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dvm45_Rev2.2.pdf
(LT1004-1,2) 7 REFCAP+ D1 19 3 1 A X3-3 R13 1µ/63 REFCAP- D2 18 2 T4 JP1 5k6 23 D3 17 3 BC337 0...200 Volt R23 POL D4 T3 1 180k 1 2 2 REF D5 12 3 2 BC337 X3-4 4 5 AZ-IN IC5 3 2 T2 1 R8 GNDA GNDA 22 CLK-IN B1 13 7 IA A 13 R9 2 T1 BC337 1 P2 2 10 IN-HI B2 14 1 IB B 12 150 R6 BC337 1 200 9 15 2 11 R2 150
in „Projekt DVM 4,5 Digit aus Standardbauteilen mit automatischer Bereichsumschaltung“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
E44.pdf
',11b" r--- .4 "'- .......... 60 "- '-.. 0 2 r--.. 0 - - ' - O. 50 tOO A l S O 0 40 80 120 160 .01 200 - I " v - - . I Permissible casetemperature Se versus forward current, mains operation 40to 60 Hz "C E43/44 ~e 1O~ 1 ~ ~ 160 \ " - - - " '\......... 10 ~v/ '\ ~ 60' - \ --->- DC - - 10 ~v / I I)"'I'\. , / 120' Y \ V tf<lv 'y 1\ "- 130 180' / \ \ 180' " _\. 120 '" 1 10 20\ 301 40 50 A 60 - - / F A V 46 Silicon Power Rectifiers Series SSiE43, SSiE44 Forward power dissipation characteristic curves, nomogram for determining
in „Diodenidentifizierung, Pressfit ~1983 von Siemens“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
Transient_Simulation.pdf
frequency of 33kHz (Multiprogrammer HP 6942), controlled -200 by the computer HP 98269, permits the acquisition and the processing of signals proportional to the quantities of interest. The sampled quantities are: phase voltage -400 'a', primary and secondary
in „ltspice kopelfaktoranweisung für Drehstromtrafo“ · Analoge Elektronik und Schaltungstechnik ·
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Datei
LED4094.asm
Konfiguration festlegen ### ; Power on Timer, kein Watchdog, interner Oszillator, kein Brown out, kein LV-programming __CONFIG _PWRTE_ON & _WDT_OFF & _INTOSC_OSC_NOCLKOUT & _BODEN_OFF & _LVP_OFF ;### Variablen festlegen ### ; genutzt von WAIT / WAITMS loops_h equ 0x21 ; timer für wait loops_l equ 0x22 ;
in „4094 mit 16F628 ansteuern“ · Mikrocontroller und Digitale Elektronik ·
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PDF
an-978_Bootstrap.pdf
125°C. J b) Low voltage dynamic losses (P ) on the V supply are due to two different components: D(lv)SW CC b1) Whenever a capacitor is charged or discharged through a resistor, half of energy that goes into the capacitance is dissipated in the resistor. Thus, the losses in the gate drive resistance,
in „IR2184 half bridgde driver / Ist PWM-Signal begrenzt?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
2222_2222A.pdf
2N2906, 2N2907 0.4 W Derate Above 25°C 2.28 mW;oC Operating Junction Temperature TJ -65 to +175 -65 to+200 °c Storage Temperature Tstg -65 to + 200 -65 to +200 °c 8-74 - - - Switching and General Purpose Transistors 2N2218 SERIES, 2N2904 SERIES (continued) ELECTRICAL CHARACTERISTICS (TA = 25 PC unless otherwise
in „Alternative/Vergleichstyp zu 2N5109“ · HF, Funk und Felder ·
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PDF
