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Datei
HFG84cc.java
{ if( tx >= 102400000 ){ b[2] |= ( 1 << 3 ); tx -= 102400000; } if( tx >= 51200000 ){ b[2] |= ( 1 << 2 ); tx -= 51200000; } if( tx >= 25600000 ){ b[2] |= ( 1 << 1 ); tx -= 25600000; } if( tx >= 12800000 ){ b[
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Datei
HFG164cc.java
{ if( tx >= 102400000 ){ b[2] |= ( 1 << 3 ); tx -= 102400000; } if( tx >= 51200000 ){ b[2] |= ( 1 << 2 ); tx -= 51200000; } if( tx >= 25600000 ){ b[2] |= ( 1 << 1 ); tx -= 25600000; } if( tx >= 12800000 ){ b[
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Datei
HFG164cc.java
= 64000000 ){ b[2] |= ( 1 << 2 ); tx -= 64000000; } if( tx >= 32000000 ){ b[2] |= ( 1 << 1 ); tx -= 32000000; } if( tx >= 16000000 ){ b[2] |= ( 1 << 0 ); tx -= 16000000; } if( tx >= 8000000 ){ b[3] |= ( 1 << 3 ); tx
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Datei
lcd.c
Vorzeichen ==> Differenz zu 0dB ausrechnen } else { tx('-'); wert=0xC0-wert; //negatives Vorzeichen ==> Differenz zu 0dB ausrechnen } if (((wert+1)/2)!=(wert/2)) //Gerade oder ungerade HEX-Zahl? Wenn ungerade, dann .5dB anhängen { wert--; wert=wert/2; //gotoxy(x+1,y); //warteschleife(25); printf("%i.5 ",wert); } else { wert=wert/2; // sonst .0 dB //gotoxy(x+1,y); //warteschleife(25); printf("%i.0 ",wert); } } tx(ESC); // Wieder auf Schriftart 3 zurückschalten
in „Probleme mit Touch-Panal und RS232“ · Mikrocontroller und Digitale Elektronik ·
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Datei
KF163cc.java
% 12500 == 0 ){ if( tx >= 320000000 ){ b[2] |= ( 1 << 3 ); tx -= 320000000; } if( tx >= 160000000 ){ b[2] |= ( 1 << 2 ); tx -= 160000000; } if( tx >= 80000000 ){ b[2] |= ( 1 << 1 ); tx -= 80000000; } if( tx >= 40000000 ){
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Datei
KF83cc.java
) tx *= 10; if( tx % 5000 == 0 ){ if( tx >= 64000000 ){ b[2] |= ( 1 << 3 ); tx -= 64000000; } if( tx >= 32000000 ){ b[2] |= ( 1 << 2 ); tx -= 32000000; } if( tx >= 16000000 ){ b[2] |= ( 1 << 1 ); tx -= 16000000
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Datei
Wiegand2RS.asm
temp,Wiegand_B3 rcall snd_LSN ; send LSN as ASCII ldi Tx_state,0x07 ; next state 7 rjmp anlTx_end ; ---- RS Tx State 7 (Wiegand 37 data: b13b14b15b16, Wiegand 26 data: b2b3b4b5) anlTx_S7: cpi Tx_state,0x07 ; state 7? brne anlTx_S8 mov temp,Wiegand_B2 swap temp rcall snd_LSN ; send LSN as ASCII ldi Tx_state,0x08 ; next state 8 rjmp anlTx_end ; ---- RS Tx State 8 (Wiegand 37 data: b17b18b19b20, Wiegand 26 data: b6b7b8b9) anlTx_S8
in „Code von AT90S1200 auf ATmega8 ausführen“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Wiegand2RS2313.asm
temp,Wiegand_B3 rcall snd_LSN ; send LSN as ASCII ldi Tx_state,0x07 ; next state 7 rjmp anlTx_end ; ---- RS Tx State 7 (Wiegand 37 data: b13b14b15b16, Wiegand 26 data: b2b3b4b5) anlTx_S7: cpi Tx_state,0x07 ; state 7? brne anlTx_S8 mov temp,Wiegand_B2 swap temp rcall snd_LSN ; send LSN as ASCII ldi Tx_state,0x08 ; next state 8 rjmp anlTx_end ; ---- RS Tx State 8 (Wiegand 37 data: b17b18b19b20, Wiegand 26 data: b6b7b8b9) anlTx_S8
