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PDF
bc547.pdf
. Max. Units CBO Collector Cut-off Current VCB=30V, E =0 15 nA hFE DC Current Gain VCE=5V, C =2mA 110 800 VCE(sat) Collector-Emitter Saturation VoltIC=10mA, B =0.5mA 90 250 mV IC=100mA, B =5mA 200 600 mV VBE(sat) Base-Emitter Saturation Voltage IC=10mA, B =0.5mA 700 mV I =100mA, I =5mA 900 mV C B VBE(on) Base-Emitter On Voltage VCE=5V, C =2mA 580 660 700 mV VCE=5V, C =10mA 720 mV T Current Gain Bandwidth Product VCE=5V, C =10mA, f=100MHz 300 MHz Cob Output Capacitance VCB=10V
in „Mikrocontrollerboard: Funktioniert das?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
bc547.pdf
. Max. Units CBO Collector Cut-off Current VCB=30V, E =0 15 nA hFE DC Current Gain VCE=5V, C =2mA 110 800 VCE(sat) Collector-Emitter Saturation VoltIC=10mA, B =0.5mA 90 250 mV IC=100mA, B =5mA 200 600 mV VBE(sat) Base-Emitter Saturation Voltage IC=10mA, B =0.5mA 700 mV I =100mA, I =5mA 900 mV C B VBE(on) Base-Emitter On Voltage VCE=5V, C =2mA 580 660 700 mV VCE=5V, C =10mA 720 mV T Current Gain Bandwidth Product VCE=5V, C =10mA, f=100MHz 300 MHz Cob Output Capacitance VCB=10V
in „Mikrocontrollerboard: Funktioniert das?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
bc547.pdf
. Max. Units CBO Collector Cut-off Current VCB=30V, E =0 15 nA hFE DC Current Gain VCE=5V, C =2mA 110 800 VCE(sat) Collector-Emitter Saturation VoltIC=10mA, B =0.5mA 90 250 mV IC=100mA, B =5mA 200 600 mV VBE(sat) Base-Emitter Saturation Voltage IC=10mA, B =0.5mA 700 mV I =100mA, I =5mA 900 mV C B VBE(on) Base-Emitter On Voltage VCE=5V, C =2mA 580 660 700 mV VCE=5V, C =10mA 720 mV T Current Gain Bandwidth Product VCE=5V, C =10mA, f=100MHz 300 MHz Cob Output Capacitance VCB=10V
in „Displaybeleuchtung mit PWM dimmen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
18481_BC547_data.pdf
. Typ. Max. Units CBO Collector Cut-off Current VCB=30V, E =0 15 nA hFE DC Current Gain VCE=5V, C =2mA 110 800 VCE(sat) Collector-Emitter Saturation VoltIC=10mA, B =0.5mA 90 250 mV IC=100mA, B =5mA 200 600 mV VBE(sat) Base-Emitter Saturation Voltage IC=10mA, B =0.5mA 700 mV I =100mA, I =5mA 900 mV C B VBE(on) Base-Emitter On Voltage VCE=5V, C =2mA 580 660 700 mV VCE=5V, C =10mA 720 mV T Current Gain Bandwidth Product VCE=5V, C =10mA, f=100MHz 300 MHz Cob Output Capacitance VCB=10V
in „NPN Transistor Kennlinie verstehen“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
BC547.pdf
. Typ. Max. Units CBO Collector Cut-off Current VCB=30V, E =0 15 nA hFE DC Current Gain VCE=5V, C =2mA 110 800 VCE(sat) Collector-Emitter Saturation VoltIC=10mA, B =0.5mA 90 250 mV IC=100mA, B =5mA 200 600 mV VBE(sat) Base-Emitter Saturation Voltage IC=10mA, B =0.5mA 700 mV I =100mA, I =5mA 900 mV C B VBE(on) Base-Emitter On Voltage VCE=5V, C =2mA 580 660 700 mV VCE=5V, C =10mA 720 mV T Current Gain Bandwidth Product VCE=5V, C =10mA, f=100MHz 300 MHz Cob Output Capacitance VCB=10V
