Cyborg Beetle Michael Ampuan MIS 304 11/12/09.

Slides:



Advertisements
Similar presentations
SUMMITED BY:- GARGEE DEWANGAN PRAGYA SINGH HIRWANI MONIKA SAO SURBHI SAHU NAMRATA MAHLA.
Advertisements

System Identification of a Nanosatellite Structure Craig L. Stevens, Jana L. Schwartz, and Christopher D. Hall Aerospace and Ocean Engineering Virginia.
Swapneel Bobade – BOSKF93.  Technology is constantly changing in today’s world; different technologies are available for various purposes.  Bionic Vision.
Presenter- Dan Carey August 11 and 12, 2009.
Field Navigational GPS Robot Final Presentation & Review Chris Foley, Kris Horn, Richard Neil Pittman, Michael Willis.
Design 06 Karim Gilani Patrick Fakhir Jaydeep Patel.
Radio controlled vehicles
AERONAUTICS EXPLORER POST LETS GET STARTED!!!  THEORY  DESIGN/ IMPLEMENT  TEST/CONFIRM.
 A Spy robot is a mobile robot that can go through any neighborhood for the mission of your rescue team.  As the name suggests, Spy robot is a rescue.
Sensorid elusolendites ja tehnikas
C H A P T E R 19 Electric Potential Energy and the Electric Potential.
Aerial Observation Platform Jacob Cecil EKU - Dept. of Technology CEN.
gradually rises from 0 to 9V immediately drops from 9V to 0V
Background   Who does this project addresses to?   Handicapped.   Amputated limbs.   Paralyzed.   Motivation Statistics.
Locate Wildlife Attach to Arrow Access Arrow Attach to Wildlife Does not alter Shot Detach from Arrow Link to Animal Remains attached during Flight Protect.
A Mobile Sensor Network Using Autonomously Controlled Animals Yihan Li, Shivendra S. Panwar and Srinivas Burugupalli New York State Center for Advanced.
Technician License Course Chapter 2 Radio and Electronics Fundamentals Equipment Definitions Hour-1.
 Also called direct neural interface  The concept is linking between BRAIN and computerized system  Done by implanting electrodes into grey matter.
Global Positioning Systems Glen T. Huettl Agricultural Education Garrison High School.
Prosthetic Limbs By Philip A. Blair. Overview Prosthetics combines three main subjects: – Biology How the body connects to the synthetic limb. – Technology.
ES100 Engineering Design Project Micro Air Vehicle Group 1 Professor Kung.
Purdue  Airbus Software Design Jigar Gandhi - John-Taylor Smith - Chandler Wall - Eric Zarowny.
Discovery Kits: Electricity. 1.5 V Battery Batteries in series Closed switch Open switch V Motor Components.
How many of these symbols do you know?. BiohazardRadiation ToxicCorrosive 40 C washHand wash No BleachDo not wash.
Chapter 8 ELT Emergency Locator Transmitter. ELT History In 1972, a law was passed requiring aircraft to carry a radio beacon for search and rescue. This.
 A direct communication pathway between the brain and an external device.  Directed at assisting, augmenting, or repairing human cognitive or sensory-motor.
Physics Based Formation Behavior in Autonomous Robots Mark Patterson.
A presentation on SMART DUST
Introduction also sometimes known as pulse-phase modulation the amplitude and width of the pulse is kept constant in the system the position of each pulse,
Hardware Overview Autopilot Control Board- Serves as common platform for other components and has autopilot code and flight plans Battery- Powers the board.
How would you define a computer? Computers are... Electronic devices that receives (input), processes & stores data & produces a result (output).
Motor Air Vehicle Group 1 Jacky, Osama, Eddy, Abdul, Michael, Serge.
An Introduction to Amateur Radio. The purpose of Amateur Radio “To encourage self- training in radio”
2c) Energy and Potential Difference in Circuits Part 1 Current and Charge.
Smart Ball A Ball Tracking System Dorian Chen Stephen Gu Constance Lu.
CONTENTS INTRODUCTION WHO IS ELIGIBLE ? DEVICE WORKING
1 Center for the Collaborative Control of Unmanned Vehicles (C3UV) UC Berkeley Karl Hedrick, Raja Sengupta.
TELECOMMUNICATION. Communication over a long distance.
Mini Autonomous Flying Vehicle CASDE is part of the National effort to develop a Micro Air Vehicle. CASDE has chosen a Mini Vehicle, in the short term,
The design of the cell-phone implant :  A small chip that houses a receiver to pick up mobile signals.  A transducer to translate them into vibrations.
Remote control steering Considering a normal configuration of the airship like in the picture below:
Transcutaneous Electrical Nerve Stimulation (TENS)
Cell Phone Controlled Robotic Vehicle. Cell Phone Controlled Robotic Vehicle Introduction  The project is designed to develop.
PREPARED BY: Dhairya H. Giri. Introduction: In the Dark environment, it is highly impossible for Human Eye to see things clearly. For this reason, Night.
P07122: Autonomous Quadcopter Jason Enslin – EE: Team Leader, Circuit Design/Testing Glenn Kitchell – CE: Programming, Software Design Richard Nichols.
Brain Chip Technology | Presented to- Dr. Jia Uddin, BRAC University 2 Dung Beetle, Can lift upto 1141 times of it’s own body weight..
Artificial Cochlear Implants Geoff Norman 4/18/16
Vocabulary Hardware Flash cards Computer Science – Espinosa.
Electronic counter surveillance.
SOAREX VII Mission Design, construct, test, and fly an ultralight (
Overview 3 2 Introduction Design Analysis Fabrication Testing
Project of Network Analysis
MAV 101. MAV 101 MAV 101 MAE 598 – Special Topics Micro Air Vehicles.
Electronic Communication
Explaining Electricity
Cyborg Technology Adam Young.
Arduino Basics Rajeev Dwivedi, PhD.
Basic Electrical Circuits
Photonics and Electro-Optical Engineering
Electromagnetic Spectrum
EET2530 Unmanned Aerial Vehicles (UAVs)
The Microscope.
Classroom Rocket Scientist
Electromagnetic Spectrum Notes
The Space and Nuclear Arms Race
Managerial REVIEW UAV AIRFRAME B
Circuits _____________ ______________
Basic Electrical Circuits
Voltage in Electrical Systems
BIONIC EYE. HAMZA YOUSAF HAMZA YOUSAF 18-ME ME-113 ASAD RASOOL ASAD RASOOL 18-ME ME-116 IMRAN KHAN IMRAN KHAN 18-ME ME-119 Presented.
Presentation transcript:

Cyborg Beetle Michael Ampuan MIS 304 11/12/09

What is a Cyborg Beetle? Control the flight of a beetle Implanted with electronic components Components receive signals to command the insect Researchers have come up with a way to control the flight of a beetle. The beetle is implanted with electronic components and electrical signals deliver commands that control the insects take off, turning left or right, or hovering in midflight. 

How does it work? Electronic Components Microprocessor Radio receiver Battery attached to a custom-printed circuit board Electrodes implanted into insects optic lobes and muscles The electronic components attached to the beetle include of a microprocessor, a radio receiver, and a battery attached to a custom-printed circuit board. There are also six electrodes implanted into the insects optic lobes and flight muscles.

How does it work? Flight commands sent through a radio-frequency transmitter Electrical pulses sent to the optic lobes and flight muscles control flight Flight commands are sent to the beetle through a radio-frequency transmitter that's controlled by a nearby laptop. Oscillating electrical pulses delivered to the beetle's optic lobes trigger takeoff and a short pulse strops flight. Signals sent to the left or right flight muscles make the insect turn in that direction. http://www.youtube.com/watch?v=ZvWVQOWmHDM

Carrying the Weight Rhinoceros Beetles can carry up to 3 grams. Control pack weighs 1.3 grams Remaining weight ideal for a GPS and a microscopic camera. If you are worried about the weight that the beetle will be carrying, the rhinoceros beetle can carry up to 3 grams. The control pack only weight 1.3 grams and so the remaining weight would be ideal for a GPS tracking device and a microscopic camera.

Primary Use Research funded by DARPA (Defense Advanced Research Projects Agency) Military application Surveillance purposes Search and Rescue missions The Cyborg Beetle project is funded by DARPA which stands for Defense Advanced Research Projects Agency. The beetle will be used for the military purposes. Surveillance behind enemy lines and search and rescue missions.