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Datei
HFG84cc.java
; } if( rx >= 64000000 ){ b[2] |= ( 1 << 2 ); rx -= 64000000; } if( rx >= 32000000 ){ b[2] |= ( 1 << 1 ); rx -= 32000000; } if( rx >= 16000000 ){ b[2] |= ( 1 << 0 ); rx -= 16000000; } if( rx >= 8000000 ){ b[3]
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HFG164cc.java
; } if( rx >= 64000000 ){ b[2] |= ( 1 << 2 ); rx -= 64000000; } if( rx >= 32000000 ){ b[2] |= ( 1 << 1 ); rx -= 32000000; } if( rx >= 16000000 ){ b[2] |= ( 1 << 0 ); rx -= 16000000; } if( rx >= 8000000 ){ b[3]
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HFG164cc.java
; } if( rx >= 64000000 ){ b[2] |= ( 1 << 2 ); rx -= 64000000; } if( rx >= 32000000 ){ b[2] |= ( 1 << 1 ); rx -= 32000000; } if( rx >= 16000000 ){ b[2] |= ( 1 << 0 ); rx -= 16000000; } if( rx >= 8000000 ){ b[3]
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MM_04-Jun-2020.txt
$2D 07 ED A6 19:25:53 RX> >Msg$2D 00 6D B7 19:25:53 RX> >Msg$2D 0A 6D 8B 19:25:55 RX> >Msg$F5 02 68 56 19:26:06 RX> >Msg$2D 04 ED AC 19:26:18 RX> >Msg$2D 01 ED B2 19:26:18 RX> >Msg$F5 04 68 42 19:26:21
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Datei
KF163cc.java
){ b[2] |= ( 1 << 2 ); rx -= 160000000; } if( rx >= 80000000 ){ b[2] |= ( 1 << 1 ); rx -= 80000000; } if( rx >= 40000000 ){ b[2] |= ( 1 << 0 ); rx -= 40000000; } if( rx >= 20000000 ){ b[3] |= ( 1 << 3 );
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KF83cc.java
){ b[2] |= ( 1 << 2 ); rx -= 32000000; } if( rx >= 16000000 ){ b[2] |= ( 1 << 1 ); rx -= 16000000; } if( rx >= 8000000 ){ b[2] |= ( 1 << 0 ); rx -= 8000000; } b[2] |= ( 1 << 4 ); if( rx >= 4000000 ){ b[3]
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PDF
CosmicMonitoringEditor.pdf
0 B 0.0% 4.010378 2 Statistic: D 0 R 0 XD 0 XR 0 E 0 O 0 B 0.0% 4.303006 1 1 Rx d 8 00 00 00 00 00 00 00 00 4.413445 1 1 Rx d 8 00 00 00 00 00 00 00 00 4.480696 1 2 Rx d 8 00 57 00 00 00 00 00 00 4.523533
in „Cosmic und ST7 if() else - Problem“ · Mikrocontroller und Digitale Elektronik ·
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Datei
basic1.asm
B push C AD9850: cbi PortD,6 ;AD_data cbi PortB,7 ;W_CLK cbi PortB,6 ;FR_UD ldi ZL,accu ;Adresse des DDSaccu clr ZH AD3:mov C,Rx0 rcall AD_BYTE mov C,Rx1 rcall AD_BYTE mov C,Rx2 rcall AD_BYTE mov C,Rx3
in „Dynamisierung Encoder speziell für DDS“ · Mikrocontroller und Digitale Elektronik ·
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Datei
asic_reading.v
= 1'b0; counting = 0; end txdA_1: begin rx_ll_src_rdy_out_n = 1'b0; rx_ll_eof_out_n = 1'b1; rx_ll_sof_out_n = 1'b0; //Indicate start of frame rx_ll_data_out = DA[47:40]; nextstate = txdA_2; end txdA_2: begin
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Datei
serial_logamatic_0911_.txt
