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SPS9540_KM_G_011017.pdf
2 S C319 C321 C323 1 4 7 "," 8 8 8 R300 I 311 I312 I310 4,7 100n 100n 100n K K K K Met liflla SM D TLC 272 SM D TLC272 SM D TLC272 AG ND 4 4 4 C330 C 320 C322 C324 C 327 R342 ST 3 10 -,5V 47 +5V 1 1000u 100n 100n 100n 270n SMD IC 3 1 1 ADW TEM P_1 2 16V SMD SMD
in „*Netzteil die ZWEITE*“ · Mikrocontroller und Digitale Elektronik ·
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PDF
LM3409__LM3409HV.pdf
Value Manufacturer Part Number 1 LM3409HV Buck controller NSC LM3409HVMY 2 CIN1 CIN2 2.2µF X7R 10% 100V MURATA GRM43ER72A225KA01 L 1 CF 1.0µF X7R 10% 16V TDK C1608X7R1C105K 1 C 470pF X7R 10% 50V TDK C1608X7R1H471K OFF 1 Q1 PMOS 100V 3.8A ZETEX ZXMP10A18KTC 1 D1 Schottky 100V 3A VISHAY SS3H10-E3/57T 1
in „High Power LED Stroboskop“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Mabuchi_Motors_Complete.pdf
340g (APPROX) RS-775VC-8015 16.8V RS-775WC-8514 18.0V h I N h I N h 75 150 30,000 h 75 150 30,000 50 100 20,000 50 100 20,000 3 I11 N Is13 N 25 50 10,000 25 50 10,000 T I I s 215 Ts10 24 % ] ] 500 [mN·m] 1,000 % ] ] 500 [mN·m] 1,000 Y [ i Y [ m N N [ 5,000 [g·cm] 10,000 E N [ 5,000 [g·cm] 10,000 I R E
in „12 V Motor aus der Al-ko Mover Einheit M20 Ams1“ · Fahrzeugelektronik ·
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PDF
Kap6.pdf
1 MHz liegt. Der Resonanzwiderstand dieser Quarze liegt je nach Typ und Frequenz zwischen einigen 100 kΩ und einigen 100 Ω, weshalb eine große Schleifenverstärkung erforderlich sein kann. In modernen Schaltungen z.B. bei den 32 kHz-Uhrenquarzen werden heutzutage CMOS-Gatter in Pierce-Schaltung verwendet
in „4060 + Quarz wollen nicht“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Kap6.pdf
1 MHz liegt. Der Resonanzwiderstand dieser Quarze liegt je nach Typ und Frequenz zwischen einigen 100 kΩ und einigen 100 Ω, weshalb eine große Schleifenverstärkung erforderlich sein kann. In modernen Schaltungen z.B. bei den 32 kHz-Uhrenquarzen werden heutzutage CMOS-Gatter in Pierce-Schaltung verwendet
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PDF
DS_FT232R_v104.pdf
to keep the current below 100mA on plug-in and 500μA on USB suspend. iv) A device that consumes more than 100mA can not be plugged into a USB Bus Powered Hub. v) No device can draw more that 500mA from the USB Bus. The power descriptor
in „Mosfet für FT232R“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
FT_232RL.pdf
to keep the current below 100mA on plug-in and 500μA on USB suspend. iv) A device that consumes more than 100mA can not be plugged into a USB Bus Powered Hub. v) No device can draw more that 500mA from the USB Bus. The power descriptor
in „ATMega8L an USB per max232“ · Mikrocontroller und Digitale Elektronik ·
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PDF
FT232R.pdf
to keep the current below 100mA on plug-in and 500μA on USB suspend. iv) A device that consumes more than 100mA can not be plugged into a USB Bus Powered Hub. v) No device can draw more that 500mA from the USB Bus. The power descriptor
