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SCA100T_inclinometer_datasheet_8261800A.pdf
to T, Ramp up rate 3°C/second max Time maintained above: - Temperature (T L 183°C 217°C - Time (tL) 60-150 seconds 60-150 seconds Peak temperature (TP) 240 +0/-5°C 250 +0/-5°C Time within 5°C of actual Peak Temperature PT ) 10-30 seconds 20-40 seconds Ramp-down rate 6°C/second max 6°C/second max Time
in „SCA100T-D02 SPI Problem“ · Mikrocontroller und Digitale Elektronik ·
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INA125.pdf
vs FREQUENCY 140 120 ) ) B120 B 100 ( ( i G = 500 o c100 c 80 G = 100 j G = 100 j G = 500 R R l 80 l 60 p G = 4 p u u r 60 G = 10 r 40 w w G = 10 o 40 o P P 20 G = 4 20 0 1 10 100 1k 10k 100k 1M 1 10 100 1k 10k 100k 1M Frequency (Hz) Frequency (Hz) INPUT COMMON-MODE VOLTAGE INPUT COMMON-MODE VOLTAGE vs
in „Signal einer Wägezelle auswerten“ · Mikrocontroller und Digitale Elektronik ·
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PT4115E.pdf
Switch Frequency L=100uH R=0.33ohm 90% 1000 80% 3LEDs 6LEDsLEDs )900 5LEDs z 70% 2LEDs 4LEDs k800 y700 l 60% c y 50% 1LED e600 C q500 t 40% e 2LEDs 4LEDs5LEDs 6LEDs D 30% F400 7LEDs h300 20% i 1LED 3LEDs w200 10% S100 0% 5 10 15 20 25 30 0 5 10 15 20 25 30 Supply Voltage Vin(V) Supply Voltage Vin(V) China
in „LED 20-50mA mit verlustarmer und winziger Lösung an 24V DC/= betreiben“ · Analoge Elektronik und Schaltungstechnik ·
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XLampXT-E.pdf
60-180 seconds Time Maintained Above: Temperature (T L 183 °C 217 °C Time Maintained Above: Time (tL) 60-150 seconds 60-150 seconds Peak/Classification Temperature (Tp) 215 °C 260 °C Time Within 5 °C of Actual Peak Temperature (tp) 10-30 seconds 20-40 seconds Ramp-Down Rate 6 °C/second max. 6 °C/second
in „Verkaufe Restbestände Cree LEDs XT-E XTEAWT-00-0000-00000BFE4“ · Markt ·
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INA125.pdf
vs FREQUENCY 140 120 ) ) B120 B 100 ( ( i G = 500 o c100 c 80 G = 100 j G = 100 j G = 500 R R l 80 l 60 p G = 4 p u u r 60 G = 10 r 40 w w G = 10 o 40 o P P 20 G = 4 20 0 1 10 100 1k 10k 100k 1M 1 10 100 1k 10k 100k 1M Frequency (Hz) Frequency (Hz) INPUT COMMON-MODE VOLTAGE INPUT COMMON-MODE VOLTAGE vs
in „Verstärker für Messbrücke“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
ET0700G0DM6-EMERGINGDISPLAY.pdf
u u BACKLIGHh CURRENT V.S. LEDCTRL o BACKLIGHT CURRENT V.S. LEDCTRL A T60 c it h (160 100 e w R120 L60 T e → I160 B20 a y t B 00 p 0.0.20.0.60.LEDCTRL (b).82.2.22.2.5 0.00.0.40.0LEDCTRL (V)1.82.2.2.42.5 JUN.04, 2009 1 2. MECHAiICAL SPECIFICATIONS r i (D)MODULE SIZE : 165W i s04.44H *9.2D(MAX.) mm (WITHOUT
in „LCD Display / Controller eines Schweißgerätes prüfen“ · Mikrocontroller und Digitale Elektronik ·
