AIC1727-50CX中文资料

加拿大雷鸟厨房设备品牌清单1压面机TBD-2231台型号: TBD-223功率: 2HP(注:1.5KW)电压: 380-3-50Hz 255公斤辊轴直径 150mm辊轴长度 310mm外形尺寸1100mm×610mm×1220mm 0雷鸟2切片机ARM-071台型号ARM-07刀数及刀距31刀刀距12mm 功率 1/3HP重量 80公斤外形尺寸259mm×480mm×708mm0雷鸟3锯骨机TMS-32001台型号：TMS-3200额定电压： 3~380V额定频率： 50Hz电机功率： 3kW带轮直径： 300mm锯带线速度： 15m/s切割厚度： 30~250mm0雷鸟4和面机ASP-401台型号ASP-40搅拌能力一袋粉(40公斤面团)主电机功率3.75KW桶传动电机功率0.56KW 0雷鸟加拿大/雷鸟5双速拌粉机ASP-40 1台型号 ASP-40搅拌能力一袋粉(40公斤面团)主电机功率 3.75KW桶传动电机功率 0.56KW重量 208公斤外形尺寸848mm×555mm×1155mm 0雷鸟6多功能搅拌机ARM-02 1台型号 ARM-02搅拌能力 20升功率0.56KW重量 98公斤外形尺寸560mm×560mm×850mm 0雷鸟7多功能搅拌机ARM-801台型号 ARM-80搅拌能力 80升功率3.70KW重量 525公斤外形尺寸900mm×720mm×1750mm 0雷鸟8电烤箱TBDO-1200GS 1台型号 TBDO-1200GS 烤盘数量、规格三层九盘功率、电压 24KW 380V 三相外壳材质 #304全不锈钢外形尺寸1080mm×1930mm×1680mm重量 520公斤0雷鸟9多功能搅拌机ARM-601台产品型号: ARM-60产品品牌名称: ARM-60产品竞争优势: 整机由美国机械专家设计，结构精密，高速运转无噪音，搅拌器与桶间隙小，省电、效率高，节省原材料； 60公升多功能搅拌机，设计上为立地式，配合人体工学原理，不用弯腰即可长时间作业。

