBACK) is still reached.The BI SENSE pin provides the same protection mechanism for the boost converter. The BI SENSE OCP threshold is V OCP(BOOST) in no dimmer or trailing-edge dimmer mode. The BI SENSE OCP threshold is 1.5V in leading-edge dimmer mode.9.6.5 Sense Resistor Short ProtectionIf the FI SENSE sense resistor is shorted there is a potential danger of the over-current condition not being detected. Thus the iW3617 is designed to detect this sense-resistor short fault. If the voltage on the FI SENSE pin is belowV RSENSE(FLYBACK) after 15.6µs of turning on, the sense-resistorshort protection is triggered and the iW3617 shuts down immediately. After the shutdown, the V CC is dischargedsince the iW3617 remains powered. The iW3617 employsan extended discharge time (as described in Section 9.61) before restart. If the BI SENSE resistor is shorted, the iW3617 cannotdetermine the emitter current of the boost BJT, which can ultimately result in the boost BJT exceeding its safeoperating area. Thus the iW3617 is designed to detect this boost sense-resistor short fault. When the iW3617 detects a boost-sense-resistor short fault at the detection cycle, the iW3617 shuts down immediately. In the leading-edge and trailing-edge modes, the detection cycle is the zero crossing period in an AC half cycle. If there is no dimmer on the line, the only detection cycle is at start-up. After the shutdown,the V CC is discharged since the iW3617 remains powered. To prevent over-stress on the boost circuit components, theiW3617 employs an extended discharge time (as described in Section 9.61) before restart. 9.6.6 Boost Inductor Short-Protection The boost inductor is protected from short condition in no dimmer mode. If the BV SENSE pin is not able to see the reset of the boost inductor, the boost inductor short is detected. The iW3617 will short down immediately.9.6.7AC Input and Boost Output Over-Voltage ProtectionThe iW3617 supports the over-voltage protection of AC input and boost output voltage. If the V IN pin voltage is higher than V IN_OVP for continuous 2ms within every 16ms period, and this condition lasts for eight consecutive AC half cycles, the iW3617 shuts down both the boost and flyback converters. After the shutdown, the V CC is discharged since the iW3617 remains powered.When V CC drops below below V CC(UVL), the iW3617 resets itself and then initiates a new soft-start cycle.。
Keysight Triple Output E36300 Data-Sheet
E36300 SeriesTriple Output Bench Power SupplyD A T A S HE E TPower Your Next InsightFor more than 50 years, Keysight Technologies, Inc. DC powersupplies have been changing the way engineers prove their design, understand the issues, and ensure product quality. On the bench, the triple output E36300 series is ready for your application. With low output ripple/noise and accurate voltage/current measure-ment, you can test with confidence—and power your next insight.Get more for lessThe triple output E36300 Series gives you the performance of system power supplies at an affordable price. There are three models available in the series:E36311A: This 80 W model offers a simplified user experience and the lowest price of the series. Some of the key differences include channels 2 and 3 are configured in tracking mode only, USB interface only, 2-wire sensing. This model does not offer data logging, output sequencing, list mode and auto parallel/serial voltage or current boost.E36312A: This 80 W model offers the complete feature set. Chan-nel 2 and 3 are electrically isolated independent channels. Some of the key extended features include; USB, LAN and optional GPIB interface, 2 or 4-wire sensing, data logging, output sequencing, list mode, and auto parallel/serial.E36313A: This 160 W model offers twice the current of the other models with the same extended feature set as the E36312A model.FeaturesClean, reliable power–Low output ripple and noise–Excellent programming/readback accuracy –Excellent line/load regulation: 0.01% –2-wire or 4-wire remote sense–Over voltage, over current, and over temperature protectionConvenient benchtop capabilities–Three independent power supplies in one box –Low acoustic noise–Auto series/parallel connections –Front and rear output terminalIntuitive and easy to use interfaces–4.3-inch LCD color display –Color-coded channels–Individual knobs for voltage and current –E3631A code compatible–LAN (LXI), USB and GPIB (optional)Advance characterization–Data logging–Output sequencing –LIST mode–Low current range measurementE36311A 80W Triple Output Power Supply,6V, 5A & ±25V, 1A, USB E36312A 80W Triple Output Power Supply,6V, 5A & 2X 25V, 1A, USB, LAN E36313A 160W Triple Output Power Supply,6V, 10A & 2X 25V, 2A, USB, LANConfidently supply your DUT with clean, reliable powerAccurate voltage/current programming and readback capability provide excellent control on the power supply and power mea-surement. The low, normal mode noise specifications assure quality power for precision circuitry applications, enabling you to power your design with confidence. Besides the 0.01% load and line regulation, the E36300 Series can also maintain a steady output when power line and load changes occur, giving you more peace of mind. The built-in capability to measure low range current (<20mA) reduces the need for an external multimeter and simplifies the setup.Improved measurement accuracy with 4-wire sensingTo further improve the voltage regulation and measurement accuracy of the DC outputs, the E36312/13A models offer 4-wire sensing capability, also called remote sensing, on each of the rear terminals. Remote sensing permits the output module to monitor and regulate its output voltage directly at the DUT input terminals instead of the power supply’s output terminals. Four wire sensing is particularly useful for compensating for the voltage drops in the power leads when using the higher output currents generated by the E36313A. For convenience, an internal relay controls switching between 2-wire mode (local sensing) and 4-wire mode (remote sensing) thus eliminating the need for shorting bars or jumpers commonly found on other bench power sources. Keysight understands that protecting your DUT is crucial to limit testing, so the E36300 Series includes Over Voltage Protection (OVP), Over Current Protection (OCP), and Over Temperature Protection (OTP) to prevent damage.Reduce space, cost and noise with convenient benchtop capabilitiesAll three outputs on the E36300 Series can be turned on and off independently, so you are essentially getting three power supplies in one instrument which saves cost on maintenance. It also saves space on the bench as you can power up multiple analog/digital circuitries or devices with a single instrument.For even more voltage or current, Channel 2 and Channel 3 of the E36312/13A set series or parallel mode on the front panel to double the output voltage (up to 50 V) or current (up to 4 A) respectively.The E36300 Series is one of the quietest power supplies in its class. It automatically lowers the fan speed under the load/ no load condition to eliminate annoying acoustic noise through a thermal control circuit. At a typical noise level of less than 26 dBA under no load condition and less than 50 dBA under full load condition, it allows you to work in a quiet and undisturbedenvironment.Figure 1. On E36312A or E36313A set 2-wire or 4-wire sensing for output 1 in justone clickFigure 2. Auto-series operation to double the output voltageSimplify set up and operation with an intuitive and easy-to-use front-panel interface and connectivityThe 4.3-inch LCD color display shows the voltage and current of all three channels with different views. Color coding of the knobs, display and binding posts helps avoid setup and connection errors. Two individual knobs for voltage and current with rotary encoder control for precise setting and keypad allows quick adjustments and configurations in less time.The E36312/13A also offer rear output terminals for easy wiring, which is ideal for both bench and system setup.All models support operation via, SCPI (standard commands for programmable instruments) programming language, IVI (interchangeable virtual instruments) driver, Web Browser or BenchVue. The E36300A series is code compatible with the E3631A to assist in migration to a more modern power supply.The E36311A ships standard with USB and the E36312/13A withboth LAN and USB (GPIB optional).Figure 3. The E36312A and E36313A have rear output terminals for all channelsFigure 4. View all three outputs simultaneously.Figure 5. View details of a single channel including the measured power, OVP/OCPcondition, and delays.Figure 6 Control the power supply from anywhere with the web graphical user interface which is identical to operating the instrument front panel.BenchVue software applicationBenchVue Control and VisualizationBenchVue software for the PC makes it simple to connect, control, and view Keysight power supplies simultaneously with other Keysight bench instruments without programming.