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UART.h
des Ringpuffers TxEnde2 = tmpende; // Index des Ringpuffers schreiben UDR2 = TxPuffer2[tmpende]; // Zeichen vom Ringpuffer holen und per USART senden } else { UCSR2B &= ~(1<<UDRIE2); // Keine Daten mehr zum senden, UDRIE
in „UART zu UART“ · Mikrocontroller und Digitale Elektronik ·
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PDF
db214_224-2_1_.pdf
SERIAL CLOCK INPUT LATCHES OSC XTAL ENABLE / MUTE EN / MUTE CLEAR / SCRAMBLE CLEAR / SCRAMBLE 1MHz Rx / Tx (SER / PAR) Rx / Tx A0 A1 VDD A2 ROM DIVIDER DIVIDER VBIAS A3 V CK CK SS A4 B B (SERIAL DATA IN) CKA FC1 FC2 PS CLOCK Rx / Tx CK3 SWITCHING CKB CK4 EN ×PS ×Rx Rx PS ×EN ×Tx Rx IN Tx OUT CK CTCSS Rx PS
in „Scrambler für PMR“ · Mikrocontroller und Digitale Elektronik ·
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Datei
position_transmission.c
'2p2\r': stringresponse[0] = '\0'; UCSR1B = (0<<RXCIE1); break; case '3sx_moteur\r': stringresponse[0] = '\0'; UCSR1B = (0<<RXCIE1); break; case '3A\r': stringresponse[0] = '\0'; UCSR1B = (0<<RXCIE1); break
in „Datentransfer von pc zum Motortreiber über Atmega644p“ · Mikrocontroller und Digitale Elektronik ·
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Datei
usbStefan_Aenderung.c
(Ep1TxBOffset<<UMEM_SHIFT)) #define EP2RxABuffer (USB_RAM + (Ep2RxAOffset<<UMEM_SHIFT)) #define EP2RxBBuffer (USB_RAM + (Ep2RxBOffset<<UMEM_SHIFT)) #define EP3TxBuffer (USB_RAM + (Ep3TxOffset<<UMEM_SHIFT))
in „USB CDC von Stefan Frings und WS“ · Mikrocontroller und Digitale Elektronik ·
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AN460_P82B96.pdf
fitted between GND and the buffered bus pins as shown in Figure 7. +VCC +VCC +5 V +5 V I C I C SDA SDA Tx TxD canh TxD Tx (SDA) (SDA) canl Rx RxD RxD Rx (SDA) (SDA) 1/2 PB2B96 1/2 PB2B96 PCA82C250 PCA82C250 +VCC +5 V 2 I C TxD Tx SDA (SDA) RxD Rx (SDA) 1/2 PB2B96 PCA82C250 LINE TERMINATION Example using
in „I2C EEPROM Störung bei 15m mit BusBuffer P82B96“ · Mikrocontroller und Digitale Elektronik ·
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Datei
async_transmitter.v
= (state==0); reg [7:0] TxD_dataReg; reg [7:0] TxD_dataD; always @(posedge clk) begin if(TxD_ready & TxD_start) TxD_dataReg <= TxD_data; TxD_dataD <= TxD_dataReg; end always @(posedge clk) case(state) 4'b0000: if(TxD_start) state
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PDF
wp-01212-high-speed-link-modeling-simulation.pdf
the standard channel model format. Figure 7 is an illustration of an S-parameter definition for a 2-port network. Figure 7. A 2-Port Network and Its S-parameter Model a1 2-Port b2 b Network a 1 2 b1 S 11 S12 a1 = b2 S 21 S22 a2 where a , a are incident power waves, and b , b are outgoing power waves
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Datei
RFID-Reader-Modul.c
/ XTAL1 <---PA0---|5(XTAL1) (OC1B)16|---PB4--> DISPLAY_DB4 / CFE_U2207B <---PD2---|6(CKOUT/XCK) (OC1A)15|---PB3--> SUMMER / OUTPUT_U2207B <---PD3---|7(INT1) (OC0A)14|---PB2--> LED_ / OUTPUT_U2207B <---PD3---|7(INT1) (OC0A)14|---PB2--
