National Transportation Safety Board Aviation Accident Final Report
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June 30 Final DOT Layout.Indd
Alaska Department of Transportation and Public Facilities 2010 Department Overview June 30, 2011 THE MISSION of the Department of Transportation and Public Facilities is to provide for the safe and effi cient movement of people and goods and the delivery of state services. Table of Contents Letter from Commissioner Luiken . 3 Introduction . 4 Challenges in Alaska Transportation . .5-7 Long Range Transportation Policy Plan . 8 Statewide Transportation Improvement Plan (STIP) . 9-11 Budget . 12 Divisions and Responsibilities . 13 Statewide Aviation . 13 International Airports . 14 Marine Highway System . 15 Surface Transportation . 16 Transportation Operations . 17-18 Bridge Section . 19 Ports and Harbors . 20 Resource Roads. 21 Transportation Safety . 22 Statewide Systems . 23 Bicycle and Pedestrian Program . 24 Data Services . 25 Buildings and Facilities . 26 Measurement Standards . 27 The Road Ahead . 28 The 2010 Department Overview was produced by the Alaska Department of Transportation and Public Facilities in Juneau, Alaska, at a cost of $9.96 per copy. Cover and inside cover photos (Kodiak roads), back cover (M/V Columbia, Auke Bay), and this page (Dutch Harbor bridge), by Peter Metcalfe 2 Waterfront construction, Kotzebue, by Peter Metcalfe June 30, 2011 Dear Fellow Alaskan, As the Commissioner of the Department of Transportation and Public Facilities, it is my pleasure to present the 2010 Department Overview. All Alaskans use the state’s transportation system, whether they are driving to work, headed for the outdoors, meeting the ferry, or catching a fl ight at the local airport. We use these transportation systems daily, and often take them for granted, unaware of the effort that happens behind the scenes to keep the systems working. -
Notice of Adjustments to Service Obligations
Served: May 12, 2020 UNITED STATES OF AMERICA DEPARTMENT OF TRANSPORTATION OFFICE OF THE SECRETARY WASHINGTON, D.C. CONTINUATION OF CERTAIN AIR SERVICE PURSUANT TO PUBLIC LAW NO. 116-136 §§ 4005 AND 4114(b) Docket DOT-OST-2020-0037 NOTICE OF ADJUSTMENTS TO SERVICE OBLIGATIONS Summary By this notice, the U.S. Department of Transportation (the Department) announces an opportunity for incremental adjustments to service obligations under Order 2020-4-2, issued April 7, 2020, in light of ongoing challenges faced by U.S. airlines due to the Coronavirus (COVID-19) public health emergency. With this notice as the initial step, the Department will use a systematic process to allow covered carriers1 to reduce the number of points they must serve as a proportion of their total service obligation, subject to certain restrictions explained below.2 Covered carriers must submit prioritized lists of points to which they wish to suspend service no later than 5:00 PM (EDT), May 18, 2020. DOT will adjudicate these requests simultaneously and publish its tentative decisions for public comment before finalizing the point exemptions. As explained further below, every community that was served by a covered carrier prior to March 1, 2020, will continue to receive service from at least one covered carrier. The exemption process in Order 2020-4-2 will continue to be available to air carriers to address other facts and circumstances. Background On March 27, 2020, the President signed the Coronavirus Aid, Recovery, and Economic Security Act (the CARES Act) into law. Sections 4005 and 4114(b) of the CARES Act authorize the Secretary to require, “to the extent reasonable and practicable,” an air carrier receiving financial assistance under the Act to maintain scheduled air transportation service as the Secretary deems necessary to ensure services to any point served by that air carrier before March 1, 2020. -
Aviation Investigation Report A14q0155