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PT4115E-datasheet.pdf
Switch Frequency L=100uH R=0.33ohm 90% 1000 80% 3LEDs 6LEDsLEDs )900 5LEDs z 70% 2LEDs 4LEDs k800 y700 l 60% c y 50% 1LED e600 C q500 t 40% e 2LEDs 4LEDs5LEDs 6LEDs D 30% F400 7LEDs h300 20% i 1LED 3LEDs w200 10% S100 0% 5 10 15 20 25 30 0 5 10 15 20 25 30 Supply Voltage Vin(V) Supply Voltage Vin(V) China
in „Problem bei LEDKSQ“ · Analoge Elektronik und Schaltungstechnik ·
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HCPL_7520.pdf
T 217˚C ( L RAMP-UP R 3˚C/SEC.MAX. RAMP-DOWN U 150-200˚C 6˚C/SEC.MAX. A Tsmax E T P smin E t T s L 60to150SEC. PREHEAT 60to180SEC. 25 t25˚CtoPEAK TIME (SECONDS) NOTES: THE TIME FROM 25 ˚C to PEAK TEMPERATURE = 8 MINUTES MAX. Tsmax = 200 ˚C, smin= 150 ˚C 4 Regulatory Information The HCPL-7520 has been
in „Isolierte Netzspannungsmessung“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
q8025n.pdf
3 508 100 1.5 2.75 50 2 20 0.5 350/300 5 450 400 3 508 100 Electrical Specification Notes (15) R L 60 Ω for 0.8 A to10 A triacs; L = 30 Ω for 15 A to 35 A triacs (16) T = T for test conditions in off state (1) For either polarity of MT2 with reference to MT1 terminal C J (17) I = 300 mA for 25 A and
in „Leister Zündgerät Triac S Economy“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
BLF188XR_BLF188XRS.pdf
pulsed aaa-009589 aaa-009590 28 80 66 G p ηD PL (dB) (%) (dBm) 64 26 64 ldeal L (2) 62 (1) Gp P 24 48 L 60 22 32 ηD 58 20 16 56 18 0 54 0 320 640 960 P (W) 1600 28 30 32 34 36 38 40 42 L Pi(dBm) V = 50 V; I = 40 mA; f = 108 MHz; t = 100 s; V = 50 V; I = 40 mA; f = 108 MHz; t = 100 s; DS Dq p DS Dq p
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ina121.pdf
120 G=100V/V ) ) G=1000V/V B 100 B 100 ( ( o G=1000V/V o G=10V/V c 80 c 80 j j G=1V/V R G=100V/V e l 60 y 60 p p u G=10V/V u r 40 S 40 e e o o P 20 P 20 G=1V/V 0 0 10 100 1k 10k 100k 1M 10 100 1k 10k 100k 1M Frequency (Hz) Frequency (Hz) INPUT COMMON-MODE RANGE INPUT COMMON-MODE RANGE vs OUTPUT VOLTAGE
in „Pulsmessung über Kontaktflächen“ · Mikrocontroller und Digitale Elektronik ·
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Powerline-IC_HCPL-_810J.pdf
GAIN 220 Rx-in PP B 1 d100 PHASE 200 z – H I 90 180 2 A S 10.8 E 80 160 E T G 70 140 R A A E D0.6 L 60 120 D Z O – L V 50 100 S A M A M0.4 A 40 80 H O R P N – 30 60 0.2 O20 40 A 10 20 0 0 0 10 k 100 k 1 M 10 M 10 100 1 k 10 k 100 k 1 M 10 M f – FREQUENCY – Hz f – FREQUENCY – Hz Figure 11. Normalized
in „Powerline-Transmitter auf reinen Wechselspannungsbetrieb umbauen“ · Haus & Smart Home ·
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MAX100.pdf
= 120.4462MHz) 0 0 0 -10 -10 ) ) 0 ( -20 d -20 E -30 E -30 U U L -40 I -40 P -50 P -50 A A A -60 L -60 G -70 N -70 S S -80 -80 -90 -90 -100 -100 0 12.5 25 37.5 50 62.5 75 87.5 100 112.5125 0 12.5 25 37.5 50 62.5 FREQUENCY (MHz) FREQUENCY (MHz) f = 250MHz, f = 120.4462MHz f = 250MHz, f = 10.4462MHz CLK