in „Daten für Drucker abfangen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
DS_FT232R_v104.pdf
to keep the current below 100mA on plug-in and 500μA on USB suspend. iv) A device that consumes more than 100mA can not be plugged into a USB Bus Powered Hub. v) No device can draw more that 500mA from the USB Bus. The power descriptor
in „FT232R Frage Bezug auf Masse“ · Mikrocontroller und Digitale Elektronik ·
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PDF
FT232RL.pdf
to keep the current below 100mA on plug-in and 500μA on USB suspend. iv) A device that consumes more than 100mA can not be plugged into a USB Bus Powered Hub. v) No device can draw more that 500mA from the USB Bus. The power descriptor
in „RS232 (Bus) Pegel Probleme“ · Mikrocontroller und Digitale Elektronik ·
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PDF
butterfly.pdf
* 2 1U_16V_X7R C105 C300 1u MURATA * 1 3K3 R210 3k3 * 5 4,7K R304 R305 4k7 * R306 R307 R308 1 10K R100 10k * 1 10N_50V_X7R C106 10n * 1 33R R400 33R NOT MOUNTED 4 100K R205 R206 100k * R207 R208 10 100N_16V_X7R C100 C101 100n * C102 C103 C104 C200 C400 C401 C402 C403 1 300K R209 300K * 1 AT45DB041B-SC-2.5 U201 4Mb ATMEL * 1 ATMEGA169V-1MC U100 ATMEL * 1 AVR BUTTERFLY A0301.3.1000.A PCB500 * 1 BAT54C D400 PHILIPS * 1 BAT74 D300 PHILIPS * 1 BC847B Q200 PHILIPS NOT MOUNTED 1 BC847BPN Q300 PHILIPS * 1 BLM-21A102S L100 MUR * 1 BZX399-C1V8 D200
in „AVR Butterfly, was benötigt?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
XC88xCLM_UM_v1_1.pdf
ET1 EX1 ET0 EX0 Interrupt Enable Register 0 Type rw r rw rw rw rw rw rw B8 IP Reset: 00 Bit Field 0 PT2 PS PT1 PX1 PT0 PX0 H H Interrupt Priority RegisterType r rw rw rw rw rw rw B9 IPH Reset: 00 Bit Field 0 PT2H PSH PT1H PX1H PT0H PX0H H Interrupt Priority High Register Type r rw rw rw rw rw rw D0H PSW
in „80C517A Paging“ · Mikrocontroller und Digitale Elektronik ·
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PDF
DS_FT232R_v102.pdf
to keep the current below 100mA on plug-in and 500μA on USB suspend. iv) A device that consumes more than 100mA can not be plugged into a USB Bus Powered Hub. v) No device can draw more that 500mA from the USB Bus. The power descriptor
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PDF
systemhandbuch_isr.pdf
Standard Invertiert Signal Ausgang UX 6072 nicht vorhanden 0...10V PWM Temperaturwert 10V UX 6075 100 °C Fühlertyp Kollektor 6097 NTC NTC PT 1000 Korrektur Kollektorfühler 6098 0° C Korrektur Kollektorfühler 2 6099 0° C Korrektur Außenfühler 6100 0° C 86 System-Handbuch ISR-Plus Version 01.09 Parameter
in „Brötje ISR Plus Kommunikation / LPB“ · Haus & Smart Home ·
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PDF
ADS1211.pdf
SDIO XTAL AGND XOUT SCLK DGND DVDD DV DD DGND C 2 12pF DGND FIGURE 39. PT100 Interface. +15V +In 3 15 4–20mA C T RCV420 14 A P REF 2 IN IN 1.0µF –In 13 A N IN REF OUT 1 5 AGND AVDD AVDD AGND VBIAS MODE –15V AGND DVDD CS ADS1210 DRDY C1 DGND 12pF DSYNC SDOUT XIN SDIO XTAL XOUT
in „Hardware SPI vs. BIT BANGING AD Wandler“ · Mikrocontroller und Digitale Elektronik ·
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Datei
