Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Does Wheel Size Matter? Starter Kit.

Slides:



Advertisements
Similar presentations
Information contained here is taken from Junction Hill.
Advertisements

Cree EnnaChristina Dickens Kristin ForrestLouise Jones.
1 Student Objective Explain how speed of an object relates to the energy of that object. To identify the 2 different forms of energy Warm Up WHY did the.
Marking Parachute Plan
MOUSETRAP CAR LAB WRITE-UP GRADING Tahoma Jr. High 8th Grade Science
CAPT Lab.
Bicycle Aerodynamics by S.E. Cossey Mr. Cossey period x September 20, 2000.
Available at: – Program Optical Quad Encoders in Autonomous Mode Program optical quad encoders in autonomous mode.
Braking Distance and Speed
DC Motors DC Motors are widely used in robotics because of their small size and high energy output. Key characteristics of DC motors include: 1. High Speed.
Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. CURRENT DRAW Overview In this lesson you will learn: Current flow Causes of excessive current flow.
Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Programming in easyC.
Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Wheel Size Matters: Programmed Rotations.
MECHANICAL ADVANTAGE Overview
Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Dimensioning the Vex Plus Gusset.
Introduction to Sensors
Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. How Much Can a Motor Lift? In this.
Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Does Wheel Size Matter? Starter Kit.
Vex 1.0 © Carnegie Mellon Robotics Academy Inc. RADIO CONTROL TRANSMITTER Overview In this lesson you will learn: Relationship between remote control transmitters.
Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Electromagnetic Solenoid This lesson will explain the purpose behind an Electromagnetic Solenoid and.
Copyright Carnegie Mellon Robotics Academy all rights reserved Radio Frequency In this lesson you will learn: –The relationship between (RF) transmitters.
The Flight Project Power Point S.T.E.M Fair Project.
BY: Jorge Quesada Research Elasticity Friction Air Resistance.
Notes from 8/29/13. T-Charts (cont.)  Check Units!  For given information (2), check that same quantities have the same unit (ex. time: s and min should.
Shawnee Mission School District Science Fair. Speed.
Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. REMOTE CONTROL Overview In this lesson you will learn: The relationship between (RF) transmitters.
Application of Math and Science Principles Creating a robot that moves a specified distance straight ahead and Creating a robot that turns a specified.
ROBOTIC DESIGN CHALLENGE Robotics and Automation Copyright © Texas Education Agency, All rights reserved.
In the original lesson we learned that a robot should move forward a specific distance for each rotation. That distance traveled is equivalent to the.
Does More Powerful Really Mean More Power?
Master Driver. Master Driver Activity Your Engineering Challenge Make your robot move in a straight line from the start position, and make it stop accurately,
Product Evaluation & Quality Improvement. Overview Objectives Background Materials Procedure Report Closing.
Inquiry Lab. What are some things we could change? Temperature of milk Milk type Soap type No soap.
SCIENCE INQUIRY LAB STATION 1 PERIOD 6. PROBLEM/ QUESTION: Will the texture of a surface change the amount of friction?
By: Hanna Briestensky Problem Determine how the height from which the ball is dropped, effects how high that the ball will bounce back up.
Designing a Lab Investigation An overview. First is the Question The investigative question looks at how the manipulated variable affects the responding.
Planning a Speed Investigation You will choose the independent variable. GOAL: find a way to increase the velocity of the car once it crosses the photogate.
Participants Kristen Lyne Krystle Goetz Austin Nichols Jaron Nichols.
Lab 13 Physics Central Baptist Christian Academy.
By: Will Schubert. Determine how the height you drop a ball from affects the height the ball bounces back up. Problem.
Bellwork (4/14) What are electromagnetic waves? Waves that consists of oscillating electric and magnetic fields.
EG1003: Introduction to Engineering and Design Product Evaluation & Quality Improvement.
WEDNESDAY, JAN. 7 TH p. 124, 125. WEDNESDAY, JAN. 7 TH 124 1/7/15 Wed. L.T.: I can write a hypothesis and a procedure to a lab designed to analyze where.
Mass Comparison Lab By: Nick L Jess F Sarah S Halle B.
Directions: Use this template to create your Powerpoint presentation about your rocket experiment. You may personalize this as much as you want, but please.
Problem or Background Information And Variables Procedure Pictures Results Paragraph Data Table Graph.
Sailing the Ocean Blue.  How does wind speed affect travel time of a sailboat? Testable Question.
Lab: Linear Motion Experimental Procedure:
STEP TO THE BEAT Alaina Kelly Gini Vincent. PROBLEM  Which activity increases your heart rate the most in a 60 second time period ?  Push- ups  Running.
Robotics Programming Wall Follow Line tracking for a set amount of time Line tracking for a distance.
3,2,1 Blast Off! Rocket Lab.
Robo-Math How Far? The Distance a Robot Travels in One Rotation of the Motor = The Circumference of the Wheel Circumference (of the Wheel) = Diameter (of.
Rotocopter Lab ~I can calculate speed..
Lab: Linear Motion Experimental Procedure:
Please insert each part of your project where indicated below.
SCIENCE 1206 – MOTION Unit 3 Slideshow 3 - GRAPHS.
Product Evaluation & Quality Improvement
Product Evaluation & Quality Improvement
Multitasking Emergency Stop Computer Integrated Manufacturing
Robotics Programming 9/18/2015.
Robotics Programming 9/18/2015.
David Kennedy December 6th 2014
Robotics Programming Using Shaft Encoders
Bear River Rocket Club Parachute Project 2
Wednesday, February 22, 2017 Day 1
Wednesday, February 22, 2017 Day 1
Title Cover Page You can add slides to print your title in larger text if needed but remove after. This page is for teacher and should not be on the board!
Tumblebuggy Lab: Part 1 Purpose: to determine the speed of your Tumblebuggy. Procedure: Use a piece of masking tape to mark the starting line for your.
Hosted by Mrs. Joshu.
Presentation transcript:

Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Does Wheel Size Matter? Starter Kit Investigation Introduction: An Investigation into the effect changing wheel size has on the speed reached in a set distance.

Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. The Investigation Hypothesis: A larger size wheel will reach a higher speed in a given distance. Variables: –Independent: Wheel size (3 diameters) –Dependent: Distance traveled

Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Practical Applications Prepares the student to understand gears and ratios Helps in design of robots, especially where speed is an important factor

Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Prepare Test Bed Prepare the test bed by taping a start line near the edge. Add a finish line 72 inches away.

Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Modify the Squarebot Please note: if you have a programming kit and have downloaded any programs to your controller, you will need to download the default code before beginning this investigation. Select Build & Download/Download Default Code on the Easy C interface. (If you have not downloaded any programs, the default code is still on your Vex controller.) Modify the Squarebot as shown in Resources/Wheel Size Starter Kit Slide Show.

Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Step 1 Position the Squarebot Position the Squarebot behind the start line.

Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Step 2 Run the Trial Run the vehicle by activating both paddles on the remote control simultaneously.

Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Step 3 Measure Time Begin the timer as the front wheels cross the start line. Stop the timer when the front wheels cross the finish line.

Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Step 4 Record Time Record this distance on a data table of Wheel Size vs. Time and Speed CONDITION (Wheel Size) TIME (seconds) Average Speed (in./sec.) 12345Avg. Time 1 (Small) Diameter= ______ in (Medium) Diameter= ______ in. 3 (Large) Diameter= ______ in.

Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Step 5 Gather More Data Repeat the procedure at least two more times to insure that your measurements are accurate

Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Step 6 Average Speed Find the average of the trials for the condition and record it on the table. Calculate the average speed of the Condition Example:

Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Step 7 Medium Wheels Switch to medium sized wheels and repeat the steps #1-6 with the new wheels.

Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Step 8 Large Wheels Switch to the large wheels and repeat in the same manner as the other sized wheels.

Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Step 9 Measure Wheel Diameter Find the diameter of each of the wheels in inches. Record the value on the data table.

Copyright Carnegie Mellon Robotics Academy all rights reserved Vex 1.0 © 2005 Carnegie Mellon Robotics Academy Inc. Plot Diameter vs. Distance The plot is a powerful visual demonstration leading to a clear conclusion As wheel size increases, speed increases proportionally.