PE83363中文资料
AEMC PowerPad III Model 8336产品说明书
Transient Capture on theAEMC PowerPad III Model 8336Transients are short-term current and voltage phenomena that occur in the system under measurement. The process the AEMC PowerPad III Model 8336 uses for recording transients is as follows:•The instrument sampling rate is a constant256 samples per cycle.•When a transient search is started on theinstrument, each sample is compared to thecorresponding sample from the precedingcycle.•The transient threshold is the user-definedamount of volts or amps for any datapoint todiffer from the corresponding datapointexactly 1 cycle earlier. The preceding cycledefines the mid-point of the trigger envelopeand is used as reference.•As soon as a sample is outside the envelope,the triggering event occurs; the transient datais then captured by the instrument.•The cycle preceding the event and the threefollowing cycles are saved to memory.The following explains how to configure, schedule,and view a transient recording session on the Model8336. These instructions assume you are using theModel 8336 as a standalone instrument.Note that you can also perform these tasks by connecting the instrument to a computer running AEMC’s DataView software. For more information, see the PowerPad III Model 8336 User Guide.Transient Recording Configuration1. With the instrument turned ON, press the button to display the Waveform Capturescreen.2. Ensure Transient is highlighted, then press .●If there are no transient detection sessions stored in the instrument, the DetectionSchedule screen appears.●If there are recordings in the instrument, the Detection List screen is displayed. In thiscase, press to display the Detection Schedule screen.3. Press the function button under the icon to display the Voltage Thresholdsscreen. At the top of the screen is the Threshold Set-up field. Options are:●4V: The same voltage difference threshold applies to all phases and the neutral in theelectrical hook-up●3V+VN: One threshold applies to the phases and one applies to neutral●V1+V2+V3+V4: Each phase and neutral has its own assigned thresholdDepending on the electrical hook-up currently under measurement, not all these options may be available.4. The setting in this field determines which of the four fields below it (1, 2, 3, and N) areeditable:●4V: a single field is active for 1, 2, 3, and N.●3V+VN: one field is active for 1, 2, and 3; and another is active for N.●V1+V2+V3+N: each field is active.To edit a voltage threshold field, highlight it using the up and down arrow buttons, thenconfirm the selection by pressing . Use the left and right arrows to select a digit, and the up and down arrows to change it. You can also use these buttons to select units (V or kV).Press to confirm the edited field.5. Press the A button to display the Current Thresholds screen. This is similar to the VoltageThreshold screen. You can select which thresholds apply to which phases, and specify the value of the threshold (1mA through 9999kA). As with the voltage thresholds, not all these options may apply to all electrical hook-up types.Note that current transients typically occur frequently. We recommend performing a current transient search only when looking for a specific type of transient. At other times, such as when you are primarily interested in voltage transients, you can effectively disable current transient searching by setting the threshold to its maximum value.Scheduling Transient Detection1. Press the button to display the Waveform Capture screen.2. Ensure Transient is highlighted, then press .●If there are no transient detection sessions stored in the instrument, the DetectionSchedule screen appears.●If there are recordings in the instrument, the Detection List screen is displayed. In thiscase, press the button to display the Detection Schedule screen.3. This screen displays four input fields:●Start defines the time and date when the recording starts. This must be later than thecurrent date and time.●Stop specifies when the recording ends. This must be later than the start date and time.●Transient Count defines the maximum number of transients that you want to capturebefore stopping the session.●Name allows you to name the test. This can be 8 characters long.4. Use the arrow and buttons to highlight, select, and edit these fields.5. Press the button to write the settings to the instrument and start the session.6. If not enough memory is available, an error message appears informing you of this.Otherwise, the transient detection session will begin at the scheduled start time and date.If a session is scheduled but not yet started, the message DETECTION ON STANDBY appears on the screen until the start time is reached, at which point the message changes to DETECTION IN PROGRESS.When the session is active, the icon blinks at the top of the screen, along with a status bar showing the progress of the session. In addition, the (stop) button appears in place of .During the session, the Transient Count number is reduced by 1 every time a transient is recorded. If this number counts down rapidly and appears as though it will reach zero well before stop time is reached, we recommend stopping the session and setting the threshold to a higher, less sensitive value. The session will continue until: (1) you press , (2) the Transient Count limit is reached (see Step 3), or (3) the stop time/date is reached.7. When the transient detection session is finished, it appears in the Detection List screen. Youcan now open the session and view its contents, as explained in the following.Viewing a Transient Detection Session1. At the Detection Schedule screen, press the button.For all other displayed screens, press the button, and then select Transient.Either action displays the Detection List screen.2. If more than one transient detection recording is stored, use the arrows to select thedesired recording, then press to open it.In the preceding illustration:1 Location in the record of the zonedisplayed.4 Move cursor to transient triggering time.2 Instantaneous value of the signalsaccording to the position of the cursor on the scale. Use ◄ and ► to move cursor.5 Number assigned to displayed graph (e.g.1 is highlighted indicating channel V1 triggered capture of the transient)3 Move cursor to one period of the signalbefore transient triggering time. 6 Zoom In/Out。
8336-bom
CONN-ML-242P(1473463-1)-AMP PJ1196012A0042801CONN-FM-4P(175487-4)-AMP PJ88006012A0044501CONN-ML-150P(1565696-1)-AMP PCMCIA6017A0015801CABLE-TC8245-DC PW CORD DC-IN CABLE6017A0017101CABLE-TC8245-MODEM HARNESS-RJ11MODEM CABLE6019A01083T1CPU-NORTHWOOD-1.8GHZ-512K-MPGA-ITL(478PI CPU6026A0011601SWCH-SKELAKA010-ALPS S1036053A0063901THERMAL-TC8326-01(801PBM05)FAN6035A0001301FFC-SML2CD-50x62-BDx6(BL)-P0.5-S4-N-M-K(FPC26035A0001401FFC-(SML2CD-30x125-BDx6(BL)-P0.5-S4-N-M-FPC16053A0051501BRACKET-TC8245-IO-016054A0031901INSU-TC8245-CARDBUS-02-UP(PET)6053A0051401BRACKET-TC8245-HEAT SINK-026051A0040901DOOR-TC8245-DOCKING-01(AMP 1473477)6054A0031601INSU-TC8245-DOCKING CONN-01(MYLAR)6052A0010601SCREW-I20100M-NI-NYLOK6054A0031701INSU-TC8245-MEMORY-02(PC)SCREW-B20060M-MC6054A0032001INSU-TC8245-CPU 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C1262C146C147C148C149C15C150C1255C1242C1243C1245C1246C1247C1249C1250C1251C1254C151C164C165C166C167C168C171C172C173C174C162C152C153C154C155C156C16C159C158C157C129C13060100710603TCAP-CHIP-106-K,6.3V-X5R-TAP(1206)C526C563C86C88C525C228C229C517C520C521C95C96C97C98C99C94C89C90C91C92C93C113C114C115C17C18C112C102C103C105C110C111C223C224C225C226C227C222C19C190C191C192C206010072202ATCAP-CHIP-220-J,50V-TAP(0402)C51016010072240CTCAP-CHIP-224-K,10V-X7R-TAP(0603)C900360100733302TCAP-CHIP-333-K,16V-X7R-0603-TAP C87716010074702ATCAP-CHIP-470-J,50V-TAP(0402)C90006010074750CTCAP-CHIP-475-K,10V-X7R-1206-TAP C9005C9054C9103C9153C9203C8913C119C233C276C277C646010A0009801CAP-CHIP-271-J,50V-X7R-0402-TAP C9051C51006010A0010601CAP-CHIP-221-J,25V-NPO-0402-TAP C81C78C77C76C448C4526010A0010701CAP-CHIP-222-J,50V-X7R-0402-TAP C9055C9006C6526010A0014801CAP-CHIP-101-K,3000V-NPO-1808-TAP C293 6010A0024101CAP-METAL-227-2V-AP-Dx3-ESR18M-TAP-MAT C9062C9063C9064C9065C9013C9014C9015C90166010A0024501CAP-CHIP-106-K,16V-X5R-1210-TAP C9205C9155C9105C89156010A0024801CAP-CHIP-391-K,50V-X7R-0402-TAP C51106010A0025001CAP-CHIP-474-K,16V-X7R-0805-TAP C8946C89476010A0025101CAP-CHIP-471-K,50V-X7R-0402-TAP C9024C505C4776010A0025301CAP-CHIP-104-K,10V-X5R-0402-TAP C6506010A0025701CAP-CHIP-332-K,50V-X7R-0402-TAP C606010A0026101CAP-CHIP-105-K,6.3V-X7R-0603-TAP C9052C9001C8912C8910C8773C8770C75C74C5114C9202C9152C9150C9102C9100C9099C9098C9097C5113C218C217C216C215C194C163C160C141C137C305C29C278C257C256C219C220C221C2316010A0026201CAP-CHIP-105-K,16V-X5R-0805-TAP C8812C8803C250C2496010A0026301CAP-CHIP-106-K,10V-X5R-1210-TAP C336C298C1016010A0026401CAP-CHIP-226-K,6.3V-X5R-1210-TAP C545C461C434C551C79C80C142C143C144C145C432C170C169C1206010A0028701CAP-METAL-337-4V(TEPSLDOJ337M(25)12R)-TA C562C6236010A0029001CAP-CHIP-225-K,10V-X5R-0805-TAP C1386010A0029101CAP-CHIP-475-K,X5R-6.3V-0805-TAP C90256010A0029201CAP-CHIP-152-J,X7R-50V-0805-TAP C90296010A0029301CAP-CHIP-472-K,X7R-50V-0402-TAP C9071C90706010A0030001CAP-AL-226-20V(20SVP22M)-TAP-SANYO C9068C9067C9020C90196010A0030101CAP-METAL-107-4V(TEPSLB20G107M(45)8R)-TA C9156C9206C9916C9109C615C9158C5226010A0030301CAP-AL-4.7UF-10V(MF10FC4R7MA6)-TAP C2866011A0010401DIODE-1SS294-TE85R-TSB(3PIN)D8907D9000D9050D9100D9150D9200D108D112D126D8860D8825D50026011A0010501DIODE-RD6.2Z-T2B-TAP-NEC D5003D50D121D120D5004D51D52D53D119D110D111D113D114D118D117D116D1156011A0011001DIODE-SCH-EA60QC03L-TE16F2-TAP-NIR(3PIN)D8003D8800D8802D88056011A0011101DIODE-SCH-EC31QS03L-TAP-NI(2PIN)D9052D9051D9002D900160120IA12610CONN-FM-150P(1123215-1)-AMP PJ3660120IA15470CONN-ML-2P(SM02B-SRSS-TB)-JST PJ1266012A0040701CONN-FM-6P(440021-3)-AMP PJ536012A0040801CONN-FM-30P(52559-3092)-MLX PJ3026012A0040901CONN-FM-50P(FH12-50S-0.5SV)-HRS PJ3656012A0041001CONN-ML-70P(DJ33-070FL-HN-3)-KEL PJ1166012A0041401CONN-ML-44P(KKS-RSR44-43TB)-DDK PJ5206012A0041501CONN-ML-8P(UB91123-ST1-HT)-FOX 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W9051W900460130BA1033TRES-CHIP-10K-5%-1/8W-0805-TAP R879560130BA1043SRES-CHIP-100K-5%-1/10W-0805-TAP R882060130BA2203TRES-CHIP-22-5%-1/8W-0805-TAP R9204R9154R9104R9053R9002R894260130BA4713TRES-CHIP-470-5%-1/8W-0805-TAP R10360130CJ0019TRES-AR-8P4R-0-5%-1/16W-2010-TAP RM906060130CJ0022TRES-AR-8P4R-1K-5%-1/16W-2010-TAP RM217RM216RM120RM119RM118RM11760130CJ0026TRES-AR-8P4R-10-5%-1/16W-2010-TAP RM30RM29RM28RM2760130CJ0028TRES-AR-8P4R-47K-5%-1/16W-2010-TAP RM115RM116RM19RM58RM100RM101RM109RM113RM11460130CJ0111TRES-AR-8P4R-10K-5%-1/16W-2010-TAP RM210RM212RM215RM5011RM200RM201RM202RM204RM206RM20760130CJ0112TRES-AR-8P4R-33-5%-1/16W-2010-TAP RM112RM111RM11060130CJ0115TRES-AR-8P4R-22-5%-1/16W-2010-TAP RM5RM26RM25RM24RM6RM7RM8RM9RM23RM10RM11RM12RM13RM14RM21RM20RM16RM156013A0001301RES-AR-8P4R-56-5%-1/16W-2010-TAP