–Visualize the output of multiple power supplies simultaneously–Log data, capture screen shots, and save a system state–Recall a past state of your bench to replicate results –Export measurement data in desired format fast –Quickly access manuals, drivers, FAQs and videos –Monitor and control your bench from mobile devicesData logging and output sequencing for increased productivity (available on E36312/13A models only)Emulating the normal behaviors of your power subsystems early in the design process, including controlling multiple power supply voltage sequences, measuring wide dynamic ranges of current, and varying the speed of the power supply voltage to reflect real circuit characteristics is critical your design’s success. The E36312/13A offer additional capabilities for emulating and analyzing power behaviors.Logging data is key to reviewing test set ups and repeating test conditions. The E36312/13A simultaneously logs data on all three DC outputs, both voltage and current measurements, spaced by a programmable sample period, to the large color display and a file. Export the data logger display in PNG, BMP file formats or export the time stamped data as a CSV file for reports and documentation. The built-in battery backup real time clock allowsfor proper time-stamping of logged data.Figure 7. In Data Logger View, you can log data on multiple traces. Here the voltageof output 1, output 2 and output 3 are captured over 30 secondsFigure 8. Output sequencing and Output LIST mode settingSimulate power problems or normal operation with either sequencing or list mode. Sequence each channel on the E36312/13A models individually to turn on or turn off with adelay. Generate complex sequences of output changes with rapid, precise timing synchronized with internal or external signals by using LIST mode.Feature E36311A 80 W Economy Model E36312A 80 WFull-Featured Model E36313A 160 WHigh Current Model ChannelsTracking Only Fully IndependentFully IndependentElectrically isolated channels Not available Standard Standard Remote Sensing 2 Wire Only 2 and 4-Wire 2 and 4-Wire Auto series/parallel Not available Standard Standard Data Logging Not available Standard Standard Output Sequencing Not available Standard Standard List ModeNot available Standard Standard USB port for data logging/storage Not available Standard Standard Digital triggers Not available Standard Standard Rear output terminalsNot available Standard Standard Earth ground reference at rear panel Not available Standard Standard Digital I/O port Not availableStandardStandardConnectivityUSB USB and LAN Standard,GPIB OptionalUSB and LAN Standard,GPIB OptionalRecessed binding posts Optional Optional Optional Keypad locking Standard Standard Standard Benchtop lockStandardStandardStandardWhich Model Is For You?There are three models in the E36300 Series. The chart below compares the features set available in each model.SpecificationsSpecifications continued1. 20 mA for CH1, 10 mA for CH2 and CH3Typical CharacteristicsInterface capabilitiesGPIB SCPI – 1999, IEEE 488.2 compliant interfaceLXI compliance Class CUSB 2.0 Requires Keysight IO Library version 17.2.208and up10/100 LAN Requires Keysight IO Library version 17.2.208and upDigital control characteristicsE36311A E36312A E36313AWeight8.1 kg8.3 kg9.8 kgOverall dimension (H x W x D)145 x 216 x364 mm145 x 216 x367 mm145 x 216 x367 mmNet dimension (without feet, strap handle and GPIB module) (H x W x D)133 x 213 x364 mm133 x 213 x364 mm133 x 213 x364 mmMaximum voltage ratings +16.5 VDC/−5 VDC between pins (pin 4 is internally connected to chassis ground).Pins 1 and 2 as Fault output Maximum low-level output voltage = 0.5 V @ 4 mA Maximum low-level sink current = 4 mATypical high-level leakage current = 1 mA @ 16.5 VDCPins 1 - 3 as digital/trigger outputs(pin 4 = common)Maximum low-level output voltage = 0.5 V @ 4 mA;1 V @ 50 mA; 1.75 V @ 100 mAMaximum low-level sink current = 100 mA Typical high-level leakage current = 0.8 mA @ 16.5 VDCPins 1 - 3 as digital/trigger inputs and pin 3 as inhibit input (pin 4 = common)Maximum low-level input voltage = 0.8 VMinimum high-level input voltage = 2 VTypical low-level current = 2 mA @ 0 V (internal2.2 k pull-up)Typical high-level leakage current = 0.12 mA @16.5 VDCEnvironmental conditionsOperating environment Indoor use, installation category II(for AC input), pollution degree 2Operating temperature range 0 to 40°CStorage temperature –20 to 70°CRelative humidity Up to 95%Altitude Up to 2000 metersElectromagnetic compatibility Compliant with EMC Directive(2004/108/EC)IEC 61326-1:2012/EN 61326-1:2013 Group 1 Class ACanada: ICES-001:2004Australia/New Zealand: AS/NZSSouth Korea KC markSafety UL 61010-1 3rd edition,CAN/CSA-C22.2 No.61010-1-12, IEC 61010-1:2010 3rdeditionAC input 100, 115, or 230 V input (±10%),50/60 Hz, 250 VA for E36311Aand E36312A; 600 VA for E36313ANet weight Refer to the tableDimensions Refer to the tableThis information is subject to change without notice. © Keysight Technologies, 2018, Published in USA, October 11, 2018, 5992-2124ENFind us at Learn more at: For more information on Keysight Technologies’ products, applications or services, please contact your local Keysight office. The complete list is available at: /find/contactus/find//find/e36311A /find/e36312A /find/e36313A/find/e36300firmwareOrdering InformationKeysight E36300 Series power suppliesE36311A 80 W DC power supply, triple-output, 6 V, 5 A and ±25 V, 1 A, USBE36312A 80 W DC power supply, triple-output, 6 V, 5 A and 2x 25 V, 1 A, LAN, USBE36313A160 W DC power supply, triple-output, 6 V, 10 A and 2x 25 V, 2 A, LAN, USBStandard shipped accessoryAC power cord (based on destination country) ConnectorsE36311A – None E36312A/13AConnector kit (P/N: E36312-89001)–One 10 A, 3.5 mm female 4-pin terminal block connector –One 12 A, 5 mm female 4-pin terminal block connector –One 15 A, 5 mm female 8-pin terminal block connectorOrdering optionsOption 0E3 230 VAC ±10% Option 0EM 115 VAC ±10% Option 0E9 100 VAC ±10%Option RBP Recessed binding posts, not upgradable Option GPB GPIB moduleOption UK6 Commercial calibration with test result data Option SEC NISPOM and file securityBV0003B Power Supply Control & AutomationUpgrade (post purchase)E363GPBU GPIB user installable interface module forE36312A, E36313ARackmount kit1CM116A Rack Mount Flange Kit with one flange bracket,one half-module bracket1CM104A Rack Mount Flange Kit with two flange brackets 1CM105A Rack Mount Flange Kit without handles and twoflange brackets1CN107A Handle Kit with two front handles1CP108A Rack Mount Flange and Handle Kit with twobrackets and front handles。
INIC3619_Datasheet_V1.00
Revision 1.00 August 14, 2013 Initio Corporation
Revision 1.00
Page 1 of 28
INIC-3619 Datasheet _______________________________________________________________________________
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INIC-3619 Datasheet _______________________________________________________________________________
INIC-3619 USB 3.0 SATA Bridge Datasheet
Contents
1 Introduction.......................................................................................................................................................................4 1.1 Feature Summary.......................................................................................................................................................4 1.2 Firmware Support..........................
