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PDF
sensors-09-04615.pdf
. The ADC in the PIC acquires the conditioned analogue signal from the photodiode and converts it into digital format. Then, the digital signal generated is sent to the transmission system, made up of an RS 485 full-duplex serial bus converter: MAX3080. The PIC also maintains the inside of the pyranometer at a constant temperature. For this reason, it receives the signal from an analogue temperature sensor: LM35 (chosen for its stability and precision), fitted
in „Sonnenscheindauer Sensor selber bauen Eigenbau ATmega Assembler“ · Projekte & Code ·
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PDF
MCP2551.pdf
0.8 V OL = 8 mA Voltage Reference Output (VEF) D33 VREF Reference output voltage 0.45 VDD 0.55 DD V -50 µA <VREF < 50 µA Standby/Slope-Control (R pin) D34 VSTB Input voltage for standby mode 0.75 VDD — V D35 ISLOPE Slope-control mode current -10 -200 µA D36 VSLOPE Slope-control mode voltage 0.4 DD 0.6
in „CAN-BUS - Nur empfangen - Was mache ich mit dem TXD Pin am Tranceiver??“ · Mikrocontroller und Digitale Elektronik ·
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Bild
Handgezeichneter Schaltplan eines bürstengebundenen DC-Motorcontrollers
Brushed DC MOTORCONTROLLER (ferienheim) 6.9.2017 (PIC12683 ADC - PWM) 32V+ 24V+ LM317 12V 1K 10nF 0,1uF VS VCC IR21841 Hin H_o VB VS GND Lo Lin 33 IRF3205 2550 RB5 2550 RA2 GP0 GP1 GP2 GP3 GP4 GP5 PIC12683 RC0 PWM 50% 21.11.2018 2550 RC1 1K2 10uF 21.11.2018
in „IRF1405PBF Mosfet wird zu heiss und verabschiedet sich“ · Analoge Elektronik und Schaltungstechnik · · Fotos
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Datei
8_Bit_Init_16F872.asm
*********************************************************************************** ; Programm für 50ms Verzögerung ;*************************************************************************************************** time50ms: movlw 0x32 ; lädt Work-Reg. mit Wert "50" movwf count50ms ; kopiert Work-Reg. in count50ms loop50ms: call time1ms ; sprung in Unterprogramm decfsz count50ms ; verringert Wert von count50ms um 1, wenn "0" ; dann überspringe nächsten Befehl goto loop50ms ; Sprungbefehl zu Marker "loop50ms"
in „LCD mit 16F872 ansteuern“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Ind_Adr_V0_0.lst
28.05.2012 00004 ;********************************************************************** 00005 ; Hardware PIC 16F628 (virtuell) 00006 ; Software MPLAB 8.84 00007 ; (MPLAB SIM fosz=4MHz) 00008 ;********************************************************************** 00009 ; Notes: Übung zum Umgang mit dem FSR
in „PIC16F628 und FSR“ · Mikrocontroller und Digitale Elektronik ·
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PDF
DoppelMagnetruehrer.PDF
4I-S2AE P2 100 nFPIU103GND PIU103GND PR0/SYNC/XTAL2/TOSC2 PI37036 CO6 J3J PR1/SYNC/XTAL1/TOSC1 PIU1037 PIC602 PIC601 P I J 3 0 1 ATxmega64A4U-AU 1 P I J 3 0 2 GND X1 10 pF P I J 3 0 3 GND X2X P I J 3 0 4 X032.768CO7 PIC702 PIC701 +3V3 +3V3 Molex 22-27-2041 10 pF P2 R101 JP3P 4k7 Vcc P I J P 3 0 2 D P0 D
in „Platine für Doppelmagnetrüher“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
TSic_Zacwire_EN.pdf
