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PDF
58740807_protel_schematic.pdf
°C 53,85R) 7 N 46R4 PT20 Fehlermeldung : E22, E23 VEE G 1M 464R C8 AGND 4052 10n VREF VREF VREF 8 AGND VDD AGND R24 R28 R39 AGND 8 PGND 1M82 44k2 1k5 N1B N3A X2 5 3 PT100-Sensor R42 100k 7 1 R65 (50°C 119,4R - 450°
in „Suche Service Manual oder Schaltplan für Weller WMD-3“ · Mechanik, Gehäuse, Werkzeug ·
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doc5131.pdf
of Octets 4 1 1 5 e i r n Frame Content Preamble SFD PHR PSDU F o TRX_STATE RX_LISTEN BUSY_RX RX_LISTEN ) 2 X c IRQ RX_START TRX_END R v D Typ. Processing Delay 8 µs 16 µs ( 7.1.4 Basic Mode Timing The following paragraphs depict
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Samsung_SGH-P510_service_manual.pdf
Samsung's authorization SGH-P510 Flow Chart of Troubleshooting and Circuit Diagrams 10. GSM Receiver RX On RF input : 37 CH Amp. : -60 dBm Pin1 of No CON101 Check CON101 ≥-65dBm Yes Pin11 of No U100 Resolder C128 ≥-65dBm Check the pin11 of U100 Yes Pin9 of U100 No ≥-65dBm Check U100 Yes Pin9 of U102 No
in „OLED Disp aus SGH-P510 Telefon“ · Mikrocontroller und Digitale Elektronik ·
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PDF
R1610C.PDF
[5:0] Bit Name Attribute Description 15-12 Rsvd RO Reserved RX Interrupt Control. RXINTC 11-8 [3:0] R/W 0: Turn off this function. N: Generate an interrupt after N packets (1~15 packets) are received. 7-6 Rsvd RO Reserved RXTIMER Wait RX Timer. 5-0 R/W When timeout
in „Hilfe JTAG für IP Webcam ?“ · Mikrocontroller und Digitale Elektronik ·
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Datei
usb.c
> maxlen) { count = maxlen; } if (count) { P = (UMEM_FAKEWIDTH*) EPControlRxBuffer; n = 2; i = count; D = *P++; while (i > 0) { *PBuffer = D & 0xFF; D = D >> 8; --n; if (!n) { D = *P++; n = 2; } --i; ++PBuffer; } } ClearBuffer(logEpCtrl); return count; } int WriteControlBlock
in „USB HID Device mit STM32F042“ · Mikrocontroller und Digitale Elektronik ·
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PDF
FHKU70.pdf
www.digmesa.com Interface Anschluss: Beispiele open collector +4.5-24VDC open collector 4k7 + Signal Signal 100nF simple circuit 0VDC +4.5-24VDC +5 VDC open collector 2k2 1N4148 + Signal Signal 100nF 1N4148 TTL output 0VDC +5 VDC +4.5-24VDC 4k7 Signal open collector Rx 0VDC + Signal + 5VDC Rx=1k0 +12VDC Rx=4k7 100nF +24VDC Rx=10k optocoupler interface 0VDC ÄnderungenimSinneeinestechnischenFortschrittsbehaltenwirunsvor. Version01 FHKU938-3570/01D Seite3-5 DigmesaAG,Keltenstrasse31,CH–2563Ipsach/Switzerland,Phone
in „Durchflussmesser an Atmega32“ · Mikrocontroller und Digitale Elektronik ·
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PDF
FHKU70.pdf