in „Attiny2313 eeprom Fragen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
RFM22B.pdf
Mode Current I Synthesizer and regulators enabled — 8.5 — mA Tune RX Mode Current IRX — 18.5 — mA TX Mode Current —RFM22B TX_+20 txpow[2:0] = 111 (+20 dBm) — 85 — mA TX Mode Current —RFM23B TX_+13 txpow[2:0] = 110 (+13 dBm) — 30 — mA I TX_+1 txpow[2:0] = 001 (+1 dBm) — 18 — mA Tel: +86-755-82973805
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PDF
RFM22B.pdf
Mode Current I Synthesizer and regulators enabled — 8.5 — mA Tune RX Mode Current IRX — 18.5 — mA TX Mode Current —RFM22B TX_+20 txpow[2:0] = 111 (+20 dBm) — 85 — mA TX Mode Current —RFM23B TX_+13 txpow[2:0] = 110 (+13 dBm) — 30 — mA I TX_+1 txpow[2:0] = 001 (+1 dBm) — 18 — mA Tel: +86-755-82973805
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Datei
usb.c
(Ep1TxBOffset<<UMEM_SHIFT)) #define EP2RxABuffer (USB_RAM + (Ep2RxAOffset<<UMEM_SHIFT)) #define EP2RxBBuffer (USB_RAM + (Ep2RxBOffset<<UMEM_SHIFT)) #define EP3TxBuffer (USB_RAM + (Ep3TxOffset<<UMEM_SHIFT))
in „STM32 USB Übertragungsproblem mit Code von S.F.“ · Mikrocontroller und Digitale Elektronik ·
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PDF
TX09D70VM1CDA.pdf
KAOHSIUNG HITACHI ELECTRONICS CO.,LTD FOR MESSRS : DATE : Jan.18,2011 CUSTOMER’S ACCEPTANCE SPECIFICATIONS TX09D70VM1CDA CONTENTS No. ITEM SHEET No. PAGE 1 COVER 7B64PS 2701-TX09D70VM1CDA-7 1-1/1 2 RECORD OF REVISION 7B64PS 2702-TX09D70VM1CDA-7 2-1/2~2/2 3 GENERAL DATA 7B64PS 2703-TX09D70VM1CDA-7 3-1/1 4 ABSOLUTE MAXIMUM RATINGS 7B64PS 2704-TX09D70VM1CDA-7 4-1/2~2/2 5 ELECTRICAL CHARACTERISTICS 7B64PS 2705-TX09D70VM1CDA-7 5-1/1 6 OPTICAL CHARACTERISTICS 7B64PS 2706-TX09D70VM1CDA-7 6-1/2~2/2 7 BLOCK DIAGRAM 7B64PS 2707-TX09D70VM1CDA
in „TFT Anschluss mit FPGA / CPLD / AVR“ · FPGA, VHDL & Co. ·
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PDF
board_schematic2.pdf
_TX- A23 SATA2_TX- SATA2_TX- 7 19 ACTLEDJ ACTLEDJ B2 GBE0_ACT# LCDD11 B71 LVDS_B0+ PCIE_RX2+ B61 PCIE2_RX+ 19 LILEDJ LILEDJ A8 GBE0_LINK# SATA2_RX+ A25 SATA2_RX+ SATA2_RX+ 7 18 LCDD11 LCDD10 B72 B62 PCIE2
in „USB 2.0 Beschaltung“ · Mikrocontroller und Digitale Elektronik ·
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Datei
osd02.asm
0x0B = " " movwf OSD_L movlw 0x10 call tx_osd decfsz count2 bra ClrLoop decfsz count3 bra ClrLoop clrf OSD_L clrf OSD_H movlw 0x10 call tx_osd ; set cursor to 0,0 ClrRows movlw B'00000000' movwf OSD_H movlw B'11000000' movwf OSD_L movlw 0x10 call tx_osd ; set write pointer to row attribute #0 movlw D'12' movwf count2 RowLoop movlw B'00010000' movwf OSD_H movlw B'11000000' movwf OSD_L movlw 0x10 call tx_osd
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Datei
st-link_gdbserver_log.txt
1" core="0" name="main"></thread></threads>#8b [2.009] read(): <676> Rx: $qAttached#8f [2.009] write(): <676> Tx: $1#31 [2.012] read(): <676> Rx: $qTStatus#49 [2.012] write(): <676> Tx: $#00 [2.012] read(): <676> Rx: $?#3f [2.012] write(): <676>
