Alex Funiciello Dan Graves Mike Hardbarger Jim Reepmeyer Brian Smaszcz May 14, 2010.

Slides:



Advertisements
Similar presentations
Types of Aircraft Flight Instruments Parts of an Aircraft Principles of Flight At the Airport
Advertisements

 A radio controlled aircraft (model) is controlled remotely by a hand held transmitter & receiver within the aircraft.  The.
Miniature Modular Rack Launcher Combo Senior Design Group 3 Casey Brown Cyril John Keith Kirkpatrick Bryan Rickards.
SAE Aero Design ® East 2005 University of Cincinnati AeroCats Team #039 SAE Aero Design ® East 2005 University of Cincinnati AeroCats Team #039 Design.
ES100 MICRO AIR VEHICLE Ryan Goldberg Brett Keenan Loryn Chen Tiffany Khong Erica Edney Dani Battle Harris Benjamin.
Daniel Graves –Project Lead James Reepmeyer – Lead Engineer Brian Smaszcz– Airframe Design Alex Funiciello – Airfoil Design Michael Hardbarger – Control.
Miniature Modular Rack Launcher Combo Senior Design Group 3 Casey Brown Cyril John Keith Kirkpatrick Bryan Rickards.
Vertical Launch UAV Project Plan. ∞ Construct an unmanned aerial vehicle (UAV) with a camera payload ∞ UAV must autonomously navigate with real-time video.
SAE AERO Chase Beatty (Team Leader) Brian Martinez (Organizer) Mohammed Ramadan (Financial Officer) Noe Caro (Historian) Brian Martinez.
Group 3 Heavy Lift Cargo Plane William Gerboth, Jonathan Landis, Scott Munro, Harold Pahlck February 18, 2010.
Chase Beatty (Team Leader) Brian Martinez (Organizer) Mohammed Ramadan (Financial Officer) Noe Caro (Historian) SAE AERO Chase Beatty.
Team USYD National Aircraft Design-Build-Fly Competition.
Daniel Graves (ME). Open Architecture, Open Source Unmanned Aerial Vehicle for Imaging Systems  Primary Customer: RIT College of Imaging Science ○ Currently.
Daniel Graves –Project Lead James Reepmeyer – Lead Engineer Brian Smaszcz– Airframe Design Alex Funiciello – Airfoil Design Michael Hardbarger – Control.
AT 209 Introduction to Civil Unmanned Aerial Systems (UAS)
1 Design Group 2 Kat Donovan - Team Leader Andrew DeBerry Mike Kinder John Mack Jeff Newcamp Andrew Prisbell Nick Schumacher Conceptual Design for AME.
Oculus Superne. 2 System Definition Review Mission Objectives Concept of Operations Aircraft Concept Selection Payload Constraint Analysis and Diagrams.
Critical Design Review AAE490 Project 1 March 2003 Nicholas Baker Brian Chernish Andrew Faust Doug Holden Mara Prentkowski Nicholas Setar.
Christopher Cottingham
Vehicle Sizing PDR Presented by: Mark Blanton Chris Curtis Loren Garrison September 21, 2000 Chris Peters Jeff Rodrian DR2.
Dane BatemaBenoit Blier Drew Capps Patricia Roman Kyle Ryan Audrey Serra John TapeeCarlos Vergara Team 1: Structures 1 PDR Team “Canard” October 12th,
SAE Heavy Lift Cargo Plane Advisor: Siva Thangam Group Members: Will Gerboth Jon Landis Scott Munro Harold Pahlck.
BATTAGLIA MARIO FACCIO PEDRO SALAZAR ANDRES 2015 SAE Aero Design East Competition Faculty Advisor: Dr. Dulikravich.
Over view Landing Gear Landing Gear Weight Determination Weight Determination Geometric Layout of Wing Structure Geometric Layout of Wing Structure Analysis.
Requirements Propulsion Analysis Airplane Design Construction Final Product.
Group 13 Heavy Lift Cargo Plane Stephen McNulty Richard-Marc Hernandez Jessica Pisano Yoosuk Kee Chi Yan Project Advisor: Siva Thangam.
Christopher Barrett (ME) Daniel Graves (ME). Open Architecture, Open Source Unmanned Aerial Vehicle for Imaging Systems Primary Customer: ○ Currently.
CLARKSON UNIVERSITY Department of Mechanical and Aeronautical Engineering Introduction to AIRCRAFT STRUCTURES Ratan Jha (CAMP 364, ,
