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opa129.pdf
Burr-Brown Corporation PDS-1195A Printed in U.S.A. July, 1994 SBOS026 SPECIFICATIONS ELECTRICAL At VS= ±15V and T A +25°C unless otherwise noted. Pin 8 connected to ground. OPA129PB, UB OPA129P, U PARAMETER CONDITION MIN TYP MAX MIN TYP MAX UNITS INPUT BIAS CURRENT (1) VCM = 0V ±30 ±100 * ±250 fA vs
in „Guarding in Eagle“ · Platinen ·
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PDF
913LB7C.pdf
V16 4.6-4.8 FLUX LED SPECIFICATION Typical electrical/optical characteristic curves： Forward Current VS. Radiant Luminous Intensity VS. Forward Voltage Forward Current 100 2.5 A 80 i A m n 0 2.0 n t = e 60 I I u u a 1.5 C i e a 40 m a 1.0 r L V o n v F 20 i a 0.5 a e 0 R R 2.4 2.8 3.2 3.6 4.0 2.4 0 0 20 40 60 80 100 Forward Voltage(V) IF-Forward Current (mA) Forward Current VS. Radiant Luminous Intensity VS. Ambient Temperature Ambient Temperature 100 2.5 ) A i 2.0 t 80 n n t r 60 I 1.5 C n d d 1.0 a 40 a r R F 20 0.5 0 0 0 20 40 60 80 100 -30 -10 10 30 50 70 90 Ambient Temperature
in „LEDS hinter Konstantstromquelle dimmen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
13_FAI_H11L2M_01.pdf
2 4 6 8 10 12 14 16 VCC - SUPPLY VOLTAGE (V) F - INPUT CURRENT (mA) ) D Figure 4.Threshold Current vs. Supply Temperature Figure 5. Output Voltage, Low vs. Load Current E 1.6 2 L A M 1.4 O N ) T 1.2 ( 1 N W 0.9 E O 0.8 R 1.0 , 0.7 U E 0.6 C G L 0.8 T 0.5 O NORMALIZED TO : O H VCC = oV V 0.4 E TA= 25
in „24VDC per Optokoppler an µC“ · Mikrocontroller und Digitale Elektronik ·
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PDF
13_FAI_H11L2M_01.pdf
2 4 6 8 10 12 14 16 VCC - SUPPLY VOLTAGE (V) F - INPUT CURRENT (mA) ) D Figure 4.Threshold Current vs. Supply Temperature Figure 5. Output Voltage, Low vs. Load Current E 1.6 2 L A M 1.4 O N ) T 1.2 ( 1 N W 0.9 E O 0.8 R 1.0 , 0.7 U E 0.6 C G L 0.8 T 0.5 O NORMALIZED TO : O H VCC = oV V 0.4 E TA= 25
in „Logic-Level-MOSFET über Optokoppler???“ · Analoge Elektronik und Schaltungstechnik ·
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IL3829.pdf
VS[3-01] VS[3-00] 4 VS[4-11] VS[4-10] VS[4-01] VS[4-00] 5 VS[5-11] VS[5-10] VS[5-01] VS[5-00] 6 VS[6-11] VS[6-10] VS[6-01] VS[6-00] 7 VS[7-11] VS[7-10] VS[7-01] VS[7-00] … … … … … 16 VS[16-11] VS[16-10] VS[16-01] VS[16-00] 17 VS[17-11] VS[17-10] VS[17-01] VS[17-00] 18 VS[18-11] VS[18-10] VS[18-01] VS[18-00] 19 VS[19-11] VS[19-10] VS[19-01] VS[19-00] 20 TP[1] TP[0] 21 TP[3] TP[2] … … … 29 TP[19] TP[18]
in „IL3829 - E-Paper Display Treiber“ · Mikrocontroller und Digitale Elektronik ·
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LM73.pdf