www.digmesa.com Interface Anschluss: Beispiele open collector +4.5-24VDC open collector 4k7 + Signal Signal 100nF simple circuit 0VDC +4.5-24VDC +5 VDC open collector 2k2 1N4148 + Signal Signal 100nF 1N4148 TTL output 0VDC +5 VDC +4.5-24VDC 4k7 Signal open collector Rx 0VDC + Signal + 5VDC Rx=1k0 +12VDC Rx=4k7 100nF +24VDC Rx=10k optocoupler interface 0VDC ÄnderungenimSinneeinestechnischenFortschrittsbehaltenwirunsvor. Version01 FHKU938-3570/01D Seite3-5 DigmesaAG,Keltenstrasse31,CH–2563Ipsach/Switzerland,Phone
in „Durchflusssensor“ · Mikrocontroller und Digitale Elektronik ·
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Datei
usb.c
hdroom <= avail) return; P = (memwidth*) EP2RxBBuffer; n = 2; i = avail; D = *P++; /* 2 Byte laden */ while (i>0) { c = D & 0xFF; /* LSB zuerst */ UsbRxBuf[rxw] = c; rxw = (rxw+1) & (rxLen-1); D = D >> 8; --n; if (!n) { D = *P++; n = 2; } --i; }
in „An W.S.: Läuft deine USB Implementierung auch auf STM32F303?“ · Mikrocontroller und Digitale Elektronik ·
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Datei
mcp2515.txt
define MERRE 7 #define WAKIE 6 #define ERRIE 5 #define TX2IE 4 #define TX1IE 3 #define TX0IE 2 #define RX1IE 1 #define RX0IE 0 /** \brief Bitdefinition von CANINTF */ #define MERRF 7 #define WAKIF 6 #define ERRIF 5 #define TX2IF 4 #define TX1IF 3 #define TX0IF 2 #define RX1IF 1 #define RX0IF 0 /** \brief Bitdefinition von EFLG */ #define RX1OVR 7 #define RX0OVR 6 #define TXB0 5 #define TXEP 4 #define RXEP 3 #define TXWAR 2 #define RXWAR 1 #define EWARN 0 /** \brief Bitdefinition von TXBnCTRL (n = 0, 1, 2) */ #define ABTF 6 #define MLOA
in „MCP2515 richtig initialisiert?“ · Mikrocontroller und Digitale Elektronik ·
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Datei
x_rpn_boris_A328_v5.17.bas
() End If Call Interpr_reg(ry) For N = 1 To 16 V_st(n) = W_st(n) Next N Call Interpr_reg(rx) Else Call Display_runmode() End If End Sub Interpr_xy ' ======================================================================== ' Die Anzeigefunktion
in „Noch ein Taschenrechner auf ATMega Basis“ · Projekte & Code ·
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PDF
nRF24LE1_Product_Specification_rev1_6-6439.pdf
Addr Data Pipe 2 (RX_ADDR_P2): 0xB3B4B5B6CD Addr Data Pipe 3 (RX_ADDR_P3): 0xB3B4B5B6A3 Addr Data Pipe 4 (RX_ADDR_P4): 0xB3B4B5B60F Addr Data Pipe 5 (RX_ADDR_P5): 0xB3B4B5B605 Frequency Channel N Figure 16. Example of data
in „Projekt: Kugelschreiber-Morse“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Schematic.pdf
Sheet1.SchDoc Drawn By: S. Watterott 1 2 3 4 1 2 3 4 + + A D T LAN1 _ R RJ45 + LED P C C_Tx+1 _ _ _ _ R_Rx1 1nF A 2 2 1 1 v 100 A E E E E R C_Tx-1 L L 1 2 3 4 5 6 7 8 L L GND k 1nF A K 1 2 3 4 5 6 7 8 A K 2 - GND 2 2 1 1 R - IC1 E E E E T AD0..7 L L L L Tr1 6 11 TD+ 7 TX+ AD0 12 0 GND 16 1 RD+ i Lan TD- TX- AD1 13 1 2 RX+ RD+ C1 AD2 2 R i 15 2 RD+ 5 RX+ AD3 14 3 Lan CRX CRD GND RD- 4 RX- AD4 15 4 2 14 3 100nF C2 AD5 16 5 2 RX- RD- RD- i Lan CP_LA 1 LA AD6 17 6 i 2 AD7 18 7 Lan 11 6 R_Tx+1 22pF RY1 CP_RST 10 RESET TD+