1. 4MHz Thin PackageCurrent-Mode Step-Up DC/DC ConverterAnalog Integrations Corporation Si-Soft Research CenterDS-1896G-01 121208FEATURESFixed Frequency 1.4MHz Current-Mode PWM Operation.Adjustable Output Voltage up to 30V.Guaranteed 13V/ 200mA Output with 5V Input. 2.5V to 10V Input Range.Maximum 0.1µA Shutdown Current. Programmable Soft-Start.Tiny Inductor and Capacitors are allowed.Space-Saving SOT-23-6 and TSOT-23-6 Package.APPLICATIONSWhite LED Backlight. OLED Driver.LCD BiasDESCRIPTIONAIC1896 is a current-mode pulse-width modulation (PWM), step-up DC/DC Converter. The built-in high voltage N-channel MOSFET allows AIC1896 for step-up applications with up to 30V output voltage, as well as for Single Ended Primary Inductance Converter (SEPIC) and other low-side switching DC/DC converter.The high switching frequency (1.4MHz) allows the use of small external components. The Soft-Start function is programmable with an external capacitor, which sets the input current ramp rate.The AIC1896 is available in a space-saving SOT-23-6 and TSOT-23-6 package.TYPICAL APPLICATION CIRCUITµFV IN4.2V687072747678808284862468101214161820LED Current (mA)E f f i c i e n c y (%)Fig. 1 Li-Ion Powered Driver for three white LEDsFV IN4.2VLED Current (mA)E f f i c i e n c y (%)6062646668707274767880Fig. 2 Li-Ion Powered Driver for six white LEDsORDERING INFORMATION& Reel Packing TypeAIC1896PGTRin Lead Free SOT-23-6 Package & Tape& Reel Packing TypeTSOT-23-6 MarkingPart No. Marking AIC1896PK 896PK AIC1896GK896GKSOT-23-6 MarkingPart No. Marking AIC1896PG 1896P AIC1896GG1896GABSOLUTE MAXIMUM RATINGSLX to GND -0.3V to +33V FB to GND -0.3V to +6V IN, SHDN-0.3V to +11V SS to GND -0.3V to +6V LX Pin RMS Current 0.6A Continuous Power Dissipation 727mW Operating Temperature Range -40°C to 85°C Junction Temperature 125°C Storage Temperature Range -65°C to 150°C Lead Temperature (soldering, 10s) 260°CAbsolute Maximum Ratings are those values beyond which the life of a device may be impaired. TEST CIRCUITV IN V OUT10µELECTRICAL CHARACTERISTICSSHDNNote 1: Specifications are production tested at T A=25°C. Specifications over the -40°C to 85°C operating temperature range are assured by design, characterization and correlation with Statistical QualityControls (SQC).TYPICAL PERFORMANCE CHARACTERISTICSFig. 3 Switching Frequency vs. TemperatureS w i t c h i n g F r e q u e n c y (M H z )Temperature (°C)Fig. 4 Frequency vs. Supply VoltageF r e q u e n c y (M H z )Supply Voltage (V)Supply Voltage (V)Fig. 5 R DSON vs. Supply VoltageR D S (O N ) (Ω)Output Current (mA)Fig. 6 Load Regulation (L1=10μH)O u t p u t V o l t a g e (V )Output Current (mA)Fig. 7 Load Regulation (L1=22μH)O u t p u t V o l t a g e (V )Supply Voltage (V)Fig. 8 Switching CurrentS u p p l y C u r r e n t (m A )TYPICAL PERFORMANCE CHARACTERISTICS (Continued)Supply Voltage (V)Fig. 9 Non-Switching CurrentS u p p l y C u r r e n t (μA )Fig. 10Feedback Pin VoltageF e e d b a c k V o l t a g e (V )Temperature (°C)Output Current (mA)Fig. 11 Efficiency vs. Output Current (L1=10µH, test circuit refer to p.3)E f f i c i e n c y (%)Output Current (mA)Fig. 12Efficiency vs. output current (L1=22µH, test circuit refer to p.3)E f f i c i e n c y (%)Fig. 13(a) Maximum Output current vs. Supply Voltage(L1: 10µH, test circuit refer to p.3)M a x i m u m O u t p u t C u r r e nt (m A )Supply Voltage (V)0Fig. 13(b) Maximum Output Current vs. Supply Voltage(L1:22µH, test circuit refer to p.3)M a x i m u m O u t p u t C u r r e n t (m A )Supply Voltage (V)TYPICAL PERFORMANCE CHARACTERISTICS (Continued)Fig. 14 Operation Wave Form(V IN =5V; V OUT =12V, L1=22µH; R1=105K;R2=12K;C3=1nF;I OUT =200mA, test circuit refer to p.3)V OUT V SW ILXFig. 15 Operation Wave Form(V IN =3V;V OUT =5V;L1=10µH;R1=36K;R2=12K; C3=39pF;I OUT =200mA, test circuit refer to p.3)V OUT VLXILXFig. 16 Load Step Response(V IN =3.3V; V OUT =5V;L1=10µH;I OUT =5mA to 200mA,test circuit refer to p.3)V OUTILXFig. 17 Load Step Response(V IN =5V ; V OUT =12V ;L1=22µH;I OUT =5mA to 150mA,test circuit refer to p.3)V OUTI LXFig. 18 Start-Up from Shutdown (V IN =3.3V ;V OUT =13V ;R LOAD =300Ω,test circuit refer to p.3)V OUTSHDN I LXBLOCK DIAGRAMSHDNSSLX FBGND PIN DESCRIPTIONSPIN 1: LX - Power Switching Connection.Connect LX to inductor andoutput rectifier. Keep thedistance between thecomponents as close to LX aspossible.PIN 2: GND - Ground.PIN 3: FB - Feedback Input. Connect aresistive voltage-divider from theoutput to FB to set the outputvoltage.PIN 4: SHDN- Shutdown Input. Drive SHDNlow to turn off the converter. Toautomatically start the converter,connect SHDN to IN. DriveSHDN with a slew rate of0.1V/µs or greater. Do not leaveSHDN unconnected.SHDNdraws up to 50µA.PIN 5: SS - Soft-Start Input. Connect asoft-start capacitor from SS toGND in order to soft-start theconverter. Leave SS open todisable the soft-start function. PIN 6: IN - Internal Bias Voltage Input.Connect IN to the input voltagesource. Bypass IN to GND witha capacitor sitting as close to INas possible.APPLICATION INFORMATION Inductor SelectionA 15µH inductor is recommended for mostAIC1896 applications. Although small size and high efficiency are major concerns, the inductor should have low core losses at 1.4MHz and low DCR (copper wire resistance).Capacitor SelectionThe small size of ceramic capacitors makes them ideal for AIC1896 applications. X5R and X7R types are recommended because they retain their capacitance over wider ranges of voltage and temperature than other types, such as Y5V or Z5U. A 4.7µF input capacitor and a 1µF output capacitor are sufficient for most AIC1896 applications.Diode SelectionSchottky diodes, with their low forward voltage drop and fast reverse recovery, are the ideal