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HD44780.PDF
cycles; 43 to Hz for 1/11 duty cycle) 80 Hz for 1/11 duty cycle) Rfresistance 91 k ±2% 91 k ±2% (when V CC= 5V) 75 k ±2% (when V CC= 3V) Instructions Fully compatible within the HD44780S CPU bus timing 1 MHz 1 MHz (when V = 3V) CC 2 MHz (when V CC= 5V) Package FP-80 FP-80B FP-80A TFP-80F 170 HD44780U HD44780U
in „Datenblatt zu HD44780 1602 LCD Modul Display Anzeigen 2X16 Zeichen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
HD44780.pdf
cycles; 43 to Hz for 1/11 duty cycle) 80 Hz for 1/11 duty cycle) Rfresistance 91 k ±2% 91 k ±2% (when V CC= 5V) 75 k ±2% (when V CC= 3V) Instructions Fully compatible within the HD44780S CPU bus timing 1 MHz 1 MHz (when V = 3V) CC 2 MHz (when V CC= 5V) Package FP-80 FP-80B FP-80A TFP-80F 170 HD44780U HD44780U
in „Standart LCD per i2c expander betreiben“ · Mikrocontroller und Digitale Elektronik ·
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PDF
hd44780u_Datenblatt.pdf
cycles; 43 to Hz for 1/11 duty cycle) 80 Hz for 1/11 duty cycle) Rfresistance 91 k ±2% 91 k ±2% (when V CC= 5V) 75 k ±2% (when V CC= 3V) Instructions Fully compatible within the HD44780S CPU bus timing 1 MHz 1 MHz (when V = 3V) CC 2 MHz (when V CC= 5V) Package FP-80 FP-80B FP-80A TFP-80F 170 HD44780U HD44780U
in „hd44780 / LCD SC1602D / ATmega16 (STK500)“ · Mikrocontroller und Digitale Elektronik ·
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PDF
HD44780U.pdf
cycles; 43 to Hz for 1/11 duty cycle) 80 Hz for 1/11 duty cycle) Rfresistance 91 k ±2% 91 k ±2% (when V CC= 5V) 75 k ±2% (when V CC= 3V) Instructions Fully compatible within the HD44780S CPU bus timing 1 MHz 1 MHz (when V = 3V) CC 2 MHz (when V CC= 5V) Package FP-80 FP-80B FP-80A TFP-80F 170 HD44780U HD44780U
in „LCD Initialisierung Mikrocontroller“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Resources_STM32WL_UFQFPN48_REF_BOARD_Low_Power_High_Band_868-915MHz.pdf
63PA13P PIN111 PIC201 POPA1414 42 24PA14P P P2 PC PI PA0 11 POFE_CTRL3RL 3 11 POPA1515 43 34PA15P VDD C1 CC CC CO U4D PA9 PIN112 12 POFE_CTRL2RL 2 PIC202 12 PA15 PIN113 13 PA6 PIC203 13 P 4.7uF P2 100nF PC 100nF PI 100nF PB3 PIN114 14 PA7 PIC204 14 4IPU4 PIN115 PIC205 POPC1313 38 83PC13P 1IPU1VDD PB5 PIN116
in „STM32WLE5CCU6 LoRa-Antennenendesign review“ · HF, Funk und Felder ·
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PDF
HD44780.pdf
VLCD VCC1/5 VLCD V2 VCC1/2 VLCD VCC2/5 VLCD V3 VCC1/2 VLCD VCC3/5 VLCD V4 V –3/4 VLCD V –4/5 VLCD CC CC V5 V –VLCD V –VLCD CC CC V CC(+5 V) VCC (+5 V) VCC VCC R R V1 V1 R V2 R V2 VLCD R VLCD V3 R V3 V4 R V4 R R V5 V5 VR VR –5 V –5 V 1/4 bias 1/5 bias (1/8, 1/11 duty cycle) (1/16, duty cycle) Figure
in „LCD Dotmatrix kaputt“ · Mikrocontroller und Digitale Elektronik ·
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PDF
hd44780u.pdf