E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 00 00 00 01 00 01 00 1F 05 06 01 06 06 <RX>04 10 48 00 80 02 29 00 CC 00 00 20 2A 32 00 00 64 00 21 00 <RX>04 10 12 00 41 30 03 2B 89 0A 03 14 3B 00 01 08 41 30 03 2B 89 0A 03 0D <RX>3B 00 01 08 41 30 03 2B 89 0A 03 06 3B 00 01 08 41 30 03 2B 88 07 03 0F 3B 00 01 08 <RX>04 10 13 00 41 30 03 2B 88 07 03 08 3B 00 01 08 41 30 03 2B 88 04 03 01 3B 00 01 08 41 31 03 35 86 0B 09 01 38 00 01 10 41 31 03 39 86 0B 09 01 2E 00 01 17 <RX>04 10 A2 00 00 00 00 00 00
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Wiegand2RS.asm
SREGcopy = r0 ; copy of the status register (SREG) .def Tx_char = r1 ; RS transmitter buffer .def Rx_char = r2 ; RS receiver buffer .def time_Rx = r3 ; moment of reading RS bit .def Wiegand_B0 = r4 ; \ .def Wiegand_B1 = r5 ; | .def Wiegand_B2 = r6 ; | Wiegand buffer .def Wiegand_B3 = r7 ; | .def Wiegand_B4
in „Code von AT90S1200 auf ATmega8 ausführen“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Wiegand2RS2313.asm
SREGcopy = r0 ; copy of the status register (SREG) .def Tx_char = r1 ; RS transmitter buffer .def Rx_char = r2 ; RS receiver buffer .def time_Rx = r3 ; moment of reading RS bit .def Wiegand_B0 = r4 ; \ .def Wiegand_B1 = r5 ; | .def Wiegand_B2 = r6 ; | Wiegand buffer .def Wiegand_B3 = r7 ; | .def Wiegand_B4
in „Wie löst der Interupt in dem Programm aus?“ · Mikrocontroller und Digitale Elektronik ·
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Datei
gth_report_property.txt
_0_1 string false false CONFIG.RX_CB_K_0_2 string false false CONFIG.RX_CB_K_0_3 string false false CONFIG.RX_CB_K_1_0 string false false CONFIG.RX_CB_K_1_1 string false false CONFIG.RX_CB_K_1_2 string false false CONFIG.RX_CB_K_1_3
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qcamber-qt6.patch
caps = rx.capturedTexts(); + QStringList caps = m.capturedTexts(); m_od = caps[1].toDouble() / 1000.0; m_id = caps[2].toDouble() / 1000.0; diff --git a/src/symbol/donutssymbol.cpp b/src/symbol/donutssymbol.cpp
in „Qt4 -> Qt5/6: scrollbar signal handling“ · Softwareentwicklung ·
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Datei
nRF24L01.h
define STATUS_DEFAULT_VAL 0x0E #define OBSERVE_TX_DEFAULT_VAL 0x00 #define CD_DEFAULT_VAL 0x00 #define RX_ADDR_P0_B0_DEFAULT_VAL 0xE7 #define RX_ADDR_P0_B1_DEFAULT_VAL 0xE7 #define RX_ADDR_P0_B2_DEFAULT_VAL 0xE7 #define RX_ADDR_P0_B3_DEFAULT_VAL 0xE7 #define RX_ADDR_P0_B4_DEFAULT_VAL 0xE7 #define RX_ADDR_P1_B0_DEFAULT_VAL 0xC2 #define RX_ADDR_P1_B1_DEFAULT_VAL 0xC2 #define RX_ADDR_P1_B2_DEFAULT_VAL 0xC2 #define RX_ADDR_P1_B3_DEFAULT_VAL 0xC2 #define RX_ADDR_P1_B4_DEFAULT_VAL 0xC2 #define RX_ADDR_P2_DEFAULT_VAL
in „2,4 Ghz Kommunikation“ · Mikrocontroller und Digitale Elektronik ·
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Datei
nRF24L01.h