PT1000_heiss_und_kalt.txt
PT1000 an RP2040-pico-Board Erwaerung mit Lötkoben Abkuehlung mit Kaeltespray abschliessend leichte Waerme mit Finger und Raumtemperatur ADC: 2132 24 °C ADC: 2133 24 °C ADC: 2133 24 °C ADC: 2133 24 °C ADC
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T2_L4A_8650C.pdf
Matrix LCD Controller) ● Solomon Systech SSD1303 (OLED driver/controller IC) ● Novatek NT7501 ● PTC PT6866 (OLED driver/controller IC) LCD interface contains 8 data pins (LCD_D[0:7]) and 4 control pins (LCD_CTRL[0:3]) to drive typical 2x16 LCD display or OLED display. LCD_CTRL3 is configured to control
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C8051F53x.pdf
Comparator0 and Comparator1 unless otherwise noted. Parameter Conditions Min Typ Max Units CP0+ – CP0– = 100 mV — 780 — ns Response Time: Mode 0, Vcm = 1.5 V CP0+ – CP0– = –100 mV — 980 — ns Response Time: CP0+ – CP0– = 100 mV — 850 — ns Mode 1, Vcm = 1.5 V CP0+ – CP0– = –100 mV — 1120 — ns Response Time: CP0+ – CP0– = 100 mV — 870 — ns Mode 2, Vcm = 1.5 V CP0+ – CP0– = –100 mV — 1310 — ns Response Time: CP0+ – CP0– = 100 mV — 1980 — ns Mode 3, Vcm = 1.5 V CP0+ – CP0– = –100 mV — 4770 — ns Common-Mode Rejection — 3 9
in „[V]erkaufe 35 µC von Silabs C8051F531 (TSSOP-20)“ · Markt ·
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PDF
C8051F531.pdf
Comparator0 and Comparator1 unless otherwise noted. Parameter Conditions Min Typ Max Units CP0+ – CP0– = 100 mV — 780 — ns Response Time: Mode 0, Vcm = 1.5 V CP0+ – CP0– = –100 mV — 980 — ns Response Time: CP0+ – CP0– = 100 mV — 850 — ns Mode 1, Vcm = 1.5 V CP0+ – CP0– = –100 mV — 1120 — ns Response Time: CP0+ – CP0– = 100 mV — 870 — ns Mode 2, Vcm = 1.5 V CP0+ – CP0– = –100 mV — 1310 — ns Response Time: CP0+ – CP0– = 100 mV — 1980 — ns Mode 3, Vcm = 1.5 V CP0+ – CP0– = –100 mV — 4770 — ns Common-Mode Rejection — 3 9
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pm2519ocr.pdf
4.11. T E M P E R A T U R E M E A S U R E M E N T S Accessory required for temperature measurements :Pt 100 probe Range :-60C... #200 °C Resolution 20.1°C Acuracy 180°0°C.... 100 OC = + (1% of reading +0.5 °C) 100 °C . 200 °C = £ (2% of reading +0.5 °C) Relative reference setting With push-button “zero
in „Pjilips PM2519“ · Markt ·
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PDF
VHF-COMM.1983.3.pdf
higher-powered transistors are available in cases "W", "U" (as " S"but larger). an"T". The 3.1.The 100 W Stage cheapest and thus most interesting types for The transisrorIype DV 2880 is used rnthisstaqe: radio amateurs are the uansrstors mounted in a mrs is able10provids approximately 100 W PEP "W "
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AD7609.pdf
32 B –30 B –30 ( ( N –40 N –40 I I T T A –50 A –50 N N E –60 E –60 T T A –70 A –70 –80 –80 –90 –90 –100 3 –100 5 100 1k 10k 100k 1M 10M - 100 1k 10k 100k 1M 10M - 7 7 FREQUENCY (Hz) 0 FREQUENCY (Hz) 0 Figure56.DigitalFilterResponseforOS×8 Figure58.DigitalFilterResponseforOS×32 0 0 AVCC = 5V AV CC= 5V
in „Unterschiedliches Verhalten innerhalb der gleichen IC-Reihe“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