choices for AIC1896 applications. The forward voltage drop of a Schottky diode represents the conduction losses in the diode, while the diode capacitance (C T or C D) represents the switching losses. For diode selection, both forward voltage drop and diode capacitance need to be considered. Schottky diodes with higher current ratings usually have lower forward voltage drop and larger diode capacitance, which can cause significant switching losses at the 1.4MHz switching frequency of AIC1896. A Schottky diode rated at 100mA to 200mA is sufficient for most AIC1896 applications.LED Current ControlLED current is controlled by feedback resistor (R1 in Fig. 1). The feedback reference is 1.23V. The LED current is 1.23V/R1. In order to haveaccurate LED current, precision resistors are preferred (1% recommended). The formula for R1 selection is shown below.R1 = 1.23V/I LED(1)Open-Circuit ProtectionIn the cases of output open circuit, when the LEDs are disconnected from the circuit or the LEDs fail, the feedback voltage will be zero. AIC1896 will then switch to a high duty cycle resulting in a high output voltage, which may cause SW pin voltage to exceed its maximum 30V rating. A zener diode can be used at the output to limit the voltage on SW pin (Fig. 20). The zener voltage should be larger than the maximum forward voltage of the LED string. The current rating of the zener should be larger than 0.1mA.Dimming ControlThere are three different types of dimming control circuits as follows:1. Using a PWM signalPWM brightness control provides the widest dimming range by pulsing LEDs on and off at full and zero current, repectively. The change of average LED current depends on the duty cycle of the PWM signal. Typically, a 0.1kHz to 10kHz PWM signal is used. Two applications of PWM dimming with AIC 1896 are shown in Fig 21. One, as fig. 21(a), uses PWM signal to drive SHDN pin directly for dimming control. The other, as fig. 21(b), employs PWM signal going through a resistor to drive FB pin. If the SHDN pin is used, the increase of duty cycle results in LED brightness enhancement. If the FB pin is used, on the contrary, the increase of duty cycle will decrease its brightness. In this application, LEDsare dimmed by FB pin and turned off completely by SHDN.2. Using a DC VoltageFor some applications, the preferred method of a dimming control uses a variable DC voltage to adjust LED current. A dimming control using a DC voltage is shown as Fig. 22. As DC voltage increases, the voltage drop over R2 increases and the voltage drop over R1 decreases.Cautiously selecting R2 and R3 is essential so that the current from the variable DC source is much smaller than the LED current and much larger than the FB pin bias current. With a VDC ranging from 0V to 5V, the selection of resistors in Fig. 22 results in dimming control of LED current from 20mA to 0mA, respectively.3. Using a Filtered PWM SignalFiltered PWM signal can be considered as an adjustable DC voltage. It can be used to replace the variable DC voltage source in dimming control. The circuit is shown in Fig. 23.V INC3µF Fig. 19 White LED Driver with Open-Circuit ProtectionPWMOFF(a) (b)Fig. 20 Dimming Control Using a PWM SignalONOFFFig. 21 Dimming Control Using a DC Voltage Fig. 22 Dimming Control Using a Filtered PWM Signal APPLICATION EXAMPLESC3µF=20mAV INFig. 23 1-Cell Li-Ion Powered Driver for eight White LEDs with Open-Circuit ProtectionVout *R2 *L1 5V9V 12V 18V 24V36K 75k 105k 160k 220k10uH 10uH 10uH 22uH 22uHFig. 24 Typical Step up Application Circuit4.7µV INFig. 25 1-Cell Li-Ion to ±15V/5mA Dual Output Converter for LCD Bias5V INV OUT =40V/10mA0.1uFFig. 26 High 40V Output Voltage for Electrophoretic Display (EPD) ApplicationFig. 27 Three output voltage for LCDPHYSICAL DIMENSIONS (unit: mm)TSOT-23-6VIEW BSEATING PLANEGAUGE PLANE SECTION A-ASEE VIEW B0°0.700.301.502.602.800.080.30 0e θL1L e1c E E1D b A2A10.95 BSC 8°0.601.90 BSC0.60 REF0.901.703.003.000.220.500.10 -MIN.SY M B O LA 1.00MAX.TSOT-23-6MILLIMETERS Note : 1. Refer to JEDEC MO-193AA.2. Dimension "D" does not include mold flash, protrusions or gate burrs. Mold flash, protrusion or gate burrs shall not exceed 6 mil per side.3. Dimension "E1" does not include inter-lead flash or protrusions.4. Controlling dimension is millimeter, converted inch dimensions are not necessarily exact.SOT-23-6Note :Information provided by AIC is believed to be accurate and reliable. However, we cannot assume responsibility for use of any circuitry other than circuitry entirely embodied in an AIC product; nor for any infringement of patents or other rights of third parties that may result from its use. We reserve the right to change the circuitry and specifications without notice.Life Support Policy: AIC does not authorize any AIC product for use in life support devices and/or systems. Life support devices or systems are devices or systems which, (I) are intended for surgical implant into the body or (ii) support or sustain life, and whose failure to perform, when properly used in accordance with instructions for use provided in the labeling, can be reasonably expected to result in a significant injury to the user.VIEW BSEATING PLANEGAUGE PLANE SECTION A-ASEE VIEW B0°0.900.301.502.602.800.080.300.05e θL1L e1c EE1Db A2A10.95 BSC 8°0.601.90 BSC0.42 REF1.301.703.003.000.220.500.150.95MIN.S Y M B O LA 1.45MAX.SOT-23-6MILLIMETERS Note : 1. Refer to JEDEC MO-178AB.2. Dimension "D" does not include mold flash, protrusions or gate burrs. Mold flash, protrusion or gate burrs shall not exceed 10 mil per side.3. Dimension "E1" does not include inter-lead flash or protrusions.4. Controlling dimension is millimeter, converted inch dimensions are not necessarily exact.。

