WO2017000514A1 - 一种基于dsp和fpga的嵌入式控制器的同步印染控制系统 - Google Patents

一种基于dsp和fpga的嵌入式控制器的同步印染控制系统 Download PDF

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WO2017000514A1
WO2017000514A1 PCT/CN2015/097786 CN2015097786W WO2017000514A1 WO 2017000514 A1 WO2017000514 A1 WO 2017000514A1 CN 2015097786 W CN2015097786 W CN 2015097786W WO 2017000514 A1 WO2017000514 A1 WO 2017000514A1
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fpga
dsp
module
resistor
control system
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PCT/CN2015/097786
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French (fr)
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陈蓓菊
过琳
张晨欣
孙远烈
张伟
许晓晓
黄志远
费洁
沈静芬
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江苏海大印染机械有限公司
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    • GPHYSICS
    • G05CONTROLLING; REGULATING
    • G05BCONTROL OR REGULATING SYSTEMS IN GENERAL; FUNCTIONAL ELEMENTS OF SUCH SYSTEMS; MONITORING OR TESTING ARRANGEMENTS FOR SUCH SYSTEMS OR ELEMENTS
    • G05B19/00Programme-control systems
    • G05B19/02Programme-control systems electric
    • G05B19/04Programme control other than numerical control, i.e. in sequence controllers or logic controllers
    • G05B19/042Programme control other than numerical control, i.e. in sequence controllers or logic controllers using digital processors

