Dash8-200/300 - Flight Controls
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DHC-8-402, G-FLBE No & Type of Engines
AAIB Bulletin G-FLBE AAIB-26260 SERIOUS INCIDENT Aircraft Type and Registration: DHC-8-402, G-FLBE No & Type of Engines: 2 Pratt & Whitney Canada PW150A turboprop engines Year of Manufacture: 2009 (Serial no: 4261) Date & Time (UTC): 14 November 2019 at 1950 hrs Location: In-flight from Newquay Airport to London Heathrow Airport Type of Flight: Commercial Air Transport (Passenger) Persons on Board: Crew - 4 Passengers - 59 Injuries: Crew - None Passengers - None Nature of Damage: Aileron cable broke Commander’s Licence: Airline Transport Pilot’s Licence Commander’s Age: 51 years Commander’s Flying Experience: 8,778 hours (of which 5,257 were on type) Last 90 days - 150 hours Last 28 days - 33 hours Information Source: AAIB Field Investigation Synopsis Shortly after takeoff in a strong crosswind, the pilots noticed that both handwheels1 were offset to the right in order to maintain wings level flight. The aircraft diverted to Exeter Airport where it made an uneventful landing. The handwheel offset was the result of a break in a left aileron cable that ran along the wing rear spar. In the course of this investigation it was discovered that the right aileron on G-FLBE, and other aircraft in the operator’s fleet, would occasionally not respond to the movement of the handwheels. Non-reversible filters were also fitted to the operator’s aircraft that meant that it was not always possible to reconstruct the actual positions of the control wheel, column or rudder pedals recorded by the Flight Data Recorder. The aircraft manufacturer initiated safety actions to improve the maintenance of control cables and to determine the extent of the unresponsive ailerons across the fleet. -
Aero Twin, Inc. STC for Rudder Gust Lock
-- ST02540AK Aero Twin, Inc. 2403 Merrill Field Drive Anchorage, AK 99501 A43EU Airbus Defense and Space S. A. C-212-CB, CC, CD, CE, CF, DF, DE Fabrication and installation of Aero Twin, Inc., Rudder Gust Lock Kit No. 4111-212 on Airbus Defense and Space S. A. C-212 aircraft in accordance with Aero Twin, Inc., Master Data List No. 4111-212-MDL, Original Issue, dated May 8, 2020, or later FAA approved revision. : 1. The compatibility of this design change with previously approved modifications must be determined by the installer. 2. If the holder agrees to permit another person to use this Certificate to alter the product, the holder shall give the other person written evidence of that permission. 3. Instructions for Continued Airworthiness, Aero Twin, Inc. document number 4111-212-ICA, Original Issue, dated May 8, 2020, or later FAA accepted revision is a required part of this modification. 4. Airplane Flight Manual Supplement (AFMS), Aero Twin Doc. No. 4111-212-AFMS, Original Issue, dated August 27, 2020, or later FAA approved revision is a required part of this modification. November 20, 2017 September 8, 2020 _______________________________________________________ (Signature) August A. Asay Manager, Anchorage Aircraft Certification Office _______________________________________________________ (Title) _____________________________________________________________________________________________________________________________________ Any alteration of this certificate is punishable by a fine of not exceeding $1,000, or imprisonment not exceeding 3 years, or both. _____________________________________________________________________________________________________________________________________ FAA FORM 8110-2(10-68) PAGE 1 of 2 PAGES This certificate may be transferred in accordance with FAR 21.47. INSTRUCTIONS: The transfer endorsement below may be used to notify the appropriate FAA Regional Office of the transfer of this Supplemental Type Certificate. -
Delta Air Lines Flight 1086 ALPA Submission
