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APPCHP7.pdf
170 s 150 s 20 s 0 20 40 60 80 100 Repetitive δ 0.450 0.425 0.375 0.050 Fig. 13 Single Shot Pulse T=400 s Z 0.900 0.850 0.800 0.130 th Single Shot δ 0.000 0.000 0.000 0.000 T=∞ Zth 0.130 0.125 0.120 0.040 For a single shot pulse, the average power dissipated and average junction temperature are not relevant
in „2N3055 , was sind aktuelle Alternativen ?“ · Analoge Elektronik und Schaltungstechnik ·
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APPCHP7.pdf
170 s 150 s 20 s 0 20 40 60 80 100 Repetitive δ 0.450 0.425 0.375 0.050 Fig. 13 Single Shot Pulse T=400 s Z 0.900 0.850 0.800 0.130 th Single Shot δ 0.000 0.000 0.000 0.000 T=∞ Zth 0.130 0.125 0.120 0.040 For a single shot pulse, the average power dissipated and average junction temperature are not relevant
in „Lineares Netzteil“ · Analoge Elektronik und Schaltungstechnik ·
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Datei
main.c
; printf("5\t250 (Chinese band, ch 0-3)\r\n"); printf("16 *)\t200 or \t\t500\r\n"); printf("17 *)\t400 or \t\t1000\r\n"); printf("18 *)\t500 (Chinese band, ch 0-3)\r\n"); printf("19 *)\t1000 (Chinese band, ch 0-3)\r\n"); printf("*) proprietary channel page\r\n"); printf("\r\nEnter channel page (0, 2,
in „performance Testprogramm Atmel MAC“ · HF, Funk und Felder ·
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DS1302.pdf
OPERATING CHARACTERISTICS (V = 3.3V, T = +25°C, unless otherwise noted.) CC A CC1Ts.VCC1T ICC2Ts.CC2T 400 30 350 25 A A (300 ( E E20 R R C250 C L L P P15 S200 S 10 150 100 5 2.0 3.0VCC1(V)4.0 5.0 2.0 3.0 VCC2V) 4.0 5.0 PIN DESCRIPTION PIN NAME FUNCTION 8 16 Primary Power-Supply Pin in Dual Supply Configuration
in „Wiedermal ein RTC-Problem“ · Mikrocontroller und Digitale Elektronik ·
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Datei
DCF77_Decoder.c
days_in_month = 28; } break; default: days_in_month = 31; break; } if (t <= days_in_month) return; /* t400: Monatswechsel */ tag = 1; // Tag=1 setzen uint8_t mon = monat; mon++; monat = mon; if (mon <= 12) return; // Endwert ueberschritten? monat = 1; // sonst Monat=1 setzen uint8_t j = jahr; j++; jahr =
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A501_LD_LB_LT_W5AM.pdf
Helligkeitsgruppe Strahlungsleistung) Seite 22 1) page 22 Brightness Group Radiant Power Φ E(mW) 3T 355… 400 4T 400… 450 1U 450… 500 2U 500… 560 3U 560… 630 4U 630… 710 Anm.: Die Standardlieferfvon Serientypebeinhalteeine FamiliengruppeDiese bestehtaus 6 Helligkeitsgruppen. Einzelne Helligkeitsgruppen sind nicht
in „2 x LED und Lüfterschaltung 12V“ · Analoge Elektronik und Schaltungstechnik ·
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TPS3510P.pdf