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  • the invention relates to a synchronous control system, in particular to a synchronous printing and dyeing control system of an embedded controller based on DSP and FPGA, belonging to the field of synchronous control.
  • each transmission unit is driven by an independent motor.
  • Multi-unit synchronous transmission is the key to synchronous control of printing and dyeing machinery.
  • the dynamic characteristics of the system and the corresponding parameters are affected by external disturbance factors, which increases the difficulty of actual synchronous control and reduces the actual control.
  • Precision The traditional control scheme design, such as the synchronous system with the converted elastic frame, has poor reliability and low control precision, and it is difficult to obtain satisfactory control effects.
  • a serial synchronization control system with the application number "201210587448.9” includes a position measurement system, a position measurement chassis, a motion control system, a motion control chassis, and a serial synchronous control bus.
  • the position measurement system includes a synchronous data transmission bus and position measurement.
  • the card, the synchronous bus control card and the first data communication card are integrally installed in the position measuring chassis, and the motion control system includes a motion data transmission bus, a motion control card, a motion bus control card and a second data communication card, and is installed in the motion control chassis.
  • the position measuring system is connected to the motion transmission system via a serial synchronous control bus.
  • the invention integrates the position measuring system and the motion control system into two separate chassis, and realizes physical separation by using the serial synchronous control bus, thereby increasing the number of position measuring axes and motion driving axes of the workpiece table. Synchronous servo control of the position measurement system and the motion control system is also realized by using the serial synchronous control bus.
  • the terminal transfer processing device includes a transfer interface unit that holds the transmitted and received data packets, and acquires a packet for synchronization control when receiving the packet for synchronization control.
  • Receive timing the timing generation unit generates a constant internal timing
  • the transmission/reception processing unit transmits the synchronization request request packet to the specific sub-terminal, and transmits the synchronization request packet when receiving the synchronization request packet from the sub-terminal receiving the synchronization request supervision packet a synchronization response packet; and a synchronization control unit that calculates a synchronization error based on the time of receiving the data packet and the time information added to the received data packet to determine the synchronization status, and adjusts the correction amount according to the synchronization status, and The timing generation unit transmits an instruction for internal timing correction.
  • the technical problem to be solved by the present invention is to provide a synchronous printing and dyeing control system for an embedded controller based on DSP and FPGA for the deficiencies of the background art.
  • a synchronous printing and dyeing control system for an embedded controller based on DSP and FPGA comprising a signal acquisition module and a signal processing module connected thereto through a bus, the signal acquisition module comprising an FPGA and a rotation speed sensor and a data transmission module connected thereto
  • the data processing unit comprises a DSP processor and a display module, a communication module, a keyboard input module, a frequency converter and a power module connected thereto; and an analog-to-digital conversion circuit and an amplification circuit are sequentially arranged between the rotation speed sensor and the FPGA.
  • the amplifying circuit includes an amplifier chip, a first resistor, a second resistor, and a third resistor.
  • the output ends of the analog-to-digital conversion circuit are respectively connected to one ends of the first resistor and the second resistor, and the other end of the second resistor is connected to the anode of the amplifier chip.
  • the anode of the amplifier chip is connected in series with the third resistor and grounded to the other end of the first resistor.
  • the voltage output terminal of the amplifier chip is connected to the input end of the filter circuit.
  • the chip type of the FPGA is EPF10K10LC84.
  • the rotational speed sensor adopts a BES58-P0CA0P series photoelectric rotary encoder.
  • the chip type of the analog-digital conversion circuit is TMS320LF240.
  • the display module adopts a G35LCD screen.
  • the present invention has the following technical effects:
  • the invention has the advantages of simple structure, easy realization and high measurement precision
  • the invention adopts the embedded synchronous controller of DSP+FPGA, has the characteristics of flexible structure and strong versatility, and is suitable for modular design, which can greatly reduce the peripheral components of the system and reduce the cost.
  • FIG. 1 is a block diagram of the system of the present invention
  • Fig. 2 is a circuit diagram of an amplifier circuit of the present invention.
  • a synchronous printing and dyeing control system for an embedded controller based on DSP and FPGA comprising a signal acquisition module and a signal processing module connected thereto through a bus, the signal acquisition module comprising an FPGA and a rotation speed sensor connected thereto a data transmission unit, the data processing unit includes a DSP processor and a display module, a communication module, a keyboard input module, a frequency converter, and a power module connected thereto; and a modulus connected in sequence between the rotation speed sensor and the FPGA a conversion circuit, an amplification circuit, and a filter circuit;
  • the amplifying circuit includes an amplifier chip, a first resistor, a second resistor, and a third resistor.
  • the output ends of the analog-to-digital conversion circuit are respectively connected to one ends of the first resistor and the second resistor, and the second resistor is further One end is connected to the positive pole of the amplifier chip, the negative pole of the amplifier chip is connected in series with the third resistor, and the other end of the first resistor is grounded, and the voltage output end of the amplifier chip is connected to the input end of the filter circuit.
  • the chip model of the FPGA is EPF10K10LC84, the speed sensor adopts a BES58-P0CA0P series photoelectric rotary encoder, the chip type of the analog-digital conversion circuit is TMS320LF240, and the display module adopts a G35LCD screen.
  • the invention is based on DSP+FPGA embedded synchronous controller, which has the characteristics of flexible structure and strong versatility, and is suitable for modular design, which can greatly reduce peripheral components of the system and reduce cost.
  • DSP mainly completes the start and stop of the motor, the realization of the control algorithm and various interface processing;
  • FAPG is the core of the data acquisition module, responsible for the data acquisition and keyboard interface circuit implementation. It is convenient to make the units of the printing and dyeing equipment work synchronously.
  • DSP is the core unit of the system. It computes, analyzes and displays various parameters collected, and can communicate with the local instrument with 485 interface through the communication module.
  • TI's TMS320LF2407A DSP chip is used. It uses high-performance static CMOS technology, the power supply voltage drops to 3.3V, and the power consumption is small. It has an execution speed of 30MIPS, which shortens the instruction cycle to 33ns and improves the real-time control capability of the controller. There are up to 32KB of FLASH program memory on the chip.
  • the 16-bit TMS320LF2407A DSP chip features fast sampling speed, high floating point processing speed and good stability. The special structure and excellent performance of DSP meet the needs of the system.
  • FPGA adopts Altera's FLEX series chip EPFl0Kl0LC84, which has the characteristics of high density, low cost, low power, etc. It can support multi-voltage I/O interface, which is developed on the basis of programmable logic devices such as PAL, GAL, EPLD, etc. Ideal for applications such as timing, combination and other logic circuits.
  • the FPGA is connected to the DSP processor through the bus.
  • the main functions are pulse counting, keyboard scanning, and so on.
  • the biggest feature of FPGA is its internal logic online reconfigurability. When the application requirements change, reprogramming the FPGA can change its logic behavior, greatly improving the system's openness and reconfigurability.
  • the high speed and flexibility of the FPGA also ensures the real-time performance of the system, and simplifies the peripheral circuits of the system and reduces the cost.
  • the display module uses the G35LCD screen, through the connection of the bus and the DSP, by configuring the relevant registers, writing the relevant application interface function to display the parameters to be tested, the running status and other auxiliary information.
  • the communication module consists of an RS 485 interface circuit that can be used to connect the controller to the frequency converter.
  • the parameters of the inverter are set and modified by the controller through communication to monitor its working status.
  • the system is designed with a 4 ⁇ 4 matrix keyboard. Using FPGA to complete the keyboard interface circuit saves I/O resources, reduces processor load, and improves overall system performance.
  • the data acquisition module converts the motor speed into a digital pulse by two rotary encoders, and the pulse value is recorded by the FPGA, and the DSP reads the value by interrupt.
  • the control module outputs the control quantity U(k) to the inverter of each driven machine through the communication module, and adjusts the rotational speed of the driven machine through the frequency converter to continuously follow the change of the rotational speed of the active machine to achieve synchronization.