Temperature Sensors IC Application Notes TM ZACwire Digital Output TM 2 Appendix A: An Example of PIC1 Assembly Code for RTMding the ZACwire In the following code example, it is assumed that the ZACpin is connected to the interrupt pin (PORTB, 0) of the PIC and that the interrupt is configured for falling edge interruption. This code should work for a PIC running between 2-12MHz. TEMP_HIGH EQU 0X24 ;; MEMORY LOCATION RESERVED FOR TEMP HIGH BYTE TEMP_LOW EQU 0X25 ;; MEMORY LOCATION RESERVED FOR TEMP LOW BYTE ;; THIS BYTE MUST BE CONSECUTIVE FROM TEMP_HIGH
in „TSIC 206 auswerten für Anfänger“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AD5415.pdf
Max Unit Conditions SFDR Performance (Wideband) Clock = 10 MHz 500 kHz fOUT 55 dB 100 kHz fOUT 63 dB 50 kHz OUT 65 dB Clock = 25 MHz 500 kHz fOUT 50 dB 100 kHz fOUT 60 dB 50 kHz OUT 62 dB SFDR Performance (Narrow-Band) Clock = 10 MHz 500 kHz f 73 dB OUT 100 kHz fOUT 80 dB 50k Hz f 87 dB OUT Clock = 25
in „D/A mit Stromausgang“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Bidirektionale_RS232_Funkbr_cke_mit_RFM12_2.pdf
Autor: E. M a t t h i a s (hias) Datum: 16.07.2007 21:35 Mich würde das Netzwerk interessieren das zur 50 Ohm Anpassung nötig ist. Außerdem, wie schauts mit der Rückkoppelung aus? (transceiver) Hias Autor: Christian J. (elektroniker1968) Datum: 16.07.2007 23:36 Angehängte Dateien: • PIC00019.JPG 82,8 KB,
in „bidirektionale RS232 Funkbrücke mit RFM12“ · Projekte & Code ·
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PDF
semicon.pdf
MSOP8 6000 IC Asahi Kasei AK4311VM E1 DAC SO 2000 x MCP3202 DIP8 90 x ADC0802 DIP20 40 x DAC0832 DIP20 50 x TC7662 DIP8 60 x MAX663 DIP8 39 IC Analog Devoices AD7524 JR SO20 100 LM3914 DIP18 99 IC Toshiba TMP91PW12F uC TQFP100 3300 IC Microchip PIC16F877 04/PT LQFP44 354 IC Microchip PIC16F877 20/L LQFP44
in „4" TFT für 7,97€“ · Markt ·
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PDF
Platinfuchs_IIa_Schematic-and-Layout.pdf
Replacement: Replacement: OPA2188 OPA2188 OPA2180 OPA2180 I-Shunt2 U-Line2 % % % % aGND aGND R48 % C49 R50 R51 R52 R53 C48 % R49 aGND 82K 100pF 680R 220R 22K 68K 100pF 82K U8B R54 30K for V=33,333 => 15Amax R55 U8C 56K % % 56K -12,50 A ^= 4000 LSB 100R MCP6074 5 R58 R59 10 MCP6074 100R -5,00 V ^= 4000 LSB
in „Platinfuchs IIa: Isolierter, bidirektionaler 45W DC/DC Wandler zum Laden/Entladen eines Liion-Akkus“ · Projekte & Code ·
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PDF
Xmega_Stick.PDF
:\Users\..\Stick Header.SchDoc Drawn By: 1 2 3 4 1 2 3 4 A A V_USB_FTDI R11 VUSB PIR1101PIR1102 C1 PIC1101 PIC1102 0R GND U33 2 4 FT232RL-Tube 100n 32P 04 USB/SERIAL PIU303V3OUT C O TXD PIU301 TXD P66 C2 V C RXD PIU305 RXD POUSB/SERIAL VBUS P 2 P 6 0 1L2PIL201 PIL202 16 V DTR P9U302 DM P 3 P 6 0 2 PIU30USBDM
in „AtXmega256A3U Board mit USB Interface“ · Mikrocontroller und Digitale Elektronik ·
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PDF
si-prog-v2_2.pdf
SCL 2 6 A1 Tout 3 Q5 5 A2 GND 4 BC557 C14 100nF SOCKET-DIP8 R14 10K BT1 J5 9V-BAT R10 C21 1 1K U9 PIC16Fxx J8 B U4 2 1 RA2 RA1 18 100nF 1 B U13 8 VCC CS 1 3 2 RA3 RA0 17 R17 1K 2 1 A0 VCC 8 7 PE CLK 2 4 3 RA4/T0CKI OSC1/CLKIN 16 3 2 7 C7 6 3 4 15 C16 3 A1 TEST 6 100nF 5 ORG DI 4 5 5 MCLR OSC2/CLKOUT