in „PoE AVR Modul“ · Markt ·
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Datei
usb.c
= EpTable[0].RxCount & 0x3FF; if (count > maxlen) count = maxlen; if(count) { P = (dword*) EPControlRxBuffer; n = 2; i = count; D = *P++; while (i > 0) { *PBuffer = D & 0xFF; D = D >> 8; --n; if (!n) { D = *P++; n =
in „An W.S.: Läuft deine USB Implementierung auch auf STM32F303?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Si4430-31-32.pdf
depend on frequency band, antenna impedance, output power and supply voltage range. Figure 1. Si4430/31 RX/TX Direct-Tie Application Example Supply Voltage C6 C7 C8 X1 VDD 30 MHz 100 p 100 n 1 u GP1 GP2 T N N U Q E S X X n n 0 9 8 7 6 L1VDD_RF 2 1 1 1 1 SCLK GP3 TR & ANT-DIV L3 L2 1 15 Switch TX 2 14 SDI
in „Leistungsanpassung bei bipolar Transistoren?“ · Analoge Elektronik und Schaltungstechnik ·
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Datei
mcp2515_equ.inc
; \name SPI Kommandos ;*; ;;*@{;*; .equ SPI_RESET =0xC0 .equ SPI_READ =0x03 .equ SPI_READ_RX0 =0x90 .equ SPI_READ_RX1 =0x94 .equ SPI_WRITE =0x02 .equ SPI_WRITE_TX =0x40 .equ SPI_RTS =0x80 .equ SPI_READ_STATUS =0xA0 .equ SPI_RX_STATUS =0xB0 .equ SPI_BIT_MODIFY =0x05 ;;*@};*; ;;*;* \name Adressen
in „CAN Controller MCP2515: Schreiben in CANCTRL“ · Mikrocontroller und Digitale Elektronik ·
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PDF
ledpixel.pdf
/PB5 11 LED_R 1 PD4/TIM2_CH1/BEEP/UART1_CK GND TX 2 PD5/AIN5/UART1_TX [TIM1_CH1N]TIM1_CH3/PC3 13 D2 d 1 RX 3 14 IR_IN E 2 d 3 PD6/AIN6/UART1_RX [TIM1_CH2N]AIN2/TIM1_CH4/PC4 - D t D 470k [TIM2_CH1]SPI_SCK/PC5 15 I1 h 2 R6 [TIM1_CH1]SPI_MOSI/PC6 16 P 8 17 IR_OUT Vcap S [TIM1_CH2]SPI_MISO/PC7 4 C V 4 8 C1 R 1 Housings_SSOP:TSSOP-20_4.4x7.5mm_Pitch0.65mm +5V +5V 1 R 0 7 1µ 4 R U1B 8 k GND GND 5 5 R GND GND V 1 7 - 6 B V- B 4 LM358 C7 k 0 R 1 7 5 4n7 4 C GND GND GND +5V +5V +5V D1 PWR_FLAG LED_RGB_5050 P3 RX 3 TX 3 SWIM 1 LED_G 100 BC BA 2 2 T 2 G R1
in „Projektidee RGB Pixel mit Touch“ · Mikrocontroller und Digitale Elektronik ·
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Datei
usb.c
count) { while (count) --count; } int ReadControlBlock (byte* PBuffer, int maxlen) { int count, i, n; dword D; dword* P; count = EpTable[0].RxCount & 0x3FF; if (count > maxlen) count = maxlen; if(count) { P = (dword*) EPControlRxBuffer; n = 2; i = count; D = *P++; while (i > 0) { *PBuffer = D & 0xFF
in „USB CDC von Stefan Frings und WS“ · Mikrocontroller und Digitale Elektronik ·
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PDF
CY7C64613.pdf