in „Oszilloskop mit AVR“ · Mikrocontroller und Digitale Elektronik ·
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am26lv32.pdf
functions properly to provide a high state at the receiver output. Most Applications 100 90 80 V m − 70 g l 60 o l Not t 50 Recommended r e D 40 − I 30 V 20 10 Increased Receiver Input Sensitivity 0 −1 −0.8 −0.6 −0.4 −0.2 0 0.2 0.4 0.6 0.8 1 1.2 1.4 1.6 1.8 2 2.2 2.4 VIC− Common-Mode Input Voltage − V Figure
in „Maßnahmen zum ausfallsicheren Busreceiververhalten, wie geht das?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
am26lv32.pdf
functions properly to provide a high state at the receiver output. Most Applications 100 90 80 V m − 70 g l 60 o l Not t 50 Recommended r e D 40 − I 30 V 20 10 Increased Receiver Input Sensitivity 0 −1 −0.8 −0.6 −0.4 −0.2 0 0.2 0.4 0.6 0.8 1 1.2 1.4 1.6 1.8 2 2.2 2.4 VIC− Common-Mode Input Voltage − V Figure
in „Stromaufnahme eines RS422-Receivers anhand von Datenblatt ermitteln“ · Mikrocontroller und Digitale Elektronik ·
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MC1496.pdf
VCC 25 ▯F+ 2 1.0 k 3 12 Vd 51 8 DSB 0.1 ▯F R 1.0 k RL R Carrier InputV 0.1 ▯F 10 6 51 2 e 3 3.9 k L 60 mVrms 0.1 ▯F Output 8 3.9 1 MC1496 VC 0.1 ▯F 10 6 + Modulating 4 Carrier 1 MC1496 - + Input Signal Input 10 ▯F 14 5 12 VS 4 - 25 ▯F Modulating 12 300 mVrms 15 V +5 V- 10 k Signal 10 k 10 k 51 51 14
in „Analogmultiplizierer aufbauen - Audiobereich“ · Analoge Elektronik und Schaltungstechnik ·
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21425b.pdf
18 V. 140 140 2200 pF 2200 pF 120 120 100 1600 pF 100 1500 pF c c s 80 1000 pF s80 ( ( 1000 pF S60 L60 R F t 40 470 pF t40 470 pF 20 100 pF 20 100 pF 0 03 5 7 9 11 13 15 17 19 3 5 7 9 11 13 15 17 19 V SUPPLY (V) VSUPPLY (V) FIGURE 2-1: Rise Time vs. Supply FIGURE 2-4: Fall Time vs. Supply Voltage. Voltage
in „Problem mit dem TC4469“ · Mikrocontroller und Digitale Elektronik ·
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NCP51530-D-1324764-1.pdf
vs Figure 23. Low Side Fall Time vs Temperature Temperature 0 14 E D −20 12 T L 10 P −40 A O E _ 8 L −60 T U 6 P V −80 4 T A E−100 2 N 0 −120 −40.0 −20.0 0.0 20.0 40.0 60.0 80.0 100.0 120.0140.0 0 100 200 300 400 500 600 TEMPERATURE (°C) NEGATIVE PULSE WIDTH (ns) Figure 24. High Side Fall Time vs Temperature
in „Hilfe bei Halbbrückenschaltung benötigt“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
1287039752_f2c70451.pdf
0.972L9.53" 0 0 0.972L9.53" 0.001L-141" 0 0 0 0 0.3411-60.4" 0.915L-26.4" 0 0 0.9151-263.4" 0.341L-60.4" 1 1536 IEEE TRANSACTIONS ON MICROWAVE THEORY AND TECHNIQUES, VOL.43,NO. I. JULY1995 Length=I inch hMag=l V h=25 mil v3 2 Width=l7Opn v4 c Port1 Port2 14 Mag=l V Fig.6. Schematicof mixed-mode simulatioof
