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Datenblatt_WCDMA-GSM-EDGE-Transceiver_MMM7210.pdf
-1980 MHz GC- ΣΔ 2110-2170 MHz GPO 925-960 MHz c EGSM LPF SPI 2 800/900 a M 2/4 GR3 GR2 GR1 1930-1990 MHzh Band II & PCS DIV DigRF 1800/1900 a 3G NC M GC- 1805-1880 MHh DCS LPF ΣΔ 2100 a M 2110-2170 MHz SPI t Band I NC GPO M 2 MC13853 MMM7210 RxModulelter Transceiver
in „GSM-Modul (SIM908) nur analoge Ausgänge für Anruf?“ · HF, Funk und Felder ·
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tl431.pdf
PRECISION SHUNT REGULATORS SLVS005O – JULY 1978 – REVISED JUNE 2002 equivalent schematic † CATHODE 800 Ω 800 Ω 20 pF REF 150 Ω 3.28 kΩ 4 kΩ 10 kΩ 2.4 kΩ 20 pF 7.2 kΩ 1 kΩ 800 Ω ANODE † All component values are nominal. ‡ absolute maximum ratings over operating free-air temperature range (unless otherwise
in „Referenzspannungsprobleme“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
SG3525ANG.pdf
Figure 2. Lab Test Fixture http://onsemi.com 5 SG3525A 200 500 ) 100 ( ) R 400 T ( 50 I O E 300 T * R = 0 ▯ R S 20 D M R T G D 200 I 10 E I 6 5 7 , , 5.0 RD* D100 RT RT C R T 2.0 0 2.0 5.0 10 20 50 100 200 500 1000 2000 5000 10,000 0.2 0.5 1.0 2.0 5.0 10 20 50 100 200 CHARGE TIME (▯s) DISCHARGE TIME (▯s) Figure 3. Oscillator Charge Time versus R T Figure 4. Oscillator Discharge Time versus R D 1 - 9 + ) V = +20 V ) 2 CP ( 4.0 CC d 100 RZ G TJ= +25⋅C N T 3.5 A 80 O3.0 G V G 60 O 2.5 T RZ= 20 k T O 40 R2.0 , T 1.5 O 20 S Source Sat, CV OH ) V ,t1.0
in „Gegentaktwandler Überschwingen im Leerlauf“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
Varo_TO-3_Flange.pdf
JunctionOperating and StorageTemperature Range Tj, TSTG -66 to +160 °C NOTE : Allmeasurements taken atT c" 25°C unlessotherwise specified.CaseTemperature, T c,ismeasured on thebottom ofthe i 0.126 inch ofcenter. ELECTRICAL CHARACTERISTICS (At T = 25°C unless otherwise specified) SYMBOL UNITS c IN4436 IN4437
in „"TO-3"-Gehäuse mit Steckzungen - was für Bauteile?“ · Analoge Elektronik und Schaltungstechnik ·
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paste.pdf
determine the actual reflow profile. 200 Peak Temperature 160–180 ˚C 180 160 )140 C (120 Reflow time r t 60–90 s r100 e Soak Temp. p 80 110–139 ˚C e T 60 Preheat 40 ≤1˚C/s 20 0 0 50 100 150 200 250 time (s) The Preheat Zone, which is also referred to as the ramp zone, is used to elevate the temperature
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recommended.pdf
TPS62111 LINE TRANSIENT LOAD TRANSIENT V I 8.4 V V = 3.3 V O C1 = 5 V/div ILOAD = 150 mA to 1350 mA T A 25°C V = 50 mV/div O C2 = 50 mV/div IO= 500 mA/div VI= 7.2 V to 12 V VO= 3.3 V LOAD = 800 mA T = 25°C A t − Time = 2 ms/div t − Time = 20 μ s/div Figure 11. Figure 12. TPS62111 TPS62111 OUTPUT RIPPLE START-UP TIMING VI= 8.4 V,OV = 3.3 V LOAD = 100 mA, TA= 25°C VI= 12 V, O = 3.3 V LOAD = 800 mA, TA= 25°C CH1 = 20 mV/div CH1 = 10 V/div CH2 = 5 V/div CH2 = 1 V/div CH3 = 5 V/div CH4 = 500 mA/div CH4 = 200 mA/div t − Time = 5 μ s/div t − Time = 200 μ s/div Figure 13. Figure 14. 10 TPS62110