44 NC PA7 / RxD1OUT 18 43 GND CLKOUT 19 42 RESET# GND 20 41 VCC 2 2 2 2 2 2 2 2 2 3 3 3 3 3 3 3 3 3 3 4 D L D E # ] ] ] ] ] ] ] ] - + C E E E O R R N D I I I I I I I I D D D C V S V B W L O N F F F F F F F F S B N
in „Verkaufe CY7C64613-52NC“ · Markt ·
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PDF
CY7C64613_1.pdf
44 NC PA7 / RxD1OUT 18 43 GND CLKOUT 19 42 RESET# GND 20 41 VCC 2 2 2 2 2 2 2 2 2 3 3 3 3 3 3 3 3 3 3 4 D L D E # ] ] ] ] ] ] ] ] - + C E E E O R R N D I I I I I I I I D D D C V S V B W L O N F F F F F F F F S B N
in „Logikanalzyer mit FT232BL“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Confidential_Programming_guide_FD6818.pdf
03H[15]=1 case 8: CODE = (rdata >>12) & 0xf; break; //DTMF or SELCALL CODE case 9: break; //FSK SyncN Found case 10: break; //FSK SyncP Found case 11: break; //FSK Header Found case 12: break; //Read Data from FIFO case 13: break; //FSK Rx Succeed case 14: break; //WRITE Data to FIFO case 15: break;
in „Firmware entschlüsseln, Updateprogramm als Hilfe?“ · Softwareentwicklung ·
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PDF
Schaltplan_FARBE.pdf
4 C40 9 100nF 3 4 100nF 5 C1- C2+ U1TX PA9 11 T1in T1out 14 RS232_RX1 UART1 U1RX PA10 12 R1out R1in 13 RS232_TX1 CON2 1 U2TX PA2 10 T2in T2out 7 RS232_RX2 6 2 PA3 9 8 RS232_TX2 7 U2RX R2out R2in 3 8 6 15 4 V- GND
in „STM32 Port-Initialisierung“ · Mikrocontroller und Digitale Elektronik ·
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PDF
iPhone_4_schem.pdf
01005 X5R 1 2 COMBINED RX_M2 D1 PCS_RX 50_OHM50_OHM PCS_RXP 5 XW12_RF 01005 E2 SHORT-0201 C 1 2 RECEIVER C1 DCS_RX 50_OHM50_OHM DCS_RXN E3 22 3G_DCDC_EN 1 2 3G_DCDC_EN_IN C N N 2 10% SUPPLY DOMAINS RX_M1X 5 IN V I I 6.3V RX_M1
in „iphone 4 smd abgebrochen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
RF12.pdf
S Analog VDD(Connect to VDD) 18 VDD_D S Digital VDD(Connect to VDD) 19 ARSSI AO Analog RSSI output nINT DI Interrupt input (active low) 20 VDI DO Valid data indicator output Note: The actual mode of the multipurpose pins (pin 6 and 7) is determined by the TX/RX data I/O settings of the transceiver.
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PDF
RFM12.pdf
S Analog VDD(Connect to VDD) 18 VDD_D S Digital VDD(Connect to VDD) 19 ARSSI AO Analog RSSI output nINT DI Interrupt input (active low) 20 VDI DO Valid data indicator output Note: The actual mode of the multipurpose pins (pin 6 and 7) is determined by the TX/RX data I/O settings of the transceiver.
in „RF12 Funkmodul“ · Mikrocontroller und Digitale Elektronik ·
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PDF
RF12.pdf
S Analog VDD(Connect to VDD) 18 VDD_D S Digital VDD(Connect to VDD) 19 ARSSI AO Analog RSSI output nINT DI Interrupt input (active low) 20 VDI DO Valid data indicator output Note: The actual mode of the multipurpose pins (pin 6 and 7) is determined by the TX/RX data I/O settings of the transceiver.