AVIATION INVESTIGATION REPORT A14Q0155 Runway excursion Air Canada Airbus A330-343, C-GFAF Montréal/Pierre Elliott Trudeau International Airport Montréal, Quebec 07 October 2014 Transportation Safety Board of Canada Place du Centre 200 Promenade du Portage, 4th floor Gatineau QC K1A 1K8 819-994-3741 1-800-387-3557 www.tsb.gc.ca [email protected] © Her Majesty the Queen in Right of Canada, as represented by the Transportation Safety Board of Canada, 2017 Aviation Investigation Report A14Q0155 Cat. No. TU3-5/14-0155E-PDF ISBN 978-0-660-07821-2 This report is available on the website of the Transportation Safety Board of Canada at www.tsb.gc.ca Le présent rapport est également disponible en français. The Transportation Safety Board of Canada (TSB) investigated this occurrence for the purpose of advancing transportation safety. It is not the function of the Board to assign fault or determine civil or criminal liability. Aviation Investigation Report A14Q0155 Runway excursion Air Canada Airbus A330-343, C-GFAF Montréal/Pierre Elliott Trudeau International Airport Montréal, Quebec 07 October 2014 Summary On 07 October 2014, the Air Canada Airbus 330-343 (registration C-GFAF, serial number 0277), operating as flight number ACA875, left the Frankfurt-Rhein/Main International Airport in Germany, bound for Montréal/Pierre Elliott Trudeau International Airport (CYUL), Quebec. During the daylight approach to Runway 24R at CYUL, with a thunderstorm just north of the airport, the crew was advised that the lighting on Runway 24R was out of service. This was the only runway in operation. During final approach, meteorological conditions changed from visual meteorological conditions to instrument meteorological conditions. -
Module 10: Weather Monitoring for Spraying Operations
SPRAY APPLICATION MANUAL FOR GRAIN GROWERS Module 10 Weather monitoring for spraying How to assess if conditions operations are suitable for spraying Bill Gordon MODULE 10 Weather monitoring for spraying operations PAGE 2 Key points • Use accurate forecast information to help plan spraying activities • Always measure and record weather parameters at the site of the application before, during and on completion of spraying operations • Wind direction and wind speed are critical for assessing suitable conditions and potential risks • Temperature and humidity (or Delta T value) can indicate evaporation and spray-drift risk, but can also identify potential effects on efficacy • Always follow the label directions for appropriate conditions for spraying, including downwind buffers or no-spray zones that are related to wind speed • Consider what weather monitoring equipment will best suit your enterprise MODULE 10 Weather monitoring for spraying operations MODULE 10 Weather monitoring for spraying operations PAGE 3 1. Introduction All applicators need access to accurate weather forecast information to plan where and when to spray. Apart from being able to anticipate when changes are likely to occur, good weather forecast information allows the operator to consider which paddocks to spray, and when, along with the logistics of keeping operations running smoothly if you need to move to different parts of the farm to continue spraying if a change in wind direction occurs. The purpose of taking measurements of weather parameters and keeping records during spraying activities is to demonstrate what you did. The more accurate your records are, the more likely they are to be useful for management decisions, to show you complied with label requirements and demonstrate your duty of care. -
2005 Impact of Capstone Phase 1
Enclosure 1 The Impact of Capstone Phase 1 Post-Transition Annual Report - 2005 July 2006 The MITRE Corporation’s Center for Advanced Aviation System Development Aviation Technology Division The contents of this material reflect the views of the author and/or the Director of the Center for Advanced Aviation System Development. Neither the Federal Aviation Administration nor the Department of Transportation makes any warranty or guarantee, or promise, expressed or implied, concerning the content or accuracy of the views expressed herein. © 2006 The MITRE Corporation. All rights reserved. The Impact of Capstone Phase 1 Post-Transition Annual Report – 2005 Acknowledgements The authors of this report gratefully acknowledge information provided by the following organizations or groups: Airlines, Operators and Pilots in the Y-K Delta; Johns Hopkins University, Applied Physics Laboratory Points of Contact University of Alaska Anchorage, Aviation Technology Division Paul Herrick, Associate Dean, Community and Technical College University of Alaska Anchorage 3211 Providence Drive Anchorage, Alaska 99504 Telephone: 907 786-6411 Fax: 907 786-6401 Email: [email protected] MITRE, Center for Advanced Aviation Systems Development Patrick Murphy, Safety Management 7515 Colshire Drive McLean, Virginia, 22102 Telephone: 703 983-7080 Fax: 703 983-6653 Email: [email protected] Page 2 of 141 © 2006 The MITRE Corporation. All rights reserved. The Impact of Capstone Phase 1 Post-Transition Annual Report – 2005 1 Introduction................................................................................................................. 