in „STM32 Cube IDE Inline Assembler“ · Mikrocontroller und Digitale Elektronik ·
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Datei
UART.h
8N1 (8 Datenbits, No-Parity Bit, 1 Stop Bit) UCSR2B |= (3<<UCSZ20); } // Ein Zeichen per USART 2 senden void sendeZeichen2(unsigned char zeichen) { unsigned char tmpstart; tmpstart = (TxStart2 + 1) & UsartTxPufferMaske; while (tmpstart == TxEnde2) // Auf freien Speicher im Puffer warten { } TxPuffer2[tmpstart] = zeichen; TxStart2 = tmpstart; UCSR2B |= (1<<UDRIE2); } // Einen String per USART 2 senden void sendeString2(const char *s) { while (*s) // Sendet solange bis das Ende Strings "\0"
in „Übertragungsproblem+Aufhängen Atmega“ · Mikrocontroller und Digitale Elektronik ·
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Datei
phys-m644.cpp
Phys_m644::tx_enable() { // enable TX UCSR0B |= (1 << TXEN0); } void Phys_m644::tx_disable() { // disable TX UCSR0B &= ~(1 << TXEN0); } void Phys_m644::rx_enable() { // enable RX UCSR0B |= (1 << RXEN0); } void Phys_m644
in „Serielles Protokoll testweise lesen“ · Mikrocontroller und Digitale Elektronik ·
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Datei
main.c
0x0504 #define RF22B_Tx_almost_empty_interrupt 0x0520 #define RF22B_Rx_almost_full_interrupt 0x0510 #define RF22B_Rx_packet_received_interrupt 0x0502 #define nIRQ RA2 #define TXEN RA4 #define RXEN RA5 #define LED_GREEN RC4
in „RFM22B Beispiel Projekt gesucht.“ · Mikrocontroller und Digitale Elektronik ·
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Datei
cantest.c
#if CAN_WAKEUP CAN_WakeupTest(); #endif #if !ACCEPTANCE_FILTER_ENABLED // Initialize MsgBuf MsgBuf_TX1.Frame = 0x80080000; MsgBuf_TX1.MsgID = 0x00012345; MsgBuf_TX1.DataA = 0x3C3C3C3C; MsgBuf_TX1.DataB = 0xC3C3C3C3; MsgBuf_RX2.Frame = 0x0; MsgBuf_RX2.MsgID = 0x0; MsgBuf_RX2.DataA = 0x0; MsgBuf_RX2.DataB
in „sprintf mehrfach“ · Mikrocontroller und Digitale Elektronik ·
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PDF
datasheljhet.pdf
Silan Semiconductors TX-2B/RX-2B REMOTE CONTROLLER WITH FIVE FUNCTIONS DESCRIPTION The TX-2B/RX-2B is a pair of CMOS LSIs designed for remote DIP-14 controlled car applications. The TX-2B/RX-2B has five control keys TX-2B for
in „Sender-Empfänger“ · Mikrocontroller und Digitale Elektronik ·
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PDF
datasheljhet.pdf
Silan Semiconductors TX-2B/RX-2B REMOTE CONTROLLER WITH FIVE FUNCTIONS DESCRIPTION The TX-2B/RX-2B is a pair of CMOS LSIs designed for remote DIP-14 controlled car applications. The TX-2B/RX-2B has five control keys TX-2B for
in „Sender-Empfänger“ · Mikrocontroller und Digitale Elektronik ·
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PDF
126799.pdf
Silan Semiconductors TX-2B/RX-2B REMOTE CONTROLLER WITH FIVE FUNCTIONS DESCRIPTION The TX-2B/RX-2B is a pair of CMOS LSIs designed for remote DIP-14 controlled car applications. The TX-2B/RX-2B has five control keys TX-2B for
in „Was für eine Art von Empfänger ist das?“ · HF, Funk und Felder ·