RM47RM48RM49RM46RM45RM44RM55RM54RM53RM51RM50RM43RM35RM34RM33RM32RM3RM1RM36RM42RM41RM40RM39RM38RM376013A0003101RES-CHIP-1.5K-5%-1/16W-0402-TAP R1306013A0003401RES-CHIP-300-5%-1/16W-0402-TAP R73R55R2736013A0006501RES-CHIP-1-5%-1/10W-0603-TAP R9200R9150R9100R88106013A0014601RES-CHIP-75-1%-1/8W-0805-TAP R8R429R428R4276013A0015401RES-CHIP-24-5%-1/2W-2010-TAP R88746013A0049201RES-METAL-0.02-1%-1W-2512-TAP R9209R91556013A0049601RES-CHIP-2.2k-5%-1/16W-0402-TAP R8997R8824R50806013A0049801RES-CHIP-470-5%-1/3W-1210-TAP R8801R8802R8803R8800R8799R8798R8797R87966013A0050401RES-AR-4P2R-2.2K-5%-1/16W-2010-TAP RM221RM2206013A0050701RES-CHIP-20K-5%-1/16W-0402-TAP R90506013A0050801RES-CHIP-8.2K-5%-1/16W-0402-TAP R70R211R2156013A0051101RES-CHIP-68K-5%-1/16W-0402-TAP R267R2656013A0051201RES-CHIP-200-5%-1/16W-0402-TAP R61R62R63R64R56R57R58R59R606013A0051901RES-CHIP-100-0.5%-1/16W-0402-TAP R54R52R425R2196013A0052101RES-CHIP-120-0.5%-1/16W-0402-TAP R4246013A0052301RES-CHIP-150-0.5%-1/16W-0402-TAP R9015R224R2226013A0052501RES-CHIP-200-0.5%-1/16W-0402-TAP R92066013A0052601RES-CHIP-220-0.5%-1/16W-0402-TAP R5085R5084R50836013A0052801RES-CHIP-300-0.5%-1/16W-0402-TAP R9107R156R1556013A0053201RES-CHIP-1K-0.5%-1/16W-0402-TAP R9019R9020R9159R248R249R8770R87746013A0053601RES-CHIP-2K-0.5%-1/16W-0402-TAP R7R4R26013A0053701RES-CHIP-2.2K-0.5%-1/16W-0402-TAP R9205R9161R9160R90296013A0053801RES-CHIP-4.7K-0.5%-1/16W-0402-TAP R9207R9108R8945R8773R448R4446013A0053901RES-CHIP-6.8K-0.5%-1/16W-0402-TAP R9106R87716013A0054101RES-CHIP-11K-0.5%-1/16W-0402-TAP R87756013A0054201RES-CHIP-15K-0.5%-1/16W-0402-TAP R90086013A0054401RES-CHIP-18K-0.5%-1/16W-0402-TAP R90266013A0054501RES-CHIP-20K-0.5%-1/16W-0402-TAP R9202R9152R91026013A0054601RES-CHIP-22K-0.5%-1/16W-0402-TAP R87726013A0054901RES-CHIP-47K-0.5%-1/16W-0402-TAP R8941R450R4496013A0055001RES-CHIP-51K-0.5%-1/16W-0402-TAP R90526013A0055301RES-CHIP-68K-0.5%-1/16W-0402-TAP R8940 6013A0055401RES-CHIP-100K-0.5%-1/16W-0402-TAP R9203R9153R9103R447R446R269R9006.6013A0055501RES-CHIP-56-0.5%-1/16W-0402-TAP R2286013A0056001RES-AR-8P4R-150-5%-1/16W-2010-TAP RM2186013A0056201RES-AR-4P2R-220-5%-1/16W-2010-TAP RM9051RM9050RM18RM176013A0056301RES-CHIP-560-0.5%-1/16W-0402-TAP R4236013A0056701RES-AR-4P2R-4.7K-5%-1/16W-2010-TAP RM209RM2086013A0056901RES-AR-4P2R-10K-5%-1/16W-2010-TAP RM31RM302RM301RM300RM22RM219RM205RM1086013A0057001RES-AR-4P2R-47K-5%-1/16W-2010-TAP RM576013A0058301RES-AR-8P4R-100-5%-1/16W-2010-TAP RM211 6013A0058701RES-AR-8P4R-8.2K-5%-1/16W-2010-TAP RM46013A0069301RES-CHIP-36.5-0.5%-1/16W-0402-TAP R246R1526013A0069401RES-CHIP-18.2-0.5%-1/16W-0402-TAP R1536013A0069501RES-CHIP-8.2K-0.5%-1/16W-0402-TAP R1736013A0069601RES-CHIP-475-0.5%-1/16W-0402-TAP R966013A0069701RES-CHIP-3.6K-0.5%-1/16W-0402-TAP R89436013A0069801RES-CHIP-910K-0.5%-1/16W-0402-TAP R1806013A0074301RES-CHIP-160-0.5%-1/16W-0402-TAP R89446013A0070001RES-CHIP-82-0.5%-1/16W-0402-TAP R264R2636013A0070101RES-CHIP-27.4-0.5%-1/16W-0402-TAP R3446013A0070301RES-CHIP-62K-1%-1/16W-0402-TAP R4216013A0070501RES-CHIP-3.9K-0.5%-1/16W-0402-TAP R90106013A0070701RES-CHIP-5.1K-0.5%-1/16W-0402-TAP R9023R90146013A0070801RES-CHIP-750-0.5%-1/16W-0402-TAP R90226013A0070901RES-CHIP-301-0.5%-1/16W-0402-TAP R262R250R223R2206013A0071001RES-CHIP-40.2-0.5%-1/16W-0402-TAP R2436013A0071101RES-CHIP-24.9-0.5%-1/16W-0402-TAP R244R2456013A0071201RES-CHIP-30K-0.5%-1/16W-0402-TAP R90316013A0071301RES-CHIP-39-0.5%-1/16W-0402-TAP R3466013A0071401RES-CHIP-110K-0.5%-1/16W-0402-TAP R90616013A0071501RES-CHIP-33-0.5%-1/16W-0402-TAP R286R285R284R287R97R98R99R282R102R106R275R276R278R279R2806013A0071601RES-CHIP-75k-0.5%-1/16w-0402-TAP R90006013A0071701RES-CHIP-3.6K-5%-1/16W-0402-TAP R91576013A0071801RES-CHIP-620-0.5%-1/16W-0402-TAP R4226013A0071901RES-CHIP-51.1-0.5%-1/16W-0402-TAP R69R66R50R496013A0072001RES-CHIP-680K-5%-1/16w-0402-TAP R9007R90036013A0072101RES-CHIP-1.8K-5%-1/16W-0402-TAP R90116013A0072201RES-CHIP-49.9-0.5%-1/16W-0402-TAP R227R51R53R225R216R116R1076013A0072301RES-CHIP-30.1-0.5%-1/16W-0402-TAP R2376013A0072701RES-AR-4P2R-1K-5%-1/16W-2010-TAP RM566013A0073601RES-METAL-0.002-1%-1W-2512-TAP R9017R905560140EA0241TCOIL-ACM0908-801-2P-TAP-TDK FL880060140EA0308TCOIL-BEAD-BK1608HS241-TAP-TAIYO FL116FL117 6014A0011201COIL-NLC322522T-330K-TAP-TDK L1106014A0011501COIL-NFM51R20P207-MURATA FL5016FL5015FL50146014A0012201IDUT-PLFC0735P-3R3B-3.3UH-TAP-TOKIN L9201L9151L9101L89086014A0012501IDUT-FBMJ3216HS800-T-TAP-TYD L9051L9100L9150L9200FL8907L9000L9001L90506014A0012901COIL-NL453232T-4R7J-4.7UH-TDK L4L3L2L16014A0014001COIL-FBMH1608HW471MT-TAIYO FL52FL51FL5FL53FL54FL6FL7FL125FL118FL119FL120FL121FL124FL123FL1226014A0014301COIL-MLF2012A1R8KT-TDK L5100L50136014A0014401COIL-CPI-1050-1R0-TAP-TOKIN L9052L90026015A0044101TRAN-FET-TPC8103-SO-TAP-TSB(8PIN)Q8805Q8770Q113Q1036015A0044201TRAN-FET-TPC8007-H-SO-TAP-TSB(8PIN)Q9152Q8862Q8861Q88606015A0044501TRAN-FET-2SK2159-TAP-NEC Q88676015A0044801TRAN-FET-UPA1760G-E2-TAP-NEC Q9200Q9150Q89106015A0045901TRAN-FET-UPA2750GR-E2-TAP-NEC Q91006015A0046001TRAN-2SC3392AY5-CP-TAP-SANYO(3PIN)Q14Q15Q2Q9Q9007Q1Q10Q11Q12Q136015A0046301TRAN-FET-UPA2700TP-E2-POWER HSOP8-TAP-NE Q9053Q9052Q9003Q90026015A0046401TRAN-FET-UPA2702TP-E2-POWER HSOP8-TAP-NE Q9051Q9050Q9001Q90006015A0046601TRAN-FET-UPA1770G-E2-POWER SOP8-TAP-NEC Q88086015A0046701TRAN-FET-SSM3K17FU-SC70-TAP-TSB(3PIN)Q8871Q8911Q8923Q8924Q8870Q8809Q8807Q8806Q9201Q9158Q9156Q9155Q9153Q9101Q9006Q8925Q125Q123Q122Q119Q118Q106Q101Q100Q19Q17Q16Q126Q127Q128Q1296018A0006501X'TAL-14.31818MHZ(FA-365)-EPS X16018A0006901X'TAL-8MHZ(CSTCE8M00G55-R0)-15PF-MURATA X1016018A0007201X'TAL-OSL-32.768KHZ(SG-3030JC)-EPS X1006018A0007901X'TAL-25MHZ(K30-3C0-SE)-50PPM-KYO X1046018A0008001X'TAL-14.3182MHZ(K30-3C0-E)-100PPM-KYO X10260190H3905TTIC-SN74CBTD3306-TSSOP-TAP-TI(8PIN)IC500460190H4172STIC-TC7SH08FU-SSOP-TAP-TSB(5PIN)IC9003IC8IC128IC126IC10060190H4400STIC-TC7SH04FU-SSOP-TAP-TSB(5PIN)IC139IC138IC12460190H4701STIC-MAX3243CAI-SSOP-TAP-MAX(28PIN)IC13060190HF0076SIC-LM358A-SOP-NS(8PIN)IC9151IC87706019A00200T2IC-ICH3-M-B1-BGA-ITL(421PIN)IC1036019A0023601IC-MAX1718EEI-QSOP-TAP-MAX(28PIN)IC90006019A0115401IC-MAX1718AEEI-QSOP-TAP-MAX(28PIN)IC90006019A0024201IC-MAX4524CUB-UMAX-TAP-MAX(10PIN)IC90016019A00615T1IC-BROOKDALE-M-FC-BGA-VER.A-ITL(593PIN)IC146013A0070201RES-CHIP-120K-0.5%-1/16W-0402-TAP R90016013A0070401RES-CHIP-13K-0.5%-1/16W-0402-TAP R90056019A0084101IC-MIC2563A-0BSM-SSOP-TAP-MICREL(28PIN)IC1186019A0087501IC-LMV822MMX-MSOP-NS(8PIN)IC1406019A0088101IC-TC7SH00FU-SSOP-TAP-TSB(5PIN)IC1046019A0088201IC-ADM1032AR-SO-8-TAP-A&D(8PIN)IC16019A0088401IC-TC7SH14FU-SSOP-TAP-TSB(5PIN)IC1546019A0088701IC-TC7SH32FU-SSOP-TAP-TSB(5PIN)IC127IC1660190H3429STIC-SI4920DY-SO8-TAP-SIL(8PIN)Q9159Q8863Q124 6019A0089101IC-T7L58XB-0101-YEBISU3S-BGA-TSB(328PIN)IC1126019A0089901IC-HD74LS125AFP-SOP-TAP-HTC(14PIN)IC50056019A0090301IC-LPC47N227-STQFP-SMSC(100PIN)IC1296019A0091801IC-MAX1714BEEE-QSOP-TAP-MAX(16PIN)IC9200IC9150IC9100IC89056019A0092301IC-93LC46BXT-I/SN-SOP-TAP-MCT(8PIN)IC1366019A0101301IC-NC7ST04P5X-SC70-TAP-FAIR(5PIN)IC108IC1016019A0102501IC-SN74AHCT1G04DCKR-SC70-TAP-TI(5PIN)IC108IC10160190H2155STIC-TC7W66FU(TE12L)-SSOP-TAP-TSB(8PIN)IC1536019A0102701IC-TC7WH14FU(TE12L)-SSOP-TAP-TSB(8PIN)IC196019A0102901IC-M306K7F8LRP-QFP-MTS(144PIN)IC1256019A0103201IC-MAX1897EGP-QFN-TAP-MAX(20PIN)IC90506019A0103501IC-MAX1922ESA.C71073-SO8-MAX(8PIN)IC1026019A0103601IC-DA82562ET-SSOP-ITL(48PIN)IC135 6019A0103701IC-E82802AB8-TSOP-ITL(40PIN)IC36019A0103801IC-ADP3342JRM-REEL7-MSOP-A&D(8PIN)IC90996026A0009101JACK-2PJ-002Y4104-SINGA PJ50016026A0010601SOKT-DDR-200P(1473005-1)-AMP PJ176026A0010701SOKT-DDR-200P(1473006-1)-AMP PJ166036A0003401FUSE-CERAMIC-8A-125V-SMD-6.1x2.69-TAP F88006036A0002801FUSE-3.15A-125V-4513.15-MLX F88016036A0002901FUSE-(451.010)-10A/125V-TAP-LITTELFUSE F88206050A0020701PCB-TC8325MB-40-8L-VER120-213x322-1.2T-W6050A0020801PCB-TC8325MB-40-8L-VER120-213x322-1.2T-C6026A0011201SWCH-SPPW810201-ALPS(4PIN)S1046013A0073901RES-CHIP-300K-0.5%-1/16W-0402-TAP R903260120IA18560CONN-ML-4P(BM04B-SRSS-TBT)-JST PJ1276019A0105201IC-ICS950811AG-TSSOP-ICS(56PIN)IC96019A0088001IC-MAX6501UKP-T-SOT23-TAP-MAX(5PIN)IC26052A0008501NUT-TC8245-MODEM-016014A0014201COIL-FBMH1608HW470MT-TAIYO FL5017FL50186016A0002101XMER-H1195T-TAP-PULSE T1006013A0009301RES-CHIP-33-1%-1/10W-0603-TAP R466011A0010901DIODE-SCH-EP10QY03-TAP-NI(2PIN)D8908D9101D9151D92016015A0046501TRAN-MMBT3904LT1-SOT23-TAP-ONSEMI Q91576052A0012101NUT-TC8326-VGA/B-01(7.5T)6014A0003801COIL-DLW21SN121SQ2L-TAP-MURATA FLW301FLW302FLW303FLW3046052A0011401NUT-TC8326-VGA/B-01(8.0T)6054A0066201SOLDER-BH63J8153C-ENTEK-ISHIKAWA。
BD6383EFV中文资料
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Appendix1-Rev1.1
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593066-3中文资料
593066-3 Product DetailsHome | Customer Support | Suppliers | Site Map | Privacy Policy | Browser Support© 2008 Tyco Electronics Corporation All Rights Reserved SearchProducts Documentation Resources My Account Customer SupportHome > Products > By Type > Pin & Socket Connectors > Product Feature Selector > Product Details593066-3Active Subminiature D Pin/Socket Connectors forMIL-C-24308 and MIL-C-39029Not reviewed for RoHS ComplianceProduct Highlights:?Connector?Product Series = 90?Density = Standard?Terminate To Wire?Number of Positions = 44View all Features | Find SimilarProductsCheck Pricing &AvailabilitySearch for ToolingProduct FeatureSelectorContact Us AboutThis ProductQuick LinksDocumentation & Additional InformationProduct Drawings:?AMPLIMITE NONMAGNETIC PLUG ASSY WITH SIZE 22 CRIMP P...(PDF, English)Catalog Pages/Data Sheets:?None AvailableProduct Specifications:?None AvailableApplication Specifications:?None AvailableInstruction Sheets:?None AvailableCAD Files:?None AvailableList all Documents Additional Information:?Product Line InformationRelated Products:?ToolingProduct Features (Please use the Product Drawing for all design activity)Product Type Features:?Product Type = Connector?Product Series = 90?Number of Positions = 44?Gender = Plug?Shell Size = 3?Shell Material = Brass?Wire Termination Type = CrimpBody Related Features:?Insert Arrangement = MS18275-2?Blindmate = No?Non-Magnetic = Yes?Pins = With?Rear Grommet = No?Power/Signal/Coax Combination = No?Shell Plating = Cadmium over Copper?Mount Style = Floating BushingContact Related Features:?Contact Size = 22?Contact Style = Crimp Snap-in?Contact Material = Copper Alloy?Contact Mating Area Plating Material = Goldover Nickel Configuration Related Features:?Density = StandardIndustry Standards:?Government/Industry Qualification = Yes?Government/Industry Part Number = M24308/8-309F?RoHS/ELV Compliance = Not reviewed forELV/RoHS compliance?Lead Free Solder Processes = Not reviewed forlead free solder process?NASA Qualification = NoConditions for Usage:?Terminate To = WireOther:?Brand = AMPProvide Website Feedback | Contact Customer Support。
MGA83563资料