in „Kurz vorm Verzweifeln“ · Analoge Elektronik und Schaltungstechnik ·
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TPS6211.pdf
TPS62111 LINE TRANSIENT LOAD TRANSIENT V I 8.4 V V = 3.3 V O C1 = 5 V/div ILOAD = 150 mA to 1350 mA T A 25°C V = 50 mV/div O C2 = 50 mV/div IO= 500 mA/div VI= 7.2 V to 12 V VO= 3.3 V LOAD = 800 mA T = 25°C A t − Time = 2 ms/div t − Time = 20 μ s/div Figure 11. Figure 12. TPS62111 TPS62111 OUTPUT RIPPLE START-UP TIMING VI= 8.4 V,OV = 3.3 V LOAD = 100 mA, TA= 25°C VI= 12 V, O = 3.3 V LOAD = 800 mA, TA= 25°C CH1 = 20 mV/div CH1 = 10 V/div CH2 = 5 V/div CH2 = 1 V/div CH3 = 5 V/div CH4 = 500 mA/div CH4 = 200 mA/div t − Time = 5 μ s/div t − Time = 200 μ s/div Figure 13. Figure 14. 10 TPS62110
in „DC DC Wandler Pins“ · Analoge Elektronik und Schaltungstechnik ·
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TPS6211.pdf
TPS62111 LINE TRANSIENT LOAD TRANSIENT V I 8.4 V V = 3.3 V O C1 = 5 V/div ILOAD = 150 mA to 1350 mA T A 25°C V = 50 mV/div O C2 = 50 mV/div IO= 500 mA/div VI= 7.2 V to 12 V VO= 3.3 V LOAD = 800 mA T = 25°C A t − Time = 2 ms/div t − Time = 20 μ s/div Figure 11. Figure 12. TPS62111 TPS62111 OUTPUT RIPPLE START-UP TIMING VI= 8.4 V,OV = 3.3 V LOAD = 100 mA, TA= 25°C VI= 12 V, O = 3.3 V LOAD = 800 mA, TA= 25°C CH1 = 20 mV/div CH1 = 10 V/div CH2 = 5 V/div CH2 = 1 V/div CH3 = 5 V/div CH4 = 500 mA/div CH4 = 200 mA/div t − Time = 5 μ s/div t − Time = 200 μ s/div Figure 13. Figure 14. 10 TPS62110
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TPS6211.pdf
TPS62111 LINE TRANSIENT LOAD TRANSIENT V I 8.4 V V = 3.3 V O C1 = 5 V/div ILOAD = 150 mA to 1350 mA T A 25°C V = 50 mV/div O C2 = 50 mV/div IO= 500 mA/div VI= 7.2 V to 12 V VO= 3.3 V LOAD = 800 mA T = 25°C A t − Time = 2 ms/div t − Time = 20 μ s/div Figure 11. Figure 12. TPS62111 TPS62111 OUTPUT RIPPLE START-UP TIMING VI= 8.4 V,OV = 3.3 V LOAD = 100 mA, TA= 25°C VI= 12 V, O = 3.3 V LOAD = 800 mA, TA= 25°C CH1 = 20 mV/div CH1 = 10 V/div CH2 = 5 V/div CH2 = 1 V/div CH3 = 5 V/div CH4 = 500 mA/div CH4 = 200 mA/div t − Time = 5 μ s/div t − Time = 200 μ s/div Figure 13. Figure 14. 10 TPS62110
in „QFN Gehäuse.“ · Analoge Elektronik und Schaltungstechnik ·
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TPS6211.pdf
TPS62111 LINE TRANSIENT LOAD TRANSIENT V I 8.4 V V = 3.3 V O C1 = 5 V/div ILOAD = 150 mA to 1350 mA T A 25°C V = 50 mV/div O C2 = 50 mV/div IO= 500 mA/div VI= 7.2 V to 12 V VO= 3.3 V LOAD = 800 mA T = 25°C A t − Time = 2 ms/div t − Time = 20 μ s/div Figure 11. Figure 12. TPS62111 TPS62111 OUTPUT RIPPLE START-UP TIMING VI= 8.4 V,OV = 3.3 V LOAD = 100 mA, TA= 25°C VI= 12 V, O = 3.3 V LOAD = 800 mA, TA= 25°C CH1 = 20 mV/div CH1 = 10 V/div CH2 = 5 V/div CH2 = 1 V/div CH3 = 5 V/div CH4 = 500 mA/div CH4 = 200 mA/div t − Time = 5 μ s/div t − Time = 200 μ s/div Figure 13. Figure 14. 10 TPS62110
in „Trennung von analoger und digitaler Spannung“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
