WO2017132785A1 - 一种9路编码器信号转1000Mbps PHY信号的传输系统 - Google Patents

一种9路编码器信号转1000Mbps PHY信号的传输系统 Download PDF

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WO2017132785A1
WO2017132785A1 PCT/CN2016/000284 CN2016000284W WO2017132785A1 WO 2017132785 A1 WO2017132785 A1 WO 2017132785A1 CN 2016000284 W CN2016000284 W CN 2016000284W WO 2017132785 A1 WO2017132785 A1 WO 2017132785A1
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digital signal
digital
transceiver
output
fpga chip
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PCT/CN2016/000284
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English (en)
French (fr)
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孔民秀
周文彪
张彦钦
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哈尔滨博强机器人技术有限公司
哈尔滨工业大学
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Priority claimed from CN201620117021.6U external-priority patent/CN205336322U/zh
Priority claimed from CN201610081951.5A external-priority patent/CN105554034A/zh
Application filed by 哈尔滨博强机器人技术有限公司, 哈尔滨工业大学 filed Critical 哈尔滨博强机器人技术有限公司
Publication of WO2017132785A1 publication Critical patent/WO2017132785A1/zh
Priority to US16/052,627 priority Critical patent/US10663953B2/en

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    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L67/00—Network arrangements or protocols for supporting network services or applications
    • H04L67/01—Protocols
    • H04L67/12—Protocols specially adapted for proprietary or special-purpose networking environments, e.g. medical networks, sensor networks, networks in vehicles or remote metering networks
    • G—PHYSICS
    • G05—CONTROLLING; REGULATING
    • G05B—CONTROL OR REGULATING SYSTEMS IN GENERAL; FUNCTIONAL ELEMENTS OF SUCH SYSTEMS; MONITORING OR TESTING ARRANGEMENTS FOR SUCH SYSTEMS OR ELEMENTS
    • G05B19/00—Programme-control systems
    • G05B19/02—Programme-control systems electric
    • G05B19/18—Numerical control [NC], i.e. automatically operating machines, in particular machine tools, e.g. in a manufacturing environment, so as to execute positioning, movement or co-ordinated operations by means of programme data in numerical form
    • G05B19/416—Numerical control [NC], i.e. automatically operating machines, in particular machine tools, e.g. in a manufacturing environment, so as to execute positioning, movement or co-ordinated operations by means of programme data in numerical form characterised by control of velocity, acceleration or deceleration
    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B25—HAND TOOLS; PORTABLE POWER-DRIVEN TOOLS; MANIPULATORS
    • B25J—MANIPULATORS; CHAMBERS PROVIDED WITH MANIPULATION DEVICES
    • B25J9/00—Programme-controlled manipulators
    • B25J9/16—Programme controls
    • B25J9/1628—Programme controls characterised by the control loop
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L69/00—Network arrangements, protocols or services independent of the application payload and not provided for in the other groups of this subclass
    • H04L69/08—Protocols for interworking; Protocol conversion

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  • the invention relates to a system and a method for transmitting 9-channel encoder signals to 1000 Mbps PHY signals, and belongs to the technical field of robot data communication protocol conversion.
  • the object of the present invention is to overcome the problems of poor stability, high signal delay, complicated line and high cost in the signal transmission process of the robot encoder, and a 9-channel encoder signal to 1000 Mbps PHY is proposed. Signal transmission system.
  • the invention proposes an encoder data transmission solution based on Altera FPGA 9-channel encoder signal (which can be compatible with the absolute value encoder of RS485 interface type of Panasonic, Tamagawa, etc.) to 1000 Mbps PHY signal transmission, in addition to leaving a MAC
  • the layer transmission circuit is adapted to the requirements of the controller to obtain the position of the encoder in real time, and the remaining pins of the FPGA are also led out for the expansion of other functions.