VLCD VCC1/5 VLCD V2 VCC1/2 VLCD VCC2/5 VLCD V3 VCC1/2 VLCD VCC3/5 VLCD V4 V –3/4 VLCD V –4/5 VLCD CC CC V5 V –VLCD V –VLCD CC CC V CC(+5 V) VCC (+5 V) VCC VCC R R V1 V1 R V2 R V2 VLCD R VLCD V3 R V3 V4 R V4 R R V5 V5 VR VR –5 V –5 V 1/4 bias 1/5 bias (1/8, 1/11 duty cycle) (1/16, duty cycle) Figure
in „Falsche Zeichen bei LCD-Ausgabe“ · Mikrocontroller und Digitale Elektronik ·
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PDF
hd44780u.pdf
VLCD VCC1/5 VLCD V2 VCC1/2 VLCD VCC2/5 VLCD V3 VCC1/2 VLCD VCC3/5 VLCD V4 V –3/4 VLCD V –4/5 VLCD CC CC V5 V –VLCD V –VLCD CC CC V CC(+5 V) VCC (+5 V) VCC VCC R R V1 V1 R V2 R V2 VLCD R VLCD V3 R V3 V4 R V4 R R V5 V5 VR VR –5 V –5 V 1/4 bias 1/5 bias (1/8, 1/11 duty cycle) (1/16, duty cycle) Figure
in „2. Zeile LCD“ · Mikrocontroller und Digitale Elektronik ·
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HD44780U.pdf
VLCD VCC1/5 VLCD V2 VCC1/2 VLCD VCC2/5 VLCD V3 VCC1/2 VLCD VCC3/5 VLCD V4 V –3/4 VLCD V –4/5 VLCD CC CC V5 V –VLCD V –VLCD CC CC V CC(+5 V) VCC (+5 V) VCC VCC R R V1 V1 R V2 R V2 VLCD R VLCD V3 R V3 V4 R V4 R R V5 V5 VR VR –5 V –5 V 1/4 bias 1/5 bias (1/8, 1/11 duty cycle) (1/16, duty cycle) Figure
in „444780 LCD 5x10 klappt nicht richtig!“ · Mikrocontroller und Digitale Elektronik ·
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PDF
HD44780.pdf
VLCD VCC1/5 VLCD V2 VCC1/2 VLCD VCC2/5 VLCD V3 VCC1/2 VLCD VCC3/5 VLCD V4 V –3/4 VLCD V –4/5 VLCD CC CC V5 V –VLCD V –VLCD CC CC V CC(+5 V) VCC (+5 V) VCC VCC R R V1 V1 R V2 R V2 VLCD R VLCD V3 R V3 V4 R V4 R R V5 V5 VR VR –5 V –5 V 1/4 bias 1/5 bias (1/8, 1/11 duty cycle) (1/16, duty cycle) Figure
in „Ist der HD44780 nun 8 oder 16 Zeichen lang?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
TM56M152A-tenxtechnology.pdf
VIH All Input VCC = 3.0~5.0V 0.6VCC – VCC V Input Low Voltage V All Input V = 3.0~5.0V V – 0.2V V IL CC SS CC VCC= 5.0V, 6 12.7 – I/O port VOH = 4.5V Source Current IOH All I/O pin V = 3.0V, mA CC 2.5 5.3 – VOH = 2.7V VCC= 5.0V, 32 63 – All I/O pin except VOL 0.5V PA7 V = 3.0V, mA (HSINK=1) CC 15 29 –
in „MCU identifikation/Datenblatt - MC9989A0ZQ“ · Mikrocontroller und Digitale Elektronik ·
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PDF
thermistor.pdf
True Temp. (°C) Equation 2 Error (°C) Equation 3 Error (°C) range 25°C to 50°C, T is 311°K, b is 1101.0 25.113 –0.023 0.002 m 3428°K, and R im 697 ohms. Using 911.3 30.131 0.004 –0.002 these values in equation 5 yields an R 754.8 35.285 0.016 –0.004 p of 483 ohms. 636.0 40.120 0.024 0.005 In Figure
in „regelbare Konstantstromquelle“ · Mikrocontroller und Digitale Elektronik ·
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ADIS16250.pdf
0.07326°/sec −0.03663°/sec −0.018315°/sec 11 1111 1111 1111 0x3FFF −1 −40°/sec −20°/sec −10°/sec 11 1101 1101 1110 0x3DDE −546 −80°/sec −40°/sec −20°/sec 11 1011 1011 1100 0x3BBC −1092 −320°/sec −160°/sec −80°/sec 10 1110 1111 0000 0x2EF0 −4368 −600°/sec −300°/sec −150°/sec 10 0000 0000 0000 0x2000 −8192