define STATUS_DEFAULT_VAL 0x0E #define OBSERVE_TX_DEFAULT_VAL 0x00 #define CD_DEFAULT_VAL 0x00 #define RX_ADDR_P0_B0_DEFAULT_VAL 0xE7 #define RX_ADDR_P0_B1_DEFAULT_VAL 0xE7 #define RX_ADDR_P0_B2_DEFAULT_VAL 0xE7 #define RX_ADDR_P0_B3_DEFAULT_VAL 0xE7 #define RX_ADDR_P0_B4_DEFAULT_VAL 0xE7 #define RX_ADDR_P1_B0_DEFAULT_VAL 0xC2 #define RX_ADDR_P1_B1_DEFAULT_VAL 0xC2 #define RX_ADDR_P1_B2_DEFAULT_VAL 0xC2 #define RX_ADDR_P1_B3_DEFAULT_VAL 0xC2 #define RX_ADDR_P1_B4_DEFAULT_VAL 0xC2 #define RX_ADDR_P2_DEFAULT_VAL
in „NRF24L01 und Atmega328P“ · Mikrocontroller und Digitale Elektronik ·
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Datei
top_basic.v
, .tx_req_2(1'b0), .tx_din_2(16'd0), .tx_sop_2(1'b0), .tx_eop_2(1'b0), .tx_dwen_2(1'b0), .tx_req_3(tx_req_ur), .tx_din_3(tx_dout_ur), .tx_sop_3(tx_sop_ur), .tx_eop_3(tx_eop_ur), .tx_dwen_3(1'b0), .tx_rdy_0(tx_rdy_wbm
in „Lattice Diamond: UART Receiver Siganl Wegoptimiert“ · FPGA, VHDL & Co. ·
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PDF
Datenblatt_WCDMA-GSM-EDGE-Transceiver_MMM7210.pdf
= -92.0 dBm 1.3 4.0 — dB F1= Rx ± 10Mhz (CW), -36.2 dBm F2= Rx ± 20 MHz (WCDMA); -36.2 dBm Record SNR in 3.84 MHz BW Cascaded IP2 Desired: (Rx + 200kHz) = -92 dBm -1.7 6.6 — dB F1= Rx ± 15Mhz (CW) => - 34.3 dBm F2= Rx ± (15
in „GSM-Modul (SIM908) nur analoge Ausgänge für Anruf?“ · HF, Funk und Felder ·
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PDF
nRF24L01P_Product_Specification_1_0.pdf
3 D P T _A 2 at R PTX6 D TXA Dat a X_ADD: Pip ie0 8 DR_P xB3B e1 ataP 78878 :0x3 4B5BF D 788 8787 B4BB6 1 0x 7787 F1 DDR P00x TX_ DD_ PRX RXA Addr Data Pipe 0 (RX_ADDR_P0): 0x7878787878 Addr Data Pipe 1 (RX_ADDR_P1): 0xB3B4B5B6F1 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
in „NRF24L01+ erkennen ob gesendet wird“ · Mikrocontroller und Digitale Elektronik ·
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Datei
wb_tlc_dec.v
drop; always @(negedge rstn or posedge clk_125) begin if (~rstn) begin rx_din_p <= 0; rx_sop_p <= 1'b0; rx_eop_p <= 1'b0; rx_dwen_p <= 1'b0; rx_eop_p2 <= 1'b0; fifo_dout <= 0; fifo_sop <= 1'b0; fifo_eop <= 1'b0; fifo_dwen <= 1'b0; fifo_wrn <= 1'b0; fifo_wrn_p <= 1'b0; fifo_wen
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SENSORS.c
])<<16)+((RxBuffer[1])<<8)+RxBuffer[2])>>8); //Raw Pressure Value //Calculate compensated Temperature. temp1=((TmpRaw-PressCoeff2[2])*PressCoeff2[1])/32768; temp2=PressCoeff3[3]*2048/(PressCoeff3[4]+temp1); B5=temp1
in „LPC1768 / MBED Hard-Fault-Error durch I2C Wie debuggen ?“ · Mikrocontroller und Digitale Elektronik ·
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Datei
serial_logamatic_monitoring_2.txt
