• Title/Summary/Keyword: Programmable Robot

Search Result 35, Processing Time 0.03 seconds

Development of general purpose interface module for mini-MAP (Mini-MAP을 위한 범용 접속장치 개발)

  • 김현기;이전우;하정현;정하재;채영도
    • 제어로봇시스템학회:학술대회논문집
    • /
    • 1992.10a
    • /
    • pp.31-36
    • /
    • 1992
  • This paper describes the development of a 'General-purpose ETRI MAP interface module' (GEM) for a Mini-MAP network. GEM operates as a Mini-MAP node in our FA system. To communicate between GEM and programmable devices such as PLC, CNC, and robot, RS232C is used, which is a traditional method. A Mini-MAP host system controls and monitors programmable devices via GEM. The Mini-MAP function of GEM is implemented and tested on the basis of the MAP V3.0.

  • PDF

Implementation of SOPC-based Reconfigurable Robot Controller (SOPC 기반의 재구성 가능한 로봇제어기 구현)

  • 최영준;박재현;최기홍
    • Journal of Institute of Control, Robotics and Systems
    • /
    • v.10 no.3
    • /
    • pp.261-266
    • /
    • 2004
  • Recently, a variety of intelligent robots are developed for the personal purpose beyond the industrial application. These intelligent robots have ranges of sensors, actuators, and control algorithms to their application. In this paper we propose a reconfigurable robot controller, $SR^2$c (The SOPC-based Reconfigurable Robot Controller), based on SOPC (System on a Programmable Chip), that can be reconfigurable easily by software. The proposed robot controller contains not only a processing module but also robot-specific IP's. To show a feasibility of the proposed robot controller, a small entertainment robot, Wizard-4 is implemented with a single chip controller as proposed in this paper.

Implementation and Experimentation of Tracking Control of a Moving Object for Humanoid Robot Arms ROBOKER by Stereo Vision (스테레오 비전정보를 사용한 휴머노이드 로봇 팔 ROBOKER의 동적 물체 추종제어 구현 및 실험)

  • Lee, Woon-Kyu;Kim, Dong-Min;Choi, Ho-Jin;Kim, Jeong-Seob;Jung, Seul
    • Journal of Institute of Control, Robotics and Systems
    • /
    • v.14 no.10
    • /
    • pp.998-1004
    • /
    • 2008
  • In this paper, a visual servoing control technique of humanoid robot arms is implemented for tracking a moving object. An embedded time-delayed controller is designed on an FPGA(Programmable field gate array) chip and implemented to control humanoid robot arms. The position of the moving object is detected by a stereo vision camera and converted to joint commands through the inverse kinematics. Then the robot arm performs visual servoing control to track a moving object in real time fashion. Experimental studies are conducted and results demonstrate the feasibility of the visual feedback control method for a moving object tracking task by the humanoid robot arms called the ROBOKER.

FPGA-based ARX-Laguerre PIO fault diagnosis in robot manipulator

  • Piltan, Farzin;Kim, Jong-Myon
    • Advances in robotics research
    • /
    • v.2 no.1
    • /
    • pp.99-112
    • /
    • 2018
  • The main contribution of this work is the design of a field programmable gate array (FPGA) based ARX-Laguerre proportional-integral observation (PIO) system for fault detection and identification (FDI) in a multi-input, multi-output (MIMO) nonlinear uncertain dynamical robot manipulators. An ARX-Laguerre method was used in this study to dynamic modeling the robot manipulator in the presence of uncertainty and disturbance. To address the challenges of robustness, fault detection, isolation, and estimation the proposed FPGA-based PI observer was applied to the ARX-Laguerre robot model. The effectiveness and accuracy of FPGA based ARX-Laguerre PIO was tested by first three degrees of the freedom PUMA robot manipulator, yielding 6.3%, 10.73%, and 4.23%, average performance improvement for three types of faults (e.g., actuator fault, sensor faults, and composite fault), respectively.

A Realization of FPGA-based Image Recognition System (FPGA기반 영상인식 시스템 구현)

  • Young Yun
    • Proceedings of the Korean Institute of Navigation and Port Research Conference
    • /
    • 2022.11a
    • /
    • pp.349-350
    • /
    • 2022
  • Recently, AI (Artificial Intelligence) has been applied to various technologies such as automatic driving, robot and smart communication. Currently, AI system is developed by software-based method using tensor flow, and GPU (Graphic Processing Unit) is employed for processing unit. In this work, we developed an FPGA-based (Field Programmable Gate Array) AI system , and report on image recognition system to realize the AI system.