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Datei
Messadap.asm
sbrs RPORTB,PB1 rjmp E_D0_High cbr WPORTB,1<<PB0 RW_D1: sleep ;Rx D1 ; Tx D0 sbrs RPORTB,PB1 rjmp E_D1_High cbr WPORTB,1<<PB0 RW_D2: sleep ;Rx D2 ; Tx D1 sbrs RPORTB,PB1 rjmp E_D2_High cbr WPORTB,1<<PB0 RW_D3: sleep ;Rx D3 ; Tx D2 sbrs RPORTB,PB1 rjmp E_D3_High cbr WPORTB,
in „Einfacher Messadapter RS232“ · Mikrocontroller und Digitale Elektronik ·
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PDF
PseudoKunstkopfStereo.pdf
TX_data_1_2 ds 1 ;data time slot 1/2 for TX ISR TX_data_3_4 ds 1 ;data time slot 3/4 for TX ISR TX_data_5_6 ds 1 ;data time slot 5/6 for TX ISR TX_data_7_8 ds 1 ;data time slot 7/8 for TX ISR RX_PTR ds
in „Pseudo Kunstkopf Stereo mit DSP56002, alte Motorola Applikation“ · Digitale Signalverarbeitung / DSP / Machine Learning ·
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Datei
usb_hdi.c
Descriptor Type -> Constant INTERFACE (04h) TESTHID_INTERFACE, // bInterfaceNumber Number identifying this interface (0) 0, // bAlternateSetting Value used to select an alternate setting (0) 2, // bNumEndpoints Number of endpoints supported, except Endpoint 0 (2) 0x03
in „Teensy HDI läuft nicht richtig“ · Mikrocontroller und Digitale Elektronik ·
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Bild
Tabelle mit Signalbezeichnungen CN1300
30 SFC2 31 GND 32 TX_CHO_A+_VX1 33 TX_CHO_A-_VX1 34 GND 35 TX_CHO_B+_VX1 36 TX_CHO_B-_VX1 37 GND 38 TX_CH1_A+_VX1 39 TX_CH1_A-_VX1 40 TX_CH1_B+_VX1 41 TX_CH1_B-_VX1 42 TX_CH2_A+_USIT 43 GND 44 TX_CH2_B-_USIT 45 TX_CH2_A-_USIT 46 GND 47 TX_CH2_B+_USIT 48 TX_CH2_B-_USIT 49 GND 50 TX_CH3_A+_USIT 51 TX_CH3_A-_USIT 52 TX_CH3_B+_USIT 53 TX_CH3_B-_USIT 54 TX_CH4_A-_USIT 55 TX_CH4_B-_USIT 56 TX_CH4_A-_USIT 57 TX_CH4_B
in „Samsung QLED Schaltnetzteil defekt“ · Analoge Elektronik und Schaltungstechnik · · Screenshots
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PDF
RFM70.pdf
Reserved 6 0 R/W Reserved 5 1 R/W Reserved 4 1 Reserved RF_DR 3 1 R/W Air Data Rate „0‟ – 1Mbps „1‟ – 2Mbps Set RF output power in TX mode RF_PWR[1:0] RF_PWR[1:0] 2:1 11 R/W '00' – -10 dBm '01' – -5 dBm '10' – 0 dBm '11' – 5 dBm Setup LNA gain LNA_HCURR 0 1 R/W 0:Low gain(20dB down) 1:High gain Status
in „SPI und RFM70 [AVR-ASSEMBLER]“ · Mikrocontroller und Digitale Elektronik ·
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Datei
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Datei
wl_module.c
[1] = tx_addr[2] = tx_addr[3] = tx_addr[4] = RX_ADDR_P1_B0_DEFAULT_VAL; wl_module_set_TADDR(tx_addr); wl_module_set_RADDR(tx_addr); break; case 2: //setup TX address as default RX address for pipe 2 (C2:C2:C2
in „2,4 Ghz Kommunikation“ · Mikrocontroller und Digitale Elektronik ·
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PDF
VAR-DT6CUSTOMBOARD_SCH_V1_1_Doc_V1_2.pdf
15 11 L104 5 3 1DIR 1OE# 14 5 CBUS1 D D D 3V3OUT MCZ1210AH900L2T GND 4 2DIR 2OE# 13 14 CBUS2 P N N 9 4 3 J102 S S 3 UART1_RX 5 1A1 '0'- 1B1 12 CBUS3 E G G RESET# C190 USB MICRO AB 3 UART1_RTS 6 1A2 B->A 1B2 11 5 2 1 1 3 UART1_TX 7 2A1 2B1 10 1 1 3 LAYOUT NOTE: 10nF