E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 E7 90 00 00 00 01 01 00 01 01 00 1F 05 06 01 06 06 RX: 04 10 48 00 80 02 29 00 CD 00 00 20 29 32 00 00 64 11 20 00 RX: 04 10 12 00 41 30 03 2B 89 0A 03 14 3B 00 01 08 41 30 03 2B 89 0A 03 0D 3B 00 01 08 41 30 03 2B 89 0A 03 06 3B 00 01 08 41 30 03 2B 88 07 03 0F 3B 00 01 08 RX: 04 10 13 00 41 30 03 2B 88 07 03 08 3B 00 01 08 41 30 03 2B 88 04 03 01 3B 00 01 08 41 31 03 35 86 0B 09 01 38 00 01 10 41 31 03 39 86 0B 09 01 2E 00 01 17 RX: 04 10 A2 00 00 00 00 00 00
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cantest.c
.MsgID ) || ( MsgBuf_TX1.DataA != MsgBuf_RX2.DataA ) || ( MsgBuf_TX1.DataB != MsgBuf_RX2.DataB ) ) { while ( 1 ); } // Everything is correct, reset buffer 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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polli_rfm12_rx_tx_an_PC.c
1 T1 Taster High Aktiv 0 XCKTt0 j8 NINT DI oder VDI DO Port C 0-7 Frei an J4 Port D 7 OC2 6 ICP1 LED1 High Aktiv OK 5 OC1A LED2 High Aktiv OK 4 OC1B 3 INT1 j8 DCLK DO or CFIL AIO or FFIT DO FIFO Interrupt (active high) Number of the bits in the RX FIFO that reach the preprogrammed limit in
in „RFM12 Statusabfrage“ · Mikrocontroller und Digitale Elektronik ·
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PDF
BBK-29LEM-5093T2C_MSD308C-1.pdf
SPI_SCK B3 W21 G3_RXE0 Y7 C_RX2N I2S_OUT_MCK F15 AUMCK_OUT SPI_SDI A3 PM_SPI_CK LVA0P/_GREEN[3] V19 G2_RXE0+ G3_RXE0 W7 F14 PM_SPI_DI LVA0N/_GREEN[2] G2_RXE0+ Y5 C_RX2P I2S_OUT_WS F13 SPI_SDO B4 PM_SPI_DO SPI
in „Datenblatt zu MSH9010-lf gesucht“ · Mikrocontroller und Digitale Elektronik ·
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Datei
async_receiver.v
:0] RxD_cnt_inv; reg RxD_bit_inv; //Filter always @(posedge clk) if(Baud8Tick) begin if( RxD_sync_inv[1] && RxD_cnt_inv!=2'b11) RxD_cnt_inv <= RxD_cnt_inv + 2'h1; else if(~RxD_sync_inv[1] && RxD_cnt_inv!=2'b00) RxD_cnt_inv <= RxD_cnt_inv - 2'h1; if(RxD_cnt_inv==2'b00) RxD_bit_inv <= 1'b0; else if(RxD_cnt_inv==2'b11) RxD_bit_inv <= 1'b1; end reg [3:0] state; reg [3:0] bit_spacing; // "next_bit" controls when
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owx.h
//#define owx_rx_status_temperature 15 //#define owx_rx_status_command 20 //#define owx_rx_status_read 13 #define b8_0 6 #define b8_1 7 #define b8_2 8 #define b8_3 9 #define b8_4 10 #define b8_5 11 #define b8_6 12 #define
in „AVRs vernetzen: Bibliothek / Bus gesucht“ · Haus & Smart Home ·
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Datei
async_receiver.v
:0] RxD_cnt_inv; reg RxD_bit_inv; //Filter always @(posedge clk) if(Baud8Tick) begin if( RxD_sync_inv[1] && RxD_cnt_inv!=2'b11) RxD_cnt_inv <= RxD_cnt_inv + 2'h1; else if(~RxD_sync_inv[1] && RxD_cnt_inv!=2'b00) RxD_cnt_inv <= RxD_cnt_inv - 2'h1; if(RxD_cnt_inv==2'b00) RxD_bit_inv <= 1'b0; else if(RxD_cnt_inv==2'b11) RxD_bit_inv <= 1'b1; end reg [3:0] state; reg [3:0] bit_spacing; // "next_bit" controls when