Abstract

一种基于DSP和FPGA的嵌入式控制器的同步印染控制系统,包含信号采集模块以及与其通过总线连接的信号处理模块,所述信号采集模块包含FPGA以及与其连接的转速传感器、数据传输模块,所述信号处理模块包含DSP处理器以及与其连接的显示模块、通讯模块、键盘输入模块、变频器和电源模块;所述转速传感器和FPGA之间还设有依次连接的模数转换电路、放大电路和滤波电路。

Description

一种基于DSP和FPGA的嵌入式控制器的同步印染控制系统 技术领域
本发明涉及一种同步控制系统,尤其涉及一种基于DSP和FPGA的嵌入式控制器的同步印染控制系统,属于同步控制领域。
背景技术
在印染机械设备生产加工过程中,各个传动单元分别由独立的电机驱动。为了保证整机各单元同步协调工作,提高产品质量,需要设计相应的同步控制器。多单元同步传动是印染机械设备同步控制的关键,但由于交流电机严重的非线性,系统的动态特性和相应的参数受外界扰动因素的影响,增加了实际同步控制的难度,降低了实际的控制精度。传统的控制方案设计如带转换式松紧架的同步系统可靠性差,控制精度不高,难以获得满意的控制效果。
例如申请号为“201210587448.9”的一种串行同步控制系统,包括位置测量系统、位置测量机箱、运动控制系统、运动控制机箱及串行同步控制总线,位置测量系统包括同步数据传输总线、位置测量卡、同步总线控制卡及第一数据通信卡,集成安装在位置测量机箱内,运动控制系统包括运动数据传输总线、运动控制卡、运动总线控制卡及第二数据通信卡,安装在运动控制机箱内,位置测量系统通过串行同步控制总线与运动传输系统相连。本发明通过将位置测量系统和运动控制系统分别集成在两个各自独立的机箱内,并利用串行同步控制总线实现物理分离,增加了工件台掩膜台的位置测量轴和运动驱动轴的数量,同时利用串行同步控制总线也实现了位置测量系统和运动控制系统的同步伺服控制。
又如申请号为“201280013751.6”的同步控制系统,端子的传送处理装置具备:传送接口部,保持所收发的数据包,并且在接收到用于同步控制的包时,取得用于同步控制计算的接收定时;定时生成部,生成一定的内部定时;收发处理部,对特定的副端子进行同步请求督促包的发送,并在从接收到同步请求督促包的副端子接收了同步请求包时,发送同步应答包;以及同步控制部,根据接收到数据包的时刻和在所接收的数据包中附加的时刻信息,计算同步误差,来进行同步状况的判断,并且根据同步状况来调节修正量,向上述定时生成部发送内部定时修正的指令。
发明内容
本发明所要解决的技术问题是针对背景技术的不足提供了一种基于DSP和FPGA的嵌入式控制器的同步印染控制系统。
本发明为解决上述技术问题采用以下技术方案:
一种基于DSP和FPGA的嵌入式控制器的同步印染控制系统,包含信号采集模块以及与其通过总线连接的信号处理模块,所述信号采集模块包含FPGA以及与其连接的转速传感器、数据传输模块,所述数据处理单元包含DSP处理器以及与其连接的显示模块、通讯模块、键盘输入模块、变频器和电源模块;所述转速传感器和FPGA之间还设有依次连接的模数转换电路、放大电路和滤波电路;
所述放大电路包含放大器芯片、第一电阻、第二电阻、第三电阻,模数转换电路的输出端分别连接第一电阻和第二电阻的一端,第二电阻的另一端连接放大器芯片的正极,放大器芯片的负极与第三电阻串联后与第一电阻的另一端接地,放大器芯片的电压输出端连接滤波电路的输入端。
作为本发明一种基于DSP和FPGA的嵌入式控制器的同步印染控制系统的进一步优选方案,所述FPGA的芯片型号为EPFl0Kl0LC84。
作为本发明一种基于DSP和FPGA的嵌入式控制器的同步印染控制系统的进一步优选方案,所述转速传感器采用BES58-P0CA0P系列光电旋转编码器。
作为本发明一种基于DSP和FPGA的嵌入式控制器的同步印染控制系统的进一步优选方案,所述模数转换电路的芯片型号为TMS320LF240。
作为本发明一种基于DSP和FPGA的嵌入式控制器的同步印染控制系统的进一步优选方案,所述显示模块采用G35LCD屏。
本发明采用以上技术方案与现有技术相比,具有以下技术效果:
1、本发明结构简单、易于实现、测量精度高;
2、本发明采用DSP+FPGA的嵌入式同步控制器,具有结构灵活,通用性强的特点,适用于模块化设计,可大大减少系统的外围器件,降低成本。
附图说明
图1是本发明的系统结构图;
