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93685-002 Wellcraft
252 FISHERMAN L.0.A. w/pulpit 24’ 4” (7.42 m) Beam 8’ 9” (2.66 m) Dry weight (approx.)* 4680 lbs. (2123 kg) Fuel capacity (Gas) 180 gal. (682 L) Max hp power @ prop 450 HP (336 kw) Shaft length: Single 30” (.76 m) Twin 25” (.64 m) Water capacity (option) 8 gal. (30 L) Deadrise 20˚ Draft: up (approx) 16” (.41 m) Draft: down (approx) 29.5” (.75 m) Bridge clearance w/o top 6’ 8” (2.03 m) Bridge clearance w/T-top (approx) 8’ 2” (2.49 m) * Dry weight calculated does not include engine(s). Dry weight will vary with engine and options installed. KEY SALES FEATURES • Full height transom • Foam filled, fiberglass, box section stringer with integral high density composite transom • Recessed stainless grab rails - port/stbd bow • Full FRP cabin console liner with additional port/stbd below deck storage • Fish boxes (2) forward 180 qt. w/overboard drain arid sealed lids • Lighted baitwell 84 qt. with overboard drain • Rod storage under gunwale port and starboard • Stainless steel gunwale-mounted rod holders (4) • Fiberglass cockpit with diamond pattern skid resistant surfaces • All stainless steel deck hardware thru-bolted • Complies with Coast Guard safety regulations • 10-year structural hull warranty - transferable • NMMA Certified 42 STANDARD EQUIPMENT HULL & DECK MECHANICAL Anchor rope locker w/hawse Accessory plug - (1) 12V at pipe helm Anchor roller with cleat Baitwell pump 700 gph Bow and stern eyes - Battery parallel with remote stainless steel switch at helm Cleats (7) 8” stainless steel Battery switch - dual with Gunnel caps - port/stbd -
Steering and Stabilisation Set a Course for Optimum Reliability and Performance
Marine Steering and stabilisation Set a course for optimum reliability and performance 1 Systems that keep vessels safely on course and comfortable in all conditions Since pioneering electro-hydraulic steering gear nearly a century ago, we continue to develop new systems for vessels ranging from large tankers to super yachts. Customers benefit from the world leading hydrodynamics expertise and the design resources of the Rolls-Royce rudder, steering gear, stabilisation and propulsion specialists, who cooperate to address and handle challenging projects and deliver system solutions. This minimises technical risk as well as maximising vessel performance. move Contents: Steering gear page 4 Promas page 10 Rudders page 12 Stabilisers page 18 Customer support page 22 movemake the right Steering gear Rotary vane steering gear for smaller vessels The SR series is designed with integrated frequency controlled pumps. General description Rolls-Royce supplies a complete range of steering gear, suitable for selection, alarm panels and rudder angle indicators or just a portion all types and sizes of ships. The products are designed as complete of this. The system is also prepared for interface to VDR, ships main steering systems with the actuator, power pack, steering control, alarm system, autopilot, joystick and DP when requested. Due to a alarm and rudder angle indicating system in mind, and can wide range of demands, great care has been taken from material therefore be delivered with complete control systems, including selection through construction, -
TOC for GSA Pricing
Brunswick Commercial & Government Products 2005 Price List for Indiana Department of Natural Resources Contract #RSP-5-52 Brunswick Commercial & Government Products, Inc. reserves the right to modify or discontinue models, equipment or prices at any time without incurring obligation. BUILT FOR THE MISSION.TM BRUNSWICK COMMERCIAL & GOVERNMENT PRODUCTS, INC. 420 Megan Z Avenue • Edgewater, FL 32132 • Phone 386.423.2900 • Fax 386.423.9187 www.brunswickCGboats.com ENGINE PRE-RIG KITS INCLUDE THE FOLLOWING: MERCURY SINGLE O/B ENGINE PRE-RIG (61420) MERCURY DUAL O/B ENGINE PRE-RIG (61421) FUEL FILTER/WATER SEPERATOR (BOATS WITH BUILT IN FUEL TANK) (SEE NOTE 1) (2) FUEL