= 4 V 600 DD VDD = 4 V PSON = GND V PSON = GND V m 500 Exploded View e TA= 85°C – g 3 g l l V V u t 400 T = 85°C t p A u u l 2 O 300 v e e TA= –40°C e - TA= 25°C - o o 200 TA= 25°C L L –L 1 – TA= –40°C O TA= 0°C O V V 100 TA= 0°C 0 0 0 25 50 75 100 125 150 0 5 10 15 20 OL – Low-Level Output Current –
in „TPS3510 mit Datemblatt“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
3999fa-1.pdf
Current Limit 600 3.0 2000 SWITCH CURRENT = 1A 1800 2.5 500 1600 ) A ) RILIM/SS= OPEN m ( 2.0 m1400 T 400 N T1200 S E M R = 80.6k C R 1.5 L1000 ILIM/SS V C T C 300 H E 800 I I 1.0 R S W C 600 RILIM/SS= 43.2k S 200 400 0.5 200 100 0 0 –50 –25 0 25 50 75 100 125 150 –50 –25 0 25 50 75 100 125 150 –50 –25
in „Halbbruecke Fragen“ · Analoge Elektronik und Schaltungstechnik ·
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MAX603-MAX604.pdf
I X 1.7 6 A 3 M ( 600 I HIGH-POWER I A A ) T I SOIC I M ( 1.6 E 500 E E O R A A M T 1.5 U O O / I T 400 V V 3 S 1.4 P U P D MAX603, V OUT= 5V U 300 O U 0 R 1.3 8-PIN SO PACKAGE O D S W PAPER EPOXY BOARD M A PLASTIC DIP U 6 P 1.2 SINGLE SIDED M 200 I X 1oz. COPPER X T OPERATING M X 1.1 T J= +125°C M 100
in „Logikanalzyer mit FT232BL“ · Mikrocontroller und Digitale Elektronik ·
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uhp-ma_e.pdf
JYd275/A.C TLP-T620 JYd150/A.C CPJ-D500 JYd120/A.C TLP-T600 JYd150/A.C TLP-T500/501 JYd150/A.C TLP-T400/T401 JYd150/A.C TLP-380/381 JYd150/A.C 品牌 brand 型号 model 灯泡 lamp 灯杯 尺寸 品牌 brand 型号 model 灯泡 lamp 灯杯 尺寸 TOSHIBA TLP-T50 JYd150/A.C EPSON EMP-9100 JYd250/A.C TLP-S200 JYd150/A.C EMP-9000 JYd220/A.C TLP-S201
in „Beamer 'wiederverwerten'?“ · Mikrocontroller und Digitale Elektronik ·
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05_TLV272CS-13.pdf
Figure 2 Input Bias and Offset Current vs. Temperature ) 500 B100 ( VDD= 10V VDD= 5V 450 TA= +125 I T 400 R 80 ) TA= +70 N VDD= 2.7V A 350 I ( TA= +25 T T E E 300 TA= 0 J 60 R A = -40 R R 250 Y C L Y 200 P 40 P U P S S 150 E W 100 O 20 # 1, A = 1 - 50 V R VIC DD/2 S 0 P 0 0 2 4 6 8 10 12 14 16 10 100 1000
in „TLV272 Rail to Rail Problem DIODES“ · Analoge Elektronik und Schaltungstechnik ·
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AN1045-D.pdf
thiseffectissmallatvoltagesbeyondafewvolts. O 500 The attachment of a heatsink at the high-impedance node P T 400 formed by connection of the triac main-terminals can also S V contribute to imbalance by introducing stray capacitance to U 300 ground. This can be made insignificant by adding small X dVu 10 kVńms
in „Zwei Triacs in Reihe - warum?“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
DB_CD4052BE.pdf
Continued) 600 o 250 ) TA= 25 C ) VDD - EE = 15V ( V - V = 5V ( E 500 DD EE E C C 200 T = 125 C A A A T 400 S S S 150 E E R R N 300 N O O 100 TA= 25 C E E N 200 N o A A A = -55 C H 10V H 50 , 100 15V , N N r rO 0 0 -10 -7.5 -5 -2.5 0 2.5 5 7.5 10 -10 -7.5 -5 -2.5 0 2.5 5 7.5 10 VIS INPUT SIGNAL VOLTAGE (