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PDF
ADXL350.pdf
°C,V =2.5S Figure43.X-AxisSelf-TestResponseat25°C,V =3.0VS 60 100 ) % ( % 80 O ( T N A 40 I U A P L 60 O P P O O P E F G O 40 T 20 N N E E C R E E P 20 P 0 4 0 3 –1.00 –0.95 –0.90 –0.85 –0.80 –0.75 –0.70 –0.65 –0.60 1 –1.20 –1.15 –1.10 –1.05 –1.00 –0.95 –0.90 –0.85 –0.80 - 2 2 OUTPUT (g) 1 OUTPUT (g)
in „Beschleunigungssensor Unklarheiten“ · Mikrocontroller und Digitale Elektronik ·
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PDF
ADXL350.pdf
°C,V =2.5S Figure43.X-AxisSelf-TestResponseat25°C,V =3.0VS 60 100 ) % ( % 80 O ( T N A 40 I U A P L 60 O P P O O P E F G O 40 T 20 N N E E C R E E P 20 P 0 4 0 3 –1.00 –0.95 –0.90 –0.85 –0.80 –0.75 –0.70 –0.65 –0.60 1 –1.20 –1.15 –1.10 –1.05 –1.00 –0.95 –0.90 –0.85 –0.80 - 2 2 OUTPUT (g) 1 OUTPUT (g)
in „Neigungswinkelinkelmessung beweglicher Teile“ · Analoge Elektronik und Schaltungstechnik ·
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pcm1716.pdf
amplifier, it is recom- mended to use an external low pass filter. 1 20 0 0.5 ) ) –20 ( ( e 0 e –40 e e L L –60 –0.5 –80 –1 –100 1 10 100 1k 10k 100k 1 10 100 1k 10k 100k 1M 10M Log Frequency (Hz) Log Frequency (Hz) FIGURE 12. Low Pass Filter Response. FIGURE 13. Low Pass Filter Response. ® 13 PCM1716 PCM1716E
in „DAC über SPI configurieren??, Codevision“ · Mikrocontroller und Digitale Elektronik ·
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PDF
MAX127-MAX128B.pdf
800Hz M A S 0.10 -20 SAMPLE = 8kHz M 0.6 ( O UNIPOLAR MODE I ) R A 0.05 ( -40 - 0.5 N E A L U G O 0 L -60 E 0.4 L M N R -0.05 A -80 H 0.3 E - BIPOLAR MODE N - I E 0.2 -0.10 -100 N H 0.1 -0.15 -110 C -40 -15 10 35 60 85 0 819 1638 2457 3276 4095 0 800 1600 2400 3200 4000 TEMPERATURE (°C) DIGITAL CODE FREQUENCY
in „Probleme mit Max127 (i2c adc) und m644p (gcc)“ · Mikrocontroller und Digitale Elektronik ·
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THB6064AH.PDF
DCY1 and DCY2 are undriven. Dcy2 Dcy1 Current Decay Setting L L 20% Fast Decay L H 40% Fast Decay H L 60% Fast Decay H H 80% Fast Decay 7 2011-05-11 HHBY THB6064AH Current Waveforms and Mixed Decay Mode Settings The current decay rate of the Decay mode operation can be determined by the DCY1 and DCY2 inputs
in „CNC Fräse - komplette Steuerung kaufen“ · Mikrocontroller und Digitale Elektronik ·
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MCP2551.pdf
voltage Dominant differential VTXD = 0.8V; DD = 5V D13 VDIFF(d)(o) 1.5 3.0 V output voltage 40W < R L< 60W (Note 2) D14 — -200 mA VCANH = -5V CANH short-circuit I (SC)CANH ) output current -100 D15 — (typical) mA VCANH = -40V, +40V. (Note 1) D16 O(SC)(CANL)l CANL short-circuit — 200 mA VCANL = -40V, +40V