in „ADIS16250 Gyro Code von Hersteller?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
ADIS16250.pdf
0.07326°/sec −0.03663°/sec −0.018315°/sec 11 1111 1111 1111 0x3FFF −1 −40°/sec −20°/sec −10°/sec 11 1101 1101 1110 0x3DDE −546 −80°/sec −40°/sec −20°/sec 11 1011 1011 1100 0x3BBC −1092 −320°/sec −160°/sec −80°/sec 10 1110 1111 0000 0x2EF0 −4368 −600°/sec −300°/sec −150°/sec 10 0000 0000 0000 0x2000 −8192
in „Probleme mit Code für Gyro ADIS16250“ · Mikrocontroller und Digitale Elektronik ·
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PDF
ADIS16250.pdf
0.07326°/sec −0.03663°/sec −0.018315°/sec 11 1111 1111 1111 0x3FFF −1 −40°/sec −20°/sec −10°/sec 11 1101 1101 1110 0x3DDE −546 −80°/sec −40°/sec −20°/sec 11 1011 1011 1100 0x3BBC −1092 −320°/sec −160°/sec −80°/sec 10 1110 1111 0000 0x2EF0 −4368 −600°/sec −300°/sec −150°/sec 10 0000 0000 0000 0x2000 −8192
in „Drift bei Gyro ADIS16250“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Dokumentation.PDF
Revision A4 Date: 15.08.2014 Sheetof File: F:\Benutzer\..\Analog.SchDoDrawn By: 1 2 3 4 1 2 3 4 VMOT VMOT CC1 IC2 C22 IC3 PIC101 PIGND2 C3 29 PIC201 PIGND2 C44 29 A 100uF 10nF 1 TH_PAD_GND P28C2029 GND 100uF 10nF 1 TH_PAD_GND P28C3029 GND A CC5 PIC301 PIC202CP1IC201 GND P27C2028 C66 PIC401 PIC202CP1IC301 GND
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177932_1.pdf
1.6 mA 5 Output high voltage (CMOS) VOHC V – 0.4 — V V –I = 0.6 mA 6 CC CC OH Output low voltage (CMOS) VOLC 0 — 0.4 V OL= 0.6 mA 6 Input leakage current IN –5 — 5 A VIN = 0 –CC 7 Three-state leakage current TSL –10 — 10 A VOUT = 0 – CC 8 Power dissipation (1) PW1 — 10 15
in „GrafikLCD an ATmega328“ · Mikrocontroller und Digitale Elektronik ·
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ADIS16250_16255.pdf
0.07326°/sec −0.03663°/sec −0.018315°/sec 11 1111 1111 1111 0x3FFF −1 −40°/sec −20°/sec −10°/sec 11 1101 1101 1110 0x3DDE −546 −80°/sec −40°/sec −20°/sec 11 1011 1011 1100 0x3BBC −1092 −320°/sec −160°/sec −80°/sec 10 1110 1111 0000 0x2EF0 −4368 −600°/sec −300°/sec −150°/sec 10 0000 0000 0000 0x2000 −8192
in „Bias bei Gyro“ · Mikrocontroller und Digitale Elektronik ·
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PDF
182853-da-01-en-kmi_151t_drehzahlmesser.pdf
specified. SYMBOL PARAMETER CONDITIONS MIN. TYP. MAX. UNIT CC (low) current output signal low see Figs 6 and 8 5.6 7.0 8.4 mA CC (high) current output signal high see Figs 6 and 8 11.2 14.0 16.8 mA r output signal rise time CL= 100 pF; see Fig.9; 10 to 90% value
in „Drehzahlmesser für Drehbank“ · Mikrocontroller und Digitale Elektronik ·
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PDF
KMI_151T.pdf