FILTER/WATER SEPERATOR (BOATS WITH BUILT IN FUEL TANK) (SEE NOTE 1) ELECTRIC FUEL GAUGE (BOATS WITH BUILT IN FUEL TANK) ELECTRIC FUEL GAUGE (BOATS WITH BUILT IN FUEL TANK) BINNACLE BINNACLE WIRING HARNESS, KEY SWITCH & ALARM HORN WIRING HARNESS, KEY SWITCH & ALARM HORN SHIFT & THROTTLE CABLES SHIFT & THROTTLE CABLES TACHOMETER (2) TACHOMETER VOLTMETER (2) VOLTMETER TRIM GAUGE (2) TRIM GAUGE HOUR METER (2) HOUR METER ENGINE TIE BAR KIT BOMBARDIER SINGLE O/B ENGINE PRE-RIG (61422) BOMBARDIER DUAL O/B ENGINE PRE-RIG (61423) FUEL FILTER/WATER SEPERATOR (BOATS WITH BUILT IN FUEL TANK) (2) FUEL FILTER/WATER SEPERATOR (BOATS WITH BUILT IN FUEL TANK) ELECTRIC FUEL GAUGE (BOATS WITH BUILT IN FUEL TANK) ELECTRIC FUEL GAUGE (BOATS WITH BUILT IN FUEL TANK) BINNACLE BINNACLE WIRING HARNESS, KEY SWITCH & ALARM HORN WIRING HARNESS, KEY SWITCH & ALARM HORN SHIFT & THROTTLE CABLES SHIFT & THROTTLE -
1 Overview of USS Constitution Re-Builds & Restorations USS
Overview of USS Constitution Re-builds & Restorations USS Constitution has undergone numerous “re-builds”, “re-fits”, “over hauls”, or “restorations” throughout her more than 218-year career. As early as 1801, she received repairs after her first sortie to the Caribbean during the Quasi-War with France. In 1803, six years after her launch, she was hove-down in Boston at May’s Wharf to have her underwater copper sheathing replaced prior to sailing to the Mediterranean as Commodore Edward Preble’s flagship in the Barbary War. In 1819, Isaac Hull, who had served aboard USS Constitution as a young lieutenant during the Quasi-War and then as her first War of 1812 captain, wrote to Stephen Decatur: “…[Constitution had received] a thorough repair…about eight years after she was built – every beam in her was new, and all the ceilings under the orlops were found rotten, and her plank outside from the water’s edge to the Gunwale were taken off and new put on.”1 Storms, battle, and accidents all contributed to the general deterioration of the ship, alongside the natural decay of her wooden structure, hemp rigging, and flax sails. The damage that she received after her War of 1812 battles with HMS Guerriere and HMS Java, to her masts and yards, rigging and sails, and her hull was repaired in the Charlestown Navy Yard. Details of the repair work can be found in RG 217, “4th Auditor’s Settled Accounts, National Archives”. Constitution’s overhaul of 1820-1821, just prior to her return to the Mediterranean, saw the Charlestown Navy Yard carpenters digging shot out of her hull, remnants left over from her dramatic 1815 battle against HMS Cyane and HMS Levant. -
1850 Pro Tiller
1850 Pro Tiller Specs Colors GENERAL 1850 PRO TILLER STANDARD Overall Length 18' 6" 5.64 m Summit White base w/Black Metallic accent & Tan interior Boat/Motor/Trailer Length 21' 5" 6.53 m Summit White base w/Blue Flame Boat/Motor/Trailer Width 8' 6" 2.59 m Metallic accent & Tan interior Summit White base w/Red Flame Boat/Motor/Trailer Height 5' 10" 1.78 m Metallic accent & Tan interior Beam 94'' 239 cm Summit White base w/Storm Blue Metallic accent & Tan interior Chine width 78'' 198 cm Summit White base w/Silver Metallic Max. Depth 41'' 104 cm accent & Gray interior Max cockpit depth 22" 56 cm Silver Metallic base w/Black Metallic accent & Gray interior Transom Height 25'' 64 cm Silver Metallic base w/Blue Flame Deadrise 12° Metallic accent & Gray interior Weight (Boat only, dry) 1,375# 624 kg Silver Metallic base w/Red Flame Metallic accent & Gray interior Max. Weight Capacity 1,650# 749 kg Silver Metallic base w/Storm Blue Max. Person Weight Capacity 6 Metallic accent & Gray interior Max. HP Capacity 90 Fuel Capacity 32 gal. 122 L OPTIONAL Mad Fish graphics HULL Shock Effect Wrap Aluminum gauge bottom 0.100" Aluminum gauge sides 0.090'' Aluminum gauge transom 0.125'' Features CONSOLE/INSTRUMENTATION Command console, w/lockable storage & electronics compartment, w/pull-out tray, lockable storage drawer, tackle storage, drink holders (2), gauges, rocker switches & 12V power outlet Fuel gauge Tachometer & voltmeter standard w/pre-rig Master power switch Horn FLOORING Carpet, 16 oz. marine-grade, w/Limited Lifetime Warranty treated panel -