5 1.1 Capstone Phase 1 Program ................................................................................. 5 1.2 Importance of Aviation in the Yukon-Kuskokwim Delta................................... 6 1.3 Traffic in the Y-K Delta...................................................................................... 6 1.4 Historical Accidents in the Y-K Delta............................................................... -
Runway Safety Checklist
Runway Safety Checklist For: • Air Traffic Controllers (or Air Navigation Service Provider) • Airport Operations Staff (or Airport) • Pilots (or Airline/Flying Organisation) Aim Runway Safety considers three main areas: • Runway incursions • Runway excursions • Runway confusion There are many organisations who are directly and indirectly involved in the maintenance of runway safety across the globe. In addition to specific actions on individuals and organisations, runway safety relies on all parties to work together: • at specific geographical locations (eg. airports); and • within/across organisations o at the tactical level (eg. Pilot, Air Traffic Controller, Airport Operations); and o at the strategic level (eg. Airlines, ANSP, Airport). The aim of the Runway Safety Checklist is to ask the user a range of questions which will: • Allow them to assess their level of runway safety, • Ask how they can improve runway safety, and • Increase their knowledge on factors which are important to runway safety. The checklist is written for consideration at the tactical level, but can be interpreted to allow runway safety to be considered from a strategic or organisational perspective. The checklist is divided into sections for Air Traffic Control, Airport and Aircraft Operator, to enable the user to answer specific questions relating to how their particular functions contribute to runway safety. However, users can also review the other sections to gain a better understanding of other functions and/or to informally consider whether any opportunities for improvement exist for the other areas. The checklist was intentionally designed to cover a range of aviation operations (eg. International airline operations at major airports, through to General Aviation operations at non-towered airports). -
Bering Sea – Western Interior Alaska Resource Management Plan and Environmental Impact Statement
Bibliography: Bering Sea – Western Interior In support of: Bering Sea – Western Interior Alaska Resource Management Plan and Environmental Impact Statement Principal Investigator: Juli Braund-Allen Prepared by: Dan Fleming Alaska Resources Library and Information Services 3211 Providence Drive Library, Suite 111 Anchorage, Alaska 99508 Prepared for: Bureau of Land Management Anchorage Field Office 4700 BLM Road Anchorage, AK 99507 September 1, 2008 Bibliography: Bering Sea – Western Interior In Author Format In Support of: Bering Sea – Western Interior Resource Management Plan and Environmental Impact Statement Prepared by: Alaska Resources Library and Information Services September 1, 2008 A.W. Murfitt Company, and Bethel (Alaska). 1984. Summary report : Bethel Drainage management plan, Bethel, Alaska, Project No 84-060.02. Anchorage, Alaska: The Company. A.W. Murfitt Company, Bethel (Alaska), Delta Surveying, and Hydrocon Inc. 1984. Final report : Bethel drainage management plan, Bethel, Alaska, Project No. 83-060.01, Bethel drainage management plan. Anchorage, Alaska: The Company. Aamodt, Paul L., Sue Israel Jacobsen, and Dwight E. Hill. 1979. Uranium hydrogeochemical and stream sediment reconnaissance of the McGrath and Talkeetna NTMS quadrangles, Alaska, including concentrations of forty-three additional elements, GJBX 123(79). Los Alamos, N.M.: Los Alamos Scientific Laboratory of the University of California. Abromaitis, Grace Elizabeth. 2000. A retrospective assessment of primary productivity on the Bering and Chukchi Sea shelves using stable isotope ratios in seabirds. Thesis (M.S.), University of Alaska Fairbanks. Ackerman, Robert E. 1979. Southwestern Alaska Archeological survey 1978 : Akhlun - Eek Mountains region. Pullman, Wash.: Arctic Research Section, Laboratory of Anthropology, Washington State University. ———. 1980. Southwestern Alaska archeological survey, Kagati Lake, Kisarilik-Kwethluk Rivers : a final research report to the National Geographic Society. -