the last value stored in it. www.national.com 6 L M 7 Typical Performance Characteristics 3 Accuracy vs. Temperature Operating Current vs. Temperature 20147820 20147821 Shutdown Current vs.Temperature Typical Output Noise 20147822 20147823 7 www.national.com 3 7 peratureRegistercontainsthevalue8000h(-256
in „LM73 über TWI/I2C mit Atmega1281 auslesen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
LT1083_LT1084_LT1085_LT.pdf
dropout regulator see the LT1086 data sheet. U TYPICAL APPLICATION 5V, 7.5A Regulator Dropout Voltage vs Output Current V 2 L T VIN 6.5V IN LT1083 OUT 5V AT 7.5A R ADJ 121 F + 1% + D 10µF 10µF* A 1 TANTALUM L 1%5 T *REQUIRED FOR STABILITY P 1083/4/5 ADJ TA01 U T N I 0 0 IFULL LOAD OUTPUT CURRENT 1083/4/
in „Aus 12V 5V machen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
LT1085.pdf
dropout regulator see the LT1086 data sheet. U TYPICAL APPLICATIO 5V, 7.5A Regulator Dropout Voltage vs Output Current ) 2 ( I V ≥ 6.5V IN LT1083 OUT 5V AT 7.5A E IN E ADJ 121Ω▯ D + 10μF 1% + 10μF* G TANTALUM T 1 365Ω▯ V 1% U *REQUIRED FOR STABILITY 1083/4/5 ADJ TA01 T / U I 0 0 FULL LOAD OUTPUT CURRENT
in „Suche einstellbaren Spannungsregler mit niedriegen Eigenstromverbrauch“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
LT1084CP.pdf
dropout regulator see the LT1086 data sheet. U TYPICAL APPLICATIO 5V, 7.5A Regulator Dropout Voltage vs Output Current ) 2 ( I V ≥ 6.5V IN LT1083 OUT 5V AT 7.5A E IN E ADJ 121Ω▯ D + 10μF 1% + 10μF* G TANTALUM T 1 365Ω▯ V 1% U *REQUIRED FOR STABILITY 1083/4/5 ADJ TA01 T / U I 0 0 FULL LOAD OUTPUT CURRENT
in „LT1083 Regelt nicht“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
LT1085.pdf
dropout regulator see the LT1086 data sheet. U TYPICAL APPLICATION 5V, 7.5A Regulator Dropout Voltage vs Output Current V 2 L T VIN 6.5V IN LT1083 OUT 5V AT 7.5A R ADJ 121 F + 1% + D 10µF 10µF* A 1 TANTALUM L 1%5 T *REQUIRED FOR STABILITY P 1083/4/5 ADJ TA01 U T N I 0 0 IFULL LOAD OUTPUT CURRENT 1083/4/
in „LT1085 parallel“ · Analoge Elektronik und Schaltungstechnik ·
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FK743M5-XIH6.pdf
OUT PIMCU10C1OS_32K_OUT NP3 PIMC10B12 PI MCU10H 1 NLC D0HSPPI12 PIMCU10M17 PDLN A12 PD3 PI12 H2 NLC _VS PI1331IP N17 NC J2 OS_25M_IN PIMC10A12 PD4 PI13 PI MCU10H 2 PIMCU10N17 NC PH0-OSC-IN PIMCU10J2 PD5N IPC10A11 PD5 PI14 PI MCU10H 3 NLC _CLK PI1441IP PIMC U10G2 NC PH1-OSC-OUT PIMCU10J1OS_25M_OUT PD6N
in „STM32H743 mit 32MByte externem SDRAM“ · Mikrocontroller und Digitale Elektronik ·
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4N25.pdf
10 100 1 10 100 I - LED FORWARD CURRENT (mA) I - LED FORWARD CURRENT (mA) F F Fig.3 Normalized CTR vs. Forward Current Fig.4 Normalized CTR vs. Forward Current (Black Package) (White Package) 1.4 1.6 VCE = 5.0V Normalized to V CE= 5.0V Normalized to TA= 25°C IF= 10 mA T A= 25°C F = 10 mA 1.2 1.4 1.2