内置时钟免校准计量芯片数据手册说明书
BL0940 datasheetBL0940免校准计量芯片数据手册版本更新说明目录版本更新说明 (2)1产品简述 (5)1.1功能简介 (5)1.2主要特点 (5)1.3系统框图 (6)1.4封装与管脚描述 (7)1.5寄存器列表 (8)1.6特殊寄存器说明 (9)1.6.1用户模式选择寄存器 (9)1.6.2温度模式控制寄存器 (10)1.7性能指标 (11)1.7.1电参数性能 (11)1.7.2极限范围 (12)2功能描述 (13)2.1电流电压瞬态波形计量 (13)2.2有功功率 (14)2.3有功功率偏置校准 (14)2.4有功功率的防潜动 (15)2.5电能计量 (16)2.6电流电压有效值 (17)2.7电流电压有效值偏置校准 (18)2.8过流检测 (18)2.9相角计算 (20)2.10过零检测 (21)2.11温度计量 (22)3通讯接口 (24)3.1SPI (24)3.1.1工作模式 (24)3.1.2帧结构 (25)3.1.3写入操作时序 (25)3.1.4读出操作时序 (26)3.1.5SPI接口的容错机制 (26)3.2UART (27)3.2.1概述 (27)3.2.2描述 (27)3.2.3每个字节格式 (27)3.2.4写入时序 (27)3.2.5读取时序 (28)3.2.6数据包发送模式 (29)3.2.7UART接口的保护机制 (30)4封装 (30)1产品简述1.1功能简介BL0940是一颗内置时钟免校准电能计量芯片，适用于单相多功能电能表、智能插座、智能家电、电动自行车充电桩等应用，具有较高的性价比。
BL0940集成了2路高精度Sigma-Delta ADC，参考电压，电源管理等模拟电路模块，以及处理有功功率、电流电压有效值等电参数的数字信号处理电路。
BL0940能够测量电流、电压有效值、有功功率、有功电能量等参数，可输出快速电流有效值（用于过流保护），以及温度检测，波形输出等功能，通过UART/SPI接口输出数据，能够充分满足智能插座、智能家电、单相多功能电能表、电动自行车充电桩及用电信息大数据采集等领域的需要。
WS3620单通道高压线性LED恒流驱动器
特点⏹OUT端口输出电流外置可调⏹芯片间输出电流偏差小于±4%⏹具有过热保护功能⏹芯片可与LED共用PCB板⏹芯片应用系统无EMI问题⏹线路简单，成本低廉应用领域⏹T5/T8系列LED日光灯管⏹LED路灯照明应用⏹LED球泡灯，LED吸顶灯概述WS3620是一款高压线性恒流驱动器，可直接驱动高压LED灯串。
其电源系统结构简单，只需很少的外围元件就可以实现非常优秀的恒流特性。
主要应用于对体积、成本要求非常苛刻的非隔离LED恒流驱动电源系统。
WS3620还可以多芯片并联应用，从而提高系统的输出电流能力；其输出电流可通过REXT引脚的电阻来进行设置。
WS3620提供TO252、ESOP-8和SOT89-3封装。
典型应用图一（TO-252/SOT89-3封装）WS3620单通道高压线性LED恒流驱动典型应用图二（ESOP8封装）引脚定义与器件标识WS3620提供了TO252、ESOP-8和SOT89-3三种封装，顶层如下图所示：WS3620DP：Product CodeA：产品编码X：内部代码BCY：内部品质管控代码YMX：D/CWS3620EP：Product CodeA：产品编码X：内部代码BCY：内部品质管控代码YMX：D/C3620：Product CodeX：产品编码YM：生产日期XX：内部品质管控代码封装引脚功能说明引脚名引脚号功能说明OUT1芯片电源输入与恒流输出端口GND2芯片地REXT3输出电流设置引脚电路内部结构框图订购信息封装形式芯片表面标识采购器件名称8-Pin ESOP-8,Pb-free WS3620EP WS3620EP3-Pin TO-252,Pb-free WS3620DP WS3620DP3-Pin SOT89-3,Pb-free3620WS3620KP极限参数符号(symbol)参数（parameter）极限值单位（unit）V OUT OUT端口电压-0.5~250VI OUT OUT端口电流1~60mAV REXT REXT端口电压-0.5~7VT J最大工作结温150℃T STG最小/最大储藏温度-55~150℃注意：超过上表中规定的极限参数会导致器件永久损坏。
OB3632x Datasheet_森海威_140729
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OB3632x
Marking Information
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Preliminary Datasheet OB_DOC_DS_3632x00
High PF, High Precision Offline LED Power Switch
OB3632x
GENERAL INFORMATION
Pin Configuration The pin map is shown as below for SOP-8 or DIP8.
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High PF, High Precision Offline LED Power Switch
OB3632x
TERMINAL ASSIGNMENTS
Pin Num
1 2 3 4 5 6 7,8
Pin Name
VDD FB GND CMP CS SOURCE DRAIN
I/O
P I P O I I O
High PF, High Precision Offline LED Power Switch
iw3623 DEMO资料(T8 40V0.45A)
Zero Ripple Current and Hi-PF HiLED Driver With iW3623 for LED Design iW3623General Design Specification:1. 2. 3. 4. 5. AC Input Range 90-264Vac, Isolated ac-dc offline, 12LEDS,Output 450mA 90For Isolated Applications High Efficiency, High power Factor and Least Parts Solution Temperature degrade control to adjust the LED. Primary-only Sensing eliminates opto-isolator feedback and simplifies designiWatt CONFIDENTIAL1. SpecificationDescriptionInput Voltage Frequency Output Output Voltage Output Current VOUT IOUT 40 0.45 V AMeasured at the end of PCBSymbolMinTypMaxUnitsCommentVIN fLINE90 47 50/60264 63VAC Hz2 WireOutput Ripple CurrentIRIPPLE30mAP_PSet oscilloscope at 20MHz bandwidth.Total Output Power Continuous Output Power Performance Factor POUT PF 0.9 18 W AMeasured at end of PCB, VIN = 230VAC (TAMB = 25 ℃).Active Mode Efficiencyη85%Environmental THD Conducted EMI Safety Ambient TemperatureiW3623 for 40V450mA LED DesignTHD15 Meets CISPR22B / EN55022B%Designed to meet IEC950, UL1950 Class II TAMB 0 40iWatt Confidential°CFree convection, sea levelAug. 28, 201222. SchematiciW3623 for 40V450mALED DesigniWatt ConfidentialAug. 28, 201233. Circuit Board PhotographAC InputiW3623DC output To LEDPrimarySecondaryiW3623 for 40V450mALED DesigniWatt ConfidentialAug. 28, 201244.BOMItem1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26ReferenceIC1 CX1 C1 C3,C4 C2 C12 C13 C9 C6,C8 C4 C7 C5 0.1uF,275V, X2 0.22uF,400V,CBB21DescriptioniW3623-00, Digital PWM Controller,Dimmable, SO-14Qty1 1 1 2 1 1 1 1 2 1 1 1Item27 28 29 30 31 32 33 34 35 36 37 38 39ReferenceR19,R20 R21,R22 R23 R24 R28 R29,R30 R31 R32 F1 D9 D5,D8 D6 D10 D7 Z1 Q1 Q3 Q2 L1 L2 L4 L6 L5 T1Description2M ,±5﹪, SMD-1206 330K ,±5﹪, SMD-1206 2.0K ±5﹪, SMD-0805 10 ±5﹪, SMD-0603 100K ±5﹪, SMD-0603 2.7 ±1﹪, SMD-1206 20K ±1﹪, SMD-0603 2.4K ±1﹪, SMD-0603 T2A250V SRGC10DH(FR102),1A,200V, 1206-S RS1M,1A,1000V, S0D-123 ES1J,1A,600V,SMA ER504,5A,400V,DO-201 LL4148,0.15A,100V,LL-34 Zener, ZMM15B,15V, LL-34 7N60.7A,600V,TO-220 MMBTA44, NPN, 400V, SOT-23 3DD13005ED,NPN,4A 700V,T0-126 Common Mode Inductor T8*3*3 15uH EE12.4, 25mH 8*10,1.0mH ER2010, L=0.9mH Common Mode Inductor T8*4*3 17uH Transformer ERD2610 L=1.0~1.1mHQty2 2 1 1 1 2 1 1 1 4 1 2 1 1 1 1 1 1 1 10.1uF,400V,CL21,P=10mm 10uF,450V, E-CAP 47uF,35V, E-CAP 100uF,50V,E-CAP 22pF, 25V, X7R, SMD-0603 1nF, 25V, X7R, SMD-0603 10nF, 500V, X7R, SMD-1206 10nF,25V, X7R, SMD-0603 470pF,250V, X7R, SMD-0805 47pF,500V, X7R, SMD-1206 2.2uF,50V, X7R, SMD-1206 100K ±5﹪, SMD-1206 4.7K ±5﹪, SMD-0805 680K ±5﹪, SMD-1206 56K ±5﹪, SMD-1206 3.6 ±5﹪, SMD-1206 30k ±5﹪, SMD-1206 20k ±5﹪, SMD-0603 20K ±5﹪, SMD-1206 1M ±5﹪, SMD-1206 1.5K ±5﹪, SMD-0805 21 ,±5﹪, SMD-1206D1,D2,D3,D4 1N4007,DO-41(M7)C14 C15R1,R2 R3 R6,R7 R10 R11,R12 R4 R14,R27 R15,R16 R17,R18 R26 R61 12 1 2 1 2 1 2 2 2 140 41 42 43 44 45 46 47 48 49 50 511 11111iW3623 for 40V450mALED DesigniWatt ConfidentialAug. 