in „Grundlagen: Teilen binär Teil 1 - Vorzeichenlose Ganzzahlen“ · Projekte & Code ·
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PDF
eeprom_progger_schaltplan.pdf
SCL 2 6 A1 Tout 3 Q5 5 A2 GND 4 BC557 C14 100nF SOCKET-DIP8 R14 10K BT1 J5 9V-BAT R10 C21 1 1K U9 PIC16Fxx J8 B U4 2 1 RA2 RA1 18 100nF 1 B U13 8 VCC CS 1 3 2 RA3 RA0 17 R17 1K 2 1 A0 VCC 8 7 PE CLK 2 4 3 RA4/T0CKI OSC1/CLKIN 16 3 2 7 C7 6 3 4 15 C16 3 A1 TEST 6 100nF 5 ORG DI 4 5 5 MCLR OSC2/CLKOUT
in „Eeprom-Progger unter XP will keine 24Cxx bearbeiten“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Bauteilliste.txt
+LCD DIP40 0,70.- 12Stk. ICM7211AIPL 4Dig.LCD Driver,MC Interface DIP40 1,00.- 8Stk. LCD 4 1/2 Dig,50x32 1,00.- 400Stk. TL084N 4 fach OV DIP14 0,15.- 11Stk. INA111AP Instr.Amp. Präz.Ib=20pA,DIP8 2,50.- 50Stk. OPA2111KP 2fach OV Fet,Präz.,low noise,DIP8 2,50.- 6Stk. KM6264 RAM 8Kx8,100ns DIP28 1,00.- 30Stk. LT1158CN MF Half-bridge Driver DIP16 1,00.- 1000Stk.1N4148 Diode 0,01.- 50Stk. 6N137 Logik-Koppler 10MHz,DIP8 0,20.- 50Stk. 7912 -12V/1A Sp. Regl.TO220 0,15.- 9Stk. PIC16C84-04 MC Flash DIP18 1,00.- 100Stk. NE555/TLC555 Timer DIP8 0,10.- 50Stk. CD4093 C-MOS NAND Sch.Tr.DIP14
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Datei
Bauteilliste.txt
+LCD DIP40 0,70.- 12Stk. ICM7211AIPL 4Dig.LCD Driver,MC Interface DIP40 1,00.- 8Stk. LCD 4 1/2 Dig,50x32 1,00.- 400Stk. TL084N 4 fach OV DIP14 0,15.- 11Stk. INA111AP Instr.Amp. Präz.Ib=20pA,DIP8 2,50.- 50Stk. OPA2111KP 2fach OV Fet,Präz.,low noise,DIP8 2,50.- 6Stk. KM6264 RAM 8Kx8,100ns DIP28 1,00.- 30Stk. LT1158CN MF Half-bridge Driver DIP16 1,00.- 1000Stk.1N4148 Diode 0,01.- 50Stk. 6N137 Logik-Koppler 10MHz,DIP8 0,20.- 50Stk. 7912 -12V/1A Sp. Regl.TO220 0,15.- 9Stk. PIC16C84-04 MC Flash DIP18 1,00.- 100Stk. NE555/TLC555 Timer DIP8 0,10.- 50Stk. CD4093 C-MOS NAND Sch.Tr.DIP14
in „[V] Bauteile THT“ · Markt ·
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PDF
BM83_Embedded_Mode_Reference_Circuit_PCB.pdf
P0_0 330pF 1000pF B P1_2 PI304SCL 50V CPI50 PC71uF CPI50 PI501uF 50V B 3V3_DSP PR SA 2 203UIP PC0603 0603 50V 0603 50V P00603 R27 P1_3 333SDAUIP CL8 10k TEST_MODE PI303 OUTMR P0 P80 I2S Test Header (OPTIONAL) PR0603NP 15uH CJ4 PR P2 1%
in „BM83SM1-00TA Blootoh Audio“ · Mikrocontroller und Digitale Elektronik ·
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PDF
MCP1640.pdf
515 IOUT= 5 mA y 3.34 n 510 V e T q 505 U 3.32 r 500 V F 3.30 n 495 OUT= 15 mA h t 490 3.28 w OUT = 50 mA S 485 3.26 480 -40 -25 -10 5 20 35 50 65 80 -40 -25 -10 5 20 35 50 65 80 Ambient Temperature (°C) Ambient Temperature (°C) FIGURE 2-8: 3.3V V OUT vs. Ambient FIGURE 2-11: F OSC vs. Ambient Temperature
in „ESP32-C6 an 18650 Akku betreiben“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Bauteilliste3.txt
Instr.Amp. Präz.Ib=20pA,DIP8 2,50.- 50Stk. OPA2111KP 2fach OV Fet,Präz.,low noise,DIP8 2,50.- 6Stk. KM6264 RAM 8Kx8,100ns DIP28 1,00.- 30Stk. LT1158CN MF Half-bridge Driver DIP16 1,00.- 1000Stk.1N4148 Diode 0,01.- 40Stk. 6N137 Logik-Koppler 10MHz,DIP8 0,20.- 50Stk. 7912 -12V/1A Sp. Regl.TO220 0,15.- 9Stk. PIC16C84-04 MC Flash DIP18 1,00.- 100Stk. NE555 Timer DIP8 0,10.- 50Stk. CD4093 C-MOS NAND Sch.Tr.DIP14 0,10.- ***Passiv 100Stk. R01JM3 Wid.Zement,0,01Ohm
in „[V] Bauteile THT“ · Markt ·