in „Arduino. Transistor schaltet nicht richtig“ · Mikrocontroller und Digitale Elektronik ·
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PDF
BC547B.pdf
. Typ. Max. Units CBO Collector Cut-off Current VCB=30V, E =0 15 nA hFE DC Current Gain VCE=5V, C =2mA 110 800 VCE(sat) Collector-Emitter Saturation VoltIC=10mA, B =0.5mA 90 250 mV IC=100mA, B =5mA 200 600 mV VBE(sat) Base-Emitter Saturation Voltage IC=10mA, B =0.5mA 700 mV I =100mA, I =5mA 900 mV C B VBE(on) Base-Emitter On Voltage VCE=5V, C =2mA 580 660 700 mV VCE=5V, C =10mA 720 mV T Current Gain Bandwidth Product VCE=5V, C =10mA, f=100MHz 300 MHz Cob Output Capacitance VCB=10V
in „Basiswiderstand richtig berechnet?“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
BC547_datasheet.pdf
. Typ. Max. Units CBO Collector Cut-off Current VCB=30V, E =0 15 nA hFE DC Current Gain VCE=5V, C =2mA 110 800 VCE(sat) Collector-Emitter Saturation VoltIC=10mA, B =0.5mA 90 250 mV IC=100mA, B =5mA 200 600 mV VBE(sat) Base-Emitter Saturation Voltage IC=10mA, B =0.5mA 700 mV I =100mA, I =5mA 900 mV C B VBE(on) Base-Emitter On Voltage VCE=5V, C =2mA 580 660 700 mV VCE=5V, C =10mA 720 mV T Current Gain Bandwidth Product VCE=5V, C =10mA, f=100MHz 300 MHz Cob Output Capacitance VCB=10V
in „Frage zur Berechnung von Basiswiderstand BC547B mit Motor 5V“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
sfh3310.pdf
S = f (λ ) I = f (E ), V = 5 V C = f (V ) rel PCE V CE CE CE 100 OHF00851 1000 OHF00852 4.0 pF % µA 3.5 I C S rel80 PCE CE 3.0 70 100 2.5 60 50 2.0 V λ 40 1.5 30 10 1.0 20 0.5 10 0.0 0 1 1E-03 1E-02 1E-01 1E+00 1E+01 1E+02 400 500 600 700 800 900 nm 1100 1 10 100 lx 1000 V V λ E V CE Collector-Emitter
in „Suche Ersatztyp zu SFH3310“ · Mikrocontroller und Digitale Elektronik ·
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PDF
SFH309FA.pdf
nm Photocurrent 2 E e= 0.5 mW/cm , VCE = 5 V IPCE 0.4 ... 0.8 0.63 ... 1. 1.0 ... 2.0 1.6 ... 3.2 mA SFH 309: 25 E v= 1000 Ix, Normlicht/ IPCE 1.5 4.5 7.2 mA standard light A,V CE= 5 V 2.8 Anstiegszeit/Abfallzeit t,t 5 6 7 8 s r f Rise and fall time IC= 1 mA, V CC= 5 V, R = 1 k L Kollektor-Emitter-
in „Fototransistor oder Fotodiode?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Reflexlichtschranke_SFH9201.pdf
Max.timein (Iron temp.) stand. 020 (solderbath) peak zone (package peak zone temp.) SFH 9201 4 n. a. — 245°C 10 sec. n.a. Bitte Verarbeitungshinweise für SMT-Bauelemente beachten! Please observe the handling guidelines for SMT devices! Kennwerte ( T = 25 °C) A Characteristics Bezeichnung Symbol Wert
in „günstige Lichtschranke“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Monitorhalterung2_2.ino
Value = analogRead(S4); _S5_Value = analogRead(S5); } // Achse Wand if ((_S1_Value < 250) && (_Achse_A_1_Value == 1)) //Achse Wand ausfahren (links) { digitalWrite(K1_A_0, LOW); digitalWrite(K4_A_1, LOW); } if ((_S1_Value > 750 && _S1_Value < 900 && _Achse_A_0_Value == 1)) //Achse Wand einfahren (rechts) { digitalWrite(K1_A_0, LOW); digitalWrite(K4_A_1, HIGH); } if ((_S1_Value > 251 && _S1_Value < 749) || (_Achse_A_1_Value == 0 && _S1_Value < 250) || (_Achse_A_0_Value == 0 && _S1_Value > 750)) //Achse Wand Stopp { digitalWrite
