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Bild
Schaltplan mit Operationsverstärkern und Spannungsquellen
U2 OPAMP_5T_VIRTUAL, TK3, LAST 40Ω, R6 100kΩ, TK4, R1 100kΩ, U1 OPAMP_5T_VIRTUAL, STEUER_U 7V, R4 200kΩ, REF_R 20Ω, TK1, REF_U 5V, R5 200kΩ, R2 100kΩ, TK2
in „Regelbare Stromquelle -50mA.+50mA“ · Analoge Elektronik und Schaltungstechnik · · Schaltpläne
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175994-da-01-en-LM311_P_-_LM211.pdf
Offset Current T e 25§C 4.0 10 nA A Input Bias Current T e 25§C 60 100 nA A Voltage Gain TAe 25§C 40 200 V/mV Response Time (Note 5) TAe 25§C 200 ns Saturation Voltage VINs b5 mV, OUT e 50 mA e 0.75 1.5 V TA 25§C e Strobe ON Current (Note 6) TA 25§C 2.0 5.0 mA t e Output Leakage Current VIN 5 mV, VOUT
in „Spannungsvergleich“ · Analoge Elektronik und Schaltungstechnik ·
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Datei
KTY_tiny.c
Spannungsteiler und den ADC (PB3) aktiviert, einen dummy-ADC-Zyklus startet und die eff. Spannungen an ADC_REF (PB3) und PTC_IN (PB4) einliest. Die Ergebnisse ADC_max und ADC_werden anschliessend in der Funktion 'berechne_celsius()' per Tabelle ausgewertet und umgerechnet. Die Routine 'sende_werte()' erledigt
in „KTY81/PT1000 an Attiny mit ser. Ausgabe“ · Projekte & Code ·
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top247.pdf
LIMIT Pin Voltage vs. Current. ) 6 0 ) 1.6 0 ( 0 V V = 1.37 - I x 1 kΩ 0 e 2 ( 1.4 M M 4 g 5 - g -200 µA≤ M ≤-25 µA I t P t P o o 1.2 V V i 4 i 1.0 P P N N I 3 O 0.8 T T C C 0.6 N 2 N F U 0.4 I See I T 1 Expanded T U Version U 0.2 M M 0 0 -300 -200 -100 0 100 200 300 400 500 -300 -250 -200 -150 -100
in „Hilfe bei Reparatur SNT Laderegler“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
top247.pdf
LIMIT Pin Voltage vs. Current. ) 6 0 ) 1.6 0 ( 0 V V = 1.37 - I x 1 kΩ 0 e 2 ( 1.4 M M 4 g 5 - g -200 µA≤ M ≤-25 µA I t P t P o o 1.2 V V i 4 i 1.0 P P N N I 3 O 0.8 T T C C 0.6 N 2 N F U 0.4 I See I T 1 Expanded T U Version U 0.2 M M 0 0 -300 -200 -100 0 100 200 300 400 500 -300 -250 -200 -150 -100
in „Hilfe bei Reparatur SNT Laderegler“ · Analoge Elektronik und Schaltungstechnik ·
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Datei
LM35_M8_Display_Fancontrol_float.txt
pinMode(LM352, INPUT); analogReference(INTERNAL); // for ATMega8 2,56V internal Reference 2601; no Ref. 5000; lcd.begin(16, 2); } void loop(){ int temp1 = analogRead(LM351); byte measureCycles = 10; float millivolts = (temp1/1024.0) * 2585;//5000; Reference 2601;Ref. 2.56V Atmega8 (Ref.= 2.601V) "AKTUELL"(Ref.=2.585V) (Ref.= 2.740) float celsius = millivolts/10; if(celsius < temp1Min) { // if temp is lower than minimum temp fan1Speed = 0; // fan stop fan2Speed = 0; // fan stop digitalWrite(fan1, LOW); digitalWrite
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ISO124.pdf
°C Nonlinearity) ±0.005 ±0.010 %FSR INPUT OFFSET VOLTAGE Initial Offset ±20 ±50 mV vs Temperature ±200 V/°C vs Supply ±2 mV/V Noise 4 V/√Hz INPUT Voltage Range ±10 ±12.5 V Resistance 200 k OUTPUT Voltage Range ±10 ±12.5 V Current Drive ±5 ±15 mA Capacitive Load Drive 0.1 F (3) Ripple Voltage 20 mVp-p