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PDF
IST_TSic_ZACwire_V2.3_Digital_Output_17-Oct-06.pdf
Precision Temperature Sensor IC Technical Notes – ZACwireTM Digital Output Appendix A: An Example of PIC1 Assembly Code for Reading the ZACwire™ In the following code example, it is assumed that the Zpin is connected to the interrupt pin (PORTB, 0) of the PIC and that the interrupt is configured for falling edge interruption. This code should work for a PIC running between 3-20MHz. TEMP_HIGH EQU 0X24 ;; MEMORY LOCATION RESERVED FOR TEMP HIGH BYTE TEMP_LOW EQU 0X25 ;; MEMORY LOCATION RESERVED FOR TEMP LOW BYTE ;; THIS BYTE MUST BE CONSECUTIVE FROM TEMP_HIGH
in „digitale Tempsensoren von ZMD“ · Mikrocontroller und Digitale Elektronik ·
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PDF
TSIC_ZACWIRE.pdf
Precision Temperature Sensor IC Technical Notes – ZACwireTM Digital Output Appendix A: An Example of PIC1 Assembly Code for Reading the ZACwire™ In the following code example, it is assumed that the Zpin is connected to the interrupt pin (PORTB, 0) of the PIC and that the interrupt is configured for falling edge interruption. This code should work for a PIC running between 3-20MHz. TEMP_HIGH EQU 0X24 ;; MEMORY LOCATION RESERVED FOR TEMP HIGH BYTE TEMP_LOW EQU 0X25 ;; MEMORY LOCATION RESERVED FOR TEMP LOW BYTE ;; THIS BYTE MUST BE CONSECUTIVE FROM TEMP_HIGH
in „temperatursensor wasserdicht“ · Mikrocontroller und Digitale Elektronik ·
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PDF
TSIC_ZACWIRE.pdf
Precision Temperature Sensor IC Technical Notes – ZACwireTM Digital Output Appendix A: An Example of PIC1 Assembly Code for Reading the ZACwire™ In the following code example, it is assumed that the Zpin is connected to the interrupt pin (PORTB, 0) of the PIC and that the interrupt is configured for falling edge interruption. This code should work for a PIC running between 3-20MHz. TEMP_HIGH EQU 0X24 ;; MEMORY LOCATION RESERVED FOR TEMP HIGH BYTE TEMP_LOW EQU 0X25 ;; MEMORY LOCATION RESERVED FOR TEMP LOW BYTE ;; THIS BYTE MUST BE CONSECUTIVE FROM TEMP_HIGH
in „Temperatursensor TSIC 306 TO92“ · Mikrocontroller und Digitale Elektronik ·
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PDF
TSic_ZACwire_V2.3_Digital_Output_17-Oct-06_Software_.pdf
Precision Temperature Sensor IC Technical Notes – ZACwireTM Digital Output Appendix A: An Example of PIC1 Assembly Code for Reading the ZACwire™ In the following code example, it is assumed that the Zpin is connected to the interrupt pin (PORTB, 0) of the PIC and that the interrupt is configured for falling edge interruption. This code should work for a PIC running between 3-20MHz. TEMP_HIGH EQU 0X24 ;; MEMORY LOCATION RESERVED FOR TEMP HIGH BYTE TEMP_LOW EQU 0X25 ;; MEMORY LOCATION RESERVED FOR TEMP LOW BYTE ;; THIS BYTE MUST BE CONSECUTIVE FROM TEMP_HIGH
in „wie Daten an MSP430F1611 seriell einlesen?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
TSIC_ZACWIRE.pdf