in „Falsche Analogwerte im Seriellen Monitor“ · Mikrocontroller und Digitale Elektronik ·
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PDF
vcnl4040.pdf
specified) Axis Title 100 10000 90 ALS-CH PS-CH ) 80 ( 70 u 1000 e t 60 e e l O l l d d 50 s d 2 i 40 1 2 a r 30 100 o N 20 10 0 10 400 500 600 700 800 900 1000 λ - Wavelength (nm) 2nd line Fig. 4 - Normalized Spectral Response Fig. 7 -DDvs.Temperature Fig. 5 - Forward Current I= f (V ) Fig. 8 - ALS View Angle
in „VNCL4040 Vorwiderstand?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
00037525_0_SPL_PL90_3.pdf
λ T A= 25 °C, Popt= 75 W) 12 OHF0056120 OHF00565 1.00 V F V W Popt Ι rel 10 100 0.75 8 80 6 60 0.50 4 40 0.25 2 20 0 0 0 0 10 20 30 40 A 50 880 890 900 910 nm 930 IF λ Far-field distribution parallel to junction
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PDF
e1022.pdf
the user. exceptional performance of the - Easy to integrate best-selling ScanPlus 1800Vista™ into a very compact,industry- Integrating an OEM module has standard form factor: never been so easy. - Unique reading performance Designing a new product? The E1022 is easy to control.It The E1022 can read
in „[V] 2 Honeywell Intermec 1D Barcodescannermodule E1022“ · Markt ·
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Datei
20221003a-Einspeise.ino
/ UVLO Batterie mit Hysterese int battpin = A0; unsigned long battist; unsigned long battstart; int battwerthoch = 464; // 1023*11V*39K:(150K + 39K):5V int battwerttief = 378; // 1023*9V0*39K:(150K + 39K):5V int battwertovlo = 676; // 1023*16V*39K
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PDF
zmm33.pdf
1 is a diode, operated in forward. The cathode, indicated by a ring, is to be connected to the negative pole. Die ZPD 1 ist eine in Durchlafl betriebene Einzelchip-Diode. Die durch den Ring gekennzeichnete Kathode
in „Vom Testaufbau in die Wirklichkeit“ · Mikrocontroller und Digitale Elektronik ·
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PDF
High-Voltage-PCDesign.pdf
dielectric rating and increase the effects of corona aging. 8 FR4 has an initial dielectric rating of 800-900 Volts per mil but due to aging effects, a more realistic value is only 300 Volts. I strongly suggest you manufacture your prototype boards with a few combinations of material thickness. One board I
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PDF
FS1273_NEU_R8b_High_Power_DPM.pdf
+OUT D Trafobeschaltunggezeigtfür120VAC,60HZ R8B D 0 30V,0.01 2A 15FR200E 1N5402 R4 R4B Spannungsvergleichverstärker VREF+ NETZSCHALTER 10R 10R Bu1 GL1 R9 NEU F1 C16 DPM- L T1 100n KBL02 470K 1A SB Q2 Q2B R5 beinflußt den Neu C19 CURRENTMETER(0 200mV) CURRENTSET E