in „MCP2551 Standby Mode wenn AVR im Power down Modus“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AS1106_07_Datasheet_EN_v1.pdf
40kΩ 5 a n 0 o 0 0 0.5 1 1.5 2 2.5 0 0.5 1 1.5 2VOUT (V).5 4 4.5 5 c VOUT(V) Figure 11.SEG vs. SET l 60 a 50 VOUT= 2.4V c i A40 VOUT n G30 = 4V h I20 VOUT = 2V c VDD = 5V 10 VOUT= 1.7V T VDD= 2.7V 0 10 20 30 40 50 60 70 80 RSET(kΩ) www.austriamicrosystems.com/LED-Driver-ICs/AS1106_07 Revision 2.28 7 -
in „LED 8x8 Matrix mit AS1107 und AT90PWM316“ · Mikrocontroller und Digitale Elektronik ·
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PDF
0900766b80f702e6.pdf
800Hz M A S 0.10 -20 SAMPLE = 8kHz M 0.6 ( O UNIPOLAR MODE I ) R A 0.05 ( -40 - 0.5 N E A L U G O 0 L -60 E 0.4 L M N R -0.05 A -80 H 0.3 E - BIPOLAR MODE N - I E 0.2 -0.10 -100 N H 0.1 -0.15 -110 C -40 -15 10 35 60 85 0 819 1638 2457 3276 4095 0 800 1600 2400 3200 4000 TEMPERATURE (°C) DIGITAL CODE FREQUENCY
in „MAX127BCAI Bipolar nur in diff mode?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
HCPL-4731.pdf
- 200 °C 6 °C/SEC.MAX. Component Recognition R smax P smin Program, File E55361. M s t T PREHEAT L 60 to 150 SEC. 60to180SEC. CSA Approved under CSA Component 25 t 25 °C to PEAK Acceptance Notice #5, File CA TIME 88324. NOTES: THETIME FROM 25 °C to PEAKTEMPERATURE = 8 MINUTES MAX. T = 200 °C, T = 150
in „High-Side-Strom auf Low-Side spiegeln (Stromspiegel?!)“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
OP_INA2126PA.pdf
vs FREQUENCY vs FREQUENCY 120 120 G = 1000 B 100 B 100 ( ( o G = 100 n c 80 t 80 G = 1000 j j R e l 60 y 60 p p G = 100 u u r 40 G = 5 r 40 e e o o G = 5 P 20 P 20 0 0 10 100 1k 10k 100k 1M 10 100 1k 10k 100k 1M Frequency (Hz) Frequency (Hz) INPUT COMMON-MODE RANGE INPUT COMMON-MODE VOLTAGE RANGE vs
in „OPV Signal von µV Bereich verstärken“ · Mikrocontroller und Digitale Elektronik ·
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Spartan-3A_FPGA_Family.pdf
1 VCCO_1 N22 VCCO 1 IO_L59N_1 J20 I/O 1 VCCO_1 T19 VCCO 1 IO_L59P_1 J19 I/O 1 VCCO_1 T25 VCCO 1 IO_L60N_1 D26 I/O 1 VCCO_1 W22 VCCO 1 IO_L60P_1 E26 I/O 2 IO_L01N_2/M0 AD4 DUAL 1 IO_L61N_1 D24 I/O 2 IO_L01P_2/M1 AC4 DUAL 1 IO_L61P_1 D25 I/O 2 IO_L02N_2/CSO_B AA7 DUAL 1 IO_L62N_1/A21 H21 DUAL 2 IO_L02P
in „Ultraschallgerät(Medizin) HMI Touch Vertikale Streifen“ · FPGA, VHDL & Co. ·
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PDF
drv103.pdf
196k 47.5k 90 1.5 95 1M 200k 49.9k 80 1 ) ) 70 ( TABLE III. Duty Cycle Adjust Resistance. ( 0.5 o l 60 E y 50 0 l y y DUTY CYCLE vs R PWM u 40 –0.5 C 1M D 30 u –1 D 5kHz 20 –1.5 10 0 –2 ) 1 2 3 4 ( 25kHz M 100k VPWM(V) P R FIGURE 7. Using a Voltage to Program Duty Cycle. 100kHz At V S 24V and F = 25kHz
in „PWM Signal wie stell ich das ein?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