AST2150 IPMI Configuration GuideVersion 1.1CopyrightCopyright © 2011 MiTAC International Corporation. All rights reserved. No part of this manual may be reproduced or translated without prior written consent from MiTAC International Corporation.NoticeInformation contained in this document is furnished by MiTAC International Corporation and has been reviewed for accuracy and reliability prior to printing. MiTAC assumes no liability whatsoever, and disclaims any express or implied warranty, relating to sale and/or use of TYAN® products including liability or warranties relating to fitness for a particular purpose or merchantability. MiTAC retains the right to make changes to product descriptions and/or specifications at any time, without notice. In no event will MiTAC be held liable for any direct or indirect, incidental or consequential damage, loss of use, loss of data or other malady resulting from errors or inaccuracies of information contained in this document.Contents1. IPMI OS Drivers and Open Source Software (3)1.1 Windows IPMI Driver (3)1.2 Open IPMI Driver on Linux (3)1.3 IPMITool and Other Open Source Software (3)2. ASTER GUI (5)2.1 ASTER GUI Overview (5)2.2 System Information (6)2.3 Server Health (7)2.3.1 Sensor Reading (8)2.3.2 Sensor Reading with Thresholds (9)2.3.3 Event Log (10)2.4 Configuration (11)2.4.1 Alerts (12)2.4.2 Mouse Mode (14)2.4.3 Network (15)2.4.4 SMTP (16)2.4.5 Users (17)2.4.6 Date Time/NTP Settings (18)2.5 Remote Control (19)2.5.1 Remote Console Redirection (20)2.5.2 Remote Power Controls (28)2.5.3 Other Controls (29)2.6 Maintenance (30)3. BMC Port Number (33)1. IPMI OS Drivers and Open Source SoftwareAST2150 firmware is full compliant with IPMI 2.0 specification. So users could use standard IPMI driver comes from operation system distribution.1.1 Windows IPMI DriverAST2150 supports Intel reference driver, you can get it from/design/servers/ipmi/tools.htm.From Windows Server 2003 R2, Microsoft also provide in box IPMI driver. You can use it also.1.2 Open IPMI Driver on LinuxAST2150 supports the Open IPMI driver in Linux Kernel. Use the following commands to load ipmi drivers.“modprobe ipmi_devintf”“modprobe ipmi_si”If you use old version Linux Kernel, you need to replace module “ipmi_si” with “ipmi_kcs”Note that TYAN motherboard BIOS encodes IPMI Base IO address at 0xCA2 in its DMI table IPMI entry, any generic OS IPMI drivers should have no problem to support it.1.3 IPMITool and Other Open Source SoftwareAST2150 supports open source software IPMITool, you can also use other ones like OpenIPMI,IPMI Util. Note that for IPMITool SOL session, user needs to use BIOS setup menu to configure “Remote Serial Console Redirect” to use COMA, and set baud rate to 38.4K, 8 bits, no parity, and Xon/Xoff handshaking.NOTE2. ASTER GUI2.1 ASTER GUI OverviewThe AST2150 has a user-friendly Graphics User Interface (GUI) called the Aster GUI. It is designed to be easy to use. It has a low learning curve because it uses a standard Internet browser. You can expect to be up and running in less than five minutes.You will be prompted to enter a user name and password. The default user name and password are as follows:Field DefaultUsername rootPassword superuserNOTE:The default user name and password are in lower-case characters.When you log in using the root user name and password, you have full administrative powers. It is advised that once you log in, you change the root password.2.2 System InformationThis page shows system power on status and firmware revision and its release date.2.3 Server HealthThis page contains options to show motherboard sensor readings and events. SDR, Sensor reading, Sensor events (System event log), and PEF (Platform event filters) are implemented in compliant with ipmi2.0 specification.2.3.1 Sensor Reading2.3.2 Sensor Reading with Thresholds2.3.3 Event Log2.4 ConfigurationThis page contains options to configure Alerts, Mouse mode, Network, SMTP, Users, and Date Time NTP Settings.2.4.1 AlertsThis page lists configured alert destinations, use modify button to configure it, or send a test alert to the destination.This Modify Alert page contains drop down menu’s and fields to configure alert types (email, SNMP traps), event severity, destination IP/Email address, and subject etc.2.4.2 Mouse ModeThis configuration depends on the OS installed on Local Host. Note, it’s OS on local host with AST2150, not the remote console.Most modern Windows versions(2000/XP/2003/Vista/2008) and Mac OS X, use the Absolute Mode.Relative mode is used by most Linux distributions (SuSE, RHEL) and older operating system like Windows 95/98.Use this page to view and configure network settings.For email alert, Enter and Save the SMTP mail server IP in this page.2.4.5 UsersUse this page to add, modify, and delete users. You may select “modify user” and then change each user’s name, password, and privileges.2.4.6 Date Time/NTP Settings Select options to set date/time.2.5 Remote ControlThis page allows user to perform various remote operations such as “Console Redirection” ， “Power Control” and “ Other Control”.2.5.1 Remote Console RedirectionPress “Java Console” button to invoke JViewer to start KVM-over-IP session.For IPMI only SKU, button “Java Console” will be grayed out and make sure users couldn’t use KVM-over-IP feature.Use JViewer <Video> menu to stop/restart/exit console redirect session.To avoid OS to intercept and interpret special key combinations, you may need to use this drop down menu to send special Key combinations to remote OS.Select <Mouse sync > to allow mouse work correctly within the JViewer redirected remote screen (in sync with remote OS). Press <alt-M> to release “mouse sync” and return mouse control to local OS.Remote CDROM /Floppy redirection selection.Choose a local CDROM drive to redirect. Note that you need to configure “Boot order” on remote station (via remote station BIOS Setup, after select CDROM to redirect) before you can let the remote station to boot from the redirected CDROM .Select <Options> menu to configure KVM-over-IP Video engine.2.5.2 Remote Power ControlsSelect options in this page to reset, power off, power on, or power cycle the remote station.2.5.3 Other ControlsSelect options in this page to chassis ID LED check, clear CMOS and local lock panel control the remote station.2.6 MaintenanceNeed to “Enter Update Mode” in order to flash new firmware.Select firmware to upload and then press “update firmware” button to proceed firmware update.NOTE3. BMC Port NumberThis section will list a table of the BMC Port numbers.Web: 80, 443KVM: 7578CD-Media: 5120BMC Port NumberFD-Media: 5123SSH (Smash): 22RMCP (IPMI): 623UPnP: 1900。

