Iowa State Science Center

Slides:



Advertisements
Similar presentations
Client: Dept. of EE/CprE (Vicky Thorland-Oster) Advisors: Jason Boyd Manimaran Govindarasu Team Members: Derek Bond (EE) Matthew Schulz (EE) Si-myung Yang.
Advertisements

EML 2023 – Motor Control Lecture 4 – DAQ and Motor Controller.
Team 7 / May 24, 2006 Web Based Automation & Security Client Capstone Design Advisor Prof. David Bourner Team Members Lloyd Emokpae (team Lead) Vikash.
Wind Turbine Simulation (Phase IV) SDMAY Advisor: Dr. Venkataramana Ajjarapu.
Exhaust Emissions Analyzer Introduction In a day when global CO 2 levels are one of the greatest concerns of society, surprisingly few advances have been.
FOLLOWER SENSORS AND ACTUATORS EE 552 INTSTRUCTOR :Dr MOHAN KRISNAN BY MOHAMMED KASHIF IQBAL ANESH BODDAPATTI UNIVERSITY OF DETROIT MERCY.
Flatiron Mobile Device Security Monitor Thomas Horacek Lucas Greve.
Arduino Week 3 Lab ECE 1020 Prof. Ahmadi. Objective Data acquisition (DAQ) is the process of measuring an electrical or physical phenomenon such as voltage,
Multidisciplinary Engineering Senior Design Project 6508 Controls Lab Interface Improvement Critical Design Review 2/24/05 Project Sponsor: EE Department.
SD Dec Team Members Client / Advisor Acknowledgements Victor Villagomez Cpr E Joe Grady E E Dr. Gary Tuttle Leland Harker Prakalp Sudhakar E E James.
Introduction.
Inventory Control in Stores Dec05-09 Team: Jeff Benson Frederick Brown Christopher Reed Brian Wagner Date: December 6, 2005 Client: ISU Senior Design Program.
Energy Smart Room GROUP 9 PRESENTERS DEMO DATE SPECIAL THANKS TO ADVISOR PRESENTERS Thursday April 19, 2007 Department of Electrical and Systems Engineering.
High Speed, high common mode immunity communication interface Team May12-05 Chendong Yang Mengfei Xu Advisor: Nathan Neihart Client: RBC Medical Development.
Helicopter Data Acquisition System ECE 4522 Senior Design II.
Team Members: Nahiyan Ali Shrabantee Chatterjee Vaibhav Kumar Alex Weigel Tao Zeng Advisor: Dr. Mani Mina Client: Senior Design Dr. Gregory Smith.
SMART House Kia Graham Tyangelio Gaines Ebony LeBlanc Southern University and A & M College College of Engineering and Computer Science Department of Electrical.
Communication Device for Handicapped Kids Dec Client Heartland Area Agency Sue Young Advisor Yao Ma Advisor Yao Ma Alex Leith Brian Grove Steve Peters.
Viking Pump Flow Manager - Phase 2 Senior Design May
Department of Electrical and Computer Engineering Lighting Tool Box Winter 2004 ECE 498 Team Members: Nick Sitarski Blaine Thompson Brandon Harris Dave.
DEC0905 Remote Control of Home Appliances ABSTRACT The objective of this project is to enable users to remotely control home appliances and systems over.
Jeffrey Hepworth Erik Mauer Brendan Murphy David Rodriguez VEND Team VEND‘etta’
Texas Integrated Energy Solutions. Development Team, Background, Objective, & Justification 2.
Flatiron Mobile Device Security Monitor Thomas Horacek Lucas Greve.
Power Control System for a Concrete Durability Test Cabinet – Phase 2 Jacob Jameson Madhav Kothapalli Thomas Persinger Andrew Versluys.
Scott Coffin Adam Faucher Jason Graika Brian Voelz Client: Honeywell Advisor: Dr. Zhengdao Wang.
SDMAY11-01 Advisor: Dr. Ajjarapu Team Members: Luke Rupiper Shonda Butler Andrew Nigro Ryan Semler Chad Hand.
Educational Laboratory Virtual Instrumentation Suite (ELVIS) May Client: National Instruments Advisors: Dr. Mani Mina, Dr. Diane Rover Group Members:
FPGA Controlled Laser Assembly FPGA Controlled Laser Assembly Project Dec03-07October 8, 2003 Client National Instruments Faculty Advisors Professor Mani.
Mixed-Signal Option for the Teradyne Integra J750 Test System May08-12 Emily Evers Vincent Tai.