Submission of the Air Line Pilots Association, International to the National Transportation Safety Board Regarding the Accident Involving Delta Air Lines 1086 MD-88 DCA15FA085 New York, NY March 5, 2015 Air Line Pilots Association, International Delta Air Lines 1086 Submission Table of Contents Executive Summary ........................................................................................................................ 1 1.0 Factual Information ................................................................................................................. 3 1.1 History of Flight ............................................................................................................... 3 2.0 Operations .............................................................................................................................. 4 2.1 Weather ........................................................................................................................... 4 2.2 Regulations for Dispatching an Aircraft ........................................................................... 5 2.3 Crew Expectation of Runway Condition .......................................................................... 6 2.4 Approach ......................................................................................................................... 6 2.5 Landing Distance Assessment .......................................................................................... 7 2.6 Runway Condition on the Pier ........................................................................................ -
Aviation Maintenance Alerts
ADVISORY CIRCULAR 43-16A AVIATION MAINTENANCE ALERTS ALERT FEBRUARY NUMBER 2006 331 CONTENTS AIRPLANES AVIAT .........................................................................................................................................1 BEECH ........................................................................................................................................2 CESSNA ......................................................................................................................................4 DASSAULT.................................................................................................................................6 GULFSTREAM...........................................................................................................................8 ISRAEL AIRCRAFT.................................................................................................................11 PIPER.........................................................................................................................................13 RAYTHEON..............................................................................................................................15 HELICOPTERS AGUSTA ...................................................................................................................................16 POWERPLANTS PRATT & WHITNEY ...............................................................................................................16 ACCESSORIES AERO-TRIM .............................................................................................................................18 -
Aircraft Composite Spoiler Fitting Design Using the Variable Density Model
Available online at www.sciencedirect.com ScienceDirect Procedia Computer Science 65 ( 2015 ) 99 – 106 International Conference on Communication, Management and Information Technology (ICCMIT 2015) Aircraft composite spoiler fitting design using the variable density model V.A. Komarov*, E.A. Kishov, E.I. Kurkin, R.V. Charkviani Samara State Aerospace University (SSAU), 34, Moskovskoe shosse, Samara, 443086, Russia Abstract Present paper describes a problem of a fitting unit design for transferring the high concentrated forces to thin-walled layered composite airframe structures. The using of variable density model is offered as new mathematical model for the solution of topology optimization problems. The offered technique is illustrated by the fitting brought to production and carrying out its successful static and resource tests. The resulting optimized aircraft spoiler fitting design has weight twice less than its initial design version obtained without using the variable density model. © 2015 The Authors. Published by Elsevier B.V. This is an open access article under the CC BY-NC-ND license (©http://creativecommons.org/licenses/by-nc-nd/4.0/ 2015 The Authors. Published by Elsevier B.V. ). PeerPeer-review-review under under responsibility responsibility of Universal of Universal Society Society for Applied for AppliedResearch. Research Keywords: load trasferring path; topology optimization; design;spoiler fitting; airframe structures; variable density model. 1. Introduction The using of vacuum infusion or RTM technology is applied for elements of mechanization of aircraft structures1. Thus it is possible to get the finished structure ”in-one-shot”. The experience of the long-range passenger aircraft spoiler design showed that it can be made by the one integral detail using composite materials. -