AD7609.pdf
32 B –30 B –30 ( ( N –40 N –40 I I T T A –50 A –50 N N E –60 E –60 T T A –70 A –70 –80 –80 –90 –90 –100 3 –100 5 100 1k 10k 100k 1M 10M - 100 1k 10k 100k 1M 10M - 7 7 FREQUENCY (Hz) 0 FREQUENCY (Hz) 0 Figure56.DigitalFilterResponseforOS×8 Figure58.DigitalFilterResponseforOS×32 0 0 AVCC = 5V AV CC= 5V
in „SPI-Kommunikation von AD-Wandler zu Raspberry Pi“ · Mikrocontroller und Digitale Elektronik ·
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tda8444.pdf
UNIT Rth(j-a) thermal resistance from junction to ambient in free air TDA8444 75 K/W TDA8444T note 1 100 K/W TDA8444AT note 1 85 K/W Note 1. When mounted on a Printed-Circuit Board (PCB). CHARACTERISTICS VCC = 12 V; amb= 25 °C; unless otherwise specified. SYMBOL PARAMETER CONDITIONS MIN. TYP. MAX. UNIT
in „Verzweifle an TWI Code Mega8-TDA 8444“ · Mikrocontroller und Digitale Elektronik ·
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PDF
8444_TDA8444.pdf
UNIT Rth(j-a) thermal resistance from junction to ambient in free air TDA8444 75 K/W TDA8444T note 1 100 K/W TDA8444AT note 1 85 K/W Note 1. When mounted on a Printed-Circuit Board (PCB). CHARACTERISTICS VCC = 12 V; amb= 25 °C; unless otherwise specified. SYMBOL PARAMETER CONDITIONS MIN. TYP. MAX. UNIT
in „TDA8444 kurze Verständnisfrage“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Agilent_6000_Userguide.pdf
CAN signal baud rate to match your CAN bus signal. The CAN baud rate can be set to: 10 kb/s 50 kb/s 100 kb/s 500 kb/s 20 kb/s 62.5 kb/s 125 kb/s 800 kb/s 33.3 kb/s 83.3 kb/s 250 kb/s 1 Mb/s The default baud rate is 1 Mb/s 6 Repeatedly press and release the Smpl Pt softkey to select the point between phase
in „Wittig(welec) DSO W20xxA Open Source Firmware (Teil2)“ · Mikrocontroller und Digitale Elektronik ·
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stc32g-en.pdf
o sa ki ti ti t fo n y fo o si n m m m P m d m e a ia b ) rr dr se et o o ul al e w bl n m (O ll b pt r a m its m * m 0 at el ) ill a nl bl ni er a u iv ri er w w ti ni m n D nd in er pt o o d eh di ul fl 9 m 9 no io ac si e b of n pt 1r al o n n pl s e D A te io w ut fo n n at m m m n k oi (i. bl m
in „STC32 -- 8051 auf Steroide“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Datenblatt_WCDMA-GSM-EDGE-Transceiver_MMM7210.pdf
70 -65 dBref/30 kHz ACPR 8PSK ± 600 kHz — -82 -70 dBref/30 kHz ACPR 8PSK ± 1800 kHz — -85 -73 dBref/100 kHz ACPR 8PSK ± 3000 kHz — -97 -75 dBref/100 kHz ACPR 8PSK ± 6000 kHz — -103 -81 dBref/100 kHz Phase noise ±10 MHz *** Test condition for Phase noise 10MHz, — — -156 dBc/Hz offset - 8PSK 20MHz offset
in „GSM-Modul (SIM908) nur analoge Ausgänge für Anruf?“ · HF, Funk und Felder ·
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PDF
Self-Resonance-in-Coils.pdf
given below: M easured v Calculated Inductance 180 160 M easured Inductance µH 140 W elsby H µ 120 c 100 a c 80 d 60 I 40 20 0 0 5 10 15 20 25 30 35 40 Frequency M hz Figure 2.1 Measured and Calculated Inductance For the calculated inductance an SRF of 36.3 MHz was used, calculated from Equation 5.6.2.
