Robot design-- Four legged walking robot Instructors: Dr. A

Slides:



Advertisements
Similar presentations
SOUTHEASTCON I KARMA ECE IEEE SoutheastCon Hardware Competition Must build an autonomous robot that can –Start at rest at the Starting Station.
Advertisements

Introduction  If you have ever been to shooting range before, you know that firing a gun is fun. Time flies when you’re sending hundreds of rounds down.
Controlling Robot Car via Smartphone Supervisor: Dr. Jamal Kharousheh Prepared by : Hamza Qaddara Esmat Hedariya Hareth Hanani Faculty of Engineering Telecommunication.
OutLine Overview about Project Wii Robot Escaper Robot Problems and Solutions Demo.
Jennifer Goodall, Nick Webb, Katy DeCorah
CSE Design Lab – Milestone 2 James Hopkins Dave Festa Dennis O’Flaherty Karl Schwirz.
Robix.
Senior Project Design Review Remote Visual Surveillance Vehicle (RVSV) Manoj Bhambwani Tameka Thomas.
Jennifer Goodall, Nick Webb, Katy DeCorah
Remote Surveillance Vehicle Design Review By: Bill Burgdorf Tom Fisher Eleni Binopolus-Rumayor.
Deon Blaauw Modular Robot Design University of Stellenbosch Department of Electric and Electronic Engineering.
Robotics Lego NXT Mindstorms.
EIGHTH GRADE ROBOTICS KITTATINNY REGIONAL HIGH SCHOOL MR. SHEA Introduction to Robotics Day4.
Introduction.
The NXT is the brain of a MINDSTORMS® robot. It’s an intelligent, computer-controlled LEGO® brick that lets a MINDSTORMS robot come alive and perform.
EDGE AVOIDER ROBOT USING I-BOT mini V3. EDGE AVOIDER USING I-BOT mini V3 Edge Avoider Robot is built using the IR based Line Detecting Module. The modules.
Design and Implementation of Metallic Waste Collection Robot
Controller, Sensors and Motors Ding Ke Tutorial 1, UGB 230N.
1 Servo Motor. 2 Overview A servo motor is a motor that is only capable of rotating 180 degrees A servo motor is controlled by giving it an angle to proceed.
Shaojie Ge Design Overview  The robot simulates the movements of a four leg walking animal. Its basic function include: Walking with four legs,
Electromechanical Systems “Robotic Sorting System” Brent GuyJonathan Penney.
LEGO Mindstorms NXT Introduction. Component NXT Brick Touch Sensor Light Sensor Ultrasonic Sensor Interactive Servo Motors MMN Lab.
Remote Control of a Furby Toy with Bluetooth
Ruslan Masinjila Aida Militaru.  Nature of the Problem  Our Solution: The Roaming Security Robot  Functionalities  General System View  System Design.
HEAT SEEKER Eduardo Lichtenfels Riccio Oral Presentation IMDL – January 30,2014.
Staircase Climber Project submitted by: Shraddha Joshi Soham Mohidekar
HEXAPOD ROBOT MINI PROJECT B-TECH ELECTRONICS AND COMMUNICATION ENGINEERING SIXTH SEMESTER ASWATHY.K RANJITH.R SREELAKSHMI.M SREEYENAN.E.K GUIDE Ms.Sreebala.P.
Smart Plant Robot Prepared by Haya De’bas Jumanah Salhab Supervisor Dr. Ra’ed Al-Qadi.
Team: Justin Audley, Blake Brown, Christopher Dean, Andrew Russell, Andrew Saunders Advisor: Dr. Richard A. Messner Sponsors: Dr. Richard A. Messner, UNH.
Shaojie Ge Special Sensor System  My special sensor system is the walk mechanism of my robot. Since my robot is a walking robot with four legs.
Pool Player Bot Final Presentation Jiaying Zhang Mechanical Engineering.
Humanoid Robot Head Dan Potratz Cody Genkinger Tim Meer Jason Pollard Andrew Taylor.
Ouimet Golf Playing Robot - Shashank G. Sawant. Topics covered: Block and Circuit Diagram Sensors : – CMUCAM – OPT101 The mechanical Hardware Behaviour.
Are we like robots? JEOPARDY Center for Computational Neurobiology, University of Missouri.
WELCOME TO ARDUINO E-DAY CAR PROJECT MEETING – ITALY MARCH.
Lynxmotion Robotic Arm
ΜCHIP Micro-Controlled High-tech Independent Putter.
Autonomous Helicopter EE 496 James Lyden Harris Okazaki.
The George Washington University Department of ECE ECE Intro: Electrical & Computer Engineering Dr. S. Ahmadi Class 4/Lab3.
1 RoboticsPresents KaaShiv InfoTech For Inplant Training / Internship, please download the "Inplant training registration form" from our website
IBM - CVUT Student Research Projects Robotic Head with Mimic Facial Movements Jan Kofroň
IBM - CVUT Student Research Projects Robotic Head with Mimic Facial Movements Jan Kofroň
1 RoboticsPresents KaaShiv InfoTech For Inplant Training / Internship, please download the "Inplant training registration form" from our website
P13203 TigerBot Extension Mike Lew (ISE), Dan Wiatroski (ME), Tom Whitmore (ME), Geoff Herman (ME), Sean Lillis (CE), Brian Stevenson (EE), James O’Donoghue.
Robot Project by Ahmad Shtaiyat Supervised by Dr. Salem Al-Agtash.
Software Narrative Autonomous Targeting Vehicle (ATV) Daniel Barrett Sebastian Hening Sandunmalee Abeyratne Anthony Myers.
Robotic Arm and Dexterous Hand Preliminary Design Review November 12, 2004.
Wall-Follower Xiaodong Fang University of Florida School of Electrical and Computer Engineering Automatic Wall Following & Color Detecting Robot.
 Definition of Micro-Controllers  Comparison between types of Micro- Controllers  Pin Identification of ATMEGA32.
ROBOTIC COMPONENTS, MOVEMENTS AND ARTICULATION DESIGN & APPLIED ENGINEERING II MR. RANDT.
The Guardian By: Adam Hoyt. Functions To traverse throughout a house during the day without hitting objects, or becoming stuck in a specific spot. To.
Lynxmotion Robotic Arm © 2013 Project Lead The Way, Inc.Computer Integrated Manufacturing
Bullfighting Autonomous Robot “BULL” IMDL Spring 2010 Aminatu Oyebanjo April 8, 2010.
Forward Until Near Stop when near a wall.
P15201: TIGERBOT V Special Thanks to… George Slack (Guide) Ferat Sahin (Customer) John Chiu (Mechanical Engineer) Yingyi Chen (Industrial Engineer) Christine.
Intelligence Crane By: Maysoon Ashayer Muna Sholi Supervised by:
P15201: TIGERBOT V Mechanical Design: Electrical Design:
Obstacle avoiding robot { pixel }
Lynxmotion Robotic Arm
VEX IQ Curriculum Smart Machines Lesson 09 Lesson Materials:
Automatic human detector garbage can.
Program the robotic arm
An-Najah National University Faculty of Engineering Walking Robot
Smart Car Robot Prepared by Supervised by Mai Asem Abushamma
Touch Sensor.
By: Zeeshan Ansari, BEng (Hons) Electronic Engineering
M.VIKRAMADITYAN Graduate Student Mechanical Engineering
Project Schematics Circuit Working Principle and Equations
Intro to Robotics It’s YOUR FUTURE.
Servo Motor.
Presentation transcript:

Robot design-- Four legged walking robot Instructors: Dr. A Robot design-- Four legged walking robot Instructors:   Dr. A. Antonio Arroyo Dr. Eric M. Schwartz TAs:  Josh Weaver Devin Hughes Andy Gray Shaojie Ge 83935715

Design Overview The robot I want to build simulates the movements of a dog. its basic function include: Walking forward and backward straight with four legs, sensing the obstacles in its way, going back when approaching an obstacle, bending over, getting up, and making some sound while walking.

1. Main Structure The robot has 4 legs and 13 degree of freedom. Each of the legs has 3 joints (3 degree of freedom), and every degree of freedom is to be accomplished by a embed servo motor. Given certain electrical pulses, the servo motor will make the joint perform the desired rotation of the joint. The last degree of freedom is located on the head part of the robot so that it can turn around its head.

2. Control and sense system I use Arduino mega 2560 r3 as the controlling board of the robot. It has a number of facilities for communicating with a computer, or other microcontrollers. The ATmega2560 provides four hardware UARTs for TTL (5V) serial communication. By using UARTs of Arduino mega 2560, I can transmit data between Arduido mega 2560 r3 and SSC-32 servo motor control board.

I use SSC-32 servo motor controller to control the servo motors of the robot. SSC-32 servo motor controller is connected to Arduino via a RS232 Bus for data transmission. The reason I select it is that SSC-32 can be able to control several motors at the same time. And it can make motors move at desired speed, or move within a desired period of time.

The sensor I want to use is the ultra red ray sensor for obstacle avoidance. A ultra red ray sensor has a transmitting tube and a receiving tube. When the red ray is reflected by obstacles, it is detected by the receiving tube and the sensor then sends a digital signal to inform the robot to go back.

3.Walking Mechanism In my robot design, I will use alternating waking mechanism. In alternating gait, the movement of each leg can be divided into two parts. They are uplifting and advancing. When a leg’s adjacent legs begin to touch the ground, the leg starts upshifting and moving forward. Similarly, when this leg is touching the ground and starts advancing and moving backward, its adjacent legs start moving forward. Thus, the submissive four legged walking gait can be maintained continuously.

Figure 1 Walking mechanism A In figure 1, it represents the first gait the robot perform when walking straight, the lines with the same color indicate legs on the same side of the robot. The curving leg drive the robot to advance, while the stretched legs is upshifting in order to perform the next step.

Figure 2 Walking mechanism B In figure 2, it represents the second gait the robot perform when walking straight, and the stretched legs of figure 1 now move backward, they become curved, this gives the robot a force to advance, while the other two legs now upshift forward for next step.

4.Conclusion So far I have designed the robot to walk straight and sense obstacles. I considered the walking mechanism of the robot. I have selected my controlling board and the sensor.

5.Future work To complete my work, I should buy the sensor and motors, I should also design and build the mobile platform properly. I have seen videos and documents talking about this walking mechanism but I found the turning mechanism of this kind of robot is rarely discussed, and that is something I should focus on in the future.