specified. SYMBOL PARAMETER CONDITIONS MIN. TYP. MAX. UNIT CC (low) current output signal low see Figs 6 and 8 5.6 7.0 8.4 mA CC (high) current output signal high see Figs 6 and 8 11.2 14.0 16.8 mA r output signal rise time CL= 100 pF; see Fig.9; 10 to 90% value
in „Fragen zur Magnetkraft?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
kmi_151t.pdf
specified. SYMBOL PARAMETER CONDITIONS MIN. TYP. MAX. UNIT CC (low) current output signal low see Figs 6 and 8 5.6 7.0 8.4 mA CC (high) current output signal high see Figs 6 and 8 11.2 14.0 16.8 mA r output signal rise time CL= 100 pF; see Fig.9; 10 to 90% value
in „Signal am Zündkabel abgreifen ?!“ · Mikrocontroller und Digitale Elektronik ·
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PDF
KMI15.pdf
specified. SYMBOL PARAMETER CONDITIONS MIN. TYP. MAX. UNIT CC (low) current output signal low see Figs 6 and 8 5.6 7.0 8.4 mA CC (high) current output signal high see Figs 6 and 8 11.2 14.0 16.8 mA r output signal rise time CL= 100 pF; see Fig.9; 10 to 90% value
in „KMI15/1 Drehzahlsensor reagiert nicht“ · Mikrocontroller und Digitale Elektronik ·
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PDF
hd61830.pdf
input set-up time t — — 180 ns 2 SSY Notes: 1. Applied to external clock input terminal. T T h l 0.7 CC 0.5 CC 0.3 CC Oscillator CR Duty cycle =Th × 100% trcp tfcp Th+ Tl 2. Applied to $< terminal. 0.7 VCC CR 0.3CC DSY DSY tHSYO HSYO SYNC 0.7 V (Output: CC at master 0.3 CC mode) t HSYI SSY HSYI SSY SYNC
in „ATMega als LCD-Controller“ · Mikrocontroller und Digitale Elektronik ·
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PDF
hd61830.pdf
input set-up time t — — 180 ns 2 SSY Notes: 1. Applied to external clock input terminal. T T h l 0.7 CC 0.5 CC 0.3 CC Oscillator CR Duty cycle =Th × 100% trcp tfcp Th+ Tl 2. Applied to $< terminal. 0.7 VCC CR 0.3CC DSY DSY tHSYO HSYO SYNC 0.7 V (Output: CC at master 0.3 CC mode) t HSYI SSY HSYI SSY SYNC
in „HD61830A durch HD61830B ersetzen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
hd61830.pdf
input set-up time t — — 180 ns 2 SSY Notes: 1. Applied to external clock input terminal. T T h l 0.7 CC 0.5 CC 0.3 CC Oscillator CR Duty cycle =Th × 100% trcp tfcp Th+ Tl 2. Applied to $< terminal. 0.7 VCC CR 0.3CC DSY DSY tHSYO HSYO SYNC 0.7 V (Output: CC at master 0.3 CC mode) t HSYI SSY HSYI SSY SYNC
in „HD61830 Ansteuerung“ · Mikrocontroller und Digitale Elektronik ·
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PDF
hd61830--kompatibel_zu_LC7981.pdf
input set-up time t — — 180 ns 2 SSY Notes: 1. Applied to external clock input terminal. T T h l 0.7 CC 0.5 CC 0.3 CC Oscillator CR Duty cycle =Th × 100% trcp tfcp Th+ Tl 2. Applied to $< terminal. 0.7 VCC CR 0.3CC DSY DSY tHSYO HSYO SYNC 0.7 V (Output: CC at master 0.3 CC mode) t HSYI SSY HSYI SSY SYNC
in „GLCD hängt sich nach einer Weile auf“ · Mikrocontroller und Digitale Elektronik ·
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MiniF4x1Cx_V31.pdf