MAX481_422.pdf
B - A = 2V 300 1000 ns 4 X SWITCHING CHARACTERISTICS—MAX483, MAX487/MAX488/MAX489 A (CC = 5V ±5%, T A T MIN to MAX , unless otherwise noted.) (Notes 1, 2) M – PARAMETER SYMBOL CONDITIONS MIN TYP MAX UNITS tPLH Figures 6 and 8,DIFF= 54Ω, 250 800 2000 7 Driver Input to Output tPHL CL1= C L2= 100pF 250 800 2000 ns 8 4 Driver Output Skew to Output SKEW Figures 6 and 8,DIFF= 54Ω, 100 800 ns CL1= C L2= 100pF X Figures 6 and 8,DIFF= 54Ω, A Driver Rise or Fall Time tR Ft CL1= C L2= 100pF 250 2000 ns / Driver
in „Problem mit MAX481 Transmitter“ · Mikrocontroller und Digitale Elektronik ·
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MAX485.pdf
B - A = 2V 300 1000 ns 4 X SWITCHING CHARACTERISTICS—MAX483, MAX487/MAX488/MAX489 A (CC = 5V ±5%, T A T MIN to MAX , unless otherwise noted.) (Notes 1, 2) M – PARAMETER SYMBOL CONDITIONS MIN TYP MAX UNITS tPLH Figures 6 and 8,DIFF= 54Ω, 250 800 2000 7 Driver Input to Output tPHL CL1= C L2= 100pF 250 800 2000 ns 8 4 Driver Output Skew to Output SKEW Figures 6 and 8,DIFF= 54Ω, 100 800 ns CL1= C L2= 100pF X Figures 6 and 8,DIFF= 54Ω, A Driver Rise or Fall Time tR Ft CL1= C L2= 100pF 250 2000 ns / Driver
in „STM32 UART Kommunikation -> Langsamer uC Tod“ · Mikrocontroller und Digitale Elektronik ·
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SFH205F.pdf
Top;Tstg — 55 ... + 100 °C Operating and storage temperature range Löttemperatur (Lötstelle 2 mm vom T 230 °C S Gehäuse entfernt bei Lötzeit 3 s) Soldering temperature in 2 mm distance from case bottom t 3 s) Sperrspannung VR 32 V Reverse voltage VerlustleistungTA = 25 °C Ptot 150 mW Total power dissipation
in „Selbstlernende IR-Fernbedienung gesucht (4 Tasten)“ · Offtopic ·
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PDF
lcd_datasheet.pdf
ΔVID - - 35 mV Tolerance of VCM ΔVCM - - 35 mV [Note] *1) zPower sequence(VCC turn on conditions) : t1 ≦ 10 ms 1sec ≦ t5 0.01ms < t2 ≦ 50ms 200ms≦t6 0.01ms< t3 ≦ 50ms 200ms≦t7 0.01ms< t4 ≦10 ms Vin=3.3V 3.0V 3.0V LCD Power Supply data Logic Signal 0.3V 0.3V 0.3V t1 t2 t3 t4 t5 VL Backlight Power Supply
in „Laptop LCD inverter board frage“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
CLAA154WA05AN_ASUS_A6JC_display.pdf
ΔVID - - 35 mV Tolerance of VCM ΔVCM - - 35 mV [Note] *1) zPower sequence(VCC turn on conditions) : t1 ≦ 10 ms 1sec ≦ t5 0.01ms < t2 ≦ 50ms 200ms≦t6 0.01ms< t3 ≦ 50ms 200ms≦t7 0.01ms< t4 ≦10 ms Vin=3.3V 3.0V 3.0V LCD Power Supply data Logic Signal 0.3V 0.3V 0.3V t1 t2 t3 t4 t5 VL Backlight Power Supply
in „Laptop LCD ansteuern wollen // FPGA einstieg ?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
BSN10.pdf
halfpage k k (2) 1.1 1.6 (1) 1 1.2 0.9 0.8 0.8 0.4 0.7 −50 0 50 100 o 150 −50 0 50 100 o 150 Tj( C) T j C) R DS (on )t Tj k = R--------at 25 °C.----------------------------- DS (on ) V at T Typical DS(on)at 100 mA/10 V. k = ---------------.---------------------- (1) D = 10 mA; VGS = 2.5 V. V GS (th )