Precision Temperature Sensor IC Technical Notes – ZACwireTM Digital Output Appendix A: An Example of PIC1 Assembly Code for Reading the ZACwire™ In the following code example, it is assumed that the Zpin is connected to the interrupt pin (PORTB, 0) of the PIC and that the interrupt is configured for falling edge interruption. This code should work for a PIC running between 3-20MHz. TEMP_HIGH EQU 0X24 ;; MEMORY LOCATION RESERVED FOR TEMP HIGH BYTE TEMP_LOW EQU 0X25 ;; MEMORY LOCATION RESERVED FOR TEMP LOW BYTE ;; THIS BYTE MUST BE CONSECUTIVE FROM TEMP_HIGH
in „PWM Drucksensor“ · Mikrocontroller und Digitale Elektronik ·
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PDF
TSIC_ZACWIRE.pdf
Precision Temperature Sensor IC Technical Notes – ZACwireTM Digital Output Appendix A: An Example of PIC1 Assembly Code for Reading the ZACwire™ In the following code example, it is assumed that the Zpin is connected to the interrupt pin (PORTB, 0) of the PIC and that the interrupt is configured for falling edge interruption. This code should work for a PIC running between 3-20MHz. TEMP_HIGH EQU 0X24 ;; MEMORY LOCATION RESERVED FOR TEMP HIGH BYTE TEMP_LOW EQU 0X25 ;; MEMORY LOCATION RESERVED FOR TEMP LOW BYTE ;; THIS BYTE MUST BE CONSECUTIVE FROM TEMP_HIGH
in „Zacwire howto“ · Mikrocontroller und Digitale Elektronik ·
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PDF
IST_TSic_ZACwire_V2.3_Digital_Output_17-Oct-06.pdf
Precision Temperature Sensor IC Technical Notes – ZACwireTM Digital Output Appendix A: An Example of PIC1 Assembly Code for Reading the ZACwire™ In the following code example, it is assumed that the Zpin is connected to the interrupt pin (PORTB, 0) of the PIC and that the interrupt is configured for falling edge interruption. This code should work for a PIC running between 3-20MHz. TEMP_HIGH EQU 0X24 ;; MEMORY LOCATION RESERVED FOR TEMP HIGH BYTE TEMP_LOW EQU 0X25 ;; MEMORY LOCATION RESERVED FOR TEMP LOW BYTE ;; THIS BYTE MUST BE CONSECUTIVE FROM TEMP_HIGH
in „digitaler Thermosensor“ · Mikrocontroller und Digitale Elektronik ·
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PDF
TSIC_ZACWIRE.pdf
Precision Temperature Sensor IC Technical Notes – ZACwireTM Digital Output Appendix A: An Example of PIC1 Assembly Code for Reading the ZACwire™ In the following code example, it is assumed that the Zpin is connected to the interrupt pin (PORTB, 0) of the PIC and that the interrupt is configured for falling edge interruption. This code should work for a PIC running between 3-20MHz. TEMP_HIGH EQU 0X24 ;; MEMORY LOCATION RESERVED FOR TEMP HIGH BYTE TEMP_LOW EQU 0X25 ;; MEMORY LOCATION RESERVED FOR TEMP LOW BYTE ;; THIS BYTE MUST BE CONSECUTIVE FROM TEMP_HIGH
in „TSIC306 - Verständnisfrage“ · Mikrocontroller und Digitale Elektronik ·
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PDF
IST_TSic_ZACwire_V2.3_Digital_Output_17-Oct-06.pdf
Precision Temperature Sensor IC Technical Notes – ZACwireTM Digital Output Appendix A: An Example of PIC1 Assembly Code for Reading the ZACwire™ In the following code example, it is assumed that the Zpin is connected to the interrupt pin (PORTB, 0) of the PIC and that the interrupt is configured for falling edge interruption. This code should work for a PIC running between 3-20MHz. TEMP_HIGH EQU 0X24 ;; MEMORY LOCATION RESERVED FOR TEMP HIGH BYTE TEMP_LOW EQU 0X25 ;; MEMORY LOCATION RESERVED FOR TEMP LOW BYTE ;; THIS BYTE MUST BE CONSECUTIVE FROM TEMP_HIGH
in „TSIC 206 auswerten für Anfänger“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Bauteilliste2.txt