+22 dBm P SAT 3V Power Amplifier for 0.5–6 GHz Applications Technical DataMGA-83563Features•+22 dBm P SAT at 2.4 GHz,3.0V +23 dBm P SAT at 2.4 GHz,3.6V•22 dB Small Signal Gain at 2.4 GHz •Wide Frequency Range 0.5to 6 GHz •Single 3V Supply •37% Power Added Efficiency •Ultra Miniature PackageApplications•Amplifier for Driver and Output ApplicationsSurface Mount Package SOT-363 (SC-70)Pin Connections and Package MarkingEquivalent Circuit(Simplified)Note:Package marking provides orientation and identification; “x” is date code.DescriptionAgilent’s MGA-83563 is an easy-to-use GaAs RFIC amplifier that offers excellent power output and efficiency. This part is targeted for 3V applications where con-stant-envelope modulation is used. The output of the amplifier is matched internally to 50 Ω.However, an external match can be added for maximum efficiency and power out (PAE = 37%, P o =22 dBm). The input is easily matched to 50Ω.Due to the high power output of this device, it is recommended for use under a specific set ofoperating conditions. The thermal sections of the ApplicationsInformation explain this in detail.The circuit uses state-of-the-art PHEMT technology with proven reliability. On-chip bias circuitry allows operation from single supply voltage.GNDGND INPUTGNDV d1OUTPUT and V d2OUTPUT and V d2INPUTV d1GROUNDThermal Resistance [2]:θch to c = 175°C/WNotes:1. Operation of this device above any one of these limits may cause permanent damage.2. T C = 25°C (T C is defined to be thetemperature at the package pins where contact is made to the circuit board).MGA-83563 Absolute Maximum RatingsAbsolute Symbol ParameterUnits Maximum [1]V Maximum DC Supply Voltage V 4P in CW RF Input Power dBm +13T ch Channel Temperature °C 165T STGStorage Temperature°C-65 to 15002004008006007005003001001030507090150110130P O W E R D I S S I P A T E D A S H E A T (m W )P d =(V O L T A G E ) x (C U R R E N T ) – (P o u t )CASE TEMPERATURE (°C)1x 106 Hr s M T TF Temperature/Power Derating Curve.Figure 1. MGA-83563 Final Production Test Circuit.Figure 2. MGA-83563 Test Circuit for Characterization.RF Circuit A: L1 = 2.2 nH for 0.1 to 3 GHzCircuit B: L1 = 0 nH (capacitor as close as possible) for 3 to 6 GHz RFMGA-83563 Electrical Specifications, V= 3 V, T C = 25°C, using test circuit of Figure 2, unless noted.dStd.Symbol Parameters and Test Conditions Units Min.Typ.Max. Dev.[4] P SAT Saturated Output Power[3] f = 2.4 GHz dBm20.522.40.75 PAE[3]Power Added Efficiency f = 2.4 GHz%2537 2.5I d[5]Device Current mA15220012.4Gain Small Signal Gain f = 0.9 GHz dB20f = 1.5 GHz22f = 2.0 GHz23f = 2.4 GHz22f = 4.0 GHz22f = 5.0 GHz19f = 6.0 GHz17P SAT Saturated Output Power f = 0.9 GHz dBm20.9f = 1.5 GHz21.7f = 2.0 GHz21.8f = 2.4 GHz22f = 4.0 GHz21.9f = 5.0 GHz19.7f = 6.0 GHz18.2PAE Power Added Efficiency f = 0.9 GHz%41f = 1.5 GHz41f = 2.0 GHz40f = 2.4 GHz37f = 4.0 GHz32f = 5.0 GHz18f = 6.0 GHz14P1 dB[5]Output Power at 1 dB Gain Compression f = 0.9 GHz dBm19.1f = 1.5 GHz19.7f = 2.0 GHz19.7f = 2.4 GHz19.2f = 4.0 GHz18.1f = 5.0 GHz16f = 6.0 GHz15VSWR in Input VSWR into 50 ΩCircuit A f = 0.9 to 1.7 GHz 3.5f = 1.8 to 3.0 GHz 2.6Circuit B f = 3.0 to 6.0 GHz 2.3 VSWR out Output VSWR into 50 ΩCircuit A f = 0.9 to 2.0 GHz 1.4f = 2.0 to 3.0 GHz 2.5Circuit B f = 3.0 to 4.0 GHz 3.5f = 4.0 to 6.0 GHz 4.5ISOL Isolation f = 0.9 to 3.0 GHz dB-38f = 3.0 to 6.0 GHz-30IP3Third Order Intercept Point f = 0.9 GHz to 6.0 GHz dBm29Notes:3. Measured using the final test circuit of Figure 1 with an input power of +4 dBm.4. Standard Deviation number is based on measurement of at least 500 parts from three non-consecutive wafer lots duringthe initial characterization of this product, and is intended to be used as an estimate for distribution of the typical specification.5.For linear operation, refer to thermal sections in the Applications section of this data sheet.MGA-83563 Typical Performance, V d = 3 V, T C = 25°C, using test circuit of Figure 2, unless noted.G A I N (d B )FREQUENCY (GHz)Figure 3. Tuned Gain vs. Frequencyand Voltage.P 1d B (d B m )FREQUENCY (GHz)Figure 4. Output Power at 1 dBCompression vs. Frequency and Voltage.141618242220P S A T (d B m )FREQUENCY (GHz)Figure 5. Saturated Output Power (+4dBm in) vs. Frequency and Voltage .G A I N (d B )FREQUENCY (GHz)Figure 6. Gain vs. Frequency and Temperature.O U T P U T P O W E R (d B m )FREQUENCY (GHz)Figure 7. Saturated Output Power (+4dBm in) vs. Frequency and Temperature.N O I S E F I G U R E (d B )FREQUENCY (GHz)Figure 8. Noise Figure vs. Frequency and Temperature.V S W RFREQUENCY (GHz)Figure 9. Input and Output VSWR vs.Frequency.40802001601401201801006020D E V I C E C U R R E N T , I d (m A )FREQUENCY (GHz)Figure 10. Supply Current vs. Voltage and Temperature. P in = -27 dBm.701101501701309002040503010-14-10-6-226D E V I C E C U R R E N T , I d (m A )P A E (%)INPUT POWER (dBm) @ 2.4 GHzFigure 11. Device Current and Power Added Efficiency vs. Input Power.Note: Figure 1 test circuit.I dPAEMGA-83563 Typical Performance, continuedV d = 3 V, T C = 25°C, using test circuit of Figure 2, unless noted.O U T P U T P O W E R (d B m )INPUT POWER (dBm) @ 2.4 GHz Figure 12. Output Power vs. Input Power and Voltage.Note: Figure 1 test circuit.T H I R D O R D E R I N T E R C E P T (d B m )INPUT POWER (dBm) @ 2.4 GHz Figure 13. Third Order Intercept vs. Input Power and Voltage.Note: Figure 1 test circuit.202530504540350123465P A E (%) a n d I P 3 (d B m )FREQUENCY (GHz)Figure 14. Power Added Efficiency and Third Order Intercept vs. Frequency (V d = 3.6 V).-50-45-40-20-25-30-350123465I S O L A T I O N (d B )FREQUENCY (GHz)Figure 15. Isolation vs. Frequency.Table 1.MGA-83563 Typical Scattering Parameters [1]T C = 25°C, V d = 3.0V, I d = 165 mA, CW Operation, P in = -27 dBmFreq.RI in S 11 |S 21|2 S 21Gain S 12RL out S 22Gmax LGHz dB Mag Ang Gain Mag Ang dB Mag Ang dB Mag AngK dBSim 18.0 nH 0.6-4.60.59-4823.915.6143-46.70.005105-21.10.091504.4725.8Sim 18.0 nH 0.8-9.60.33-5724.616.966-39.00.011102-16.80.15-130 2.3725.2Sim 18.0 nH 1.0-16.00.16-2724.116.02-25-35.50.01787-10.10.31-146 1.8024.6Sim 18.0 nH 1.4-10.10.312221.712.22-68-32.80.02366-5.80.51177 1.4823.5Sim 18.0 nH 1.8-7.30.431719.19.03-97-31.70.02654-4.40.61150 1.4522.0Sim 8.2 nH 0.8-4.10.63-3621.211.5248-47.40.00495-17.20.14121 6.0123.5Sim 8.2 nH 1.0-5.80.51-4522.713.6522-41.10.009111-35.20.02130 3.1324.0Sim 8.2 nH 1.4-13.00.22-4523.715.30-27-33.70.02194-10.40.30-139 1.5424.3Sim 8.2 nH 1.8-13.00.221322.413.15-68-30.90.02974-5.50.53-179 1.2124.1Sim 8.2 nH 2.0-10.70.291821.311.65-84-30.30.03167-4.40.60166 1.1623.7Sim 8.2 nH 2.4-8.20.391519.18.98-111-29.50.03457-3.40.68141 1.1422.5Sim 4.7 nH 1.4-6.70.46-4422.112.724-37.60.013109-26.70.05-78 2.4423.1Sim 4.7 nH 1.8-12.00.25-4322.913.99-37-32.30.02494-9.90.32-143 1.4423.7Sim 4.7 nH 2.0-14.30.19-2322.613.53-57-30.80.02985-7.10.44-164 1.2623.7Sim 4.7 nH 2.4-11.90.261021.111.36-90-29.20.03570-4.30.61163 1.0923.4Sim 4.7 nH 2.8-9.40.341219.19.03-115-28.30.03861-3.20.69138 1.0522.5Meas 2.2 nH 1.8-6.30.49-5321.511.92-23-37.20.01490-15.10.18-100 2.4022.8Meas 2.2 nH 2.0-7.40.43-5121.912.48-45-34.80.01885-9.70.33-130 1.8223.3Meas 2.2 nH 2.4-7.90.40-3620.911.07-82-32.40.02468-6.20.49-175 1.5222.8Meas 2.2 nH 2.8-7.10.44-2719.08.93-113-31.20.02756-4.10.63150 1.4022.1Meas 2.2 nH 3.0-6.60.47-2518.07.90-123-31.00.02852-4.10.62138 1.4821.1Sim 1.2 nH 2.4-7.90.40-4120.510.61-36-33.40.02197-18.00.13-120 1.9821.3Sim 1.2 nH 2.8-10.80.29-3720.710.90-67-30.40.03088-9.60.33-168 1.4721.6Sim 1.2 nH 3.0-11.90.25-2920.510.56-82-29.40.03482-7.40.43176 1.3421.6Sim 1.2 nH 3.2-12.30.24-2020.09.97-95-28.60.03776-5.90.51161 1.2421.5Sim 1.2 nH 3.6-11.70.26-718.68.49-120-27.50.04267-4.10.62137 1.1421.0Meas 0.0 nH 3.0-5.60.53-3317.97.87-13-39.10.011109-12.80.23-7 4.0719.6Meas 0.0 nH 3.4-4.70.58-3120.110.13-43-34.10.020107-7.90.40-73 1.7222.7Meas 0.0 nH 3.8-5.50.53-5020.09.95-81-31.70.02694-6.20.49-132 1.4322.6Meas 0.0 nH 4.0-7.40.43-5219.49.28-94-30.90.02893-4.50.60-148 1.3822.1Meas 0.0 nH 4.2-8.40.38-4818.78.62-106-30.20.03191-3.50.67-163 1.2721.9Meas 0.0 nH 4.6-9.00.36-4417.07.08-129-28.80.03684-3.10.70173 1.2520.5Meas 0.0 nH 5.0-9.20.35-3915.4 5.87-145-27.90.04078-3.00.71155 1.2919.0Meas 0.0 nH 5.4-9.70.33-3213.8 4.88-159-27.20.04477-3.00.71140 1.3817.3Meas 0.0 nH 5.8-7.80.41-2912.4 4.16-170-25.90.05173-3.60.66127 1.4715.7Meas 0.0 nH6.0-6.60.47-4612.14.03177-24.90.05764-3.30.681231.3315.9Note:1. Reference plane per Figure 26 in Applications Information section.MGA-83563 Test CircuitTypical s-parameters are shown below for various inductor values (L). Those marked “Sim” are simulated and those marked “Meas” are measured using an ICM (Intercontinental Micro-wave) fixture. Figure 17 shows the available gain for each Lvalue. The user should first select the L value for the applicationG A I N (d B )FREQUENCY (GHz)Figure 17. Available Gain (G max ) vs. Frequency for the MGA-83563 Amplifier over Various Inductance Values.Figure 16. S-parameter Test Circuit.frequency before designing an input, output, or power matching structure.MGA-83563 Applications InformationThe MGA-83563 is two-stage, medium power GaAs RFIC amplifier designed to be used for driver and output stages in transmitter applications operating within the 500 MHz to 6 GHz frequency range.This device is designed for operation in the saturated mode where it delivers a typical output power of +22 dBm (158 mW) with a power-added efficiency of 37%. The MGA-83563 has a large signal gain of 18 dB requiring an input signal level of only +4 dBm to drive it well into saturation. The high output power and high efficiency of the MGA-83563, combined with +3-volt operation and subminiature packaging, make this device especially useful for battery-powered, personal communication applications such as wireless data, cellular phones, and PCS.The upper end of the frequency range of the MGA-83563 extends to 6 GHz making it a useful solution for medium power amplifiers in wireless communi-cations products such as 5.7 GHz spread spectrum or other ISM/ license-free band applications. Internal capacitors on the RFIC chip limit the low-end frequency response to applications above approximately 500 MHz.The thermal limitations of the subminiature SOT-363 (SC-70) package generally restrict the use of the MGA-83563 to applications that use constant envelope types of modulation. These types of systems are able to take full advantage of the MGA-83563’s high efficiency, saturated mode of operation. The use of the MGA-83563 for linear applicationsat reduced power levels isdiscussed in the “Thermal Designfor Reliability” and “Use of theMGA-83563 for Linear Applica-tions” in this applications note.Application GuidelinesThe use of the MGA-83563 is verystraightforward. The on-chip,partial RF impedance matchingand integrated bias control circuitsimplify the task of using thisdevice.The design steps consist of (1)selecting an interstage inductorfrom the data provided, (2)adding provision for bringing inthe DC bias, and (3) designingand optimizing an output imped-ance match for the particularfrequency