Dream Team Project Selection 1st Inertia Magnetic Induction Charging System Most of us have seen the flash lights that are powered by shaking them a few.

Slides:



Advertisements
Similar presentations
GMC Motorhomes International
Advertisements

DC Motors electrical machine1 J 2006.
Ch 8 Magnetism.
Introduction to NSF SPIRIT Workshop 2006 DC ELECTRIC MOTORS.
EE 306 DC MACHINES Hatem Al-Ghannam
PERSUASIVE TECHNOLOGY FOR PRIVATE OWNERSHIP Jack van den Broek Antonio Sáez García Sebastian Gommers.
Electricity and Circuits
Foundations of Physics
AccuMax Multi-Point Injection Mechanics
ELECTRICITY AND MAGNETISM
Magnetism Notes I. Magnetism – refers to the properties and interactions of magnets A. Magnetic force is the interaction between two magnets. A magnet.
1.4b Charging System 1. Charging System Function of the charging system 2 Convert mechanical energy into electrical energy Recharge battery Provide higher.
Electricity Electricity and Magnetism. Unit 5: Electricity and Magnetism Chapter 16: Electromagnets and Induction 16.1 Electric Current and Magnetism.
 An electromagnet consists of wire coiled around a solid core material, usually iron. The wire coil, or solenoid, generates a magnetic field when electricity.
Lecture 11 Magnetic field Generators and Transformers Motors Galvanometers Mass Spectrometer Cyclotron.
ISNS Phenomena of Nature
Generators Mrs. Brostrom Integrated Science C. Generators II. Magnetism can create electricity – A moving conductor (wire) in a magnetic field generates.
Electromagnetism Kyle Thornton DMI 50B. Magnetic Attraction and Polarity n ava/magneticlines/index.html
Lesson 9: Electrical Components
Electricity and Magnetism
Basic Electricity DC and AC What is Electricity? Electricity is a general term used for the presence and flow of electric charge. Electricity is a general.
P5 – Electric Circuits. Static Electricity When two objects are rubbed together and become charged, electrons are transferred from one object to the other.
Electromagnetic Induction Working independently in 1831, Michael Faraday in Britain and Joseph Henry in the United States both found that moving a loop.
6.11 Vocabulary Electromagnet: type of magnet in which the magnetic field is produced by a flow of electric current Core: metal (iron) center of an electromagnet.
Generators To explain how a generator works to produce electric current. To explain the difference between alternating and direct current.
Sustainable Electric Toothbrush Team 8 Brian McKellar Rui Liu Brendan Pinder Tom Dittman October 10 th, 2012.
Magnetism and Induction Early Ideas 4 Described by Ancient Greeks 4 “Lodestones” found on the Isle of Magnesia 4 North and South poles 4 Magnets obey.
Electromagnetism Hans Christian Oersted ( ) Discovered that moving electric charges (current) induces a magnetic field perpendicular to the flow.
ELECTRIC MOTORS An Introduction to DC and Stepper Motors.
Magnets Chapter 8.
PSAA Curriculum Unit Physical Science Systems. Problem Area Energy and Power Systems.
Unit 8 Magnetism `.
Magnetism Chapter 36. What is a Magnet? Material or object that produces a magnetic field. Two types:  Permanent  Electromagnet.
Electric Current You Light Up My Life. SC Standards PS 6-10 Compare alternating current (AC) and direct current (DC) in terms of the production of electricity.
Magnets and Magnetic Fields. Magnets Magnets can be used along with circuits to create an alarm – A magnet can pull a switch closed to complete the circuit,
Electromagnets By: Emily M.
Chapter 22 Electromagnetic Induction. When a coil of wire is in a magnetic field, the magnetic flux Ф is the strength of the field B multiplied by the.
Alternating and Direct Current Direct Current (DC) is the one way flow of electrical charge from a positive to a negative charge. Batteries produce direct.
Electricity & Magnetism Static, Currents, Circuits Magnetic Fields & Electro Magnets Motors & Generators.
Unit 6 Magnetism Chapter 8 Pages
Electricity and Magnetism Erik Larson Grade 5 Unit Overview.
DC Machines.
Electromagnetic Induction. Motion of a magnet in a coil or loop creates (induces) voltage If coil is connected to complete circuit, current flows Relative.
 Moving charges through wires makes the wire magnetic.
Small Engines Ignition System Ignition System Function Ignite the fuel and air mixture at the proper time. Advance and retard the ignition timing as.
Electrical Engineering Grade 10 ST May Electricity Static electricity: the jumping of electrons from one object to another causes static electricity.
Energy System Design: A Look at Renewable Energy Summary Lecture.
Electricity & Magnetism Ch 9 6 th grade. How do charges interact? Atoms contain charged particles called electrons (-) and protons (+). If two electrons.
Chapter Twenty-Two: Electricity and Magnetism  22.1 Properties of Magnets  22.2 Electromagnets  22.3 Electric Motors.
Electromagnetic Induction
TECHNOLOGIES ESO 4 UNIT 1: ELECTRICITY AND ELECTRONICS ANALOGIC ELECTRONICS (PART 1)
1 Figure 17.1 A Rotating Electric Machine. 2 Configurations of the three types of electric machines Table 17.1.
 The acronym KERS stands for Kinetic Energy Recovery System.  The device recovers the kinetic energy that is present in the waste heat created by the.
Energy Conversion Energy is all around you. You can hear energy as sound. You can see energy as light and you can feel energy as wind.
Introduction of Eddy Current Brake Presented By :~ jayanti hazra.
Data Logging & Control Systems
Effects of Magnetic Fields and Producing Current
Magnetism Notes I. Magnetism – refers to the properties and interactions of magnets A. Magnetic force is the interaction between two magnets. A magnet.
Physics Unit 6 - Magnetism
Unit 4 Electricity and Magnetism
Stepper Motors By Brian Tomiuk, Jack Good, Matthew Edwards, Isaac Snellgrove November 14th, 2018.
MAGNETISM AND ITS USES Producing Electric Current
Producing Electric Current
Chapter 17: Magnetism and Its Uses
Electricity and Magnetism
Unit 4 Electricity and Magnetism
Introduction to Motors
Presentation transcript:

Dream Team Project Selection 1st Inertia Magnetic Induction Charging System Most of us have seen the flash lights that are powered by shaking them a few times thereby charging the battery through currents induced into a coil by a permanent magnet. The power generated by these small charging systems is considerable when compared to the power needs of some of today’s electronics, but no one wants to go around shaking their mp3 player to keep it going. A solution to this lies in the movements we make everyday. A small percentage of the amount of energy used to walk from class to class could power an mp3 player for hours. Some of this “everyday” energy could be collected by very small scale magnetic induction charging systems woven into all types of clothing. Small nylon tubes could contain arrays of coil-permanent magnet sets, each magnet given enough space to move through one or two coil sets allowing it to pickup speed and thereby inducing more current. The tubes could contain a small amount of lubricant to keep friction down. The current could then be filtered and stored into a battery. Of course there would be a limit to how many of these tubes could be woven in before the user would start to feel the extra energy exerted to power the charging system. Also, the size of the tubes would have to be small enough to still be comfortable. For this project, given the manufacturing limitations, tube sizes would be ~.200” to.400” for testing whereas actual application may be ~.005” to.010”

2nd Smart Lights A vast amount of energy is wasted each year by household overhead lighting. A solution to this would be a “smart” lighting system where overhead lights would track a person around the room using a single light as well as where the person was going using a separate light. Once a person walks out of the light systems range, the lights turn off and possibly could send a signal to another set of lights corresponding to where the person was heading. Fewer total lights would be needed to provide the same overall lighting by standard lights and the amount of wasted electrical power would be lowered. 3rd Handi-Brush The Handi-Brush is a toothbrush for individuals with limited mobility that makes the dental cleansing process less of a hassle. It will be attached to the individual’s sink and be capable of moving in all directions to allow for easy access. This device will also be automatically loaded with toothpaste and have a 360º bristle design to allow for easy usage by any individual.

4th Small Running Humanoid Robot Most modern walking robots move very slowly compared with the running speed of the average person. This is due to the difficulty of creating a control system to handle the whole process. However, if the movements could be directed by a simplified controller that used partially closed-loop and mostly open-loop control, the task of running may not be so difficult to achieve. 5th Automated Leaf Raker One of the annoying outdoor tasks that many people have to deal with is raking their yards. To make this task easier a solution is developing an outdoor unmanned automated rake and vacuum. The idea and functionality of this device would be similar to the operation of the smart vacuum.

6th Stay-Dry Umbrella for Automobiles The Stay-Dry Umbrella is a mechanism that attaches to any automobile that allows the driver to get in and out of the car without getting wet on a rainy day. It includes a trigger in the inside of the car that causes the umbrella to deploy and then once the driver has exited the car the umbrella can then be detached from the housing on the mechanism and used like a regular umbrella. 7th Continuously Adjustable Damper System Most spring-damper systems utilize a dampener that is sometimes adjustable, however the dampener either has to be taken apart and “revalved” or its operation stopped while an adjusting screw is turned to increase or decrease its damping characteristics. A solution to this would be to create a dampener whose valve plate cut-out area was adjustable during operation by changing its rotation through electromagnetic windings much like that of a stepper motor. The valve would actually consist of two plates with cut-outs along half the edge of each plate. During full damping the cut-outs would be 180 degrees apart. If less damping is desired, one plate’s cut-out area could be rotated via the “stepper” windings towards the cut-out area of the stationary plate. If enough windings are used, a seemingly continuous variance in damping characteristics could be achieved.

8th Speak and Splash Voice activated shower apparatus for people with upper extremity disabilities. It has default temperature settings and the person may adjust the water temperature by saying "hotter" or "colder," depending on their preference.