  • a 9-channel encoder signal to 1000Mbps PHY signal transmission system including PHY chip circuit U1, U2, digital optocoupler U3 ⁇ U11, 485 transceiver U12 ⁇ U20, RJ45 with isolation transformer socket J1, J2, FPGA chip circuit , EPCS configuration chip circuit, Jtag interface and SM-6P-PCB socket J3 ⁇ J11,
  • the two MII digital signal output inputs of the FPGA chip circuit are respectively connected with the MII digital signal input and output ends of the PHY chip circuits U1 and U2; the differential data signal output inputs of the PHY chip circuits U1 and U2 are respectively connected to the RJ45 with isolation transformer sockets.
  • the first 485 digital signal input and output end of the FPGA chip circuit is connected with the digital signal output input end of the digital photocoupler U3 and the 485 transceiver U12, and the second circuit 485 of the FPGA chip circuit
  • the digital signal input and output terminal is connected to the digital signal output input end of the 485 transceiver U13 through the digital photocoupler U4, and the third 485 digital signal input and output end of the FPGA chip circuit passes through the digital photocoupler U5 and the number of the 485 transceiver U14.
  • the signal output input terminal is connected, and the fourth 485 digital signal input and output end of the FPGA chip circuit is connected through the digital photocoupler U6 and the digital signal output input end of the 485 transceiver U15, and the fifth 485 digital signal input and output of the FPGA chip circuit is connected.
  • the terminal is connected to the digital signal output input end of the 485 transceiver U16 through the digital photocoupler U7, and the sixth 485 digital signal input and output end of the FPGA chip circuit passes through the digital signal output input end of the digital photocoupler U8 and 485 transceiver U17.
  • the seventh 485 digital signal input and output end of the FPGA chip circuit is connected through the digital photocoupler U9 and the digital signal output input end of the 485 transceiver U18, and the eighth 485 digital signal input and output end of the FPGA chip circuit passes the digital photoelectric
  • the coupler U10 is connected to the digital signal output input of the 485 transceiver U19, and the FPGA chip circuit is
  • the nine-way 485 digital signal input and output terminal is connected to the digital signal output input end of the 485 transceiver U20 through the digital photocoupler U11, and the serial data input and output end of the FPGA chip circuit is connected with the serial data output input end of the EPCS configuration chip circuit.
  • the Jtag test data output input end of the FPGA chip circuit is connected to the Jtag interface; the 485 communication data output input end of the 485 transceiver U12 ⁇ U20 is respectively connected to the SM-6P-PCB socket J3 ⁇ J11; the 485 transceiver U12 ⁇ U20 is isolated. powered by.
  • the invention can stably convert the RS485 signal of the multi-channel absolute encoder into a 1000 Mbps PHY signal for transmission, thereby increasing the transmission distance and stability of the encoder data. Since the direct connection of the RS485 interface signal and the interface signal on the PHY chip is realized, the transmission efficiency is greatly improved, and the real-time performance of data transmission and reception is ensured. At the same time, by detecting the data command of the driver and the return command of the encoder for the encoder position feedback, the refresh rate of the position feedback in the closed loop control is improved.
  • the technical solution of the invention can appropriately increase the transmission distance, greatly reduce the transmission delay, save the cost of the cable, reduce the work of the field wiring, enhance the stability of the system, and transmit other signals according to the protocol. Therefore, the present invention can meet the requirements of industrial robots for high stability, low delay, long distance, and low cost transmission of encoder data communication in a complex electrical environment. At the same time, it can also meet the requirements of the robot controller for the high refresh rate of the encoder data.
  • Figure 1 is a schematic view of the overall structure of the present invention
  • FIG. 2 is a block diagram of the circuit principle of the present invention.
  • 1-FPGA chip circuit 2-EPCS configuration chip circuit, 3-Jtag interface.