in „Optokoppler etc“ · Mikrocontroller und Digitale Elektronik ·
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_SOP10_Package.pdf
Ø0.50±0.1 E2 0.114 0.118 2.89 3.00 H 0.187 0.199 4.75 5.05 0.6±0.1 L 0.0157 0.0275 0.40 0.70 L1 0.037 REF 0.940 REF b 0.007 0.0106 0.177 0.270 1 1 e 0.0197 BSC 0.500 BSC 0.6±0.1 c 0.0035 0.0078 0.090 0.200 BOTTOM VIEW S 0.0196 REF 0.498 REF TOP VIEW α 0° 6° 0° 6° D2 E2 GAGE PLANE A2 A c b E1 A1 α L D1 L1
in „eagle anfänger problem - suche MSOP10 Gehäuse“ · Platinen ·
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PDF
A200-DS_L6920D.pdf
internal threshold typ. 1.2LBO goes low. The LBO is an open drain output and so a pull-up resistor (about 200KΩ) has to be added for correct output setting [see R3, fig. 7]. 4 REF 1.23V reference voltage. Bypass this output to GND with a 100nF capacitor for filtering high frequency noise. No capacitor is required
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AD7741_7742.pdf
differential voltage input range differential inputs or three pseudo-differential inputs. Both parts from –V REF to +V REF. Both parts operate from a single +5 V include an on-chip +2.5 V bandgap reference that provides the supply consuming typically 6 mA, and also contain a power- user with the option of using
in „max Inputfrequenz des VFC AD7741“ · Mikrocontroller und Digitale Elektronik ·
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PDF
STM103.pdf
TFBGA64 package have a Vpin but no V pin (V is internally connected to VSA), see Table 5 and Figure 6. REF+ REF- REF- SSA 4. For external triggers, a delaPCLK21/fst be added to the latency specified in Table 45. 68/92 Doc ID 13587 Rev 11 STM32F103x8, STM32F103xB Electrical characteristics Equation 1: R max
in „STM32 2 Versorgungsspannungen?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
B156XW03_V.2.pdf
VDocument Version : 1.2 6 of 31 Product Specification AU OPTRONICS CORPORATION Note 1: 5 points position (Ref: Active area) W W /4 W /4 W /4 W /4 H /4 1 2 H /4 H 3 H /4 4 5 H /4 Note 2: 13 points position (Ref: Active area) W W /4 W /4 W /4 W /4 10 10 10 H/4 1 2 3 4 5 H/4 H 6 7 8 H/4 9 10 H/4 10 11 12 13 Note
in „Pollin LVDS-Board an B156XW03 Display“ · Mikrocontroller und Digitale Elektronik ·
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LT1930.pdf
.118) (.059 – .069) .90 – 1.30 .80 – .90 (NOTE 3) A2 (.035 – .051) (.031 – .035) .35 – .55 .30 – .50 REF L (.014 – .021) (.012 – .019 REF) PIN ONE .95 .25 – .50 (.037) (.010 – .020) REF (5PLCS, NOTE 2) .20 (.008) A A2 DATUM ‘A’ L 1.90 .09 – .20 (.074) A1 NOTE: (.004 – .008) REF S5 SOT-23 0401 1. CONTROLLING
in „Step up UND down DCDC für uC Versorgung - Empfehlung?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
MC57T01G.pdf
0.2XVDD 0.2XVDD DISPOFF tLDH tLDH tDOr tDOf tVH POWER ON POWER OFF SYMBOL MIN. MAX. UNIT COMMENT tDLD 200 - ms tCH 0 - ms tLDH 20 - ms tDOr - 100 ns tDOf - 100 ns tDLCr 0 - ms tDLCf 0 - ms tDLCs 20 - ms tVH 200 - ms Note 1. Please keep the specified sequence because wrong sequence may cause permanent damage