1.6_AUO_LCD.pdf
Pulse width low Write tWLW80 40 - Read tWLR80 250 - Write tWHW80 40 - Pulse width high Read tWHR80 200 - ns /WR , RS and /CS setup time tAS80 10 - /WR , RS and /CS hold time tAH80 2 - Write data setup time tWDS80 60 - Write data hold time tWDH80 15 - Read data delay time tRDD80 - 200 Read data hold time
in „[V]erkaufe 1.6" TFT von AUO mit adapter auf 2.54“ · Markt ·
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PDF
Stenorette_2010_SW.pdf
4asseeder earth spring 81 3 83B3-141-ü0 Integr. Schaltung integr. circuit Lt4386 N LM 386 N 82 8302-200-124 Transistor BC 238 (T'1/4/B)transistor 82a $02-n2-127 Transistor BC 238 B (T5)transistor BC 23BB B3 8302-200-231 (T7)trans:.stor Transistor BC 238 C BC 2IC 83a 8302-202-18' Transistor BC 238 BIC (T3)transisto r BC23B BlC B4 830?-200-186 Transistor BC 239 BIC (T2)transistor 8C239 B C I Bi t'02-200-234 Tnansistor" BC IB B (16)transistor BCXB B B6 ü02-200-427 Tnansistor BC33B (T9)transistor BC33B B7 8309-214-032 Diode C473 (02/4)diode
in „Recht auf Reparatur“ · Offtopic ·
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PDF
G104V1-T01.pdf
& V CC REFERENCE VOLTAGE GND LAMP CONNECTOR VL BACKLIGHT UNIT ( BHR-03VS-1 ) 4.2 BACKLIGHT UNIT 1 LV (White) 2 HV (Pink) 3 HV (Pink) 12 / 26 Version 2.1 Doc. No.: Issued Date : Aug.9.2006 Model No :G104V1-T01 Approval 5. INPUT TERMINAL PIN ASSIGNMENT 5.1 TFT LCD MODULE Pin Name Description 1 GND Ground
in „Analoges Videosignal in TFT Panel“ · Mikrocontroller und Digitale Elektronik ·
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PDF
an-978.pdf
for two IRF830s in a half-bridge, from a 400 V rail, 100 kHz, no load, and no gate resistors. PD,q(LV) 0.004 W PD,SW(LV) P CMOS= (15 V)(16 nC)(100 kHz) = 0.024 W PG= 2(15 V)(28 nC)(100 kHz) = 0.084 W PD,q(HV) 0.002 W PD,SW(HV)= (400 V + 200 V)(7 nC)(100 kHz) = 0.42 W Total power loss = 0.534 W The value
in „Treiber-IC Peripherie berechnen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
an-978.pdf
for two IRF830s in a half-bridge, from a 400 V rail, 100 kHz, no load, and no gate resistors. PD,q(LV) 0.004 W PD,SW(LV) P CMOS= (15 V)(16 nC)(100 kHz) = 0.024 W PG = 2(15 V)(28 nC)(100 kHz) = 0.084 W PD,q(HV) 0.002 W PD,SW(HV)= (400 V + 200 V)(7 nC)(100 kHz) = 0.42 W Total power loss = 0.534 W The value
in „Isolierter High-Side Mosfet Treiber“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
ir2110-app-note.pdf
for two IRF830s in a half-bridge, from a 400 V rail, 100 kHz, no load, and no gate resistors. PD,q(LV) 0.004 W PD,SW(LV) P CMOS= (15 V)(16 nC)(100 kHz) = 0.024 W PG = 2(15 V)(28 nC)(100 kHz) = 0.084 W PD,q(HV) 0.002 W PD,SW(HV)= (400 V + 200 V)(7 nC)(100 kHz) = 0.42 W Total power loss = 0.534 W The value
in „[Transistor Ansteuerung] Ausgang kein Rechteck?“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
an-978.pdf