in „Wie löst der Interupt in dem Programm aus?“ · Mikrocontroller und Digitale Elektronik ·
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Datei
top_basic.v
( 2'd0 ), .tx_pmtype ( 3'd0 ), .tx_vsd_data ( 24'd0 ), .tx_req_vc0 ( tx_req ), .tx_data_vc0 ( tx_data ), .tx_st_vc0 ( tx_st ), .tx_end_vc0 ( tx_end ), .tx_nlfy_vc0 ( 1'b0 ), .ph_buf_status_vc0 ( 1'b0 ),
in „Lattice Diamond: UART Receiver Siganl Wegoptimiert“ · FPGA, VHDL & Co. ·
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Datei
top_basic.v
.tx_sop_1(1'b0), .tx_eop_1(1'b0), .tx_dwen_1(1'b0), .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), .tx_rdy_1(), .tx_rdy_2( ), .tx_rdy_3(tx_rdy_ur), .tx_req(tx_req), .tx_dout(tx_data), .tx_sop(tx_st), .tx_eop(tx_end), .tx_dwen(), .tx_rdy(tx_rdy
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PDF
17mb70-5-sema_schematics.pdf
_0_N A4 LVDS_TX_0_DATA0_N RX_B_2_P 2 FR2 3 TX_B_2_P_PIX RX_B_4_P 2 FR2 3 TX_B_4_P_PIX 1 4 R BC848B B4 O T F124 RX_A_3_N FR1 TX_A_3_N_PIX k 1 k 5 4 RX_A_0_P B6 LVDS_TX_0_DATA0_P O 90R 1 2 1 1 8 V n 8 RX_A_1_N LVDS_TX
in „LED TV Medion MD 30630 defekt, nicht einmal standby Lampe“ · Analoge Elektronik und Schaltungstechnik ·
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Datei
serial_logamatic_0911_.txt
00 45 02 00 <TX>04 10 06 <RX>04 10 06 00 00 02 15 01 0B 39 01 00 <TX>04 08 <TX>04 09 <RX>04 08 07 00 0B 01 02 00 00 00 00 00 00 00 00 00 00 00 <RX>04 08 18 00 26 01 BF 64 64 19 01 17 01 01 E4 83 00 80 00 02 0F FF 2D
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ttl-lvds.pdf
14 B6 TxIn5 3 TxIn5 TxIn354 TxIn3 9 TX0+ TxIn22 15 B5 TxIn6 4 TxIn6 TxIn253 TxIn2 GND TxOut0+ 10 GND TxIn21 B4 TxIn7 TxIn7 GND 11 TxIn20 16 B3 5 GND TxIn152 TxIn1 TxOut1- 12 TX1- TxIn19 17 B2 TxIn8 6 TxIn8 TxIn051 TxIn0 GND TxOut1+ 13 TX1+ TxIn18 18 B1 GND TxIn9 7 TxIn9 TxIn27 50 TxIn27 14 GND TxIn15 19 B0 TxIn10 8 TxIn10 LVDS_GND 49 TxOut2- 15 TX2- TxIn11 20 G7 9 VCC TxOut0-48 TxOut0- TxOut2+ 16 TX2+ TxIn10
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de10-nano_a0.pdf
GPIO_0_D8 AF4 IO_3B/DIFFIO_TX_B9P/B_WEN/DQ2B IO_3B/DIFFIO_TX_B17P/B_BA_0/DQ3B AG6 HDMI_TX_D21 Arduino_IO2 AG10 IO_4A/DIFFIO_TX_B28N/B_DQ_3/DQ4B IO_4A/DIFFIO_TX_B44N/B_DQ_19/DQ6B AG19 GPIO_1_D26 HDMI_TX_D5 AD10 IO_3B/DIFFIO_TX_B9N
in „Low Cost Board“ · Mikrocontroller und Digitale Elektronik ·
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7inch-Capacitive-Touch-LCD-Schematic.pdf
23 B1 L_G4 23 G3 23 1 X X X X X X X X X 1 PAD B2 G4 B 22 22 RX3 X R R R R R R R R R INT 28 CAP_INT J8 L_B3 24 B3 L_G5 22 G5 B 21 21 RX2 1 NC R WAKEUP 27 1 CON4 L_B4 25 B4 L_G6 21 G6 20 20 RX1 TX15 2 TX15 /RST 26 CAP_WAKE 电容屏数据线连底板 L_B5 26 B5 L_G7 20 G7 19 GND TX14 3 25 TP L_B6 27 L_B0 19 19 18 GND TX13 4 TX14 MISO 24 I2C_SDA1 L_B7 28 B6 L_B1 18 B0 18 17 GND TX12 5 TX13 MOSI/SDA 23 29 B7 L_B2 17 B1 17 16 TX15 TX11 6 TX12 SCK 22 I2C_SCL1
in „TFT LED Backlight PWM“ · Mikrocontroller und Digitale Elektronik ·
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7inch-Capacitive-Touch-LCD-Schematic.pdf