28, 201255.PFC InductorSCHEMATIC6 4 ELECTRICAL SPECIFICATIONS: 1. Inductance (Lp6-9) = 0.9mH~0.98mH @10KHz 2. Core : ER2010, (Ferrite Material TDK PC40 or equivalent) 3. Bobbin : ER2010, Horizontal 4. Ferrite core is Core package copper foil connected to Pin 1 after assembling 5. Cut Pin 3 ,4,5 after wires termination 6. Varnish the complete assembly1 100.3*1*90 Ts0.16*1*20 Ts91Ground Pin1(F) 1(F)2UEW 0.16mmx1 20T – Primary1 (clockwise)4(S)569(F)2UEW 0.3mm 11T – Primary2 (Clockwise) 2UEW 0.3mm 11T – Primary2 (Clockwise) 2UEW 0.3mm 11T – Primary2 (Clockwise) 2UEW 0.3mm 11T – Primary2 (Clockwise) 2UEW 0.3mm 11T – Primary2 (Clockwise) 2UEW 0.3mm 11T – Primary2 (Clockwise) 2UEW 0.3mm 12T – Primary2 (Clockwise)PIN9PIN66(S) (S)2UEW 0.3mm 12T – Primary2 (Clockwise)BottomiW3623 for 40V450mA LED Design iWatt ConfidentialPIN1Aug. 28, 2012PIN466. Transformer ConstructionSCHEMATIC1Primary 2 12T 18T61 8Secondary3 7,8Primary 1 26TNote: • Dot (●) denote electrical start. • Electrical start could be different to Mechanical/Winding start. • Ferrite core is to be connected to Pin (5) with copper65Rotating direction of winding machine2 5Bias 6T1(F) 3(S)2UEW 0.22mmx1 12T – Primary1 (clockwise)4Triple Insulated Wire 0.3mmX1 6T –secondary (Anti-Clockwise)6(F)ELECTRICAL SPECIFICATIONS:1. 2. 3. 1. 2. 3. 4. 5. Primary Inductance (Lp) = 1.0~1.1mH @10KHz Primary Leakage Inductance (Lk)< = 50uH @10KHz Electrical Strength = 3KV, 50/60Hz,1Min Core : ERD26 (Ferrite Material TDK PC40 or equivalent) Bobbin : ERD26,Horizontal, Primary=5, Secondary=2 Magnet Wires (Pri) : Type 2-UEW Magnet Wire (Sec) : Triple Insulated Wires Layer Insulation Tape :3M1298 or equivalent.Triple Insulated Wire 0.3mmX1 6T –secondary (Anti-Clockwise) Triple Insulated Wire 0.3mmX1 6T –secondary (Anti-Clockwise)8(S)MATERIALS:4(F) 5(S) 3(F) 2(S)2UEW 0.16mX3 6Ts-Bias (clockwise)2UEW 0.22mm X 13T – Primary2 (Clockwise) 2UEW 0.22mmX 13T – Primary2 (Clockwise)FINISHED :1. 2. 3. Cut remained of ½ Pin3,after wires termination Core package copper foil connected to PRI-GND pin4. Varnish the complete assembly LED DesignBottomiWatt Confidential Aug. 28, 2012 7iW3623 for 40V450mA7. Common Mode Inductor L1Ferrite core : Ni -Zn T8*4*3 Wire gauge: 0.3mm, 8Turns (Triple Insulated Wire) Inductance @10kHz, 1V: 25uH +/10% DCR: 0.12 OHM +/-20%iW3623 for 40V450mALED DesigniWatt ConfidentialAug. 28, 201288. Common Mode Inductor L5Ferrite core : Ni -Zn T8*4*3 Wire gauge: 0.45mm, 6Turns Inductance @10kHz, 1V: 17uH +/-10% DCR: 0.1 OHM +/-20%iW3623 for 40V450mALED DesigniWatt ConfidentialAug. 28, 201299.EMI Inductor1. Differential Mode Inductor L4SCHEMATICmon Choke L1 for EMISCHEMATICFerrite core size : AxB 8x10mm Wire gauge: 0.23mm, 185 Turns Inductance @10kHz, 1V: 1mH +/-10% DCR: 1.4 OHM +/-20% Ferrite core : EE12.4 u>=10k Wire gauge: 0.2mm, 110Turns Inductance @10kHz, 1V: 25mH +/-20% DCR: 1.2OHM +/-20%iW3623 for 40V450mALED DesigniWatt ConfidentialAug. 28, 20121010. Regulation, Ripple and Efficiency MeasurementVin (V) 90 100 110 115 120 130 140 150 160 170 180 190 200 210 220 230 240 250 264 Pin (W) 22.20 22.00 21.87 21.80 21.70 21.60 21.54 21.50 21.38 21.45 21.43 21.50 21.47 21.50 21.48 21.60 21.66 21.60 21.60 Vout (V) 41.70 41.70 41.70 41.70 41.70 41.70 41.60 41.60 41.60 41.60 41.60 41.60 41.60 41.50 41.70 41.70 41.70 41.60 41.60 Iout (mA) 439 440 441 442 443 443 443 443 444 443 443 444 444 440 441 443 443 443 443 Ripple(PK) (mA) 26.0 26.0 26.0 26.0 26.0 26.0 26.0 26.0 26.0 26.0 26.0 26.0 26.0 26.0 26.0 26.0 26.0 26.0 26.0 efficiency 82.46% 83.40% 84.09% 84.94% 85.52% 85.76% 85.72% 86.20% 86.11% 86.00% 85.72% 86.03% 85.91% 85.01% 85.14% 85.29% 85.52% 85.32% 85.32% PF 0.999 0.998 0.997 0.995 0.996 0.992 0.990 0.990 0.988 0.985 0.982 0.978 0.974 0.971 0.966 0.960 0.955 0.948 0.934 Vin_max (V) 175 190 195 205 200 210 220 230 245 260 265 280 300 310 330 340 360 370 385 Vbulk (V) 215 215 215 215 213 215 228 242 255 268 282 295 308 334 348 361 374 380 388 THD (% ) 3.75 2.98 3.48 4.31 4.90 4.10 4.18 4.52 4.84 5.52 5.83 7.07 6.49 8.70 8.47 8.73 8.96 10.72 16.4211iW3623 for 40V450mALED DesigniWatt ConfidentialAug. 28, 201211.Harmonic and current waveformHarmonics current @115Vac THD=3.25%AC current waveform @115Vac PF=0.996iW3623 for 40V450mALED DesigniWatt ConfidentialAug. 28, 20121212.Harmonic and current waveformHarmonics current @230Vac THD=8.23%AC current waveform @230Vac PF=0.963iW3623 for 40V450mALED DesigniWatt ConfidentialAug. 28, 20121313. Variable Input Vs. Efficiency Measurement100% 90% 80% 70% EFF(%) 60% 50% 40% 30% 20% 10% 0% 90 100 110 120 130 140 150 160 170 180 190 200 210 220 230 240 250 260 270 Vin(V)iW3623 for 40V450mA LED Design iWatt Confidential Aug. 28, 2012 14Efficiency-Vin14. Variable Input Vs. Iout Measurement500 450 400 350 Iout(mA mA) 300 250 200 150 100 50 0 90 100 110 120 130 140 150 160 170 180 190 200 210 220 230 240 250 260 270 Vin(V)iW3623 for 40V450mA LED Design iWatt Confidential Aug. 28, 2012 15Iout-Vin15. Variable Input Vs. PF Measurement1.00 0.90 0.80 0.70 0.60 0.50 PF 0.40 0.30 0.20 0.10 0.00 90 100 110 120 130 140 150 160 170 180 190 200 210 220 230 240 250 260 270 Vin(V)iW3623 for 40V450mA LED Design iWatt Confidential Aug. 28, 2012 16PF-Vin16.Output VI Characteristics(CR Mode)VIN=90Vac/60Hz VIN=264Vac/50HzVOUT (10V/Div)450mA0IOUT (100mA/Div)VOUT (10V/Div) (10V/Div450mA0IOUT (100mA/Div)* Note: Output voltage is monitored at end of PCBiW3623 for 40V450mA LED Design iWatt Confidential Aug. 28, 2012 1717. Turn-on Delay Time and Output current overshootE- CAP VOLTAGE CH4 Iout90VAC,Full LoadCH3 VCC CH1 Vin ACTST_DELAY=533mSCH4 IoutE- CAP VOLTAGE264VAC,Full LoadCH3 VCC CH1 Vin ACTST_DELAY=461.3mSiW3623 for 40V450mALED DesigniWatt ConfidentialAug. 28, 20121818. Hight-low input voltage change ,The E-cap voltage OvershootE-CAP VOLTAGE CH4 Iout90 to 264VAC,Full LoadCH3 VCC CH1 Vin ACThe bulk cap voltage is 446VmaxE-CAP VOLTAGE CH4 Iout CH3 VCC CH1 Vin ACiW3623 for 40V450mA LED Design iWatt Confidential Aug. 28, 2012 19264 to 90VAC,Full Load The bulk cap voltage is 180max19. Transformer Flux Density(Np=38Ts, Lm=1.0mH, Ae=65mm2-ER26 )IPRI is monitored at 90Vac and 0.440A load IPRI=704mA BMAX =IPRI * LPRI / (NP*Ae) =(704*1.0)/(38*65) =0.285TeslaiW3623 for 40V450mA LED Design iWatt Confidential Aug. 28, 2012 2020. Q1 MOSFET VDS WaveformTest Condition: VIN=264VAC, VOUT=41.5VResult: VDS_MAX=542VRemark: Mosfet Spec__7A 600ViW3623 for 40V450mA LED Design iWatt Confidential Aug. 28, 2012 2121. Output Diode WaveformCH4 Output Diode Current CH1 Output Diode Voltage Test Condition: VIN=264VAC, VOUT=41.5VResult: VRRM_MAX=278VRemark: Diode Spec__5A 300ViW3623 for 40V450mA LED Design iWatt Confidential Aug. 28, 2012 2222. Vcc Diode waveformTest Condition: VIN=264VAC, VOUT=41.5VResult: VRRM_MAX=105VRemark: Diode Spec__1A 200ViW3623 for 40V450mA LED Design iWatt Confidential Aug. 28, 2012 2323. Conducted EMI (Full Load)QP Scan QP Limit line AV Scan AV Limit lineInput=115VAC L line QP&AV scan QP&AVQP Scan QP Limit line AV Scan AV Limit lineInput=115VAC N line QP&AV scan QP&AViW3623 for 40V450mALED DesigniWatt ConfidentialAug. 