band of interest. Theinput is already well matched to50 ohms for most frequencies andin many cases no additional inputmatching will be necessary.Each of the three design steps forusing the MGA-83563 will now bediscussed in greater detail.Step 1—Selecting theInterstage InductorThe drain of the first stage FET ofthis two-stage RFIC amplifier isconnected to package Pin 1. Thesupply voltage V d is connected tothis drain through an inductor,L2, as shown in Figure 18. Thesupply end of the inductor isbypassed to ground.This interstage inductor servesthe purpose of completing theimpedance match between thefirst and second stages. The valueof inductor L2 depends on theparticular frequency for whichthe MGA-83563 is to be used andis chosen from the look-up graphin Figure 19.Figure 18. Interstage Inductor L2 andBias Current.The values for inductor L2 aresomewhat dependent on thespecific printed circuit boardmaterial, thickness, and RF layoutthat are used. The inductor valuesshown in Figure 19 have beencreated for the PCB and RFlayout that is used for the circuitexamples presented in thisapplication note. The methodol-ogy that was used to determinethe optimum values for L2 and forcreating Figure 19 is presented inthe Appendix. If the user’s PCBand/or layout differ significantlyfrom the example circuits, referto the Appendix for a descriptionof how to determine the values ofL2 for any arbitrary frequency,PCB material, or RF layout.Step 2—Bias ConnectionsThe MGA-83563 is a voltage-biased device and operates froma single, positive power supply.The supply voltage, typically+3-volts, must be applied to thedrains of both stages of the RFICamplifier. The connection to thefirst stage drain is made throughthe interstage inductor, L2, asdescribed in the previous step.The supply voltage is applied tothe second stage drain throughPin 6, which is also the RF Outputconnection. Referring toFigure18, an inductor (RFC) isused to separate the RF outputsignal from the DC supply. Thesupply side of the RFC is capaci-tively bypassed. A DC blocking capacitor is used at the output to isolate the supply voltage from the succeeding stage.In order to prevent loss of output power, the value of the RFC is chosen such that its reactance is several hundred ohms at the frequency band of operation. At higher frequencies, it may be practical to use a length of high impedance transmission line (preferably λ/4) in place of the RFC.The value of the DC blocking and RF bypass capacitors are chosen to provide a small reactance (typically < 1Ω) at the lowest operating frequency.Since both stages of the RFIC are biased from the same voltage source, particular care should be taken to ensure that the supply line between the two is well bypassed to prevent inadvertentfeedback from the RF output to the drain of the first stage.Otherwise, the circuit could become unstable.The RF Input (Pin 3) connection to the MGA-83563 is at DC ground potential. The use of a DCblocking capacitor at the input of the MGA-83563 is not required unless a circuit that has a DC voltage present at its output precedes the RFIC. Although at ground potential, the input to the MGA-83563 should not be used as a current sink.Step 3—Output Impedance MatchThe most interesting aspect of using the MGA-83563 is arriving at an optimum, large signalimpedance match at the output. A simple but effective approach is to begin with a circuit that provides a small signal imped-ance match, then empirically adjust the tuning for optimum large signal performance.The starting place is to design a circuit that matches the small signal Γml (the reflection coeffi-cient of the load impedancerequired to conjugately match the output of the MGA-83563) to 50ohms. The small signalS-parameter data for designing the output circuit is taken from Table 1, using the data corre-sponding to be nearest value of interstage inductor that was chosen in step one.A RF CAD program such asAgilent’s Touchstone can be used to easily calculate Γml . Touch-stone will interpolate the Table 1S-parameter data for the particu-lar design frequency of interest.As the MGA-83563 is driven into saturation, the output impedance will generally become lower.Choose a circuit topology that will match Γml as well as the range of impedances on the low side of Γml . Beginning with this small signal output match, tune the circuit under large signal conditions for maximumsaturated output power and best efficiency.It should be noted that both the saturated output power (P sat ) and power-added efficiency (PAE) for each MGA-83563 is 100% RFtested at 2.4 GHz in a production test fixture that simulates an actual amplifier application. This method of testing not only guarantees minimumperformance standards, but also ensures repeatable RF performance in the user’s production circuits.Figure 19. Values for Interstage Inductor L2.L 2 (n H )FREQUENCY (GHz)10.90.80.710203040987654320.5 1.0 1.5 2.0 2.5 3.0Step 4 (Optional)—Input Impedance MatchAs previously noted, the internal input impedance match to the MGA-83563 is already reasonably good (return loss is typically8dB) and may be adequate for many applications as is. The design of the MGA-83563 is such that the second stage will enter into compression before the first stage. The isolation provided by the first stage therefore results in a minimal impact on the input matching as the amplifier becomes saturated.If an improved input return loss is needed, an input circuit is de-signed to match 50 Ω to Γms (the reflection coefficient of the source impedance for a conjugate match at the input of theMGA-83563). The value of Γms is calculated from the S-parameters in Table 1 in the same way as was done for Γml. Since the real part of the input impedance to the MMIC is near 50 Ω and the reactive part is capacitive, the addition of a simple series inductor is often all that is needed if a better input match is required. PCB Layout RecommendationsWhen laying out a printed circuit board for the MGA-83563, several points should be taken into account. The PCB layout will be a balance of electrical, thermal, and assembly considerations. Package FootprintA recommended printed circuit board footprint for the miniature SOT-363 (SC-70) package that is used by the MGA-83563 is shown in Figure 20.This package footprint providesample allowance for packageplacement by automated assem-bly equipment without addingparasitics that could impair thehigh frequency performance ofthe MGA-83563. (The padprint inFigure 20 is shown with thefootprint of a SOT-363 packagesuperimposed on the PCB padsfor reference.)PCB MaterialsFR-4 or G-10 printed circuit boardtype of material is a good choicefor most low cost wirelessapplications for frequenciesthrough 3 GHz. Typical single-layer board thickness is 0.020 to0.031 inches. Multi-layer boardsgenerally use a dielectric layerthickness in the 0.005 to0.010inch range.For higher frequency applica-tions, e.g., 5.8 GHz, circuit boardsmade with PTFE/glass dielectricmaterials are suggested.Figure 20. PCB Pad Layout forMGA-83563 Package (dimensions ininches).RF ConsiderationsStarting with the packagepadprint of Figure 20, the nucleusof a PCB layout is shown inFigure 21. This layout is a goodgeneral purpose starting point fordesigns using the MGA-83563amplifier.RFFigure 21. Basic PCB Layout.This layout is a microstriplinedesign (solid groundplane on thebackside of the circuit board)with a 50 Ω input and output andprovision for inductor L2 with itsbypass capacitor.Adequate RF grounding is criticalto obtain maximum performanceand to maintain device stability.All of the ground pins of the RFICshould be connected to the RFgroundplane on the backside ofthe PCB by means of platedthrough holes (vias) that areplaced very near the packageterminals. As a minimum, one viashould be located next to eachground pin to ensure good RFgrounding. It is a good practice touse multiple vias as in Figure 21to further minimize ground pathinductance.While it might be considered aneffective RF practice, it is recom-mended that the PCB pads for theground pins not be connectedtogether underneath the body ofthe package for two reasons. Thefirst reason is that connecting theground pins of multi-stageamplifiers together can some-times result in undesirablefeedback between stages. Eachground pin should have its ownindependent path to ground. Thesecond reason is that PCB traceshidden under the package cannotbe adequately inspected forsolder quality.Thermal ConsiderationsThe DC power dissipation of the MGA-83563, which can be on the order of 0.5 watt, is approaching the thermal limits of subminiature packaging such as the SOT-363. As a result, particular care should be taken to adequately heatsink the MGA-83563.The primary heat path from the MMIC chip to the system heatsink is by means of conduction through the package leads and ground vias to the groundplane on the backside of the PCB. As previously mentioned in the “PCB Layout” section, the use of multiple vias near all of the ground pins is desirable for low inductance. The use of multiple vias is also an especially impor-tant part of the heatsinking function.For heatsinking purposes, a thinner PCB with more vias, thicker clad metal, and heavier plating in the vias all result in lower thermal resistance and better heat conduction. Circuit boards thicker than 0.031 inches are not recommended for both thermal and electrical reasons.The importance of good thermal design on reliability is discussed in the next section.Thermal Design for ReliabilityGood thermal design is an important consideration in the reliable use of medium power devices such as the MGA-83563 because the Mean Time To Failure (MTTF) of semiconductor devices is inversely proportional to the operating temperature.The following examples show thethermal prerequisites for usingthe MGA-83563 reliably in bothsaturated and linear modes.Saturated Mode ThermalExampleLess heat is dissipated in theMGA-83563 when operated in thesaturated mode because asignificant amount of power isremoved from the RFIC as RFsignal power. It is for this reasonthat the saturated mode allowsthe device to be used reliably athigher circuit board temperaturesthan for full power, linearapplications.As an illustration of a thermal/reliability calculation, considerthe case of an MGA-83563 biasedat 3.0 volts for use in a saturatedmode application with a MTTFreliability goal of 106 hours(114years). Reliability calcula-tions will first be presented fornominal conditions, followed bythe conservative approach ofusing worst-case conditions.The first step is to calculate thepower dissipated by theMGA-86353 as heat. Power flowfor the MGA-83563 is representedin Figure 22.Figure 22. Thermal Representationof MGA-83563.From Figure 22,P in + P DC = P out + P disswhere P in and P out are the RFinput and output power, P DC isthe DC input power, and P diss isthe power dissipated as heat. Forthe saturated mode, P out = P sat ,and,P diss = P