Overview of Chapter 6 Douglas S. Cairns Lysle A. Wood Distinguished Professor.
SAE Aero Design ® East 2005 University of Cincinnati AeroCats Team #039 SAE Aero Design ® East 2005 University of Cincinnati AeroCats Team #039 Design.
 Model airplanes are sized down models of an aircraft  The calculations are easy and the importance is given to building of the plane.
SAE AERO Chase Beatty (Team Leader) Brian Martinez (Organizer) Mohammed Ramadan (Financial Officer) Noe Caro (Historian) Chase Beatty.
Team 6: “Soldier Portable UAV” David Neira TJ Worden Matthew Martin Joshua Mellen Ona Okonkwo Josiah Shearon A IR HERCULES 1.
AEM 5333 UAV Search and Surveillance. Mission Description Overhead surveillance and tracking – Humans on foot – Moving vehicles Onboard GPS transceiver.
2015 SAE Aero East Design Team 2015 SAE Aero Design East Team Mid-Term Status Report (3/5/2015)
MICRO AIR VEHICLE PROJECT Ryan Goldberg Tiffany Khong Brett Keenan Loryn Chen Harris Benjamin Dani Batlle Erica Edney.
Student Unmanned Aerial System FAMU/FSU College of Engineering Mechanical Engineering Department (1) Electrical and Computer Engineering Department (2)
Dane Batema John Tapee Audrey Serra Patricia Roman Kyle RyanCarlos Vergara Benoit BlierDrew Capps Team 1: Lessons Learned and Vehicle Summary Team “Canard”
The Lumberjacks Team /16/12 Brian Martinez.
HALE UAV Preliminary Design AERSP 402B Spring 2014 Team: NSFW Nisherag GandhiThomas Gempp Doug RohrbaughGregory Snyder Steve StanekVictor Thomas SAURON.
Group Members Mike Svendsen – Computer Engineer Steve Towey – Computer Engineer Brian Walker – Architect Richard George – Industrial Technology Client.
 PROFESSOR: CHARLES KUNG  GROUP MEMBERS: AKRAM GERIES, JEEVEN HUGH, MICHAEL LADAS, BRAD LONG.
Final Design Team 6 December 2 nd, UAV Team Specializations David Neira – Power & Propulsion Josiah Shearon – Materials Selection & Fabrication.
Subsystem Level Design Review.  Project Review  System Level Changes ◦ Tail Dragger ◦ Airfoil Change and Discussion  Subsystem Selection ◦ Fuselage.
ES 100 Micro Air Vehicle Project Montgomery College Professor: Dr. Charles Kung Summer I 2012 Team Members: Andrew Joe Laura Mohammed Nathelie Noella Stephanie.
Introduction to Aerospace – Historical Perspective Dr. Doug Cairns.
R15901: Student-Initiated-Project SAE Aero Aircaft.
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,
Daniel Graves –Project Lead James Reepmeyer – Lead Engineer Brian Smaszcz– Airframe Design Alex Funiciello – Airfoil Design Michael Hardbarger – Control.
SAE Aerospace Regular Class High Lift Competition Educational Aircraft Design Objective: To develop a stable, controllable, high lift aircraft to serve.
High Altitude Aeronautical Platform Station
Team 3 Structures and Weights PDR 2
2007 SAE Heavy Lift Cargo Plane
Aircraft Design Process
Sae – aero micro capstone
Conceptual Design Report
Key Performance Characteristics
Detailed Design Review P10232 – UAV Airframe C
Team “Canard” September 28th, 2006
Structures and Weights
Phantom Eye Boeing UAV Brandon Witte.
SAE AERO 2017 Joseph Zongolowicz, Kathy Hansen, Nick Montana, Marquis Ward, Frank Dixon, Thomas Houck, Gerald Short, Zhangsiwen Xiao, Kevin Schesventer,
Voice of Customer Presentation
Structures and Weights 1 QDR
FINAL REVIEW UAV AIRFRAME B
STRUCTURES & WEIGHTS PDR 2
John Apostol, Chris Grupido, Douglas Klutzke
EET2530 Unmanned Aerial Vehicles (UAVs)
Managerial REVIEW UAV AIRFRAME B
Unmanned Powerline Surveillance Aircraft Group Name: Watchmen
Presentation transcript:

Alex Funiciello Dan Graves Mike Hardbarger Jim Reepmeyer Brian Smaszcz May 14, 2010

Agenda Project Overview Customer Needs Airframe C spec sheet Involved Testing Airframe C Testing Videos Meeting Customer Needs & Engineering Specs Objective Evaluation of Project Suggested Design Changes 2

Project Overview Mission Statement: The goal of the UAV Airframe C project is to provide an unmanned aerial platform used for an aerial imaging system. The airframe must support the weight and interfaces for the designed imaging system. The aircraft must be operated remotely and be a viable alternative to current aerial imaging methods. This is a second generation airframe, expanding on the previously laid ground work established by the P09232 UAV B Senior Design Project. 3

Customer Needs Airframe must be able to carry a fifteen pound payload Easy integration with measurement controls box and different aerial imaging systems Ability to remotely control aircraft and activate payload Ability for flight communication between aircraft and ground relay Aircraft provides twenty minutes of flight time for local area photography Aircraft has the potential to take off and land on site Easy assembly and disassembly of the aircraft for transportation 4

UAV-C Spec Sheet General Specs Assembled Specs TypeConventional Monoplane Length 8.5ft TailCambered Wingspan10 ft Landing GearTail Dragger Weight (unloaded)28 lbf Camera ControlManual with Servo Propulsion Total Cost$1, Motor3250 Watts Airframe Construction Propeller26x10 Main Structure1/4" Light Ply Static Thrust26 lbf Stringers1/8" Balsa Battery Capacity10000 mAh Battery Voltage42V (nominal) Wing Airfoils1/8" Balsa ESC110A max Skin6" Monokote Wing Wing Attachment Wing Box Fixed to Bottom of Plane Airfoil DesignNACA 9412 Main Wing Spar3/4" Carbon Fiber ConstructionFiberglass/Balsa Wood Chord16 in 5

Extensive Testing Process Carbon Spar Test 3-Pt Bending Load Deflection Motor Test. Duration Static Thrust Structural Test Payload Securing Total Weight Wing Loading/Deflection Balancing Ground Test Assembly and Transport Ground Control on Tarmac or Grass Flight Test Skip, Circle, Figure of Eight Weighted Flight 6

Airframe C Testing Imagine RIT Video Ground Maneuvers Skip test First Flight Second Flight All videos open in browser (youtube) 7

Customer Needs Airframe must be able to carry a fifteen pound payload Easy integration with measurement controls box and different aerial imaging systems Ability to remotely control aircraft and activate payload  Ability for flight communication between aircraft and ground relay o Aircraft provides twenty minutes of flight time for local area photography Aircraft has the potential to take off and land on site Easy assembly and disassembly of the aircraft for transportation 8

Engineering Specs  The aircraft shall have a maximum weight of 25 lbs without payload (40 lbs gross)  The aircraft shall have a flight ceiling of 1000 ft The aircraft shall be able to sustain a flight of at least 40mph in calm conditions o The aircraft shall be capable of stable flight with a 15 lb payload The aircraft shall utilize an open architecture payload interface The aircraft shall provide a mechanical interface to the payload The aircraft shall provide a secure anchoring connection for the photographic instrument payload The aircraft shall provide a secure mounting location for the flight control electronics package (P10236) o The aircraft shall sustain steady flight in a controllable manner for at least 20 minutes The aircraft shall be able to re-launch as soon as it has been re-fueled or re-charged  The aircraft shall be able to operate for at least 12 regular flights without needing routine maintenance 9

The aircraft shall be able to take off under its own power from a 1000 ft grass runway The aircraft shall have a sufficiently powerful motor The aircraft shall be able to be transported in a motor vehicle when disassembled The aircraft should be easy to assemble and disassemble by one person The aircraft shall be able to navigate while on the ground The final cost shall be less than the cost of renting a Cessna for a day (~$8000) The aircraft should have similar flight characteristics to a trainer RC plane The wing shall support the plane’s gross weight under +4/-2 G loading The wings shall not become detached from the plane while in flight The wings shall not deflect to a degree that interferes with the operation of the flight control surfaces (will not jam the servos) The propulsion system shall provide uninterrupted, constant power for at least 20 min The landing gear shall hold the plane at an optimal angle of attack while on the ground  The servos shall be of sufficient power to control the plane’s control surfaces at speeds up to 50 mph The aircraft shall be structurally sound; no parts shall leave the aircraft while in flight 10

Objective Evaluation of Project All applicable customer needs have been addressed. Most engineering specs were met or exceeded Exceptions: Airplane weight is 3 pounds over expected Flight ceiling is limited by law to 400ft Due to time and weather constraints the aircraft was not tested with payload on board Wing tip loading and XFLR5 analysis leave us confident the plane is capable of carrying 15 lbs Due to safety concerns the airframe was not flown until the batteries died. 11

Objective Evaluation of Project The aircraft was unable to complete 12 flights. A maximum of 2 flights were performed in rapid succession. Maximum air speed cannot be confirmed due to lack of on-board telemetry. 12

Suggested Design Changes Wing Keeping the wing root uniform with the wing and re- shaping the wing box Fiberglassing the entire wing Carbon strips on the underside stringers End-grained (shear webbing) in the wing and tail Tail Increase horizontal tail area (and elevator area) Servo connection in the tail 13

Suggested Design Changes Landing Gear Reduce landing gear weight Addition of landing gear damping (to prevent rebound) Creation of carbon fiber landing gear Prop Clearance Use of a smaller diameter prop to increase ground clearance (recommend a 22 in. propeller) Possible increase in front landing gear height Do not recommend shortening the plane body 14

Alex Funiciello Dan Graves Mike Hardbarger Jim Reepmeyer Brian Smaszcz May 14, 2010