in „Labornetzgerät als Projekt“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
TUNER_2000_DHC.pdf
Select MasterPrescaler (7) (6) Factor Out Out (8) (5) TUNE MASTER = 0...30 V DC Band Select = 0 V Band A (80 ... 160 MHz) Band Select = 5 V Band B (160 ... 500 MHz) Band Select = 12 V Band C (430...900 MHz) Scale Factor Input = Open by 64 Scale Factor Input = Vcc by 128 Scale Factor Input = GND by 256 OUTP
in „Anschlussbelegung Tuner 2000 DHC mit TDA5330T“ · HF, Funk und Felder ·
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PDF
mosfet_K3673.pdf
IGSS V GS=±30V V DS=0V 100 nA Drain-source on-state resistance RDS(on) ID=5A V GS=10V 0.91 1.18 Ω gfs S Forward transcondutance ID=5A VDS=25V 5 9.5 Input capacitance Ciss V DS=25V 900 1350 pF Output capacitance Coss V GS=0V 140 210
in „Mosfet K3673 01“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
BTS_100_High_Side.pdf
leakage current I GSS VGS = — 20 V,V DS= 0 Tj= 25 °C — — 10 — 100 nA Tj= 150 °C — — 2 — 4 A Drain-source on-state resistance R DS(on) VGS = — 10 V, D = — 5 A — 0.25 0.3 Dynamic Characteristics Forward transconductance gfs S VDS ≥ 2 ×ID ×R DS(on)maD = — 5 A 1.5 2.3 4.0
in „Motorsteuerung mit kollektorschaltung“ · Mikrocontroller und Digitale Elektronik ·
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PDF
bts100.pdf
leakage current I GSS VGS = — 20 V,V DS= 0 Tj= 25 °C — — 10 — 100 nA Tj= 150 °C — — 2 — 4 A Drain-source on-state resistance R DS(on) VGS = — 10 V, D = — 5 A — 0.25 0.3 Dynamic Characteristics Forward transconductance gfs S VDS ≥ 2 ×ID ×R DS(on)maD = — 5 A 1.5 2.3 4.0
in „BTS 100 Ersastzlösung“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Schaltplan_Cocktailmaschine.pdf
3.3 Relais_12V Relais_24V / 3.6 Arduino_5V_2 -Relaiskarte_1 /6.1 VCC IN1 IN2 IN3 IN4 IN5 IN6 IN7 IN8 A1 A1 A1 A1 A1 A1 A1 A1 -K1 -K2 -K3 -K4 -K5 -K6 -K7 -K8 A2 A2 A2 A2 A2 A2 A2 A2 GND Arduino_GND_2 + + + + + + + + 3.6 + + + + + + + + M M M M M M M M -M1 -M2 -M3 -M4 -M5 -M6 -M7 -M8 - - - - - - - - - -
in „Cocktailmaschine für Anfänger“ · Mikrocontroller und Digitale Elektronik ·
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PDF
71006566_de.pdf
2 8-9A1 Messystem f. X,Y-Achse LS 403 C 520mm Heidenhain 27.071735 1 10A1 Messystem f. Z-Achse LS 403 C 420mm Heidenhain 27.071734 1 19A1-2 Steuerung CNC 232 Heidenhain 93.000364 1 28A1 Platine EK 10/SM Murr
in „CRT Monitor gegen VGA Monitor tauschen“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
MMS8550.pdf
• Capable of 0.3Watts(Tamb=25 C) of Power Dissipation. Plastic-Encapsulate • Collector-current 0.5A • Collector-base Voltage 40V Transistor O O • Operating and storage junction temperature range: -55 C to +150 C • Marking : 2TY • Epoxy meets UL 94 V-0 flammability rating • Moisure Sensitivity Level 1 SOT-23 A D ElectricalCharacteristics@25CUnlessOtherwiseSpecified C Symbol Parameter Min Max Units C B OFFCHARACTERISTICS V(BR)CBO Collector-Base Breakdown Voltage 40 --- Vdc (C =100uAdc, E =0) B E F E V(BR)CEO
