A Study on Emergency Security Signal Technology for Safety Mr
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Global Maritime Distress and Safety System (GMDSS) Handbook 2018 I CONTENTS
FOREWORD This handbook has been produced by the Australian Maritime Safety Authority (AMSA), and is intended for use on ships that are: • compulsorily equipped with GMDSS radiocommunication installations in accordance with the requirements of the International Convention for the Safety of Life at Sea Convention 1974 (SOLAS) and Commonwealth or State government marine legislation • voluntarily equipped with GMDSS radiocommunication installations. It is the recommended textbook for candidates wishing to qualify for the Australian GMDSS General Operator’s Certificate of Proficiency. This handbook replaces the tenth edition of the GMDSS Handbook published in September 2013, and has been amended to reflect: • changes to regulations adopted by the International Telecommunication Union (ITU) World Radiocommunications Conference (2015) • changes to Inmarsat services • an updated AMSA distress beacon registration form • changes to various ITU Recommendations • changes to the publications published by the ITU • developments in Man Overboard (MOB) devices • clarification of GMDSS radio log procedures • general editorial updating and improvements. Procedures outlined in the handbook are based on the ITU Radio Regulations, on radio procedures used by Australian Maritime Communications Stations and Satellite Earth Stations in the Inmarsat network. Careful observance of the procedures covered by this handbook is essential for the efficient exchange of communications in the marine radiocommunication service, particularly where safety of life at sea is concerned. Special attention should be given to those sections dealing with distress, urgency, and safety. Operators of radiocommunications equipment on vessels not equipped with GMDSS installations should refer to the Marine Radio Operators Handbook published by the Australian Maritime College, Launceston, Tasmania, Australia. No provision of this handbook or the ITU Radio Regulations prevents the use, by a ship in distress, of any means at its disposal to attract attention, make known its position and obtain help. -
Celebrating the Radio Regulations 05/2016 Online Frequency Portals to Provide Spectrum Transparency
itunews Celebrating the Radio Regulations 05/2016 Online Frequency Portals to Provide Spectrum Transparency LS telcom Offices © istock.com Smart Spectrum Solutions Systems Solutions and Expertise in Spectrum Management, Spectrum Monitoring and Radio Network Planning & Engineering. www.LStelcom.com (Editorial) ITU Radio Regulations — Now more important than ever Houlin Zhao, ITU Secretary‑General uring this month of December we are celebrating the 110 years of existence of the ITU Radio Regulations — the essential international treaty governing the use of the radio-frequency spectrum and satellite orbits for Dubiquitous wireless communications. The ITU Radio Regulations ensure interference-free operations of radiocommunication systems and provide all countries with equitable access to the radio spectrum — a scarce natural resource that does not distinguish national borders and needs to be har- monized globally. In an increasingly “wireless” world, the Radio Regulations ena- ble all radio services to share the spectrum while satisfying their evolving requirements, protecting incumbents, and providing high-quality services to an increasingly growing number of users and applications. Since the early 1900s, the management of the radio-frequency In an spectrum and the regulation of its use have been major functions of ITU. In their role as global spectrum coordinators, ITU Member increasingly States have developed, and are constantly updating, the Radio 1 “wireless” world, Regulations. the Radio The first set of international regulations, drawn up in 1906, mainly Regulations concerned maritime radiotelegraphy. The 1906 Radiotelegraph enable all Convention gathered 30 maritime States on 3 November 1906 in Berlin for the first International Radiotelegraph Conference, and 05/2016 radio services adopted the “International Radiotelegraph Convention” estab- to share the lishing the principle of compulsory intercommunication between vessels at sea and in-land stations. -
JOTA Activity Booklet KE4TIO
1 2 3 Gulf Ridge Council Pack 415 KE4TIO Alan Wentzell (Operator) Amateur Call Signs Heard and Worked: __________________________________ __________________________________ __________________________________ __________________________________ __________________________________ __________________________________ __________________________________ __________________________________ States Contacted: __________________________________ __________________________________ __________________________________ __________________________________ __________________________________ __________________________________ __________________________________ __________________________________ Countries Contacted: __________________________________ __________________________________ __________________________________ __________________________________ Scouts Present: __________________________________ __________________________________ __________________________________ __________________________________ __________________________________ Akela’s Present: __________________________________ __________________________________ __________________________________ __________________________________ __________________________________ 4 Q Codes The “Q” code was originally developed as a way of sending shorthand messages in Morse Code. However, it is still used by operators for voice communications. Some of those in common use are listed below: QRA What is your call sign? QRM I have interference (manmade). QRN I am receiving static (atmospheric noise). QRT I am closing -