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XC6216_XE6216.pdf
VOLTAGE 1 DROPOUT VOLTAGE 2 OUTPUT (V) (V) (mV) (mV) VOLTAGE(V) 2% ACCURACY 1% ACCURACY OUT=20mA OUT=100mA V OUT(E) VOUT(E) Vdif1 Vdif2 VOUT(T) MIN. MAX. MIN. MAX. TYP. MAX. TYP. MAX. 5.0 4.900 5.100 4.950 5.050 190 280 1000 1300 5.1 4.998 5.202 5.049 5.151 190 280 1000 1300 5.2 5.096 5.304 5.148 5.252
in „Suche schaltung für Ladeerhaltung einer Pufferbatterie“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
AD7606_7606-6_7606-4.pdf
= 25°C T INTERFERER ON ALL UNSELECTED CHANNELS L O –80 ) –70 I B L –90 ( E ±10V RANGE D –80 N H A –100 T 105kΩ H ±5V RANGE –90 48.7kΩ - 23.7kΩ T –110 L –100 10kΩ E 5kΩ N –120 1.2kΩ A –110 100Ω H –130 51Ω C 0Ω –120 2 –140 5 1k 10k 100k - 0 20 40 60 80 100 120 140 160 - 7 7 INPUT FREQUENCY (Hz) 0 NOISE
in „STM32 Parallel Bus ADC“ · Mikrocontroller und Digitale Elektronik ·
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sony_str-ks360_ks360s_ver-1.0_sm.pdf
39 6 7 -28.9 INDICATOR TUBE DRIVER -27 C722 220p E 16 SEG3 IC700 GRID3 40 C723 220p -26.7 15 SEG2 PT6315 GRID2 41 -27 -17.8 -27 C724 220p R701 C703 C702 C706 C705 14 SEG1 GRID1 42 10k 100 0.01 10 0.1 3.3 13 VDD VDD 43 3.3 IR BOARD 35V 50V CN7P0 CN7P01 12 VSS VSS 44 CL751 C714 C700 C728 T S750 1 SIRCS
in „Sony STR KS360S Verstärker geht auf Standby, LED blinkt“ · Mikrocontroller und Digitale Elektronik ·
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ad7706.pdf
DRDY for the AD7705. In this case, the transducer is an RTD (Re- GND sistive Temperature Device), a PT100. The arrangement is a 4-lead RTD configuration. There are voltage drops across the DOUT DIN CS SCLK lead resistances RL1 and R L4t these simply shift the common- Figure 22. Pressure Measurement Using
in „ADC7706 - Kommunikationsproblem“ · Mikrocontroller und Digitale Elektronik ·
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Datei
vt100.fsm.pl
ESC [ ? 4 h DECSCLM softScrollingMode( true ) ESC [ ? 4 l DECSCLM softScrollingMode( false ) ESC [ Pt ; Pb r DECSTBM setMargin( (coordL) vt.parm[0], (coordL) vt.parm[1] ) ESC [ ? 6 h DECOM originMode( true ) ESC [ ? 6 l DECOM originMode( false ) ESC [ Pn A CUU cursorUp( (countL) vt.parm[0] ) ESC [ Pn
in „VT100 Terminal auf dem ATmega328“ · Mikrocontroller und Digitale Elektronik ·
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PDF
p2527-casiez.pdf
rates for Kinect skeleton filters appear to be a variant of this type of small targets [5]. Assuming a 100 PPI screen, 4 pixels cor- smoothing . LaViola extended double exponential smooth- responds to 1mm of jitter mean-to-peak: close to the 0.4 mm ing for predictive tracking [2], building on Equations 1
in „1€-Filter - Warum heißt der so?“ · Digitale Signalverarbeitung / DSP / Machine Learning ·
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PDF
61231020621.pdf
detail B B Cover Tape Chip Cavity Sprocket Hole No Component Components No Component min. 160mm min. 100mm Embossment Cover Tape min. 400mm NB: Actual packaging may slightly differ from datasheet A0 B0 W T T1 T2 K0 P0 P1 P2 D0 D1 E S F Tape Type 3 VPE / packaging unit typ. typ. +0.3/-0.3 max. max. max.