Numerical Simulation Around Wing Control Surfaces
24TH INTERNATIONAL CONGRESS OF THE AERONAUTICAL SCIENCES NUMERICAL SIMULATIONS AROUND WING CONTROL SURFACES Guillaume Fillola AIRBUS, Toulouse, Fr Marie-Claire Le Pape Marc Montagnac ONERA, Châtillon, Fr CERFACS, Toulouse, Fr Keywords: Aileron, Spoiler, Chimera Mesh, Patched Grid, Wall Law ABSTRACT ych Adimensioned coordinate y by half span, A study of wing control surface effectiveness =(y-yroot)/b was carried out using numerical simulations chz Local load in z direction with the advanced Reynolds Averaged Navier- Stokes solver elsA. Non-coincident meshing 1 INTRODUCTION techniques were used as to make the mesh generation process more flexible. The first The correct prediction of handling qualities application attempts to predict an aileron and hinge moments induced by the deployment effectiveness using the patched grid meshing of wing control surfaces (spoilers and ailerons) technique combined with a mesh deformation is a crucial point in the general aircraft sizing tool in order to operate the aileron deflection. process with a strong impact on the final aircraft The second one deals with spoiler deployment weight. The complexity of the aerodynamic and involves the Chimera technique, which flows around deployed control surfaces and the allows separating the spoiler meshing from the importance of the flight envelope to be covered wing meshing and so avoiding a complete mesh made difficult the use of CFD in the elaboration re-generation for each spoiler deflection. of Aerodynamic Data. Until now, only very time-consuming and costly wind tunnel tests and not very accurate semi-empirical methods NOMENCLATURE were used. For a long time, CFD has been intensively a Angle of attack used at Airbus for shape design and Sideslip angle b optimization. -
Trailing Vortex Attenuation Devices
Calhoun: The NPS Institutional Archive Theses and Dissertations Thesis Collection 1985 Trailing vortex attenuation devices. Heffernan, Kenneth G. http://hdl.handle.net/10945/21590 DUDLEY KNOX LIBRARY NAVAL POSTGRADUATE SCHOOL MONTEREY, CALIFORNIA 93^43 NAVAL POSTGRADUATE SCHOOL Monterey, California THESIS TRAILING VORTEX ATTENUATION DEVICES by Kenneth G. Heffernan June 1985 Thesis Advisor: T. Sarpkaya Approved for public release; distribution is unlimited, T223063 Unclassified SECURITY CLASSIFICATION OF THIS PAGE (Whan Data Entered) REPORT READ INSTRUCTIONS DOCUMENTATION PAGE BEFORE COMPLETING FORM 1. REPORT NUMBER 2. GOVT ACCESSION NO. 3. RECIPIENT'S CATALOG NUMBER 4. TITLE (and Subtitle) 5. TYPE OF REPORT A PERIOD COVERED Dual Master's Thesis; Trailing Vortex Attenuation Devices June 1985 S. PERFORMING ORG. REPORT NUMBER 7. AUTHORC»> 8. CONTRACT OR GRANT NUMBERC*.) Kenneth G. Heffernan 9. PERFORMING ORGANIZATION NAME AND AODRESS 10. PROGRAM ELEMENT. PROJECT, TASK AREA & WORK UNIT NUMBERS Naval Postgraduate School Monterey, California 93943 I. CONTROLLING OFFICE NAME AND ADDRESS 12. REPORT DATE June 1985 Naval Postgraduate Schodl 13. NUMBER OF PAGES Monterey, California 93943 109 U. MONITORING AGENCY NAME 4 ADDRESSf/f different from Controlling OHicm) 15. SECURITY CLASS, (ol (his report) Unclassified 15a. DECLASSIFICATION/ DOWNGRADING SCHEDULE 16. DISTRIBUTION ST ATEMEN T (of this Report) Approved for public release; distribution is unlimited. 17. DISTRIBUTION STATEMENT (ol the abstract entered In Block 20, If different from Report) 18. SUPPLEMENTARY NOTES 19. KEY WORDS (Continue on reverse aide It necessary and Identify by block number) Trailing Vortices 20. ABSTRACT fConl/nu» on reverse side It necessary and Identity by block number) Trailing vortices generated by large aircraft pose a serious hazard to other planes. -