28, 20122424. Conducted EMI (Full Load)QP Scan QP Limit line AV Scan AV Limit lineInput=230VAC L line QP&AV scan QP&AVQP Scan QP Limit line AV Scan AV Limit lineInput=230VAC N line QP&AV scan QP&AViW3623 for 40V450mALED DesigniWatt ConfidentialAug. 28, 20122525. Radiated EMI (for reference)EN55022 LIMIT28MHz Note: 1, Vin=115Vac 2, Output is floating200MHziW3623 for 40V450mALED DesigniWatt ConfidentialAug. 28, 20122626. Radiated EMI (for reference)EN55022 LIMIT28MHz Note: 1, Vin=230Vac 2, Output is floating200MHziW3623 for 40V450mALED DesigniWatt ConfidentialAug. 28, 201227。
iw3616、3617、3630datasheet中文翻译(绝对真实)解析
产品特色大幅简化离线式LED驱动器设计●单级功率因数校正(PFC)与精确恒流(CC)输出相结合●输入/输出电容和变压器体积小●一次侧反馈控制，无需光耦电路，简化了电路设计●简化初级侧PWM调光接口●符合IEC61000-3-2标准高效节能和高兼容性●大幅提升效率，可达到85%以上●减少元件数量●总谐波失真<15%且PF>0.95●前沿、后沿和数字调光器●传感器和定时器精确稳定的性能●LED负载恒流精度不低于±5%●支持LED负载热插拔●1%-100%宽范围调光，调光无闪烁先进的保护及安全特性●通过自动重启动提供短路保护●开路故障检测模式●自动热关断重启动无论在PCB板上还是在封装上，都保证高压漏极引脚与其他所有信号引脚之间满足高压爬电要求应用●LED离线固态照明说明G7617 是一款的适用于LED调光控制的离线式两级交流/直流电源控制器，是适用于25W 输出功率的可调光LED 灯具的最优之选。
G7617符合电磁兼容性(EMC) IEC61000-3-2 标准，在120V AC或230V AC输入电压下其功率因数(PF) 可达到0.95 以上。
采用先进的数控技术来检测调光器的类型和相位，为调光器提供动态阻抗的同时可调节LED发光亮度，自动检测调光器类型和相位，从而实现了业内与模拟及数字调光器最广泛的兼容性。
G7617工作于准谐振工作模式，工作效率高，可工作于前沿后沿调光模式，也可工作于R 型、R-C型或R-L型调光控制模式。
G7617 符合热插拔LED 模块的固态照明行业标准Zhaga，同时还集成了调光功能的映射选项（位于白炽灯替代灯的NEMA SSL6 调光曲线内）。
G7617 系列有两个版本：针对120V AC输入应用进行优化的G7617-00 和针对230V AC 应用进行优化的G7617-01。
订购信息应用框图图1典型应用内部框图Vcc VinVcbVT CFGASU BisenseBdrvFdrvFisensePGNDAGND C O R E图2 内部框图引脚功能描述BV SENSE V IN BI SENSE B DRV CFG ASU V CCV CBV TFV SENSEFI SENSEF DRVAGNDPGND 图3. 引脚布局BV SENSE引脚：PFC电感电压反馈点，用于感知Boost电感的磁通状态。
360度分布适配器包，多模灰色，24LC内置篝玲说明书
Gray 6 LC/UPC Internal shutters 0 Yes 24
Optical Specifications
Fiber Mode
Multimode
Environmental Specificaandards Safety Standard
IEC 61753-1 | TIA-568.3-D UL
760216796 | 360DPis-24LC-MM
360 Distribution Adapter Pack, Multimode Gray, 24 LC with internal shutters
Product Classification
Regional Availability Portfolio Product Type Product Series
Page 1 of 2
760216796 | 360DPis-24LC-MM
ISO 9001:2015 REACH-SVHC ROHS UK-ROHS
Designed, manufactured and/or distributed under this quality management system Compliant as per SVHC revision on /ProductCompliance Compliant Compliant
Packaging and Weights
Packaging quantity
1
Regulatory Compliance/Certifications
Agency CHINA-ROHS ISO 9001:2015
Classification Below maximum concentration value Designed, manufactured and/or distributed under this quality management system
iw3616、3617、3630datasheet中文翻译(绝对真实)
产品特色大幅简化离线式LED驱动器设计●单级功率因数校正(PFC)与精确恒流(CC)输出相结合●输入/输出电容和变压器体积小●一次侧反馈控制，无需光耦电路，简化了电路设计●简化初级侧PWM调光接口●符合IEC61000-3-2标准高效节能和高兼容性●大幅提升效率，可达到85%以上●减少元件数量●总谐波失真<15%且PF>0.95●前沿、后沿和数字调光器●传感器和定时器精确稳定的性能●LED负载恒流精度不低于±5%●支持LED负载热插拔●1%-100%宽范围调光，调光无闪烁先进的保护及安全特性●通过自动重启动提供短路保护●开路故障检测模式●自动热关断重启动无论在PCB板上还是在封装上，都保证高压漏极引脚与其他所有信号引脚之间满足高压爬电要求应用●LED离线固态照明说明G7617 是一款的适用于LED调光控制的离线式两级交流/直流电源控制器，是适用于25W 输出功率的可调光LED 灯具的最优之选。
G7617符合电磁兼容性(EMC) IEC61000-3-2 标准，在120V AC或230V AC输入电压下其功率因数(PF) 可达到0.95 以上。
采用先进的数控技术来检测调光器的类型和相位，为调光器提供动态阻抗的同时可调节LED发光亮度，自动检测调光器类型和相位，从而实现了业内与模拟及数字调光器最广泛的兼容性。
G7617工作于准谐振工作模式，工作效率高，可工作于前沿后沿调光模式，也可工作于R 型、R-C型或R-L型调光控制模式。
G7617 符合热插拔LED 模块的固态照明行业标准Zhaga，同时还集成了调光功能的映射选项（位于白炽灯替代灯的NEMA SSL6 调光曲线内）。
G7617 系列有两个版本：针对120V AC输入应用进行优化的G7617-00 和针对230V AC 应用进行优化的G7617-01。
订购信息应用框图图1典型应用内部框图Vcc VinVcbVT CFGASU BisenseBdrvFdrvFisensePGNDAGND C O R E图2 内部框图引脚功能描述BV SENSE V IN BI SENSE B DRV CFG ASU V CCV CBV TFV SENSEFI SENSEF DRVAGNDPGND 图3. 引脚布局BV SENSE引脚：PFC电感电压反馈点，用于感知Boost电感的磁通状态。
MLX90620ESF-BAB-000;中文规格书,Datasheet资料
(1) Supply Voltage B = 3V
(3) Package options: A = reserved B = 60° FOV C = reserved D = 40° FOV
Example: MLX90620ESF-BAB-000-TU
Functional diagram
Digital Active Thermopile Array
16x4 IR array
General Description (continued)
The results of the infrared sensor measurements are stored in RAM: • 16-bit result of IR measurement for each individual sensor (64 words) • 16-bit result of PTAT sensor Depending on the application, the external microcontroller can read the different RAM data and, based on the calibration data stored in the EEPROM memory, compensate for difference between sensors to build up a thermal image, or calculate the temperature at each spot of the imaged scene. These constants are accessible by the user microcontroller through the I2C bus and have to be used for external post processing of the thermal data. This post processing includes: • Ta calculation • Pixel offset cancelling • Pixel to pixel sensitivity difference compensation • Object emissivity compensation • Object temperature calculation The result is an image with NETD better than 0.5K at 1Hz refresh rate. The refresh rate of the array is programmable by means of register settings or directly via I2C command. Changes of the refresh rate have a direct impact on the integration time and noise bandwidth (faster refresh rate means higher noise level). The frame rate is programmable in the range 0,5Hz…512Hz and can be changed to achieve the desired trade off between speed and accuracy. The MLX90620 requires a single 3V supply (±0,6V). The customer can choose between 3 operating modes: • Normal. In this mode the device is free running under control of the internal state machine. Depending on the selected refresh rate Fps (Frame per second) the chip is constantly measuring both IR and PTAT and is refreshing the data in the RAM with specified refresh rate; • Step. This mode is foreseen for synchronization with an external micro-controller. The internal