23 B1 L_G4 23 G3 23 1 X X X X X X X X X 1 PAD B2 G4 B 22 22 RX3 X R R R R R R R R R INT 28 CAP_INT J8 L_B3 24 B3 L_G5 22 G5 B 21 21 RX2 1 NC R WAKEUP 27 1 CON4 L_B4 25 B4 L_G6 21 G6 20 20 RX1 TX15 2 TX15 /RST 26 CAP_WAKE 电容屏数据线连底板 L_B5 26 B5 L_G7 20 G7 19 GND TX14 3 25 TP L_B6 27 L_B0 19 19 18 GND TX13 4 TX14 MISO 24 I2C_SDA1 L_B7 28 B6 L_B1 18 B0 18 17 GND TX12 5 TX13 MOSI/SDA 23 29 B7 L_B2 17 B1 17 16 TX15 TX11 6 TX12 SCK 22 I2C_SCL1
in „STM32F4 I2C ACK bei 1.5V“ · Mikrocontroller und Digitale Elektronik ·
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Datei
UR_gen.v
) begin sm <= e_xmit; tx_req <= 1'b0; tx_sop <= 1'b1; tx_eop <= 1'b0; tx_dout <= {7'b0000101, mrd_lk, 1'b0, traffic_class, 4'd0}; end else tx_req <= 1'b1; end e_xmit: begin word_cnt <= word_cnt + 1; case (word_cnt) 0 : begin tx_sop <= 1'b0; tx_eop <= 1'b0; tx_dout <= {1'b0, 1'b0, attribute_field, 2'b0, 10'd0}; end 1 : begin tx_sop <= 1'b0; tx_eop <= 1'b0; tx_dout <= comp_id; end 2 : begin tx_sop <= 1'b0; tx_eop <= 1'b0; tx_dout
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Datei
UR_gen.v
) begin sm <= e_xmit; tx_req <= 1'b0; tx_sop <= 1'b1; tx_eop <= 1'b0; tx_dout <= {7'b0000101, mrd_lk, 1'b0, traffic_class, 4'd0}; end else tx_req <= 1'b1; end e_xmit: begin word_cnt <= word_cnt + 1; case (word_cnt) 0 : begin tx_sop <= 1'b0; tx_eop <= 1'b0; tx_dout <= {1'b0, 1'b0, attribute_field, 2'b0, 10'd0}; end 1 : begin tx_sop <= 1'b0; tx_eop <= 1'b0; tx_dout <= comp_id; end 2 : begin tx_sop <= 1'b0; tx_eop <= 1'b0; tx_dout
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PDF
nRF24L01P_Product_Specification_1_0.pdf
the TX_ADDR must be the same as the RX_ADDR_P0 and as the pipe address for the designated pipe. T XX_ _AD D R 0F _ : B 0 P0 PTX3 PTX4 B B : 0 B B 0xxB B 3 3 B 0 x 4 B : PTX2 B55B : P TX_ 6 A D R PTX5 X DDR
in „NRF24L01+ erkennen ob gesendet wird“ · Mikrocontroller und Digitale Elektronik ·
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Datei
owx.h
----------- //=========================================================================== v u8 owx_tx_buffer[30]={'a','b','c','d','e','f','g','h','i','j'}; v u8 owx_rx_buffer[30]={0,1,2,3,4,5,6,7,8,9,0,1,2,3,4,5,6,7,8,9}; //u8 *owx_tx8=(owx_tx_buffer+6);//8bit-Zeiger auf payload //u8 *owx_rx8=(owx_rx_buffer
in „AVRs vernetzen: Bibliothek / Bus gesucht“ · Haus & Smart Home ·
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Datei
ATAK4015744_TX_Code_.asm
*********************************************************** ask_delay EQU 0x0A ; ASK delay counter b1_data EQU 0x01 ; Button data to TX b2_data EQU 0x03 ; Button data to TX b3_data EQU 0x07 ; Button data to TX b4_data EQU 0x0F ; Button data to TX b_low_bit EQU 0x04 ; Flag Byte: low battery bit btn_mask
in „Funkübertragung HFS301“ · Mikrocontroller und Digitale Elektronik ·
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Datei
usb.c
EP2RxABuffer (USB_RAM + (Ep2RxAOffset<<1)) #define EP2RxBBuffer (USB_RAM + (Ep2RxBOffset<<1)) #define EP3TxBuffer (USB_RAM + (Ep3TxOffset<<1)) #define EP3RxBuffer (USB_RAM + (Ep3RxOffset<<1)) struct TEpTableEntry
in „USB CDC von Stefan Frings und WS“ · Mikrocontroller und Digitale Elektronik ·
