• Journal of the Institute of Electronics and Information Engineers
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• v.51 no.11
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• pp.211-220
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• 2014

In this paper a full FPGA-based and compact motor-control system is shown that makes it easy to control the motor and analyze the result data in real time with embedding not only a DC motor controller but also a TFT LCD interface in a single FPGA. Both a PID speed control module for a DC motor and a monitoring module for plotting real time graphs on to a TFT LCD are designed in a single FPGA, and the system validity is shown through simulation and experimental results. The FPGA used is xc3s400 and the entire system is designed by using the AD (Altium Designer). A PWM motor drive system is constructed by using MOSFETs for a DC motor 4-quadrant operations.

• Journal of the Semiconductor & Display Technology
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• v.13 no.4
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• pp.71-76
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• 2014

This paper presents the implementation for the BLDC motor speed control system using VHDL and FPGA. The BLDC motor is widely used in automation for its good robustness and easy controllability. In order to control the speed of the BLDC motor, the PI controller used for static RPM output of the BLDC motor to variations in load. In addition, by using the DA converter, we were able to monitor the BLDC motor reference speed and the current speed through real time. The motor speed command and the parameters of the PI speed controller were modified easily by the FPGA and the AD converter. Finally, in order to show the feasibility of the control algorithm the speed control characteristics of the motor was monitored using an oscilloscope and the DA converter. Further, the speed control system was designed in this paper has shown the applicability of the drive system of the factory automation.

• The Journal of the Korea institute of electronic communication sciences
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• v.8 no.11
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• pp.1707-1712
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• 2013

In this paper, we implement a hardware for motor control based on FPGA + embedded processor using Zynq EPP which is All Programmable SoC in order to improve a structural problem of motion control based on such as DSP, MCU and FPGA previously. The implemented motor controller that is fused controller with advantage of FPGA and embedded processor. The signal processing part of high velocity motor control is performed by motor controller based on FPGA. A motion profile and kinematic calculation that are required algorithm process such as operation of a complicate decimal point has processed in an embedded processor based on dual core. As a result of a hardware implementation, it has an advantage that has can be realized an effect of distribution process in one chip. It has also an advantage that is able to organize as a multi-axis motor controller through adding the IP core of motor control implemented on FPGA.

• Proceedings of the KIEE Conference
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• 2003.11c
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• pp.971-974
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• 2003

본 논문은 DC Motor의 속도 제어를 위해서는 속도를 결정해주는 PWM 출력과 Motor의 속도를 측정할 수 있는 고속카운터가 필요하며 설정한 값과 실제 출력되는 값을 동일하게 만들어주는 제어부분을 구현하여야 하며 시스템을 구성하기 위한 주변 I/O도 구성되어야 한다. 기존 마이크로프로세서로 구현을 하게 되면 PWM 출력과 제어 알고리즘에 대한 연산 및 주변 I/O에 대한 구현이 용이하겠지만 DC Motor의 Encoder에서 나오는 신호를 카운터하기에는 부족한 측면이 많으며 마이크로프로세서의 연산처리 과정에 따라 제어 알고리즘 연산에 소비되는 시간도 FPGA로 구현한 시스템보단 상대적으로 여유가 없다. 본 논문에서는 FPGA만을 이용하여 PWM, HSC, PID, 주변 I/O등을 하나의 Chip에 System On Chip화함으로 실제 시스템에 적용할 때 제어시스템의 소형화와 제어대상을 고속의 정확성있는 제어시스템을 연구 하였다.

• Proceedings of the Korean Institute of Information and Commucation Sciences Conference
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• 2016.10a
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• pp.652-654
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• 2016

This paper shows the Design and implementation of sinusoidal BLDC motor drive logic using SVPWM method with FPGA. Sinusoidal BLDC motor driver logic consists of sine-wave PWM generator, dead-time and lead angle control logic. PWM generator logic is designed using SVPWM method for increase of 15.5% linear domain than general sine-wave PWM. This logic is verified and implemented using Spartan-6 FPGA Board. Test results show that THD(Total Harmonic Distortion) of motor-driving current is 19.2% and rotor position resolution is 1.6 degree.