in „Transistor Schalter“ · Analoge Elektronik und Schaltungstechnik ·
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Datei
logFile.txt
/usr/X11R6/lib/modules/extensions/libGLcore.a Skipping "/usr/X11R6/lib/modules/extensions/libGLcore.a:m_debug_clip.o": No symbols found Skipping "/usr/X11R6/lib/modules/extensions/libGLcore.a:m_debug_norm.o": No symbols found Skipping "/usr/X11R6
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PDF
tps78001.pdf
, V VSET = 1.2V, V OUT = 2.2V TPS780330220 TPS780330220 1000 T = +125°C 1000 T = +125°C 900 J 900 J 800 800 T J +85°C 700 700 TJ= +85°C A 600 A 600 ( ( N500 N 500 IG400 IG 400 300 300 TJ= +25°C TJ= -40°C TJ= +25°C T J -40°C 200 200 100 100 0 0 2.7 3.2 3.7 4.2 4.7 5.2 5.7 2.7 3.2 3.7 4.2 4.7
in „Ultra Low Power Versorgung aus Batterie, 3,3V und 5V“ · Analoge Elektronik und Schaltungstechnik ·
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Bild
Schaltplan eines elektronischen Weidezaungerätes
D6 1N4007 D8 ZD 630V T2 BC 548 C B E R3 220K R4 1M C8 10u 9V Batt. 10u 16V 1K R9 Dc1 1N106D Tic ER900 Masse K A G Schaltbild des elektronischen Weidezaungerätes
in „Weidezaun gegen Schnecken mit Netztrafo und Rohr DN160 für Hobbygärtner“ · Projekte & Code · · Schaltpläne
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Datei
Beispiel.txt
#define Eingang 0 // Pin5 ist Analogeingang A0 -> da muss ich dann die 0 im Programm verwenden?! #define Ausgang1 0 #define Ausgang2 1 #define Grenze1 450 // maximaler Wert: 1048 #define Grenze2 750 #define Grenze3 900 void setup() { // put your
in „Digispark Analogeingang verwenden“ · Mikrocontroller und Digitale Elektronik ·
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PDF
isec05poster_pq11_a3.pdf
/ Hz 10 The largest C g ratio we found: BF862 TRACE A:Ch1 PSD TRACE A MarkerD 50 000.0 Hz 44.283 nVrms/rtHz Not promising /div g m 85AY* = Vrms/rtHz600 000 Hz 432.41 nVrms/rtHz 115 Y* = Vrms/rtHz T = 5.5 K, Z = 4.2 kΩ @ 10 MHz (theory) dB* dB* n n Bias
in „Meßverstärker für 1/f-Rauschen 0.1 - 10 Hz“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
Disassembler8048_mc1981.pdf
,"MOV &R1/A"/A3,"MOVP A,&A",A5,CLR F1 420 DATA A7,CPL C,A8,"MOV RO,A",A9,"MOV R1,A",AA,"MOV R2,A",AB 430 DATA "MOV R3,A",AC,"MOV R4,A",AD,"MOV R5,A",AE 440 DATA "MOV R6,A",AF,"MOV R7,A",B5,CPL F1,C5,SEL RBO,C7 450
in „80C48 MCS48 Assembler“ · Mikrocontroller und Digitale Elektronik ·
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PDF
JP7-T-family.pdf
using the Set Operating Mode command in SiRFdemo. During the subsequent background cycles or when a user requests a position update (the RESET_N has to be used) a reset is generated and a hot start will be typically performed which may take up to a maximum of 8 seconds. The receiver wakes up, computes
in „wo finde ich RX und TX an GPS-Maus SIRF II?“ · Mikrocontroller und Digitale Elektronik ·