in „optocoupler beschaltung“ · Mikrocontroller und Digitale Elektronik ·
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HCPL2631.pdf
FORWARD INPUT CURRENT – mA F F Figure 1. Typical High Level Output Figure 2. Typical Output Voltage vs. Forward Input Current. Current vs. Temperature. A 8-PIN DIP, SO-8 A WIDEBODY m 6 V = 5.0 V m 6 V = 5.0 V – V = 0.6 V – V = 0.6 V N 5 O N 5 O E E R R U 4 U 4 C C L RL= 350 K L O 3 O 3 H RL= 1 K H RL=
in „HCPL2631 Vorwiderstand“ · Mikrocontroller und Digitale Elektronik ·
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2630_Copy2.pdf
FORWARD INPUT CURRENT – mA F F Figure 1. Typical High Level Output Figure 2. Typical Output Voltage vs. Forward Input Current. Current vs. Temperature. A 8-PIN DIP, SO-8 A WIDEBODY m 6 V = 5.0 V m 6 V = 5.0 V – V = 0.6 V – V = 0.6 V N 5 O N 5 O E E R R U 4 U 4 C C L RL= 350 K L O 3 O 3 H RL= 1 K H RL=
in „Optokopler (input zwischen 90 und 180V dc) Output transistor an 24V verbunden“ · Mikrocontroller und Digitale Elektronik ·
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LTC_201.pdf
LTC203M LTC203C PARAMETER CONDITIONS MIN TYP MAX MIN TYP MAX UNITS Analog Signal Range ● ±15 ±15 V R ON VS= ±10V TMIN 110 125 Ω I = 1mA 25°C 65 110 65 125 Ω D TMAX 160 160 Ω ∆R ONvs VS 20 20 % ∆R ONvs Temperature 0.5 0.5 %/°C R ONMatch VS= 0V, DS= 1mA 5 5 % Off Input LeakagS I (OFF) VD= ±14V, VS= ±14V 0.01
in „Meßverstärker für 1/f-Rauschen 0.1 - 10 Hz“ · Analoge Elektronik und Schaltungstechnik ·
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APM2095.pdf
2.5 3.0 3.5 -V DS- Drain-to-Source Voltage (V) -V GS- Gate-to-Source Voltage (V) Threshold Voltage vs. Junction Temperature On-Resistance vs. Drain Current 1.8 0.16 DS=250 A 1.6 0.14 e ) a 1.4 ( o c 0.12 V d 1.2 n -VGS2.5V l z s h l 1.0 s 0.10 s m e r o 0.8 - 0.08 -V =4.5V - N n GS ( ( 0.6 ) G ( 0.06
in „Ersatztyp P-Kanal MosFet APM2095P low gate voltage“ · Mikrocontroller und Digitale Elektronik ·
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APM2601.pdf
2.0 2.5 3.0 -V DS- Drain-to-Source Voltage (V) -V GS- Gate-to-Source Voltage (V) Threshold Voltage vs. Junction Temperature On-Resistance vs. Drain Current 1.50 0.18 -DS=250uA ) 0.16 ( 1.25 ) e ( 0.14 t c -VGS=2.5V o d1.00 n 0.12 V z s l l s 0.10 -VGS=4.5V h m0.75 e e o - 0.08 h N n - (0.50 ) 0.06 (
in „SMD-Bauteilbestimmung“ · Mikrocontroller und Digitale Elektronik ·
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310J---FIDamp.pdf
Overload R 10ms INPTTT OFFSETVOLTAGE Initial@ +25"C tlOmV max Wirh External Trim Pot Adj. to zero vs.Temp (O to +7O"C) max t3Opv/"c (J) !3opv /oc (J) rlogv/"c (K) l1opv/oc (K) vs. SupplyVoltage llOOpV /o/o vs.Time t100prV/mo BOTTOM VIEW \\'arm-UpDrift (15 *= -lMODEL 310 75pV min) +IN.MODEL311 I\PU-f