  • a 9-channel encoder signal to 1000Mbps PHY signal transmission system including PHY Chip circuit U1, U2, digital optocoupler U3 ⁇ U11, 485 transceiver U12 ⁇ U20, RJ45 with isolation transformer socket J1, J2, FPGA chip circuit 1, EPCS configuration chip circuit 2, Jtag interface 3 and SM-6P-PCB Socket J3 ⁇ J11,
  • the two MII digital signal output inputs of the FPGA chip circuit 1 are respectively connected with the MII digital signal input and output ends of the PHY chip circuits U1 and U2; the differential data signal output inputs of the PHY chip circuits U1 and U2 are respectively connected to the RJ45 with isolation transformers.
  • the first 485 digital signal input and output end of the FPGA chip circuit 1 is connected to the digital signal output input end of the 485 transceiver U12 through the digital photocoupler U3, and the second 485 digital signal of the FPGA chip circuit 1
  • the input and output terminals are connected to the digital signal output input end of the 485 transceiver U13 through the digital photocoupler U4, and the digital signal input and output end of the third chip 485 of the FPGA chip circuit 1 passes through the digital signals of the digital photocoupler U5 and the 485 transceiver U14.
  • the output input terminal is connected, and the fourth 485 digital signal input and output end of the FPGA chip circuit 1 is connected to the digital signal output input end of the 485 transceiver U15 through the digital photocoupler U6, and the fifth 485 digital signal input of the FPGA chip circuit 1 is input.
  • the output terminal is connected to the digital signal output input terminal of the 485 transceiver U16 through the digital photocoupler U7, and the sixth circuit 485 of the FPGA chip circuit 1
  • the digital signal input and output terminal is connected to the digital signal output input end of the 485 transceiver U17 through the digital photocoupler U8, and the seventh 485 digital signal input and output end of the FPGA chip circuit 1 passes through the digital photocoupler U9 and 485 transceiver U18
  • the digital signal output input terminal is connected, and the eighth channel 485 digital signal input and output end of the FPGA chip circuit 1 is connected through the digital photocoupler U10 and the digital signal output input end of the 485 transceiver U19, and the ninth road 485 number of the FPGA chip circuit 1
  • the signal input and output end is connected to the digital signal output input end of the 485 transceiver U20 through the digital photocoupler U11, and the serial data input and output end of the FPGA chip circuit 1 is connected with the serial data output input end of the EPCS configuration chip
  • the PHY chip circuit U1, U2 selects the model number 88E1111, the digital photocoupler U3 ⁇ U11 selects the ACPL-064L/K64L low power consumption 10MBd digital CMOS optocoupler, the 485 transceiver U12 ⁇ U20 selects the model For the ADM485, RJ45 with isolation transformer socket J1, J2 selected model is HR911102A, EPCS configuration chip circuit 2 selected model is EPCS16SI8N; FPGA chip circuit 1 selected model is EP4CE6E144 programmable logic device.
  • the working process of the 9-channel encoder signal to 1000M bps PHY signal transmission of the invention is as follows:
  • the FPGA controls the data receiving and transmitting of the RS485 circuit and the PHY circuit of the master and slave stations by means of interrupt inquiry.
  • On the side close to the robot body there is a circuit board for connecting the encoder, and a circuit board on the side close to the control cabinet is connected to the driver.
  • a network cable is used to communicate between the two boards.
  • the circuit board near the robot body is called a slave station
  • the circuit board near the control cabinet is called a master station.
  • the workflow is as follows: After detecting that the interrupt signal is valid, the master station FPGA control circuit pulls the transmit enable pin of the PHY chip U1 high, and starts the 1000 Mbps of the PHY chip U1. For data transmission, the data signal received by RS485 is sent through the PHY chip U1. After the 9-way data transmission is completed, the data transmission state of the PHY chip U1 is ended, and the transmission enable position of the primary station PHY chip U1 is 0. At the same time, the primary station will start RS485 data reception and store the data to detect the data transmission instruction of the driver. When the data transmission instruction is received in the direction of the PHY chip U2, the stored data is sent out through the MAC protocol, after the data transmission is completed. End the data transmission status.