in „Pegelwandler lässt TWI erfrieren“ · Mikrocontroller und Digitale Elektronik ·
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Datei
singen-release.c
&pinDacL); //for(n=0; n<1;n++); // wait loop not needed. PIO_Set(&pinDacL); } int main() { //int64_t t; FIXP omega=(int32_t)(2*pi * 50); FIXP gain; FIXP L1,L2,L3; // actual values for DAC (range: -1...1) FIXP L1_0,L2_0,L3_0; FIXP L1_1,L2_1,L3_1; FIXP T; // sample time int64_t tsOld=0; void configureMCK
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BC_337-XX.pdf
Collector–Base Voltage VCBO 50 30 Vdc Emitter–Base Voltage VEBO 5.0 Vdc Collector Current — Continuous IC 800 mAdc Total Device DissipatioA @ T = 25⋅C PD 625 mW Derate above 25⋅C 5.0 mW/⋅C Total Device DissipatioC @ T = 25⋅C PD 1.5 Watt Derate above 25⋅C 12 mW/⋅C Operating and Storage Junction TJ, stg –55 to
in „Transistorberechnungen“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
datasheet.pdf
COLLECTOR-EMITTER SATURATION SWITCHING TIME VS. COLLECTOR VOLTAGE (TYPICAL) CURRENT (TYPICAL) 2 5 10 O T=25°C ) 7 V C=300V T T=125°C s 5 IB1=–B2=3A A 4 t 3 Tj=25°C U V s 2 Tj=125°C T t , 1 s S s o 10 R E 3 t 7 T V E 5 I M 3 M E T 2 - A 2 G R L I 100 on T O IC=200A H 7 tf C V 1 T 5 L C=150A I 3 L C=50A C
in „Was ist das für eine Art Transistormodul?“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Empfangen.c
include <avr/io.h> #include <inttypes.h> #include <avr/interrupt.h> #include <util/delay.h> uint16_t RFM12B_spi(uint16_t); void RFM12B_init_hard(); void RFM12B_init_soft(); void RFM12B_put(uint8_t); void RFM12B_get(void); volatile uint8_t receive[2]; uint8_t index = 0; // SPI SCK (clock, output) #define
in „RFM12b an Atmega168 - Empfangsprobleme“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Sender.c
include <avr/io.h> #include <inttypes.h> #include <avr/interrupt.h> #include <util/delay.h> uint16_t RFM12B_spi(uint16_t); void RFM12B_init_hard(); void RFM12B_init_soft(); void RFM12B_put(uint8_t); void RFM12B_get(void); volatile uint8_t receive[2]; uint8_t index = 0; // SPI SCK (clock, output) #define
in „RFM12b an Atmega168 - Empfangsprobleme“ · Mikrocontroller und Digitale Elektronik ·
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DBLS201G_DBLS209G_TSC.pdf
600 800 1000 1200 1400 V Maximum RMS voltage VRMS 35 70 140 280 420 560 700 840 980 V Maximum DC blocking voltage VDC 50 100 200 400 600 800 1000 1200 1400 V Maximum average forward rectified current I 2 A
in „Datenblatt Brückengleichrichter“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
KBPC10005_G_Thru910374__KBPC5010_G_Series_RevB-2506187.pdf
50005 5001 5002 5004 5006 5008 5010 V Maximum Rec urrentPeak Reverse Voltage VRRM 50 100 200 400 600 800 1000 V Maximum RMS Bridge Input Voltage VRMS 35 70 140 280 420 560 700 V Maximum DC Blocking Voltage VDC 50 100 200 400 600 800 1000 V Parameter Symbol KBPC10 KBPC15 KBPC25 KBPC35 KBPC50 Unit Maximum
in „Gleichrichter wird bei 10 ampere ca 120-140 Grad Celsius heiss“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