.- 12Stk. ICM7211AIPL 4Dig.LCD Driver,MC Interface DIP40 1,00.- 7Stk. LCD 4 1/2 Dig,50x32 1,00.- 400Stk. TL084N 4 fach OV DIP14 0,15.- 11Stk. INA111AP Instr.Amp. Präz.Ib=20pA,DIP8 2,50.- 50Stk. OPA2111KP 2fach OV Fet,Präz.,low noise,DIP8 2,50.- 6Stk. KM6264 RAM 8Kx8,100ns DIP28 1,00.-
in „[V] Bauteile THT“ · Markt ·
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Datei
Bauteilliste4.txt
Osz. DIP16 0.10.- 12Stk. ICM7211AIPL 4Dig.LCD Driver,MC Interface DIP40 1,00.- 3Stk. LCD 4 1/2 Dig,50x32 1,00.- 400Stk. TL084N 4 fach OV DIP14 0,15.- 11Stk. INA111AP Instr.Amp. Präz.Ib=20pA,DIP8 2,50.- 50Stk. OPA2111KP 2fach OV Fet,Präz.,low noise,DIP8 2,50.- 6Stk. KM6264 RAM 8Kx8,100ns DIP28 1,00.-
in „[V] Bauteile THT“ · Markt ·
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PDF
91055b.pdf
Ground This technical brief details the translation of a PS/2 Power mouse to a USB mouse using the PIC16C745/765. The Clock PIC16C745/765 is Microchip’s low speed USB micro- Data controller. All of the USB descriptors for the mouse translator are listed in the tables in Appendix A. A The power and ground
in „MC mit USB Interface“ · Mikrocontroller und Digitale Elektronik ·
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Datei
switch.c
" "); } void send_packet_i1(char &destn, char &desth, char &srcn, char &srch, char &dat){ delay_ms(50); fputc(NWP_START_CODE, interface1); delay_ms(50); fputc(destn, interface1); delay_ms(50); fputc(desth, interface1); delay_ms(50); fputc(srcn, interface1); delay_ms(50); fputc(srch, interface1); delay_ms
in „RS232 - ( PIC 16f877a )“ · Mikrocontroller und Digitale Elektronik ·
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PDF
gravity_g.pdf
) sendCMD(CASET); sendData(y); sendData(y); } Content of C:\heute\July_2011\Arduino\mpide\hardware\pic32\libraries\myLCD\ NXP_FONT.h #define F_6x8 {0x06,0x08,0x08,0x00,0x00,0x00,0x00,0x00,0x00,0x00,0x00,0x00,0x00,0x00,0x00,0x00,0x20,0x20,0x20,0x20,0x20,0x00,0x20,0x00,0x50,0x50,0x50,0x00,0x00,0x00,0x00,0x00,0x50,0x50,0xF8,0x50,0xF8,0x50,0x50,0x00,0x20,0x78,0xA0,0x70,0x28,0xF0,0x20,0
in „Microchip springt auf den Arduino Zug auf“ · Mikrocontroller und Digitale Elektronik ·
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PDF
MCP3221.pdf
0.2 B 0.2 ( 0 L 0 L L I-0.2 I -0.2 -0.4 Negative INL -0.4 -0.6 -0.6 Negative INL -0.8 -0.8 -1 -1 -50 -25 0 25 50 75 100 125 -50 -25 0 25 50 75 100 125 Temperature (°C) Temperature (°C) FIGURE 2-7: INL vs. Temperature. FIGURE 2-10: INL vs. Temperature (V = 2.7V). DD 1 1 0.8 0.8 0.6 0.6 ) 0.4 Positive
in „Suche Bauteilbezeichnung 5-Pin SOT-23 mit "S1SD" Marking“ · Mikrocontroller und Digitale Elektronik ·
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Datei
leds_887.c
#define __16f887 #include <stdarg.h> #include <stdint.h> #include <stdio.h> #include "pic16f887.h" #include <pic14regs.h> #include <sdcc-lib.h> #define EXTRN_XTAL 0 #if (EXTRN_XTAL == 1) // externer Oszillator unsigned int __at (_CONFIG1) configWord1 = _HS_OSC & _LVP_OFF & _WDT_OFF; // 0x2ff2
in „SDCC & PIC16887: Fehler in erzeugter ASM-Datei“ · Mikrocontroller und Digitale Elektronik ·
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Datei
NEW_MAP.txt