in „[S] CD4052BE von TI“ · Markt ·
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MAX3816A.pdf
END OF CABLE 8 A s1000 A WITHOUT M ( M MAX3816A L F 800 O i E V WITH R 600 1 MAX3816A % 7 RISE TIME T 400 % 3 200 FALL TIME 0 2μs/div 0 1000 2000 3000 4000 5000 6000 CAPACITANCE (pF) PULLUP RESISTORS: TWO 3.3kΩ IN PARALLEL. PULLDOWN SOURCE: 25Ω CMOS SWITCH. 4 ___________________________________________
in „[S] Extender für HDMI über CAT5e (1080p@60Hz)“ · Markt ·
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maxim_481_483_491.pdf
140 0 -120 0 600 1 A X X MAX481/MAX485;DE=V ,RE=X X 120 M M CC M M ) )-100 )500 / m100 m A T T -80 T400 1 E 80 E E 9 U U -60 R300 4 T 60 T C MAX485;DE=0,RE=X, P P P MAX481;DE=RE=0 X U 40 U -40 U200 MAX490/MAX491;DE=RE=X O O S A 20 -20 100 M 0 0 0 MAX481;DE=0,RE=CC – 0 2 4 6 8 10 12 -7 -6 -5 -4 -3 -2 -
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MAX485.pdf
140 0 -120 0 600 1 A X X MAX481/MAX485;DE=V ,RE=X X 120 M M CC M M ) )-100 )500 / m100 m A T T -80 T400 1 E 80 E E 9 U U -60 R300 4 T 60 T C MAX485;DE=0,RE=X, P P P MAX481;DE=RE=0 X U 40 U -40 U200 MAX490/MAX491;DE=RE=X O O S A 20 -20 100 M 0 0 0 MAX481;DE=0,RE=CC – 0 2 4 6 8 10 12 -7 -6 -5 -4 -3 -2 -
in „Kommunikation mit PC“ · Mikrocontroller und Digitale Elektronik ·
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MC_product_selection_AN.pdf
output of the MCP73831 has three ) 500 different states: High (H), Low (L), and High-Imped- A 450 t 400 ance (Hi-Z). The charge status output can be used to e 350 illuminate 1, 2, or tri-color LEDs. Optionally, the charge r 300 status output can be used as an interface to a host C 250 g 200 microcontroller
in „Hackbarer(?) 21 EUR Quadcopter“ · Mikrocontroller und Digitale Elektronik ·
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MAX481_422.pdf
TEMPERATURE 140 - -120 - 600 - A A A MAX481/MAX485;DECC ,RE=X A 120 M -100 M 500 M M / m 100 m μ 1 T T -80 T 400 E 80 E E 9 U U -60 U 300 4 T 60 T Y MAX485;DE=0,RE=X, T T -40 P MAX481;DE=RE=0 X O 40 O S 200 MAX490/MAX491;DE=RE=X A 20 -20 100 MAX481;DE=0,RE=VCC M 0 0 0 – 0 2 4 6 8 10 12 -7 -6 -5 -4 -3 -2 -1 0
in „Problem mit MAX481 Transmitter“ · Mikrocontroller und Digitale Elektronik ·
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MC34161-D_1_.pdf
MC34161, MC33161, NCV33161 6.0 VCC = 5.0 V 500 R = 10 k to V ) ) 5.0 TL CC n VCC = 5.0 V ( A = 25 C T 400 VMode = GND E E TA= 25°C A4.0 R L U 300 V C U 3.0 I T B U U 200 t 2.0 TA= 85°C N o T = 25°C TA= 85°C , V 1.0 A TA= 25°C II 100 TA= -40°C TA= -40°C 0 0 1.22 1.23 1.24 1.25 1.26 1.27 1.28 1.29 0 1.0
in „Brauche Hilfe zur Berechnung den MC34161“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