in + P DC – P satFrom the table of ElectricalSpecifications, the device current(typical) is 152 mA with a powersupply voltage of 3 volts. Refer-ring to Figure 10, it can be seenthat the current will decreaseapproximately 8% at elevatedtemperatures. The device DCpower consumption is then:P DC = 3.0 volts * 152 mA * 0.92P DC = 420 mWFor a saturated amplifier, the RFinput power level is +4 dBm(2.51mW) and the saturatedoutput power is +22 dBm(158mW).The power dissipated as heat isthen:P diss = 2.51 + 420 – 158 mWP diss = 264 mWThe channel-to-case thermalresistance (θch-c) from the tableof Absolute Maximum Ratings is175°C/watt. Note that the mean-ing of “case” for packages such asthe SOT-363 is defined as theinterface between the packagepins and the mounting surface,i.e., at the PCB pads. The tem-perature rise from the mountingsurface to the MMIC channel isthen calculated as0.264 watt * 175°C/watt, or 46°C.Operating life tests[1]for the MGA-83563 have established that a MTTF of 106 hours will be met for channel temperatures ≤150°C. To achieve the 106 hour MTTF goal, the circuit to which the device is mounted (i.e., the case temperature) should therefore not exceed 150°– 46°C, or 104°C. Repeating the reliability calcula-tion using the worst case maxi-mum device current of 200 mA, the DC power dissipation is552mW. Summing the RF input and output powers, P diss is397mW which results in a channel-to-case temperature rise of 69°C. The maximum case temperature for the MTTF goal of 106 hours is then 150°– 69°C, or 81°C.For other MTTF goals, power dissipation, or operating tempera-tures, Agilent publishes reliability data sheets based on operating life tests to enable designers to arrive at a thermal design for their particular operating environ-ment. For a reliability data sheet covering the MGA-83563, request Agilent publication number 5964-4128E, titled “GaAs MMIC Ampli-fier Reliability Data.” This reliabil-ity data sheet covers the Agilent family of PHEMT GaAs RFICs. Linear Amplifier Thermal ExampleIf the MGA-83563 is used in a linear application, the total power dissipation is significantly higher than for the saturated mode. The dissipated power is greater due to higher device current (not as efficient as the saturated mode) and also because no signal power is being removed.The maximum power dissipationfor reliable linear operation iscalculated in the same manner aswas done for the saturatedamplifier example. For linearcircuits, the RF input and outputpower are negligible and assumedto be zero. All of the DC power isthus dissipated as heat. Forpurposes of comparison to thesaturated mode example, thiscalculation will use the sameMTTF goal of 106 hours andsupply voltage of 3 volts.Calculations are again made forboth nominal and worst caseconditions.From the data of Figure 10, thetypical 3-volt, small signal devicecurrent for the MGA-83563 atelevated temperatures is 156 mA.The total device power dissipa-tion, P diss, is then 3.0 volts *156mA, or 468 mW. The tempera-ture increment from the RFICchannel to case is 0.468 watt *175°C/watt, or 82°C.Commensurate with the MTTFgoal of 106 hours, the circuit towhich the device is mountedshould therefore not exceed150°– 82°C, or 68°C.For the worst case calculation, aguard band of 40% is added to thetypical current to arrive at amaximum DC current of 218 mA.The P diss is 655 mW and thechannel-to-case temperature riseis 115°C. The maximum casetemperature for worst casecurrent condition is 35°C.A case temperature of 68°C fornominal operation, or 35°C in theworst case, is unacceptably lowfor most applications. In order touse the MGA-83562 reliably forlinear applications, the P diss mustbe lowered by reducing thesupply voltage.The implication on RF outputpower performance for amplifiersoperating with a reduced V d iscovered later in this applicationnote in the section subtitled “Useof the MGA-83563 for LinearApplications”.Design Example for2.5GHzThe design of a 2.5 GHz amplifierwill be used to illustrate theapproach for using theMGA-83563. The basic designprocedure outlined earlier will beused, in which the interstageinductor (L2) is chosen first,followed by the design of aninitial small signal, output match.The output match will then beempirically optimized for largesignal conditions after which aninput match will be added.The printed circuit layout inFigure 21 is used as the startingplace. The circuit is designed forfabrication on 0.031-inch thickFR-4 dielectric material.Interstage Inductor L2The first step is to choose a valuefor the interstage inductor, L2.Referring to Figure 19, a value of1.5 nH corresponds to the designfrequency of 2.5 GHz. A chipinductor is chosen for L2 in thisexample. However, for smallinductance values such as this,the interstage inductor could alsobe realized with a length of highimpedance transmission line.The interstage inductor is by-passed with a 62 pF capacitor,which has a reactance of 1 Ω at2.5 GHz. Connecting the supplyvoltage to the bypassed side ofthe inductor completes theinterstage part of the amplifier.。
833FRB-375ML中文资料(MG Chemicals)中文数据手册「EasyDatasheet - 矽搜」
允许淹没如果需要话
防潮,防腐,真菌,热冲击,以及静电放电 到盐水洗涤,酸,碱,和脂族烃
固化和工作计划
性能
工作生活
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防护质期
完全固化（20°C [68°F]）
完全固化（65°C [149°F]）
全固化（在80℃[176°F]）
全固化（在100℃[212°F]）
储存温度
对未混合零件
一）工作寿命假定室温. 10℃增加可减少一半适用期.
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0.018
3.45
0.012
3.40
0.013
3.31
0.014
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94.80弧
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37.62 s
4.67 s
修订日期：2012年9月20号/版. 1.05
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兼容性
附着力 ,由于
出现在底材附着力表中,833FRB环氧坚持发现大多数材料
在印刷电路组件;然而,它不与像水,油,和油腻助焊剂残留物可能影响粘附污染物兼容.如果污染是
低吸水性和耐盐水具有高耐化学性和最离子物质包括硫酸和柠檬酸低浓度;和氢氧化钠碱.
软化和肿胀发生产品极有机溶剂.
续下页
833FRB
修订日期：2012年9月20号/版. 1.05
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化 学 溶 剂 性 能 （ IPC-TM-650）
三相功率分析器PowerPAD III 模型8333和模型8336说明书
POWERPAD ® III MODELO 8333 Y MODELO 8336Tarjeta SD para registros de tendencia yalmacenamiento de datos, memoria extensa para una gran cantidad de fotografías de pantalla,transitorios, corriente Inrush y eventos de alarma® y ® y manual de usuario.8333EL KIT INCLUYEMODELO 8336INSTRUMENTO Y ACCESORIOS MENCIONADOS ARRIBA, MÁS CUATRO SONDAS DE CORRIENTE FLEXIBLES AMPFLEX ® 193 (10 kA)Nº de catálogo 2136.31, de 60,96 cm (24 pulg.), 600 V CAT IVINSTRUMENTO Y ACCESORIOS MENCIONADOS ARRIBA, MÁS CUATRO PINZAS DE CORRIENTE MN193 (5 A /100 A)Nº de catálogo 2136.32, 600 V CAT IIIOOMODELO 8333INSTRUMENTO Y ACCESORIOS MENCIONADOS ARRIBA, MÁS TRES SONDAS DE CORRIENTE FLEXIBLES AMPFLEX ® 193 (10 kA)Nº de catálogo 2136.11,de 60,96 cm (24 pulg.), 600 V CAT IVINSTRUMENTO Y ACCESORIOS MENCIONADOS ARRIBA, MÁS TRES PINZAS DE CORRIENTE MN193 (5 A /100 A)Nº de catálogo 2136.12, 600 V CAT III• Muestra y captura armónicos de tensión, corriente y potencia hasta 50º orden, incluyendo la dirección en tiempo real • Captura transitorios hasta 1/256 de un ciclo• Almacena una base de datos integral de los datos registrados • Muestra diagrama de fasores VA, var y W por fase y total • kVAh, varh y kWh por fase y total• Corriente neutra calculada y mostrada para sistemas trifásicos • Muestra el factor K del transformador• Muestra factor de potencia y factor de potencia de desplazamiento • Captura hasta 51 transitorios• Muestra flicker a corto plazo• Desequilibrio de fase (corriente y tensión)• Distorsión armónica (total e individual) desde 1° hasta 50°• Alarmas, sobrecargas y caídas• Función de fotografía de pantalla: capta formas de onda u otra información de la pantalla • Incluye software DataView ® GRATIS para configuración, recuperación de datos, pantalla en tiempo real, análisis y generación de informesMODO DE POTENCIA Y ENERGÍA MODO DE REGISTRO DIAGRAMA DE FASORESMODO ARMÓNICON º DE CATÁLOGO DESCRIPCIÓN2136.10PowerPad ® III modelo 8333 (sin sondas)2136.11PowerPad ® III modelo 8333 con 3 sondas 193-24-BK AmpFlex ®2136.12PowerPad ® III modelo 8333 con 3 sondas MN193-BK 2136.30PowerPad ® III modelo 8336 (sin sondas)2136.31PowerPad ® III modelo 8336 con 4 sondas 193-24-BK 2136.32PowerPad ® III modelo 8336 con 4 sondas MN193-BKACCESORIOSNº DE CATÁLOGO 2133.73 Bolsa de herramientas extra grande (46x23x30) cm Nº DE CATÁLOGO 2140.28 Sonda de corriente CA modelo MR193-BKNº DE CATÁLOGO 2140.32 Sonda de corriente CA modelo MN93-BKNº DE CATÁLOGO 2140.33 Sonda de corriente CA modelo SR193-BKNº DE CATÁLOGO 2140.34 Sonda AmpFlex ® de 60,96 cm (24 pulg.)modelo 193-24-BKNº DE CATÁLOGO 2140.35 Sonda AmpFlex ® de 91,44 cm (36 pulg.)modelo 193-36-BK Nº DE CATÁLOGO 2140.36 Sonda de corriente CA modelo MN193-BKNº DE CATÁLOGO 2140.40 Adaptador BNC para utilizar la sonda amperimétrica CA/CC modelo SL261 con los modelos 8220, 8333, 8335, 8336, 8435, 8436, y series PEL Nº DE CATÁLOGO 2140.44 Cable negro de 3 m (10 pies) con pinza tipo cocodrilo negra Nº DE CATÁLOGO 2140.48 Sonda MiniFlex ® de 25,4 cm (10 pulg.) modelo MA193-10-BK Nº DE CATÁLOGO 2140.50 Sonda MiniFlex ® de 35,56 cm (14 pulg.) modelo MA193-14-BK Nº DE CATÁLOGO 2140.80 Sonda MiniFlex ® de 60,96 cm (24 pulg.) modelo MA194-24-BK Nº DE CATÁLOGO 2140.77 Adaptador de corriente de fases para usarse con PowerPad ®modelos 8333 y 8336MA193-BK * y MA194-BK*100 mA a 12,000 A MR193-BKAmpFlex 196A-BK** Corriente máxima reducida por un factor de 2 para 400 Hz de frecuencia fundamental. Todos las sondas de corriente se pueden utilizar con los modelos PEL 105, 8435 y 8436. Sólo las sondas flexibles MA196-14-BK y 196A-24-BK son herméticas.(1) El tamaño del sensor o el tipo de instrumento puede limitar el rango de corriente. Hermético-IP67 Sensor de 35,56 cm(14 pulg.) ó 60,96 cm (24 pulg.)Consulte con fábrica sobre precios de calibración NIST.Sensor de 25,4 cm (10 pulg.),35,56 cm (14 pulg.) ó 60,96 (24 pulg.)MN193-BKSL261MN94E94ACCESORIOSTodas las sondas de corriente se pueden utilizar con los modelos PEL 105, 8435 y 8436. Sólo las sondas flexibles MA196-14-BK y 196 A-24-BK son herméticas.Consulte con fábrica sobre precios de calibración NIST.Nº DE CATÁLOGO 2140.40Adaptador BNC para sonda de corriente CA/CC modelo SL26Nº DE CATÁLOGO 2140.77Adaptador de corriente de fases para usarse con PowerPad ® modelos 8333 y 8336Nº DE CATÁLOGO 2137.90Adaptador de 600 V CAT III sólo para usar con los modelos PEL 102 y 103。
PDI-E833中文资料
APPLICATIONS
• Oximeter Probes • Finger Clamps • Reusable probes
ABSOLUTE MAXIMUM RATING (TA)= 23°C UNLESS OTHERWISE NOTED
SYMBOL PARAMETER Pd If Ip Vr TSTG TO TS Power Dissipation Continuous Forward Current Peak Forward Current Reverse Voltage Storage Temperature Operating Temperature Soldering Temperature* -40 -40 MIN MAX 250 30 200 4 +80 +80 +240 UNITS mW mA mA V °C °C °C
.060 [1.52] C L WIRE BONDS METALIZED CERAMIC
.250 [6.35]
ENCAPSOLATE
CONTACT B CONTACT A
Metalized Ceramic Package
FEATURESΒιβλιοθήκη • Low Cost • 660 nm +/- 3nm • 2 drive line
SCHEMATIC
A 660 nm LED 940 nm LED
B
* 1/16 inch from case for 3 seconds max.