Mnlilslffislßl SIGNAL BOOK UNITED STATES ARMY
Uifh '^r MnlilSlffiSlßl SIGNAL BOOK UNITED STATES ARMY v 1916 WASHINGTON GOVERNMENT PRINTING OFFICE 1916 NOV 0 8 1988 WAR DEPARTMENT Document No. 500 Office ofthe Chief Sijnal Officer ADDITIONALCOPIES OF THIS PUBLICATION MAY BE PROCURED FROM THE•SUPERINTENDENT OF DOCUMENTS GOVERNMENT PRINTING OFFICE "WASHINGTON,D. C. AT 20 CENTS PER COPY V War Department, Office of the Chief of Staff. > Washington, April15, 1916. The followingSignal Book, prepared by the Chief Signal Officer of the Army,is approved and herewith issued for the information and government of the Regular Army and the Organized Militia of the United States. It supersedes Signal Book, United States Army, 1914, and its provisions willbe strictly observed throughout the service. order of the Secretary of War: H.L. Scott, Major General, Chief ofStaff. 3 CONTENTS. Page. Part I. General Instructions for Army Signaling 7 11. The American Morse Code 9 111. The International Morse or General Service Code. \u25a0 12 IV. Visual Signaling ingeneral 15 V. Visual Signaling by Flag, Torch, Hand Lan tern, or Beam of Searchlight (without shut ter) 17 VI. Signaling with Heliograph, Flash Lantern, or Searchlight (with shutter) 18 VII.The Ardois System 19 VIII.Signaling by Two-ArmSemaphore . 21 Stationary Semaphore 21 Hand Flags withTwo-ArmSemaphore Code. 21 IX.Letter Codes: Infantry .' 23 Cavalry. 24 Field Artillery ..... 24 Coast Artillery , 26 X. Conventional and Preconcerted Signals with Rockets, Bombs, Small Arms, Guns, Coston Lights, Very Pistols, etc 2828 XI.Flag Signals by Permanent Hoist. 31 XII.Conventional Telephone Signals 33 XIII.Emergency Signals '.. 34 XIV.Additional and Improvised Codes. 38 XV. -
International Code of Signals
PUB. 102 INTERNATIONAL CODE OF SIGNALS FOR VISUAL, SOUND, AND RADIO COMMUNICATIONS UNITED STATES EDITION 1969 Edition (Revised 2003) NATIONAL IMAGERY AND MAPPING AGENCY PUB. 102 International Code of Signals As adopted by the Fourth Assembly of the Inter-Governmental Maritime Consultative Organization in 1965 For Visual, Sound, and Radio Communications United States Edition, 1969 (Revised 2003) Prepared and published by the NATIONAL IMAGERY AND MAPPING AGENCY Bethesda, Maryland © COPYRIGHT 2003 BY THE UNITED STATES GOVERNMENT NO COPYRIGHT CLAIMED UNDER TITLE 17 U.S.C. For sale by the Superintendant of Documents, U.S. Government Printing Office Internet: bookstore.gpo.gov Phone: toll free (866) 512-1800; DC area (202) 512-1800 Fax: (202) 512-2250 Mail Stop: SSOP, Washington, DC 20402-0001 PREFACE Pub 102, the 1969 edition of the International Code of Signals, became effective on 1 April 1969, and at that time superseded H.O. Pubs. 103 and 104, International Code of Signals, Volumes I and II. All signals are contained in a single volume suitable for all methods of communication. The First International Code was drafted in 1855 by a Committee set up by the British Board of Trade. It contained 70,000 signals using eighteen flags and was published by the British Board of Trade in 1857 in two parts; the first containing universal and international signals and the second British signals only. The book was adopted by most seafaring nations. This early edition was revised by a Committee set up in 1887 by the British Board of Trade. The Committee’s proposals were discussed by the principal maritime powers and at the International Conference in Washington in 1889. -
1 めざせ 1 級! 英語上級者への道 ~Listen and Speak Ⅱ~ 第 7 回
めざせ 1 級! 英語上級者への道 ~Listen and Speak Ⅱ~ 第 7 回 モールス信号 Script ■Dialogue for Introduction E: Hello, Tets. Thanks for posting so many photos of your wonderful journey to Europe on Facebook. I felt as if I were traveling with you on the continent. T: Yes, with social networks we now have almost instant communication. That’s a far cry from the days of snail mail. E: Indeed it is. But you know, Tets, there were some important interim communication technologies along the way. For example, do you know the origin of the acronym “SOS”? T: Ah! Dot dot dot /dash dash dash/ dot dot dot! That is one of the most famous acronyms represented by the telegraph code system developed by Samuel Morse in 1836. That system was also implemented later in radio broadcasting. “Save Oh Save” or perhaps “Save Our Souls”…there is some debate as to the original meaning! There was, however, Edward, an earlier version of this call for distress! Did you know that, my friend? E: Indeed I do! The original code was CQD! It may have meant “Come quickly: Distress!” But the dots and dashes used to indicate it were too long and… T: Stop! We will have to send a real distress call if we spill the beans about our lesson too soon! Let’s give our listeners a chance to experience this article for themselves. E: A fine idea! Let’s signal the start of this month’s study! T&E: Pip-pip-pip…pip-pip. ■Listen to the passage and answer the questions that follow. -