in „RFM 12 Wake-Up und start nach POR“ · HF, Funk und Felder ·
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Bild
Programmcode für eine SPI-Schnittstelle
Signals, 28 input i_Rst_I, // FPGA Reset, active low 29 input i_Clk, // FPGA Clock 30 output reg o_RX_DV, // Data Valid pulse (1 clock cycle) 31 input [7:0] o_RX_Byte, // Byte received on MISO 32 input i_TX_Byte, // Data Valid pulse to register i_TX_Byte 33 input // Byte to serialize to MISO. 34 35 /
in „FPGA als SPI Slave“ · FPGA, VHDL & Co. · · Screenshots
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PDF
nRF24L01P_Product_Specification_1_0.pdf
: VDD = 3.0V, VSS = AV, T7ºC, Load impedance = 15Ω+j88Ω. Table 17. RF output power setting for the nRF24L01+ 6.6 RX/TX control The RX/TX control is set by PRIM_RX bit in the CONFIG register and sets the nRF24L01+ in transmit/ receive mode. Revision 1.0 Page 26 of 78 nRF24L01+ Product Specification 7
in „NRF24L01+ erkennen ob gesendet wird“ · Mikrocontroller und Digitale Elektronik ·
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PDF
MB1136.pdf
15P0U5A015 P0U5A027 27 SB64P0SB6401 P0SB6402PB10PB1 PA[0..1 ] PA2 SB63 16 PA1 PB1/VREF+ P0U52828 PB20PB2 SB65 D1 P0SB6301 P0SB6302 P0U5A016PA2 PB2 P0SB6501 P0SB6502 AVDD SB65 F373:SAR_VREF+ D0 PA3 SB62 17 P0U5A017 P0U55555 PB30PB3 D3 Default open N0PB95 P0SB6201 P0SB6202 N0PA4 PA3/SAR_VREF+ PB3 P0U5A056 N0PB4
in „Mikrocontroller Spannung/Strom“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
Nucleo_Board_Schematics.pdf
15P0U5A015 P0U5A027 27 SB64P0SB6401 P0SB6402PB10PB1 PA[0..1 ] PA2 SB63 16 PA1 PB1/VREF+ P0U52828 PB20PB2 SB65 D1 P0SB6301 P0SB6302 P0U5A016PA2 PB2 P0SB6501 P0SB6502 AVDD SB65 F373:SAR_VREF+ D0 PA3 SB62 17 P0U5A017 P0U55555 PB30PB3 D3 Default open N0PB95 P0SB6201 P0SB6202 N0PA4 PA3/SAR_VREF+ PB3 P0U5A056 N0PB4
in „Erbitte Hilfe bei Fehlersuche - STM32F446“ · Mikrocontroller und Digitale Elektronik ·
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Datei
startup_stm32f4xx.c
ETH_WKUP_IRQHandler, /*!< 62: Ethernet Wakeup through EXTI line */ CAN2_TX_IRQHandler, /*!< 63: CAN2 TX */ CAN2_RX0_IRQHandler, /*!< 64: CAN2 RX0 */ CAN2_RX1_IRQHandler, /*!< 65: CAN2 RX1 */ CAN2_SCE_IRQHandler, /*!< 66: CAN2 SCE */ OTG_FS_IRQHandler, /*!< 67: USB OTG FS */ DMA2_Stream5_IRQHandler, /*!< 68: DMA2
in „STM32 ohne CMSIS aber mit den includes etc. in CoIDE“ · Mikrocontroller und Digitale Elektronik ·
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PDF
___Voltcraft_PSP1405__SCHALTNETZTEIL_Schaltplan.pdf
7 n CN1 D 10 + V R59 470nF 6 VDDI0 0 D 5 1 VSense OUT 8 C8 RX 4 3 9 - - 220E 470nF 2 GND V C12 TX 100nF 1206 1 33nF 1 1 C13 FB1 CN8 V C4 C3 \ R5 1k U6B 4 0 9 8 7 6 5 4 3 2 1 0 9 8 7 6 5 4 3 2 1 F 8 7 7 7
in „Labor Schaltnetzteil PSP1405 (Voltcraft) haut es immer die beiden IRF840 durch.“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
000512411-qs-01-en-SCHALTPLAN_PROGRAM__SCHALTNETZTEIL_PSP_1.pdf
7 n CN1 D 10 + V R59 470nF 6 VDDI0 0 D 5 1 VSense OUT 8 C8 RX 4 3 9 - - 220E 470nF 2 GND V C12 TX 100nF 1206 1 33nF 1 1 C13 FB1 CN8 V C4 C3 \ R5 1k U6B 4 0 9 8 7 6 5 4 3 2 1 0 9 8 7 6 5 4 3 2 1 F 8 7 7 7
in „Labor Schaltnetzteil PSP1405 (Voltcraft) haut es immer die beiden IRF840 durch.“ · Analoge Elektronik und Schaltungstechnik ·
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Datei
usbStefan_Aenderung.c
> maxlen) count = maxlen; if (count) { P = (UMEM_FAKEWIDTH*) EPControlRxBuffer; n = 2; i = count; D = *P++; while (i > 0) { *PBuffer = D & 0xFF; D = D >> 8; --n; if (!n) { D = *P++; n = 2; } --i; ++PBuffer; } } ClearBuffer(logEpCtrl); return count; } int WriteControlBlock