for two IRF830s in a half-bridge, from a 400 V rail, 100 kHz, no load, and no gate resistors. PD,q(LV) 0.004 W PD,SW(LV) P CMOS= (15 V)(16 nC)(100 kHz) = 0.024 W PG = 2(15 V)(28 nC)(100 kHz) = 0.084 W PD,q(HV) 0.002 W PD,SW(HV)= (400 V + 200 V)(7 nC)(100 kHz) = 0.42 W Total power loss = 0.534 W The value
in „high-side gate driver mit LT-Spice simulieren“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
an-978.pdf
for two IRF830s in a half-bridge, from a 400 V rail, 100 kHz, no load, and no gate resistors. PD,q(LV) 0.004 W PD,SW(LV) P CMOS= (15 V)(16 nC)(100 kHz) = 0.024 W PG = 2(15 V)(28 nC)(100 kHz) = 0.084 W PD,q(HV) 0.002 W PD,SW(HV)= (400 V + 200 V)(7 nC)(100 kHz) = 0.42 W Total power loss = 0.534 W The value
in „Halbbrücke Gate-Treiber Erklärung“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
an-978.pdf
for two IRF830s in a half-bridge, from a 400 V rail, 100 kHz, no load, and no gate resistors. PD,q(LV) 0.004 W PD,SW(LV) P CMOS= (15 V)(16 nC)(100 kHz) = 0.024 W PG = 2(15 V)(28 nC)(100 kHz) = 0.084 W PD,q(HV) 0.002 W PD,SW(HV)= (400 V + 200 V)(7 nC)(100 kHz) = 0.42 W Total power loss = 0.534 W The value
in „H-Brücke mit 100% Duty-Cycle“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
2307271031_Shenzhen-Fuman-Elec-2302P-D_C7495028.pdf
CIC1975） N-Channel Trench Power MOSFET Description General Description Product Summary ● Trench Power LV MOSFET technology ● VDS 20V ● High Power and current handing capability ● ID 3.2A ● RDS(ON)( at VGS=4.5V) ＜52mohm ● RDS(ON)( at VGS=2.5V) ＜68 mohm Applications ● PWM application ● Load switch Package
in „MosFET schaltet PWM Signal nicht“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
2202251530_Shenzhen-Fuman-Elec-2302P_C2834503.pdf
CIC1975） N-Channel Trench Power MOSFET Description General Description Product Summary ● Trench Power LV MOSFET technology ● VDS 20V ● High Power and current handing capability ● ID 3.2A ● RDS(ON)( at VGS=4.5V) ＜52mohm ● RDS(ON)( at VGS=2.5V) ＜68 mohm Applications ● PWM application ● Load switch Package
in „MosFET schaltet PWM Signal nicht“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
0900766b80d6fc8d.pdf
; &21752//(5 ▯▯▯▯▯0ELW▯▯▯▯▯0ELW +9▯*(1(5$7,21 ' 1$1'▯)ODVK ( & 0(025<▯$55$< 2 $/( ' &/( ( :( 5 &( &200$1' :3 ,17(5)$&( /2*,& 5( 3$*(▯%8))(5 &200$1' 5(*,67(5 <▯'(&2'(5 '$7$ 5(*,67(5 %8))(56 ,2 Figure 5: Block Diagram Rev 0.4 / Jun. 2007 19 HY27UF(08/16)1G2A Series 1Gbit (128Mx8bit / 64Mx16bit) NAND Flash
in „NAND auslesen und schreiben“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Novatek_NT96650.pdf
Interrupt and Bulk transfer iRTC can be powered by separate backup battery and operating from 1.5V to 3.LV 16 programmable HW timers support resolution up to 3MHz and 32 bits counter eSupport I2C interface A Scontrol.0 channels PWM including built-in 16 (4 sets) pattern generators for µ-Stepping motor
in „Unbekannte Firmware disassemblieren“ · Mikrocontroller und Digitale Elektronik ·
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PDF
MCP1703_MIC.pdf