in „DC-Messverstärker (Chopper) mit Kapazitätsdioden (diskret)“ · Analoge Elektronik und Schaltungstechnik ·
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150418-da-01-en-ADJ_LOW_DROPOUT_POS_VR_5A.pdf
trademarks of Linear Technology Corporation. U TYPICAL APPLICATIO 5V, 7.5A Regulator Dropout Voltage vs Output Current ( 2 VIN 6.5V LT1083-5 5V AT 7.5A A N + 10µF + 22µF* R TANTALUM I LT1083/4/5 TA01 E A 1 *REQUIRED FOR STABILITY O T T O U I 0 0 IFULLLOAD IFULLLOAD OUTPUT CURRENT (A) 1083/4/5 TA02 1 LT1083
in „spannungsstabilisierung in blitz“ · Mikrocontroller und Digitale Elektronik ·
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1083ffd.pdf
are the property of their respective owners. U TYPICAL APPLICATIO 5V, 7.5A Regulator Dropout Voltage vs Output Current ) 2 L VIN≥ 6.5V LT1083-5 5V AT 7.5A T + + 22μF* E 10μF TANTALUM E D LT1083/4/5 TA01 G *REQUIRED FOR STABILITY L 1 V U T / P I 0 0 I /2 I FULLLOAD FULLLOAD OUTPUT CURRENT (A) 1083/4/5 TA02
in „Frage zum Datenblatt LT1084CT-5“ · Mikrocontroller und Digitale Elektronik ·
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6N139.pdf
OPTOCOUPLERS SINGLE-CHANNEL DUAL-CHANNEL 6N138 HCPL-2730 6N139 HCPL-2731 Fig. 4 LED Forward Current vs. ForwardVoltage Fig. 5 LED ForwardVoltage vs.Temperature 100 1.5 F = 1.6 mA ) 10 ) m T = 85˚C (1.4 ( A V - - T E N 1 TA= 70˚C A R L R O1.3 U V C R R 0.1 A A W W O O F1.2 F 0.01 TA= 25˚C TA= -40˚C TA=
in „Wechselrichter mit MOSFET Endstufe“ · Analoge Elektronik und Schaltungstechnik ·
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615004.pdf
-07-24 (Rev.00) T e P o w c a Junction Temperature Characteristics l D a a 1. Junction Temperature vs. Relative Light output at350mA 0 h e 120 e ] t % t 100 p u 80 t g L 60 v a RED e 40 GREEN R BLUE 20 0 25 50 75 100 125 150 Junction Temperature [ C] 2. Junction Temperature vs. Dominant Wavelength Shift
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PVCxx0401A.pdf
- 1/5Vrco Vr R: I Vz VDD - 2/5Vr-co Vz Rr Vr VDD - 3/5Vr-co Vr Vr-co Rr Vr VDD - 4/5Vr-co Vc Rs I Vs VDD - Vr-co V0=Vs - Power Supolv CircuitDiaoram: VDD LCM VO VDD-VO: LCDdrivingltage VF :10K-20K vDD-vo I (CG Character Generator Rom Rom) This character generator ROM (CG ROM) generates a character pattern
in „[V] LCD DotMatrix Module 40x4 mit Hintergrundbeleuchtung“ · Markt ·
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PDF
CNY17-2.pdf
www.fairchildsemi.com CNY17-1, CNY17-3, CNY17-2, CNY17-4 Rev. 1.0.2 C N Y 1 7 Fig.1 Normalized CTR vs. Forward Current Fig.2 Normalized CTR vs. Forward Current - (Black Package) (White Package) 1 1.4 1.6 , C TCE= 25˚CV Normalized to TC= 25˚CV Normalized to N A F= 10 mA 1.4 A F= 10 mA Y 1.2 1 7 1.2 -
in „Optokoppler CNY17“ · Mikrocontroller und Digitale Elektronik ·