in „USB CDC von Stefan Frings und WS“ · Mikrocontroller und Digitale Elektronik ·
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Datei
mcp2515_defs_neu.h
define MERRE 7 #define WAKIE 6 #define ERRIE 5 #define TX2IE 4 #define TX1IE 3 #define TX0IE 2 #define RX1IE 1 #define RX0IE 0 /** \brief Bitdefinition von CANINTF */ #define MERRF 7 #define WAKIF 6 #define ERRIF 5 #define TX2IF 4 #define TX1IF 3 #define TX0IF 2 #define RX1IF 1 #define RX0IF 0 /** \brief Bitdefinition von EFLG */ #define RX1OVR 7 #define RX0OVR 6 #define TXB0 5 #define TXEP 4 #define RXEP 3 #define TXWAR 2 #define RXWAR 1 #define EWARN 0 /** \brief Bitdefinition von TXBnCTRL (n = 0, 1, 2) */ #define ABTF 6 #define MLOA
in „AT90CAN128 und MCP2515-Controller“ · Mikrocontroller und Digitale Elektronik ·
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Datei
regs.h
define MERRE 7 #define WAKIE 6 #define ERRIE 5 #define TX2IE 4 #define TX1IE 3 #define TX0IE 2 #define RX1IE 1 #define RX0IE 0 /** \brief Bitdefinition von CANINTF */ #define MERRF 7 #define WAKIF 6 #define ERRIF 5 #define TX2IF 4 #define TX1IF 3 #define TX0IF 2 #define RX1IF 1 #define RX0IF 0 /** \brief Bitdefinition von EFLG */ #define RX1OVR 7 #define RX0OVR 6 #define TXB0 5 #define TXEP 4 #define RXEP 3 #define TXWAR 2 #define RXWAR 1 #define EWARN 0 /** \brief Bitdefinition von TXBnCTRL (n = 0, 1, 2) */ #define ABTF 6 #define MLOA
in „Problem durch Optimierung -Os“ · Mikrocontroller und Digitale Elektronik ·
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Datei
mcp2515_defs.h
define MERRE 7 #define WAKIE 6 #define ERRIE 5 #define TX2IE 4 #define TX1IE 3 #define TX0IE 2 #define RX1IE 1 #define RX0IE 0 /** \brief Bitdefinition von CANINTF */ #define MERRF 7 #define WAKIF 6 #define ERRIF 5 #define TX2IF 4 #define TX1IF 3 #define TX0IF 2 #define RX1IF 1 #define RX0IF 0 /** \brief Bitdefinition von EFLG */ #define RX1OVR 7 #define RX0OVR 6 #define TXB0 5 #define TXEP 4 #define RXEP 3 #define TXWAR 2 #define RXWAR 1 #define EWARN 0 /** \brief Bitdefinition von TXBnCTRL (n = 0, 1, 2) */ #define ABTF 6 #define MLOA
in „ATmega644PA und MCP2515 SPI Problem“ · Mikrocontroller und Digitale Elektronik ·
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Datei
USB.c
asm volatile ("nop"); --count; } } int ReadControlBlock (byte* PBuffer, int maxlen) { int count, i, n; dword D; dword* P; count = EpTable[0].RxCount & 0x3FF; if (count > maxlen) count = maxlen; if(count) { P = (dword*) EPControlRxBuffer; n = 2; i = count; D = *P++; while (i > 0) { *PBuffer = D & 0xFF
in „Frage an W.S. wegen USB CDC Implementierung STM32F103“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Wolfson_Audio_Card_Schematic_Diagram.pdf
3 SHDN BP 4 C44 C22 C35 LDOENA C38 10uF [3,7] 10uF C21 C24 10uF C45 C36 C37 C39 470nF 0.1uF 10uF 0.1uF 10uF 10uF 470nF GND GND GND GND GND GND 7 7 7 7 RPI P5 Connection [ U [ U [ [ [ [ I O I O S L S L Pin 3 GPIO28 PCM_CLK _ _ _ _ _ _ _ _ M M M M M M M M Pin 4 GPIO29 PCM_FS P P P P P
in „Vorstellung digitaler Audioausgang für Raspberry Pi“ · Projekte & Code ·
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PDF
BT-WiFi-52rf5541.pdf
.................................................................................................. 65 FIGURE 28 PTX (PRIM_RX=0) STATE CONTROL DIAGRAM ........................................................................... 67 FIGURE 29 PRX (PRIM_RX=1) STATE CONTROL DIAGRAM.........................