  • PDF

An Intelligence Embedding Quadruped Pet Robot with Sensor Fusion (센서 퓨전을 통한 인공지능 4족 보행 애완용 로봇)

  • Lee Lae-Kyoung;Park Soo-Min;Kim Hyung-Chul;Kwon Yong-Kwan;Kang Suk-Hee;Choi Byoung-Wook
    • Journal of Institute of Control, Robotics and Systems
    • /
    • v.11 no.4
    • /
    • pp.314-321
    • /
    • 2005
  • In this paper an intelligence embedding quadruped pet robot is described. It has 15 degrees of freedom and consists of various sensors such as CMOS image, voice recognition and sound localization, inclinometer, thermistor, real-time clock, tactile touch, PIR and IR to allows owners to interact with pet robot according to human's intention as well as the original features of pet animals. The architecture is flexible and adopts various embedded processors for handling sensors to provide modular structure. The pet robot is also used for additional purpose such like security, gaming visual tracking, and research platform. It is possible to generate various actions and behaviors and to download voice or music files to maintain a close relation of users. With cost-effective sensor, the pet robot is able to find its recharge station and recharge itself when its battery runs low. To facilitate programming of the robot, we support several development environments. Therefore, the developed system is a low-cost programmable entertainment robot platform.

Design of a Biped Robot Using DSP and FPGA

  • Oh, Sung-nam;Lee, Sung-Ui;Kim, Kab-Il
    • International Journal of Control, Automation, and Systems
    • /
    • v.1 no.2
    • /
    • pp.252-256
    • /
    • 2003
  • A biped robot should be designed to be an effective mechanical structure and have smaller hardware system if it is to be a stand-alone structure. This paper shows the design methodology of a biped robot controller using FPGA(Field Programmable Gate Array). A hardware system consists of DSP(Digital Signal Processor) as the main CPU, and FPGA as the motor controller. By using FPGA, more flexible hardware system has been achieved, and more compact and simple controller has been designed.

FPGA Implementation and Experiment of a Time-Delayed Controller for Humanoid Robot Arm Control (다관절 휴머노이드 로봇 팔의 제어를 위한 시간지연 제어기의 FPGA 구현 및 실험)

  • Lee, Woon-Kyu;Jeon, Hyo-Won;Jung, Seul
    • Journal of Institute of Control, Robotics and Systems
    • /
    • v.13 no.7
    • /
    • pp.649-655
    • /
    • 2007
  • In this paper, a time-delayed controller for position control of humanoid robot arms is designed and implemented on a field programmable gate array(FPGA) chip. The time-delayed control algorithm is simple to implement, and robust to reject disturbances. The time-delayed control method uses the one sample time-delayed previous information to cancel out uncertainties in the system. Since the sampling time is so fast with the current hardware technology, the time-delayed controller can be implemented. However, inertia values should be correctly estimated to have the better performance. The position tracking tasks of humanoid robot arms are tested to compare performances of several control algorithms including the time-delayed controller.

Design and Implementation of Low-Cost Articulate Manipulator for Academic Applications

  • Muhammad Asim Ali;Farhan Ali Shah
    • International Journal of Computer Science & Network Security
    • /
    • v.24 no.1
    • /
    • pp.17-22
    • /
    • 2024
  • The objective of this work is to design a low cost yet fully functional 4-DOF articulate manipulator for educational applications. The design is based on general purpose, programmable smart servo motors namely the Dynamixel Ax-12. The mechanism for motion was developed by formulating the equations of kinematics and subsequent solutions for joint space variables. The trajectory of end-effector in joint variable space was determined by interpolation of a 3rd order polynomial. The solutions were verified through computer simulations and ultimately implemented on the hardware. Owing to the feedback from the built-in sensors, it is possible to correct the positioning error due to loading effects. The proposed solution offers an efficient and cost-effective platform to study the trajectory planning as well as dynamics of the manipulator.

Development of a Force Measurement and Communication System for the Force Measuring System in Industrial Robots (산업용 로봇의 힘측정 시스템을 위한 힘측정 및 통신장치 개발)

  • Lee, Kyeong-Jun;Kim, Gab-Soon
    • Journal of Institute of Control, Robotics and Systems
    • /
    • v.22 no.2
    • /
    • pp.89-96
    • /
    • 2016
  • This paper describes the design of a force measurement and communication system for the force measuring system in industrial robots. The force measurement and communication system is composed of a multi-axis force sensor and a controller for measuring the forces (x-direction force, y-direction force and z-direction force) and sending the measured forces to the robot's controller (PLC: Programmable Logic Controller). In this paper, the force measurement and communication system was designed and fabricated by using a DSP (Digital Signal Processor). An environment test and a grinding and deburring test using an industrial robot with the force measurement and communication system with three-axis force sensor were carried out to characterize the system. The tests showed that the system could safely measure the forces from the three-axis force sensor and send the measured forces to the industrial robot's controller while the grinding and deburring test was performed. Thus, it is thought that the fabricated force measurement and communication system could be used for controlling the force for an industrial robot's grinding and deburring.