Coast Guard, DHS § 164.33
Coast Guard, DHS § 164.33 the United States unless no more than on a regular basis at least once every 12 hours before entering or getting un- three months. This drill must include derway, the following equipment has at a minimum the following: been tested: (1) Operation of the main steering (1) Primary and secondary steering gear from within the steering gear gear. The test procedure includes a vis- compartment. ual inspection of the steering gear and (2) Operation of the means of commu- its connecting linkage, and, where ap- nications between the navigating plicable, the operation of the following: bridge and the steering compartment. (i) Each remote steering gear control (3) Operation of the alternative power system. supply for the steering gear if the ves- (ii) Each steering position located on sel is so equipped. the navigating bridge. (92 Stat. 1471 (33 U.S.C. 1221 et seq.); 49 CFR (iii) The main steering gear from the 1.46(n)(4)) alternative power supply, if installed. (iv) Each rudder angle indicator in [CGD 77–183, 45 FR 18925, Mar. 24, 1980, as relation to the actual position of the amended by CGD 83–004, 49 FR 43466, Oct. 29, 1984] rudder. (v) Each remote steering gear control § 164.30 Charts, publications, and system power failure alarm. equipment: General. (vi) Each remote steering gear power No person may operate or cause the unit failure alarm. operation of a vessel unless the vessel (vii) The full movement of the rudder has the marine charts, publications, to the required capabilities of the and equipment as required by §§ 164.33 steering gear. -
& Marine Engineering
REFERENCE ROOM Naval Architecture & Marine Engineering ft* University of Michigan Ann Arbgr, M g109 THE UNIVERSITY OF MICHIGAN COLLEGE OF ENGINEERING Department of Naval Architecture and Marine Engineering DESIGN CONSIDERATIONS AND THE RESISTANCE OF LARGE, TOWED, SEAGOING BARGES J. L. Moss Corning Townsend III Submitted to the SOCIETY OF NAVAL ARCHITECTS AND MARINE ENGINEERS Under p. O. No. 360 September 15, 1967 In the last decade, -ocean-going unmanned barges have become an increasingly important segment of our merchant marine. These vessels, commonly over 400 feet long, and sometimes lifting in excess of 15,000 L.T. dead weight, are usually towed on a long hawser behind a tugboat. Because the barges are inherently directionally unstable, twin out- board skegs are attached to achieve good tracking. Model tests are conducted in order to determine towline resistance and the proper skeg position which renders the barge stable. Skegs, vertical appendages similar to rudders, are placed port and starboard on the rake. They create lift and drag, and move the center of lateral pressure aft, thus tending to stabilize a barge towed on a long line. At The University of Michigan many such model experiments have been conducted within the past several years. Since these tests have been carried out for various industrial con- cerns and on specific designs, systematic variations of parameters or other means of specifically relating the results have not been possible in most cases. Nevertheless, on the basis of the results of these largely unrelated tests, recom- mendations can be made regarding good design practice and some specific aspects can be demonstrated. -
An Analytical Approach to the Question of a Clock Change