KEY CS1 RO1 1 3 PA0 PIR10 PI101 PISW01 PISW13 GND 330R 2 201WSIP 4401WSIP 3*4 按键 A A 用户按键 User KEY CC1 BOOT0 VBAT PIC01 PC12 U1B 0.1uF CR2 CO2 VBAT PI U101 VBAT EP PIU1940 GND PIR01 PR22 GND PI20 PIC02 GND GND 24 23 10K PIU102 4 VDD VSS PIU1023 PI1PI0 0.1uF PIU103 6 PIU1035 3.3V PD 3.3V 48 VDD VSS 47
in „was kommt nach dem Bluepill-Board?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
LTC1257.pdf
4.75V to 15.75V, internal or external reference (2.475V V V – 2.7V), unless otherwise noted. A MIN MAX CC REF CC SYMBOL PARAMETER CONDITIONS MIN TYP MAX UNITS Power Supply VCC Positive Supply Voltage For Specified Performance 4.75 15.75 V ICC Supply Current 4.75V V CC 5.25V 350 600 A 4.75V V CC 15.75V 800
in „Elektrometer - Rückkopplung dimensionieren?“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Test.asm
1, // 0100, 0101, 0110, 0111 659: 1, 0, 0, 1, // 1000, 1001, 1010, 1011 660: 0, 1, 1, 0 // 1100, 1101, 1110, 1111 661: }; 662: 663: return nibbleParity[i&0x0F] ^ nibbleParity[i>>4]; 02C8 00F3 MOVWF 0x73 02C9 0873 MOVF 0x73, W 02CA 00F1 MOVWF 0x71 02CB 3004 MOVLW 0x4 02CC 36F1 LSRF 0x71, F 02CD 0B89 DECFSZ 0x9, F 02CE 2ACC GOTO 0x2cc 02CF 0871 MOVF 0x71, W 02D0 3E63 ADDLW 0x63 02D1 3182 MOVLP 0x2 02D2 000A CALLW 02D3 3182 MOVLP 0x2 02D4 00F2 MOVWF 0x72 02D5 0873 MOVF 0x73, W 02D6 390F ANDLW 0xf 02D7 3E63 ADDLW 0x63 02D8 3182 MOVLP
in „PIC16 Anweisungen wegoptimiert“ · Mikrocontroller und Digitale Elektronik ·
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PDF
TVA1963.pdf
CAPACITANCE CASE CODE PART NUMBER (1) LEAD DIAMETER (AWG) (μF) SINGLE UNITS (POLARIZED) 6 WV DC 200.0 CB TVA1101.7 20 10 WVDC 5000.0 GK TVA1129.5 20 16 WV DC 25.0 BA TVA1148 20 50.0 BB TVA1150 20 100.0 CB TVA1160 20 200.0 CC TVA1160.6 20 250.0 DC TVA1161 20 500.0 DD TVA1162 20 600.0 DF TVA1162.2 20 800.0 DF TVA1162.3
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PDF
LEGO_PowerFunctions.pdf
command Escape E 0 Use “Mode” to select the modes listed below 1 Combo PWM mode (timeout) Channel CC 0-3 Channel switch 1 - 4 Address a 0 Current address space (bonded configuration in RC Receiver) 1 Extra address space Mode MMM 000 Not used in PF RC Receiver 001 Combo direct (timeout) 010 Single pin
in „IRMP - Infrared Multi Protocol Decoder“ · Projekte & Code ·
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Datei
TS-iP59_V05_FKA_240160A.c
address control: 0x88 to 0x8F, 1000 1001 */ Steuerbefehl(0xD0); /* Color pattern Select BGR mode, 1101 0000; Farbmuster Wählen Sie den BGR-Modus */ Steuerbefehl(0xD5); /* Set color mode to 4K color, 1101 0101*/ Steuerbefehl(0xDD); /* Set COM scan function PWM on model, 1101 1101*/ Steuerbefehl(0xA1);
in „Display DEM240160A mit UC1698u einzelne Bildpunkte setzen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Vcc_Original_Info.pdf