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Datei
wl_module.c
[1] = tx_addr[2] = tx_addr[3] = tx_addr[4] = RX_ADDR_P1_B0_DEFAULT_VAL; wl_module_set_TADDR(tx_addr); wl_module_set_RADDR(tx_addr); break; case 2: //setup TX address as default RX address for pipe 2 (C2:C2:C2
in „NRF24L01 und Atmega328P“ · Mikrocontroller und Digitale Elektronik ·
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Datei
main.c
(1); sprintf(text, "Reading COM11 from I2C target: [%i].\n", tempvalue); uart_tx(text); i2c_write(OV7670I2C, REG_CLKRC, (tempvalue | 0b00011111)); // COM11[5:0] prescaler for PCLK, disable direct clk (bit 6=0) Delay(1); sprintf(text, "Writing COM11 prescaler to I2C target.\n"); uart_tx(text); tempvalue = i2c_read(OV7670I2C, REG_DBLV); Delay(1); i2c_write(OV7670I2C, REG_DBLV, (tempvalue & 0b00111111)); // DBLV -> no PLL for PCLK Delay(1); sprintf(text, "Writing
in „OV7670 an STM32F102“ · Mikrocontroller und Digitale Elektronik ·
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Datei
RFM02-V9.asm
; Chip select auf 1 nop nop nop cbi PortB,nSEL ; Chip select auf 0 ldi data,0xC6 ; Data Transmit Command rcall Befehlsenden ldi data,0xAA rcall tx ldi data,0xAA rcall tx ldi data,0xAA rcall tx ldi data,0x2D rcall tx ldi data,0xD4 rcall tx mov
in „Beispielprogramm für RFM12 433MHz Funk-Module“ · Projekte & Code ·
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PDF
z16c30um.pdf
Read or (Data) (iA//B)'s RxFIFO, Write? depending on B//W Low /0 (Control) Write RegAd Yes = 1x000? Write 1 or 2 char- Access the register acters to channel in Channel (iA//B) (iA//B)'s TxFIFO, depending on B//W selected
in „unbekanntes Bus (Frame) entziffern, brauche Hilfe.“ · Mikrocontroller und Digitale Elektronik ·
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Datei
usb.c
; EpTable[1].TxCount = EpIntLenId; EpTable[1].RxOffset = Ep1RxBOffset; // here 2nd rx buffer EpTable[1].RxCount = EpIntLenId; // EP2 = Int OUT (only OUT) EpTable[2].TxOffset = Ep1TxAOffset; EpTable[2].TxCount = EpIntLenId
in „USB HID Device mit STM32F042“ · Mikrocontroller und Digitale Elektronik ·
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Datei
M162.BAS
Can_tmg_0 = &H4006 Const Can_tmg_1 = &H4007 Const Can_ocr = &H4008 Const Can_test = &H4009 Const Can_tx_id = &H400A Const Can_tx_len = &H400B Const Can_tx_buf0 = &H400C Const Can_tx_buf1 = &H400D Const Can_tx_buf2 = &H400E Const Can_tx_buf3 = &H400F Const Can_tx_buf4 = &H4010 Const Can_tx_buf5 = &H4011
in „ATMEGA162 + SJA1000 Ansteuerung“ · Mikrocontroller und Digitale Elektronik ·
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Datei
ft2232h_fifo.v
; ft_wr_n <= !tx_wr; if (tx_nextdata) data2ft <= fifo_rd_data; end // else: !if( usb_offline) always @(*) begin case(state) IDLE: if (!empty) begin next_state = ARMED; tx_wr = 1'b0; fifo_rd = 1'b1; tx_nextdata = 1'b0
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Datei
main.c