MAX187_MAX.pdf
FULL-SCALE 0 fS= 75ksps TRANSITION fT= 10kHz 1 11…111 TA= +25°C 8 11…110 -20 7 / 11…101 ) M ( -40 D A L -60 X FS = +4.096V M 1LSB =FS A 1 4096 -80 8 9 00…011 00…010 -100 00…001 00…000 -120 0 1 2 3 FS INPUT VOLTAGE (LSBs) FS - 3/2LSB -140 0 18.75 37.5 FREQUENCY (kHz) Figure 10. MAX187/MAX189 Unipolar Transfer
in „AD-Wandler mittels Optokoppler anbinden“ · Mikrocontroller und Digitale Elektronik ·
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PDF
2630_Copy2.pdf
L 0.1 L 0.1 W – – L L 0 L 0 – 20 VO -60-40 -20 0 20 40 60 80 100 VO -60-40 -20 0 20 40 60 80 100 L -60 -40 -20 0 20 40 60 80 100 I TA– TEMPERATURE – °C TA – TEMPERATURE – °C T A TEMPERATURE – °C Figure 4. Typical Low Level Output Voltage vs. Temperature. Figure 5. Typical Low Level Output Current vs
in „Optokopler (input zwischen 90 und 180V dc) Output transistor an 24V verbunden“ · Mikrocontroller und Digitale Elektronik ·
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PDF
LT1111_LT.pdf
75 10 74 9.5 z 90 K 9.0 Y ) 73 8.5 N 80 H ) U ( 72 s 8.0 E C E F 70 E 71 I 7.5 R U T T E 70 O 7.0 L 60 F 6.5 C 69 S 6.0 O 50 68 5.5 40 25 100 67 5.0 –50 –25 0 50 75 125 0 3 6 9 12 15 18 21 24 27 30 –50 –25 0 25 50 75 100 125 TEMPERATURE (°C) INPUT VOLTAGE (V) TEMPERATURE (°C) LT1111 • TPC01 LT1111 •
in „Schaltregler-Topologie: 3V.12V -> 5V/0,45A & 12V/0,8A“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
AD8228.pdf
+VS – 2.0 )100 L Y d G P ( A P R L U M O S C 80 V T T D –V + 2.0 P E S T R –VS + 1.6 R = 2kΩ U E L 60 O F –VS + 1.2 R –VS + 0.8 R L 10kΩ –VS + 0.4 40 0 –V + 0 5 0 1 10 100 1k 10k 100k 1M - S 0 5 10 15 20 - 0 0 FREQUENCY (Hz) 0 SUPPLY VOLTAGE (±V) 0 Figure22.CMRRvs.Frequency,RTI,1kΩSourceImbalance Figure25
in „Schaltung verstehen.“ · Analoge Elektronik und Schaltungstechnik ·
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ina125.pdf
vs FREQUENCY 140 120 ) ) B120 B 100 ( ( i G = 500 o c100 c 80 G = 100 j G = 100 j G = 500 R R l 80 l 60 p G = 4 p u u r 60 G = 10 r 40 w w G = 10 o 40 o P P 20 G = 4 20 0 1 10 100 1k 10k 100k 1M 1 10 100 1k 10k 100k 1M Frequency (Hz) Frequency (Hz) INPUT COMMON-MODE VOLTAGE INPUT COMMON-MODE VOLTAGE vs
in „Kraftsensor PSD-S1 in Verbindung mit INA125“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
ina125.pdf
vs FREQUENCY 140 120 ) ) B120 B 100 ( ( i G = 500 o c100 c 80 G = 100 j G = 100 j G = 500 R R l 80 l 60 p G = 4 p u u r 60 G = 10 r 40 w w G = 10 o 40 o P P 20 G = 4 20 0 1 10 100 1k 10k 100k 1M 1 10 100 1k 10k 100k 1M Frequency (Hz) Frequency (Hz) INPUT COMMON-MODE VOLTAGE INPUT COMMON-MODE VOLTAGE vs
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QN8027.pdf