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Datei
armbian_modules.txt
spi b53_common b53_srab vitesse-vsc73xx veth enc28j60 dwmac-dwc-qos-eth hip04_eth hns_mdio icplus et1011c dp83848 dp83tc811 qsemi bcm87xx amd microchip lxt phylink at803x teranetics davicom smsc marvell aquantia micrel realtek national bcm-phy-lib microchip_t1 broadcom vitesse ste10Xp cicada plusb asix
in „Samba auf Banana Pi Pro installieren“ · PC Hard- und Software ·
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andy_mp3_player_schematics.pdf
VCC VCC VCC VCC VCC VCC VCC VCC R8 SD VS1011E-SOIC28 NC 1 10K CS 2 MMC_CS VCC DREQ DREQ DVDD0 3 SI R4 GPIO2/DCLK DGND0 DI 4 R9 GPIO3/SDATAXRESET XRESET VCC 5 SCLK VCC 10K XDCS XDCS/BSYNC AGND3 SCK 6 10K VCC GND DVDD1 LEFT GND 7 R15 DO 8 SO
in „Bauteile für Nachbau MP3 Player gesucht“ · Mikrocontroller und Digitale Elektronik ·
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16389fg.pdf
2.40 V VS= 5V, No Load l 4.94 4.98 V VS= 5V, SOURCE= 10mA l 3.8 4.0 V I Short-Circuit Current (Note 2) V = 3V, Short to GND 10 15 mA SC VS= 3V, Short to V 15 25 mA S CC VS= 5V, Short to GND 15 20 mA VS= 5V, Short
in „Alternative gesucht zu OpAmp“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
HCPL7800.pdf
Max. Unit Test Conditions Fig. Note Input Offset Voltage V -1.8 -0.9 0.0 mV 1 OS Input Offset Drift vs. dVOSdT -2.1 V/°C 1, 2 6 Temperature Abs. Value of Input |dVOS/dT| 4.6 V/°C 1 7 Offset Drift vs. Temperature Input Offset Drift vs. V dV /dV 30 V/V 1, 3 8 DD1 OS DD1 Input Offset Drift vsDD2 dVOSdV DD2
in „Galvanisch getrennten 1-10V Ausgang regeln“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
HCPL7800.pdf
Max. Unit Test Conditions Fig. Note Input Offset Voltage V -1.8 -0.9 0.0 mV 1 OS Input Offset Drift vs. dVOSdT -2.1 V/°C 1, 2 6 Temperature Abs. Value of Input |dVOS/dT| 4.6 V/°C 1 7 Offset Drift vs. Temperature Input Offset Drift vs. V dV /dV 30 V/V 1, 3 8 DD1 OS DD1 Input Offset Drift vsDD2 dVOSdV DD2
in „8fach Trennverstärker 0..10V - wie realisieren?“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
LT1014.pdf
RESISTANCE ( ) TIME AFTER POWER ON (MINUTES) Common-Mode Rejection Ratio Power Supply Rejection Ratio vs Frequency vs Frequency 0.1Hz to 10Hz Noise 120 120 ) T = 25°C ) TA= 25°C d A d VS = 2V TO 18V O 100 O 100 ) T T I R R / N 80 N 80 NEGATIVE POSITIVE n I VS= 5V, 0V VS= 15V I SUPPLY SUPPLY 0 C C ( E 60
in „Unterschied beim LT1014 ?“ · Mikrocontroller und Digitale Elektronik ·
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rp2.pdf
15 21 8 PB1 (OC1A) AREF DAT1 Vcc AVDD DVDD 15 14 16 9 C4 TEST SO PB2 (SS/OC1B) C13 C14 DAT2 R20 10u VS1011E 13 MOSI 17 10 470 SI PB3 (MOSI/OC2A) 100n 100n GND 2 1 24 12 MISO 18 11 C5 LEFT SCLK PB4 (MISO) CD 10u R21 20 11 SCK 19 12 470 RIGHT XCS PB5 (SCK) WP 2 1 22 1 9 13 RCAP DREQ PB6 (XTAL1/TOSC1) GND