in „Grasshopper und TFT Display“ · Mikrocontroller und Digitale Elektronik ·
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ECO7213.pdf
. compensation methods are discussed and a design example is given. 2 INTRODUCTION Report ECO6907 (Ref. 1) has been devoted entirely to the design of transmission line transformers. This type of transformer has undoubtedly the advantage of the largest possible bandwidth. However it has also some drawbacks
in „Stackpole Ferrit Kerne für RF Verstärker“ · HF, Funk und Felder ·
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LCD_MC57T01G.pdf
0.2XVDD 0.2XVDD DISPOFF tLDH tLDH tDOr tDOf tVH POWER ON POWER OFF SYMBOL MIN. MAX. UNIT COMMENT tDLD 200 - ms tCH 0 - ms tLDH 20 - ms tDOr - 100 ns tDOf - 100 ns tDLCr 0 - ms tDLCf 0 - ms tDLCs 20 - ms tVH 200 - ms Note 1. Please keep the specified sequence because wrong sequence may cause permanent damage
in „Farb LCD 320x240“ · Markt ·
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AT070TN92_PV02.pdf
X 0.26 0.31 0.36 - Note 2 Color chromaticity θ=Φ=0° Note 5 Note 6 W Y 0.28 0.33 0.38 - Luminance L 200 250 - cd/m² Note 6 Luminance uniformity YU 70 75 - % Note 7 Test Conditions: 1. DV DD.3V, I L180mA (Backlight current), the ambient temperature is 25℃. 2. The test systems refer to Note 2. The copyright
in „7 Zoll LCD Display“ · Mikrocontroller und Digitale Elektronik ·
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sony_str-de485_service_brazil.pdf
Q752 Q602 TP800 Q503 Q504 Q703 Q704 Q653 Q654 Q753 Q754 Q603 Q604 G • Localização do Semicondutor Ref. No. Location Ref. No. Location Ref. No. Location Ref. No. Location Ref. No. Location TP701 C7 9 2 D505 F-4 D750 E-9 Q361 D-5 Q604 F-11 Q710 C-9 D510 C-9 D765 F-9 Q362 D-6 Q605 F-11 Q722 E-10 1 D540
in „Reparaturanleitung Sony STR-DE585 FM STEREO/FM-AM RECEIVER Surround“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Konv2.c
include <utime.h> #include <windows.h> #define MAXLINELENGTH 32768 typedef struct { int aktiv; char Name[200]; char Formel[200]; } satz; double X[1024],Y[1024],Z[1024]; double Ddummy[1024]; int Geduld=0; #include "Formelparser.c" FILE *outfile; satz *feld; int Inspalten=8,spalten,Minzeit=0,Startzeit=0, Zahlenformat
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Vishay_Z-Foil.pdf
°C + 70 °C 100 TCR Values for Different Temperature Ranges Rated Power +500 ° +400 7 + 75 +300 t +200 ) ∆R +100 ( R 0 e 50 (ppm)–100 0.05 ppm/°C w o –200 –0.1 ppm/°C 0.1 ppm/°C P –300 e 25 0.14 ppm/°C a –400 –0.16 ppm/°C 0.2 ppm/°C R –500 –55 –25 0 +25 +60 +75 +100 +125 0 Ambient Temperature (°C) -
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EU_Price_List_2011.pdf
4K-limited Compiler/Assembler/Debugger/Simulator) EPM900 Emulator/Programmer for NXP LPC90x/9 1x/92x/93x 200.00 (Includes LPC900 Studio with 4K-limited Compiler/Assembler/Debugger/Simulator) MCB950 Evaluation Board for NXP LPC95x 100.00 Keil C166 Development Tools for XC166, XE166 & XC2000 Devices C166 Part