MAX485.pdf
TEMPERATURE 140 - -120 - 600 - A A A MAX481/MAX485;DECC ,RE=X A 120 M -100 M 500 M M / m 100 m μ 1 T T -80 T 400 E 80 E E 9 U U -60 U 300 4 T 60 T Y MAX485;DE=0,RE=X, T T -40 P MAX481;DE=RE=0 X O 40 O S 200 MAX490/MAX491;DE=RE=X A 20 -20 100 MAX481;DE=0,RE=VCC M 0 0 0 – 0 2 4 6 8 10 12 -7 -6 -5 -4 -3 -2 -1 0
in „STM32 UART Kommunikation -> Langsamer uC Tod“ · Mikrocontroller und Digitale Elektronik ·
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AD7302.pdf
INTERNAL REFERENCE 640 TA= +25 C 4.84 3.0 DAC LOADED WITH 00HEX 560 4.76 2.75 V 480 s4.68 l 2.5 m o V –T400 V 4.6 –2.25 U – T VO320 U4.52 O 2.0 V VDD = 5V V 240 4.44 INTERNAL REFERENCE 1.75 V DD = 3V DAC REGISTER LOADED INTERNAL REFERENCE 160 4.36 WITH FFHEX 1.5 DAC REGISTER LOADED T = +25°C WITH FFHex 80
in „(S) AD7302BNZ DAC DIP20“ · Markt ·
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OP196_296_496_empfehlung_aus_AAN_105-03_.pdf
800 V S ⴞ2.5V V A V= 1 ⍀ TA = 25ⴗC – R = 100k⍀ – G L C700 I 4 N W A600 S E ACL = 10 U P500 P 3 I U T400 O P M T A CL= 1 U 2 O300 I A 200 M 1 100 0 0 100 1k 10k 100k 1M 1k 10k 100k 1M FREQUENCY – Hz FREQUENCY – Hz TPC 21. Output Impedance vs. Frequency TPC 24. Maximum Output Swing vs. Frequency REV. C
in „OPV: Invertierer mit dual Supply?“ · Analoge Elektronik und Schaltungstechnik ·
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1776fs.pdf
Temperature vs Temperature 215 2.25 600 ( E VIN = 40V )210 A2.00 s500 R L= 39Ω H L ( FB = ( V E C205 N1.75 T400 E I N U A O E200 N1.50 U300 F O I N H I H195 N1.25 M200 T S C W M I S190 U1.00 S100 I I 185 M0.75 0 –50 –25 0 25 50 75 100 125 –50 –25 0 25 50 75 100 125 –50 –25 0 25 50 75 100 125 TEMPERATURE (°C)
in „Stromausfall Datensicherung auf EEprom“ · Mikrocontroller und Digitale Elektronik ·
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TI-AN032_Regulations2_4GHz_SRD.pdf
range 100 – 2000 MHz. Spurious emission requirement (15.209) 1000 900 800 ] 700 3 @ 600 / µ t 500 n t 400 l F 300 200 100 0 100 200 300 400 500 600 700 800 900 1000 1100 1200 1300 1400 1500 1600 1700 1800 1900 2000 Frequency [MHz] Figure 2: FCC part 15.209 spurious emission requirements As mentioned in
in „2.4GHz: Was gilt bei FCC Spurious > 1GHz“ · HF, Funk und Felder ·
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PDF
3990fa.pdf
0.25 800 H-GRADE 0.20 500 LIMITED BY CURRENT LIMIT )700 0.15 A SWITCH PEAK ) ( CURRENT LIMIT ( ( I T 400 O 0.10 I600 E LIMITED BY MAXIMUM T T R L 0.05 E U300 JUNCTION TEMPERATURE G R500 C θ JA= 45°C/W R 0 U A D C L 200 O–0.05 C400 CATCH DIODE VALLEY CURRENT LIMIT L I FRONT PAGE APPLICATION –0.10 S 100
in „LT3990 Layout“ · Platinen ·
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PDF
hd61830.pdf