-------- void rf12_txdata(unsigned char *data, unsigned char number) { unsigned char i; rf12_trans_Tx(0x8238); // TX on rf12_ready_Tx(); rf12_trans_Tx(0xB8AA); rf12_ready_Tx(); rf12_trans_Tx(0xB8AA); rf12_ready_Tx(); rf12_trans_Tx(0xB8AA); rf12_ready_Tx(); rf12_trans_Tx(0xB82D); rf12_ready_Tx(); rf12_trans_Tx(0xB8D4); for (i=0; i<number; i++) { rf12_ready_Tx(); rf12_trans_Tx(0xB800|(*data++)); } rf12_ready_Tx(); rf12_trans_Tx(0x8208); // TX off } //---------------------------------------------------------
in „RFM12 mit HCS12“ · Mikrocontroller und Digitale Elektronik ·
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Datei
nrf24l01_drv.c
pipe 0 to receive the ACK packet. The RX address for data pipe 0 (RX_ADDR_P0) must be equal to the TX address (TX_ADDR) in the PTX device. For the example in Figure 14. on page 41 perform the following address settings for the TX5 device and the RX device: TX5 device: TX_ADDR = 0xB3B4B5B605 TX5 device
in „NRFL24L01+ - Immer Ärger mit den Paarungen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
rfm63dw.PDF
anytime during Tx to manage FIFO contents and write additional bytes. Start condition (Cf. Tx_start_irq_0) Fifofull /Fifoempty Tx_done from SPI Data 15 b15 b13 b12 b11 b90 FIFO b8 b6 b5 b4 b2 b1 0 b0 Data Tx XXX b0 b1 b2 b3 b4 b5 b6 b7 b8 b9 b10 b11 b12 b13 b14 b15 XXX (from SR) Figure 39: Tx processing in Buffered Mode (FIFO size = 16, Tx_start_irq_0=0) 5.4.3. Rx Processing After entering Rx in Buffered mode, the chip
in „JDY-40 ein neuer Geniestreich aus China?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
TX2A-433-64.pdf
@ 1ppm BER, 64kb/s version -108dBm sensitivity @ 1ppm BER, 10kb/s version RSSI output with 60dB range Extremely low LO leakage, <-100dBm Radiometrix Ltd, TX2A/RX2A Data Sheet page 1 Functional description The TX2A transmitter module is a crystal based PLL controlled FM transmitter operating between
in „Funkverbindung Problem“ · Mikrocontroller und Digitale Elektronik ·
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Datei
main.c
TX_String("1"); } else if(Zahl == 2) { TX_String("2"); } else if(Zahl == 3) { TX_String("3"); } else if(Zahl == 4) { TX_String("4"); } else if(Zahl == 5) { TX_String("5"); } else if(Zahl == 6) { TX_String
in „Moduswechsel durch gleichzeitiges Drücken beider Taster“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Laufrot0408_1.c
[j][i]); wort[wx]=text2[i];wx++; } } //AUSGABE groesse=sizeof(wort); groesse=groesse-1; MCUCR=0b10000000; //sleep Befehl erlaubt DDRB=0b11111111; //Ports initialisieren PORTB=0b00000000; DDRC=0b11111111; PORTC=0b00000000; DDRD=0b11111111; PORTD=0b00000000; TCCR0=0b00000000; TCNT0=100; TCCR2=0b00000111; // timer 2 an TCNT2=0; TIMSK=0b01000001; cli(); BEGINN: while(1) { cli(); portc=0; //ports auf null portb=0; // portd=0; // ztest
in „EEPROM schreiben,lesen“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Laufrot0408_1.c