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UR_gen.v
expected_ur <= 1'b1; // IORd //8'b0100_0010: expected_ur <= 1'b1; // IOWr 8'b0x00_0010: expected_ur <= ~ (rx_bar_hit[5]|| rx_bar_hit[4]|| rx_bar_hit[3]|| rx_bar_hit[2]|| rx_bar_hit[1]|| rx_bar_hit[0]); //IORd/Wr 3DW or 4DW 8'b00x0_0000: expected_ur <= ~ (rx_bar_hit[5]|| rx_bar_hit[4]|| rx_bar_hit[3]|| rx_bar_hit[2]|| rx_bar_hit[1]|| rx_bar_hit[0]); // MRd 3DW or 4DW default: expected_ur <= 1'b0; endcase end end e_rcv_req:
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usb_rawhid.c
bInterfaceProtocol (0x01 = Keyboard) 0, // iInterface // HID interface descriptor, HID 1.11 spec, section 6.2.1 9, // bLength 0x21, // bDescriptorType 0x11, 0x01, // bcdHID 0, // bCountryCode 1, // bNumDescriptors
in „USB Stack für AT90USB162“ · Mikrocontroller und Digitale Elektronik ·
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Datei
UART.c
------------------------------- #define TX_DDR DDRD #define TX_Port PORTD #define TX_Pin 1 #define RX_DDR DDRD #define RX_Port PORTD #define RX_Pin 0 #define UART0_rx_size 512 // Nur Werte 2^n zulässig ! #define UART0_rx_mask (UART0_rx_size-1) #define UART0_tx_size 512 // Nur Werte 2^n zulässig ! #define
in „Brauche Unterstützung beim OV7670 (bzw. SCCB)“ · Mikrocontroller und Digitale Elektronik ·
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Datei
UART.c
------------------------------- #define TX_DDR DDRD #define TX_Port PORTD #define TX_Pin 1 #define RX_DDR DDRD #define RX_Port PORTD #define RX_Pin 0 #define UART0_rx_size 512 // Nur Werte 2^n zulässig ! #define UART0_rx_mask (UART0_rx_size-1) #define UART0_tx_size 512 // Nur Werte 2^n zulässig ! #define
in „Brauche Unterstützung beim OV7670 (bzw. SCCB)“ · Mikrocontroller und Digitale Elektronik ·
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Datei
top_basic.v
, .tx_req_2(1'b0), .tx_din_2(16'd0), .tx_sop_2(1'b0), .tx_eop_2(1'b0), .tx_dwen_2(1'b0), .tx_req_3(tx_req_ur), .tx_din_3(tx_dout_ur), .tx_sop_3(tx_sop_ur), .tx_eop_3(tx_eop_ur), .tx_dwen_3(1'b0), .tx_rdy_0(tx_rdy_wbm
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PDF
CMX865A_datasheet.pdf
bits Rx Mode Register b2-0: Tones Detect Mode In Tones Detect Mode (Rx Mode Register b14-12 = 001) b8-3 should be set to 000000. These three bits select the detector type. b2 b1 b0 1 0 0 Programmable Tone Pair
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serial_logamatic_monitoring_0711.txt
<TX>10 <TX>02 <RX>10 <TX>040810031F <RX>10 <TX>02 <RX>10 <TX>040910031E <RX>1002 <TX>10 <RX>040807000B0101020000000000000000000000100311 <TX>10 <RX>02 <TX>10 <RX>040818001F02136400010100000257830080000000FF30590000FF000000F00000000000C4BB1F00001003C2
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main.c