x_amd_phenom_10h_2010_Power_and_Thermal_Data_Sheet_.pdf
MHz 3 800 MT/s 3600 MT/s 8450 2100 MHz 1800 MHz 1800 MHz 3 800 MT/s 3600 MT/s 9450 2100 MHz 1800 MHz 1800 MHz 4 800 MT/s 3600 MT/s 9500 2200 MHz 1800 MHz 1800 MHz 4 800 MT/s 3600 MT/s 9550 2200 MHz 1800 MHz 1800
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HCPL-0500.pdf
CC = 5.0 V n 6N135, HCPL-0500 LR = 4.1 k ) n HCNW135 (R L 4.1 k ) – HCPL-4502/3 (R = 1.9 k )502 – 800 HCNW136 (R = 1.9 k ) A 1500 HCPL-0452/3 L A HCNW4502/3 L L L D D N N 600 I I t t T 1000 T PLH PHL A G A tPLH tPHL A 400 P P O 500 R P P 200 – – tp tp 0 0 -60 -20 20 60 100 -60 -40 -20 0 20 40 60 80
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id_vrla_handbook_e.pdf
425 357 266 188 150 103 83.1 61.9 47.5 39.2 31.5 21.6 11.7 a 5.00A 1.80A 1.00A i 60.0A 20.0A 9.9V 800 546 423 351 263 186 148 101 82.5 61.5 47.2 38.9 31.4 21.5 11.7 r 10.2V 750 532 414 345 260 185 146 99.1 80.3 60.9 46.9 38.6 31.2 21.3 11.6 e T 5.0 10.5V 672 493 385 328 254 182 145 97.0 77.5 60.0 46.6
in „Bleiakku richtig lagern“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
NSI45060JD-D.pdf
value for 65% I . overhead in LEDs overhead reg(SS) 3. Ireg(P)on−repetitive pulse test. Pulse width t ≤ 1 msec. 4. f = 1 MHz, 0.02 V RMS. THERMAL CHARACTERISTICS Characteristic Symbol Max Unit Total Device Dissipation (Note 5A T = 25°C PD 1771 mW Derate above 25°C 14.16 mW/°C Thermal Resistance, Junction
in „Strombegrenzungs-IC?“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
BC337.pdf
Collector–Base Voltage VCBO 50 30 Vdc Emitter–Base Voltage VEBO 5.0 Vdc Collector Current — Continuous IC 800 mAdc Total Device DissipatioA @ T = 25⋅C PD 625 mW Derate above 25⋅C 5.0 mW/⋅C Total Device DissipatioC @ T = 25⋅C PD 1.5 Watt Derate above 25⋅C 12 mW/⋅C Operating and Storage Junction TJ, stg –55 to
in „Stromverstaerkung/Grundlagen Bipolartransistor“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
TCA0372-D-116057.pdf
30 100 − V/mV VO = ±10 V, L = 2.0 k Output Voltage SwingL(I = 100 mA) V OH V TA= +25°C 14.0 14.2 − T = T to T 13.9 − − A low high TA= +25°C V OL − −14.2 −14.0 TA= Tlowto high − − −13.9 Output Voltage SwingL(I = 1.0 A) V OH V VCC = +24 V, EE= 0 V, A = +25°C 22.5 22.7 − V = +24 V, V = 0 V, T = T to T
in „Audio-Verstäker mit Motortreiber TCA0372, auch für Kopfhörer“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
dac8512.pdf
60 CURRENT0 TA= +258C – DATA = 000H LIMIT0 s 4 G 40 o A 10 A V R LIED TO AGND L – – DA=TFAFFFF H O T 20 E V N A 3 N T = +858C E 0 DATA = 800H T W 1 A R RLTIED TO +2V O D U–20 V 2 L C T L U P P TA= +258C P–40 T T0.1 U O U O–60 1 R LIED TO +5V T TA= –408C U NEG DATA = 000H O –80 CURRENT LIMIT 0 0.01 –
in „µC soll Strom rausgeben“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Empfangen.c
include <avr/io.h> #include <inttypes.h> #include <avr/interrupt.h> #include <util/delay.h> uint16_t RFM12B_spi(uint16_t); void RFM12B_init_hard(); void RFM12B_init_soft(); void RFM12B_put(uint8_t); uint8_t RFM12B_get(); void RFM12B_transmit(uint8_t data[], uint8_t length); void RFM12B_receive(uint8