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Bild
Schaltplan eines Netzteil-PC-Boards
NAPS-9580 U04 POWER SUPPLY CIRCUIT PC BOARD JL504B P901 F901 F901A F901B L1 C902 472/250V NPN-3557 RELAY NPT-1467 T901 C904 223 1SS355 T902 NPT-1520 C905 223 D901 1SS355 D902 1SS355 D903 1SS355 C906 470/16V P904 223K C911 4.7/50V D911 UD235.19 C914 104Z R902 3.9K R903 1K C903 5V S-812C50AJA P903 J903 STBY+ B 2 S3 1 3.2 S3 2 GND 0 C900 to MAIN PWB R905 1(1W) R906 1(1W) R907 4.7(1/2W) S2 2.4 S2 4 S2 1.6 S3 1.4 S3 1.2 S3 1 CT2 2 S2 CT2 1 S1 1 S1 2 S1 1
in „Reparatur Onkyo CR-525“ · Analoge Elektronik und Schaltungstechnik · · Schaltpläne
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PDF
AXP202_PMU.pdf
and Voltage AC-adaptor with voltage/current-limit o On-chip Coulometer and Fuelgauge with High (4.4V/900mA/500mA/100mA) Precision o Equivelent Resistance of Batter Power Path o Provide Various Power Management data such as less than 75mΩ Transient Power Consumption(mAor mW), • Fully Integrated PWM Charger
in „LilyGo T-Watch 2020 v1 Micropython“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Lenovo_Z50-70_NM-A273_ACLUA_MB_Rev0.3_schematic_.pdf
0402_5% R26 1 @ 2 0_0402_5% USB20_N4_CONN Touch Screen USB20_N5 4 3 USB20_N5_R +3VALW 3 2 4 3 CMM21T-900M-N_4P R27 1 @ 2 0_0402_5% 1 @ 1 D2 ForEMI USB20_P4 1 L13 @ 2 USB20_P4_CONN 2 AZC199-02S.R7G_SOT23-3 A 1 2 2 @ A AZ5215-01F_DFN1006P2E2 USB20_N4 4 4 3 3 USB20_N4_CONN 1 CMM21T-900M-N_4P ForEMI Security
in „Laptop defekt: Kommunikation EC - PCH - CPU“ · Mikrocontroller und Digitale Elektronik ·
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PDF
BC1.2_FINAL.pdf
. Table 5-2. 3. Indicate thatCDP max and I DCP max limits of 5A come from USB 2.0, and are safety limits. Table 5-2 note 1. 4. Allow PDs to draw up to 1.5A during HS chirp and traffic. Remove previous limits of 560mA and 900mA which was based on HS common mode ranges
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Datei
Singstar.java
0.5; for (int i = 0; i < sampleList.length / 2; i++) { double time = i * SECONDS_PER_SAMPLE; double a = f * time * 2 * Math.PI; sampleList[i] = amp * (Math.sin(a + 1.1) / 1 + Math.cos(a * 2 - 1.2) / 2 + Math.sin(a * 3 - 1.3) / 3 + Math.cos(a * 4 + 1.4) / 4); } for (int i = sampleList.length / 2; i < sampleList.length; i++) { double time = i * SECONDS_PER_SAMPLE; double a = f * time * 2 * Math.PI * HALFTONE_RATIO * HALFTONE_RATIO * HALFTONE_RATIO; sampleList[i] = amp * (Math.sin(a + 1.1) / 1 + Math.cos(a * 2 - 1.2) / 2 + Math.sin(a * 3 - 1.3) / 3 + Math.cos(a * 4 + 1.4
in „Stimm / Gesangsanalyse“ · Digitale Signalverarbeitung / DSP / Machine Learning ·
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PDF
htfs200_800p_e_rev09.pdf
with a R L 10 kΩ Electrical data Primary nominal Primary current Type current rms measuring range PN(A) IPM(A) Features 200 ± 300 HTFS 200-P • Hall effect measuring principle 400 ± 600 HTFS 400-P • Galvanic