} } if(reading==0&&error==0&&sync_detect==1) { reading=1; sync_detect=0; channel=2; if(++sync==2) { if (rx_value[1]>rx_sync_value&&rx_value[2]>rx_sync_value) { channel=3; sync_ok=1;} else { error=3; } } } if(reading==0&&error==0&&channel>2&&channel<11&&rx_value[channel]<rx_sync_value
in „Wfly Multiswitch 8ch Probleme“ · Mikrocontroller und Digitale Elektronik ·
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PDF
mod_input_circuit.pdf
0 50 100 150 200 -0.50 -1.00 -1.50 -2.00 -2.50 -3.00 -3.50 -4.00 280R/4x33R 280R/4x33R 280R/4x33R DST1202B DST1202B DST1202B PP-150 Probe TT-HF512 Probe RG174 Modified hw1007 input stage (ArnoR tweak): RX1=RX2=RX3=RX4= 280R RA1=RA2= 4 x
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usb.c
*/ EpTable[1].RxCount = EpBulkLenId; /* erstmal.. */ /* EP2 = Bulk OUT (nur OUT) */ EpTable[2].TxOffset = Ep2RxAOffset; EpTable[2].TxCount = EpBulkLenId; EpTable[2].RxOffset = Ep2RxBOffset; EpTable[2].RxCount = EpBulkLenId
in „USB CDC von Stefan Frings und WS“ · Mikrocontroller und Digitale Elektronik ·
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Datei
UART.h
char RxPuffer2 [RxPufferGroesse]; static volatile unsigned char TxPuffer2 [TxPufferGroesse]; static volatile unsigned char RxStart2; static volatile unsigned char RxEnde2; static volatile unsigned char TxStart2
in „Übertragungsproblem+Aufhängen Atmega“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Confidential_Programming_guide_FD6818.pdf
[1:0] REG_B6H[9:8] CTC/DCS Tx Atten Gain, -6dB/step subau_rx_gain1[1:0] REG_B6H[7:6] CTC/DCS Rx Gain1, -6dB/step subau_rx_gain2[1:0] REG_B6H[5:4] CTC/DCS Rx Gain2, -6dB/step subau_rx_gain3[3:0] REG_B6H[3:0] CTC/
in „Firmware entschlüsseln, Updateprogramm als Hilfe?“ · Softwareentwicklung ·
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Datei
nRF24L01_.h
0b00111111 // number of bytes in RX payload in data pipe 0 #define nRF_REGBITMASK_RX_PW_P1_RESERVED 0b11000000 // (reserved) #define nRF_REGBITMASK_RX_PW_P1 0b00111111 // ... 1 #define nRF_REGBITMASK_RX_PW_P2_RESERVED 0b11000000 // (reserved) #define nRF_REGBITMASK_RX_PW_P2 0b00111111 // ... 2 #define nRF_REGBITMASK_RX_PW_P3_RESERVED 0b11000000 // (reserved) #define nRF_REGBITMASK_RX_PW_P3 0b00111111 // ... 3 #define
in „nRF24L01+ Funkmodul - Auto Acknowledgement sendet keine Payload“ · Mikrocontroller und Digitale Elektronik ·
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Datei
wl_module.c
; wl_module_set_rx_addr(data, 5, 0); //Set RX_Address Pipe 1 data[0]= data[1]= data[2]= data[3]= data[4]= RX_ADDR_P1_B0_DEFAULT_VAL; wl_module_set_rx_addr(data, 5, 1); //Set RX_Address Pipe 2-5 data[0]=RX_ADDR_P2_DEFAULT_VAL
in „NRF24L01 und Atmega328P“ · Mikrocontroller und Digitale Elektronik ·
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Datei