in „RFM12b an Atmega168 - Empfangsprobleme“ · Mikrocontroller und Digitale Elektronik ·
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Datei
rfm12B_STM.c
unsigned char flags, tx_cnt, rx_cnt, tx_id, tx_status, retrans_cnt; unsigned char rx_data[41]; uint16_t crc_ccitt_update(uint16_t crc, uint8_t data); /* Private function prototypes -----------------------------------------------*/ void GPIO_Configuration(void); //void EXTI_Configuration(void); void TIM_Configuration
in „ST32F103 ---> AVR RFM12B“ · Mikrocontroller und Digitale Elektronik ·
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PDF
IMC0805ER1R8J01_VISHS83958_1-2566393_unpw.pdf
MAX. CURRENT 2000/reel (nH) TOL. L Q MIN. (MHz) () (mA) 2.2 0.3 nH, 0.2 nH 250 1000 50 6000 0.06 800 • Compliant to RoHS Directive 2002/95/EC 2.7 0.3 nH, 0.2 nH 250 1000 35 6000 0.08 800 • Halogen-free according to IEC 61249-2-21 definition 3.3 0.3 nH, 0.2 nH 250 1000 60 6000 0.08 800 3.9 0.3 nH, 0.2
in „Pollin SMD-Induktivitäten identifizieren“ · Analoge Elektronik und Schaltungstechnik ·
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SFH_2430.pdf
Ratings Bezeichnung Symbol Wert Einheit Parameter Symbol Value Unit Betriebs- und Lagertemperatur T ; T – 40 … + 100 °C op stg Operating and storage temperature range Sperrspannung V 6 V R Reverse voltage VerlustleistungT = 25 °C P 150 mW A tot Total power dissipation Kennwerte ( T = 25 °C, Normlicht
in „Suche Fotodiode bis ca 20.000 lx“ · Mikrocontroller und Digitale Elektronik ·
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PDF
WS2812D-F8_datasheet.pdf
V IL DIN,ET —— —— 0.3 DD V Hysteresis voltage V D SET —— 0.35 —— V H IN, Switching Characteristics（T =-20～+70℃, V =4.5～5.5V, V =0V, unless otherwise specified） A DD SS Parameter Symbol Condition Min Tpy Max Unit Oscillation Frequency Fosc —— —— 800 —— KHz Transmission delay time tPLZ CL=15pF, DIN→DOUT
in „WS2812 vs PL9823 vs APA106 und sonstige adressierbare RGB“ · Offtopic ·
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PDF
BYV96D.pdf
IEC 134). SYMBOL PARAMETER CONDITIONS MIN. MAX. UNIT VRRM repetitive peak reverse voltage BYV96D − 800 V BYV96E − 1000 V V continuous reverse voltage R BYV96D − 800 V BYV96E − 1000 V F(AV) average forward current T tp55 °C; lead length = 10 mm − 1.5 A see Fig 2; averaged over any 20 ms period; see also Fig 6 T amb= 55 °C; PCB mounting (see − 0.8 A Fig.11); see Fig 3; averaged over any 20 ms period; see also Fig 6 FRM repetitive peak forward current T tp55 °C; see Fig 4 − 17 A T amb= 55 °C; see Fig 5 − 9 A
in „Diode 3YV96D PH?“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
L6562N_PFC__STM.pdf
reference vs. T Figure 11. Delay-to-output vs. T j j VREF 2.6 D(H-L) (V) (ns) 500 Vcc = 12 V Vcc = 12 V 400 2.55 300 2.5 200 2.45 100 2.4 0 -50 0 50 100 150 -50 0 50 100 150 Tj (°C) Tj (°C) Figure 9. OVP current vs.