in „[V] 120St 10poliger SMD Wannenstecker WÜRTH WR-BHD 2.54 mm Male SMT Box Header 61231020621 (36€)“ · Markt ·
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PDF
2400fa.pdf
5V 250 VRE= 0V IN 40 VIN= 0V TI= 25°C ) TA= 25°C ) A m m200 ( ( O 30 CIN= 0pF O CIN= 0.1µF R CIN= 100pF R150 E C = 1000pF T E 20 IN S F F100 O CIN = 0.01µF O CIN= 0.01µF 10 50 0 01 10 100 1k 10k 100k 0 100 200 300 400 500 600 700 800 9001000 R (Ω) RSOURCE (Ω) SOURCE 2400 F18 2400 F20 Figure 18. Offset
in „hochauflösende Temperaturmessung“ · Mikrocontroller und Digitale Elektronik ·
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PDF
LTC_2400_24Bit-ADC.pdf
5V 250 VRE= 0V IN 40 VIN= 0V TI= 25°C ) TA= 25°C ) A m m200 ( ( O 30 CIN= 0pF O CIN= 0.1µF R CIN= 100pF R150 E C = 1000pF T E 20 IN S F F100 O CIN = 0.01µF O CIN= 0.01µF 10 50 0 01 10 100 1k 10k 100k 0 100 200 300 400 500 600 700 800 9001000 R (Ω) RSOURCE (Ω) SOURCE 2400 F18 2400 F20 Figure 18. Offset
in „ADC, Auslösung erhöhen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
sony_ht-ct260h.pdf
V 680PF/100V XP8 680pF/100V/X7R 22 X 5PIN/2.0mm 1/2power-control CH1A R680 0 29 IN1A OUT2A 8 C737 R C742 B 28 9 0.1uF/50V/X7R 680pF/100V/X7R L702 22uH/3.3A 0.1uF/50V/X7R TO MCU TH_WAR TH-WAR OUT2A L+ L+ CE705 27
in „(V) 2 Platinen aus einer Sony Soundbar und Nixie Röhren“ · Markt ·
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PDF
an19fc.pdf
E3500 N 120 C3000 R TJ= 150°C A U 100 C2500 C D L 80 N2000 P C U 60 N1500 S –55°C ≤ TJ≤ 125°C R 40 T1000 20 500 0 0 0 10 20 30 40 50 60 70 80 90 100 –75 –50 –25 0 25 50 75 100 125 150 V CIN VOLTAGE (mV) TEMPERATURE (°C) 1070/71 G14 1070
in „LT1270 dimensionieren“ · Analoge Elektronik und Schaltungstechnik ·
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an920-d.pdf
Vout1 Vin 2.5 to 3.5 V,out1= 100 mA, Iout2= 30 mA Δ = 20 mV or ± 0.11% Load Regulation Vout1 Vin 2.5 V, out1= 25 to 100 mA, out2= 30 mA Δ = 20 mV or ± 0.11% Output Ripple Vout1 Vin 2.5 V, out1= 100 mA, Iout2= 30 mA 60 mV p−p Line Regulation Vout2 Vin 2.5 to 3.5 V,out1= 100 mA, Iout2= 30 mA Δ = 1.0 mV or ± 0.0083% Load Regulation Vout2 Vin 2.5 V, out2= 0 to 50 mA, out1= 100 mA Δ = 1.0 mV or ± 0.0083% Output Ripple Vout2 Vin 2.5 V, out1= 100 mA, Iout2= 30 mA 5.0 mVp−p Short
in „MC34063 als Step Up arbeitet nicht“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
AN920-D.pdf