in „JDY-40 ein neuer Geniestreich aus China?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
RC17xxHP-RC232_Datasheet.pdf
434.000000 MHz for RF_CHANNEL = 92 434.050000 MHz for RF_CHANNEL = 93 RC1760HP-RC232 458.512500 + (n-1)*0.0125 MHz RC1760-RC232* n = RF_CHANNEL for n=1 to 39 457.4875 + (n-39)*0.0125 MHz n = RF_CHANNEL for n=40 to 119 462.9875 + (n-119)*0.0125 MHz n = RF_CHANNEL for n=120 to 230 467.4875 + (n-230)*0.0125
in „[V] RADIOCRAFTS RC1701HP-RC232 169MHz Development Kit“ · Markt ·
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PDF
apple_macbook_pro_a1286_mlb_d1_051-9216_13.3_retina_a1425_820-3462_sch.pdf
RESERVED L47 NC 72 18 IN DMI_S2N_P<1> DMI_RX_1 PEG_RX_2* =PEG_D2R_N<2> IN 9 72 24 10 CPU_CFG<6> C55 CFG_6 E W RSVD_33 NC 72 18 IN DMI_S2N_P<2> P3 DMI_RX_2 PEG_RX_3* D21 =PEG_D2R_N<3> IN 9 IN G 5 DMI_S2N_P<3> P11 A19 =PEG_D2R_N<4> 72
in „Macbook Schaltpläne“ · Mikrocontroller und Digitale Elektronik ·
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PDF
17mb70-5-sema_schematics.pdf
AB3 R858 HDMI_RX_0_DDC_SCL 1 F73 1 F65 2 3V3_VCC 4k7 Y6 HDMI_RX_0_DDC_SDA 4 3 2 1 MECH_SWITCH 3V3_STBY G G G G 600R 600R HDMI_HOTPLUG_IN AA6 HDMI_RX_0_HTPLG_IN AA5 1 HDMI_RX_0_HTPLG_OUT N 1 2 3 4 S156 C HDMIB_RX2P AB1
in „LED TV Medion MD 30630 defekt, nicht einmal standby Lampe“ · Analoge Elektronik und Schaltungstechnik ·
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Bild
Ausschnitt eines Schaltplans
C113 68P MONO D20 IN4148 D19 IN4148 MP2 R71 2.2K SW4 BEEP TC102Z C58 NO USE R151 4.7K R120 33K C131 20N C132 20N Q25 9014C C56 20N C125 10N R169 3.9K MIC1 C134 20N TX SW5 RX SW2 UP TC102Z R65 2.2K C135 20N SW3 DOWN LCD201 AM TX M1 UK FM RX M2 EU
in „CB-Funk BF3 Team Roadcom Modulation“ · Analoge Elektronik und Schaltungstechnik · · Fotos
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PDF
EM150X1.pdf
Version 1.0 Issued Date:Sept. 6,2004 Model No.: EM150X1 Approval TIMING DIAGRAM of LVDS T TxCLK OUT T/7 RxCK IN Rx IN3 RxOUT23 RxOUT17 RxOUT16 RxOUT11 RxOUT10 RxOUT5 RxOUT27 RESERVED B07 B06 G07 G06 R07 R06 Rx IN2 RxOUT26 RxOUT25 RxOUT24 RxOUT22 RxOUT21 RxOUT20 RxOUT19 DE GND GND B05 B04 B03 B02 RxOUT18 RxOUT12 Rx IN1 RxOUT15 RxOUT14 RxOUT13 RxOUT9 RxOUT8 B01 B00 G05 G04 G03 G02 G01 Rx IN0 RxOUT7 RxOUT6 RxOUT4 RxOUT3 RxOUT2 RxOUT1 RxOUT0 G00 R05 R04 R03 R02 R01 R00 14 / 24 Version 1.0 Issued Date:Sept. 6,2004
in „TFT-Farbdisplay Market Elite EM150X1“ · Mikrocontroller und Digitale Elektronik ·