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PDF
ltn154x3-l06.pdf
Samsung Secret Doc.No. Rev.No Page LTN154X3-L06 04-A01-G-070730 14 / 30 www.DataSheet4U.com Approval 5.2 LVDS Interface : Transmitter DS90CF383 or Compatible Pin No. Name RGB Signal Pin No. Name RGB Signal 44 TxIN0 R0 12 TxIN11 G5 45 TxIN1 R1 13 TxIN12 B0 47 TxIN2 R2 15 TxIN13 B1 48 TxIN3 R3 16 TxIN14 B2
in „BeagleBoard LVDS Transmitter“ · Mikrocontroller und Digitale Elektronik ·
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PDF
dm9161-ds-f05_091008.pdf
............................................18 9.4.4 MDIO Timing when OUTPUT by STA...........34 7.2.2.8 Code Group Alignment...............................18 9.4.5 MDIO Timing when OUTPUT by DM9161....34 7.2.2.9 4B5B Decoder............................................18 9.4.6 100Base-TX Transmit Timing
in „Beschaltung VICOM DM9161CEP“ · Mikrocontroller und Digitale Elektronik ·
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Datei
LCMUT_measurement_ui.py
[siglen-1], f1) * p + (MAX_VOLTAGE / 2) temp_signal[0:siglen] = np.sin(2*np.pi*(f0 + (f1-f0)*self.tx_signal_x[0:siglen]/self.tx_signal_x[siglen])*self.tx_signal_x[0:siglen]) * p + (MAX_VOLTAGE / 2) temp_signal[temp_signal > MAX_VOLTAGE] =
in „Mikrocontroller mit Python auswerten“ · Mikrocontroller und Digitale Elektronik ·
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Datei
measurement.txt
[siglen-1], f1) * p + (MAX_VOLTAGE / 2) temp_signal[0:siglen] = np.sin(2*np.pi*(f0 + (f1-f0)*self.tx_signal_x[0:siglen]/self.tx_signal_x[siglen])*self.tx_signal_x[0:siglen]) * p + (MAX_VOLTAGE / 2) temp_signal[temp_signal > MAX_VOLTAGE] =
in „Mikrocontroller mit Python auswerten“ · Mikrocontroller und Digitale Elektronik ·
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Datei
can_top.v
_3), /* End: This section is for EXTENDED mode */ /* Tx data registers. Holding identifier (basic mode), tx frame information (extended mode) and data */ .tx_data_0(tx_data_0), .tx_data_1(tx_data_1), .tx_data_2(tx_data_2), .tx_data_3(tx_data_3), .tx_data_
in „Cant resolve multiple constant drivers“ · FPGA, VHDL & Co. ·
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Datei
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
usb.c
EP2RxABuffer (USB_RAM + (Ep2RxAOffset<<1)) #define EP2RxBBuffer (USB_RAM + (Ep2RxBOffset<<1)) #define EP3TxBuffer (USB_RAM + (Ep3TxOffset<<1)) #define EP3RxBuffer (USB_RAM + (Ep3RxOffset<<1)) struct TEpTableEntry
in „An W.S.: Läuft deine USB Implementierung auch auf STM32F303?“ · Mikrocontroller und Digitale Elektronik ·
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Datei
usb.c
EP2RxABuffer (USB_RAM + (Ep2RxAOffset<<1)) #define EP2RxBBuffer (USB_RAM + (Ep2RxBOffset<<1)) #define EP3TxBuffer (USB_RAM + (Ep3TxOffset<<1)) #define EP3RxBuffer (USB_RAM + (Ep3RxOffset<<1)) struct TEpTableEntry
in „An W.S.: Läuft deine USB Implementierung auch auf STM32F303?“ · Mikrocontroller und Digitale Elektronik ·
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Datei
USB.c
EP2RxABuffer (USB_RAM + (Ep2RxAOffset<<1)) #define EP2RxBBuffer (USB_RAM + (Ep2RxBOffset<<1)) #define EP3TxBuffer (USB_RAM + (Ep3TxOffset<<1)) #define EP3RxBuffer (USB_RAM + (Ep3RxOffset<<1)) struct TEpTableEntry