Vout1 Vin 2.5 to 3.5 V,out1= 100 mA, Iout2= 30 mA Δ = 20 mV or ± 0.11% Load Regulation Vout1 Vin 2.5 V, out1= 25 to 100 mA, out2= 30 mA Δ = 20 mV or ± 0.11% Output Ripple Vout1 Vin 2.5 V, out1= 100 mA, Iout2= 30 mA 60 mV p−p Line Regulation Vout2 Vin 2.5 to 3.5 V,out1= 100 mA, Iout2= 30 mA Δ = 1.0 mV or ± 0.0083% Load Regulation Vout2 Vin 2.5 V, out2= 0 to 50 mA, out1= 100 mA Δ = 1.0 mV or ± 0.0083% Output Ripple Vout2 Vin 2.5 V, out1= 100 mA, Iout2= 30 mA 5.0 mVp−p Short
in „Spannungsregelung mit Step-Up/Down Regler“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
AN920-D.PDF
Vout1 Vin 2.5 to 3.5 V,out1= 100 mA, Iout2= 30 mA Δ = 20 mV or ± 0.11% Load Regulation Vout1 Vin 2.5 V, out1= 25 to 100 mA, out2= 30 mA Δ = 20 mV or ± 0.11% Output Ripple Vout1 Vin 2.5 V, out1= 100 mA, Iout2= 30 mA 60 mV p−p Line Regulation Vout2 Vin 2.5 to 3.5 V,out1= 100 mA, Iout2= 30 mA Δ = 1.0 mV or ± 0.0083% Load Regulation Vout2 Vin 2.5 V, out2= 0 to 50 mA, out1= 100 mA Δ = 1.0 mV or ± 0.0083% Output Ripple Vout2 Vin 2.5 V, out1= 100 mA, Iout2= 30 mA 5.0 mVp−p Short
in „Suche Buck-Boost für LiIon-Spannung auf 3,3V“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
AN920-D_MC34063_Theory_and_Applications_.pdf
Vout1 Vin 2.5 to 3.5 V,out1= 100 mA, Iout2= 30 mA = 20 mV or 〉 0.11% Load Regulation Vout1 Vin 2.5 V, out1= 25 to 100 mA, out2= 30 mA = 20 mV or 〉 0.11% Output Ripple Vout1 Vin 2.5 V, out1= 100 mA, Iout2= 30 mA 60 mV p–p Line Regulation Vout2 Vin 2.5 to 3.5 V,out1= 100 mA, Iout2= 30 mA = 1.0 mV or 〉 0.0083% Load Regulation Vout2 Vin 2.5 V, out2= 0 to 50 mA, out1= 100 mA = 1.0 mV or 〉 0.0083% Output Ripple Vout2 Vin 2.5 V, out1= 100 mA, Iout2= 30 mA 5.0 mVp–p Short
in „Schaltregler MC34063 - Wie berechnet man CT?!“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
AN920-D.PDF
Vout1 Vin 2.5 to 3.5 V,out1= 100 mA, Iout2= 30 mA = 20 mV or 〉 0.11% Load Regulation Vout1 Vin 2.5 V, out1= 25 to 100 mA, out2= 30 mA = 20 mV or 〉 0.11% Output Ripple Vout1 Vin 2.5 V, out1= 100 mA, Iout2= 30 mA 60 mV p–p Line Regulation Vout2 Vin 2.5 to 3.5 V,out1= 100 mA, Iout2= 30 mA = 1.0 mV or 〉 0.0083% Load Regulation Vout2 Vin 2.5 V, out2= 0 to 50 mA, out1= 100 mA = 1.0 mV or 〉 0.0083% Output Ripple Vout2 Vin 2.5 V, out1= 100 mA, Iout2= 30 mA 5.0 mVp–p Short
in „Frage zu Schaltregler“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
MC34063_AN920-D.PDF