V ≥ 2.5V OUT_mA R 50 100 — mA For VR < 2.5V, IN ≥ 2.7V 100 130 — mA For VR < 2.5V, IN ≥ 2.95V 150 200 — mA For VR < 2.5V, IN ≥ 3.2V 200 250 — mA For V < 2.5V, V ≥ 3.45V R IN Output Short Circuit Current IOUT_SC — 400 — mA VIN= V IN(MIN)Note 1), VOUT = GND, Current (average current) measured 10 ms after
in „Was ist das für ein IC“ · Mikrocontroller und Digitale Elektronik ·
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PDF
9501_CNC_MACHINE_WIRING_R2.pdf
BH-200-56-50X CON BOARD J3 P503 8 8 J9 P9 7 7 4 4 WHITE 6 6 YELLOW 3 3 RED 5 5 2 2 BLUE 4 4 1 1 3 3 2 2 1 1 BH-200-56-50X (127-S-80361-G) 50V, 10A THREE-PHASE MOTOR CONTROL HOME POSITION SENSOR MILLING HEAD
in „EMI Probleme mit Endschaltern von Fräse“ · Mikrocontroller und Digitale Elektronik ·
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PDF
CW100.pdf
P3-08 | Multi-point V/F voltage3 | 0.0% ~ 100.0% 0.0% * P3-09 | V/F slip compensation gain| 0.0% ~ 200.0% 0.0% ww P3-10 | VF over-excitation gain 0~ 200 64 Ww P3-11 VF oscillation suppression 0~100 Model st gain dependent 21 \www.sakohz.com 6.1 Brief introduction of function code P4 Input Terminals Function
in „Frequenzumrichter, max Freq lässt sich nicht einstellen“ · Mechanik, Gehäuse, Werkzeug ·
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PDF
GIC_Presentation_at_PSRC_05_14_2014.pdf
Increase (dB) 15 29.0% 29.6 20 31.5% 31.2 30 35.3% 33.7 40 38.1% 35.4 50 40.4% 36.9 100 48.2% 41.6 200 56.9% 46.7 Increase in core loss / noise level is significant even at low levels of DC Noise increases in level and also in frequency content Typically, 120 / 240 / 360 / 480 Hz => Much higher > 480
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542-01945-0-Z86E04.pdf
1. Port 2 and Port 0 only 2. VSS= 0V = GND 3. The device operates down LVof the specified frequencyLV.The minimum operationalCC is determined on the value of the voltage Vat the ambient temperature. Thincreases as the temperature decreases. LV LV 4. VCC= 4.5 to 5.5V, typical values measurCC = 5.0V. The
in „Pollin Ladegerät WCFD0801500IFOON : Rückwärts Ingenieur gesucht !“ · Mikrocontroller und Digitale Elektronik ·
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PDF
4_5stelliges_Digital-Multimeter_DMM_7001.pdf
Auflösung Meßfehler (typ.)* Überlastschutz 200 mV 10 µV ± (0,0% v. Meßwert+ 2 Digit) 300 V = / 750 V„- 2 V 100 µV ± (0,0% v.Meßwert + 2 Digit) 1200 V =/1200 V„- _Gleichspannung 20 V 1 mV ± (0,0% v.Meßwert + 2 Digit) 1200 V =/1200 V„- 200 V !OmV
in „DVM ELV 49377“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Rehfuss_FU.pdf
4.5 7,5 10,5 Eingairn;g_ +"...A_US..:g:.::a::."n~g,ssiPpãan;;;n~u~n~g~---fA~r=1J==:I=:J~=I3xO:;J... 200/240§:==1 ~spaan;;;n~Umn~g---~;V~~------------~~~~::~------------~ l x 200 - 240 ± 10% Netzfrequenz V ---+-A---B Hz 47 - 63 ___messungen ~xE ====~ ~m~m~==IBo~7~X~13~6~X~16~2C:=~lII4~9~xII5[3~xI1M~ijU
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Datei
PWM-Sinus.asm