The group will focus on the design of a “smart” device. This includes researching the best method of design and fabricating the design to create a working.
Overview What is Arduino? What is it used for? How to get started Demonstration Questions are welcome at any time.
ISU Science Center : Phase 3 : Dec Speedometer Station This station matches two areas of study into one cohesive system. Current will be induced.
Michael Lisoski Leblanc Meneses Jason Schaer Bryan Staton.
Incoming Power Grid Monitor TEAM #3: JAMES MCCORMICK, ZHIHOUG QIAN, JACOB JEBB, VICTOR EZENWOKO, ALEX LANGE FACILITATOR: DR. ASLAM SPONSOR: GREAT LAKES.
Remote Control of Home Appliances PROJECT PLAN Team: ◦ Elie Abichar –CE ◦ Chris Tefer –CE ◦ Ananta Upadhyaya.
 Engineers have led the way on project management, it is now “hot and trendy”.  #1 Area of Continuing Education reported by Penn State Behrend ECE alumni.
Mobile EKG Sensor Senior Design May0530 ABSTRACT PROJECT REQUIREMENTS The goal of this project is to develop a method of collecting heart rates using Vernier’s.
Optical Encoder for a Game Steering Wheel May05-26 Client: Thomas Enterprises Advisors: Dr. James Davis Dr. Douglas Jacobson Team Members: Sam Dahlke,
Introduction ProjectRequirements Project Requirements In a previous senior design project, a wireless front-end was added to Iowa State University’s Teradyne.
High-Intensity Focused Ultrasound Therapy Array May1005 Alex Apel Stephen Rashid Justin Robinson.
P08311: FPGA Based multi-purpose driver / data acquisition system Sponsor: Dr. Marcin Lukowiak Team MemberDisciplineRole Andrew FitzgeraldCEProject Manager/FPGA.
Advisor: Zhao Zhang Team Members: Chris Chambers Christopher Reis Alex Dean Luke Breuer SPALDING GYMNASTICS SCOREBOARD Client: Spalding Advisor: Zhao Zhang.
RFID AC SWITCH Mid-Term Presentation September 30, 2008.
PC Based Spectrum Analyzer April 29, 2003 May03-10 Faculty Advisor: Dr. DJ Chen Michael Cain Paul Heil Eric Rasmussen Aung Thuya Client: Teradyne Inc.
A Presentation on Mr. SAJID NAEEM M.SC – Electronics (UOP) PG-DEP (C-DAC)
Digital Carpool Aid Mid-semester Presentation Senior Design I March 5, 2015.
ECE445: Senior Design Spring 2015 Team 17: Weather Jukebox Sang Yun Bang, Thomas Fedrigon, Shanda Lu.
ECE445 Presentation Smart Umbrella Group 35 : Dominic Antonacci, Jonathan Buie, Martin Miller TA: Cara Yang.
1 Microcontrollers. 2 Programmers work in the virtual world Machinery works in the physical world Microcontrollers connect the virtual and physical world.
P10203 LV1 MOTOR CONTROLLER FINAL REVIEW MAY 14, 2010 Electrical: Kory Williams, Adam Gillon, Oladipo Tokunboh Mechanical: Louis Shogry, Andrew Krall.
Inertial Measurement Unit. Project Advisor: Dr. Basart Client: Matt Nelson Team Members (491): Matt Ulrich Luis Garcia Amardeep Jawandha Julian Currie.
Arduino Week 3 Lab ECE 1020 Prof. Ahmadi. Objective Data acquisition (DAQ) is the process of measuring an electrical or physical phenomenon such as voltage,
Application Case Study Christmas Lights Controller
EET 2259 Unit 12 Data Acquisition
Intro to USB-6009 DAQ.
Home Automation Instructor: Dr. Gursel Serpen
Home automation using Arduino & ‘PIR sensor’
Microcontroller Enhancement Design Project
Team #3: Group Members Adam Davis Tony Johnson Peter Meyer Isaac Krull
Multiple-Output, Variable-Output DC Power Supply - Phase 2 May 04-08
A Secure Wireless Interface between Personal Digital Assistants (PDAs)
Systems Analysis and Design
Project Members: M.Premraj ( ) G.Rakesh ( ) J.Rameshwaran ( )
Garage Parking Indicator
EET 2259 Unit 12 Data Acquisition
DEC0807: Iowa State Science Center
Image Acquisition and Processing of Remotely Sensed Data
Intelligent HVAC Control
Switching & Controlling LoB
Presentation transcript:

Iowa State Science Center Client: Iowa State (Thorland-Oster, Vicky) Advisors: Dr. Jacobson, Douglas W Team: Moran, Alex S Kang, June K You, Seung H

Problem Statement

Concept Sketch

System block diagram

System description

Operating environment All equipment shall be capable of operating without degradation between 10⁰C and 52⁰C All equipment shall be capable of operating without degradation over a humidity range of 0-60% (standard indoor humidity) All equipment shall be capable of operating without degradation by means of a standard wall outlet. All equipment that does not require 120VAC shall be capable of operating with limited risk (cost) involved. All equipment shall be encased in such a way as to minimize risk of breaking by human interaction. All equipment shall be protected and wired so that no electric shock risk is present.

Functional requirements The Sonar Array shall be capable of detecting objects from four different stationary points. The Sonar Array shall be capable of detecting objects between 3 and 21 feet from the sensor. The Sonar sensors shall be capable of being interpreted by an analog to digital converter. The heat sensor shall be capable of operating between 0 and 100 degrees Fahrenheit. The Heat sensor shall be capable of being interpreted by an analog to digital converter. Recognition distance shall be operational between 0 and 2 meters. The RFID shall be capable of recognizing no less than 100 different signals. The RFID shall be capable of transmitting information via an Ethernet connection to the main computer. The RFID shall be capable of connection with the computer via RS-232 for RFID software updates.

Functional Requirements (Continued) The RFID shall be capable of writing tags at a distance of at least 6 inches. The LED display shall be capable of transitioning between different intensity values. The LED intensities will be individually dependant on the inputs from the chosen input signal. The LED display shall have independent control for each light bar. The monitor shall be able to output RFID identification The monitor shall be capable of displaying the current thermistor heat value. The monitor shall be capable of displaying the Bluetooth information The monitor shall be capable of being read in ambient light. The Controller shall be capable of switching between at least 3 different devices.

Non-functional requirements The ISSC shall contain 4 sonar sensors. The Sonar sensor shall be capable of operation between 3.5 and 5.5 Volts The ISSC shall contain 2 heat sensors. The heat sensor shall be capable of outputting between 0 and 5 volts. The ISSC shall contain 1 RFID reader. The RFID reader shall operate at a range of 860 MHz to 906 MHz The RFID shall utilize a built in antenna. The RFID shall operate off of a 120V power supply The ISSC shall contain 5 different LED color bars. The ISSC LEDs shall not be degraded by operation at maximum radiance. The ISSC LEDs shall operate off of a 12 volt power supply. The monitor shall be viewable from any point in the room The monitor shall be color The monitor shall be able to output RFID identification The monitor shall be capable of displaying the current thermistor heat value. The monitor shall be capable of displaying the Bluetooth information The ISSC shall include a Bluetooth antenna. The controller will be encased in such a way as to protect from damage.

Project schedule

Deliverables: Project Evaluation User Manual Scripts Test Results

Test Procedures

Users manual

Cost Analysis Item Description Part Part # Cost Per Unit Total Units Total Cost LED Driver STC2 49706560-1-ND ($5.07) 8 ($40.56) Therm. Driver INA330 296-13861-1-ND ($3.83) 2 ($7.66) Sonar Maxbotix LV-EZ1 SEN-00639 ($24.95) 4 ($99.80) LED (RED) N/A ($10.45) 3 ($31.35) LED (Blue) ($14.99) ($29.98) LED (White) ($19.99) ($39.98) LED (Green) ($15.99) ($31.98) LED (Amber) LED Total ($71.87) $12.00 ($164.64) DAC NI USB-6008 $0 1 $0.00 Thermistor (Unknown) TOTAL 41 ($312.66) Difference ($162.66) Item Website www.ni.com LED www.cconcept.com www.digikey.com http://sparkfun.com/commerce/product_info.php?products_id=639 Unknown - Product donated by Ahern Heating and Plumbing Thermistor Driver