Eaton 072907Eaton Moeller® series E-PKZ0 Insulated enclosure, E-PKZ0, H x W x D = 129 x 85 x 124 mm, flush-mounted, rotary handle, black/gray, IP55General specificationsEaton Moeller® series E-PKZ0 Accessory Insulated enclosure0729074015080729075124 mm 129 mm 85 mm 0.224 kgIEC/EN 60947-4-1 CSA Class No.: 3211-05 CSA-C22.2 No. 14 CECSA File No.: 165628 UL UL 508UL Category Control No.: NLRV UL File No.: E36332 CSAProduct NameCatalog Number EANProduct Length/Depth Product Height Product Width Product Weight Certifications0 AAccessoriesIs the panel builder's responsibility. The specifications for the switchgear must be observed.0 W0 WMeets the product standard's requirements.Is the panel builder's responsibility. The specifications for the switchgear must be observed.Does not apply, since the entire switchgear needs to be evaluated.Meets the product standard's requirements.Black-gray rotary knobPE(N) terminalNEMA 1NEMA 12IP55NEMA 3RMeets the product standard's requirements.Meets the product standard's requirements.Is the panel builder's responsibility.eaton-manual-motor-starters-mounting-e-pkz0-accessory-dimensions.eps eaton-manual-motor-starters-enclosure-e-pkz0-accessory-dimensions-002.epseaton-manual-motor-starters-enclosure-e-pkz0-accessory-dimensions-003.epseaton-manual-motor-starters-enclosure-e-pkz0-accessory-dimensions.eps eaton-manual-motor-starters-enclosure-e-pkz0-accessory-3d-drawing-003.epsDA-CE-ETN.E-PKZ0-GIL03402029ZDA-CD-e_pkz0_gDA-CS-e_pkz0_gRated operational current for specified heat dissipation (In) Product category10.11 Short-circuit ratingEquipment heat dissipation, current-dependent PvidHeat dissipation capacity Pdiss10.4 Clearances and creepage distances10.12 Electromagnetic compatibility10.2.5 Lifting10.2.3.1 Verification of thermal stability of enclosuresFitted with:Degree of protection (front side)10.2.3.2 Verification of resistance of insulating materials to normal heat10.2.3.3 Resist. of insul. mat. to abnormal heat/fire by internal elect. effects10.8 Connections for external conductors10.9.2 Power-frequency electric strength DibujoseCAD model Instrucciones de instalación mCAD modelIs the panel builder's responsibility.Degree of protectionIP55NEMA OtherAmbient operating temperature - max40 °C10.7 Internal electrical circuits and connectionsIs the panel builder's responsibility.10.10 Temperature riseThe panel builder is responsible for the temperature rise calculation. Eaton will provide heat dissipation data for the devices.Static heat dissipation, non-current-dependent Pvs0 W10.9.3 Impulse withstand voltageIs the panel builder's responsibility.Enclosure materialPlasticAmbient operating temperature - min-25 °C10.2.2 Corrosion resistanceMeets the product standard's requirements.10.6 Incorporation of switching devices and componentsDoes not apply, since the entire switchgear needs to be evaluated.10.2.4 Resistance to ultra-violet (UV) radiationPlease enquire10.2.7 InscriptionsMeets the product standard's requirements.10.5 Protection against electric shockDoes not apply, since the entire switchgear needs to be evaluated.ModelBuilt-in10.13 Mechanical functionThe device meets the requirements, provided the information in the instruction leaflet (IL) is observed.10.2.6 Mechanical impactDoes not apply, since the entire switchgear needs to beEaton Corporation plc Eaton House30 Pembroke Road Dublin 4, Ireland © 2023 Eaton. Todos los derechos reservados. Eaton is a registered trademark.All other trademarks areproperty of their respectiveowners./socialmediaevaluated.Is the panel builder's responsibility.Does not apply, since the entire switchgear needs to be evaluated.0 W10.9.4 Testing of enclosures made of insulating material 10.3 Degree of protection of assembliesHeat dissipation per pole, current-dependent Pvid。