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PDF
156408-da-01-en-IR_PHOTOTRANSISTOR_PT331C_PT333_3C__EVL.pdf
Characteristics (Ta=25℃) Parameter Symbol Condition Min. Typ. Max. Units Collector – Emitter IC=100μA BV CEO Ee=0mW/cm 2 30 --- --- V Breakdown Voltage IE=100μA Emitter-Collector BV ECO 2 5 --- --- V Breakdown Voltage Ee=0mW/cm I =2mA Collector-Emitter V C 2 --- --- V Saturation Voltage CE)(satEe=1mW/cm 0.4 Rise Time tr VCE5V --- 15 --- IC=mA μS Fall Time tf RL=1000Ω --- 15 --- 2 Collector Dark Current ICEO Ee=0mW/cm --- --- 100 nA V CE0V On State Collector Current Ee=1mW/cm 2 C(on) VCE5V 0.7 2.5 --- mA Wavelength of λp --- --- 940 --- nm
in „IR sichtbar machen - Schaltung so richtig?“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
WebenchReportsServlettps5450-02.pdf
V 7343-31 59mm2 IRMS= 900.0 mA 4. D1 Vishay-Semiconductor 50WQ10FNPBF 1 $0.41 VF@Io= 770.0 mV VRRM= 100.0 V DPAK 102mm2 5. L1 Wurth Elektronik eiSos 7443634700 1 $6.70 L= 47.0 µH DCR= 12.2 mOhm IND_WE-HCF 540mm2 6. Rfbb Vishay-Dale
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PDF
ET-Aufgaben.pdf
Gesamtwiderstand der Schaltung! Es sind R =25Ω, R =100Ω, R =22Ω, R =55Ω,3 4 R 56Ω, R =6Ω, R =207, R =400Ω8 R =900Ω. 9 205. Berechnen Sie die fehlenden Werte! (U =5V)1 206. Berechnen Sie I !5(φ =A0,5V) Stand 06.10.2021 Seite 31 von 75 Elektrotechnik - Aufgabensammlung 207. Berechnen Sie U 1 (I4=0,5A) 208. Berechnen
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Datei
sysreport.txt
23/2010 CPU: Topology: Dual Core model: Intel Core2 Duo T6600 bits: 64 type: MCP arch: Penryn rev: A L2 cache: 2048 KiB flags: lm nx pae sse sse2 sse3 sse4_1 ssse3 bogomips: 8799 Speed: 1200 MHz min/max: 1200/2200 MHz Core speeds (MHz): 1: 1200 2: 1200 Graphics: Device-1: NVIDIA G96M [GeForce 9600M
in „[v] Bastler-Laptop Asus X70IC Core2 Duo, ohne Akku, 4GB RAM, 20GB HDD, LinuxMint“ · Markt ·
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PDF
Beschreibung_Batteriemonitor_BM-1000.pdf
wwww.roundsolutions.com Diagramme (erzeugt mit „OpenOffice Calc“): Akkuladung 1400 1300 1200 1100 1000 > 900 - 800 n 700 u 600 a L 500 400 300 200 100 0 Zeile 2Zeile 985Zeile 2196Zeile 3480Zeile 4764Zeile 6048Zeile 7331Zeile 8615Zeile 9899 Zeit ---> In diesem Diagramm ist der Ladevorgang für einen Lithium-Ionen
in „Telit GM862-Quad Problem“ · Mikrocontroller und Digitale Elektronik ·
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PDF
ebay.pdf
Versand und Zahlungsmethoden Weiterempfehlen: Der Verkäufer ist für dieses Angebot verantwortlich. A Letzte Aktualisierung am 12:01:03 MEZ, 11. Mär. 2011 Alle Änderungen anzeigen Artikelmerkmale Zustand: Gebraucht: Artikel wurde bereits benutzt. Weitere Einzelheiten, z. B. genaue Beschreibung etwaiger
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Datei
RFM12BPCmd.h