in „TFT240320TP an Savvy128v1.2“ · Mikrocontroller und Digitale Elektronik ·
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Datei
breadboard.c
1<<ADPS2) | (1<<ADPS1); // enable ADC prescale 64 ADMUX = channel; // select channel ADMUX |= (1<<REFS1) | (1<<REFS0); // internal 1.1V reference // dummy readout ADCSRA |= (1<<ADSC); // start conversion while(ADCSRA & (1<<ADSC)); // wait for result // measurement for(i=0; i<3; i++) { cli(); ADCSRA |
in „Fragen zum timer interrupt“ · Mikrocontroller und Digitale Elektronik ·
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ina326.pdf
Voltage. VREF 2 R O 1 6 100Ω A/D 2kΩ INA326 Converter 8 5 CO 1µF 3 200kΩ G = 2(200kΩ || 200kΩ)/2kΩ = 100 200kΩ C2 FIGURE 7. Output Referenced to V REF /2. +5V R must be chosen S so that the input voltage does not exceed 100mV RS beyond the rail. I 2 7 L RO 1 100Ω R 2kΩ
in „Spannungsmesserbau mit XMega128“ · Mikrocontroller und Digitale Elektronik ·
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MAX6457-MAX6460.pdf
500 nA Output Short-Circuit Sink I OUT asserted, OUT = V 10 mA SC CC MAX6460 Reference Short-Circuit REF = GND 7 mA Current TA= -40°C to +85°C 2.183 2.25 2.303 Reference Output Voltage V REF V TA= +85°C to +125°C 2.171 2.25 2.303 Sourcing: 0 ≤ I ≤ 100µA, Load Regulation REF 50 µV/µA sinking: 0 REFI ≤ 300nA
in „Tiefenentladungsschutz für Li-Ion Akku mit MAX6457“ · Analoge Elektronik und Schaltungstechnik ·
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Datei
temp3.c
/ Rücksetzen des Timers } // ISP() void messung_starten(void){ ... Anzahl_jetzt = 0; ADMUX |= (0<<REFS1) | (1<<REFS0); // ADC0-Pin auswählen und 5V referenz intern, für 2.65V intern bzw: ADMUX |= (1<<REFS1) | (1<<REFS0); // Interne Referenzspannung ADCSRA |= (1<<ADEN) | (1<<ADATE) | (1<<ADIE) | (1<<ADPS2
in „free running mode Mega32“ · Mikrocontroller und Digitale Elektronik ·
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Data_and_signal_line_chokes_Epcos.pdf
B82799C0113N001 0.022 60 250 170 250 B82799C0223N001 0.022 1200 250 170 250 B82799S0223N001 0.033 70 200 200 250 B82799C0333N001 0.033 1500 200 200 250 B82799S0333N001 0.051 90 200 250 250 B82799C0513N001 0.051 2300 200 250 250 B82799S0513N001 0.10 50 300 150 750 B82799C0104N001 0.22 60 200 200 750 B82799C0224N001 0.33 70 200 250 750 B82799C0334N001 0.47 100 200 320 750 B82799C0474N001 Sample kit available. Ordering code: B82799X001 For more information refer to chapter “Sample kits”. Please read Cautions and warnings and
in „Welche Gleichtaktdrossel für CAN bus?“ · Mikrocontroller und Digitale Elektronik ·
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3703fc.pdf
Range 100 600 kHz tON(MIN) MinimumOn-Time 200 ns DC MAX MaximumDuty Cycle f < 200kHz 89 93 96 % Driver I BG Driver Peak Source Current 1.5 2 A BG(PEAK) RBG(SINK) BG Driver Pull-Down DS(ON) (Note 8) 1 1.5 Ω ITG(PEAK) TG Driver Peak Source Current
in „Längs- oder Querregler 40V 250W als Überspannungsschutz für Tiefstellsetzer“ · Analoge Elektronik und Schaltungstechnik ·
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DAC8562_3.pdf