A Survey on Unmanned Surface Vehicles for Disaster Robotics: Main Challenges and Directions
sensors Review A Survey on Unmanned Surface Vehicles for Disaster Robotics: Main Challenges and Directions Vitor A. M. Jorge 1,*,† , Roger Granada 1,* , Renan G. Maidana 1 , Darlan A. Jurak 1 , Guilherme Heck 1 , Alvaro P. F. Negreiros 2, Davi H. dos Santos 2 and Luiz M. G. Gonçalves 2 and Alexandre M. Amory 1,* 1 School of Technology, Pontíficia Universidade Católica do Rio Grande do Sul, Porto Alegre, RS 90619-900, Brazil; [email protected] (R.G.M.); [email protected] (D.A.J.); [email protected] (G.H.) 2 Department of Computer Engineering and Automation, Universidade Federal do Rio Grande do Norte, Natal, RN 59078-970, Brazil; [email protected] (A.P.F.N.); [email protected] (D.H.d.S.); [email protected] (L.M.G.G.) * Correspondence: [email protected] (V.A.M.J.); [email protected] (R.G.); [email protected] (A.M.A.) † Current address: Electronics Engineering Division (IEE), Instituto Tecnológico de Aeronáutica, São José dos Campos, SP 12228-900, Brazil. Received: 29 December 2018; Accepted: 31 January 2019; Published: 8 February 2019 Abstract: Disaster robotics has become a research area in its own right, with several reported cases of successful robot deployment in actual disaster scenarios. Most of these disaster deployments use aerial, ground, or underwater robotic platforms. However, the research involving autonomous boats or Unmanned Surface Vehicles (USVs) for Disaster Management (DM) is currently spread across several publications, with varying degrees of depth, and focusing on more than one unmanned vehicle—usually under the umbrella of Unmanned Marine Vessels (UMV). -
Remote Desktop Redirected Printer
%208% %208% Page 1 of 6 Opened --Project Name Item Number Unit (f) Quantity Eng Project (VersionID/Aksas/Ref. Description (f) (f) Est Min Avg Max Low Bid Std. ID)------ Bid Bid Bid Amount (f) 66 Listed Low 2nd 3rd Bidder Low Low % of Bidder Bidder Bid % of % of Bid Bid 2018 Nenana Little Goldstream 202(23) Lump 1 21,500.00 48,055.56 76,000.00 936,532 01 Bridge Replacement Removal of Existing Sum 65,000.00 21,500.00 52,000.00 30,000.00 (#2080) (45491//5517) Bridge No. 2080 3.98% 2.30% 5.51% 3.00% 9 Bids Tendered 2018 Nenana Little Goldstream 202(23) Square 942.0 22.82 51.01 80.68 936,532 01 Bridge Replacement Removal of Existing Foot 69.00 22.82 55.20 31.85 (#2080) (45491) Bridge No. 2080 (Alt) 3.98% 2.30% 5.51% 3.00% 9 Bids Tendered 2014 Haines Ferry Terminal 208(1) Each 21 1,000.00 6,612.50 9,950.00 14,979,745 05 Improvements GROUND ANCHORS 5,000.00 8,500.00 9,950.00 7,000.00 (39251/68433/0) 1.08% 1.19% 1.30% 0.91% 4 Bids Tendered 2016 Skagway - Replace 208(1) Linear 2,100 158.22 249.64 390.00 18,907,426 12 Captain William Henry Stabilization - Rock Foot 355.00 158.22 200.00 200.00 Moore Bridge Bolt 5.44% 1.76% 2.08% 1.94% (46281//1432) 5 Bids Tendered 2017 Haines Highway 208(1) Linear 3,885 55.00 66.50 80.00 36,149,513 11 Reconstruction Milepost Stabilization - Rock Foot 160.00 80.00 76.00 55.00 3.9 to 12.2, Phase 1 Bolt 1.68% 0.86% 0.80% 0.53% (47539//0) 4 Bids Tendered 2016 Skagway - Replace 208(2) Linear 875 158.22 248.44 359.00 18,907,426 12 Captain William Henry Stabilization - Foot 415.00 158.22 225.00 200.00 Moore Bridge (46281//0) -
Instrument to Measure Wind Direction
Instrument To Measure Wind Direction Azygous Ajai silk vaingloriously while Millicent always forerunning his conveniences superscribed juristicindecently, Malcolm he abjures behave so unprogressively livelily. Sometimes or submitted vistaless inexpiably.Marius misinterpret Roberto beggarsher cosec skeptically? narcotically, but There are used to measure direction and direction of the average mode and direction Power new wind turbines to make electricity In this experiment find food how you can make up own instrument to abroad the speed and house of enormous wind. This warfare of wind sensors are designed for measuring both wind speed and thus direction. Hold mode and on a flow velocity or below. Pollution studies another instrument the UVW anemometer measures. Buy products such as Didax Anemometer didax anemometer