Effort Budgeted (In Hours) Hours Analysis Task Effort Budgeted (In Hours) Actual (In Hours) Cost Budget Actual Cost Cost Difference Total Hours Desired 270 340 $3,240.00 $4,080.00 ($840.00) Software Development 120 $1,440.00 $0.00 Hardware Development 45 114 $540.00 $1,368.00 ($828.00) Testing 70 66 $840.00 $792.00 $48.00 Documentation 35 40 $420.00 $480.00 ($60.00) Totals Team Member: Alex Moran 90 78 $936.00 18 $216.00 29 $348.00 24 $288.00 Total Hours 149 $1,788.00 June Koo Kang 22 $264.00 48 $576.00 7 $84.00 95 $1,140.00 Seung Han You 20 $240.00 19 $228.00 9 $108.00 96 $1,152.00

Issues Timing limitation with DAQ. Several Solutions have been attempted, No practical solutions with available hardware given functional requirments Still waiting for dedicated computer. PCB has not arrived in time.

Changes Made to the Program PWM – Linear to discrete Stages Reason: Limitations of the DAQ-6008 Sound-LED interaction Reason: Timing issues between DAQ and sound acquisition. Sound Output Reason: Computer limitations. Software exists, however drivers were unable to install due to internet problems with the current computer (untested).

Hardware specification 1) ni usb-6008 oem GND AI0 AI4 AI1 AI5 GND AI2 AL6 AI3 AI7 AO0 AO1 Sonar 1 Sonar 2 Sonar 3 Sonar 4 Heat 1 Heat 2 +5 +2.5V PFIO P1.3 P1.2 P1.1 P1.0 P0.7 P0.6 P0.5 P0.4 P0.3 P0.2 P0.1 P0.0 LED DRIVER 1

2) sonar

3) Thermistor & INA330

4) Rfid

5) LED driver

software specification LabView VI hierarchy shows the software hierarchy for the system.

1) Graphic user interface The GUI displays the controls for device selection, Manual light control, RFID recognition, Sonar control, Thermistor control, Sound pressure information, and information push buttons with description bar.

2) control The Control within the GUI selects how the system will be operating.

3) DaC analog signal acquisition SIGNAL ADDITION DAC PWM VALUE

4) SOUND CONTROL The sound input has a different functionality than the other inputs. OBTAINING A SOUND SAMPLE

5) MANUAL CONTROL Allows the user to customize the rooms color scheme to their desired preferences.

6) PWM GENERATION Although the functionality of the PWM changes between the sound input, manual control and the DAC inputs, the logic is identical for all instances.

7) RFID CONTROL

PCB Schematic (LED Driver)

PCB Schematic (INA330)

PCB Layout

Testing Sonar Sensors Led Light Bars LED Driver Thermistor DAQ-6008 Range and functionality are verified. Noise levels are determined for different ranges of each sensor High Noise: Continuous changes in voltage read Medium Noise: Takes some time to find distance Low Noise: Distance is found quickly, with little to no signal distortion. Led Light Bars Current and functionality has been verified for each unit. All LED light bars will be operating at 12.5 volts, driving roughly 2.5 to 3 amperes of current when on. Average power is dependant on the duty cycle. LED Driver The Driver has been tested using a signal generator for functionality. 5 different test points were chosen, and it was verified that noticeable light control occurred. Testing is still in progress for integration. Lights are blinking (computer limitations). Thermistor Resistivity, and functionality has been verified for both thermistors. Temperatures were checked and verified between the two devices in different ambient temperatures, and with applied heat. DAQ-6008 Input functionality has been verified. Resolving output capability. Sound Sound input capability has been verified. Sound output is in progress for the RFID. A redesign is necessary for the functionality of the sound to light functionality.

CONCLUSION While this project was set out to originally be a smaller scope than other projects (due to the small group size), there were definitely some challenges which needed to be overcome in order to successfully complete the Iowa State Science Center, including the need to completely learn several programs from the ground up, with no prior experience. Despite some small bugs within the system, our group believes that the project was, overall, successful. The only implementation which was not included is expected to be included with the next senior design team, and should be ready for demo by its intended date at Veisha. This project has been good experience for the future workforce. The information applied in developing the system, from the technical aspects, to the documentation, even the teamwork, will be beneficial in all of our future jobs, no matter where they may be.

Questions?