** ; Configuration festlegen: ; Power on Timer, kein Watchdog, HS-Oscillator, kein Brown out, kein LV-programming __CONFIG _PWRTE_ON & _WDT_OFF & _HS_OSC & _BODEN_OFF & _LVP_OFF ; clk = 20 MHz ; cycl = 5 MHz ;**************************************************************************************** ; Variablen
in „Theorie Wechselrichter 12V DC -> 230V AC“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
kendryte_datasheet_20181011163248_en.pdf
supply 2.3 Power Supplies Supply Name Voltage（ V） Max Current （ mA） I/O 3.3V/1.8V VDDIO0A 3.3/1.8V*1 200 I/O 3.3V/1.8V VDDIO1A 3.3/1.8V 200 I/O 3.3V/1.8V VDDIO2A 3.3/1.8V 200 I/O 3.3V/1.8V VDDIO3B 3.3/1.8V 200 I/O 3.3V/1.8V VDDIO4B 3.3/1.8V 200 I/O 3.3V/1.8V VDDIO5B 3.3/1.8V 200 I/O 3.3V/1.8V VDDIO6C 3.3/1.8V 200 I/O 3.3V/1.8V VDDIO7C 3.3/1.8V 200 I/O 1.8V VDDIO18 1.8 200 OTP 1.8V VDDOTP 1.8 50 Core 0.9V VDD 0.9 2000 SoC VSS 0 - PLL 0.9V VDDPLL 0.9 15 * Not： There are no connections between the three IO power
in „RiscV Maixduino“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Elektronusches_Uhren_Relay-V4.pdf
eeig n e te G lä ttu n g s m itte l v erfü g en . S te u e r- und Ausgangs stro m k re is sin d g a lv a n isc h g e tre n n t und dam it Rückwir kungen des N ebenuhrennetzes au f d ie ste u e rn d e H auptuhr au sg esch lo ssen . In d e r Im pulspause b e s te h t über H alb l e i t e r e in e niederohm
in „Polwechselnden Impuls mit Transistoren verstärken“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
ILI9325AN_V0.22.pdf
1 9 8S 7 6 5 4 3 2 1 0O I DR S S S A 6 2 1M V V D D D D D M D D DS S D D D D O O O O O O O E EM L LV V I I I I I I I I2 2 2 2 1 1 1 1 1 1L L L D D H H3 3 3 3 1 1 1 1 2 2 2 2O L L O V V D D D T I T T T I I I I T T T T n V H D E D D D D D D D D D D T D D D D D D D D S S n n R n T T F T T T D I I V V V
in „ILI9325 ILI9331 E3 E7 EF TFT LCD Controller undokumentierte Register ILI9320 E5“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Configuration_adv.h
delay (Expect at least 10µS since one Stepper ISR must transpire) * 20 : Minimum for TMC2xxx drivers * 200 : Minimum for A4988 drivers * 500 : Minimum for LV8729 drivers (guess, no info in datasheet) * 650 : Minimum for DRV8825 drivers * 1500 : Minimum for TB6600 drivers (guess, no info in datasheet) * 15000
in „Marlin Firmware mit dem ATMEL STUDIO 7 auf das Arduino Mega 2560 Board flashen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AM27C010.pdf
Number Am27C010 VCC = 5.0 V ± 5% -45 -255 Speed Options VCC = 5.0 V ± 10% -45 -55 -70 -90 -120 -150 -200 Max Access Time (ns) 45 55 70 90 120 150 200 250 CE# (E#) Access (ns) 45 55 70 90 120 150 200 250 OE# (G#) Access (ns) 25 35 35 40 50 65 75 75 CONNECTION DIAGRAMS Top View DIP PLCC ) # VPP 1 32 VCC
in „OTP "E"EPROM programmieren amd 27c010“ · Mikrocontroller und Digitale Elektronik ·
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PDF
A501_LD_LB_LT_W5AM.pdf