ELECTRO-OPTICAL CHARACTERISTICS RATING (TA)= 23°C UNLESS OTHERWISE NOTED
SYMBOL Po Iv Vf Vr lp CHARACTERISTIC Radiant Flux Luminous Intensity Forward Voltage Reverse Breakdown Voltage Peak Wavelength Spectral Halfwidth Rise Time Fall Time TEST CONDITIONS If = 20 mA If= 20 mA If = 20 mA If = 10 μA If = 20 mA If = 20 mA If = 20 mA If = 20 mA MIN 1.8 20 5 658 660 nm TYP MAX 2.4 30 1.8 2.4 661 25 0.8 0.8 664 MIN 1.2 940 nm TYP MAX 1.8 1.3 5 930 940 50 0.8 0.8 1.5 950 UNITS mW mcd V V nm nm uS uS
PowerPad III 8336 产品说明书
PRODUCT PACKAGINGShipping Contents:(1) PowerPad ® III Model 8336Cat. #2136.30 / Cat. #2136.31 / Cat. #2136.32Also Includes:• 4 GB USB Stick (DataView/User Manual)• 9.6V NiMh Battery - installed• 2 GB SD-Card - installed• High Voltage Warning/Caution CardKit (Cat. #2136.31) also includes:• (4) AmpFlex ®Model A193-24-BKKit (Cat. #2136.32) also includes:• (4) AC Current Probe Model MN193-BK (12) Color-coded ID MarkersCat. #2140.45(5) Black Test Leads and Alligator ClipsCat. #2140.43 (1) Extra Large Classic Tool BagCat. #2133.73(1) Soft Carrying Pouch Cat. #2140.15(1) 5 ft USB CableCat. #2140.46(1) Power Adapter 110/240V w/ Power CordCat. #5000.19USB STICK: DataView ® software and complete user manual for the Model 8336 can be located on the USB stick supplied with the instrument.Thank you for purchasing an AEMC® PowerPad® III Model 8336.For best results from your instrument and for your safety, read the enclosed operating instructions carefully and comply with the precautions for use. These products must be only used by qualified and trained users.Definition of Measurement Categories (CAT)CAT IV Measurement category IV corresponds to measurements taken at the source of low-voltage installations.Example: power feeders, counters and protection devices.CAT III Measurement category III corresponds to measurements on building installations.Example: distribution panel, circuit-breakers, machines or fixed industrialdevices.CAT II Measurement category II corresponds to measurements taken on circuits directly connected to low-voltage installations.Example: power supply to domestic electrical appliances and portable tools.This instrument is compliant with safety standard IEC 61010-2-030, the leads are compli-ant with IEC 61010-031, and the current sensors are compliant with IEC 61010-2-032, for voltages up to 600V in category IV or 1000V in category III. Failure to observe the safety instructions may result in electric shock, fire, explosion, and destruction of the instrument and/or other equipment.• The operator and/or the responsible authority must carefully read and clearly under-stand the various precautions for use of the instrument. Sound knowledge and a keen awareness of electrical hazards are essential when using this instrument.• If you use this instrument other than as specified, the protection it provides may be compromised, thereby endangering you.• Do not use the instrument on networks on which the voltage or category exceeds those mentioned.• Do not use the instrument if it appears damaged or otherwise compromised.• Before each use, check the condition of the insulation on the leads, housing, and accessories. Any item on which the insulation is deteriorated (even partially) must be set aside for repair or scrapping.• Before using your instrument, check that it is perfectly dry. If it is wet, it must be thor-oughly dried before being connected or being operated in any way. This includes the terminals and keypad.• Use only the leads and accessories supplied. Using leads (or accessories) of a lower voltage or category reduces the voltage or category of the combined instrument and leads (or accessories) to that of the leads (or accessories).• Always use personal protection equipment.• Keep your hands away from the terminals of the instrument.• When handling the leads, test probes, and alligator clips, keep your fingers behind the physical guard.• Use only the AC power cord and battery pack supplied by the manufacturer. They include specific safety features.• Some current sensors must not be placed on or removed from bare conductors at hazardous voltages: refer to the manual and comply with the handling instructions.Charging the BatteryFully charge the battery before the first use.120V ± 10%, 60Hz230V ± 10%, 50HzTo recharge the battery:• Remove the cover of the batterycharging connector.• Connect the supplied powercord to the instrument and ACpower.• disconnected.Button FunctionsControl Features1.Over molded protective housing2.LCD Display3.Six function buttons (yellow)4.Four function buttons (see chart, left)5.ON/OFF button6. Four current inputs and five voltage inputsB port8.Input for external power supplyand battery charging9.Confirm/Enter button10.Navigation buttons11.Six mode buttons (see chart, left)Connection Terminals1. Four (4) current inputs on the top of the instrument to enable the use of current sensors (MN, SR,AmpFlex®, MiniFlex®, MR, SL and J93 probes).2. Five (5) voltage inputs.3. Insertion locations for the current and voltage color-coded ID markers.Instrument ConfigurationNOTE: Instrument configuration can also be modified through DataView® software.NOTE: The instrument must be configured the first time it is used. The configuration is saved in memory when the instrument is turned OFF.Press the button to configure the unit. The following sub-menus appear:• Set the display language by pressing the yellow button corresponding to the screenlanguage icons.• The parameter that is ready to be configured will be highlighted in yellow. To move to a different parameter, use the ▲ and ▼ buttons.•button to select a parameter.• Use the ◄ and ► buttons to change a value or setting.• button.Getting StartedConnecting:• button.• Configure the instrument to obtain the required results and type of network.• Connect the current leads and sensors to the PowerPad®.• Connect the ground and/or neutral lead to the network ground and/or neutral (whendistributed), as well as the corresponding current sensor.• Connect the L1 phase lead to the network L1 phase, as well as the correspondingcurrent sensor.• Repeat the procedure for phases L2, L3 and N.Disconnecting:• Proceed in the reverse order to connecting, always finishing by disconnecting the• button to turn the instrument off.• Recharge the battery, if necessary.Installation of the Leads and Current SensorsColor-coded ID markers are supplied with the PowerPad® to identify the leads and input terminals.• Detach the appropriate inserts from the color-coded marker and place them in the holes provided under the terminals (larger inserts for current terminals, smaller inserts for voltage terminals).• Clip the rings of the same color to the ends of the lead that will connect to the terminal.SD-CardSD-Cards (up to 2GB only) are supported.To Access the SD-Card:• Make sure that the instrument is disconnected and off.• Use a screwdriver or coin to unscrew the two screws of the battery compartment cover.• Remove the cover and withdraw the battery from its compartment without disconnecting it.• Press on the SD-Card to release it then press on the protecting tab to withdraw it fromits slot.• When replacing the SD-Card, the contacts must be on the left side, and the locator down.• Slide it into its slot until it snaps into place. The protecting tab is at the top of the card.• Put the battery back in its compartment and screw the cover back on.Replacing the BatteryTO ELIMINATE ALL RISK OF ELECTRIC SHOCK, DISCONNECT THE POWER SUPPLY CORD AND MEASUREMENT LEADS FROM THE INSTRUMENT.1. Turn the instrument over, raise the stand, and prop it up.2. Use a coin to unscrew the two quarter-turn screws on the back of the housing.3. Using a flat screwdriver, remove the cover from the compartment.4. Turn the instrument over and hold the battery as it slides out of its compartment.5. Disconnect the battery connector without pulling on the wires.6. Connect the new battery. The connector is error-proofed to prevent reversals of polarity.7. Place the battery in its compartment and arrange the wires so that they do not protrude.8. Put the battery compartment cover back in place and screw the two screws back in. NOTE: If the battery is disconnected, it must then be fully recharged, even if it is not replaced, so that the instrument will know the battery charge condition (this information is lost when the battery is disconnected).Installing DataView®DO NOT CONNECT THE INSTRUMENT TO THE PC BEFORE INSTAL L ING THE SOFT-WARE AND DRIVERS.1. Insert the USB stick into an available USB port (wait for driver to be installed).2. If Autorun is enabled, an AutoPlay window should appear. If Autorun is disabled, it will benecessary to open Windows Explorer, then locate and open the USB stick drive labeled“DataView” to view the files on the drive.3. In the AutoPlay window, select “Open folder to view files.”4. Double-click on Setup.exe from the opened folder view to launch the Dataview® setupprogram.NOTE: For more information on using DataView®, refer to the product user manual that is supplied on the USB stick.Updating Software & FirmwareTo provide our customers the best possible service in terms of performance and technical upgrades, AEMC® offers free software and firmware updates on our website.• Visit us at: • Click on the TECH INFO tab, then click on the Software & Firmware Updates button. DataView® can also be updated by selecting “Update” from the Help menu within the software.Repair and CalibrationTo ensure that your instrument meets factory specifications, we recommend that it be scheduled back to our factory Service Center at one-year intervals for recalibration, or as required by other standards or internal procedures.For instrument repair and calibration:You must contact our Service Center for a Customer Service Authorization Number (CSA#). This will ensure that when your instrument arrives, it will be tracked and processed promptly. Please write the CSA# on the outside of the shipping container. If the instrument is returned for calibration, we need to know if you want a standard calibration, or a calibration traceable to N.I.S.T. (Includes calibration certificate plus recorded calibration data).Ship To:Chauvin Arnoux®, Inc. d.b.a. AEMC® Instruments15 Faraday Drive • Dover, NH 03820 USAPhone: (800) 945-2362 or (603) 749-6434 (Ext. 360)Fax: (603) 742-2346 or (603) 749-6309E-mail: ***************NOTE: You must obtain a CSA# before returning any instrument.Technical and Sales AssistanceIf you are experiencing any technical problems, or require any assistance with the proper operation or application of your instrument, please call, fax or e-mail our technical support team:Chauvin Arnoux®, Inc. d.b.a. AEMC® InstrumentsPhone: (800) 343-1391 or (508) 698-2115 (Ext. 351)Fax: (508) 698-2118E-mail: ********************Limited WarrantyThe Model 8336 is warranted to the owner for a period of one year from the date of original purchase against defects in manufacture. This limited warranty is given by AEMC® Instruments, not by the distributor from whom it was purchased. This warranty is void if the unit has been tampered with, abused or if the defect is related to service not performed by AEMC® Instruments.Full warranty coverage and registration is available on our website:/warranty.html.Please print the online Warranty Coverage Information for your records.What AEMC® Instruments will do: If a malfunction occurs within the warranty period, you may return the instrument to us for repair, provided we have your warranty registration on file or a proof of purchase. AEMC® Instruments will, at its option, repair or replace the faulty material.Warranty RepairsWhat you must do to return an Instrument for Warranty Repair:First, request a Customer Service Authorization Number (CSA#) by phone or e-mail from our Service Department, then return the instrument along with the signed CSA Form. Please write the CSA# on the outside of the shipping container. Return the instrument, shipment pre-paid to:Ship To:Chauvin Arnoux®, Inc. d.b.a. AEMC® Instruments15 Faraday Drive • Dover, NH 03820 USAPhone: (800) 945-2362 or (603) 749-6434 (Ext. 360)E-mail:***************Caution: To protect yourself against in-transit loss, we recommend you insure your returned material. NOTE: You must obtain a CSA# before returning any instrument.03/1499-MAN 100406 v1Chauvin Arnoux®, Inc. d.b.a. AEMC® Instruments15 Faraday Drive • Dover, NH 03820 USA • Phone: (603) 749-6434 • Fax: (603) 742-2346。
PE83336中文资料
18
Input Input Input Input Input Input Input Input Input Input (Note 1) Input Input Input Input Input
Selects contents of primary register (FSELP=1) or secondary register (FSELP=0) for programming of internal counters while in Parallel Interface Mode. A Counter bit0 (LSB). Enhancement register write enable. While E_WR is “high”, Sdata can be serially clocked into the enhancement register on the rising edge of Sclk. Enhancement register write. D[7:0] are latched into the enhancement register on the rising edge of E_WR. A Counter bit1. M2 write. D[3:0] are latched into the primary register (R[5:4], M[8:7]) on the rising edge of M2_WR. A Counter bit2. Selects serial bus interface mode (Bmode=0, Smode=1) or Parallel Interface Mode (Bmode=0, Smode=0). A Counter bit3 (MSB). Selects direct interface mode (Bmode=1). Same as pin 1. M1 write. D[7:0] are latched into the primary register (Pre_en, M[6:0]) on the rising edge of M1_WR. A write. D[7:0] are latched into the primary register (R[3:0], A[3:0]) on the rising edge of A_WR. Hop write. The contents of the primary register are latched into the secondary register on the rising edge of Hop_WR. Prescaler input from the VCO. 3.0 GHz max frequency. Prescaler complementary input. A bypass capacitor should be placed as close as possible to this pin and be connected in series with a 50 Ω resistor directly to the ground plane. Ground.