Figure 73 POWER-SUPPLY CURRENT External VREF Figure 20 Power-Supply Current vs Temperature Internal REF Figure 21 External V Figure 22 Power-Supply Current vs Digital Input Code REF 5.5 V Internal REF Figure 23 External VREF Figure 24 Power-Supply Current Histogram Internal REF Figure 25 External VREF
in „Problem mit Positionsrückmeldung bei GRBL“ · Mikrocontroller und Digitale Elektronik ·
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bq24070.pdf
7 V STAT2, TS, (all DC voltages wrt VSS) Input voltage V (DC voltage wrt VSS) –0.3 V to V + 0.3 V REF O(OUT) TMR –0.3 V to VO+ 0.3 V Input current 3.5 A Output current OUT 4 A BAT (2) –4 A to 3.5 A Output source current (in V 30 mA regulation at 3.3 VREF) REF Output sink current PG, STAT1, STAT2, 15
in „Akku-Typ Entscheidung“ · Mikrocontroller und Digitale Elektronik ·
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PDF
stepping_motor_Mdrive__OM-MD_V06.28.2002__e.pdf
MDrive23 Linear Actuator Weight (Motor+Driver without screw) oz (gm) 20.4 (578.3) Maximum Thrust lbs (kg) 200 (90.7) Table 3.3.1: Linear Actuator MDrive23 Motor Specifications 53 F o r c e / S p e e d C u r v e : 2 4 V D C Refer to Table 3.3.2 for screw pitch information s 200 Screw F 890 l 180 Screw E 801
in „Alter Stepper-Treiber über ISP an USB parametrieren“ · Mikrocontroller und Digitale Elektronik ·
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Diplomarbeit_24_Kanal_EEG_Recorder.pdf
U und Umformen erhält man: A1 U CH1_OUT = [(U REF-U1)*(R1/R2 + 1)]*G + ADC_REF/2 Man sieht, dass nur die Differenz der Eingangsspannungen verstärkt wird. Ein Gleichtaktsignal (U1 = U REF) wird theoretisch vollständig unterdrückt. Betrachtet man aber
in „EEG-Kappen-Controller“ · Mikrocontroller und Digitale Elektronik ·
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PDF
pkg.pdf
WITH THE E .308 - .325 E1 .280 .288 .296 PACKAGE SEATED IN JEDEC SEATING PLANE GAUGE GS-003. E2 .300 REF E3 .325 - .410 6. E3 IS TO BE MEASURED AT THE LEAD TIPS. e .100 BSC L .125 - .200 7. ALLOWED LEAD TIP POSITION RANGE. N 20 © 2010 Lattice Semiconductor Corp. All Lattice trademarks, registered trademarks
in „Pinabstand aus dem Datenblatt ermitteln, ich blicke nicht durch“ · Mikrocontroller und Digitale Elektronik ·
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AD667.pdf
, for a 10 volt full-scale out- 883, refer to the Analog Devices Military Products Databook or curput, a change of 1 LSB in digital input code should result in a 883B data sheet. 2.44 mV change in the analog output (1 LSB = 10 V× 1/4096 = 2D
in „[V] 12 Bit DAC AD667BD“ · Markt ·
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Texas_Instruments_INA105_Precision_Unity_Gain_Differential_Amplifier.pdf
systems. ® INA105 2 PIN CONFIGURATIONS Top View TO-99 Top View DIP/SOIC Tab No Internal Connection 8 Ref V+ 1 7 Ref 1 8 No Internal Connection (1) –In 2 7 V+ –In 2 6 Output 3 Output +In 6 V– 4 5 Sense 3 5 +In Sense 4 INA105AM INA105BM V– NOTE:(1)Performancegradeidentifierboxforsmalloutlinesurfacemount.
