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Integrierter Schaltkreis TJA1050 von NXP
TJA1050 06 01 NXP n6748
in „Neuer CAN Bus Analyzer mit billigen Adaptern“ · Fahrzeugelektronik · · Fotos
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mcp2515_tja1050.pdf
GND IC3 TJA1050T-CM/118 D 1 TXD S 8 N CAN_P 2 GND CANH 7 G 3 VCC CANL 6 CAN_N 4 5 +5V RXD VREF + C5 C6 3 3 u 10uF 100nF + C 1 D N + F G 0 3 0 C 1 IC2 6 MCP2515-I_SO 0 1 18 R21 10k, 1206 1 2 TXCAN VDD 17 F RXCAN RESET
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Blaue Leiterplatte mit MCP2515 Modul
J4 INT SCK SI SO CS GND VCC U2 MCP2515 I/SO 17200TW X1 EAS8.000 C4 C3 H J3 U1 L C5 R3 C2 LED1 R1 102 C106 C1 POW R2 121 J1
in „MCP2515 CAN-Bus Modul“ · Mikrocontroller und Digitale Elektronik · · Platinenfotos
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AT91SAM7A3-EK.pdf
VBUS J2 J7 J1 X X T R 3 3 ATA6661 3 5 3 5 ADM3202A V V MN18 IN OUT 3.3V 3V3 8 7 6 5 4 3 2 1 9 S6 TJA1050 TJA1050 RS RS nSHUTDOWN 5 K YELLOW POWER LED NRST 1 ATMEL PIO SERIAL DATAFLASH BP2 S7 LIGHTED WHEN POWER ON J13 MANUAL RESET D C T D - R X P M O R D D C D D D E 3 T I N V R CAN0 P CAN1 P O D N 0 C
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Grüne Leiterplatte mit Arduino Nano Steckplatz und CAN-Schnittstelle
Z7 R7 M1 R1 Arduino Nano USB IN2 210 1-WIRE R8 + -5V GND POT-2 POT-1 SDA SCL IN1 DOOR C2 U1 L1 D1 TJA1050 SPI CAN Module MCP 2515 24V Z1 C1 279A8A_YG CAN L
in „[V]Platinen für Snapmaker“ · Markt · · Platinenfotos
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Grüne Leiterplatte mit Arduino Nano und SPI CAN Modul
12V, Z4, D2, +24V, +FAN, eStop, LED+, POT-1, POT-2, +5V, SDA, SCL, C2, SPI CAN Module, MCP 2515 & TJA1050, 2709848A_Y6, CAN, L, H
in „[V]Platinen für Snapmaker“ · Markt · · Platinenfotos
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JuCanSchematic.pdf
-DEVKITC-32D Header: 691313510004 Plug: 691351500004 CAN_P 1 1 CAN_N 2 2 GND 3 3 IC3 VIN 4 4 GND TJA1050T-CM/118 J1 1 8 N CAN_P 691313510004 2 TXD S 7 G JP2 3 GND CANH 6 CAN_N VIN 1 4 VCC CANL 5 2 +5V RXD VREF VDD-LDO 3 R1 JP3 +C5 C6 3 CAN_P CAN_TERM 1 V F CAN_N 2 10uF 100nF + 1 0 120R, 1206 3 C 1 D
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can.h
HighSpeed */ CAN_TRCV_TJA1041, /* CAN HighSpeed */ CAN_TRCV_TJA1042, /* CAN HighSpeed */ CAN_TRCV_TJA1050 /* CAN HighSpeed */ } CAN_TRCV_Type; typedef struct { CAN_ChannelState state; uint8 isSynch; uint8 RxErrState; uint8 TxErrState; } CAN_STATUS; // Function pointer typedef for Rx Callback Functions
in „Entwicklung von CAN-bsierten Applikationen - CAN-Software-Stacks“ · Mikrocontroller und Digitale Elektronik ·
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Schaltplan.pdf
