Neelam Patel David Wade Brian Reyes TITLE IN PROGRESS.

Slides:



Advertisements
Similar presentations
BYU Rocket Team Special thanks to:
Advertisements

THE GREAT EGG DROP LAB METC 106.
Junk Box Scrambled Eggs? Objective: Create a parachute that will help an egg land safely on a target! Junk Box
CAP Model Rocketry Program.  1. MATERIALS. I will use only lightweight, non-metal parts for the nose, body and fins of my rocket.  2. MOTORS. I will.
Preliminary Design Review. Rocket & Payload Schematic.
Aero-Space Education Squadron Aerospace EducationTeam Civil Air Patrol
2-1 Middle School Rules and Guidelines Revised 06/03.
How to Make a Model Rocket
Launch Lug – helps to guide the rocket upward until it reaches enough velocity for the fins to engage. Parachute – assists in the safe recovery of the.
Model Rocketry Mr. Capella Technology Education. Parts of a Model Rocket n Nose cone n Body tube n Fins n Launch lug
Water Rocket Mission Your mission: To successfully launch a rocket with a payload and retrieve the payload without injury.
Title: Intro to Water Bottle Rockets
Bottle Rockets! Its rocket science!. Your challenge Design and Build a rocket using the materials provided to achieve a higher altitude. You must have.
PROBLEM STATEMENT Which factor affects the efficiency of a rocket’s hang time, the placement of its fins, above or below the center of gravity or the size.
NASA CDR Presentation Spring Grove Area High School.
They will count as one or two test grades. They will count as one or two test grades. You will have to complete one group project in each of the grading.
Northern Highlands Regional High School Applied Technology Department Real World Engineering List Design/Build Engineering Team Members Name of Engineering.
Ideation and the Engineering Design Process
Model Rocketry 8th Grade Technology Transportation Unit Eric Wasacz Thomas Rozelle Kenny Bouwens Eric Wasacz Thomas Rozelle Kenny Bouwens.
Launch Vehicle  Launch Vehicle Summary  The length of the rocked is inches, and the mass is ounces.  We have a dual Deployment Recovery.
CDR Clear Lake's Team Rocket 2929 Bay Area Blvd. Houston, TX
Mag Lev Vehicles Case Study #2 “Magnetic Levitation Transportation”
Rocket Research History Scientific Research Modern Applications Roxboro Road Middle School Mr. Clayton and Mrs. Zajac.
Rocketeering Sub-space Flight Made Easy. History of Rocket Technology  First occurrence in recorded history places rockets in China during the third.
2009 Team America Rocketry Competition Some Thoughts on Having a Successful TARC Experience.
Types of Rockets Avionics Phases of Flight Materials Home Page High Powered Rocketry End Show.
Science Fiction. Rocket flight Centre of Mass or Centre of Gravity (CM or CG) Centre of mass is the mean or central location of all the mass of an object.
 Vehicle dimensions, materials, and justifications  Static stability margin  Plan for vehicle safety verification and testing  Baseline motor selection.
The Rocket Men Project One Giant Leap. Final Launch Vehicle Dimensions Rocket Length in. Rocket Mass- 171 oz. Top Body Tube Length in. Bottom.
FRR Presentation IF AT FIRST YOU DON’T SUCCEED, TRY AGAIN… AND AGAIN AND AGAIN AND AGAIN.
TARCkan Nasir Almasri Audrey Kelly Kari Schulz. Overview Problem Statement Timeline Background Scope Brainstorming & Research Criteria Constraints Explore.
Flight Readiness Review Student Launch Initiative SCS Rocket Team Statesville Christian School April 2, 2008.
TARCkan Nasir Almasri Audrey Kelly Kari Schulz. Overview Problem Statement Timeline Background Scope Brainstorming & Research Criteria Constraints Explore.
Neelam Patel David Wade Brian Reyes TARC ALPHA TEAM PRESENTS: BLACK & YELLOW.
Brain Surgery and Rocket Science By Howard Botting and Benjamin Mitchell.
Explorer Post 1010 TARC Team Rockville, Maryland Team America Rocketry Challenge Final Fly-Off Presentation May 12, 2012.
UCF USLI Organization Team Development Proposal Requirements September 17 th, 2009.
Neelam Patel David Wade Brian Reyes TITLE IN PROGRESS.
Expectations vs. Reality The Banshee. Flight Data Motor – J800T, 1280ns Total Impulse, 1.9 sec burn time Apogee – seconds Main – 697.
2-1 DADE COUNTY SECME Rules and Guidelines What is the mission? The mission is to design a Water Rocket Vehicle capable of reaching the highest.
By: Nicole Worytko Avani Patel Brian Prohaska Kyle Hughes
Treeboard Mutineers VEX Robotics Competition
HARDING UNIVERSITY FLYING BISONS A Study of Atmospheric Properties as a Function of Altitude Flight Readiness Review.
University Student Launch Initiative Preliminary Design Review University of Illinois at Urbana-Champaign Team Rocket.
High Powered Rocket Team Fall Project Manager Wesley M. Harpster Team Members James Lawrence Ryan Horton Karna Shah James “Trey” Simmons Irfan Shaukat.
Model Rocketry Saturn Phase
Rocket Launch. Launch Area Minimum launch areas Launch Configuration Launcher upwind of landing zone Spotters at right angles Spotters will measure angle.
January 14,  Length: inches  Diameter: 6 inches  Mass: oz. / lbs.  Span: 22 inches  Center of Gravity: inches 
Neelam Patel David Wade Brian Reyes TITLE IN PROGRESS.
Critical Design Review Presentation Project Nova.
Neelam Patel Brian Reyes David Wade ????? Mystery Member ????? STATUS UPDATE TEAM ALPHA.
UKRA is affiliated to the British Model Flying AssociationBritish Model Flying Association Rocketry.
Bernadette Cannon Daniel Roh Daniel Du. Design Team America Rocketry Challenge’s goal is to get a model rocket to fly to a height of exactly 825 feet.
Egg-O-Naut. Purpose The purpose of this project is to practice the process of Engineering Design.
Rocket Project: Newton’s 3 Laws in 3D!.
Space Exploration & Rocketry Power and Transportation Technology By: Mr. Smith.
Atmospheric Effects on Descent Rate
Aero-Space Education Squadron Aerospace EducationTeam Civil Air Patrol
Protective Landing Device
Critical Design Review Presentation
Nasir Almasri Audrey Kelly Kari Schulz
Rocket Science! Mr McGregor Part 1.
Rocket Launch Aerospace Engineering © 2011 Project Lead The Way, Inc.
Development and Principles of Rocketry
Design Review 4 Chris Bredberg, Ryan Dwyer, Kjell Gordon
Team Name Round 2 Flight Readiness Review (this is a bare-bones template – reorder the slides and/or make it fancier if you wish, but be sure to address.
Final Readiness Review
Presentation transcript:

Neelam Patel David Wade Brian Reyes TITLE IN PROGRESS

 Problem Statement  Project Scope  Team Roles and Responsibilities  Background & History  Timeline  Design Solution  Construction Phase  Build Process  Bill of Material  Testing Phase  Test Procedure  Test Data Charts  Demonstration of Prototype  Conclusion TABLE OF CONTENTS

The Team America Rocketry Challenge requires us to design, build, and fly a rocket that can carry an egg at least 750 feet into the air within the duration of 40 to 45 seconds and land it safely using a specifically sized parachute. PROBLEM STATEMENT

 Adhere to TARC guidelines  750 Feet Launch  Airborne for seconds  Safe Landing  Rocket Weighs max 1000g  Powered by motors with ≥ 62.5g of propellant each (No more than 125g combined)  Parachute (15 in diameter) sole recovery device  Egg weight between 57-63g (45 mm diameter) PROJECT SCOPE

 Competition date: May 14 th  Duration of project: 100+ hours  Resources  Calculus Textbook  Internet  Mrs. Brandner  Mr. Pritchard PROJECT SCOPE

 Approximate Budget: $500  Entrance Fee: $105  Useable Stores:  Online Web Stores  Hobby Lobby  Michael’s  Deliverables  Technical report  Engineering Notebook  PowerPoint  Prototype PROJECT SCOPE

Team Role Team Member Responsibilities Leader David Wade  Responsible for keeping group on track  Review work done by team members  Keep track of day-to-day activities  Resolve conflict  Run status meetings  Provide nourishment Scribe Neelam Patel  Document discussions  Write in project notebook  Revise documents created by facilitator  Check group website and daily for updates Facilitator Robert Silva  Create documents for project portfolio  Keep in contact with members to determine status of project  Be a good listener for the group during discussions Timekeeper Brian Reyes  Create timeline with help of group  Fills in planned/ actual dates into timeline  Ensures group follows timeline  Enforces deadlines set by group  Fill in planned/actual chart daily TEAM ROLES AND RESPONSIBILITIES

TEAM ROLES AND RESPONSIBILITES David Wade Leader Neelam Patel Scribe Robert Silva Facilitator Brian Reyes Timekeeper

BACKGROUND AND HISTORY

Planned DatesActual Dates Description 11/17- 12/10 “Formation” Stage and Researching 12/7- 12/2012/10- 12/22Exploring possibilities and final solution selection 12/21- 1/1212/16- 2/28Project specs and CAD 1/15- 1/311/18- 4/1Construction (planning, shopping, building) 1/27- 3/11/19- 4/3Create testing procedure and test rocket 2/10- 2/104/3- 4/3Qualification Flight with NAR 3/2- 4/44/3- 5/2Refine Design, Re-test, and Re-evaluate 4/5- 5/64/22- 5/5Final Presentation Preparation TIMELINE