  • the corresponding RS485 direction control signal is set high to transmit the data received by the PHY chip U1 through the corresponding RS485 circuit. After the data transmission is completed, an interrupt signal is generated.
  • the FPGA detects the slave RS485 transmission completion interrupt, the direction control pin is pulled back to the data receiving state; when the falling edge of the slave RS485 receiving signal is detected, the data is assigned to the data.
  • the transmission signal of the corresponding slave PHY chip U1 is simultaneously set to 1 by the data transmission signal of the slave PHY chip U1, and the 1000 Mbps data transmission of the slave PHY chip U1 is started; when the transmission of all data is completed, the transmission of the slave PHY chip U1 is completed.
  • the enable signal is set to 0 to stop transmission.
  • the PHY chip U1 of the master station detects that the receive enable signal is 1, the corresponding slave RS485 direction pin is set to 1 to send data to the driver. After the 9-way data transmission is completed, the direction control pin of the master station RS485 is pulled low. So that it is in the state of data reception. At the same time, the primary station will start RS485 data reception and store the data to detect the data transmission instruction of the driver.
  • the stored data is sent out through the MAC protocol, after the data transmission is completed. End the data transmission status. This completes the process of sending and receiving data.
  • the RS485 receiving and transmitting pins are respectively connected with the data receiving and transmitting pins of the PHY chip U1 to achieve the purpose of the 9-channel encoder to 1000 Mbps PHY signal transmission, and the delay can be greatly reduced.

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Abstract