soldering Vorbehandlung: nach JEDEC Level 2 preconditioning: acc. to JEDEC Level 2 Gurtung: 24-mm Gurt mit 200/Rolle, ø180 mm taping: 24-mm tape with 200/reel, ø180 mm or oder 1200/Rolle, ø330 mm (auf Anfrage) 1200/reel, ø330 mm (on request) ESD-Festigkeit: ESD-sicher bis 8 kV nach ESD-withstand voltage: up
in „2 x LED und Lüfterschaltung 12V“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
DEM240128D_SBH-PW-N.pdf
< d ≤ 200 1/segm Efffective visible dot/segment areas: Min 80% ent Examples/ Shapes (Total defects) (5) Segment Deformation W ≤ 100 nc b: Glass defects Bubble (e.g. under pola) d ≤ 150 nc b1:Glass defects at contact ledge 200< d ≤ 400 3 400< d ≤ 600 1 ct ss def G l >1/3 L ifY Y L b2:Glass chipping in other areas shall not be in conflict with the product's function. Version:4 PAGE: 14 DEM 240128D SBH-PW-N Product Specification
in „Display mit T963C“ · Mikrocontroller und Digitale Elektronik ·
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PDF
TM56M152A-tenxtechnology.pdf
Enable in FAST/SLOW mode, Disable in IDLE/STOP mode 11 Always Enable LVR: Low Voltage Reset Mode 0001 LV Reset 1.73V 0010 LV Reset 1.85V 0011 LV Reset 1.98V 0100 LV Reset 2.11V 0101 LV Reset 2.23V 0110 LV Reset 2.36V 0111 LV Reset 2.49V 11-8 1000 LV Reset 2.61V 1001 LV Reset 2.74V 1010 LV Reset 2.87V CFGWH 1011 LV Reset 2.99V 1100 LV Reset 3.12V 1101 LV Reset 3.25V 1110 LV Reset 3.37V 1111 LV Reset 3.50V XRSTE: External Pin (PA7) Reset Enable 7 0 Disable (PA7 as I/O pin) 1 Enable FIRCPSC: FIRC Prescaler 5 0 Divided
in „MCU identifikation/Datenblatt - MC9989A0ZQ“ · Mikrocontroller und Digitale Elektronik ·
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PDF
teXet_TF-127_Service_manual.pdf
&( W&+= W5(+ W5($ W5($ W5($ W&2+ 5( W5+= W5+= W5+2+ ,▯2[ 'RXW 'RXW 'RXW W55 5▯% 1RWHV▯▯7UDQVLWLRQ▯LV▯PHDVXUHG▯DW▯▯▯▯▯▯▯P9▯IURP▯VWHDG\▯VWDWH▯YROWDJH▯ZLWK▯ORDG▯ ▯▯▯▯▯▯▯▯▯▯7KLV▯SDUDPHWHU▯LV▯VDPSOHG▯DQG▯QRW▯▯▯▯▯▯WHVWHG▯▯▯W&+=▯▯W5+=▯ ▯▯▯▯▯▯▯▯▯▯W5+2+▯VWDUWV▯WR▯EH▯YDOLG▯ZKHQ▯IUHTXHQF\▯LV▯ORZHU▯WKDQ▯▯▯0+]▯
in „Photo-Rahmen als Farbdisplay“ · Mikrocontroller und Digitale Elektronik ·
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PDF
LT_G6SP.pdf
21 days] 2 = Regarding relevant gas (H 2) stricter than EN 60068-2-60 (method 4) [25 °C / 75 % rh / 200 ppb SO , 200 ppb NO 10 ppb Cl / 21 days] 2 2, 2 Korrosionsfestigkeit: Test Kondition: 40°C / 90 % rh / 15 ppm H2S / 336 h = Besser als IEC 60068-2-43 (H S2 [25°C / 75 % rh / 10 ppm H 2 / 21 Tage] = Bezogen auf das Gas (H S) besser als EN 2 60068-2-60 (method 4) [25°C / 75 % rh / 200ppb SO 2 200ppb NO 102,b Cl / 22 Tage] 2015-03-04 12 Version 1.2 LT G6SP Recommended Solder Pad 7) page 21 Reflow soldering Empfohlenes Lötpaddesign 7) Seite 21 Reflow-Löten 0.8(0.031) 2 min9mm per anodepadfor
in „[KiCad] Wie kann ich einen Footprint mit mehr Pads zuweisen?“ · Platinen ·
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PDF
061130_Neumaier_Stromausfall_061104.pdf