An Analytical Approach to the Question of a Clock Change by Samuel Halpern One of the ongoing arguments that continues to be brought up is the question of whether or not clocks on Titanic were put back some time before the accident took place Sunday night, April 14, 1912. Some of the deck crew, awakened by the accident at 11:40 p.m. ship’s time, thought that it was close to the time that they were due to take their watch on deck, which would be at 12 o’clock. Despite Boatswain’s Mate Albert Haines, who was awake and on duty at the time, testifying that “The right time, without putting the clock back, was 20 minutes to 12,” there are some that try to argue that a 24 minute clock adjustment had already taken place, and the time of the accident on an unadjusted clock still keeping April 14th time would have been 4 minutes past 12. The underlying question that would resolve this issue is the run time from noon Sunday to the time of the accident. If the run time from noon to the time of the accident was 11 hours 40 minutes, then no clock change had yet taken place, and the time of collision was 11:40 p.m. in unadjusted hours. If the run time was more than 12 hours, then there was a clock change of some 23 or 24 minutes, and the time of collision was 11:40 p.m. in adjusted hours. It really is that simple. So how do we determine the actual run time from the available evidence that does not have to rely on subjective estimates such as time intervals or other measures that people may have perceived? The answer is to take an analytical approach to the problem using the taffrail log mileage data offered by quartermasters George Rowe and Robert Hichens at the inquiries. -
Service Operations Vessel 9020 Standard
1. Click with cursor in the blank space above 2. Drag & Drop Picture (16:9 ratio) 3. Optional: add hyperlink to Damen.com product page to the picture SERVICE OPERATIONS VESSEL 9020 STANDARD PICTURE OF SIMILAR VESSEL GENERAL DECK LAY-OUT Basic functions To provide stepless access onto Lift 2 tonne lift connecting 4 access levels (option: 6) for continuous windfarm assets for technicians, tools access between warehouse, weather deck and WTG via optional and parts by access system, crane and gangway. daughter craft. in both Construction Pedestals - for optional crane Support and Service Operations. - for optional gangway system Classification DNV-GL Maritime, notation: Helicopter winch area on foreship, stepless access to warehouse, hospital. Option: X 1A1, Offshore Service Vessel, helideck D-size 21m COMF(C-3, V-3), DYNPOS(AUTR), CTV landing facilities 1 fixed steel landing at stern. Clean, SF, E0, DK(+), SPS, NAUT(OSV- 1 removable alum. landing SB / PS. A), BWM(T), Recyclable, Crane Flag ACCOMMODATION Owner Crew/ special personnel 15-20x crew, 40-45x SP, all single cabins provided with WiFi, LAN, telephone and audio / video entert. (VOD and sat. TV). DIMENSIONS Other facilities up to 6 Offices and 5 meeting/ conference rooms for Charterer’s Length overall 89.65 m use. Beam moulded 20.00 m 2 Recr.-dayrooms, reception, hospital, drying rooms (M/F), Depth moulded 8.00 m changing rooms (M/F), wellness area (gym and sauna). Draught base (u.s. keel) 4.80 (6.30) m Gross Tonnage 6100 GT NAUTICAL AND COMMUNICATION EQUIPMENT Nautical Radar X-band + S-band, ECDIS, Conning, GMDSS Area 1, 2 and CAPACITIES 3. -
An Orientation for Getting a Navy 44 Underway
Departure and return procedure for the Navy 44 • Once again, the Boat Information Book for the United States Naval Academy Navy 44 Sailing Training Craft is the final authority. • Please do not change this presentation without my permission. • Please do not duplicate and distribute this presentation without the permission of the Naval Academy Sailing Training Officer • Comments welcomed!! “Welcome aboard crew. Tami, you have the helm. If you’d be so kind, take us out.” When we came aboard, we all pitched in to ready the boat to sail. We all knew what to do and we went to work. • The VHF was tuned to 82A and the speakers were set to “both”. • The engine log book & hernia box were retrieved from the Cutter Shed. • The halyards were brought back to the bail at the base of the mast, but we left the dockside spinnaker halyard firmly tensioned on deck so boarding crew could use it to aid boarding. • The sail and wheel covers were removed and stored below. • The reef lines were attached and laid out on deck. • The five winch handles were placed in their proper holders. • The engine was checked: fuel level, fuel lines open, bilge level/condition, alternator belt tension, antifreeze level, oil and transmission level, RACOR filter, raw water intake set in the flow position, engine hours. This was all entered into the log book. • Sails were inventoried. We use the PESO system. We store sails in the forward compartment with port even, starboard odd. •The AC main was de-energized at the circuit panel. -