一种9路编码器信号转1000Mbps PHY信号的传输系统，属于机器人数据通信协议转换的技术领域。包括PHY芯片电路U1、U2，数字光电耦合器U3～U11，485收发器U12～U20，RJ45带隔离变压器插座J1、J2，FPGA芯片电路、EPCS配置芯片电路、Jtag接口和SM-6P-PCB插座J3～J11，FPGA芯片电路的两路MII数字信号输出输入端分别与PHY芯片电路U1、U2的MII数字信号输入输出端连接；PHY芯片电路U1、U2的差分数据信号输出输入端分别连接在RJ45带隔离变压器插座J1、J2上，同时设置了主站和从站。本发明提出的传输系统满足了工业机器人在复杂电气环境下对编码器数据通信高稳定性、低延迟、长距离、低成本传输的要求，同时也可以满足机器人控制器对编码器数据高刷新速度的要求。

Description

一种9路编码器信号转1000Mbps PHY信号的传输系统 技术领域
本发明涉及一种9路编码器信号转1000Mbps PHY信号传输的系统及方法，属于机器人数据通信协议转换的技术领域。
背景技术
现有的绝对值编码器传输协议有很多种，如EnDat协议、BISS协议、RS485协议等，这些协议在硬件上多遵循RS485和RS422协议。其传输速率受限于其传输距离，在传输距离较远的时候难以达到现有速度(2.5Mbps)。上述通信方式对于多轴机器人(6～9轴机器人)而言需要相互独立的6～9根4芯线缆进行传输，不利于系统的稳定性，且线缆价格比较昂贵。基于MAC协议或者其它协议的编码器数据传输方式延迟较高，在很多实时性要求比较高的机器人系统中并不适用。此外在机器人系统中做闭环控制时，许多总线式通信的编码器位置反馈需要三个及以上的周期不利于更高精度的运动控制。
发明内容
针对现有技术的不足，本发明的目的是为了克服机器人编码器信号传输过程中，稳定性差、信号延迟高、用线复杂且成本昂贵的问题，提出了一种9路编码器信号转1000Mbps PHY信号的传输系统。
本发明提出了一种基于Altera FPGA的9路编码器信号(可以兼容松下、多摩川等公司RS485接口类型的绝对值编码器)转1000Mbps PHY信号传输的编码器数据传输解决方案，此外留有一路MAC层传输电路以适应控制器需要实时获取编码器位置的要求，还将FPGA的剩余引脚引出以便其它功能的扩展。
本发明的发明目的通过以下技术方案实现：
一种9路编码器信号转1000Mbps PHY信号的传输系统，包括PHY芯片电路U1、U2，数字光电耦合器U3～U11，485收发器U12～U20，RJ45带隔离变压器插座J1、J2，FPGA芯片电路、EPCS配置芯片电路、Jtag接口和SM-6P-PCB插座J3～J11，
FPGA芯片电路的两路MII数字信号输出输入端分别与PHY芯片电路U1、U2的MII数字信号输入输出端连接；PHY芯片电路U1、U2的差分数据信号输出输入端分别连接在RJ45带隔离变压器插座J1、J2上；FPGA芯片电路、的第一路485数字信号输入输出端通过数字光电耦合器U3与485收发器U12的数字信号输出输入端连接，FPGA芯片电路的第二路485 数字信号输入输出端通过数字光电耦合器U4与485收发器U13的数字信号输出输入端连接，FPGA芯片电路的第三路485数字信号输入输出端通过数字光电耦合器U5与485收发器U14的数字信号输出输入端连接，FPGA芯片电路的第四路485数字信号输入输出端通过数字光电耦合器U6与485收发器U15的数字信号输出输入端连接，FPGA芯片电路的第五路485数字信号输入输出端通过数字光电耦合器U7与485收发器U16的数字信号输出输入端连接，FPGA芯片电路的第六路485数字信号输入输出端通过数字光电耦合器U8与485收发器U17的数字信号输出输入端连接，FPGA芯片电路的第七路485数字信号输入输出端通过数字光电耦合器U9与485收发器U18的数字信号输出输入端连接，FPGA芯片电路的第八路485数字信号输入输出端通过数字光电耦合器U10与485收发器U19的数字信号输出输入端连接，FPGA芯片电路的第九路485数字信号输入输出端通过数字光电耦合器U11与485收发器U20的数字信号输出输入端连接，FPGA芯片电路的串行数据输入输出端与EPCS配置芯片电路的串行数据输出输入端连接，FPGA芯片电路的Jtag测试数据输出输入端连接在Jtag接口上；485收发器U12～U20的485通信数据输出输入端分别连接SM-6P-PCB插座J3～J11；485收发器U12～U20采用隔离供电。
与现有技术相比，本发明的有益效果在于：