图2是本发明的放大电路电路图。
具体实施方式
下面结合附图对本发明的技术方案做进一步的详细说明:
如图1所示,一种基于DSP和FPGA的嵌入式控制器的同步印染控制系统,包含信号采集模块以及与其通过总线连接的信号处理模块,所述信号采集模块包含FPGA以及与其连接的转速传感器、数据传输模块,所述数据处理单元包含DSP处理器以及与其连接的显示模块、通讯模块、键盘输入模块、变频器和电源模块;所述转速传感器和FPGA之间还设有依次连接的模数转换电路、放大电路和滤波电路;
如图2所示,所述放大电路包含放大器芯片、第一电阻、第二电阻、第三电阻,模数转换电路的输出端分别连接第一电阻和第二电阻的一端,第二电阻的另一端连接放大器芯片的正极,放大器芯片的负极与第三电阻串联后与第一电阻的另一端接地,放大器芯片的电压输出端连接滤波电路的输入端。
其中,所述FPGA的芯片型号为EPFl0Kl0LC84,所述转速传感器采用BES58-P0CA0P系列光电旋转编码器,所述模数转换电路的芯片型号为TMS320LF240,所述显示模块采用G35LCD屏。
本发明基于DSP+FPGA的嵌入式同步控制器,具有结构灵活,通用性强的特点,适用于模块化设计,可大大减少系统的外围器件,降低成本。DSP作为运算控制的核心,主要完成电机启停,控制算法的实现和各类接口处理等;FAPG作为数据采集模块的核心,负责数据采集和键盘接口电路的实现。便于使印染设备各单元同步协调工作。
嵌入式控制器的硬件结构:DSP为系统的核心单元,它对采集的各种参数进行运算、分析和显示,并可通过通信模块与本地带485接口的仪表通信。选用TI公司的TMS320LF2407A型DSP芯片,它采用高性能静态CMOS技术,供电电压降为3.3V,功耗小,具有30MIPS的执行速度,使得指令周期缩短到33ns,提高了控制器的实时控制能力;片内有高达32KB的FLASH程序存储器。16位TMS320LF2407A型DSP芯片具有采样速度快,浮点处理速度高,稳定性好等特点。DSP的特殊结构和优良性能满足了系统的需要。
FPGA采用Altera公司的FLEX系列芯片EPFl0Kl0LC84,具有高密度,低成本,低功率等特点,可支持多电压I/O接口,是在PAL,GAL,EPLD等可编程逻辑器件的基础上发展起来的,非常适于时序、组合等逻辑电路的应用场合。FPGA作为一个外部协处理器使用,通过总线与DSP处理器连接,主要实现的功能是脉冲计数、键盘扫描等。FPGA最大的特点是它的内部逻辑在线的可重构性。当应用需求发生变化时,对FPGA重新进行编程,即可改变其逻辑行为,大大提高了系统的开放性和可重构性。FPGA的高速性和灵活性也保证了系统的实时性,并且简化了系统的外围电路,降低了成本。
显示模块采用G35LCD屏,通过总线与DSP的连接,通过配置相关寄存器,编写调用相关应用程序接口函数即可显示待测参数、运行状态及其他辅助信息。通信模块由RS 485接口电路组成,可以用它将控制器和变频器连接在一起。通过通信实现由控制器设定和修改变频器的参数,以监视其工作状态。为了便于实现现场调试、数据输入和命令传送等控制功能,该系统设计了一个4×4的矩阵键盘。采用FPGA来完成键盘接口电路,可节省I/O资源,减轻处理器负担,提高系统的整体性能。数据采集模块用2个旋转编码器把电机转速转换为数字脉冲,由FPGA记录脉冲值,DSP通过中断读取数值。经运算处理后,经通信模块输出控制量U(k)到各从动机的变频器,通过变频器调节从动机的转速,使其不断跟随主动机转速的变化而实现同步。以上设计提高了系统的灵活性和通用性,降低了开发成本,可作为一个独立模块与嵌入式系统连接。
本技术领域技术人员可以理解的是,除非另外定义,这里使用的所有术语(包括技术术语和科学术语)具有与本发明所属领域中的普通技术人员的一般理解相同的意义。还应该理解的是,诸如通用字典中定义的那些术语应该被理解为具有与现有技术的上下文中的意义一致的意义,并且除非像这里一样定义,不会用理想化或过于正式的含义来解释。
以上实施例仅为说明本发明的技术思想,不能以此限定本发明的保护范围,凡是按照本发明提出的技术思想,在技术方案基础上所做的任何改动,均落入本发明保护范围之内。上面结合附图对本发明的实施方式作了详细说明,但是本发明并不限于上述实施方式,在本领域普通技术人员所具备的知识范围内,还可以再不脱离本发明宗旨的前提下做出各种变化。