// bit 15 14 13 12 11 10 9 8 7 6 5 4 3 2 1 0 POR // 1 0 1 0 f11 f10 f9 f8 f7 f6 f5 f4 f3 f2 f1 f0 A680h #define CMD_SET_FREQ 0xA000 // [ f11..f0 ] -> Set operation frequency: // 433band: Fc=430+F*0.0025 MHz // 868band: Fc=860+F*0.0050 MHz // 915band: Fc=900+F*0.0075 MHz // Fc is carrier frequency and
in „Rfm12B 686Mhz Bascom Testprogramm.“ · HF, Funk und Felder ·
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PDF
ChanSortBeispiel.pdf
European Telecommunications Satellite Organization 87 NHK WORLD-JAPANUnchecked11373 H Hotbird 6-9 318 900 533 5331 5331 27500 Eutelsat European Telecommunications Satellite Organization 88 UNINETTUNO UNIVERSITYked11013 H Hotbird 6-94511 12500 17718 1880 1880 29900 Sky ItaliSky Italia Spa. 89 Rai Scuola
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PDF
ceramateNFV14DxxxK-DSA00396678.pdf
with a specified 4.4 Max. Clamping ＊ (2) V at ＊ (2) A peak impulse current of Voltage 8× 20μs waveform. Maximum 50〜60Hz power which may be loaded 4.5 Rated Power ＊ (2) W for 1,000 hrs at 85± 2℃ with △V CmA / CmA ≦± 10%. The max. current within the varistor voltage change of less than ± 10% when one impulse 4.6 Withstanding Surge (2) A current (8× 20μs) applied. Current The max. current with a varistor voltage
in „Passender Varistor“ · Analoge Elektronik und Schaltungstechnik ·
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OCP8153_1024241_182644710.pdf
25.0 V 电流采样 V 电流检测阈值 0.99 1.00 1.01 V CS_TH TONMIN 最小导通时间 - 600 - nS 工作电流 IST 启动电流 VCC6.5V - 32 60 uA IOP 典型工作电流 FOP40KHz - 0.7 - mA FB 反馈 TDEMAG_Min 最小退磁时间 - 3 - uS VFB FB 参考电压 - 1 - V TOFFDLY 关断延时 - 136 - nS R 线电压补偿跨阻 - 900 - LNC uV/uA 最大占空比 DMAX 系统工作最大占空比 - - 58 % T 系统工作周期 - 3*Td - F 短路工作频率 - 7.0 - kHz SHORT 过温保护 TSD 热关断温度 - 150 - ℃ TSDHYS 过热保护迟滞 - 50 - ℃ 驱动级 V =10V, I =0.5A - 6.3 8 RDS(ON) NMOS 导通阻抗 GS D Ω BV DSS 功率管击穿电压 VGS=0V, D =250uA 650 - - V IDSS 功率管漏电 VDS520V, V GSV - - 2 uA Page 4 - 9 Rev 1.0 Nov.05, 2012 OCP8153 高精度原边反馈恒流转换器 典型参数特征 18 20 17 19.75 16 19.5 15 19.25
in „1W Power LEDs - 350mA KSQ immer gut ?“ · Analoge Elektronik und Schaltungstechnik ·
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stth20002tv.pdf
STTH20002TV TURBO 2 ULTRAFAST HIGH VOLTAGE RECTIFIER MAIN PRODUCT CHARACTERISTICS IF(AV) Up to 2 x 120 A A1 K1 VRRM 200 V A2 K2 Tj 150°C K1 V (typ) 0.75 V F A1 trrtyp) 41 ns K2 FEATURES AND BENEFITS A2 ■ Suited for SMPS ■ Very Low Forward Losses ISOTOP STTH20002TV1 ■ Low recovery time ■ High surge current
in „Warum mehrere Dioden parallel“ · Analoge Elektronik und Schaltungstechnik ·
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ST24C32_ST24C64_STM.pdf
Input High to Input Low (Bus DHDL tBUF Free) 1.3 1.3 4.7 µs 3 tCLQV AA Clock Low to Data Out Valid 200 900 200 900 200 3500 ns t t Data Out Hold Time After Clock 200 200 200 ns CLQX DH Low fC fSCL Clock Frequency 400 400 100 kHz tW tWR Write Time 10 10 10 ms Note: 1. For a reSTART condition, or following
in „I²c mit Bascom und ATmega“ · Mikrocontroller und Digitale Elektronik ·