• 제어로봇시스템학회:학술대회논문집
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• 2005.06a
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• pp.93-97
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• 2005

This paper proposes a design of stepper motor control in microstep driven mode using FPGA (Field Programmable Gate Array) for hardware implementation. The methods to drive stepper motor in microstep excitation mode are to control of the controlling currents in each phase windings of stepper motor with reference signals. These reference signals are used for controlling the current levels, the required variation of current levels with rotor position can be obtained from the ideal linear or sinusoidal approximations to the static torque-displacement ($T-{\theta}$) characteristic curve. In addition, the hardware implementation of stepper motor controller can be designed uses VHDL (Very high speed integrated circuits Hardware Description Language) and synthesis using an Altera FPGA, FLEX10K family, EPF10K20RC240-4 device as target technology and use MAX+PlusII program for overall development. A multi-stack variable-reluctance stepper motor of Sanyo Denki is used in the experiments.

• Journal of the Korean Institute of Intelligent Systems
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• v.20 no.4
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• pp.562-568
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• 2010

Until now, the implementation of servo motor control units which is being applied in various industrial ares such as industrial system, office equipment, home appliance and robotics, used the MCU and DSC(or DSP). However, MCU and DSC have limitations of not being able to maximize control efficiency of the motor and the flexibility. Thus, in this paper, we propose and implemented the designing method for development of servo motor control IP based on FPGA which have a structure to make the best motor control efficiency and flexibility of control,

• Proceedings of the IEEK Conference
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• 2009.05a
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• pp.313-315
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• 2009

In this thesis, A methodology of system implement for PID controller, PWM logic, HSC logic, Host Communication and external DAC interface are implemented into single FPGA chip is proposed. The implemented system is used to control the speed of DC servo motor. A DATA block transfers set point value(SV) and P, I, D gain parameters to the corresponding Blocks respectively by the Host Communication to Computer. A HSC block generates process value(PV) by a pulse and $90^{\circ}$ shifted pulse from the encoder A PID block makes error(E) signal from the set value and process value and output manufacture value(MV) through the PID controller. In PWM block using the MV from the PID block, drives H-bridge controlling the Motor. Also DAC interface controls the DAC to graph the digital signal such as SV, PV, E, MV in FPGA onto the Oscilloscope.

• Proceedings of the KIEE Conference
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• 2011.07a
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• pp.111-112
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• 2011

본 논문에서는 FPGA를 이용하여 SPWM 펄스파형을 구현 했다. 이 파형을 구현하기 위해서 삼각파와 정현파의 비교는 MATLAB을 사용하였고, 비교로 인해서 구해진 파형의 값으로 MAX-PLUS II의 설계를 통해 SPWM 파형을 구현했다. FPGA는 Altera ACEX EP1K100QC208-3N를 모터는 MITSUBISHI AC SERVO MOTOR HC-KFS053를 사용하였다.

• Proceedings of the KAIS Fall Conference
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• 2010.05a
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• pp.360-362
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• 2010

본 논문에서는 SoC 키트에 해당하는 iRoV-Lab 3000의 장착된 로봇 모듈인 FPA 모듈, Stepper Motor 모듈, 적외선 송수신 센서 모듈, 카메라 모듈, RF 모듈 LED, TEXT LCD, 7-segment를 제어하기 위한 FPGA를 사용하며, FPGA설계를 위해 Schematic Design 또는 HDL에 대해 연구한다. FPGA의 내부구조를 이해하고 개발환경을 구축할 수 있다. 로봇의 구성요소와 각각의 구성요소(Sensor 모듈, display 모듈, Stepper Motor 모듈, RF 모듈)의 동작 원리를 개발한다.