in „INA105 Invertierungsproblem“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
ATtiny26.pdf
Parameter Condition Min Typ Max Units Gain = 1x 10 Bits Resolution Gain = 20x 10 Bits Gain = 1x V REF= 4V, VCC= 5V 24 LSB ADC clock = 50 - 200 kHz Absolute Accuracy Gain = 20x V REF= 4V, VCC= 5V 27 LSB ADC clock = 50 - 200 kHz Gain = 1x V REF= 4V, VCC= 5V 1.5 LSB Integral Non-Linearity (INL) ADC clock = 50 - 200 kHz (Accuracy after Calibration for Offset and Gain = 20x Gain Error) V REF= 4V, VCC= 5V 2 LSB ADC clock = 50 - 200 kHz Gain = 1x 2 % Gain Error Gain = 20x 2.5 % Gain = 1x V REF= 4V, VCC= 5V 4 LSB ADC
in „ATtiny26(L) Analog-Digital-Wandler ( ADC ) Datenblattübersetzung“ · Mikrocontroller und Digitale Elektronik ·
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ir2110.pdf
vs. VDD Supply Voltage Figure 8A. Turn-Off Time vs. Temperature 250 250 200 200 ) s Max . ( ( e Max. e 150 T150 i l y D Typ. l f 100 D 100 n f Typ T - r 50 50 T 0 0 10 12 14 16 18 20 0 2 4 6 8 10 12 14 16 18 2 0 VDD Supply Voltage (V) VCC /VBSSupply Voltage (V) Figure 8B. Turn-Off
in „IR2110 Probleme“ · Mikrocontroller und Digitale Elektronik ·
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PDF
ir2110.pdf
vs. VDD Supply Voltage Figure 8A. Turn-Off Time vs. Temperature 250 250 200 200 ) s Max . ( ( e Max. e 150 T150 i l y D Typ. l f 100 D 100 n f Typ T - r 50 50 T 0 0 10 12 14 16 18 20 0 2 4 6 8 10 12 14 16 18 2 0 VDD Supply Voltage (V) VCC /VBSSupply Voltage (V) Figure 8B. Turn-Off
in „Wechselrichter mit MOSFET Endstufe“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
ir2110.pdf
vs. VDD Supply Voltage Figure 8A. Turn-Off Time vs. Temperature 250 250 200 200 ) s Max . ( ( e Max. e 150 T150 i l y D Typ. l f 100 D 100 n f Typ T - r 50 50 T 0 0 10 12 14 16 18 20 0 2 4 6 8 10 12 14 16 18 2 0 VDD Supply Voltage (V) VCC /VBSSupply Voltage (V) Figure 8B. Turn-Off
in „HIGH AND LOW SIDE DRIVER Io+ Ausgangsstrom“ · Mikrocontroller und Digitale Elektronik ·
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TPS2120.pdf
Hysteresis -40°C to 125°C 2.5 3.5 4.5 % ON-RESISTANCE (INx to OUT) 25°C 62 75 mΩ OUT = -200 mA -40°C to 85°C 90 mΩ ON-State Resistance (TPS2120) V > V PRI REF -40°C to 105°C 100 mΩ VINx≥ 5.0 V -40°C to 125°C 120 mΩ R ON 25°C 56 70 mΩ I = -200 mA OUT -40°C to 85°C 85 mΩ ON-State Resistance
in „Speisung umschalten“ · Analoge Elektronik und Schaltungstechnik ·
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LM2576-D.pdf
V − 40 V D R2 Unregulated Cin Cout DC Input 100 mF D1 1000 mF Load MBR360 R1 V + V ǒ1.0 ) R2Ǔ out ref R1 R2 + R1ǒ Vout– 1.Ǔ V ref Where V = 1.23 V, R1 ref between 1.0 k and 5.0 k Figure 15. Typical Test Circuit PCB LAYOUT GUIDELINES As in any switching regulator, the layout of the printed On the other
in „Platine als Kühlkörper“ · Platinen ·
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PDF
LM2576_On.PDF
V − 40 V D R2 Unregulated Cin Cout DC Input 100 mF D1 1000 mF Load MBR360 R1 V + V ǒ1.0 ) R2Ǔ out ref R1 R2 + R1ǒ Vout– 1.Ǔ V ref Where V = 1.23 V, R1 ref between 1.0 k and 5.0 k Figure 15. Typical Test Circuit PCB LAYOUT GUIDELINES As in any switching regulator, the layout of the printed On the other
in „Ruhige negative Spannung“ · Analoge Elektronik und Schaltungstechnik ·
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Datei
test.c
unsigned char mux_flag = 0; if(mux_flag == 0) { if(!(ADMUX & (1 << MUX0))) // ADC0 { if( (ADCW >= 0x200) && ( (0x3FF & (ADCW - 0x200)) > adc_accu[0] ) ) // mit 0 (0b10000000 ^= 0) { adc_accu[0] = (0x3FF & (ADCW - 0x200)); } else if( (ADCW < 0x200) && ( (0x3FF & (0x3FF - ADCW)) > adc_accu[0] ) ) { adc_accu[0] = (0x3FF & (0x200 - ADCW)); } } else // ADC1 { if( (ADCW >= 0x200) && ( (0x3FF & (ADCW - 0x200)) > adc_accu[1] ) ) // mit 0 (0b10000000 ^= 0) { adc_accu[1] = (0x3FF & (ADCW - 0x200)); } else if( (ADCW < 0x200) && ( (