wl_module.c
; wl_module_set_rx_addr(data, 5, 0); //Set RX_Address Pipe 1 data[0]= data[1]= data[2]= data[3]= data[4]= RX_ADDR_P1_B0_DEFAULT_VAL; wl_module_set_rx_addr(data, 5, 1); //Set RX_Address Pipe 2-5 data[0]=RX_ADDR_P2_DEFAULT_VAL
in „NRF24L01 und Atmega328P“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Programm.txt
{ switch(RxBytes[3]) { case 1: SoftPWMSetPercent(A, RxBytes[5]); SoftPWMSetPercent(B, RxBytes[5]); SoftPWMSetPercent(C, 0); SoftPWMSetPercent(D, 0); break; case 2: SoftPWMSetPercent(A, 0); SoftPWMSetPercent(B, 0
in „Arduino hängt“ · Mikrocontroller und Digitale Elektronik ·
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PDF
de10-nano_a0.pdf
/DQ3B T13 HDMI_I2S0 Arduino_IO9 AE15 IO_4A/DIFFIO_RX_B30P/B_DQ_5/DQ4B IO_4A/DIFFIO_RX_B46P/B_DQ_21/DQ6B AD20 GPIO_0_D17 HDMI_MCLK U11 IO_3B/DIFFIO_RX_B11P/B_CSN_0/DQS2B IO_3B/DIFFIO_RX_B19P/B_CK/DQS3B T12
in „Low Cost Board“ · Mikrocontroller und Digitale Elektronik ·
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Datei
UART.h
; tmpstart = ( RxStart2 + 1 ) & UsartRxPufferMaske; // Grundgerüst des Ringpuffers if (tmpstart != RxEnde2) { RxStart2 = tmpstart; // Index des Ringpuffers schreiben RxPuffer2[tmpstart] = UDR2; // Empfangene Daten im
in „UART zu UART“ · Mikrocontroller und Digitale Elektronik ·
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ADC_Receiver.vhd
: std_logic; signal state_B : std_logic := '0'; signal bslip_B : std_logic := '0'; signal count_B : unsigned(2 downto 0) := (others => '0'); signal rxioclkp_B : std_logic ; signal rxioclkn_B : std_logic ; signal rx_bufg_x1_B :
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2013.03.25_Testboard.bas
'com2-Bytearry leeren Gsm_rx_byte(count) = 0 Next Gsm_rx_str_count = 0 End Sub '~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~SMS Senden Sub Send_sms() Gsm_rx_str = "" Gsm_rx_str_count = 0 Print #1
in „siemens tc35i und rs232 Kommunikationsprobleme“ · Mikrocontroller und Digitale Elektronik ·
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Datei
usb.c
*/ EpTable[1].RxCount = EpBulkLenId; /* erstmal.. */ /* EP2 = Bulk OUT (nur OUT) */ EpTable[2].TxOffset = Ep2RxAOffset; EpTable[2].TxCount = EpBulkLenId; EpTable[2].RxOffset = Ep2RxBOffset; EpTable[2].RxCount = EpBulkLenId
in „An W.S.: Läuft deine USB Implementierung auch auf STM32F303?“ · Mikrocontroller und Digitale Elektronik ·
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Datei
usb.c
*/ EpTable[1].RxCount = EpBulkLenId; /* erstmal.. */ /* EP2 = Bulk OUT (nur OUT) */ EpTable[2].TxOffset = Ep2RxAOffset; EpTable[2].TxCount = EpBulkLenId; EpTable[2].RxOffset = Ep2RxBOffset; EpTable[2].RxCount = EpBulkLenId
in „An W.S.: Läuft deine USB Implementierung auch auf STM32F303?“ · Mikrocontroller und Digitale Elektronik ·