Vout1 Vin 2.5 to 3.5 V,out1= 100 mA, Iout2= 30 mA = 20 mV or 〉 0.11% Load Regulation Vout1 Vin 2.5 V, out1= 25 to 100 mA, out2= 30 mA = 20 mV or 〉 0.11% Output Ripple Vout1 Vin 2.5 V, out1= 100 mA, Iout2= 30 mA 60 mV p–p Line Regulation Vout2 Vin 2.5 to 3.5 V,out1= 100 mA, Iout2= 30 mA = 1.0 mV or 〉 0.0083% Load Regulation Vout2 Vin 2.5 V, out2= 0 to 50 mA, out1= 100 mA = 1.0 mV or 〉 0.0083% Output Ripple Vout2 Vin 2.5 V, out1= 100 mA, Iout2= 30 mA 5.0 mVp–p Short
in „Spule für Schaltnetzteil“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AN920-D_MC34063_Theory_and_Applications_.pdf
Vout1 Vin 2.5 to 3.5 V,out1= 100 mA, Iout2= 30 mA = 20 mV or 〉 0.11% Load Regulation Vout1 Vin 2.5 V, out1= 25 to 100 mA, out2= 30 mA = 20 mV or 〉 0.11% Output Ripple Vout1 Vin 2.5 V, out1= 100 mA, Iout2= 30 mA 60 mV p–p Line Regulation Vout2 Vin 2.5 to 3.5 V,out1= 100 mA, Iout2= 30 mA = 1.0 mV or 〉 0.0083% Load Regulation Vout2 Vin 2.5 V, out2= 0 to 50 mA, out1= 100 mA = 1.0 mV or 〉 0.0083% Output Ripple Vout2 Vin 2.5 V, out1= 100 mA, Iout2= 30 mA 5.0 mVp–p Short
in „MC34063 Strombegrenzung“ · Mikrocontroller und Digitale Elektronik ·
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PDF
HP3610_Service_Manual.pdf
specifications. 0EM: 115 Vac ± 10%, 47-63 Hz Input 0E3: 230 Vac ± 10%, 47-63 Hz Input Location And Cooling 0E9: 100 Vac ± 10%, 47-63 Hz Input Figure 1 shows the outline shape and dimensions of the unit. 1CM: Rack Mount Kit (Agilent p/n 5063-9767) It is shipped ready for bench operation after connection to an ac power
in „Fragen zu Labornetzteilbau (Nachbau Funkschau 1973)“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
5959-5304_E3610A.pdf
specifications. 0EM: 115 Vac ± 10%, 47-63 Hz Input 0E3: 230 Vac ± 10%, 47-63 Hz Input Location And Cooling 0E9: 100 Vac ± 10%, 47-63 Hz Input Figure 1 shows the outline shape and dimensions of the unit. It is shipped ready for bench operation after connection to an ac power source. The supply is air cooled. Sufficient
in „Fragen zu Labornetzteilbau (Nachbau Funkschau 1973)“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
5959-5304_E3610A.pdf
specifications. 0EM: 115 Vac ± 10%, 47-63 Hz Input 0E3: 230 Vac ± 10%, 47-63 Hz Input Location And Cooling 0E9: 100 Vac ± 10%, 47-63 Hz Input Figure 1 shows the outline shape and dimensions of the unit. It is shipped ready for bench operation after connection to an ac power source. The supply is air cooled. Sufficient
in „Labornetzgerät als Projekt“ · Analoge Elektronik und Schaltungstechnik ·