in „KS0066U in C ansteuern“ · Mikrocontroller und Digitale Elektronik ·
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PDF
MAX1448E_data.pdf
PIPELINE ADC E OUTPUT D9–D0 Digital Set-Top Boxes IN- C DRIVERS Video Digitizing Applications OVDD PD REF REF SYSTEM + BIAS OGND REFOUT REFIN RECOM REFN OE Pin Configuration appears at end of data sheet. ________________________________________________________________ Maxim Integrated Products 1 For free
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PDF
RotaryEncoder_Optisch_Bourns_EM14.pdf
2.62 ± .38 17.17 H-290-4 (.06CABLE ASSE(.059)WIDE 152.4 ± 5.0(.049) GROUND CHANNEL “B” (.103 ± .015) REF. REFCONNECTOR ON ONE END (6.0 ± .197) CHANNEL “A” POWER (.050 ± .005) (.676) PCB X 0.381 THICK (.310) 5 PLCS. THICKNESS (.015) REF. MOMENTARY RIBBON CABLE, 28 AWG, 76.2 ± 5.0 SWITCH H-290-5 CONNECTOR
in „Was für Anschlußkabel für Bourns EM14 (optischer Encoder)?“ · Mikrocontroller und Digitale Elektronik ·
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Datei
final_program_endgueltig.c
> #include <stdlib.h> #include <avr/pgmspace.h> #include "lcd.h" #include <util/delay.h> #define V_REF 4930 // Referenzspannung für ADC in mV /* Workarounds */ //#define lcd_puts lcd_string //#define lcd_gotoxy lcd_setcursor //#define lcd_clrscr lcd_clear uint8_t deltaChar[] PROGMEM = { 0x00, 0x04, 0x0A
in „Programmoptimierung“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Nichi-ET.pdf
Within ±20% of initial value Endurance polarity inverted every 250 hours, capacitors meet the tan δ 200% or less of initial specified value characteristic requirement listed at right. Leakage current Initial specified value or less Shelf Life After storing the capacitors under no load at 105°C for 1000
in „Nichicon Elektrolyt(?) Kondensator Polarisierung unklar“ · Analoge Elektronik und Schaltungstechnik ·
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Datei
AVRStrudio4.11b401_Release_Notes.txt
/2005) What's new in this release... Debug platform updates New firmware and part upgrade. Please refer to the JTAGICE mk II help for more information New firmware and part upgrade. Please refer to the ICE 50 help for more information Programming support updates A new major version (V2) of the STK500
in „AVRStudio4 v4.11 Build 401 Beta freigegeben“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Feuchtemesser.c
uint16_t adcmessung(uint8_t ref_und_mux) { uint16_t messwert; uint8_t i; ADMUX = ref_und_mux; ADCSRA = (1<<ADEN); /* Nach Aktivieren des ADC wird ein "Dummy-Readout" empfohlen, man liest also einen Wert und verwirft diesen, um den
in „Tasterabfrage“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Feuchtemesser1.c
uint16_t adcmessung(uint8_t ref_und_mux) { uint16_t messwert; uint8_t i; ADMUX = ref_und_mux; ADCSRA = (1<<ADEN); /* Nach Aktivieren des ADC wird ein "Dummy-Readout" empfohlen, man liest also einen Wert und verwirft diesen, um den
in „Tasterabfrage“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Code1.c
PassCount_bat = 0; unsigned char byToggle_bat = 0; unsigned char byToggle = 0; uint16_t adcmessung(uint8_t ref_und_mux) { uint16_t messwert; uint8_t i; ADMUX = ref_und_mux; ADCSRA = (1<<ADEN); /* Nach Aktivieren des ADC wird ein "Dummy-Readout" empfohlen, man liest also einen Wert und verwirft diesen, um den
in „Tasterabfrage“ · Mikrocontroller und Digitale Elektronik ·