in „Frage an W.S. wegen USB CDC Implementierung STM32F103“ · Mikrocontroller und Digitale Elektronik ·
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Datei
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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Datei
rainbow.c
uint8_t Addr) { eeprom_read_block(Prog, &EE_Prog[Addr], sizeof(myProg)); if (ctrl.debugUART == 1) { TxBuffer[1] = Addr; TxBuffer[2] = Prog->hue>>8; TxBuffer[3] = Prog->hue; TxBuffer[4] = Prog->bri; TxBuffer[5] = Prog->sat; TxBuffer[6] = Prog->delay>>8; TxBuffer[7] = Prog->delay; TransmitData(0x0b,9,1)
in „Lightweight WS2811/WS2812 Library“ · Mikrocontroller und Digitale Elektronik ·
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Datei
UART.c
;dez 51->19200; dez 8 ->115200 //UBRR0L = 0b00011001; //38400 //UBRR0L = 0b00000011; //230400 //UBRR0L = 0b11001111; //9600 UBRR0L = 0b00010000; //115200 UCSR0A = 0b00000010; UCSR0A |=0b00000000; // ^---U2X UCSR0B = 0b10011000; /* ^||||||| Einschalten
in „Brauche Unterstützung beim OV7670 (bzw. SCCB)“ · Mikrocontroller und Digitale Elektronik ·
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Datei
UART.c
;dez 51->19200; dez 8 ->115200 //UBRR0L = 0b00011001; //38400 //UBRR0L = 0b00000011; //230400 //UBRR0L = 0b11001111; //9600 UBRR0L = 0b00010000; //115200 UCSR0A = 0b00000010; UCSR0A |=0b00000000; // ^---U2X UCSR0B = 0b10011000; /* ^||||||| Einschalten
in „Brauche Unterstützung beim OV7670 (bzw. SCCB)“ · Mikrocontroller und Digitale Elektronik ·
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PDF
LTN150XB-L03.pdf
B2 1 TxIN4 R4 18 TxIN15 B3 3 TxIN5 R5 19 TxIN16 B4 4 TxIN6 G0 20 TxIN17 B5 6 TxIN7 G1 22 TxIN18 Hsync 7 TxIN8 G2 23 TxIN19 Vsync 9 TxIN9 G3 25 TxIN20 DE 10 TxIN10 G4 26 TxCLKIN Clock LVDS INTERFACE SN75LVDS86
in „Samsung LTN150XB-L03 Display“ · Mikrocontroller und Digitale Elektronik ·
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Datei
i2c-tiny85.c
u16; typedef signed short s16; typedef unsigned long u32; typedef signed long s32; struct bits { u8 b0:1; u8 b1:1; u8 b2:1; u8 b3:1; u8 b4:1; u8 b5:1; u8 b6:1; u8 b7:1; } __attribute__((__packed__)); static u8 tx_buff[TX0_SIZE]; static u8 tx_in; static u8 tx_out; static u8 tx_state; static u8 tx_data
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rf__0_4_schem.pdf
BAND1 N D 1 PIC1100nFIC1a014.7K 4.7K TX 1 0 0 1 2B2 40m PIC2c02 PIC2c01 PTT PIR702PIR701P O P T T 0 5 V GND P2 I2 VCC_5V TX 1 0 1 0 2B3 15-10m GND 100nF COR8 PTT_5V P1 I1 TX 1 0 1 1 2B4 80m PTT_N PIR802PIR801POPTT_N5V PIC1b02 PIC1b01R2a R2c
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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
I2C_DRV.C
(); } void I2CTxDone() { #if 0 RemoveDelayedFunction(I2CTxTimeout); #endif i2c_tx_full = 0; } /* ---------- Interrupt Handler ----------------- */ static void i2c_tx_next_byte() USE_I2C_BANK { ubyte b; if (tx_buf_idx
in „Basisroutinen für Zugriff auf I²C PCF8584“ · Mikrocontroller und Digitale Elektronik ·