— 200 ns 1, 3 FLM set-up time SF 400 — — ns 2, 3 FLM hold time HF 1000 — — ns 2, 3 MA set-up time t 400 — — ns 2, 3 SMA MA hold time HMA 1000 — — ns 2, 3 1340 HD61830/HD61830B Notes: 1. tWCL2 tWCH WCL 0.7 VCC CL2 0.3 V CC CL1 tCL2 tCL3 0.7 VCC CL1 0.3 V CC tWCH t tDD DH 0.7 VCC D1, D2 0.3 VCC tDM 0.7
in „ATMega als LCD-Controller“ · Mikrocontroller und Digitale Elektronik ·
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PDF
hd61830.pdf
— 200 ns 1, 3 FLM set-up time SF 400 — — ns 2, 3 FLM hold time HF 1000 — — ns 2, 3 MA set-up time t 400 — — ns 2, 3 SMA MA hold time HMA 1000 — — ns 2, 3 1340 HD61830/HD61830B Notes: 1. tWCL2 tWCH WCL 0.7 VCC CL2 0.3 V CC CL1 tCL2 tCL3 0.7 VCC CL1 0.3 V CC tWCH t tDD DH 0.7 VCC D1, D2 0.3 VCC tDM 0.7
in „HD61830A durch HD61830B ersetzen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
hd61830.pdf
— 200 ns 1, 3 FLM set-up time SF 400 — — ns 2, 3 FLM hold time HF 1000 — — ns 2, 3 MA set-up time t 400 — — ns 2, 3 SMA MA hold time HMA 1000 — — ns 2, 3 1340 HD61830/HD61830B Notes: 1. tWCL2 tWCH WCL 0.7 VCC CL2 0.3 V CC CL1 tCL2 tCL3 0.7 VCC CL1 0.3 V CC tWCH t tDD DH 0.7 VCC D1, D2 0.3 VCC tDM 0.7
in „HD61830 Ansteuerung“ · Mikrocontroller und Digitale Elektronik ·
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PDF
hd61830--kompatibel_zu_LC7981.pdf
— 200 ns 1, 3 FLM set-up time SF 400 — — ns 2, 3 FLM hold time HF 1000 — — ns 2, 3 MA set-up time t 400 — — ns 2, 3 SMA MA hold time HMA 1000 — — ns 2, 3 1340 HD61830/HD61830B Notes: 1. tWCL2 tWCH WCL 0.7 VCC CL2 0.3 V CC CL1 tCL2 tCL3 0.7 VCC CL1 0.3 V CC tWCH t tDD DH 0.7 VCC D1, D2 0.3 VCC tDM 0.7
in „GLCD hängt sich nach einer Weile auf“ · Mikrocontroller und Digitale Elektronik ·
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177932_1.pdf
phase difference (3) tCL3 100 — — ns 1, 3 MA, MB delay time tDM –200 — 200 ns 1, 3 FLM set-up time t 400 — — ns 2, 3 SF FLM hold time tHF 1000 — — ns 2, 3 MA set-up time tSMA 400 — — ns 2, 3 MA hold time tHMA 1000 — — ns 2, 3 41 HD61830/HD61830B Notes: 1. t WCL2 WCH WCL CL2 0.7 VCC 0.3 VCC tCL1 CL2 CL3
in „GrafikLCD an ATmega328“ · Mikrocontroller und Digitale Elektronik ·
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S-1000C21-M5T1.pdf
These values must therefore not be exceeded under any conditions. 700 ] W 600 [ )D500 ( SOT-23-5 n t 400 SC-82AB i s 300 SNT-4A D r 200 w o 100 P 0 0 50 100 150 Ambient Temperature (Ta) [°C] Figure 7 Power Dissipation of Package (When Mounted on Board) 8 Seiko Instruments Inc. ULTRA-SMALL PACKAGE HIGH-PRECISION
in „Wer kennt dieses SMD Bauteil: "PKG4" im SOT-23-5 Gehäuse“ · Mikrocontroller und Digitale Elektronik ·
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Datei
PWM_STGL.html