PowerPad III Model 8336用户操作指南说明书
PowerPad® III Model 8336Field GuideA step-by-step guide to Trend Recording, Alarms,and Transient CaptureThis Field Guide provides brief instructions for setting up and operating the Model 8336 on-site, via the instrument front panel. It is the companion document to the PowerPad III Model 8336 Handbook, which provides more detailed instructions including how to perform tasks on the instrument using DataView.1. CONFIGURATION1.1. Instrument Time and Date1. Press the button to display the Configuration Options screen.2. By default, the Date/Time option is selected; if not use the arrow buttons to highlight it. Then press thebutton to display the Date/Time screen.3. Check the displayed date and time. If it differs from the current date and time, press to select thesettings. Then use the arrow buttons to change the date and/or time. When finished, press .4. The Date/Time screen also lets you select the date and time formats. To change these, use the arrowand buttons to highlight, select, and change the settings, as e xplained in step 3. When finished, press to return to the Configuration Options screen.1.2. Hookup Type1. At the Configuration Options screen, use the arrows to navigate to and highlight Electrical Hook-up,then press . This displays the Electrical Hook-Up screen. The hook-up type field appears at the top of the screen, along with a diagram of the hook-up in the middle of the display. Use the left and right arrows to change the hook-up type. As you select the hook-up, the diagram in the center of the screen changes to match the selection.For some hookups (such as 3-phase 5-wire), a set of options appear on the right side of the display.These allow you to select the connections for the hook-up. Use the up and down arrows to change this setting.2. When finished selecting the hook-up and connections, press . You are returned to the ConfigurationOptions screen.1.3. Voltage and Ratios1. At the Configuration Options screen, use the arrows to navigate to Probes and Ratios, and press .2. The instrument automatically detects the type of probes/sensors connected to the instrument anddisplays them on this screen. Press the first yellow function button on the left (under the icon) to display the Voltage Ratios screen. The Ratio Set-up field is highlighted by default. Press .3. Use the Up and Down arrows to select how the voltage ratios should be applied. Options are:●4V 1/1: No ratios, none of the fields is active.●4V: Same ratio for all; the value you enter applies to all phases and neutral.●3V+VN: One field sets the ratio for 1, 2, and 3; another sets the ratio for N.●V1+V2+V3+VN: Separate ratios, all four fields (1, 2, 3, and N) are active.When you have made your selection, press .4. Press the Up and Down arrows to highlight the displayed voltage ratios (except if 4V 1/1 is selected).Spend a few moments adjusting the voltage ratios and observing how the measurement reacts. For example, set a voltage ratio, then press and observe the RMS measurements at the top of the display.1.4. Quantities to Record1. Press to return to the Configuration Options screen, then select Trend Mode and press . Thisdisplays the Trend Mode screen. This shows all of the available quantities the instrument can measure during a recording session. A red indicator to the left of each quantity signifies that the quantity is selected for inclusion in the recording.2. Use the arrows to navigate through the displayed quantities. Select or deselect a quantity to record bypressing . You can select all the quantities by pressing the button, or deselect all by pressing .There are two pages of quantities. Use the and buttons to browse the pages in the recording. You can set up to four different recording configurations. The configuration number appears at the bottom center of the screen. Use the and to cycle through the configurations.Selected quantities will be included in subsequent trend recordings.2. TREND RECORDING2.1. Scheduling Trend Recording1. Press the button.●If there are no recordings stored in the instrument, the Recording Schedule screen appears.●If there are recordings in the instrument, the Recording List screen is d isplayed. In this case,press the button to display the Recording Schedule screen.This screen displays five input fields:●Set-up identifies the configuration preset, 1 through 4. Configuration presets allow you to selectone of four sets of quantities to include in the recording. (See also Section 1.4.)●Start defines the time and date when the recording starts. This must be later than the currentdate and time.●Stop specifies when the recording ends. This must be later than the start date and time.●Period is the time interval over which measurements are aggregated. Options are 1s, 5s, 20s,1min, 2min, 5min, 10min (default), and 15min. Note that the recording duration defined by theStart and Stop fields must be longer than the Period setting.●Name allows you to name the test. This can be 8 characters long.2. Use the arrow and buttons to highlight, select, and edit the Period and Name fields.3. To start a recording immediately, press the button and skip to Step 5 below.To schedule the recording, use the arrow and buttons to highlight, select, and edit the Start and Stop fields.4. Press the button to write the settings to the instrument.5. If not enough memory is available, an error message appears informing you of this. Otherwise, therecording will begin, either immediately (if started via ) or at the scheduled start time and date. Ifa recording is scheduled but not yet started, the message RECORDING ON STANDBY appears on thescreen until the start time is reached, at which point the message changes to RECORDING INPROGRESS. If the recording is started by pressing , all measurements are recorded every second until the recording is manually stopped or the memory is full. During this recording the Set-up field displays . When the recording is active, the icon blinks at the top of the screen, next to a status bar showing the progress of the recording. In addition, the (stop) button appears in place of . The recording will continue until you press or until the stop time/date is reached. 6. When the recording is finished, it appears in the Recording List screen. You can now open therecording and view its contents, as explained in Section 2.2).2.2. Viewing a Trend RecordingWhen your recording is finished, you can view it in the instrument’s recording list. To do this:1. At Recording Schedule screen, press the button.For all other displayed screens, press the button.2. If more than one recording is stored, use the arrows to select the desired recording, then press toopen it.The function button icons at the bottom of the screen now represent different recorded measurements.Pressing cycles through the pages in the recording. Each press of displays the next set of measurements.3. When you find a measurement of interest, use the corresponding yellow function button to select it andview the data. The displayed screen will vary depending on the selected measurement type.3. ALARMS3.1. Alarm Configuration1. Press the button.●If there are no alarm recordings stored in the instrument, the Detection Schedule screen appears.●If there are alarm recordings in the instrument, the Detection List screen is d isplayed. In this case,press the button to display the Detection Schedule screen.2. Press the function button under the icon to display the Alarm Mode screen. This definesthe alarms used by the Alarm mode function. Unassigned alarms are identified by a question mark. To edit an alarm field, highlight it using the up and down arrow buttons, then confirm the selection by pressing . To activate an alarm, highlight its number in the left-most column and press . A red dot indicates the alarm is active. The other fields (left to right) are as follows. Use the up and down arrows to change the selected setting, then press to confirm. Note that not all fields appear for all alarm types:●Type (42 types of alarms can be configured)●Harmonic order●Target (4L, 3L, N, Σ)●Direction (>or <)●Trigger threshold●Trigger delay●HysteresisThe Alarm Mode screen consists of 8 pages, each listing 5 alarms. Use the and buttons to browse through the pages.3. When finished editing alarms, press to return to the Detection Schedule screen.3.2. Scheduling Alarm Detection1. Press the button.●If there are no alarm recordings stored in the instrument, the Detection Schedule screen appears.●If there are alarm recordings in the instrument, the Detection List screen is d isplayed. In this case,press the yellow function button under the icon to display the Detection Schedule screen.This screen displays three input fields:●Start defines the time and date when the recording starts. This must be later than the currentdate and time.●Stop specifies when the recording ends. This must be later than the start date and time.●Name allows you to name the test. This can be 8 characters long.2. Use the arrow and buttons to highlight, select, and edit the Start, Stop, and Name fields.3. Press the button to write the settings to the instrument.4. If not enough memory is available, an error message appears informing you of this. Otherwise, thealarm detection session will begin at the scheduled start time and date.If a session is scheduled but not yet started, the message DETECTION ON STANDBY appears on the screen until the start time is reached, at which point the message changes to DETECTION INPROGRESS.5. When the session is active, the icon blinks at the top of the screen, along with a status bar showingthe progress of the session. In addition, the (stop) button appears in place of . The session will continue until you press or until the stop time/date is reached.6. When the alarm detection session is finished, it appears in the Detection List screen. You can nowopen the session and view its contents, as explained in Section 3.3 below.3.3. Viewing an Alarm Detection Session1. At Detection Schedule screen, press the button.For all other displayed screens, press the button.2. If more than one recording is stored, use the arrows to select the desired recording, then p ress toopen it.4. TRANSIENTS4.1. Transient Recording Configuration1. Press the button to display the Waveform Capture screen.2. Ensure Transient is highlighted, then press .●If there are no transient detection sessions stored in the instrument, the Detection Schedulescreen appears.●If there are recordings in the instrument, the Detection List screen is d isplayed. In this case, pressto display the Detection Schedule screen.3. Press the function button under the icon to display the Voltage Thresholds screen. At thetop of the screen is the Threshold Set-up field. Options are:●4V: The same voltage difference threshold applies to all phases and the neutral in the electricalhook-up●3V+VN: One threshold applies to the phases and one applies to neutral●V1+V2+V3+V4: Each phase and neutral has its own assigned thresholdDepending on the electrical hook-up currently under measurement, not all these options may beavailable.4. The setting in this field determines which of the four fields below it (1, 2, 3, and N) are editable:●4V: a single field is active for 1, 2, 3, and N.●3V+VN: one field is active for 1, 2, and 3; and another is active for N.●V1+V2+V3+N: each field is active.To edit a voltage threshold field, highlight it using the up and down arrow buttons, then confirm the selection by pressing . Use the left and right arrows to select a digit, and the up and down arrows to change it. You can also use these buttons to select units (V or kV). Press to confirm the edited field.5. Press the A button to display the Current Thresholds screen. This is similar to the Voltage Thresholdscreen. You can select which thresholds apply to which phases, and specify the value of the threshold(1 through 9999A). As with the voltage thresholds, not all these options may apply to all electrical hook-up types.Note that current transients typically occur frequently. We recommend performing a current transient search only when looking for a specific type of transient. At other times, you can effectively disable transient searching by setting the threshold to its maximum value.4.2. Scheduling Transient Detection1. Press the button to display the Waveform Capture screen.2. Ensure Transient is highlighted, then press .●If there are no transient detection sessions stored in the instrument, the Detection Schedulescreen appears.●If there are recordings in the instrument, the Detection List screen is d isplayed. In this case,press the button to display the Detection Schedule screen.3. This screen displays four input fields:●Start defines the time and date when the recording starts. This must be later than the currentdate and time.●Stop specifies when the recording ends. This must be later than the start date and time.●Transient Count defines the maximum number of transients that you want to capture beforestopping the session.●Name allows you to name the test. This can be 8 characters long.4. Use the arrow and buttons to highlight, select, and edit these fields.5. Press the button to write the settings to the instrument and start the session.6. If not enough memory is available, an error message appears informing you of this. Otherwise, thetransient detection session will begin at the scheduled start time and date.If a session is scheduled but not yet started, the message DETECTION ON STANDBY appears on the screen until the start time is reached, at which point the message changes to DETECTION INPROGRESS.When the session is active, the icon blinks at the top of the screen, along with a status bar showing the progress of the session. In addition, the (stop) button appears in place of .During the session, the Transient Count number is reduced by 1 every time a transient is recorded. If this number counts down rapidly and appears as though it will reach zero well before stop time is reached, we recommend stopping the session and setting the threshold to a higher, less sensitive value.The session will continue until:●you press●the Transient Count limit is reached (see Step 3)●the stop time/date is reached7. When the transient detection session is finished, it appears in the Detection List screen. You can nowopen the session and view its contents, as explained in Section 4.3.4.3. Viewing a Transient Detection Session1. At the Detection Schedule screen, press the button.For all other displayed screens, press the button, and then select Transient.Either action displays the Detection List screen.2. If more than one transient detection recording is stored, use the arrows to select the desiredrecording, then press to open it.。