1.本发明可以稳定地将多路绝对值编码器的RS485信号转化为1000Mbps PHY信号进行传输，增加了编码器数据的传输距离和稳定性。由于实现了RS485接口信号和PHY芯片上接口信号的直连，大大提高了传输效率，保证了数据发送和接收的实时性。同时，通过检测驱动器的数据指令和编码器的返回指令用于编码器位置反馈，提高了闭环控制中位置反馈的刷新率。
2.采用本发明的技术方案可以适当提高传输距离，大大降低传输的延迟，省去线缆的费用，减少现场接线的工作，增强系统的稳定性，并可据此协议来传输其它的信号。因此，本发明能满足工业机器人在复杂电气环境下对编码器数据通信高稳定性、低延迟、长距离、低成本传输的要求。同时也可以满足机器人控制器对编码器数据高刷新速度的要求。
附图说明
图1为本发明整体结构示意图；
图2为本发明的电路原理框图。
其中，1-FPGA芯片电路、2-EPCS配置芯片电路、3-Jtag接口。
具体实施方式
下面结合附图和实施例对本发明作进一步的详细说明。
如图1和图2所示，一种9路编码器信号转1000Mbps PHY信号的传输系统，包括PHY 芯片电路U1、U2，数字光电耦合器U3～U11，485收发器U12～U20，RJ45带隔离变压器插座J1、J2，FPGA芯片电路1、EPCS配置芯片电路2、Jtag接口3和SM-6P-PCB插座J3～J11，
FPGA芯片电路1的两路MII数字信号输出输入端分别与PHY芯片电路U1、U2的MII数字信号输入输出端连接；PHY芯片电路U1、U2的差分数据信号输出输入端分别连接在RJ45带隔离变压器插座J1、J2上；FPGA芯片电路1的第一路485数字信号输入输出端通过数字光电耦合器U3与485收发器U12的数字信号输出输入端连接，FPGA芯片电路1的第二路485数字信号输入输出端通过数字光电耦合器U4与485收发器U13的数字信号输出输入端连接，FPGA芯片电路1的第三路485数字信号输入输出端通过数字光电耦合器U5与485收发器U14的数字信号输出输入端连接，FPGA芯片电路1的第四路485数字信号输入输出端通过数字光电耦合器U6与485收发器U15的数字信号输出输入端连接，FPGA芯片电路1的第五路485数字信号输入输出端通过数字光电耦合器U7与485收发器U16的数字信号输出输入端连接，FPGA芯片电路1的第六路485数字信号输入输出端通过数字光电耦合器U8与485收发器U17的数字信号输出输入端连接，FPGA芯片电路1的第七路485数字信号输入输出端通过数字光电耦合器U9与485收发器U18的数字信号输出输入端连接，FPGA芯片电路1的第八路485数字信号输入输出端通过数字光电耦合器U10与485收发器U19的数字信号输出输入端连接，FPGA芯片电路1的第九路485数字信号输入输出端通过数字光电耦合器U11与485收发器U20的数字信号输出输入端连接，FPGA芯片电路1的串行数据输入输出端与EPCS配置芯片电路2的串行数据输出输入端连接，FPGA芯片电路1的Jtag测试数据输出输入端连接在Jtag接口3上；485收发器U12～U20的485通信数据输出输入端分别连接SM-6P-PCB插座J3～J11；485收发器U12～U20采用隔离供电。
所述PHY芯片电路U1、U2选用的型号为88E1111，数字光电耦合器U3～U11选用的型号为ACPL-064L/K64L低功耗10MBd的数字CMOS光电耦合器，485收发器U12～U20选用的型号为ADM485，RJ45带隔离变压器插座J1、J2选用的型号为HR911102A，EPCS配置芯片电路2选用的型号为EPCS16SI8N；FPGA芯片电路1选用的型号为EP4CE6E144可编程逻辑器件。
工作原理：本发明的9路编码器信号转1000M bps PHY信号传输的工作过程如下：FPGA通过中断查询的方法控制主从站的RS485电路和PHY电路的数据接收和发送。在靠近机器人本体一侧有一块电路板用于连接编码器，在靠近控制柜一侧也有一块一模一样的电路板用于和驱动器连接。两块电路板之间用一根网线进行通信。为了便于区分电路把机器人本体附近的电路板称为从站，把控制柜附近的电路板称为主站。工作流程如下：在检测到中断信号有效后，主站FPGA控制电路将PHY芯片U1的发送使能引脚拉高，启动PHY芯片U1的1000Mbps 数据传输，将RS485接收到的数据信号通过PHY芯片U1发出，在9路数据发送完成后结束PHY芯片U1的数据发送状态，将主站PHY芯片U1的发送使能位置为0。同时主站将会启动RS485的数据接收并将数据存储以检测驱动器的数据发送指令，在PHY芯片U2的方向上收到数据发送指令时将存储的数据通过MAC协议发送出去，在数据发送完成后结束数据发送状态。