Claims (5)

  1. 一种基于DSP和FPGA的嵌入式控制器的同步印染控制系统,其特征在于:包含信号采集模块以及与其通过总线连接的信号处理模块,所述信号采集模块包含FPGA以及与其连接的转速传感器、数据传输模块,所述数据处理单元包含DSP处理器以及与其连接的显示模块、通讯模块、键盘输入模块、变频器和电源模块;所述转速传感器和FPGA之间还设有依次连接的模数转换电路、放大电路和滤波电路;
    所述放大电路包含放大器芯片、第一电阻、第二电阻、第三电阻,模数转换电路的输出端分别连接第一电阻和第二电阻的一端,第二电阻的另一端连接放大器芯片的正极,放大器芯片的负极与第三电阻串联后与第一电阻的另一端接地,放大器芯片的电压输出端连接滤波电路的输入端。
  2. 根据权利要求1所述的一种基于DSP和FPGA的嵌入式控制器的同步印染控制系统,其特征在于:所述FPGA的芯片型号为EPFl0Kl0LC84。
  3. 根据权利要求1所述的一种基于DSP和FPGA的嵌入式控制器的同步印染控制系统,其特征在于:所述转速传感器采用BES58-P0CA0P系列光电旋转编码器。
  4. 根据权利要求1所述的一种基于DSP和FPGA的嵌入式控制器的同步印染控制系统,其特征在于:所述模数转换电路的芯片型号为TMS320LF240。
  5. 根据权利要求1所述的一种基于DSP和FPGA的嵌入式控制器的同步印染控制系统,其特征在于:所述显示模块采用G35LCD屏。
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