state machine is halted. If the command ‘StartMeas’ is received via the I2C bus, a single measurement of all IR and PTAT sensors will be done, then the chip will return in wait state. When in wait state the data in RAM can be read. The MLX90620 is factory calibrated in wide temperature ranges: • -40…85 ˚C for the ambient temperature sensor • -50…300 ˚C for the object temperature. Each pixel of the array measures the average temperature of all objects in its own Field Of View (called nFOV). It is very important for the application designer to understand that the accuracy of the temperature measurement is very sensitive to the thermal equilibrium isothermal conditions (there are no temperature differences across the sensor package). The accuracy of the thermometer can be influenced by temperature differences in the package induced by causes like (among others): Hot electronics behind the sensor, heaters/coolers behind or beside the sensor or by a hot/cold object very close to the sensor that not only heats the sensing element in the thermometer but also the thermometer package. This effect is especially relevant for thermometers with a small FOV as the energy received by the sensor from the object is reduced
2300_20 Datasheet - CHN
2300/25
Trendmaster SPA 接口 两路可编程继电器输出 “本特利内华达监测器组态软件”（包含供货 范围内）通过以太网 10/100 Base-T 通讯接口对 监测器组态 一路专用转速和键相通道，支持涡流探头、磁 阻发讯器、以及接近开关式传感器 三路缓冲传感器输出（包括转速信号），提供 短路和抗电磁干扰保护。每个信号的缓冲输出 通过 BNC 插头获取 连续监测与保护 LCD 显示屏显示振动幅值、设定值、以及转速 两个加速度振动输入可同步采样，便于高级诊 断分析 关键测量值（通频峰值、峰-峰值、通频 RMS 有 效值、等效峰值、通频积分峰值、转速）实时 报警组态 LED 指示灯显示监测器状态 用于通道旁路、组态锁定、以及复位的接点输 入 可选配 Modbus® 以太网通讯
如需获取更多认证及机构批准信息，请访问以下网址：
物理参数
外形尺寸（宽 x 深 x 高） 127 毫米 x 127 毫米 x 76.2 毫米 重量 1.03 公斤 安装 面板安装或 DIN 导轨安装（含导轨卡座）
技术规格与订购信息 文档编号 105M0340-01 修订版 D (04/15) 第 5 页 / 共 10 页
订购信息
2300 系列振动监测器
2300/20-AA：有 4-20mA 输出的监测器（含 DIN 导 轨安装总成、手册、以及监测器组态软件） AA：机构批准选项 00 无 02 多个机构防爆认证（ ATEX/IECEx/CSA ）
3
（不含键相传感器、防护箱和 24 VDC 电源 3） BB：机构批准选项 00 无 02 多个机构防爆认证 （ATEX/IECEx/CSA）
支持自定义加速度传感器（2 线或 3 线） 每个通道独立的 24 位 AD 转换 转速/键相输入 支持以下键相传感器 o o o 涡流探头 接近开关 磁阻发讯器
亚德诺 宽带中频接收机子系统 AD6676 数据手册说明书
ADI 中文版数据手册是英文版数据手册的译文，敬请谅解翻译中可能存在的语言组织或翻译错误，ADI 不对翻译中存在的差异或由此产生的错误负责。
如需确认任何词语的准确性，请参考ADI 提供的最新英文版数据手册。
宽带中频接收机子系统AD6676Rev. BDocument FeedbackInformation furnished by Analog Devices is believed to be accurate and reliable. However , noresponsibility is assumed by Analog Devices for its use, nor for any infringements of patents or other rights of third parties that may result from its use. Speci cations subject to change without notice. No license is granted by implication or otherwise under any patent or patent rights of Analog Devices. T rademarks and registered trademarks are the property of their respective owners.One Technology Way, P.O. Box 9106, Norwood, MA 02062-9106, U.S.A.Tel: 781.329.4700 ©2014–2016 Analog Devices, Inc. All rights reserved. Technical Support 功能框图L–L+RESETBVDDIO AGC4, AGC3AGC2, AGC1VDD2NVVSSAVDD2VDDD VSSDSPICSB SCLK SDIO SDOSERDOUT0+SERDOUT0–SERDOUT1+SERDOUT1–VDDHSI SYNCINB±SYSREF±AGC SUPPORTCLOCK GENERATION–2.0V REGJ E S D 204B S E R I A L I Z E R T x O U T P U T SMxM = 12,16, 24,32IQQDDC +NCO IQBAND-PASS Σ-� ADCVIN–VIN+27dB ATTENUATOR(1dB STEPS)CLOCKSYNTHESIZER JESD204B SUBCLASS 1CONTROLCLK+CLK–VDDCVDDQ AD667612348-001VDDL VDD1VSS2OUT VSS2IN图1.产品特性高瞬时动态范围噪声系数(NF)低至13 dB噪声频谱密度(NSD)低至−159 dBFS/Hz I I P3高达36.9 dBm ，杂散音低于−99 dBFS 可调谐带通Σ-Δ型模数转换器(ADC) 信号带宽：20 MHz 至160 MHz 中频中心频率：70 MHz 至450 MHz可配置输入满量程电平：−2 dBm 至−14 dBm 易于驱动的阻性中频输入1 dB 增益平坦度，带外峰化低于0.5 dB 混叠抑制大于50 dB2.0 GSPS 至3.2 GSPS ADC 时钟速率 片内PLL 时钟倍频器 16位I/Q 速率高达266 MSPS 片内数字信号处理NCO 和正交数字下变频器(QDDC) 可选抽取系数：12、16、24和32 支持自动增益控制(AGC)片内衰减器范围为27 dB 、步进为1 dB通过可配置AGC 数据端口实现衰减器快速控制 具有可编程阈值的峰值检测标志 单通道或多通道，支持JESD204B低功耗：1.20 W电源电压：1.1 V 和2.5 V TDD 省电高达60% 4.3 mm × 5.0 mm WLCSP应用宽带蜂窝基础设施设备和中继器 点对点微波设备 仪器仪表频谱分析仪和通信分析仪 软件定义无线电概述AD66761是一款高度集成的中频子系统，可数字化高达160 MHz 的射频(RF)频段，并且此频段在70 MHz 至450 MHz 中频(IF)范围内为宽度居中。
分析结果：Analog Ground Resistance Tester Model 3620及配件
Models 3620 & 3620 Kit (pdf)Rev. 0203/05Technical Assistance (800) 1 of 6The Analog Ground Resistance T ester Model 3620 performs ground resistance measurements from 0.5 to 1000Ωwith speed and accuracy.The Model 3620 features three-terminal operation for Fall-of-Potential earth/ground resistance and also may be used for 2-Point tests.The large 3.1" logarithmic analog scale is easy to read, with a separate mark-ing for 25Ω.A large Press-to-Measure button allows for easy measurements.A manual zero adjust is provided for accurate readings. Color-codedbinding post terminals are easy-to-use with banana plug and spade lug inputs.The heavy duty ABS case is O-ring sealed against dust and water, and the Press-to-Measure button is also sealed.The Ground T ester Model 3620 isbattery powered, for convenient use in remote field applications. Mechanical and safety specifications, such as vibration and drop test, meet or exceed IEC standards, to ensure safe and reliable field use.The Ground Resistance T ester Model 3620 is the ideal instrument for electrical contractors, power utilities, REAs,telephone and CATV technicians, and inspectors who must check ground to determine compliance with NEC ®,OSHA and other specifications.The Model 3620 is also available in a complete kit form, which includes meter, 16 ft lead, two 150 ft leads on spools with wind-up handles to reduce lead tangling and two auxiliary ground electrodes packaged in a high-impact molded hard carrying case.Ground Resistance Tester Model 3620 & 3620 KitModel 3620 Kit (optional)Catalog #2114.911981Models 3620 & 3620 Kit (pdf)Rev. 0203/05Technical Assistance (800) 2 of 6Model 3620 shown in standard soft carrying caseCatalog #2114.90Features•Fall-of-Potential method for 2- and 3-Point ground resistance tests •Direct reading on large analog display 0.5 to 1000Ωand easy 25Ωreadings •Large 3.1" (77mm), easy-to-read scale for accurate readings •Built-in battery check •Three color-coded terminals •Large Press-to-Measure button•Portable and compact •Extremely simple to operate: connect – press – read •Designed to reject high levels of noise and interferenceApplications•Measuring earth resistance of the type of single rod or small ground grids often found in remotetelecommunication switching sites •Measuring ground electrode resistance of lightning protection equipment •Measuring the earth electrode resistance of equipment in recreational areas •T esting electrode resistance of ground rods and grids at new construction sites, when utility supplied power has not been supplied •T esting earth electrode resistance of grounded towers at cellular phone remote installationsModels 3620 & 3620 Kit (pdf)Rev. 0203/05 Technical Assistance (800) 3 of 6Test Kit for Model 3620 includes16 ft lead, two 150 ft leads on spools, two wind-uphandles, two auxiliary ground electrodes and molded hard carrying case with slot for meterCatalog #2114.96Model 3620 Kit Catalog #2114.91AccessoriesModels 3620 & 3620 Kit (pdf)Rev. 0203/05Technical Assistance (800) 4 of 625ΩCalibration CheckerCatalog #2118.5811.Input terminal X (C1)12.Input terminal Y (P2)13.Ground resistance shorting link 14.Input terminal Z (C2)15.Display16.Zero adjustment screw 17.Low battery indicator 18.X-Z fault indicator19.X-Y high resistance indicator 10.X-Y high noise indicator 11.Press-to-Measure buttonORDERING INFORMATION CATALOG NO.Ground Resistance Tester Model 3620 (3-Point Analog). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Cat.#2114.90Includes soft carrying case, batteries and user manualGround Resistance Tester Model 3620 Kit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Cat.#2114.91Includes meter, one 16 ft lead, two 150 ft leads on spools with wind-up handles, two auxiliary ground electrodes, molded hard carrying case, batteries and user manual Accessories (Optional)25ΩCalibration Checker . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Cat. #2130.59T ape Measure (100 ft). . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Cat. #2130.60T est Kit for 3-Point T esting (supplemental for 4-Point testing) includes two 100 ft color-coded leads,one 16 ft lead, two 16" T-shaped auxiliary ground electrodes and carrying case . . . . . . . . . . . . . . . . . . . . . . . . . . . . Cat. #2130.61T est Kit for 3-Point T esting includes two 150 ft color-coded leads on spools, one 16 ft lead, two 16" T-shapedauxiliary ground electrodes, 100 ft AEMC tape measure and carrying case. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Cat. #2130.62T est Kit for 4-Point T esting includes two 300 ft color-coded leads on spools, two 100 ft color-coded leads, one 16 ft lead,four 16" T-shaped auxiliary ground electrodes, 100 ft AEMC tape measure and carrying case. . . . . . . . . . . . . . . . . Cat. #2130.63Ground Tester Video/Workbook set. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . Cat. #2130.64Models 3620 & 3620 Kit (pdf)08/02Technical Assistance (800) 5 of 6Contact UsUnited States & 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 & delivery:************************Sales Department – for general sales information:**************Repair and Calibration Service – for information on repair & 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 &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***********************Models 3620 & 3620 Kit (pdf)Rev. 0203/05 Technical Assistance (800) 6 of 6。
MAX3620高速时钟延迟线评估板说明书
_________________________________________________________1 For pricing delivery, and ordering information, please contact Maxim/Dallas Direct! at 1-888-629-4642, or visit Maxim's website at . Evaluates: MAX3620MAX3620 Evaluation Kit______________General DescriptionThe MAX3620 evaluation kit (EV kit) is an assembleddemonstration board that provides for completeevaluation of the MAX3620 high speed clock delayline.The EV kit comes assembled with a MAX3620A(0.75ns delay). Samples of MAX3620B (1.00ns delay),MAX3620C (1.25ns delay), and MAX3620D (1.50nsdelay) are also included to be installed by the user._______________Ordering InformationPART TEMPRANGE ICPACKAGEMAX3620AEVKIT -40°C to +85°C 6 TDFNMAX3620BEVKIT -40°C to +85°C 6 TDFNMAX3620CEVKIT -40°C to +85°C 6 TDFNMAX3620DEVKIT -40°C to +85°C 6 TDFN_____________________Selector GuidePART PKG CODE TOP MARKMAX3620A T633-2 AJXMAX3620B T633-2 AIYMAX3620C T633-2 AIZMAX3620D T633-2 AJA______________________Component ListDESIGNATION QTY DESCRIPTIONJ1, J2, J3, J4, J5,J6 6 SMA connectors, edgemountU1 1 MAX3620AETT 3mmX3mm6 TDFN1 MAX3620BETT 3mmX3mm6 TDFN1 MAX3620CETT 3mmX3mm6 TDFN1 MAX3620DETT 3mmX3mm6 TDFN_________________________Features ♦Fully Assembled and Tested♦Additional samples of MAX3620B, MAX3620C, and MAX3620D Devices Included._____________MAX3620 Quick StartThe MAX3620 EV Kit can be configured to evaluate either single-ended or differential signals. For single-ended operation, leave the unused input open. The EV Kit has a calibration trace equal in length to the signal line. If matched cables are used, delay can accurately be determined by measuring the timing between the signal at the calibration strip output and the signal at the output of the MAX3620. The evaluation kit has a 50Ω interface, 50Ω test equipment should be used.To evaluate the MAX3620A:1) Using matched 50ΩSMA cables, connectone output of a differential clock or pulsegenerator, set up for 300MHz operation, toIN1. Connect the other differential output tothe calibration strip (J6).2) Using another set of matched 50ΩSMAcables, connect OUT1 and the output of thecalibration strip (J5) to the inputs of a 50Ωoscilloscope.Note:The timing skew between oscilloscopechannels will affect delay measurements. Besure to perform a skew calibration beforeapplying signals to the oscilloscope.3) Measure the delay from the output of thecalibration strip to OUT1 at the signal mid-points. Because the two polarities of a singledifferential signal are used as two separatesignals, the output of the delay line will be180°out of phase from the output of thecalibration strip. Measure