R15901: Student-Initiated-Project SAE Aero Aircaft.

Slides:



Advertisements
Similar presentations
Aircraft Design Competition Comparison SAE Open SAE Regular SAE Micro AIAA.
Advertisements

Lecture 3: Take-off Performance
College of Engineering and Computer Science Department of Mechanical and Materials Engineering Wright State University Regular Class Aircraft SAE Aero.
Group 3 Heavy Lift Cargo Plane
Flight Instructor Seminars August 2007
Daniel Graves –Project Lead James Reepmeyer – Lead Engineer Brian Smaszcz– Airframe Design Alex Funiciello – Airfoil Design Michael Hardbarger – Control.
ME 480 Introduction To Aerospace: Chapter 2 Prof. Doug Cairns.
SAE AERO DESIGN 2004 HEAVY-LIFT CARGO PLANE Stephen McNulty Richard-Marc Hernandez Jessica Pisano Yoosuk Kee Chi Yan Project Advisor: Siva Thangam Control.
Florida International University Mechanics and Materials Engineering SAE Aero Design® Brazil Competition Senior Design Project Presentation Team 6: PanthAir.
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.
SAE Aero Design Guidelines Rev A, 2013 Aero Design Oral Presentation Guidelines How to Deliver a Presentation The Judges will Notice.
Airplane Flight: X-Plane in the Classroom Wing Loading Ratio of the plane’s weight (w) divided by the surface area of the wing (s)
Chase Beatty (Team Leader) Brian Martinez (Organizer) Mohammed Ramadan (Financial Officer) Noe Caro (Historian) SAE AERO Chase Beatty.
David Chandpen (Lead Engineer) Matthew Maberry Travis Cushman Benjamin Waller Zach Veilleux Joseph Travaglini.
Team USYD National Aircraft Design-Build-Fly Competition.
Alex Funiciello Dan Graves Mike Hardbarger Jim Reepmeyer Brian Smaszcz May 14, 2010.
Daniel Graves (ME). Open Architecture, Open Source Unmanned Aerial Vehicle for Imaging Systems  Primary Customer: RIT College of Imaging Science ○ Currently.
EDGE™ Concept Level Project Plan P08110 – UAV Based Digital Imaging System David Eells (Mechanical Engineering)
Project Status Update II R09230: Open Architecture, Open Source Unmanned Aerial Vehicle for Imaging Systems A. Benjamin Wager (ME) B. Michael Skube (ME)
Vehicle Sizing PDR Presented by: Mark Blanton Chris Curtis Loren Garrison September 21, 2000 Chris Peters Jeff Rodrian DR2.
Group 3 Heavy Lift Cargo Plane
Heavy Lift Cargo Plane Group #1 Matthew Chin, Aaron Dickerson Brett J. Ulrich, Tzvee Wood Advisor: Professor Siva Thangam December 9 th, 2004.
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.
EDGE™ Project Status Update P09121 – MAV Airframe P09122 – MAV Control System P09123 – MAV Platform Structure Aaron Nash (Mechanical Engineering) Erik.
Aircraft Fuel Systems AIAA Team 1 (Shelley Biagi & Curtis Black) A/C Design Class Tuesday, September 19, 2006.
The Four Forces of Flight
Takeoff Performance Jet Aircraft Performance
AIRCRAFT HANDLING Part 3 Refuelling.
Official flags for government agencies are required to have specific hoist (width), fly (length) measurements. They all have a fly:hoist ratio of 1.9:1.
2015 SAE Aero East Design Team 2015 SAE Aero Design East Team Status Report (April 2, 2015)
SAE Aero Design West 2008 Information Session. What is the SAE competition? Who - Undergrad and Grad Students (SAE Members) Competition Components - Design.
Genesis UAV Challenge Presented by Simon Butterworth Aerospace Operational Support Group RAAF.
Brian Martinez Chase Beatty Mohammed Ramadan Noe Caro.
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.
College of Engineering and Computer Science Department of Mechanical and Materials Engineering SAE AeroDesign East Competition May 4 – 6, 2007 Faculty.
2015 SAE Aero East Design Team 2015 SAE Aero Design East Team Mid-Term Status Report (3/5/2015)
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.
DESIGN OF THE 1903 WRIGHT FLYER REPLICA MADRAS INSTITUE OF TECHNOLOGY CHENNAI - 44.
Miguel Jimenez Ricardo Lugo Carlos Rojas Advisor: Andres Tremante.
SAE AERO DESIGN® EAST COMPETITION A SENIOR DESIGN PROJECT PREPARED IN PARTIAL FULFILLMENT OF THE REQUIREMENT FOR THE DEGREE OF BACHELOR OF SCIENCE IN MECHANICAL.
System Level Design Review.  Project Review  Needs and Requirements Review  Functional Decomposition  Concept Development  Concept Selection  Initial.
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.
2015 SAE Aero Design East Team
P07122: Autonomous Quadcopter Jason Enslin – EE: Team Leader, Circuit Design/Testing Glenn Kitchell – CE: Programming, Software Design Richard Nichols.
SAE Aerospace Regular Class High Lift Competition Educational Aircraft Design Objective: To develop a stable, controllable, high lift aircraft to serve.
P07122 – Autonomous Quadcopter Jason Enslin (EE – Team Leader) Courtney Walsh (ME – Aero) Richard Nichols (EE) Glenn Kitchell (CE) Jeff Welch (ME) Dr.
Yaqoub Almounes John Cowan Josh Gomez Michael Medulla Mohammad Qasem
Sae – aero micro capstone
Aircraft Design Process
SAE Aero Design Group 10 Dimitrios Arnaoutis Alessandro Cuomo
Conceptual Design Report
Key Performance Characteristics
Sae – aero micro capstone
Design/Build/Fly SU DBF
SAE Heavy Lift Cargo Plane
Voice of Customer Presentation
P08121: Micro Aerial Vehicle (MAV)
SAE Aero East 2017 MAE 434W. SAE Aero East 2017 MAE 434W.
STRUCTURES & WEIGHTS PDR 2
Matching of Propulsion Systems for an Aircraft
Cargo Airplane Challenge
P07122: Autonomous Quadcopter
Embraer ERJ 135 VIP PHOTOS SPECIFICATIONS AIRCRAFT SPECIFICATIONS
Presentation transcript:

R15901: Student-Initiated-Project SAE Aero Aircaft

 Background ◦ The SAE Aero Design competition is an event that challenges engineering students through the design, build, and test of an aircraft.  Objectives ◦ Collaborate with the Aero Design Club to design, build, and test aircraft for the Aero SAE Design West competition (Regular Class). ◦ Comply with rules regarding design constraints and mission requirements. ◦ MSD team will lead airframe and structural design. ◦ Aero Design Club will lead build process and electronics integration.  Reasoning ◦ Aero Design Club has been absent from the competition since ◦ Aero Design Club members lack experience with aircraft design. ◦ Aero Design Club members are on coop for parts of the year.

 RIT Faculty: ◦ Dr. DeBartolo: General MSD guide ◦ Dr. Kolodziej: RIT Aero Design Club faculty advisor ◦ Dr. Venkataraman: Aerodynamics and Aerostructures professor ◦ Dr. Crassidis: Flight Dynamics professor  RIT Aero Design Club ◦ Ken Wilkinson: 2015 – 2016 President ◦ Phil Nguyen: Pilot

An MSD team is established to collaborate with the RIT Aero Design club to design and build an aircraft to represent RIT in the Regular Class of the SAE Aero Design West Competition. The MSD team will lead the airframe and structural design, while the Aero Design Club will lead the entire build process, including the integration of electronics (propulsion and controls). Competition Circuit AirframeMaterials Propulsion & Controls Payload 1. Aircraft must take-off within 200ft (61 m). 2. Aircraft must land within 400ft (122m). 3. The aircraft must take off and land intact 1. Aircraft must have fixed wing configuration 2. The aircraft is limited to a maximum combined length, width, and height of 175 inches. 3. The aircraft weight is limited 55) pounds with payload and fuel. 4. The aircraft should be designed such that it may be easily reparable. 1. The use of Fiber- Reinforced Plastic (FRP) is prohibited on all parts of the aircraft. 2. The use of lead in any portion of the aircraft is prohibited. 1. A single motor configuration is required. 2. Propellers must not be made of metal. 3. Aircraft control surfaces must not feature excessive slop. 4. Servos must be adequately sized to handle the expected aerodynamic loads during flight. 1. The payload must be secured to the airframe to ensure the payload will not shift or come loose in flight. 2. The aircraft must be structurally airworthy with and without the payload installed. 3. The payload bay must be designed such that it can be loaded and secured, as well as unloaded, in less than 1 minute. 4. The payload must be removable.

Need #CategoryImportanceDescription CN1 Competition Circuit CriticalAircraft must take-off within 200ft (61 m). CN2CriticalAircraft must land in the same direction as takeoff within 400ft (122m). CN3Critical The aircraft must take off and land intact. All parts must remain attached to the aircraft during flight and landing maneuver, with the exception of the propeller. CN4 Airframe CriticalAircraft must have fixed wing configuration CN5Critical The aircraft is limited to a maximum combined length, width, and height of 175 inches. Length is defined as the maximum distance from front to the aft of the aircraft. Width is the span or the maximum distance from wingtip to wingtip. Height is defined as the maximum distance perpendicular to the ground to the highest part of the aircraft (propeller not included). CN6CriticalThe aircraft weight is limited to fifty-five (55) pounds with payload and fuel. CN7Critical In the event of damage to the aircraft, the aircraft should be designed such that it may be easily reparable. CN8 Materials Critical The use of Fiber-Reinforced Plastic (FRP) is prohibited on all parts of the aircraft. The only exception is the use of a commercially available engine mount and propeller. CN9CriticalThe use of lead in any portion of the aircraft (payload included) is prohibited. CN10 Propulsion and Controls CriticalA single motor configuration is required. CN11CriticalPropellers must not be made of metal. CN12CriticalAircraft control surfaces must not feature excessive slop. CN13CriticalServos must be adequately sized to handle the expected aerodynamic loads during flight. CN14 Payload Critical The payload must be secured to the airframe to ensure the payload will not shift or come loose in flight. CN15CriticalThe aircraft must be structurally airworthy with and without the payload installed. CN16Critical The payload bay must be designed such that it can be loaded and secured, as well as unloaded, in less than 1 minute. CN17Critical The payload must be removable so that the test block can be inserted into the payload bay during technical inspection.

 Questions? ◦ Thoughts on giving all build responsibilities to Aero Design Club? ◦ Any feedback is appreciated  Next Steps ◦ Continue stakeholder interviews ◦ Transition to Voice of the Engineer ◦ Functional Decomposition