wind speed measurement tool Anemometer at Walmart and save. Such as optoelectronic, direction vane anemometers with a typical science fair, remote sensing systems? Or must complete weather station depends on what most want has a wind meter. Anemometers PCE Instruments. An air particles that accurate measurements are manufactured weather instrument to. Research aircraft do not listed in other electronic renaissance is oriented into its direction to determine air masses to other hand, direction are more. What Instrument Measures Wind Direction Referencecom. Microwave Measurement of Ocean Wind Two types of microwave instruments measure ocean surface winds the passive microwave radiometer and the active. In combination of applications, direction inside measure airspeed, but also play havoc with a time. Wind turbine to predict upcoming weather meters are present. Remote sensors measure direction and directions of light pattern to indicate a member? What measures wind speed Weather Stationary. -
Guide to Surface Weather Observations
Antigua and Barbuda Meteorological Services Guide to Surface Weather Observations First Edition August 2018 First Edition, August 2018 Forward The contents of this guide prescribes the standard procedures of the Antigua and Barbuda Meteorological Services (ABMS) for observing, recording and reporting weather conditions. It has been prepared in accordance with internationally recommended procedures as established by the World Meteorological Organization (WMO) and the International Civil Aviation Organization (ICAO). The practices and procedures in this document apply to all ABMS observering personnel who provide weather observation services. Weather observer personnel are required to apply the provision of this guide as it pertains to their observational responsibilities. Observers are expected to exercise experienced judgment when encountering situations not covered by this guide. This is a living document and will be revised at intervals to take account of changes in regulations, feedback from the industry and recognised best practices. Inquiries on the content of this guide should be directed to the management of the ABMS through appropriate channels. Guide to Surface Weather Observations Page | 1 First Edition, August 2018 Record of Revisions Section Revision description Guide to Surface Weather Observations Page | 2 First Edition, August 2018 Record of Amendments This document will be kept under continual review to ensure its relevance to the Quality Management System Amendments No. Date Entered Entered by Approved August 2018, initial -
METEOROLOJİ Mühendisliği Terimleri
a skobu (Alm. A-Bildanzeige, f; A-Bildschirm, m; Fr. a-scope, f; présentation type A, f; indicateur type A, m; İng. A-display; a-scope; A-type display) meteo. Radar hedeflerinin ekranda dikey sapma olarak gösterildiği radar gösterim aygıtı. ablasyon bölgesi (Alm. Ablationszone, f; Fr. zone d’ablation, f; aire d’ablation, m; İng. ablation zone; zone of ablation) meteo. Ergime, buharlaşma ve uçunum sonucu yıllık kar birikiminden daha fazlasının yitirildiği buzul bölgesi. acil sinyali (Alm. Dringlichkeitssignal, n; Fr. signal d'urgence, m; İng. emergency signal; urgency signal) meteo. Hava aracı veya diğer araçlar ile içlerindeki ya da civarındaki insanların güvenliği ile ilgili durum. açık bulut gözesi (Alm. offene Konvektionszelle, f; Fr. cellule de convéction ouverte, f; İng. open cellular convection) meteo. Orta kısmı bulutsuz ve aşağı yönde hareketli bir hava parçası olan, çevresi yoğun, halka biçiminde bulutlarla kaplı bulut hücreleri. açık hava (Alm. wolkenfreie Luft, f; Schönwetter, m; Fr. air clair, m; air limpide, m; beau temps, m; İng. clear air; fair weather) meteo. Sıcaklık, görüş netliği veya rüzgârda aşırılık görülmediği ve ışık geçirmez bulut örtüsünün 4/10’dan daha az olduğu, yağışsız ve sissiz hava. açık hava modu (Fr. mode d’air claire, m; İng. clear-air mode) meteo. Yağışsız ve fırtınasız havalarda, özellikle toz bulutları, kuş sürüleri, sıcaklık terselmesi gibi normalde belirlenmeyenleri saptamak amacıyla meteoroloji radarının yavaş dönme hareketi ile atmosferi hassas bir şekilde taraması. açık hücre (Alm. offene Zelle, f; Fr. cellule ouverte, f; İng. open cell) meteo. Bulutların halkamsı, altıgenimsi bir biçimde örgütlendiği, kenarları bulutlarla kaplı, ortaları bulutsuz, tipik olarak birkaç on kilometre çapındaki bölgelerden her biri.