M280-120q-33 0-56.5-23.5T200-200v-520q-17 0-28.5-11.5T160-760t11.5-28.5T200-800h160q0-17 11.5-28.5T400-840h160q17 0 28.5 11.5T600-800h160q17 0 28.5 11.5T800-760t-11.5 28.5T760-720v520q0 33-23.5 56.5T680-120zm120-160q17 0 28.5-11.5T440-320v-280q0-17-11.5-28.5T400-640t-28.5 11.5T360-600v280q0 17 11.5 28.5T400
in „Reparatur Schaltnetzteil“ · Analoge Elektronik und Schaltungstechnik ·
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LP171W01-A4K3.pdf
Unit Min. Typ. Max. T1 0.01 10 ms T2 0 20 50 ms T3 0 250 ms T 0 250 ms 4 T5 0 20 50 ms T6 0 100 ms T 400 ms 7 Notes: (1) Please avoid floating state of interface signal at invalid period; (2) When the interface signal is invalid, be sure to pullccown the V to 0 V; (3) The back light inverter power must
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TMS279X_DataSheet.pdf
precompensation) PARAMETER TEST ALT. MIN TYP MAX UNIT CONDITIONS SYMBOL† t Write data pulse duration FM T 400 500 600 ns w(WD) WP MFM 200 250 300 d(WG-WD) Write gate to write data delay FM TWG 2 µs time MFM 1 d(WD-WG) Write gate from write data FM TWF 2 µs delay time MFM 1 † Symbol used in Western Digital
in „Floppy FDD Diskette an AVR Mikrocontroller ATmega Beispiele Assembler“ · Projekte & Code ·
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icl7109.pdf
auto-zero with RUN/HOLD low. When RUN/HOLD goes high the conversion is started, and when Chip Enable t 400 260 - ns the STATUS output goes low the new data is valid (or trans- Width CEA ferred to the UART; see Handshake Mode). RUN/HOLD may now be taken low which terminates deintegrate and ensures a Data
in „Spannungsmess IC“ · Analoge Elektronik und Schaltungstechnik ·
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AD7416_7_8_f.pdf
40∞C to +125∞C (V = 3 V min)1 DD Resolution 10 Bits Temperature Conversion Time 40 ms Update Rate, t 400 ms R OTI Delay 1 ¥ R 6 ¥ tR ms Depends on Fault Queue Setting Supply Current 1.0 mA I2C Active 350 600 mA I C Inactive 0.2 1.5 mA Shutdown Mode T OTIDefault Temperature 80 ∞C T HYST Default Temperature
in „I²C-Code - fehlt noch was?“ · Mikrocontroller und Digitale Elektronik ·
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an75f_Low_Power-Design.pdf
rejection will be compromised. 2.7V TO 6V 1000 10MHz 2k CRYSTAL 800 ) ( 220Ω W600 620Ω K GROUND T + CASE T400 1/2 LT1720 OUTPUT O – 200 100k 2k + 0 A1 2.5 3.0 3.5 4.0 4.5 5.0 5.5 6.0 0.068µF LT1636 0.1µF SUPPLY VOLTAGE (V) – AN75 F30 680Ω Figure 30. Output Skew vs Supply for 10MHz Clock. Skew Varies Only 800ps
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PDF
ADA4807.pdf
±5.0V (300 V = ±5.0V E S E S M 1000 M T T VS= ±2.5V N F250 O 800 F N O R R T 600 V = ±2.5V U200 S T 400 150 200 VS= ±1.5V 0 3 100 –40 –25 –10 5 20 35 50 65 80 95 110 125 - –40 –25 –10 5 20 35 50 65 80 95 110 125 0 6 1 TEMPERATURE (°C) 1 TEMPERATURE (°C) 2 1 Figure59.TurnOnTimevs.TemperatureandSupply