Temperature Max (Tsmax) 200°C Time (ts) 60-180 seconds Temperature (T L 217°C Time maintained above: Time (tL) 60-150 seconds Peak/Classification Temperature (Tp) 260°C Time within 5°C of Actual Peak Temperature (tp) 20 -40 seconds Ramp-Down Rate 6°C/second max. Time 25°C to Peak Temperature 8 minutes max. *Note
in „FM Transmitter - Antenne verstehen und messen“ · HF, Funk und Felder ·
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PDF
drv103.pdf
196k 47.5k 90 1.5 95 1M 200k 49.9k 80 1 ) ) 70 ( TABLE III. Duty Cycle Adjust Resistance. ( 0.5 o l 60 E y 50 0 l y y DUTY CYCLE vs R PWM u 40 –0.5 C 1M D 30 u –1 D 5kHz 20 –1.5 10 0 –2 ) 1 2 3 4 ( 25kHz M 100k VPWM(V) P R FIGURE 7. Using a Voltage to Program Duty Cycle. 100kHz At V S 24V and F = 25kHz
in „Widerstände dimensionieren.“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
elv.pdf
0,4 W D10 2,2 kΩ/SMD/0805 R20 BZW06-10B D11 2,2 kΩ R24 BZW06-58B D12 2,7 kΩ/SMD/0805 R30, R31 STPS10L60D D13 3,3 kΩ/SMD/0805 R15, R19 LL4148 D14, D15 4,7 kΩ/SMD/0805 R11, R13, R14 ZPY36 V/1,3 W D16 8,2 kΩ/SMD/0805 R12 LM385-2,5V/SMD D17 10 kΩ/SMD/0805 R6, R9, R10, R32, R41 10 kΩ R1 Sonstiges: 12 kΩ/SMD
in „Problem mit ELV Netzteil Bausatz PPS 5630“ · Mikrocontroller und Digitale Elektronik ·
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PDF
opa376.pdf
CLOSED-LOOP GAIN CHANNEL SEPARATION vs FREQUENCY 100 140 120 ) d s n 100 ( 10 t e 0.01% r 80 i p g S l l 60 e 1 n S a 40 0.1% C 20 0.1 0 1 10 100 10 100 1k 10k 100k 1M 10M 100M Closed-Loop Gain (V/V) Frequency (Hz) Figure 19. Figure 20. OPEN-LOOP OUTPUT RESISTANCE vs FREQUENCY 1k ) ( c a 100 i e R u 10 t
in „technische anforderungen“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
DS2413.pdf
80µs tPDH 15µs 60µs 2µs 6µs 15µs 68µs 2µs 8.2µs t 60µs 240µs 8µs 24µs 60µs 260µs 8µs 32µs PDL tW0L 60µs 120µs 6µs 16µs 62µs 120µs 8µs 16µs PIN DESCRIPTION NAME TSOC PIN # TDFN PIN # FUNCTION IO 2 2 1-Wire bus interface. Open-drain, requires external pullup resistor. PIOA 6 4 Programmable I/O pin, open-drain
in „OneWire Problem DS2413“ · Mikrocontroller und Digitale Elektronik ·
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Datei
TM1637Display.h
from which to start the modification (0 - leftmost, 3 - rightmost)</span></td> </tr> <tr> <td id="L60" class="blob-num js-line-number" data-line-number="60"></td> <td id="LC60" class="blob-code blob-code-inner js-file-line"> <span class="pl-k">void</span> <span class="pl-en">setSegments</span>(<span
in „7-Segmentanzeige an Atmega32“ · Mikrocontroller und Digitale Elektronik ·
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PDF
MAX44009.pdf
FLUORESCENT 4 110 9 3.0 A 300 LAMP A X ) M X M 100 M ( 2.5 L 250 90 T G SDA E I ) 80 R 2.0 A 200 V 70 C R L 60 L 1.5 T 150 INCANDESCENT V INT P P LAMP 50 S U 40 1.0 O 100 30 0.5 50 20 SUNLIGHT 10 0 0 0 100 1k 10k 100k 0 50 100 150 200 250 300 0 1 2 3 4 5 6 7 8 9 10 LUX READING (LUX) REFERENCE METER READING (