2018 KODIAK 100, Series II Serial Number: 100-253 Registration: N352CL
2018 KODIAK 100, Series II Serial Number: 100-253 Registration: N352CL www.modern-aviation.com | [email protected]| 1.206.762.6000 2018 KODIAK 100, Series II Serial Number: 100-253 Registration: N352CL AIRCRAFT HIGHLIGHTS • Upgraded Timberline Interior Seating • TKS Ice Protection • 10-Place Oxygen Upgrade • Air Conditioning • Garmin G1000 Nxi Avionics Suite Airframe Total Time Since New Airframe 60 Hrs Engine 1 60 Hrs Modern Aviation Aircraft Sales *All Specifications subject to independent verification Options Options Installed on Kodiak S/N 253 Kodiak Series II Standard Equipped Aircraft $2,150,000 Series II Paint Scheme allover white with black and silver stripes External baggage compartment $94,500 TKS Ice Protection System (Tank in Cargo Pod) $124,500 29” Tire Combo $1,750 GTS 800 TAS/WX-500 Stormscope Package $28,700 GDL 69A-XM Data Link with Audio Infotainment $6,950 ChartView Enable Card $5,000 Timberline Interior (Warm Brown) 4 seats $20,000 2 additional seats $17,700 10-place oxygen system $10,000 Bose A20 Headset (Passenger) (x2) $ 2,190 Air Conditioning $42,500 Total Retail Price as Optioned $2,503,790 Modern Aviation Aircraft Sales *All Specifications subject to independent verification Avionics and Equipment AVIONICS ENGINE INSTRUMENTS (Fully integrated in the G1000NXI) •Garmin G1000NXi Integrated Avionics Suite: • Torque (ft-lb) • RPM Prop •(2) Primary Flight Displays – PFD • ITT •Multifunction Display – MFD • RPM NG (%) •All three are next gen, high resolution 10. inch displays • Oil Temp/Pressure •Enhanced -
The Gulfstream IV Operator Had All the Appearance of a Good Operation But
SAFETY REPORT The Gulfstream IV operator had all the appearance of a good operation but the flightcrew lacked cockpit discipline NTSB finds widespread non-compliance with checklist use and control checks, leading to this tragic BED runway overrun crash. Paved overrun Source: Massachusetts State Police Main wreckage Flightcrew failure to review the checklist and release the gust lock prior to the takeoff run of Gulfstream IV N121JM on BED’s 7000-ft Rwy 11 as well as failure to be time-sensitive and abort the takeoff before running out of runway length led to destruction of the aircraft and the deaths of all occupants aboard. By Robert Sumwalt Gulfstream IV N121JM was frequently used for air transportation both NTSB Board Member domestically and overseas by Lewis Katz, the well-known and highly ATP/CFII/FE. Airbus A320, King Air 350, Boeing respected publisher of The Philadelphia Inquirer newspaper. 737, Fokker F28, Fokker 100 s often is the case in corporate aviation, the pas- at 1325 edt for the short hop to ACY, where they picked up sengers were running a few hours late. The 2 pi- the 4 passengers and flew them to BED (Hanscom Field, Alots and flight attendant decided to pass the time Bedford MA). After the passengers attended a charity event, by ordering a pizza and eating in the comfort of the cabin the plan was to return them to ACY and then reposition the of N121JM, the Gulfstream IV they had operated for 7 Gulfstream back to its home base at ILG. years. When the billionaire principal showed up with 3 Tragically, the evening didn’t end that way. -
C. Yeh – Airbus Fly-By-Wire Computers: A320-A350
Airbus Fly-By-Wire Computers A320 – A350 Ying Chin (Bob) Yeh, Ph. D., IEEE Fellow Technical Fellow Flight Controls Systems Boeing Commercial Airplanes IEEE ComSoc Technical Committee on Communication Quality & Reliability Emerging Technology Reliability Roundtable Stevenson, WA, USA, May 9, 2016 Non-technical / Administrative Data Only. Not subject to EAR or ITAR Export Regulations Airbus (and French) Organizations for Airbus FBW Computers ° Research In 1970, French government modeled SRI International and MIT DraperLabs to create LAAS CNRS research institute for Computing System Technology, with a work force of 750. A sub-group, Informatique crtique (dependable computing), has been the main research arm for Airbus FC, consisting of ~20 Ph.D researchers. This group is the computer architect for A320 FBW Computers. ° Platform Design After A320, Airbus creates EYY group to MAKE FBW Computers and being responsible for FBW Computers, Warning Electronics, and Maintenance. 2 Airbus Fly-By-Wire Computers Design Philosophy • Active-Standby control of an actuator for a control surface with multiple actuators, other actuators in By-Pass Mode • Active-Passive control of an actuator among Flight Control Computer channels: upon detecting loss of an active computer channel commands, the passive computer will become active • Self Monitor computer channel, with Command Lane and Monitor Lane 3 An example of Airbus FBW COM/MON-based Monitoring 4 Evolution of Airbus FBW Computers • A320 (Architect: LAAS, Platforms: Thompson CSF and Sfena, now Thales) Dual-Dual -
