TARCkan Nasir Almasri Audrey Kelly Kari Schulz. Overview Problem Statement Timeline Background Scope Brainstorming & Research Criteria Constraints Explore.

Slides:



Advertisements
Similar presentations
UF Hybrid Rocket Teams Mile High Club Brought to you by Chris Leonard, Ty Morton, Sam Darr, and Josh Childs.
Advertisements

University of Florida PDR Presentation. Vehicle Design Diameter: 5.86 Length: 135 Static Stability Margin: 1.4 Total Weight: 23.6 lbs.
BYU Rocket Team Special thanks to:
Preliminary Design Review. Rocket & Payload Schematic.
PAPER ROCKET LAUCNHER Bob Galliher Hobart Middle School 705 e.4 th St. Hobart, In
2-1 Middle School Rules and Guidelines Revised 06/03.
How to Make a Model Rocket
Agenda Group Developments Timeline Problem Statement Background Costumer Scope Deliverables Brainstorming Research & Generate Ideas Criteria Constraints.
“ The Other Woman ” National Association of Rocktry Level Three Certification Project By Steve Laird NAR #86948.
Critical Design Review NASA University Student Launch Initiative University of Nebraska–Lincoln
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.
Illinois Space Society Tech Team USLI CDR Presentation.
Model Rocketry Mr. Capella Technology Education. Parts of a Model Rocket n Nose cone n Body tube n Fins n Launch lug
Flight Readiness Review March Vehicle Criteria Testing and vehicle design Bulkheads: 9-Ply ½” birch plywood made by Public Missiles, Ltd or ¼ inch.
NASA CDR Presentation Spring Grove Area High School.
November 7,  Length: inches  Diameter: 6.00 inches  Mass: oz. / 17.34lbs.  Span: inches  Center of Gravity: inches.
Launch Vehicle  Launch Vehicle Summary  The length of the rocked is inches, and the mass is ounces.  We have a dual Deployment Recovery.
Illinois Space Society Tech Team USLI FRR Presentation.
Intercollegiate Rocket Engineering Competition Spring 2015 EML Ethics and Design Project Organization.
Team Members:Tony Guzzo Eric Jacob Bill Liewehr Alex Schlaupitz Design of a Level 2 Rocket for the Wisconsin Space Grant Consortium Advisor: Dr. William.
Agenda Group Developments Timeline Problem Statement Background Costumer Scope Deliverables Brainstorming Research & Generate Ideas Criteria Constraints.
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.
Composite Rockets. Rocket Design The rocket should be designed and tested in a rocket simulation software. Rocket should then be modeled in Autodesk Inventor.
 Vehicle dimensions, materials, and justifications  Static stability margin  Plan for vehicle safety verification and testing  Baseline motor selection.
Safety ► The safety officer for the entire team is Maia Madrid. ► During launch we will follow NAR safety rules and regulations. ► We will follow standard.
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.
Neelam Patel David Wade Brian Reyes TARC ALPHA TEAM PRESENTS: BLACK & YELLOW.
University of Florida Rocket Team Critical Design Review Presentation.
Critical Design Review Presentation Jan. 20, 2011.
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.
Samantha Steckel Mughil Muthupari Aparna Natarajan Julia Roh 1.
Group Developments Timeline Problem Statement Background Costumer Scope Deliverables Brainstorming Research & Generate Ideas Criteria Constraints Explore.
Neelam Patel David Wade Brian Reyes TITLE IN PROGRESS.
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.
The Rocket Men Project One Giant Leap. Dimensions Rocket Length in. Rocket Mass- 171 oz. Top Body Tube Length in. Bottom Body Tube Length-
Treeboard Mutineers VEX Robotics Competition
University Student Launch Initiative Preliminary Design Review University of Illinois at Urbana-Champaign Team Rocket.
NUSTA RS NASA Student Launch MAV Challenge 2016 Critical Design Review 15 Janurary2015 Northwestern University | 2145 Sheridan Road | Evanston, IL
Rocket Launch. Launch Area Minimum launch areas Launch Configuration Launcher upwind of landing zone Spotters at right angles Spotters will measure angle.
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.
Explorer Post 1010 TARC Team 8296 Chris Fann Ronnie Foreman Phil Manougian Amanda Steckel.
Flight Readiness Review UNIVERSITY OF SOUTH ALABAMA CONNER DENTON, JOHN FAULK, NGHIA HUYNH, KENT LINO, PHILLIP RUSCHMYER, & ANDREW TINDELL MENTOR : RICHARD.
Rocket Project: Newton’s 3 Laws in 3D!.
Neelam Patel David Wade Brian Reyes TITLE IN PROGRESS.
Preliminary Design Review Clear Lake High School Team Rocket.
Bill SanFilippo District Executive, Exploring.
Preliminary Design Review Presentation
Warm-Up 4/26/17 Take notes on what I say is important.
College of Engineering
Nasir Almasri Audrey Kelly Kari Schulz
Rocket Science! Mr McGregor Part 1.
Eric building the fin mount.
November 7, 2014.
Rocket Launch Aerospace Engineering © 2011 Project Lead The Way, Inc.
Mr. Capella Technology Education
Design Review 4 Chris Bredberg, Ryan Dwyer, Kjell Gordon
November 7, 2014.
LESSON LD02 The Model Rocket
Final Readiness Review
LESSON LD02 The Model Rocket
2019 TEKNOFEST ROCKET CONTEST PRELIMINARY DESİGN REPORT (PDR)
Dual-Deploy Launch Checklist
Presentation transcript:

TARCkan Nasir Almasri Audrey Kelly Kari Schulz

Overview Problem Statement Timeline Background Scope Brainstorming & Research Criteria Constraints Explore Possibilities & Select Approach Design Proposal Prototype Test & Refine

Problem Statement We need to create a rocket using TARC-approved materials that is capable of carrying a 60-gram egg to an altitude of 750 feet and safely return it to the ground using a 15-inch parachute.

Roles Team Leader: Nasir Almasri ▫Took charge, Enthusiastic to take on challenge ▫Direct team meetings, Report to Mr. Pritchard Scribe: Kari Schulz ▫Good documenting skills, Highly organized ▫Engineering notebook, documents, notes Timekeeper: Audrey Kelly ▫Organizes time well, Appropriates work evenly ▫Timeline, Planned-Actual, Awareness of due dates

Team Constitution Communicate issues clearly and effectively. Problems between members handled professionally and maturely All work will be submitted on time ▫One hundred percent effort to ensure it happens Two weekly status meetings ▫Get everyone is on the same page ▫Create Planned-Actuals

Timeline Problem Statement (Start date) ▫Nov 19-Nov 29 Detailed Timeline ▫Nov 29-Dec 3 Research ▫Dec 6-Dec 17 Criteria & Constraints ▫Dec 15-Dec 16 Explore Possibilities ▫Dec 20-Jan 4 Select an Approach ▫Jan 4-Jan 7 Design Proposal ▫Jan 7-Jan 28 Prototype ▫Jan 28-Mar 20 Presentation Materials ▫Nov 19-May 5

Background Competition ▫2002 ▫Largest rocket competition ▫Washington D.C. Future of Rocketry ▫Students getting into aerospace ▫70% now interested in STEM career ▫81% connect math, science & technology

Background (cont.) General Rocketry ▫“Space race” ▫NASA used models to save money Safety rules ▫Non-metal materials ▫Certified motors only ▫Cannot weigh more than 1,500 g ▫Cannot launch rocket at targets ▫Must use recovery system such

Scope Cannot purchase rocket building kit Perfectflite ALT15K/WD altimeter Approved rocket motor Go-Box (from Mr. Pritchard) Grand total money spent: $300 Use Mr. Pritchard & Mrs. Brandner for assistance Qualification must be by April 4 th

Deliverables TARC: ▫test results Mr. Pritchard ▫Completed rocket ▫CAD drawings ▫Final report ▫PowerPoint presentation Mrs. Brandner ▫Engineering notebook

Brainstorm Questions Fuel Best materials Ideal size for competition Types of wings and fins Competition-approved motors How NASA propels rockets ▫How we can use to our benefit Payload

Research TARC handbook Manufactures RockSim

TARC Criteria Altitude 750 feet Max propellant 62.5 g 15-in parachute 1000 g Rocket g Egg (45 mm) sec. Flight Alt15KA Altimeter Carry raw egg (max 45mm in diameter & 60g) ▫With no damage Results must be received before April 4 th

Constraints All materials (PowerPoint, finished project, and report) ▫May 5, 2011 Must use prior knowledge of math and science All progress recorded in engineering notebook

Explore Possibilities ProsCons Over 750 feetEgg may not fit secondsBulkhead too small Materials obtained easilyPaper body tube weak Reliable motorG-10 Fiberglass fins expensive Design #1 Polystyrene PS nosecone Paper body tube Rip-stop nylon parachute Two G-10 fiberglass fins Shock cord Alt15KA altimeter One bulkhead & centering ring