[j][i]); wort[wx]=text2[i];wx++; } } //AUSGABE groesse=sizeof(wort); groesse=groesse-1; MCUCR=0b10000000; //sleep Befehl erlaubt DDRB=0b11111111; //Ports initialisieren PORTB=0b00000000; DDRC=0b11111111; PORTC=0b00000000; DDRD=0b11111111; PORTD=0b00000000; TCCR0=0b00000000; TCNT0=100; TCCR2=0b00000111; // timer 2 an TCNT2=0; TIMSK=0b01000001; cli(); BEGINN: while(1) { cli(); portc=0; //ports auf null portb=0; // portd=0; // ztest
in „EEPROM schreiben,lesen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Datenblatt_WCDMA-GSM-EDGE-Transceiver_MMM7210.pdf
GSM850 Tx Output Impedance 50 Ohm nominal — “2:1” — VSWR DVGA Mode Tx Output Power EDGE DVGA set to minimum attenuation 0 2.95 dBm DVGA Range 42 45 48 dB DVGA Incremental Step Across DVGA range 2.2 3 4.5 dB Size
in „GSM-Modul (SIM908) nur analoge Ausgänge für Anruf?“ · HF, Funk und Felder ·
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Datei
messages.txt
: ads7846 spi0.1: start xfer 91c3e890: len 1 tx 91c3e833/11c3e833 rx 00000000/ffffffff Jul 22 23:28:36 ngw user.debug kernel: ads7846 spi0.1: next xfer 91c3e8b4: len 2 tx 00000000/ffffffff rx 91c3e83e/11c3e83e Jul 22 23:28:36 ngw user.debug kernel
in „Probleme mit ADS7846 beim NGW100“ · Mikrocontroller und Digitale Elektronik ·
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Datei
RFM70_HH.c
PORT_OPC_WIREDANDPULL_gc; //Bank1 register initialization values uint8_t Bank1_Reg_val[]= { 0x40, 0x4B, 0x01, 0xE2, //0xE2014B40 Address 0 0xC0, 0x4B, 0x00, 0x00, //0x00004BC0 Address 1 0xD0, 0xFC, 0x8C, 0x02, //0x028CFCD0 Address 2 0x99, 0x00, 0x39, 0x41, //0x41390099 Address 3 0xF9, 0x9E, 0x86, 0x0B
in „RFM70 arbeitet nicht zuverlässig“ · HF, Funk und Felder ·
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PDF
TX17D01VM2EAB.pdf
MAXIMUM RATINGS 7B64PS 2704-TX17D01VM2EAB-1 4-1/1 5 ELECTRICAL CHARACTERISTICS 7B64PS 2705-TX17D01VM2EAB-1 5-1/1 6 OPTICAL CHARACTERISTICS 7B64PS 2706-TX17D01VM2EAB-1 6-1/2~2/2 7 BLOCK DIAGRAME 7B64PS 2707-TX17D01VM2EAB-1 7-1/1 8 RELIABILITY TESTS 7B64PS 2708-TX17D01VM2EAB-1 8-1/1 9 LCD INTERFACE 7B64PS 2709-TX17D01VM2EAB-1 9-1/7~7/7 10 OUTLINE DIMENSIONS 7B63PS 2710-TX17D01VM2EAB-1 10-1/2~2/2 11 APPEARANCE STANDARD 7B64PS 2711-TX17D01VM2EAB-1 11
in „[V] TFT 6,5 Zoll 1000 cd/m² Hitachi TX17D01VM2EAB“ · Markt ·
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Datei
Dokument1.txt
/ |_ 5 Bytes unsigned ana15 : 10; // | unsigned ana16 : 10; // - } sensdata1; struct ananum { byte b0 : 1; byte b1 : 1; byte b2 : 1; byte b3 : 1; byte b4 : 1; byte b5 : 1; byte b6 : 1; byte b7 : 1; } __attribute__((_packed_)); struct leds { byte b0 : 1; byte b1 : 1; byte b2 : 1; byte b3 : 1; byte b4
in „ATmega128 USART kriegs nicht zum Laufen / bin am verzweifeln“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Anhang.c
c) if (uart1Put(*c)) c++; } #define BUFSIZE 80 int uart_getchar_JW(void) { uint8_t c; char *cp, *cp2; static char b[BUFSIZE]; static char *rxp; if (rxp == 0) for (cp = b;;) { //loop_until_bit_is_set(UCSRA, RXC); //if (UCSRA & (_BV(FE) | _BV(DOR))) // return -1; //c = UDR; c=uart1Get(); /* behaviour
in „von avr-gcc nach WinAVR andere Bibo?“ · Mikrocontroller und Digitale Elektronik ·