in „Helligkeitssensor Threshold festlegen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Diff_Ampl_AD8476-877860.pdf
OutputBalanceErrorvs.Frequency Figure49.OutputImpedancevs.Frequency 10 0 c –10 d ( –20 M R –30 T E –40 P S D –50 Z L –60 A M –70 O N –80 –90 –100 5 80 85 90 95 100 105 110 115 120 5 1 FREQUENCY (Hz) 1 Figure48.100kHzIntermodulationDistortion Rev. B | Page 15 of 24 AD8476 Data Sheet TERMINOLOGY 10kΩ Common-Mode Voltage
in „5V Differentielles Signal erzeugen“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
lt3502.pdf
popular output voltages. Low VIN – VOUT inductance may result in discontinuous mode opera- 900mA+ L 60ns tion, which is okay, but further reduces maximum load Thepartisrobustenoughtosurviveprolongedoperation current. For details of the maximum output current and discontinuous mode operation, see Linear
in „Bitte um Kontrolle des Layout - LT3502A“ · Mikrocontroller und Digitale Elektronik ·
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ax50424_ds_v1_3.pdf
25 ° to Peak 8 min max. Reflow Phase Liquidus Temperature L 217°C Time over Liquidus Temperature L 60 – 150 sec Peak Temperature p 260°C Time within 5°C of actual Peak p 20 – 40 sec Temperature Cooling Phase Ramp-down rate 6°C/sec max. Notes: All temperatures refer to the top side of the package, measured
in „WetterDirekt Wetterstation Basteleien“ · HF, Funk und Felder ·
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HFBR-14XX_Optolink.pdf
Limits with 100/140 µm Cable. Limits with 50/125 µm Cable. 75 55 70 s t (TYP) @ 25˚C – 65 PLH 50 Y L 60 n 45 D – N 55 N I T 40 A 50 R O T P 45 D 35 R tPHL (TYP) @ 25˚C Z PL 40 N H – 30 tP 35 tD R 30 OH 25 L 25 tP 20 20 -22 -21 -20 -19 -18 -17 -16 -15 -14 -13 -12 -22 -21 -20 -19 -18 -17 -16 -15 -14 -13
in „Debuggen bei EMV-Tests“ · Mikrocontroller und Digitale Elektronik ·
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4011fb.pdf
Threshold Voltage DCIN – VCC DCIN Increasing VSHDND Shutdown Threshold Voltage DCIN – VCC DCIN Decreasing l –60 –25 –5 mV VCE Charge Enable Threshold Voltage VCC – BAT, CC Increasing l 400 510 600 mV INTV DDRegulator VDD Output Voltage No Load l 4.5 5 5.5 V IDD Short-Circuit Current (Note 6) INTVDD = 0V l –100
in „Ladeabschaltung beim LTC 4011“ · Mikrocontroller und Digitale Elektronik ·
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B57164K_ENG_TDS.pdf
rate Tsmaxto Tp 3 °C/ s max. 3 °C/ s max. Liquidous temperature TL 183 °C 217 °C Time at liquidous tL 60 ... 150 s 60 ... 150 s 1) 2) 2) Peak package body temperature Tp 220 °C ... 235 °C 245 °C ... 260 °C Time (tP) within 5 °C of specified 20 s3) 30 s 3) classification temperature (Tc) Average ramp-down
in „2,2 kOhm NTC-Widerstände“ · Markt ·