1023.0, since analogRead returns int (0 to 1023). * 0 = 0.00 V * 1023 = Vref See https://www.arduino.cc/en/Reference/analogRead majenko Post author January 23, 2017 at 8:38 pm No. Common misconception there. 1023 is *not* Vref. It is Vref **minus 1 LSB** (***READ THE DATASHEET***). So Vref would actually
in „Messen der uC_eigenen Ub mit Arduino Nano“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
Schematic_bruce-2_2024-12-19.pdf
F GNDA1B12 3.3VCC 2 3V3 IO1 39 F1 F VBUS4B9 R10 EN 3 EN IO2 38 F2 SBU28 5.1k IR_RX 4 37 TX C1 R24 CC1A5 D1 IR_TX 5 IO4 TXD0 36 RX 100nf 100k DN2B7 GND USBLC6-2SC6_C2827654 6 IO5 RXD0 35 TFT 1.9 ST7789 DP1A6 1 6 TFT_BL 7 IO6 IO42 34 42 checked A7 2IO1 IO1 5 D- TFT_CS 8 IO7 IO41 33 BT_UP DN1B6 GND 3GND
in „Möglicher Fehler mit AO3400 und Bauteilen U4 Bruce github“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Schematic_bruce-2_2024-12-19.pdf
F GNDA1B12 3.3VCC 2 3V3 IO1 39 F1 F VBUS4B9 R10 EN 3 EN IO2 38 F2 SBU28 5.1k IR_RX 4 37 TX C1 R24 CC1A5 D1 IR_TX 5 IO4 TXD0 36 RX 100nf 100k DN2B7 GND USBLC6-2SC6_C2827654 6 IO5 RXD0 35 TFT 1.9 ST7789 DP1A6 1 6 TFT_BL 7 IO6 IO42 34 42 checked A7 2IO1 IO1 5 D- TFT_CS 8 IO7 IO41 33 BT_UP DN1B6 GND 3GND
in „Möglicher Fehler mit AO3400 und Bauteilen U4 Bruce github“ · Mikrocontroller und Digitale Elektronik ·
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LM75A_1.pdf
6 A1 Digital input. User-defined address bit1. 7 A0 Digital input. User-defined address bit0. 8 V CC Power supply. SIMPLIFIED BLOCK DIAGRAM V CC BIAS POINTER CONFIGURATION REFERENCE REGISTER REGISTER BAND–GAP COUNTER TEMPERATURE TEMP 11–BIT REGISTER SENSOR SIGMA–DELTA A–TO–D TOS CONVERTER TIMER REGISTER
in „LM 75 temperatur wird nicht aktualisiert“ · Mikrocontroller und Digitale Elektronik ·
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PDF
ltc485.pdf
, otherwise specifications are at T =A25°C.V CC = 5V 5%, unless otherwise noted. (Notes 2 and 3) SYMBOL PARAMETER CONDITIONS MIN TYP MAX UNITS I Supply Current No Load, Pins 2, Outputs Enabled 500 900 A CC 3, 4 = 0V or 5V Outputs Disabled 300 500
in „IR mit langer Leitung“ · Mikrocontroller und Digitale Elektronik ·
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TLC2543.pdf
V VCC = 4.5 V to 5.5 V, OH = –20 A V CC –0.1 V = 4.5 V, I = 1.6 mA 0.4 V Low-level output voltage CC OL V OL VCC = 4.5 V to 5.5 V, OL = 20 A 0.1 High-impedance off-state outpuO = VCC , CS at CC 1 2.5 OZ current V = 0, CS at V 1 –2.5 A O CC
in „externer A/D Wandler“ · Mikrocontroller und Digitale Elektronik ·
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FM6126A.pdf
93 C3 S4 84 94 C4 D4 S5 85 95 C5 D5 D1 S6 86 96 C6 D6 D2 88 S7 87 97 C7 D7 D3 8A 80 S8 88 98 C8 D8 CC DC 8C 9C S9 89 99 C9 D9 CD DD 8D 9D C1 S10 8A 9A CA DA CE DE 8E 9E C2 90 GND 8B 9B CB DB CF DF 8F 9F C0 91 DO www.superchip.cn 第 3 页 共 5 页 Version 1.0 深圳市富满电子有限公司 SHENZHEN FUMAN ELECTRONICS CO., LTD.