TX0RTS 5 IO RXD VREF TP1 1 0 (RXD0/OC3A)PD0 SI TX1RTS R 1 GND (TXD0/OC4A)PD1 31 15 NC' NC 6 +5VIO TJA1050 (INT0/OC3B/OC4B)PD2 32 14 SCK TX2RTS 7 I D (INT1/OC2B)PD3 1 D2_MCP2515_INT 13 INT OSC2 8 100n VI N 2 H 1 n (XCK0/T0)PD4 2 D4_BI1 12 RX0BF OSC1 9 + n 2 G J u L 2 0 (OC0B/T1)PD5 9 D5_BI2 IO 11 RX1BF
in „Schaltplan richtig zeichnen“ · Mikrocontroller und Digitale Elektronik ·
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can_g1251_v02_12f.eagle7.sch.pdf
RXD VREF 5 TP1 0 (XCK0/SCK0)PB5 17 D13_SCLK 16 SI TX1RTS 5 R 1 3 1 8 PB7(XTAL2) 15 NC' NC 6 C12 TJA1050 (MISO1/ADC0)PC0 23 A0_H2_CS 14 SCK TX2RTS 7 2 C14 * C13 24 A1_H1_CS 13 8 100n 1 2 (SCK1/ADC1)PC1 25 A2_HFLT IO 12 INT OSC2 9 S (ADC2)PC2 26 +3V3 11 RX0BF OSC1 10 GND 1 18p 18p (ADC3)PC3 27 RX1BF VSS
in „Schaltplan richtig zeichnen“ · Mikrocontroller und Digitale Elektronik ·
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Schaltplan_2.pdf
CLKO/ICP1)PB0 13 16 SO TX0RTS 5 +5IOO RXD VREF TP1 1 2 (OC1A)PB1 14 D10_MCP2515_CS 15 SI TX1RTS 6 TJA1050 R 1 (OC1B/SS0)PB2 15 14 NC' NC 7 (OC2A/TXD1/MOSI0)PB3 D11_MOSI SCK TX2RTS 7 PB6(XTAL1) (RXD1/MISO0)PB4 16 D12_MISO 13 INT OSC2 8 100n +5VIO I GND 2 (XCK0/SCK0)PB5 17 D13_SCLK 12 RX0BF OSC1 9 n 2 J
in „Schaltplan richtig zeichnen“ · Mikrocontroller und Digitale Elektronik ·
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can_g1251_v02.eagle7_Falk.sch.pdf
MOSI0)PB3 RXD VREF TP1 0 7 PB6(XTAL1) (RXD1/MISO0)PB4 16 D12_MISO R 1 (XCK0/SCK0)PB5 17 D13_SCLK TJA1050 3 1 8 PB7(XTAL2) 23 A0_H2_CS 2 2 (MISO1/ADC0)PC0 2 (SCK1/ADC1)PC1 24 A1_H1_CS J (ADC2)PC2 25 A2_HFLT 20 VDD TXCAN 1 S 26 A3_VSENS 19 2 1 C13 (ADC3)PC3 27 A4_SDA 18 RST RXCAN 3 +3IO D C14 D D18p (SDA0
in „Schaltplan richtig zeichnen“ · Mikrocontroller und Digitale Elektronik ·
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F407-IoTBoard-Schematics.pdf
120R RD+ 3 C RXD_3/PHYAD4 46 FSMC_A1618 A16 L H 14 SHILED RCT 5 V RX_ER/MDIX_EN 41 FSMC_A1723 A17 TJA1050 1 1 GND 13 SHILED RD- 6 21 RESERVED RX_DV/MII_MODE 39 RMII_RX_DV1 33R FSMC_A1828 A18 UB 40 FSMC_NBL1 R36 20 38 R37 39 FSMC_NBL0 GND 8 7 R38 RESERVED RX_CLK VCC3.3 11 LB 41 FSMC_NOE CHS GND NC 42 C37
in „STM32 Nucleo welches Board am besten?“ · Mikrocontroller und Digitale Elektronik ·
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Vorlage_100x75.pdf
P0.0 38P0.0-CAN:RX SCL1/P0.1 79P0.1-CAN:TX TXD0/P0.2 80 RXD0/P0.3 64 SSEL1/P0.6 63 SCK1/P0.7 62 IC1 TJA1050 C MISO1/P0.8 61 P0.1-CAN:TX 1 7 C TXD2/P0.10 39 TXD CANH RXD2/P0.11 40 P0.0-CAN:RX R2 4 RXD SPLIT 5 N X3-1 TXD1/P0.15 47 0R F 6 G RXD1/P0.16 48P0.16/P1.20-HALL0/PHA 8 STB CANL 6 1 C MKDSX3-2/3-5,08
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Vorlage_100x75.pdf
VBUS/P1.30 18 2 GND P1.31 17P1.31-MOTORCURRENT LPC17xx D D 1 2 3 4 5 6 1 2 3 4 5 6 A A GND 3 IC1 TJA1050 3 P0.1-CAN:TX 1 TXD CANH 7 + R2 D P0.0-CAN:RX 4 RXD SPLIT 5 N X3-1 8 0 0R 8 6 n 1 G MKDSN1,5/3-5,08 GND R 1 STB CANL 1 C X3-2 7 0 9 0 D C JTAG R 1 R 0 G V X3-3 20 19 R 1 18 17 2 3 16 15 RST B 14 13