The Elements of Wood Ship Construction
THE ELEMENTS OF WOOD SHIP CONSTRUCTION Digitized by the Internet Archive in 2007 with funding from Microsoft Corporation http://www.archive.org/details/elementsofwoodshOOcurtrich Digitized file changed into text by AK, Feb. 2012 THE ELEMENTS OF WOOD SHIP CONSTRUCTION THE ELEMENTS OF WOOD SHIP CONSTRUCTION BY W. H. CURTIS NAVAL ARCHITECT AND MARINE ENGINEER FIRST EDITION McGRAW-HILL BOOK COMPANY, INC. 239 WEST 39TH STREET. NEW YORK ----------- LONDON: HILL PUBLISHING CO., Ltd. 6 & 8 BOUVERIE ST., E. C 1919 COPYRIGHT. 1919, BY THE MCGRAW-HILL BOOK COMPANY, INC. ------------ COPYRIGHT, 1918, BY W. H. CURTIS. THE MAPLE PRESS YORK PA GENERAL PREFACE ------------- Preface to Pamphlet, Part I, issued by the United States Shipping Board Emergency Fleet Corporation, for use in its classes in Wood Shipbuilding. This text on wood shipbuilding was prepared by W. H. Curtis, Portland, Oregon, for the Education and Training Section of the Emergency Fleet Corporation. It is intended for the use of carpenters and others, who, though skilled in their work, lack the detail knowledge of ships necessary for the efficient performance of their work in the yard. Sea-going vessels are generally built according to the rules of some Classification Society, and all important construction and fastening details have to be passed upon by the Classification Society under whose inspection the vessel is to be built. Due to this fact, requirements may vary in detail from types of construction here explained. It is hoped, however, that this book may be helpful to shipbuilding classes and to individual men in the yard. EDUCATION AND TRAINING SECTION UNITED STATES SHIPPING BOARD EMERGENCY FLEET CORPORATION In presenting this work due credit is given Mr. -
Glossary of Nautical Terms: English – Japanese
Glossary of Nautical Terms: English – Japanese 2 Approved and Released by: Dal Bailey, DIR-IdC United States Coast Guard Auxiliary Interpreter Corps http://icdept.cgaux.org/ 6/29/2012 3 Index Glossary of Nautical Terms: English ‐ Japanese A…………………………………………………………………………………………………………………………………...…..pages 4 ‐ 6 B……………………………………………………………………………………………………………………………….……. pages 7 ‐ 18 C………………………………………………………………………………………………………………………….………...pages 19 ‐ 26 D……………………………………………………………………………………………..……………………………………..pages 27 ‐ 32 E……………………………………………………………………………………………….……………………….…………. pages 33 ‐ 35 F……………………………………………………………………………………………………….…………….………..……pages 36 ‐ 41 G……………………………………………………………………………………………….………………………...…………pages 42 ‐ 43 H……………………………………………………………………………………………………………….….………………..pages 49 ‐ 48 I…………………………………………………………………………………………..……………………….……….……... pages 49 ‐ 50 J…………………………….……..…………………………………………………………………………………………….………... page 51 K…………………………………………………………………………………………………….….…………..………………………page 52 L…………………………………………………………………………………………………..………………………….……..pages 53 ‐ 58 M…………………………………………………………………………………………….……………………………....….. pages 59 ‐ 62 N……………….........................................................................…………………………………..…….. pages 63 ‐ 64 O……………………………………..........................................................................…………….…….. pages 65 ‐ 67 P……………………….............................................................................................................. pages 68 ‐ 74 Q………………………………………………………………………………………………………..…………………….……...…… page 75 R………………………………………………………………………………………………..…………………….…………..