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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
usb.c
<shift)) #define EP2RxABuffer (USB_RAM + (Ep2RxAOffset<<shift)) #define EP2RxBBuffer (USB_RAM + (Ep2RxBOffset<<shift)) #define EP3TxBuffer (USB_RAM + (Ep3TxOffset<<shift)) #define EP3RxBuffer (USB_RAM + (Ep3RxOffset<<shift
in „An W.S.: Läuft deine USB Implementierung auch auf STM32F303?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
ANLOGIC_EG4S20BG256_DevBoard_V1.2.pdf
a a TX1-B6-21N 33B6 21n P5 48 P5 P4 N5 11 TX2-C7-19N 34C7 19n N4 47 N4 5 6 SEG-b 7 b BANK3 3,3V N4 7 8 P5 SEG-c c f b K1 DIGIT_5 TX1-C5-21P 35C5 21p N5 46 N5 T5 T7 4 g 12 TX2-C6-19P 36C6 19p P4 45 P4 9 10 SEG-d
in „Sipeed Lichee Tang FPGA mit RISC-V Core aus China unter 20€“ · FPGA, VHDL & Co. ·
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PDF
CMX865A_datasheet.pdf
0: Tx Data and Stop Bits (Tx Start-Stop Modes) In Tx Start-stop mode these three bits select the number of Tx data and stop bits. b2 b1 b0 1 1 1 8 data bits, 2 stop bits 1 1 0 8 data bits, 1 stop bit 1 0 1
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Powerline-IC_HCPL-_810J.pdf
Tx-out no load, A = 25°C 2nd Harmonic Distortion (Tx-out) HD2 LD −60 dB VTx-en 5 V, VTx-out3.6 VPP f=132 kHz, Tx-out load 50Ω, T =25°C 3rd Harmonic Distortion (Tx-out) HD3 LD −65 dB A Output Impedance (
in „Powerline-Transmitter auf reinen Wechselspannungsbetrieb umbauen“ · Haus & Smart Home ·
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Datei
stm32_ino.txt
&= 0xFFFF9FFF; // reset CAN remap // CAN_RX mapped to PA11, CAN_TX mapped to PA12 if (remap == 0) { RCC->APB2ENR |= 0x4UL; // Enable GPIOA clock GPIOA->CRH &= ~(0xFF000UL); // Configure PA12(0b0000) and PA11(0b0000) // 0b0000 // MODE=00(Input mode) // CNF=00(Analog
in „Arduino Blue Pill & CAN mit SN65HVD230“ · Mikrocontroller und Digitale Elektronik ·
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Confidential_Programming_guide_FD6818.pdf
. The unit of this threshold is 2dB. cmpd_tx_th_low[5:0] REG_99H[5:0] Under this amplitude point, audio will be attenuated. The unit of this threshold is 2dB. cmpd_tx_gain[4:0] REG_97H[7:3] Audio CMPD Gain, 1dB/step cmpd_tx_bypass[2:
in „Firmware entschlüsseln, Updateprogramm als Hilfe?“ · Softwareentwicklung ·
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Datei
async_transmitter.v
<= 4'b1010; // bit 1 4'b1010: if(BaudTick) state <= 4'b1011; // bit 2 4'b1011: if(BaudTick) state <= 4'b1100; // bit 3 4'b1100: if(BaudTick) state <= 4'b1101; // bit 4 4'b1101: if(BaudTick) state <= 4'b1110
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038-05058-01-X-MLCC_REVB03_SKIT.pdf
_P A2 RX0_LN2_P TX0_LN2_P M3 HDMI_TX0_LN2_P [12] t t [6] GTR_DP0_M2C_P B1 RX0_LN2_N TX0_LN2_N N2 HDMI_TX0_LN2_N [12] o2 o2 K2 1 2 STDP4320_RX0_LN1_N C1 RX0_LN3_P TX0_LN3_P P2 HDMI_TX0_LN3_P [12] o o 7 [6]
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wb_tlc_cpld_fifo.v
b1; end else rd_en <= 1'b0; end e_wait: begin if (tx_st_i) begin state <= e_check_ca; tx_data_i_d <= tx_data_i; rd_en <= 1'b0; end else rd_en <= 1'b1; end e_check_ca: begin rd_en <= 1'b0; if (~ tx_st_i