in „Wecker mit MP3 (vs1011) und SD-Card“ · Mikrocontroller und Digitale Elektronik ·
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ads122c04.pdf
PGA enabled, external reference, best fit PGA enabled, internal reference, best fit Figure 12. INL vs Differential Input Voltage Figure 13. INL vs Differential Input Voltage 300 10 Gain = 1 Gain = 2 s250 8 Gain = 4 c e V r200 ( u e 6 O a o150 o e V b e 4 u100 f N O 50 2 0 0 - - - 0 2 5 7 0 0 - 1 -50
in „ads122C04 ADC 24Bit“ · Mikrocontroller und Digitale Elektronik ·
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PDF
TDA9983.pdf
[7:0] XXXX XXXX o SC_VS_LUT_9 24h W VS_LUT9[7:0] XXXX XXXX s SC_VS_LUT_10 25h W VS_LUT10[7:0] XXXX XXXX SC_VS_LUT_11 26h W VS_LUT11[7:0] XXXX XXXX SC_VS_LUT_12 27h W VS_LUT12[7:0] XXXX XXXX SC_VS_LUT_13 28h W VS_LUT13[7:0] XXXX XXXX SC_VS_LUT_14 29h W VS_LUT14[7:0] XXXX XXXX R SC_VS_LUT_15 2Ah W VS_LUT15[7:0] XXXX XXXX . SC_VS_LUT_16 2Bh W VS_LUT16[7:0] XXXX XXXX 1 Ñ SC_VS_LUT_17 2Ch W VS_LUT17[7:0] XXXX XXXX 2 SC_VS_LUT_18 2Dh W VS_LUT18
in „Pollin - Receiver-Mainboard mit Twin DVB-[T,C] Tuner, NXP PNX8950EH“ · Mikrocontroller und Digitale Elektronik ·
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PDF
364-57379-TDA9983B.pdf
[7:0] XXXX XXXX o SC_VS_LUT_9 24h W VS_LUT9[7:0] XXXX XXXX s SC_VS_LUT_10 25h W VS_LUT10[7:0] XXXX XXXX SC_VS_LUT_11 26h W VS_LUT11[7:0] XXXX XXXX SC_VS_LUT_12 27h W VS_LUT12[7:0] XXXX XXXX SC_VS_LUT_13 28h W VS_LUT13[7:0] XXXX XXXX SC_VS_LUT_14 29h W VS_LUT14[7:0] XXXX XXXX R SC_VS_LUT_15 2Ah W VS_LUT15[7:0] XXXX XXXX . SC_VS_LUT_16 2Bh W VS_LUT16[7:0] XXXX XXXX 1 Ñ SC_VS_LUT_17 2Ch W VS_LUT17[7:0] XXXX XXXX 2 SC_VS_LUT_18 2Dh W VS_LUT18
in „Pollin - Receiver-Mainboard mit Twin DVB-[T,C] Tuner, NXP PNX8950EH“ · Mikrocontroller und Digitale Elektronik ·
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PDF
cd00004444-understanding-and-minimising-adc-conversion-errors-stmicroelectronics.pdf
steps) 1 1000 0000 2.5v 1 1000 0000 2 1100 0000 3.76v 0 1000 0000 3 1010 0000 3.13v 1 1010 0000 4 1011 0000 3.45 1 1011 0000 5 1011 1000 3.6 0 1011 0000 6 1011 0100 3.52 0 1011 0000 7 1011 0010 3.49 1 1011 0010 8 1011 0011 3.509 0 1011 0010 Final output = B2h 5/42 UNDERSTANDING AND MINIMISING ADC CONVERSION
in „12bit AnalogDigitalWandler“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
MOC3052M-D.PDF
T IF TA− AMBIENT TEMPERATURE (°C) PW − LED TRIGGER PULSE WIDTH (ms) Figure 3. LED Trigger Current vs. Ambient Figure 4. LED Trigger Current vs. LED Pulse Width Temperature ) C 4 10000 5 NORMALIZED TO T = 25°C A V = 600 V 2 A ( DRM = T T N 1000 ( 3 E / R ) U T C 100 ( 2 E I A ) K 10 D A E L I 1 − A M