, 50, 51, 53, 52, 54, 55, 75, 73, 79, 0, 0, 76, 8}, // green alt {56, 57, 48, 13, 61, 39, 0, 0, 0, 0, 63, 32, 58, 0, 0, 60, 62, 45, 126, 42, 59, 0, 0, 0, 0, 0, 123, 125, 33, 34, 128, 37, 36, 38, 47, 49, 50
in „Chatpad PIC16F883“ · Mikrocontroller und Digitale Elektronik ·
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Datei
devlist.txt
D1,P2 PIC16C554 . . . .1) 6315 D1 PIC16C556 . . . .1) 6316 D1 PIC16C558 . . . .1) 6317 D1 PIC16C56/JW . . .1) 4710 D1 PIC16C56-HS . . .1) 5814 D1 PIC16C56-LP . . .1) 5815 D1 PIC16C56-RC . . .1) 5812 D1 PIC16C56
in „PROM lesen /schreiben / Programmiergerät“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Nixie_main_v3.c
2018, 9:33 PM (while drunk) * * Info: This .C code is for a 12-Hour Nixie Tube Clock circuit. * This PIC determines/controls/outputs the accurate 1Hz clock signal. * It also correctly determines and feeds time display values to the shift registers (logic-level). * * Originally started with a 40-pin PIC18F4520
in „Compiler Error beim Build für PIC16F15325“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Nixie_main_v3__-_Kopie.c
2018, 9:33 PM (while drunk) * * Info: This .C code is for a 12-Hour Nixie Tube Clock circuit. * This PIC determines/controls/outputs the accurate 1Hz clock signal. * It also correctly determines and feeds time display values to the shift registers (logic-level). * * Originally started with a 40-pin PIC18F4520
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Datei
c_taste2.asm
********************************************************* ; C_TASTE2.ASM * ; Kapazitive Taste fuer PIC12C50x * ; 25.09.2003 Juergen Wickenhaeuser WWW.WICKENHAEUSER.DE * ; * ; Versioninfo @ Binaries End! * ; * ;********************************************************************** list p=12c509 ; list
in „Elektor Pic-Telemaster mit AVR nachbauen - fehlende Assemble“ · Mikrocontroller und Digitale Elektronik ·
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PDF
reste_halbleiter_3.pdf
8,00 28F020A-120PV DIL32 256K *8 Flash 10 3,00 ADM699 DIL8 Analog Devices supervisory circuit r 10 3,50 ADM708AR SO8 Analog Devices Supervisor f. microcontroller 10 3,00 BTS130 TO220() TEMP-FET 27A 50V 10 2,00 BZV55-C12 SOD80 PHILLIPS Zdiode 100 2,00 CA3240 E DIL8 OP AMP DUAL MOS IP/BIPOLAR OPAMP 25 5,00
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PDF
Master-thesis_Wenzel-Maier_final-version.pdf
cells cell chemistry nominal full charge full discharge minimal comment LiCoO 2 3.60V 4.20V 3.00V 2.50V high energy LiMn O2 4 3.80V 4.20V 3.00V 2.50V high power LiNiMnCoO 2 3.60V 4.20V 3.00V 2.50V high capacity LiFePO 4 3.30V 3.65V 2.50V 2.00V high power, safe LiNiCoAlO 3.60V 4.20V 3.00V 2.50V highest
in „Platinfuchs IIa: Isolierter, bidirektionaler 45W DC/DC Wandler zum Laden/Entladen eines Liion-Akkus“ · Projekte & Code ·
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Datei
AVRStudioERR.asm
; AVRStudio 4.08 Simulator error demo .include "tn15def.inc" .equ N = 31 ; 1.6MHz / (31+1) = 50kHz; T=20µs .def temp = r16 ; temporary storage register .def temp2 = r17 ; another temporary storage register .CSEG .org 0x000 rjmp init ; jump to initialisation routine .org T1CPaddr rjmp pic ; jump
in „AVRStudio simuliert falsch?“ · Mikrocontroller und Digitale Elektronik ·