in „LTSpice 24.1.9 AD4807-Simulation schlägt fehl“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
LT3757_Boost-Sepic-Flyback-Invert.pdf
Temperature and Fall Time vs C L 7.30 700 90 INTVCC= 7.2V 125°C 80 600 7.25 V 70 ( ( 500 75°C E G 60 A T 400 25°C s RISE TIME FALL TIME L O ( 50 V 7.20 V M C U 300 0°C T 40 T P I O 200 –50°C 30 7.15 D 20 100 10 7.10 0 0 0 5 10 15 20 25 30 35 40 0 5 10 15 20 0 5 10 15 20 25 30 VIN(V) INTVCCLOAD (mA) CL(nF)
in „Datenblätter von Linear Technologies“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
SIM800_Hardware_Design_V1.09.pdf
SIM800_Hardware Design_V1.09 25 2016-06-30 Smart Machine Smart Decision RESET t>105ms VIH2.4V VIL0.6V t<400us VDD_EXT 2.7s STATUS Figure 15: Reset timing sequence 4.3. Power Saving Mode SIM800 has two power saving modes: Minimum function mode and sleep mode. The AT command “AT+CSCLK=1”can be used to set
in „SIM800L Verbindung instabil“ · Mikrocontroller und Digitale Elektronik ·
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PDF
bd00ea5wxxx-e.pdf
2R = 803 kΩ 1000 6 Tj = -40 °C Tj = +25 °C 5 ] 800 [ Tj = +105 °C ] d [ V U4 : 600 V g e l g3 o l t 400 V o u o t2 r u D 200 O 1 0 0 0 100 200 300 400 500 100 120 140 160 180 200 Output CurrentOUT[mA] Junction Temperature: Tj [°C] Figure 9. Figure 10. Dropout Voltage vs Output Current Output Voltage
in „Relais mit weitem Schaltbereich“ · Analoge Elektronik und Schaltungstechnik ·
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tps2552.pdf
°C e T A 125°C u 900 A u100 C C r 800 TA= 125°C c 90 u u 80 S 700 S i n 70 r 600 a D D 60 t 500 i t 400 a 50 - S 40 S 300 - I D 30 200 VIN = 6.5 V, I 20 VIN= 6.5 V, 100 R ILIM 20 kW R = 200 kW 10 ILIM 0 0 0 100 200 300 400 500 600 700 800 900 1000 VIN- VOUT- 100 mV/div 0 100 200 300 400 500 600 700 800
in „Problem mit FSUSB30 als USB-Schalter“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Ferrite.pdf
9,90 77.2 49 12.7 10 114 0.25 - 20 MHz 182 g T-300-2 10,80 102 57.2 16.5 10 180 0.25 - 20 MHz 475 g T-400-2 21,50 0,70 6.3 3 2.4 9 29 1 - 25 MHz T-25-7 finishing white 9.4 5.2 3.2 9 32 1 - 25 MHz T-37-7 0,70 12.7 7.6 4.8 9 43 1 - 25 MHz T-50-7 0,70 3.2 1,57 1,27 8 17 3 - 40 MHz T-12-6 0,45 - 0,35 5 2.2
in „Gefunden und für gut befunden.Filterliste.“ · HF, Funk und Felder ·
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PDF
ADS1293_3_Kanal_24BIT_EKG_SPI_Dez_2014.pdf
TEST CONDITIONS MIN TYP MAX UNIT ANALOG FRONT END DIVR Differential Input Voltage Range T ≤ T ≤ T –400 400 mV MIN A MAX Common-Mode Voltage Range for full VDD – CMVR TMIN ≤ TA≤ TMAX 0.95 V DIVR 0.95 ±16 VOS Input-Referred Offset Voltage µV TMIN ≤ TA≤ TMAX –87 87 CMRR Common-Mode Rejection Ratio 50 /