Explore Possibilities Design #2 C2-4 engine Alt15KA altimeter Thick plastic (for wings) PC piping Nylon parachute ProsCons Materials easy to obtainPVC Body tube too big Enough space for eggToo cheap & break easily Reliable engine (C2-4)May exceed weight limit More aerodynamicRocket almost 3 feet

Explore Possibilities Design #3 B6-4 engine Nylon parachute Plastic fins Shock cord Alt15KA altimeter Thick cardboard (for body) ProsCons Extra space & shock cordMotor too weak Recovery waddingEgg too big for nosecone Cheap body & nose coneNo space for padding Large body tubeIrregular shaped fins

Select an Approach CriteriaM/O#1#2#3 Altitude 750 feetM100 Max propellant 62.5 gM in parachuteM g RocketM g Egg (45 mm)M sec. FlightM100 Alt15KA AltimeterM111 No egg damageM100 Under $150O111 ReliabilityO100 Ease of BuildO110 Total Score 11XX #2 failed altitude, time & egg criteria #3 failed altitude & time criteria #1 passed all mandatory criteria

Final Design RockSim Design

Design Proposal: CAD

RockSim Testing Original design ▫Two fins ▫D12-3 engine feet seconds

Calculations y 1 = (-m/2k)*ln ((T-mg-kv 2 )/ (T-mg))  ( / (2*.00154))*ln (( ( ))/ ( )) = *ln (.792) = y c = (m/2k)*ln ((mg+kv 2 )/ (mg))  (.38125/(2*.00154))*ln( )/( )) = *1.496) = t a = (tan -1 (v/q a ))/q b  (tan -1 (91.676/49.256))/.199 = 1.861/.199 = 9.353sec y 1 + y c = total altitude  = m = feet

Design Proposal: Bill of Materials PARTDESCRIPTIONQUANTITYUNIT COSTShippingTOTAL Parachute15.5” diameter nylon1 chute (6 shroud lines)$5.00$1.75$6.75 Centering Ring0.6” dia, 0.25” thick2 Centering Ring kits$1.35$4.95$7.65 G10 Fiber glass Fin7” x 5” x 5” Fiberglass2 Fins$24$8.00$32.00 AltimeterPerfectflite Alt15KA1 Altimeter$55.00$0$55.00 EngineEstes C6-3 & D12-32 packs of 3 each $10.79 & $15.99 $6.99$51.11 New EnginesEstes D12-32 packs of 3 each$10.59$6.99$28.17 Body Tube 2.6”/2.59” out/in dia. 14” height 2 tubes per pack$5.09$5.95$11.04 Body Tube Coupler2.59” outside diameter3 couplers$3.98$0$3.98 Shock Cord140 lb Strength3 feet$.25/foot$0$0.75 Shock Cord0.5” Kevlar Tubular2 yards$3.93/yard$6.95$14.82 Clip WhipsCluster Whips2 engine clusters$13.99$4.95$18.94 Nose Cone Polystyrene PS 9” long, 2.6” diameter 1 cone$14.53$7.60$22.13 Recovery WaddingRecovery sheets75 Sheets$3.19$0$3.19 Launch Lug¼ in. dia1 launch lug$2.49$5.95$8.44 TOTAL COST $286.55

Design Proposal: Build Process Body tube & Motors ▫Motor mounts Parachute ▫Shock cord Payload & nosecone ▫Padding, plastic bag Fins Final assembly

Old Prototype

Test Results Test CriteriaHow TestedExpected resultsActual Results Safety Check signs of unsafe damage Rocket remains intact The rocket flew safely during all 5 tests. Durability Check for signs of deterioration Be ready to fly again Had to be repaired 3 times after test flights Parachute Check for rips or holes No tears, still attached Remained intact Altitude Read altimeter after each test flight 725 and 775 feet Reached target altitude 0/5 tests. Flight Consistency Time each flight Flight be between seconds Within time constraints 1/5 tests (too short)

Individual Test Results TestScorePass or Fail? Safety 2.776Pass Durability (after flights)Pass Parachute N/APass Altitude 400 (=avg 350ft)Fail Flight Consistency (avg overall score)Fail

Test Results cont.

Refine Design Stability ▫3 fins vs. 2 ▫2 x D12-3 Motors (no C6-3 Motors) Less open space in body tube ▫Egg ▫Altimeter ▫Parachute Aesthetic Appeal ▫Body tube: Blue, Nose Cone: Green ▫PERFECTION 47

Final Solution Also, add test results ▫of refined Height Weight

To Conclude