in „Chinesische IC und ihre Verwandschaft“ · Mikrocontroller und Digitale Elektronik ·
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PDF
tda8444.pdf
QUICK REFERENCE DATA SYMBOL PARAMETER CONDITIONS MIN. TYP. MAX. UNIT VCC supply voltage 4.5 12 13.2 V CC supply current V CC= 12 V − 14 − mA P power dissipation − 170 − mW VVMAX input effective voltage 1 − VCC − 2.0 V V DAC output voltage V = V 0.1 − V − 0.5 V o(DACn) MAX CC CC Vo(DACn)(max)maximum DAC
in „Verzweifle an TWI Code Mega8-TDA 8444“ · Mikrocontroller und Digitale Elektronik ·
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PDF
8444_TDA8444.pdf
QUICK REFERENCE DATA SYMBOL PARAMETER CONDITIONS MIN. TYP. MAX. UNIT VCC supply voltage 4.5 12 13.2 V CC supply current V CC= 12 V − 14 − mA P power dissipation − 170 − mW VVMAX input effective voltage 1 − VCC − 2.0 V V DAC output voltage V = V 0.1 − V − 0.5 V o(DACn) MAX CC CC Vo(DACn)(max)maximum DAC
in „TDA8444 kurze Verständnisfrage“ · Mikrocontroller und Digitale Elektronik ·
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PDF
datasheet.pdf
+V output voltage O 2 GND ground 3 −VO output voltage 4 V supply voltage Fig.1 Simplified outline. CC QUICK REFERENCE DATA SYMBOL PARAMETER MIN. TYP. MAX. UNIT VCC bridge supply voltage − 5 − V Tbridge bridge operating temperature −40 − +150 °C Hy magnetic field strength −0.5 − +0.5 kA/m Hx auxiliary
in „KFZ Start/Ladegerät Amperemeter tauschen“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
STR_AmpV2.pdf
GND PIR4R12 32 GND PR4R 32 PIR4545 a PCR992 GND GND 1.2K801 GND GND GND P2 G G / 12 C8686 PIC5050 CC63 e C85C85 3 6 5 COR75 D18D18 470µF PIC501Semi PI4.7K 31 10µF P4.7K01 PI4.7K1 r PI3.1K PIR502 P1 330µF 13P I06PPIR7502PIR7501 1030BQ060 I01 2.2µF t R5050 63V DC/DC 10R D 3 n 3 D 12 L P32 0 MOSFET o PIR501
in „Class-D Verstärker TPA3244“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
UBA2000.pdf
switching device is turned off when the current through the internal sense resistor equals at When V CC has reached the start level (V CC(sl) and the peak value of V > V (indicating that the mains supply is least285 mA.Asaresultofthecurrentinterruptionandthe in ign presence of an inductive load, a voltage
in „Schnellstarter für Leuchtstofföhren - welche taugen was?“ · Haus & Smart Home ·
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PDF
PCA82C250_PHI.pdf
floating) floating floating recessive 1 (1) (1) <2 V (not powered) X floating floating recessive X 2 V < V CC < 4.5 V >0.75V CC floating floating recessive X(1) 2 V < V CC < 4.5 V X(1) floating if floating if recessive X(1) VRs > 0.75V CC VRs > 0.75V CC Note 1. X = donÕt care. Table 2 Pin Rs summary CONDITION FORCED AT PIN Rs MODE RESULTING VOLTAGE OR CURRENT AT PIN Rs V > 0.75V standby I < 10 A Rs CC Rs −10 A < I Rs < −200 A slope control 0.4V CC < VRs < 0.6V CC V Rs< 0.3V CC high-speed Rs < −500 A 2000 Jan 13 4 Philips Semiconductors Product specification CAN controller interface PCA82C250 LIMITING