in „PFC Controller (L6562) statt normalem SNT ControllerSNT“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
MPX4100.pdf
7.87 S 0.220 0.240 5.59 6.10 V 0.182 0.194 4.62 4.93 J G N E F STYLE 1: D 6 PL PIN 2. GROUND 3. VCC -T- 0.13 (0.005) M T B M 4. V1 5. V2 6. VEX CASE 867E-O3 ISSUE D STOVE PIPE PORT (AS) -T- NOTES: C A 1. DIMENSIONING AND TOLERANCING PER ANSI Y14.5M, 1982. E U -Q- 2. CONTROLLING DIMENSION: INCH. INCHES
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PDF
LM2576_1.pdf
which is adjustable between 1.23V and 35V. LM2575, LM2576 (2) Lead bend options for TO-220-5 are: T-XX = Straight in-line; T-XX-V = Vertical Staggered; T-XX-H = Horizontal Pin Function Staggered. Please refer to outline drawings at the end of TO-220-5 1 VIN this datasheet. (3) Only available in tube
in „+3V3 und +5V Netzteil“ · Analoge Elektronik und Schaltungstechnik ·
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LTC4067.pdf
90 12 510 1010 IN = OUT = FLOAT 80 VBAT= 3.7V VCLPROG 10 505 70 V ) 60 A 8 500 1000 L μ ( A ILIM R (T 50 D ( G B T 6 I 495 m IQ 40 ( I V IQ ) 30 4 490 990 20 2 485 10 0 0 480 980 –50 –30 –10 10 30 50 70 90 110 130 150 –50 –30 –10 10 30 50 70 90 110 130 150 –50 –25 0 25 50 75 100 125 150 TEMPERATURE (
in „LTC4067 Vout“ · Analoge Elektronik und Schaltungstechnik ·
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Ac04001d.pdf
, die für einwandfreies Arbeiten eine Stromquelle hoher Qualität erfordern. Victron Atlas Combi 12/800 In dieser Anleitung werden die Installation, die Funktionsweise und der Gebrauch des Victron Atlas Combi Modells 12/800 einschließlich der Sicherheitsvorkehrungen und Kennzeichen beschrieben. victron
in „Kaltleiter für Akku“ · Mikrocontroller und Digitale Elektronik ·
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Motorola_tech_info.pdf
Discharge < 5 picocouloumbs, PHOTODETECTOR V Pr1 = 1280 V(pk) Maximum operating peak voltage, V IDRM = 800 V(pk) Isolation resistance: V = 500 Vdc, 10 11 , T = 100⋅C. I–O A Note:TheisolationpartialdischargetestV Pr1,isperformed ISOLATING afterthecompletionofthehighvoltagewithstand(hipot)tests. DIELECTRIC
in „Isolationsspannung zwischen Doppel-FETs in einem SO8-Gehäuse“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
TM1829_V1.4-eng-by-BNT-131207.pdf
Data transmission. Low-speed mode time Symbol Parameter Test Conditions Min Typical Max Unit values T0l Enter 0 yards, low time 150 300 450 ns T11 Input 1 yard, low time 600 800 1000 ns T0l ' Output 0 yards, low time VDD = 5V -- 340 -- ns T1l ' Output 1 yard, low time GND = 0V -- 680 -- ns T 0 yards
in „Frage zum Digital RGB Stripe vom Aldi“ · Mikrocontroller und Digitale Elektronik ·
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PDF
182853-da-01-en-kmi_151t_drehzahlmesser.pdf
Preliminary specification Integrated rotational speed sensor KMI15/1 handbook, halfpage MRA960 ICC T V CC 14 mA SENSOR V CC R C 7 mA L L tp GND MRA961 t t δ = --- 100% T Fig.6 Output signal as a function of time. Fig.7 Test and application circuit. APPLICATION INFORMATION 1 MRA968 MRA967 handbook, halfpage handbook, halfpage t ICC ( s) (mA) V CC = 20 V 0.8 14 VCC = 12 V t f I CC(high) VCC = 8 V 12 0.6 r 10 0.4 I V = 20 V CC 8 CC V = 12 V CC 0.2 t t 6 ICC(low) V = 8 V r f CC t 0 50 0 50 100 150 200 4 50 0 50 100 150 200 T (
in „Drehzahlmesser für Drehbank“ · Mikrocontroller und Digitale Elektronik ·