in „Phasenanschnitt-Steuerung funktioniert nicht“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
MOC3052M-D.PDF
T IF TA− AMBIENT TEMPERATURE (°C) PW − LED TRIGGER PULSE WIDTH (ms) Figure 3. LED Trigger Current vs. Ambient Figure 4. LED Trigger Current vs. LED Pulse Width Temperature ) C 4 10000 5 NORMALIZED TO T = 25°C A V = 600 V 2 A ( DRM = T T N 1000 ( 3 E / R ) U T C 100 ( 2 E I A ) K 10 D A E L I 1 − A M
in „Leistung für Gatewiderstand Triac“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
OK.pdf
−40 −20 0 20 40 60 80 100 IF− FORWARD CURRENT (mA) TA − TEMPERATURE (_C) Figure 3. Normalized CTR vs. Forward Current Figure 4. Normalized CTR vs. Temperature 16 1000 A TA= 25_C F = 40 mA ( F = 0 mA 14 VCC= 5 V T VCC= 5 V ) F = 35 mA N VO= 5 V A E ( 12 R 100 T F = 30 mA U E C R 10 F = 25 mA U R P C
in „Defekte Analoge Strom-Ausgangskarte 0/4-20 mA Bauteilsuche“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
ads8331.pdf
4000h 8000h C000h FFFFh Output Code Output Code Figure 7. Differential Linearity Error vs Code Figure 8. Differential Linearity Error vs Code 8.0 500 7.5 VREF= 4.096V VREF= 4.096V 7.0 450 ) m ) 6.5 t VREF= 2.500V A V REF= 2.500V e ( 6.0 u 400 I C 5.5 a N 5.0 350 4.5 4.0 7 8 9 0 1 2 3 4 5
in „Versorgungsspannung ADC“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
SR0604100MSB.PDF
SMD Power Inductor SR0602/SR0603/SR0604 SR0805/SR1006/SR1011/SR1307 Series ¡‰ CONFIGURATION & DIMENSIONS ¡G (m/m) FEATURES ¡EExcellent solderability and high heat resistance ¡EExcellent terminal strength construction ¡EPacked in embossed carrier tape and can
in „Pollin SMD-Induktivitäten identifizieren“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
ca3140-a.pdf
20 40 60o 80 100 120 140 FREQUENCY (Hz) TEMPERATURE ( C) FIGURE 6. OPEN LOOP VOLTAGE GAIN AND PHASE vs FIGURE 7. INPUT CURRENT vs TEMPERATURE FREQUENCY N S I RL= O S 0 S 1.5 R R C) o C o X+ -0.5 +VICRAT TA= 125 C +V AT T = 125 C X - 1.0 -VICRAT A = 125 C E( +VICRAT TA= 25 C OUT A E ( -V AT T = 25 C
in „OpAmp Ausgang schwingt mit 50Hz (oder 100)“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
vish_ILQ2.pdf
LED Current (mA) iild1_09 I - LED Current (mA) F Fig. 8 - Normalized Non-Saturated and Saturated CTR vs. Fig. 11 - Normalized Non-Saturated and Saturated CTR vs. LED Current LED Current 1.5 35 r Normalized to: c V =10V,I = 10 mA,T = 25 °C ) 30 a CE F A A F CTR ce(sat) CE= 0.4 V ( 25 T1.0 n 50 °C C TA=
in „Optokoppler SPS 24V zu 5V“ · Mikrocontroller und Digitale Elektronik ·
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PDF
10134fd.pdf
1013/14 TPC01 1013/14 TPC02 1013/14 TPC03 Common Mode Rejection Ratio Power Supply Rejection Ratio vs Frequency vs Frequency 0.1Hz to 10Hz Noise 120 120 B TA= 25°C B TA= 25oC ( ( VS = p2V TO p18V I 100 I 100 ) A A D R R NEGATIVE POSITIVE V O 80 VS= 5V, 0V VS= ±15V O 80 SUPPLY SUPPLY 0 T T 2 E E E E 60