Safety and Alarming Applications Using ISA100 Wireless
Safety and alarming applications using ISA100 Wireless Yokogawa Electric Corporation Toshi Hasegawa 1 March 2016 Presenter Toshi Hasegawa is a Manager of standard department, Marketing Head quarters. Toshi has been working for Yokogawa Electric Corporation for 27 years, and he has worked for development of Distributed Control Systems (DCS). His current activity is mainly on standardization and marketing of industrial wireless network. 2 The History of Radio • Marconi had an early interest in science, and was especially interested in the work of Hertz • He quickly realized the potential of wireless transmission and filed a British patent – Awarded on 2nd July 1897, GB12039 • At 12:00pm on the 12th December 1901 Marconi sent and received the first Transatlantic radio transmission 3 The History of Radio • On Sunday evening 14th April 1912 the largest passenger ship in the world, Titanic struck an iceberg • The radio operators onboard were employed by Marconi International Marine • They sent a distress signal alerting the world and the Carpathia "CQD CQD SOS Titanic Position 41.44 N 50.24 W.·······” • Radio had proven it worth… Wireless safety application has been started over 100 years ago.. 4 Today’s topics 1) Motivation of wireless for plant safety 2) Benefits 3) Key requirements 4) ISA100 Wireless solutions 5) Applications 6) Summary 5 Motivation of adopting wireless for safety • Preventive measures – Process condition / status monitoring: Temperatures / Pressures / Flows / Levels / etc. – Asset condition monitoring: Vibration / Corrosion / Temperature / etc. • Accident avoidance / Limit the extent of damages – Alarm / Warning: Gas leak detection / Safety shower detection /Tsunami detection – Emergency shutdown: Remote valve control for safety mode • Human safety – People tracking on site / Communication to navigate for evacuation / etc. -
Titanic Lessons.Indd
Lee AWA Review Titanic - Lessons for Emergency Communica- tions 2012 Bartholomew Lee Author She went to a freezing North Atlantic grave a hundred years ago, April 15, 1912, hav- By Bartholomew ing slit her hull open on an iceberg she couldn’t Lee, K6VK, Fellow avoid. Her story resonates across time: loss of of the California life, criminal arrogance, heroic wireless opera- Historical Radio tors, and her band playing on a sinking deck, Society, copyright serenading the survivors, the dying and the dead 2012 (no claim to as they themselves faced their own cold wet images) but any demise. The S.S. Titanic is the ship of legend.1 reasonable use The dedication to duty of the Marconi wire- may be made of less operators, Jack Phillips and Harold Bride, this note, respect- is both documented and itself legendary.2 Phil- ing its authorship lips stuck to his key even after Captain Edward and integrity, in Smith relieved him and Bride of duty as the ship furtherance of bet- sank. Phillips’ SOS and CQD signals brought the ter emergency com- rescue ships, in particular the S.S. Carpathia. munications. Phillips died of exposure in a lifeboat; Bride Plese see the survived.3 author description This note will present some of the Marconi at the end of the wireless messages of April 14. Any kind of work article, Wireless -- under stress is challenging. In particular stress its Evolution from degrades communications, even when effective Mysterious Won- communications can mean life or death. Art der to Weapon of Botterel4 once summed it up: “Stress makes you War, 1902 to 1905, stupid.” The only protection is training. -
Morse Code and the Information Age Morse Code, Invented by Samuel F. B. Morse in the 1830S, Is a Method of Transmitting Textual
Morse Code and the Information Age Morse code, invented by Samuel F. B. Morse in the 1830s, is a method of transmitting textual information as a series of on-off tones, lights, or clicks that can be directly understood by a skilled listener or observer without special equipment. The International Morse Code encodes the Roman alphabet, the Arabic numerals and a small set of punctuation and procedural signals. The original telegraph system had an apparatus on the receiving end that spat out a string of paper with indentations on it. Short indentations were called “dots” or “dits,” and the longer ones “dashes” or “dahs.” Because many non-English natural languages use more than the 26 Roman letters, extensions to the Morse alphabet exist for those languages. Morse code has been in use for more than 160 years—longer than any other electrical coding system. What is called Morse code today is actually somewhat different from what was originally developed. The Modern International Morse code, or continental code, was created by Friedrich Clemens Gerke in 1848 and initially used for telegraphy between Hamburg and Cuxhaven in Germany. Gerke changed nearly half of the alphabet and all of the numerals resulting substantially in the modern form of the code. After some minor changes, International Morse Code was standardized at the International Telegraphy Congress in 1865 in Paris, and was later made the standard by the International Telecommunication Union (ITU). Samuel Morse's original code specification, largely limited to use in the United States and Canada, became known as American Morse code or railroad code. -