从站电路在检测到PHY芯片U1的数据接收位中的任意一位有下降沿时，则将相应的RS485方向控制信号置高将PHY芯片U1接到的数据通过对应的RS485电路发送出去。等数据发送完成后生成中断信号，当FPGA检测到从站RS485发送完成中断后将方向控制引脚拉低回到数据接收状态；当检测到从站RS485接收信号的下降沿时将其数据赋值给对应的从站PHY芯片U1的发送信号同时将从站PHY芯片U1的数据发送信号置为1，启动从站PHY芯片U1的1000Mbps数据传输；当所有数据发送完成后将从站PHY芯片U1的发送使能信号置为0停止发送。主站的PHY芯片U1检测到接收使能信号为1时相应的从站RS485方向引脚置为1将数据发送给驱动器，在9路数据发送完成后将主站RS485的方向控制引脚拉低，使其处在数据接收的状态。同时主站将会启动RS485的数据接收并将数据存储以检测驱动器的数据发送指令，在PHY芯片U2的方向上收到数据发送指令时将存储的数据通过MAC协议发送出去，在数据发送完成后结束数据发送状态。至此完成一个数据的收发流程。通过逻辑控制将RS485的接收和发送引脚分别和PHY芯片U1的数据接收和发送引脚进行连接达到9路编码器转1000Mbps PHY信号传输的目的，并可大大降低延迟。

Claims (2)

  1. 一种9路编码器信号转1000Mbps PHY信号的传输系统，其特征在于：包括PHY芯片电路U1、U2，数字光电耦合器U3～U11，485收发器U12～U20，RJ45带隔离变压器插座J1、J2，FPGA芯片电路(1)、EPCS配置芯片电路(2)、Jtag接口(3)和SM-6P-PCB插座J3～J11，
    FPGA芯片电路(1)的两路MII数字信号输出输入端分别与PHY芯片电路U1、U2的MII数字信号输入输出端连接；PHY芯片电路U1、U2的差分数据信号输出输入端分别连接在RJ45带隔离变压器插座J1、J2上；FPGA芯片电路(1)的第一路485数字信号输入输出端通过数字光电耦合器U3与485收发器U12的数字信号输出输入端连接，FPGA芯片电路(1)的第二路485数字信号输入输出端通过数字光电耦合器U4与485收发器U13的数字信号输出输入端连接，FPGA芯片电路(1)的第三路485数字信号输入输出端通过数字光电耦合器U5与485收发器U14的数字信号输出输入端连接，FPGA芯片电路(1)的第四路485数字信号输入输出端通过数字光电耦合器U6与485收发器U15的数字信号输出输入端连接，FPGA芯片电路(1)的第五路485数字信号输入输出端通过数字光电耦合器U7与485收发器U16的数字信号输出输入端连接，FPGA芯片电路(1)的第六路485数字信号输入输出端通过数字光电耦合器U8与485收发器U17的数字信号输出输入端连接，FPGA芯片电路(1)的第七路485数字信号输入输出端通过数字光电耦合器U9与485收发器U18的数字信号输出输入端连接，FPGA芯片电路(1)的第八路485数字信号输入输出端通过数字光电耦合器U10与485收发器U19的数字信号输出输入端连接，FPGA芯片电路(1)的第九路485数字信号输入输出端通过数字光电耦合器U11与485收发器U20的数字信号输出输入端连接，FPGA芯片电路(1)的串行数据输入输出端与EPCS配置芯片电路(2)的串行数据输出输入端连接，FPGA芯片电路(1)的Jtag测试数据输出输入端连接在Jtag接口(3)上；485收发器U12～U20的485通信数据输出输入端分别连接SM-6P-PCB插座J3～J11；485收发器U12～U20采用隔离供电。
    可以将1-10路信号转为PHY信号传输
  2. 根据权利要求1所述的一种9路编码器信号转1000Mbps PHY信号的传输系统，其特征在于：所述的9路编码器信号转1000Mbps PHY信号的传输系统还包括一块用于连接编码器的电路板和一块用于和驱动器连接的电路板，所述的用于连接编码器的电路板靠近机器人本体一侧设置，称为从站；所述的用于和驱动器连接的电路板靠近控制柜一侧设置，称为主站；两块电路板通过一根网线连接通信。
PCT/CN2016/000284 2016-02-05 2016-05-27 一种9路编码器信号转1000Mbps PHY信号的传输系统 WO2017132785A1 (zh)

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