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PDF
70622B.pdf
Generator PA Q I RFIO LO1 TX Q I LO2 TX Q RSSI OOK IRQ0 Demod IRQ1 BitSync LNA SDI FSK Control SDO LO2 RX Demod SCK CSCON LO1 RX CSDAT CLKOUT LO1 RX DATA TEST<8:0> OSC1 I LO2 RX XO Frequency Synthesizer Q PLOCK OSC2 LO Generator I LO1 TX Q I Q LO2 TX P P V V V D A L L O O O R R P N R T T S S S N P DS70622B-page
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PDF
70622B.pdf
Generator PA Q I RFIO LO1 TX Q I LO2 TX Q RSSI OOK IRQ0 Demod IRQ1 BitSync LNA SDI FSK Control SDO LO2 RX Demod SCK CSCON LO1 RX CSDAT CLKOUT LO1 RX DATA TEST<8:0> OSC1 I LO2 RX XO Frequency Synthesizer Q PLOCK OSC2 LO Generator I LO1 TX Q I Q LO2 TX P P V V V D A L L O O O R R P N R T T S S S N P DS70622B-page
in „Wie genau funktioniert die drahtlose Kommunikation?“ · HF, Funk und Felder ·
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PDF
RF12B-IC-2.pdf
nFFS input (TX Data register can be accessed) - el=1 in Configuration Setting Command Receive mode RX Data output RX Data clock output ef=0 in Configuration Setting Command Receive mode nFFS input (RX
in „Funk SI4420 kein Empfang“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Hantek_Tekway_Voltcraft_DSO_hw1007.pdf
_19 10uF GND C 5 25 R01_18 122k GND GND C R11 kPIC019 GND PIR010PIR0101802 PO FFSET20CH1 R 1 150nF0 3k01 C01_10 PIR01PIC0192 PIC01 PI22nF R01_22 -5F1C1 -5A +5F2C1 +5A +5F1C1 +5A GND GND PIR806kIR010202 L01_20 L01_303 L01_40 RX1_1 = RX1_2 = RX1_3 = RX1_4 RA01_1 = RA01_2 PIWürth 74279203802 PIWürth
in „TEKWAY DST1xx2B Oszilloskop“ · Mikrocontroller und Digitale Elektronik ·
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Datei
soc_log.txt
UART: rx_data=6d Reading from UART: rx_data=33 Reading from UART: rx_data=32 Reading from UART: rx_data=2f Reading from UART: rx_data=62 Reading from UART: rx_data=6f Reading from UART: rx_data=6f Reading from UART: rx_data=74 Reading from UART: rx_data=6c Reading from UART: rx_data=6f Reading from UART: rx_data=61 Reading from UART: rx_data=64 Reading from UART: rx_data=65 Reading from UART: rx_data=72 Reading from
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PDF
2.transceiver_si4468.pdf
consumption Low BOM 10/13 mA RX Low battery detector 18 mA TX at +10 dBm (Si4467) Temperature sensor Ultra low current powerdown mode 20-Pin QFN package 30 nA shutdown, 40 nA standby Sub-GHz 802.15.4 mesh network ready
in „Transceiver Si4467 SPI Transfer PIC24“ · Mikrocontroller und Digitale Elektronik ·