DESIGN SOLUTION

FINAL SOLUTION (EGG CAPSULE) Foam Nose Cone Balsa Donut Padding Egg Body Tube

BUILD PROCESS

PART PART DESCRIPTIONQUANTITYUNIT COSTTOTAL COST Body Tube 18” length by 1 5/8” diameter, pack of 6 1 $12.91/pack $12.91 Motor Estes, single-stage, E9 – 6, pack of 3 2 $19.99/pack $39.98 Motor Estes, single-stage, D12 – 3, pack of 3 1 $14.99/pack $14.99 Motor Coupler 4” length by 1” diameter 1 $1.80/pack $1.80 Nose Cone/Egg Capsule Black, cone shaped plastic, 8.2” length 2.32” diameter 1 $14.57/unit $14.57 AltimeterPerfectflite ALT15k/WD1$55.00/unit$55.00 Parachute15” round nylon cloth1$7.99/unit$7.99 Shock CordRubber, ¼” thick x 36” length1$0.36/foot$1.08 FinsBalsawood board 1/10” thick, 4” x 12”2$3.50/board$7.00 Foam Egg-shaped, 2.12” length, 3.07” diameter, pack of 4 1$2.77/pack$2.77 Balsawood2” x 2” x 12”1$3.99/board$3.99 Basswood3/16” x 4” x 24”1$3.49/board$3.49 Eyescrew Length 0.78”, inside diameter 0.19”, outside diameter 0.4”, thread length 0.28” 1Already owned- Engine Hook0.02” thick, 4.22” length, pack of 21$1.22/pack$1.22 Styrofoam6” diameter x 1” thick1$1.75/wheel$1.75 Recovery wadding75 sheets of fire proof recovery wadding1$4.99/pack$4.99 Yellow Spray PaintRust-Oleum Specialty 11 oz. Yellow Fluorescent2$4.98/can$9.96 Black Spray Paint Rust-Oleum 12 oz. Gloss Black Universal Spray Paint 1$6.50/can$6.50 Painter’s Tape ScotchBlue 1 in. x 180 ft. for Delicate Surfaces 1$5.87/roll$5.87 TOTAL COST $ BILL OF MATERIAL

 Check if rocket meets TARC Guidelines  Single Stage rocket  Approved Motor  Engine Weight  Parachute  Altimeter  Pass/Fail Result  Fail= Does not meet guidelines TEST PROCEDURE- QUALIFICATIONS

 Test rocket if operational  Rocket can launch  Recovery System Activates  Weight Chamber  Removable altimeter  No parts fall off  Pass/Fail Result  Pass= All aspects function  Fail= one or more aspects fail to function TEST PROCEDURE- FUNCTIONALITY

 Randomly Dropping Egg Capsule  5 from balcony  5 from test flights  Graded based on scale  Any score above 2= fail TEST PROCEDURE- SAFETY

 Launch rocket for air time  Start stopwatch the moment rocket launches  End when rocket touches the ground  Average all trials  Pass/fail criteria TEST PROCEDURE- FLIGHT DURATION Desired Range (pass) Undesired Range (Fail)

 Assessment of altimeter’s functionality  Manually change air pressure  Listen for a reading  Pass= reports change in air pressure  Fail= no report or no new report TEST PROCEDURE- ALTIMETER

 Launch rocket for distance measure  Collect altimeter readings  Average all trials for final height  Pass/fail criteria TEST PROCEDURE- ALTITUDE <700 Ft.<800 Ft. Desired Range

QUALIFICATION TEST Qualifications of the Rocket CriteriaPass Fail Single Stage RocketX Approved MotorX Engine WeightX Complete Rocket WeightX ParachuteX AltimeterX

 iugjf FUNCTIONALITY TEST Functionality of Rocket Trial 1Trial 2Trial 3Trial 4Trial 5 PassFailPassFailPassFailPassFailPassFail Recovery System X X XX X LaunchX X X X X Variable weight chamber X Removable Altimeter N/A X X X X No Parts Falling Off X X X XX OverallX X XX X

 jghvfhb SAFETY TEST Safety of Rocket Trial 1Trial 2Trial 3Trial 4Trial 5Trail 6Trail 7Trail 8Trail 9Trail 10MeanMedian Conditio n of the Egg

 ;ljhjgc FLIGHT DURATION TEST Flight Duration of Rocket Trial 1Trial 2Trial 3Trial 4Trial 5MeanMedian Flight Duration 18 sec15 sec23 sec21 sec25 sec20.4 sec23 sec

 ;jhjg ALTIMETER TEST Altimeter Trial 1Trial 2Trial 3Trial 4Trial 5 PassFailPassFailPassFailPassFailPassFail X X X X X

 ;lkjhgv ALTITUDE TEST Altitude Trial 1Trial 2Trial 3Trial 4Trial 5Mean Altituden/a

DEMONSTRATION OF PROTOTYPE

 Constructed a rocket for TARC  Must follow TARC guidelines  Building was delayed  Failed at qualifying for competition CONCLUSION