AIC1563Versatile DC/DC Converter FEATURES3V to 30V Input Voltage Operation.Internal 2A Peak Current Switch.1.5A Continuous Output Current.Bootstrapped Driver.High Side Current Sense Capability.High Efficiency (up to 90%).Internal ±2% Reference.Low Quiescent Current at 1.6mA.Frequency Operation from 100Hz to 100KHz.APPLICATIONSConstant Current Source for Battery Chargers.Saver for Cellular phones.Step-Down DC-DC Converter Module.DESCRIPTIONThe AIC1563 is a monolithic control circuitcontaining the primary functions required for DCto DC converters and highside-sensed constantcurrent source. The device consists of an inter-nal temperature compensated reference, com-parator, controlled duty cycle oscillator with anactive current sense circuit, bootstrapped driver,and high current output switch. This device isspecifically designed to construct a constantcurrent source for battery chargers with a mini-mum number of external components. Boot-strapped driver can drive the NPN output switchto saturation for higher efficiency and less heatdissipation. The AIC1563 can deliver 1.5A con-tinuous current without requiring a heat sink. TYPICAL APPLICATION CIRCUITVIN(%)Io (A)00.51 1.52708090100Efficiency vs Output CurrentABSOLUTE MAXIMUM RATINGSSupply Voltage ..............................................................……………............................. 30V Comparator Input Voltage Range ............................................………….......... -0.3V~30V Switch Collector Voltage ....................................................……………......................... 30V Switch Emitter Voltage ......................................................……………......................... 30V Switch Collector to Emitter Voltage ..................................…………............................. 30V Driver Collector Voltage ....................................................…………….......................... 30V Switch Current ................................................………………......................................... 2A Power Dissipation and Thermal CharacteristicsDIP PackageTa= 25°C ............................…………................................ 1.0W Thermal Resistance .............…………......................... 100°C/WSO PackageTa= 25°C ......................……………............................... 625mW Thermal Resistance ...................………...................... 160°C/WOperating Junction Temperature .....................................................………............. 125°COperating Ambient Temperature Range.......................……………......................... 0~70°CStorage Temperature Range ...................................………….................... - 65°C ~ 150°CTEST CIRCUITR1CT2V/0V I DISCHG / IELECTRICAL CHARACTERISTICS(VCC= 5V, Ta=25°C, unless otherwise specified.) PARAMETER TEST CONDITIONS SYMBOL MIN.TYP.MAX.UNIT OscillatorCharging Current 5.0V≤VCC≤30V I CHG102540µA Discharge Current 5.0V≤VCC≤30V I DISCHG100150200µA Voltage Swing PIN 3V OSC0.6V Discharge to Charge Cur-rent RatioV IS =VCC I DISCHG / I CHG 6.0 Current Limit Sense Voltage I CHG=I DISCHG VCC - V IS250300350mV Output SwitchSaturation Voltage, Emitter Follower Connection I DE=1.0A;V BOOST =V DC = VCCV CE(SAT) 1.5 1.8VSaturation Voltage I DC=1.0A; I BOOST=50mA, (Forced β≅20)V CE (SAT)0.40.7V DC Current Gain I SC =1.0A; V CE=5.0V h FE35120Collector Off-State Current V CE=30V I C(OFF)10nA ComparactorThreshold Voltage Ta=25°C0°C ≤ Ta ≤ 70°C V FB 1.2251.211.25 1.2751.29VVThreshold Voltage LineRegulation3.0V≤VCC≤30V REG LINE0.10.3mV/V Input Bias Current V IN=0V I IB0.41µASupply Current V IS =VCC, pin 5>V FB5.0V≤ VCC ≤30VC T=1nFPIN 2=GNDRemaining pins openI CC 1.63mATYPICAL PERFORMANCE CHARACTERISTICSCT, Oscillator Timing Capacitor (nF)t O N -O F F , O u t p u t S w i t c h O N -O F F T i m e (µS )Output Switch ON-OFF Time vs Oscillator TimingCapacitorStandby Supply Current vs Supply VoltageVCC, Supply Voltage (V)I C C , S u p p l y C u r r e n t(m A )1015200.40.81.21.62V F B , T h r e s h o l d V o l t a g e (V )Temperature (°C)V FB , Threshold Voltage vs Temperature1.21.221.241.261.281.301020304050607080V F B , T h r e s h o l d V o l t a g e (m V )Temperature (°C)I S Threshold Voltage vs Temperature250260270280290300310320330340350Emmiter Follower Configuration Output SwitchSaturation Voltage vs Emmiter CurrentI E , Emitter Current (A)1.21.31.41.51.61.71.8V C E (S A T ), S a t u ra t i o n V o l t a g e (V )0.51 1.5Common Emitter Configuration Output Switch Saturation Voltage vs Collector CurrentI C , Collector Current (A)V C E (S A T ), S a t u r a t i o n V ol t a g e (V )0.511.5AIC1563BLOCK DIAGRAMGNDPIN DESCRIPTIONSPIN 1:DC -2A switch collector.PIN 2:DE -Darlington switch emitter.PIN 3:CF-Oscillator timing capacitor.PIN 4:GND -Power ground.PIN 5:FB -Feedback comparator inverting input.PIN 6:VCC -Power supply input.PIN 7:IS-Highside current sense input.VCC - V IS =300mV.PIN 8:BOOST-Bootstrapped driver collector.APPLICATION INFORMATIONSV SAT=Saturation voltage of the output switch.V F=Forward voltage of the ringback rectifier The following power supply characteristics must be chosen:V IN -Nominal input voltage.V OUT -Desired output voltage,V OUT = 1.25 (1 + RB/RA)I OUT -Desired output current.F MIN-Minimum desired switching frequency atselected values for V IN and I OUT.V RIPPLE (P-P) -Desired peak-to-peak output ripple volt-age. In practice, the calculated value willneed to be increased due to the capacitorequivalent series resistance and boardlayout. The ripple voltage should be keptto a low value since it will directly affectthe line and load regulation.A PPLICATION EXAMPLESV INFig. 1 Simplified Battery Charge Circuit for Ni-Cd/ Ni-MH Battery∆T/∆t=1°C/min.Fig. 2 Battery Charge Circuit for Fluctuating Charging Current ApplicationsAPPLICATION EXAMPLES (CONTINUED)Line Regulation V IN = 10V~20V @ I O =1A 40mV Load Regulation V IN = 15V, @ I O =100mA~1A20mV Short Circuit CurrentV IN =15V, @ R L = 0.1Ω1.3AFig. 3 Step-Down ConverterC3Fig. 4 Step-Down Converter with External 5V BootstrapAPPLICATION EXAMPLES (CONTINUED)V OUT Line Regulation V IN = 8V~16V @ I O=200mA100mVLoad Regulation V IN = 12V, @ I O=80mA~200mA40mVFig. 5 Step-Up ConverterFig. 6 Step-Up Converter with External NPN SwitchAPPLICATION EXAMPLES(CONTINUED)IN4.5V~6VLine Regulation V IN = 4.5V~6V @ I O=100mA20mVLoad Regulation V IN = 5V, @ I O=10mA~100mA100mVFig.7 Inverting ConverterPHYSICAL DIMENSIONS8 LEAD PLASTIC SO (unit: mm)SYMBOL MIN MAXA 1.35 1.75A10.100.25B0.330.51C0.190.25D 4.80 5.00E 3.80 4.00e 1.27(TYP)H 5.80 6.20L0.40 1.278 LEAD PLASTIC DIP (unit: mm)SYMBOL MIN MAX A10.381—A2 2.92 4.96b 0.350.56C0.200.36D 9.0110.16E7.628.26E1 6.097.12e 2.54 (TYP)eB —10.92L2.923.81。