3G3MV变频器
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ࡳ 㛑 ᇣ ൟ ব 乥 ఼
1033
多功能小型变频器
3G3MV
ৃ㓪 ࠊ఼
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●另置型推荐选装件
名称
⦄എ㔥 㒰䆒
ⳕᏗ㒓 ⳕᎹᯊ䆒
᮴㒓䆒
交流电抗器
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ѻક㒘
Ԏ᳡㋏㒳
ব乥఼ RFID 简易输入侧噪声滤波器
型号 3G3IV-PUZBAB2A7.0MH 3G3IV-PUZBAB2.5A4.2MH 3G3IV-PUZBAB5A2.1MH 3G3IV-PUZBAB10A1.1MH 3G3IV-PUZBAB15A0.71MH 3G3IV-PUZBAB20A0.53MH 3G3IV-PUZBAB30A0.35MH 3G3IV-PUZBAB40A0.265MH 3G3IV-PUZBAB1.3A18.0MH 3G3IV-PUZBAB2.5A8.4MH 3G3IV-PUZBAB5A4.2MH 3G3IV-PUZBAB7.5A3.6MH 3G3IV-PUZBAB10A2.2MH 3G3IV-PUZBAB15A1.42MH 3G3IV-PUZBAB20A1.06MH 3G3EV-PLNFD2103DY 3G3EV-PLNFD2153DY 3G3EV-PLNFD2203DY 3G3EV-PLNFD2303DY 3G3EV-PLNFB2102DY 3G3EV-PLNFB2152DY 3G3EV-PLNFB2202DY 3G3EV-PLNFB2302DY 3G3EV-PLNFD4053DY 3G3EV-PLNFD4103DY 3G3EV-PLNFD4153DY 3G3EV-PLNFD4203DY 3G3EV-PLNFD4303DY 3G3IV-PFN258L4207 3G3IV-PFN258L5507
83832中文资料
Document Number IR Receiver Modules for Remote Control SystemsDescriptionThe TSOP22..WE1 - series are miniaturized receiv-ers for infrared remote control systems. PIN diode and preamplifier are assembled on lead frame, the epoxy package is designed as IR filter.The demodulated output signal can directly be decoded by a microprocessor. TSOP22..WE1 is the standard IR remote control receiver series, support-ing all major transmission codes.Features•Photo detector and preamplifier in one package•Internal filter for PCM frequency•Improved shielding against electrical field disturbance•TTL and CMOS compatibility •Output active low•Low power consumptionSpecial Features•Improved immunity against ambient light •Suitable burst length ≥ 10 cycles/burstParts TableBlock DiagramApplication CircuitPartCarrier Frequency TSOP2230WE130 kHz TSOP2233WE133 kHz TSOP2236WE136 kHz TSOP2237WE136.7 kHz TSOP2238WE138 kHz TSOP2240WE140 kHz TSOP2256WE156 kHz Document Number 82092Absolute Maximum RatingsAbsolute Maximum RatingsT amb = 25°C, unless otherwise specifiedElectrical and Optical CharacteristicsT amb = 25°C, unless otherwise specifiedParameterTest conditionSymbol Value Unit Supply Voltage (Pin 2)V S - 0.3 to + 6.0V Supply Current (Pin 2)I S 5mA Output Voltage (Pin 1)V O - 0.3 to + 6.0V Output Current (Pin 1)I O 5mA Junction Temperature T j 100°C Storage T emperature Range T stg - 25 to + 85°C Operating Temperature Range T amb - 25 to + 85°C Power Consumption (T amb ≤ 85°C)P tot 50mW Soldering Temperaturet ≤ 5 s T sd260°CParameterTest conditionSymbol Min Typ.Max Unit Supply Current (Pin 2)V S = 5 V , E v = 0I SD 0.81.2 1.5mA V S = 5 V , E v = 40 klx, sunlightI SH 1.5mA Supply Voltage (Pin 2)V S 4.55.5V Transmission Distance E v = 0, test signal see fig.1, IR diode TSAL6200, I F = 250 mA d 35m Output Voltage Low (Pin 1)I OL = 0.5 mA, E e = 0.7 mW/m 2, f = f oV OL 250mV Minimum Irradiance (30 - 40 kHz)Pulse width tolerance: t pi - 6/f o < t po < t pi + 5/f o , test signal see fig.1E e min0.20.5mW/m 2Minimum Irradiance (56 kHz)Pulse width tolerance: t pi - 6/f o < t po < t pi + 5/f o , test signal see fig.1E e min0.30.7mW/m 2Maximum Irradiance t pi - 5/f o < t po < t pi + 6/f o E e max 30W/m 2DirectivityAngle of half transmission distanceϕ1/2± 45degDocument Number Typical Characteristics (Tamb = 25 °C unless otherwise specified)Figure 1. Output Function Figure 2. Pulse Length and Sensitivity in Dark Ambient Figure 3. Output Function E eV O V V 0.00.10.20.30.40.50.60.70.80.91.00.11.010.0100.01000.010000.0E e – Irradiance ( mW/m 2 )16908t – O u t p u t P u l s e W i d t h ( m s )po E eV O V V OLFigure 4. Output Pulse DiagramFigure 5. Frequency Dependence of ResponsivityFigure 6. Sensitivity in Bright AmbientT ,T – O u t p u t P u l s e W i d t h ( m s )0.00.10.20.30.40.50.60.70.80.91.00.11.010.0100.01000.010000.0E e – Irradiance ( mW/m 2 )16909on o f f 0.70.91.11.3f/f 0 – Relative Frequency169250.00.51.01.52.02.53.03.54.00.010.101.0010.00100.00E – Ambient DC Irradiance (W/m 2)16911E – T h r e s h o l d I r r a d i a n c e ( m W /m )em i n 2 Document Number 82092Figure 7. Sensitivity vs. Supply Voltage Disturbances Figure 8. Sensitivity vs. Electric Field Disturbances Figure 9. Max. Envelope Duty Cycle vs. Burstlength0.1 1.010.0100.01000.0D V sRMS – AC Voltage on DC Supply Voltage (mV)16912E – T h r e s h o l d I r r a d i an c e ( m W /m )0.00.40.81.21.60.00.40.81.22.0E – Field Strength of Disturbance ( kV/m )2.094 81471.6em i n 20.00.10.20.30.40.50.60.70.8020406080100120Burst Length ( number of cycles / burst )16913M a x . E n v e l o p e D u t y C y c l eFigure 10. Sensitivity vs. Ambient TemperatureFigure 11. Relative Spectral Sensitivity vs. WavelengthFigure 12. Directivity–30–150153045607590T amb – Ambient T emperature (q C )16918E – T h r e s h o l d I r r a d i a n c e ( m W /m )em i n 275085095010501150λ-Wavelength (nm )16919S ()-R e l a t i v e S p e c t r a l S e n s i t i v i t yλr e l 96 12223p20.40.200.20.40.60.60.90q 30q10q 20q40q50q 60q 70q 80q1.00.80.7d rel – Relative Transmission DistanceDocument Number Suitable Data FormatThe circuit of the TSOP22..WE1 is designed in that way that unexpected output pulses due to noise or disturbance signals are avoided. A bandpass filter, an integrator stage and an automatic gain control are used to suppress such disturbances.The distinguishing mark between data signal and dis-turbance signal are carrier frequency, burst length and duty cycle.The data signal should fulfill the following conditions:• Carrier frequency should be close to center fre-quency of the bandpass (e.g. 38 kHz).• Burst length should be 10 cycles/burst or longer.• After each burst which is between 10 cycles and 70cycles a gap time of at least 14 cycles is necessary.• For each burst which is longer than 1.8 ms a corre-sponding gap time is necessary at some time in the data stream. This gap time should be at least 4 times longer than the burst.• Up to 800 short bursts per second can be received continuously.Some examples for suitable data format are: NEC Code, Toshiba Micom Format, Sharp Code, RC5Code, RC6 Code, R-2000 Code.When a disturbance signal is applied to the TSOP22..WE1 it can still receive the data signal.However the sensitivity is reduced to that level that no unexpected pulses will occur.Some examples for such disturbance signals which are suppressed by the TSOP22..WE1 are:• DC light (e.g. from tungsten bulb or sunlight)• Continuous signal at 38 kHz or at any other fre-quency• Signals from fluorescent lamps with electronic bal-last with high or low modulation ( see Figure 13 or Fig-ure 14 ).Figure 13. IR Signal from Fluorescent Lamp with low ModulationFigure 14. IR Signal from Fluorescent Lamp with high Modulation5101520Time ( ms )16920I R S i g n al5101520Time ( ms )16921I R S i g n alPackage Dimensions in mm Document Number 82092Ozone Depleting Substances Policy StatementIt is the policy of Vishay Semiconductor GmbH to1.Meet all present and future national and international statutory requirements.2.Regularly and continuously improve the performance of our products, processes, distribution andoperatingsystems with respect to their impact on the health and safety of our employees and the public, as well as their impact on the environment.It is particular concern to control or eliminate releases of those substances into the atmosphere which are known as ozone depleting substances (ODSs).The Montreal Protocol (1987) and its London Amendments (1990) intend to severely restrict the use of ODSs and forbid their use within the next ten years. Various national and international initiatives are pressing for an earlier ban on these substances.Vishay Semiconductor GmbH has been able to use its policy of continuous improvements to eliminate the use of ODSs listed in the following documents.1.Annex A, B and list of transitional substances of the Montreal Protocol and the London Amendmentsrespectively2.Class I and II ozone depleting substances in the Clean Air Act Amendments of 1990 by the EnvironmentalProtection Agency (EPA) in the USA3.Council Decision 88/540/EEC and 91/690/EEC Annex A, B and C (transitional substances) respectively. Vishay Semiconductor GmbH can certify that our semiconductors are not manufactured with ozone depleting substances and do not contain such substances.We reserve the right to make changes to improve technical designand may do so without further notice.Parameters can vary in different applications. All operating parameters must be validated for each customer application by the customer. Should the buyer use Vishay Semiconductors products for any unintended or unauthorized application, the buyer shall indemnify Vishay Semiconductors against all claims, costs, damages, and expenses, arising out of, directly or indirectly, any claim of personal damage, injury or death associated with such unintended or unauthorized use.Vishay Semiconductor GmbH, P.O.B. 3535, D-74025 Heilbronn, GermanyTelephone: 49 (0)7131 67 2831, Fax number: 49 (0)7131 67 2423Document Number 。
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VDD
GND
M0
M1
M2
M3
M4
M5
M6
M7
M8
A0
A1
A2
A3
DIRECT
Pin Name
R0 R1 R2 R3 R4 R5 K0 K1 GND VDD K2 K3 K4
Valid Mode
Direct Direct Direct Direct Direct Direct Direct Direct
Description
Direct Direct Direct Direct Direct Serial Direct Serial Direct Serial Direct Direct Direct Direct Serial Direct Direct Both Direct
Input Input Input Input Input Input Input Input Input Input Input Input Input Input Input Input Input Input Input
Valid Mode
Direct Direct Direct Direct Direct Direct Direct Direct Direct Direct Direct Direct Direct
Type
Input Input Input Input Input Input Input Input Input Input Input Input Input Power Power K Counter bit5. K Counter bit6. K Counter bit7. K Counter bit8. K Counter bit9. K Counter bit10. K Counter bit11. K Counter bit12. K Counter bit13. K Counter bit14. K Counter bit15. K Counter bit16. K Counter bit17 (MSB). Digital core & ESD VDD. Ground. M Counter bit0 (LSB). M Counter bit1. M Counter bit2 M Counter bit3. M Counter bit4.
元器件交易网
PE83363
Advance Information
Pin No. (68-lead CQFJ)
14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32
Pin Name
K5 K6 K7 K8 K9 K10 K11 K12 K13 K14 K15 K16 K17 VDD GND M0 M1 M2 M3 M4
Page 1 of 15
元器件交易网
PE83363
Advance Information
Figure 2. Pin Configuration
MS2_SEL
RAND_SEL
CPSEL
GND
GND
61
ENH
VDD
VDD
63
R5
R4
R3
R2
R1
R0
FR
62
K1
K0
68
67
65
66
64
9
7
6
4
2
8
5
3
1
VDD 10 K2
11
60 59 58 57 56 55 54 53 52 51 50 49 48 47 46 45 44 27 29 30 32 34 36 37 39 42 41 28 31 33 35 38 40 43
VDD VDD GND PD_U CP PD_D GND VDD DOUT LD CEXT GND FIN FIN VDD GND VDD
+
13 20 18 DSM 19 4 6 6 Phase Detector
PD_D Charge Pump CP
fr K17:0 Direct
R Counter
PEREGRINE SEMICONDUCTOR CORP. |
Copyright Peregrine Semiconductor Corp. 2003
元器件交易网
ADVANCE INFORMATION
PE83363
Military Operating Temperature Range
Product Description
Peregrine’s PE83363 is a high performance fractional-N PLL capable of frequency synthesis up to 3.0 GHz. The device is designed for superior phase noise performance while providing an order of magnitude reduction in current consumption, when compared with the existing military PLLs. The PE83363 features a 10/11 dual modulus prescaler, counters, a delta sigma modulator, a phase comparator and a charge pump as shown in Figure 1. Counter values are programmable through either a serial interface or directly hard-wired. Fabricated in Peregrine’s patented UTSi® (Ultra Thin Silicon) CMOS technology, the PE83363 offers excellent RF performance and versatility.
Page 3 of 15
元器件交易网
PE83363
Advance Information
Pin No. (68-lead CQFJ)
44 45 46 47 48 49 50
Pin Name
Valid Mode
Type
Power (Note 1) Power Power (Note 1)
33
S_WR M5 SDATA M6
Serial load enable input. While S_WR is “low”, Sdata can be serially clocked. Primary register data are transferred to the secondary register on S_WR or Hop_WR rising edge. M Counter bit5. Binary serial data input. Input data entered MSB first. M Counter bit6. Serial clock input. SDATA is clocked serially into the 20-bit primary register (E_WR “low”) or the 8-bit enhancement register (E_WR “high”) on the rising edge of Sclk. M Counter bit7. M Counter bit8 (MSB). A Counter bit0 (LSB). A Counter bit1. Enhancement register write enable. While E_WR is “high”, Sdata can be serially clocked into the enhancement register on the rising edge of Sclk. A Counter bit2. A Counter bit3 (MSB). Direct mode select. “High” enables direct mode. “Low” enables serial mode. Prescaler enable, active “low”. When “high”, Fin bypasses the prescaler.
Figure 1. Block Diagram
Fin Fin M8:0 A3:0 R5:0 Pre _e n Sdata Primary 21-bit Latch
Prescaler 10/11
Main Counter 13 PD_U
20 Secondary 20-bit Latch Auxiliary 20-bit Latch 18
Description
Direct Direct Direct
Input Input Input
Copyright Peregrine Semiconductor Corp. 2003
File No. 70/0143~00B
| UTSi CMOS RFIC SOLUTIONS
Page 2 of 15
34
35
SCLK M7 M8 A0 A1
36 37 38
39
E_WR A2 A3 DIRECT _____ Pre_en
40 41 42 43
PEREGRINE SEMICONDUCTOR CORP. |
Copyright Peregrine Semiconductor Corp. 2003
3.0 GHz Delta-Sigma modulated Fractional-N Synthesizer for Low Phase Noise Applications