2 2 2 2 -1600,00 22:10 -1400,00 -1200,00 22:02 -1000,00 ] W -800,00 [ w l -600,00 F -400,00 21:38 -200,00 0,00 Conneforde - Diele 22:10381 su– busbarsBorken decoupled Auswirkungen auf das UCTE-Netz Bildung von 3 Netzzonen (Subsystemen) Area mit Unterfrequenz S Area mit Überfrequenz Bildung von drei Netzzonen
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Datei
WeinhScriptInhalt_scrcnt.htm
nbsp;</td> </tr> <tr> <td>98 </td> <td>Henning Christof </td> <td>Weddig </td> <td>DK5LV </td> <td>Unirx (Teil2) </td> </tr> <tr> <td>98 </td> <td>Harald </td> <td>Wickenh&#142;user </td> <td>DK1OP </td> <td>Einen Beam zu kaufen ist nicht schwer ... wie
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PDF
lmh6629.pdf
LO, A =V4, V O 2V PP 190 A = 10, V = 200 mV , V O PP 330 WSON-8 package A = 10, V = 200 mV , 0.1 dB bandwidth V O PP 190 MHz SOT-23-5 package A = 4, V = 200 mV , V O PP 95 COMP Pin = LO V O 200 mV ,PP 0 WSON-8 package Peaking dB V O 200 mV
in „Ausgangswiderstand in OPV Datenblatt“ · HF, Funk und Felder ·
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PDF
Verfuegbare_Teile.pdf
Siemens 3RV1021 - 1BA10 10 280 336 17 Siemens 3RV1021 - 1EA10 14 392 470.4 18 Siemens 3RV1021 - 0BA10 8 200 240 19 Siemens 3RT1023 - 1BB40 1 30 36 20 Siemens 3RT1025 - 1BB40 7 273 327.6 21 Siemens 3RT1026 - 1BB40 13 598 717.6 22 Siemens 3RT1024 - 1AL20 12 192 230.4 23 Siemens 3RT1025 - 1AL20 14 294 352.8
in „[V] Diverses Elektromaterial. Lagerauflösung.“ · Markt ·
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PDF
tft_xga_lvds.pdf
T6 T7 Signal 0V T3 T4 Lamp 0V Values Symbol Unit Min Typ Max T1 0.5 - 10 [ms] T2 0.5 25 50 [ms] T3 200 - - [ms] T4 200 - - [ms] T5 0.5 16 50 [ms] T6 0.5 - 10 [ms] T7 1000 - - [ms] (C) CopyrighAU Optronics, Inc. 2004 All Rights Reserved. No Reproduction and Redistribution Allowed G150XG01 V.0 20/28 9.0
in „Oszi mittels LCD-Display“ · Mikrocontroller und Digitale Elektronik ·
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PDF
BettyHHU.pdf
AMB_OE 28OE SW25 SW33 SW41 FLASH_1MX8 AMB_OE 28 OE KBDO2 KBDO2 KBDO2 FLASH_1MX8 EON FLASH 1MX8 EN29LV800BB-70TCP EON FLASH 1MX8 EN29LV800BB-70TCP SW24 SW34 SW42 C13 KBDO1 KBDO1 KBDO1 VDD3ARM GND 1 SW23 SW35 SW36 100NF 80% KBDO0 KBDO0 KBDO0 VDD1_8 4 5 R % 1 C 4 C 1 alternativ FBEAD wenn nötig I 0 C MMBT3906
in „Innenleben von Betty TV“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Configuration.h
DRV8825', 'LV8729', 'L6470', 'TB6560', 'TB6600', 'TMC2100', 'TMC2130', 'TMC2130_STANDALONE', 'TMC2208', 'TMC2208_STANDALONE', 'TMC26X', 'TMC26X_STANDALONE', 'TMC2660', 'TMC2660_STANDALONE', 'TMC5130', 'TMC5130_STANDALONE
in „Marlin Firmware mit dem ATMEL STUDIO 7 auf das Arduino Mega 2560 Board flashen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
TFT2N2041-V2-E-Ev1.0.pdf
Cr 300 400 - --- FIG 2. 1 Luminance θ=0° δ WHITE ∅=0° 70 85 - % FIG 2. 3 uniformity Ta=25℃ Surface Lv 380 480 - cd/m2 FIG 2. 2 Luminance ∅ = 90° 70 80 - deg FIG 3. Viewing angle θ ∅ = 270° 70 80 - deg FIG 3. 6 range ∅ = 0° 40 50 - deg FIG 3. ∅ = 180° 70 80 - deg FIG 3. NTSC ratio --- --- - 63 - % - -