BL0972交/直流电能计量芯片数据手册V1.0目录1、产品简述 (5)2、基本特征 (6)2.1主要特点 (6)2.2系统框图 (7)2.3管脚排列（TSSOP20） (7)2.4性能指标 (8)2.4.1电参数性能指标 (8)2.4.2极限范围 (9)3、工作原理 (10)3.1电流电压波形产生原理 (10)3.1.1PGA增益调整 (10)3.1.2相位补偿 (11)3.1.3通道偏置校正 (11)3.1.4通道增益校正 (12)3.1.5电流电压波形输出 (12)3.2有功功率计算原理 (13)3.2.1有功波形的选择 (14)3.2.2有功功率输出 (14)3.2.3有功功率校准 (14)3.2.4有功功率的防潜动 (15)3.2.5有功功率小信号补偿 (15)3.3有功能量计量原理 (16)3.3.1有功能量输出 (16)3.3.2有功能量输出选择 (16)3.3.3有功能量输出比例 (17)3.4电流电压有效值计算原理 (17)3.4.1有效值输出 (18)3.4.2有效值输入信号的设置 (18)3.4.3有效值刷新率的设置 (18)3.4.4电流电压有效值校准 (19)3.4.5有效值的防潜动 (19)3.5快速有效值检测原理 (20)3.5.1快速有效值输出 (20)3.5.2快速有效值输入选择 (21)3.5.3快速有效值累计时间和阈值 (21)3.5.4电网频率选择 (21)3.5.5快速有效值超限数据保存 (22)3.5.6过流指示 (22)3.5.7继电器控制 (22)3.6温度计量 (23)3.7.1线周期计量 (23)3.7.2线频率计量 (23)3.7.3相角计算 (24)3.7.4功率符号位 (24)3.8故障检测 (25)3.8.1过零检测 (25)3.8.2峰值超限 (25)3.8.3线电压跌落 (26)3.8.4过零超时 (27)3.8.5电源供电指示 (28)4、内部寄存器 (30)4.1电参量寄存器（只读） (30)4.2校表寄存器（外部写） (30)4.3OTP寄存器 (32)4.4模式寄存器 (33)4.4.1 MODE1寄存器 (33)4.4.2 MODE2寄存器 (33)4.4.3 MODE3寄存器 (34)4.5中断状态寄存器 (34)4.5.1 STATUS1寄存器 (34)4.5.2 STATUS3寄存器 (34)4.6校表寄存器详细说明 (34)4.6.1 通道PGA增益调整寄存器 (34)4.6.2 相位校正寄存器 (35)4.6.3 有效值增益调整寄存器 (35)4.6.4 有效值偏置校正寄存器 (36)4.6.5 有功小信号补偿寄存器 (36)4.6.7 防潜动阈值寄存器 (36)4.6.8 快速有效值相关设置寄存器 (37)4.6.9 过流报警及控制 (38)4.6.11 能量读后清零设置寄存器 (39)4.6.12 用户写保护设置寄存器 (39)4.6.13 软复位寄存器 (39)4.6.14 通道增益调整寄存器 (40)4.6.15 通道偏置调整寄存器 (40)4.6.16 有功功率增益调整寄存器 (40)4.6.17 有功功率偏置调整寄存器 (41)4.6.20 CF缩放比例寄存器 (41)4.7电参数寄存器详细说明 (42)4.7.1 波形寄存器 (42)4.7.2 有效值寄存器 (42)4.7.3 快速有效值寄存器 (42)4.7.7 电能脉冲计数寄存器 (43)4.7.8 波形夹角寄存器 (44)4.7.9 快速有效值保持寄存器 (44)4.7.11 线电压频率寄存器 (44)5、SPI通讯接口 (45)5.1概述 (45)5.2工作模式 (45)5.3帧结构 (45)5.4读出操作时序 (46)5.5写入操作时序 (47)5.6SPI接口的容错机制 (48)6、典型应用图 (49)7、封装信息 (50)1、产品简述BL0972是一颗内置时钟的单相交/直流电能计量芯片。