in „Warum soll ADS1293 mit einem 4,096 MHz Quarz betrieben werden?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
MAX1630-MAX1635.pdf
REGULATING M 0 90 90 ( N 600 – ) V+ = 15V ) E 5V LOAD = 0A M ( ( U Y 80 C 80 C N N V+ = 15V U A C C T 400 I 70 F 70 O 5V LOAD = 3A X E E M U ON5 = 5V X 200 1 60 ON3 = 0V 60 ON3 = ON5 = 5V A f = 300kHz f = 300kHz M 6 MAX1631/MAX1634 MAX1631/MAX1634 3 50 50 0 5 0.001 0.01 0.1 1 10 0.001 0.01 0.1 1 10 0 5
in „Steuerung für Elektrochrom-Spiegel (BMW 5er)“ · Mikrocontroller und Digitale Elektronik ·
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TLE5012B_PDS_Rev0.9.pdf
SSC baud rate SSC - 2.0 - Mbit/s Pull-up Resistor = 1kΩ CSQ setup time CSs 300 - - ns CSQ hold time t 400 - - ns CSh CSQ off CSoff 600 - - ns SSC inactive time SCK period SCKp 500 - - ns SCK high t - 190 - ns SCKh SCK low SCKl - 190 - ns DATA setup time DATAs 25 - - ns DATA hold time DATAh 40 - - ns Write
in „Daten und CRC in Einklang bringen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
SMD_Catalog.pdf
2N6910 prot n-ch jfet B2 BZX399C2V0 Phi I SOD323 2.0V 0.3W zener B2 BSV52 Phi N SOT23 BSX20 12V fT 400MHz sw B2p BSV52 Phi N SOT23 BSX20 12V fT 400MHz sw B2t BSV52 Phi N SOT23 BSX20 12V fT 400MHz sw B2 HSMS-2812 HP D SOT23 dual HP2810 schottky B2 HSMS-281C HP D SOT323 dual HP2810 schottky BZX399C2V2
in „Hilfe bei Bauteilsuche für Mainboard“ · PC Hard- und Software ·
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PDF
1849588.pdf
VDA18PLL DD18 3.3V supply voltage V 3.0 3.6 V V DDA33 VDA33PLL V DD33 DD33CR 3.3V supply rise time t 400 μs (See Figure 8.1, "Supply Rise RT Time Model") SMSC USB2517i 47 Revision 2.8 (03-27-13) DATASHEET Industrial Temperature Rated USB 2.0 Hi-Speed 7-Port Hub Controller Datasheet PARAMETER SYMBOL MIN
in „[V] 2St. 7fach USB2.0 Hub Baustein Microchip/SMCS USB2517-JZX QFN64 (5€)“ · Markt ·
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1849588.pdf
VDA18PLL DD18 3.3V supply voltage V 3.0 3.6 V V DDA33 VDA33PLL V DD33 DD33CR 3.3V supply rise time t 400 μs (See Figure 8.1, "Supply Rise RT Time Model") SMSC USB2517i 47 Revision 2.8 (03-27-13) DATASHEET Industrial Temperature Rated USB 2.0 Hi-Speed 7-Port Hub Controller Datasheet PARAMETER SYMBOL MIN
in „[V] 2St. 7fach USB Hub Baustein Microchip/SMCS USB2517-JZX QFN64“ · Markt ·
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PSpice_LibraryguideOrCAD.pdf
4728PL_3B9 K4728PL_3B9 MAGNETIC.OLB Magnetic Core 4728PL_3C8 K4728PL_3C8 MAGNETIC.OLB Magnetic Core 500T400_3C8 K500T400_3C8 MAGNETIC.OLB Magnetic Core 500T400_3E2A K500T400_3E2A MAGNETIC.OLB Magnetic Core 500T400_3E5 K500T400_3E5 MAGNETIC.OLB Magnetic Core 500T600_3C8 K500T600_3C8 MAGNETIC.OLB Magnetic Core
in „pSpice - Bauteil hinzufügen.“ · Analoge Elektronik und Schaltungstechnik ·