Morse Code Worksheets Morse Code Facts
Morse Code Worksheets Morse Code Facts Morse code is used to send telegraphic information through two signal durations as dots and dashes that correspond to the alphabet, numbers, and punctuation. It transformed how people communicated with each other across long distances. HISTORY AND DEVELOPMENT ★ Samuel F. B. Morse, along with Leonard Gale and Alfred Vail, was able to develop a telegraph with a single circuit. Using this telegraph, the operator key is pushed down, sending an electrical signal to the receiver through a wire. ★ Around 1837, Morse and Vail developed a code that assigned a set of dots and dashes to the alphabet and numbers based on how often they are used in the English language. Samuel Morse, the inventor of Morse code KIDSKONNECT.COM Morse Code Facts ★ Simple codes were assigned to letters that are frequently used and those that are not used as often had more complex and extended codes. For example, the letter E, which is commonly used, is represented by while the letter Q is . ★ On May 24, 1844, Samuel Morse sent the first Morse telegraph from Washington, D.C., to Baltimore, Maryland. ★ In Samuel Morse's telegraph system, a paper tape is indented with a stylus whenever an electric current is received. Due to its mechanical components, the receiver makes a clicking sound whenever the stylus moves to mark the paper tape. A telegraph sounder (left) and key (right) The operators initially translated the message based on the indentations on the tape but soon they realized they could translate these clicks directly into dots (dits) and dashes (dahs) without the need to look at the paper tape. -
Federal Communications Commission § 80.319
Federal Communications Commission § 80.319 § 80.314 Distress communications. as practicable over a period of approxi- (a) The international radiotelephone mately one minute. The purpose of this distress signal consists of the word special signal is to attract the atten- MAYDAY, pronounced as the French tion of the person on watch or to actu- expression ‘‘m’aider’’. ate automatic devices giving the (b) These distress signals indicate alarm. that a mobile station is threatened by § 80.318 Use of alarm signals. grave and imminent danger and re- quests immediate assistance. (a) The radiotelegraph or radio- (c) The radiotelephone distress call telephone alarm signal, as appropriate, consists of: must only be used to announce: (1) The distress signal MAYDAY spo- (1) That a distress call or message is ken three times; about to follow; (2) The words THIS IS; (2) The transmission of an urgent cy- (3) The call sign (or name, if no call clone warning. In this case the alarm sign assigned) of the mobile station in signal may only be used by coast sta- distress, spoken three times; tions authorized by the Commission to (4) Particulars of the station’s posi- do so; or tion; (3) The loss of a person or persons (5) The nature of the distress; overboard. In this case the alarm sig- (6) The kind of assistance desired; nal may only be used when the assist- and ance of other ships is required and can- (7) Any other information which not be satisfactorily obtained by the might facilitate rescue, for example, use of the urgency signal only, but the the length, color, and type of vessel, or alarm signal must not be repeated by number of persons on board. -
“R.M.S. Titanic” Hanson W
“R.M.S. Titanic” Hanson W. Baldwin I The White Star liner Titanic, largest ship the world had ever known, sailed from Southampton on her maiden voyage to New York on April 10, 1912. The paint on her strakes was fair and bright; she was fresh from Harland and Wolff’s Belfast yards, strong in the strength of her forty-six thousand tons of steel, bent, hammered, shaped, and riveted through the three years of her slow birth. There was little fuss and fanfare at her sailing; her sister ship, the Olympic—slightly smaller than the Titanic— had been in service for some months and to her had gone the thunder of the cheers. But the Titanic needed no whistling steamers or shouting crowds to call attention to her superlative qualities. Her bulk dwarfed the ships near her as longshoremen singled up her mooring lines and cast off the turns of heavy rope from the dock bollards. She was not only the largest ship afloat, but was believed to be the safest. Carlisle, her builder, had given her double bottoms and had divided her hull into sixteen watertight compartments, which made her, men thought, unsinkable. She had been built to be and had been described as a gigantic lifeboat. Her designers’ dreams of a triple-screw giant, a luxurious, floating hotel, which could speed to New York at twenty-three knots, had been carefully translated from blueprints and mold loft lines at the Belfast yards into a living reality. The Titanic’s sailing from Southampton, though quiet, was not wholly uneventful.