in „LT1013 Unterschied D und P Package“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
MAX9271.pdf
— 0:15 1 0 0 1 0:13, HS, VS — 0:13 1 0 1 0 0:7 0:7 0:15 1 0 1 1 0:7, HS, VS 0:7, HS, VS 0:13 1 1 0 0 0:15 — 0:15 1 1 0 1 0:13, HS, VS — 0:13 1 1 1 0 0:11 0:11 0:23 1 1 1 1 0:11, HS, VS 0:11, HS, VS 0:23 *In double-input mode (DBL
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PDF
ADXL345.pdf
3.40 g POWER SUPPLY Operating Voltage Range (V )S 2.0 2.5 3.6 V Interface Voltage Range (V DD I/O VS≤ 2.5 V 1.7 1.8 V S V VS≥ 2.5 V 2.0 2.5 V S V Supply Current Data rate > 100 Hz 145 μA Data rate < 10 Hz 40 μA Standby Mode Leakage Current 0.1 2 μA 5 Turn-On Time Data rate = 3200 Hz 1.4 ms TEMPERATURE
in „mega8 und ADXL345 an Fleury Soft- I2C / TWI“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Calgary_OLED_Module_Application_Instruction.pdf
of display. Default level at power up is at Quarter range. CalgaryElegance Yellow Power Consumption vs Luminance Quarter Current Half Current Full Current 900 800 ) 700 a W ( 600 n t 500 p u n 400 o r 300 e o P 200 100 0 0 20 40 60 80 100 120 140 160 Luminance (nits) Figure 11: Luminance vs. Power of
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AD5933.pdf
Factor Recalculation.........................................................18 Crystal Oscillator (XO) vs. External Clock............................. 37 Gain Factor Temperature Variation.........................................19 Schematics................................................................
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IS2200E_V1.61.pdf
2449.90 -523.35 B 26 VDHR -3976.75 -523.35 B 94 C6+ 2529.90 -523.35 B 95 C6- 2630.75 -523.35 B 27 VS -3852.75 -523.35 B 28 VS -3772.75 -523.35 C 96 C6- 2710.75 -523.35 B 97 VSS2 2790.75 -523.35 B 29 VS -3692.75 -523.35 C 30 VS -3612.75 -523.35 C 98 VSS2 2870.75 -523.35 B 31 VS -3532.75 -523.35 B 99
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Sheet2.pdf
PIU3016 P I U 2 0 4 0 PIU303 LCD (PCINT29) PJ5 PIU2041 10 PIU304 C1- PIU302 (PCINT30) PJ6 COC1 5 C2+ VS+ 6 ATmega6450 12 1µF PIU305 C2- VS- PIU306 COJ1 11 14 1 GND GND GND P103011T1IN T1OUT PI73014 PI6101 D P133010T2IN T2OUT PI1207 PI2106 11 D PI83013R1IN R1OUT PI93012 PI7102 PIJ1011 PIU308 R2IN R2OUT
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ads1220.pdf
( C) C017 Temperature ( C) C018 AVDD = 3.3 V AVDD = 5.0 V Figure 3. Input-Referred Offset Voltage vs Temperature Figure 4. Input-Referred Offset Voltage vs Temperature 500 500 Gain = 1 Gain = 1 Gain = 128 Gain = 128 )400 PGA Disabled )400 PGA Disabled F F f f o300 o300 p p ( ( o o r200 r200 n n a a
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