aic8800dc参数一、概述AIC8800DC是一款高性能的图像处理芯片，广泛应用于图像采集、处理、传输等领域。

它具有高速的数据处理能力、低功耗、低成本等优点，是许多图像相关应用的理想选择。

二、主要参数1.分辨率：AIC8800DC支持多种分辨率，如VGA（640x480）、XGA （1024x768）等，可根据实际需求进行选择。

2.帧率：AIC8800DC可以以高帧率进行图像采集和处理，适用于需要实时图像传输的应用场景。

3.数据接口：AIC8800DC支持多种数据接口，如HDMI、VGA、CSI 等，方便与各种设备进行连接。

4.像素格式：AIC8800DC支持RGB、YCbCr等多种像素格式，可根据应用需求进行选择。

5.存储器接口：AIC8800DC支持SD卡、内部存储器等存储器接口，方便数据的存储和读取。

6.工作电压：AIC8800DC需要特定的工作电压进行工作，请根据实际需求选择合适的电压范围。

7.工作温度：AIC8800DC可在-40℃至+85℃的温度范围内正常工作。

三、技术特点1.高性能：AIC8800DC具有高速的数据处理能力，可以快速地进行图像采集、压缩、传输等操作。

这种高性能的特性使得AIC8800DC 在许多需要快速图像处理的场景中得到广泛应用。

2.低功耗：AIC8800DC具有低功耗特性，适合长时间工作的应用场景。

这有助于延长设备的使用寿命，节约能源。

3.集成度高：AIC8800DC集成了多种功能，如图像采集、压缩、传输等，大大降低了系统的复杂度。

这使得它成为许多嵌入式系统的理想选择。

4.易于集成：AIC8800DC支持多种软件开发工具和平台，如C/C++、OpenCV等，这使得它更容易与其他系统进行集成。

四、应用领域AIC8800DC适用于各种需要图像处理和传输的应用领域，如安防监控、医疗影像、智能交通、机器人视觉等。

在这些领域中，AIC8800DC的高性能、低功耗、低成本等特性得到了充分的发挥。