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PDF
82C250.pdf
floating) floating floating recessive 1 (1) (1) <2 V (not powered) X floating floating recessive X 2 V < V CC < 4.5 V >0.75V CC floating floating recessive X(1) 2 V < V CC < 4.5 V X(1) floating if floating if recessive X(1) VRs > 0.75V CC VRs > 0.75V CC Note 1. X = donÕt care. Table 2 Pin Rs summary CONDITION FORCED AT PIN Rs MODE RESULTING VOLTAGE OR CURRENT AT PIN Rs V > 0.75V standby I < 10 A Rs CC Rs −10 A < I Rs < −200 A slope control 0.4V CC < VRs < 0.6V CC V Rs< 0.3V CC high-speed Rs < −500 A 2000 Jan 13 4 Philips Semiconductors Product specification CAN controller interface PCA82C250 LIMITING
in „I2C vs CAN vs Ethernet“ · Mikrocontroller und Digitale Elektronik ·
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KMI16_1.pdf
rotational speed of ferrous PIN SYMBOL DESCRIPTION gear wheels and reference marks. 1 V DC supply voltage CC The sensor consists of a magnetoresistive sensor 2 Vout open collector output element, a signal conditioning integrated circuit in bipolar technology and a ferrite magnet. 3 GND ground The frequency
in „Datenblätter Kfz-Hallsensoren wo?“ · Analoge Elektronik und Schaltungstechnik ·
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Vierzeiliges_Display_DEM20488.pdf
PATTERN (ST7066U-OA) Upper(4bit) 0000 0001 0010 0011 0100 0101 0110 0111 1000 1001 10010 1011 1100 1101 1110 1111 Lowerr(4bit) CG RAM 0000 (1) 0001 (2) 0010 (3) 0011 (4) 0100 (5) 0101 (6) 0110 (7) 0111 (8) 1000 (1) 1001 (2) 1010 (3) 1011 (4) 1100 (5) 1101 (6) 1110 (7) 1111 (8) Version:3 11 DEM 20488 SYH-PY
in „Probleme mit LCD-Display“ · Mikrocontroller und Digitale Elektronik ·
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DEM20488SYH-PY.PDF
PATTERN (ST7066U-OA) Upper(4bit) 0000 0001 0010 0011 0100 0101 0110 0111 1000 1001 10010 1011 1100 1101 1110 1111 Lowerr(4bit) CG RAM 0000 (1) 0001 (2) 0010 (3) 0011 (4) 0100 (5) 0101 (6) 0110 (7) 0111 (8) 1000 (1) 1001 (2) 1010 (3) 1011 (4) 1100 (5) 1101 (6) 1110 (7) 1111 (8) Version:3 11 DEM 20488 SYH-PY
in „LCD Problem im 4-Bit Modus“ · Mikrocontroller und Digitale Elektronik ·
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BUW84.PDF
deflection circuit (see Fig.11) on turn-on time ICon= 1 A; IBon= 200 mA; − 0.2 0.5 s IBoff −400 mA; V CC = 250 V s storage time ICon= 1 A; IBon= 200 mA; − 2 3.5 s IBoff −400 mA; V CC = 250 V f fall time ICon= 1 A; IBon= 200 mA; − 0.4 − s IBoff −400 mA; V CC = 250 V ICon= 1 A; IBon= 200 mA; − − 1.4 s IBoff −400 mA; V CC = 250 V; Tmb = 95 °C Note 1. Measured with a half-sinewave voltage (curve tracer). MGE239 handbook, halfpage handbooC, halfpage + 50 V (mA) 100 to 200 250 L 200 horizontal oscilloscope 100 vertical 6
in „Hochspannung Regeln für eine Bildverstärker Röhre“ · Analoge Elektronik und Schaltungstechnik ·