Intervention Strategies for the Management of Human Error
NASA Contractor Report 4547 Intervention Strategies for the Management of Human Error Earl L. Wiener University of Miami at Coral Gables Department of Management Science P. O. Box 248237 Coral Gables, FL 33124 Prepared for Ames Research Center CONTRACT NCA2-441 August 1993 National Aeronautics and Space AdministTation Ames Research Center Moffett Field, California 94035-1000 CONTENTS I , THE MANAGEMENT OF HUMAN ERROR A. Introduction B. The advent of modern cockpit automation C. Purpose and limitations of this study II. HUMAN ERROR AND INTERVENTION i0 A. Lines of defense I0 B. Intervention strategies - examples 13 C. Is there an intervention strategy for every problem? 25 D. Two models of intervention 27 III. INTERVENTION STRATEGIES: TRADITIONAL TECHNOLOGIES 29 A. Hardware 29 B. Procedures and supporting documentation 40 C. Communication 50 D. Training 55 IV. INTERVENTION STRATEGIES: ADVANCED TECHNOLOGIES 58 A, Employment of advanced technologies 58 B. Error management 62 C. Summary of management techniques 75 V, CONCLUSIONS AND OVERVIEW 76 A. Human error can be managed 76 B. Management strategies 77 C. The role of government 86 D. Summary 88 VI. REFERENCES 90 VII. NOTES AND ACKNOWLEDGMENTS i01 VIII. APPENDICES 103 I. Guidelines for intervention strategies 104 2. Wiener-Curry automation guidelines (1980) 107 3. Degani-Wiener guidelines for checklists (1990) 109 4. Glossary of abbreviations iii iii PI_Ord_NG PAGE Bt.ANK NOT FILMED SUMMARY This report examines the manaqement of human error in the cockpit. The principles probably apply as well to other applications in the aviation realm (e.g. air traffic control, dispatch, weather, etc.) as well as other high-risk systems outside of aviation (e.g. -
Approaches to Assure Safety in Fly-By-Wire Systems: Airbus Vs
APPROACHES TO ASSURE SAFETY IN FLY-BY-WIRE SYSTEMS: AIRBUS VS. BOEING Andrew J. Kornecki, Kimberley Hall Embry Riddle Aeronautical University Daytona Beach, FL USA <[email protected]> ABSTRACT The aircraft manufacturers examined for this paper are Fly-by-wire (FBW) is a flight control system using Airbus Industries and The Boeing Company. The entire computers and relatively light electrical wires to replace Airbus production line starting with A320 and the Boeing conventional direct mechanical linkage between a pilot’s 777 utilize fly-by-wire technology. cockpit controls and moving surfaces. FBW systems have been in use in guided missiles and subsequently in The first section of the paper presents an overview of military aircraft. The delay in commercial aircraft FBW technology highlighting the issues associated with implementation was due to the time required to develop its use. The second and third sections address the appropriate failure survival technologies providing an approaches used by Airbus and Boeing, respectively. In adequate level of safety, reliability and availability. each section, the nature of the FBW implementation and Software generation contributes significantly to the total the human-computer interaction issues that result from engineering development cost of the high integrity digital these implementations for specific aircraft are addressed. FBW systems. Issues related to software and redundancy Specific examples of software-related safety features, techniques are discussed. The leading commercial aircraft such as flight envelope limits, are discussed. The final manufacturers, such as Airbus and Boeing, exploit FBW section compares the approaches and general conclusions controls in their civil airliners. The paper presents their regarding the use of FBW technology.