in „[V] 4,2" TFT Displays NEU“ · Markt ·
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PDF
DatenblattDisplay.pdf
Differential input common RxVCM |VID|/2 - 2.4-|VID|/2 V mode voltage LVDS Differential voltage |VID| 200 - 600 mV TFT gate on voltage VGH - 18 - V Note1 TFT gate off voltage VGL - -6 - V Note1 Analog power supply voltage AVDD - 9.6 - V Note1 Differential input common mode voltage Vcom 2 3.25 4 V Note1
in „Display zeigt Fehler in Spalten auf halben Bildschirm“ · Mikrocontroller und Digitale Elektronik ·
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lt1025_datasheet.pdf
5.95 6.3 V/°C Supply Current 4V V IN 36V 50 80 100 A LT1025AC, LT1025C 50 150 A LT1025AM, LT1025M 200 A Line Regulation (Note 3) 4V V 36V 0.003 0.02 °C/V IN Load Regulation (Note 3) 0 I O 1mA 0.04 0.2 °C Divider Impedance E 2.5 k J 2.1 k K, T 4.4 k R, S 3.8 k Change in Supply Current 4V V IN 36V 0.01
in „Abgastemperatursensor mit LT1025“ · Mikrocontroller und Digitale Elektronik ·
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datasheet.pdf
Time tRDF 0 100 0 80 ns Read (write)/latch Delay Time CL 20 Ñ 20 Ñ ns Read (write) Width CC 250 Ñ 200 Ñ ns Data In/write Setup Time t 150 Ñ 100 Ñ ns DW Write/data-in Hold Time WD 0 Ñ 25 Ñ ns Recovery Time t 300 Ñ 200 Ñ ns RV Write/port Output Delay Time WP Ñ 400 Ñ 300 ns Port Input/read Setup Time t
in „OKI M81C55 benutzen.“ · Mikrocontroller und Digitale Elektronik ·
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tempf_lm335.pdf
the device operates over a current range M of 400 µA to 5 mA with virtually no change in performance.lv3n When calibrated at 25˚C the LM135 has typically less thanlab5e 1˚C error over a 100˚C temperan Operates from 400 µA to 5 mAA sensors the LM135 has a linearn Less tdynamic impedance L perature sensing over a −55˚C n Wide operating temperature range range. The low impedance and ln 200˚C overrange interfac- 3 ing to readout or control circn Low costcially easy. 5 The LM135 operates over a −55˚C to +150˚C temperature / range while the LM235 operates over a −40˚C to +125˚C M 3 Schematic
in „Temperaturmessung mit μC und LM 335“ · Mikrocontroller und Digitale Elektronik ·
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LM135_LM235_LM335TO92_NSC.pdf
the device operates over a current range M of 400 µA to 5 mA with virtually no change in performance.lv3n When calibrated at 25˚C the LM135 has typically less thanlab5e 1˚C error over a 100˚C temperan Operates from 400 µA to 5 mAA sensors the LM135 has a linearn Less tdynamic impedance L perature sensing over a −55˚C n Wide operating temperature range range. The low impedance and ln 200˚C overrange interfac- 3 ing to readout or control circn Low costcially easy. 5 The LM135 operates over a −55˚C to +150˚C temperature / range while the LM235 operates over a −40˚C to +125˚C M 3 Schematic
in „Temperatusensor LM 335“ · Mikrocontroller und Digitale Elektronik ·