the delay from thecalibration-strip rising edge to the lagging-delay-line falling edge (or from the calibration-strip falling edge to the lagging-delay-linerising edge).If evaluation of MAX3620B, MAX3620C, or MAX3620D is desired, see Table 1 in the MAX3620 datasheet for the recommended operating conditions of each device. When changing between versions, be sure to connect the exposed pad to the EV Kit GND.19-0080; Rev A, 2/05MAX3620 Evaluation Kit 2________________________________________________________________________________E v a l u a t e s : M A X 3620Figure 1. MAX3620 EV Kit SchematicFigure 2. MAX3620 EV Kit PC Board Layout—Component SideFigure 3. MAX3610 EV Kit PC Board Layout Power PlaneMAX3620 Evaluation KitMaxim cannot assume responsibility for any circuitry other than circuitry embodied in a Maxim product. No circuit patent licenses are implied. Maxim reserves the right to change circuitry and specifications without notice at any time.Maxim Integrated Products, 120 San Gabriel Drive, Sunnyvale, CA 94086 408-737-7600____________________3 ©2005 Maxim Integrated Products Printed USA is a registered trade mark of Maxim Integrated Products.Evaluates: MAX3620 Figure 4. MAX3610 EV Kit PC Board Layout GroundPlaneFigure 5. MAX3610 EV Kit Component Placement Guide, Solder Side。
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Rev. 1.8 iW3620 February 1, 2012
Page 2
iW3620
Digital PWM Current-Mode Controller for AC/DC LED Driver
5.0 Absolute Maximum Ratings
Absolute maximum ratings are the parameter values or ranges which can cause permanent damage if exceeded. For maximum safe operating conditions, refer to Electrical Characteristics in Section 6.0.
iW3620
Digital PWM Current-Mode Controller for AC/DC LED Driver
1.0 Features
●● Primary-side feedback eliminates opto-isolators and simplifies design ●● Quasi-resonant operation for highest overall efficiency ●● EZ-EMI ® design to easily meet global EMI standards ●● Up to 130 kHz switching frequency enables small adapter size ●● Very tight LED constant current regulation ●● No external compensation components required ●● Built-in output constant-current control with primary-side feedback for LED driver. ●● Low start-up current (10 µA typical) ●● Built-in soft start ●● Built-in short circuit protection and output overvoltage protection ●● Current sense resistor short protection ●● Overtemperature Protection ●● Open circuit protection ●● Universal input range from 85 Vac to 264 Vac ●● Single-fault protection ●● Small input bulk capacitor ●● Long MTBF ●● High efficiency
IBVS VSENSE(NOM) VSENSE(MAX)
VSENSE = 2 V TA=25°C, negative edge TA=25°C, negative edge 1.523 1.790 1.538 1.846
Symbol
VCC ICC
Value
-0.3 to 18 20 -0.3 to 18 -0.7 to 4.0 -0.3 to 18 -0.3 to 4.0 -0.3 to 18
Units
V mA V V V V V mW °C °C °C °C/W V mA
PD TJ MAX TSTG TLEAD
526 125 –65 to 150 260 70 2,000 ±100
Rev. 1.8 iW3620 February 1, 2012
Page 1
iW3620
Digital PWM Current-Mode Controller for AC/DC LED Driver
4.0 Pinout Description
1 2 3 4
iW3620
NC VSENSE VIN SD VCC OUTPUT ISENSE GND
8 5 6 7 8
Name NC
VSENSE VIN SD GND ISENSE OUTPUT VCC
Type
-
Pin Description
No connection.
Analog Input Auxiliary voltage sense (used for primary side regulation). Analog Input Rectified AC line average voltage sense. Analog Input Ground External shutdown control. Connect to ground through a resistor if not used. (see Section 10.16) Ground.
ψJB (Note 1)
Note 1. ψJB [Psi Junction to Board] provides an estimation of the die junction temperature relative to the PCB [Board] surface temperature. This data is measured at the ground pin (pin 5) without using any thermal adhesives. See Section 9.14 for more information.
Rev. 1.8 iW3620 February 1, 2012
Page 3
iW3620
Digital PWM Current-Mode Controller for AC/DC LED Driver
6.0 Electrical Characteristics
VCC = 12 V, -40°C ≤ TA ≤ 85°C, unless otherwise specified (Note 1)
Analog Input Primary current sense (used for cycle-by-cycle peak current control and limit). Output Power Input Gate drive for external MOSFET switch. Power supply for control logic and voltage sense for power-on reset circuitry.
Symbol
Test Conditions
Min
Typ
Max
Unit
VIN_A(STLOW) VIN(STLOW) IINST ZIN
TA= 25°C, positive edge
335 363
369 413 10 5
406 477 15
mV mV µA kW
VIN = 10 V, CVCC = 10 µF After start-up
3.0 Applications
●● LED lighting
VOUT + N +
+ RTN
1 2 3 4
NC VSENSE VIN SD
VCC 8 OUTPUT 7 ISENSE 6 GND 5
Optional NTC Thermistor
U1 iW3620
Figure 3.1 : Typical Application Circuit
L
2.0 Description
The iW3620 is a high performance AC/DC offline LED driver which uses digital control technology to build peak current mode PWM flyback power supplies. The device operates in quasi-resonant mode at heavy load to provide high efficiency along with a number of key built-in protection features while minimizing the external component count, simplifying EMI design and lowering the total bill of material cost. The iW3620 removes the need for secondary feedback circuitry while achieving excellent line and load regulation. It also eliminates the need for loop compensation components while maintaining stability over all operating conditions. Pulse-bypulse waveform analysis allows for a loop response that is much faster than traditional solutions, resulting in improved dynamic load response. The built-in current limit function enables optimized transformer design in universal off-line applications over a wide input voltage range.
Parameter
VIN SECTION (Pin 3) Start-up low voltage threshold (VIN_A) at internal ADC input (see Figure 8.1) (Note 2) Start-up low voltage threshold (VIN) Start-up current Input impedance VSENSE SECTION (Pin 2) Input leakage current Nominal voltage threshold Output OVP threshold (Note 2) OUTPUT SECTION (Pin 7) Output low level ON-resistance Output high level ON-resistance Rise time (Note 2) Fall time (Note 2) Maximum switching frequency VCC SECTION (Pin 8) Maximum operating voltage (Note 2) Start-up threshold Undervoltage lockout threshold Operating current