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KMI_151T.pdf
Preliminary specification Integrated rotational speed sensor KMI15/1 handbook, halfpage MRA960 ICC T V CC 14 mA SENSOR V CC R C 7 mA L L tp GND MRA961 t t δ = --- 100% T Fig.6 Output signal as a function of time. Fig.7 Test and application circuit. APPLICATION INFORMATION 1 MRA968 MRA967 handbook, halfpage handbook, halfpage t ICC ( s) (mA) V CC = 20 V 0.8 14 VCC = 12 V t f I CC(high) VCC = 8 V 12 0.6 r 10 0.4 I V = 20 V CC 8 CC V = 12 V CC 0.2 t t 6 ICC(low) V = 8 V r f CC t 0 50 0 50 100 150 200 4 50 0 50 100 150 200 T (
in „Fragen zur Magnetkraft?“ · Mikrocontroller und Digitale Elektronik ·
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kmi_151t.pdf
Preliminary specification Integrated rotational speed sensor KMI15/1 handbook, halfpage MRA960 ICC T V CC 14 mA SENSOR V CC R C 7 mA L L tp GND MRA961 t t δ = --- 100% T Fig.6 Output signal as a function of time. Fig.7 Test and application circuit. APPLICATION INFORMATION 1 MRA968 MRA967 handbook, halfpage handbook, halfpage t ICC ( s) (mA) V CC = 20 V 0.8 14 VCC = 12 V t f I CC(high) VCC = 8 V 12 0.6 r 10 0.4 I V = 20 V CC 8 CC V = 12 V CC 0.2 t t 6 ICC(low) V = 8 V r f CC t 0 50 0 50 100 150 200 4 50 0 50 100 150 200 T (
in „Signal am Zündkabel abgreifen ?!“ · Mikrocontroller und Digitale Elektronik ·
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NCP4300_1_.pdf
IK(min) − 55 80 A Dynamic Impedance |KA| T = 25⋅C, I = 1.0 to 80 mA, f ▯ 1.0 KHz − 0.3 0.5 A K TA = 0⋅C to 125⋅CK I = 1.0 mA to 60 mA, f ▯ 1.0 KHz − − 0.6 http://onsemi.com 3 NCP4300A ) 60 TA= 25⋅C V2.620 I = 10 mA A ( K ( E T A E 40 L2.610 R
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KMI15.pdf
Preliminary specification Integrated rotational speed sensor KMI15/1 handbook, halfpage MRA960 ICC T V CC 14 mA SENSOR V CC R C 7 mA L L tp GND MRA961 t t δ = --- 100% T Fig.6 Output signal as a function of time. Fig.7 Test and application circuit. APPLICATION INFORMATION 1 MRA968 MRA967 handbook, halfpage handbook, halfpage t ICC ( s) (mA) V CC = 20 V 0.8 14 VCC = 12 V t f I CC(high) VCC = 8 V 12 0.6 r 10 0.4 I V = 20 V CC 8 CC V = 12 V CC 0.2 t t 6 ICC(low) V = 8 V r f CC t 0 50 0 50 100 150 200 4 50 0 50 100 150 200 T (
in „KMI15/1 Drehzahlsensor reagiert nicht“ · Mikrocontroller und Digitale Elektronik ·
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PHC2300_3_1_.pdf
transistors MDA235 MDA240 handbook, halfpage 10 P handbook, halfpage tot D (W) (A) 1.6 1 (1) 1.2 10− 1 0.8 t P δ= p T − 2 DC 10 0.4 t tp T 0 10− 3 0 40 80 120 160 1 10 102 103 Ts(°C) V (V) DS δ = 0.01;sT = 80 °C. (1) R limitation. DSon Fig.2 Power derating curve. Fig.3 SOAR; N-channel. MGL245 −10 handbook, halfpage D (A) −1 (1) −10 −1 P = tp δ T DC −10 −2 tp t T −10 −3 2 3 −1 −10 −10 V (V) −10 DS δ = 0.01;sT = 80 °C. (1) RDSonlimitation. Fig.4 SOAR; P-channel. 2002 Jul 09 4 Philips Semiconductors Product specification Complementary enhancement
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MC1489.pdf
Power Consumption (V = + 5.0 Vdc) P − 80 130 mW IH C SWITCHING CHARACTERISTICS (V = 5.0 Vdc ± 1%, T = + 25°C, See Figure 3.) CC A Propagation Delay Time (RL= 3.9 kW) tPLH − 25 85 ns Rise Time (RL= 3.9 kW) tTLH − 120 175 ns Propagation Delay Time (RL= 390 kW) tPHL − 25 50 ns Fall Time (RL= 390 kW) tTHL
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