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A300_25AA640A_25LC640A-MIC.pdf
50 — ns — 5 Tsu Data setup time 10 — ns 4.5V ≤ Vcc ≤ 5.5V 20 — ns 2.5V ≤ Vcc < 4.5V 30 — ns 1.8V ≤ Vcc < 2.5V 6 T HD Data hold time 20 — ns 4.5V ≤ Vcc ≤ 5.5V 40 — ns 2.5V ≤ Vcc < 4.5V 50 — ns 1.8V ≤ Vcc
in „SPI funktioniert nicht“ · Mikrocontroller und Digitale Elektronik ·
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main.c
0 #define WAIT_FOR_PROG 1 #define WAIT_FOR_DATA 2 #define T16MS 1 #define T500MS 30 #define T820MS 50 #define T1S 61 #define OSC_16_MHz 0b111111111 //************************************************************************* //************* Macros **************************************************** #
in „PIC18-Projekt restartet unerklärlich“ · Mikrocontroller und Digitale Elektronik ·
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Last_board_mixed.pdf
SPI_DOUT +3V3 3 N DGND SPI1_SS_ADC SPI_CS_ADC DGND + G C A C IO_GES_ALARM NOT_AUS ADC_1_NTC1_TEMP IO_PIC_ALARM ADC_2_NTC2_TEMP DGND ADC_3_NTC3_TEMP SCL5_LUEFTER SCL ADC_4_NTC4_TEMP SDA5_LUEFTER SDA 3 LUEFTER1 3 SPI4_CLK_ALAMZENTRUM + SPI4_SDI_ALAMZENTRUM /FAN_ALARM_OUT 3.3V IO_S/L_ALAMZENTRUM 3 GND V +
in „Schaltplankontrolle Last- + HMI-Board“ · Mikrocontroller und Digitale Elektronik ·
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OLED.pdf
1 2 3 4 DO1 1 CC1 PI D1 01 VSS PIC0 PI1PI D1202 C2P PI D1303 C2N PIC0 PI2PI D1404 C1P OLED PI D1505 A 6 C1N A VCC3.3 PI D1706 VDD PI D1807 NC PI D1 08 VSS VCC3.3 PI D1909 VDD PID 1010 BS0 PID 1011 VCC3.3 PID 1012 BS1 13 BS2 RESET PID
in „Schaltplancheck Powermonitor“ · Mikrocontroller und Digitale Elektronik ·
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MIC5233-3.3YS-microchip-20221000.pdf
VOUT + 1V to 36V Load Regulation ΔV OUT/VOUT — 0.25 1 % IOUT= 100 µA to 100 mA Dropout Voltage VDO — 50 — IOUT= 100 µA — 230 300 IOUT= 50 mA — — 400 mV — 270 400 IOUT= 100 mA — — 450 Ground Current GND — 18 30 — — 35 µA IOUT= 100 µA — 0.25 0.70 IOUT= 50 mA — 1 2 mA I = 100 mA OUT Ground Current in Shutdown
in „STM32F302C8T6 Schaltplanüberprüfung“ · Mikrocontroller und Digitale Elektronik ·
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device_list_hilo_all03_v9-12.pdf
87L51FC 87L52 87L54 87L58 *KU87C51SL *SB87C51SL <<LG Semicon>> GMS80C701 <<MICROCHIP>> *MTA81010 *PIC12C508 *PIC12C509 PIC14000 PIC16C52 PIC16C54/C54A PIC16C55 PIC16C554 PIC16C556 PIC16C558 PIC16C56 PIC16C57/CR57A PIC16C58A PIC16C61 PIC16C62 PIC16C620 PIC16C621 PIC16C622 PIC16C62A PIC16C63 PIC16C64 PIC16C64A PIC16C65/LC65 PIC16C65A PIC16C71 PIC16C710 PIC16C711 PIC16C72 PIC16C73 PIC16C73A PIC16C74 PIC16C74A PIC16C84/LC84 *PIC16C923 *PIC16C924 PIC16CR54 PIC16CR54A PIC16CR57B PIC16CR58A PIC16F83/LF83
in „PROM programmieren“ · Mikrocontroller und Digitale Elektronik ·
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AN955.pdf
respective line-to-neutral voltages. ® FIGURE 2: BLOCK DIAGRAM OF PICmicro MCU-CONTROLLED VSI Q1 Q3 Q5 PIC18FXX31 3-Phase ACIM VDC/2 PWM0 (Q0) PWM1 (Q1) Y B PWM2 (Q2) R N O PWM3 (Q3) VDC PWM4 (Q4) Rectifier PWM5 (Q5) 115/230 AC VDC/2 50/60 Hz Q0 Q2 Q4 TABLE 1: VSI SWITCHING STATES AND RESPECTIVE LINE TO
in „Raumzeigermodulation, PWM“ · Mikrocontroller und Digitale Elektronik ·