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Taz_Altium_Version.pdf
TX0RTS PIIC54 PIC104 RXD VREF PIC105 PPTPTP1 D11_MOSI PIC506 SI TX1RTS PIIC55 CS +5V 30 R D 15 6 TJA1050 S (RXD0/OC3A)PD0 PII1A30 PIC505 NC' NC PIIC56 1 GND (TXD0/OC4A)PD1 IP1A31 TXD D13_SCLK PIC504 SCK TX2RTS PIIC57 (INT0/OC3B/OC4B)PD2 PII1A32 D2_ CP2515_INT D2_MCP2515_I PIC503 INT OSC2 PIIC58 PI10
in „Schaltplan richtig zeichnen“ · Mikrocontroller und Digitale Elektronik ·
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STM32F2X7VGT6-DK-A.pdf
FSMC_NWE_TXD2 1 5 GND CP2102 6 GND SHELL +3.3V +5V +5V +3.3V USB_MINI_AB JP1 JP3 GND 1 2 1 2 3 4 3 4 U6 5 6 TJA1050 J8 HEADER 2X2 7 8 8 STB CANH 7 CAN_H1 1 JP5 9 10 R45 2 1 2 11 12 GND 60 C36 3 4 13 14 0 5 CON2 PB8_CAN1_RX R47 4 SPLIT 5 6 15 16 RXD R46 1n GND 7 8 17 18 PB9_CAN1_TX R48 0 1 6 60CAN_L1 9 10 19 20
in „STM32F207 Ethernet + RMII“ · Mikrocontroller und Digitale Elektronik ·
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STM32F2X7VGT6-DK-A.pdf
FSMC_NWE_TXD2 1 5 GND CP2102 6 GND SHELL +3.3V +5V +5V +3.3V USB_MINI_AB JP1 JP3 GND 1 2 1 2 3 4 3 4 U6 5 6 TJA1050 J8 HEADER 2X2 7 8 8 STB CANH 7 CAN_H1 1 JP5 9 10 R45 2 1 2 11 12 GND 60 C36 3 4 13 14 0 5 CON2 PB8_CAN1_RX R47 4 SPLIT 5 6 15 16 RXD R46 1n GND 7 8 17 18 PB9_CAN1_TX R48 0 1 6 60CAN_L1 9 10 19 20
in „STM32F2xx USART weigert sich“ · Mikrocontroller und Digitale Elektronik ·
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STM32H7-Disco_full.PDF
1.5mmPT8PI45Vref PC4_Joy_Left PD5_Joy_Right 1 1 PC OC1 P4 OC1 PI42Gnd 2 1 1 1 P CO7 P4 P1 O7 P0 C139 C1 4 TJA1050T P P4CD P3CO3 PW P0CO7 PW 71 +3V3 C72 2C 50 V 2450 V D45 73 +3V3 74 2250 V SW4 1 2 50 V SW5 4.7uF 100 nF Suppressor_ESDCAN24-2BLY 23 50 V SW6 1 2050 V SW7 100 nP4 P 100 nP0 P3 100 PW P0 100 nPW 2
in „STM32H7-Disco erster Test“ · Mikrocontroller und Digitale Elektronik ·
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CAN_v3_0.pdf
CAN specifications. The transceiver enable signal in the PSoC CAN component works well with NXP TJA1050 transceiver logic, which is treated as an industry standard transceiver. If your transceiver is not compliant to this logic, then disable the transceiver enable signal in the component and use a firmware
in „Dev-Board mit mind. 4 x Delta-Sigma-ADC & CAN-BUS“ · Mikrocontroller und Digitale Elektronik ·
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USB-CANmodul1.pdf
lowspeed, high-level CAN-Transceiver (Atmel B10011S) GW-002-x5x highspeed CAN-Transceiver (Philips TJA1050) GW-002-0xx ohne galvanische Entkopplung GW-002-1xx mit galvanischer Entkopplung GW-002-xx0 interne Versorgung für CAN GW-002-xx1 externe Versorgung für CAN 7 - 27V *) GW-002-xx2 externe Versorgung
in „CAN-Bus Sorgen“ · Mikrocontroller und Digitale Elektronik ·
