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OHL Technique Covers the Fitting of a Platform-Mounted 3-Phase Transformer (Up to 750Kg) Below Live Conductors
FITTING PLATFORM-MOUNTED 3-PHASE OHL TRANSFORMER (UP TO 750kg) Technique BELOW LIVE CONDUCTORS 637 (DEAD WORK) 1 Scope/Application This OHL Technique covers the fitting of a platform-mounted 3-phase transformer (up to 750kg) below live conductors. This work shall be carried out on clean poles only. Bare LV or HV transformer terminals or bare fittings shall not be less than 4.3m from ground level. The access/working method will be determined by working through the guidance in OHL technique 250 (refer to Section 1 of this manual for working at height). However, the pole climbing method is described below because it is the most detailed/complex. Where another access/working method is used, the procedure below needs to be changed (simplified) accordingly. Refer to Drawing I-430P1-M637-001 throughout this Instruction. 2 Safety Information Work shall be carried out in accordance with General Requirements in Section 1. Approved mandatory PPE and work wear shall be in accordance with General Requirements in Section 1. Additional Approved PPE and work wear required to complete this task are specified below. Gloves, 11kV Ear protection The task covered by this OHL Technique has significant hazards associated with it identified by the symbol and text CAUTION: This OHL Technique details the risk control measures that must be applied when carrying out the task. If the risk control measures in this procedure are implemented the risks will be controlled. This OHL Technique also forms the method statement for the task. 3 Personnel The minimum team number for this task is two Competent Persons. -
Coast Guard Cutter Seamanship Manual
U.S. Department of Homeland Security United States Coast Guard COAST GUARD CUTTER SEAMANSHIP MANUAL COMDTINST M3120.9 November 2020 Commandant US Coast Guard Stop 7324 United States Coast Guard 2703 Martin Luther King Jr. Ave SE Washington, DC 20593-7324 Staff Symbol: (CG-751) Phone: (202) 372-2330 COMDTINST M3120.9 04 NOV 2020 COMMANDANT INSTRUCTION M3120.9 Subj: COAST GUARD CUTTER SEAMANSHIP MANUAL Ref: (a) Risk Management (RM), COMDTINST 3500.3 (series) (b) Rescue and Survival Systems Manual, COMDTINST M10470.10 (series) (c) Cutter Organization Manual, COMDTINST M5400.16 (series) (d) Naval Engineering Manual, COMDTINST M9000.6 (series) (e) Naval Ships' Technical Manual (NSTM), Wire and Fiber Rope and Rigging, Chapter 613 (f) Naval Ships’ Technical Manual (NSTM), Mooring and Towing, Chapter 582 (g) Cutter Anchoring Operations Tactics, Techniques, and Procedures (TTP), CGTTP 3-91.19 (h) Cutter Training and Qualification Manual, COMDTINST M3502.4 (series) (i) Shipboard Side Launch and Recovery Tactics, Techniques, and Procedures (TTP), CGTTP 3-91.25 (series) (j) Shipboard Launch and Recovery: WMSL 418’ Tactics, Techniques, and Procedures (TTP), CGTTP 3-91.7 (series) (k) Naval Ships’ Technical Manual (NSTM), Boats and Small Craft, Chapter 583 (l) Naval Ship’s Technical Manual (NSTM), Cranes, Chapter 589 (m) Cutter Astern Fueling at Sea (AFAS) Tactics, Techniques, and Procedures (TTP), CGTTP 3-91.20 (n) Helicopter Hoisting for Non-Flight Deck Vessels, Tactics, Techniques, and Procedures (TTP), CGTTP 3-91.26 (o) Flight Manual USCG Series -
Performance of High Modulus Fiber Ropes in Service on Dual Capstan Traction Winches
PERFORMANCE OF HIGH MODULUS FIBER ROPES IN SERVICE ON DUAL CAPSTAN TRACTION WINCHES: A SIMULATION OF ROPE/WINCH INTERACTIONS DURING DEEP SEA LONG CORING OPERATIONS 1.0 INTRODUCTION At present, UNOLS systems for collecting sea floor sediment samples are limited to the recovery of large diameter [10 cm] cores approximately 25-meter long. The current technology employs a Kullenberg piston corer [wt = ~5,000 lbs.] suspended and controlled by a torque-balanced wire rope [9/16” Dia. / MBL = 16 tons] and single drum trawl winch system. A new and much larger coring device is under development at the Woods Hole Oceanographic Institution. The goal of the new project is to create an integrated yet portable system capable of recovering cores up to 50 meters long in full ocean depths [~ 5500 meters]. The new corer alone has a weight of 25,000 lbs.; and numerical modeling has shown that in operation, the expected maximum tension that the overboarding arrangements will endure [during core extraction] is between 50 and 60,000 pounds. The new system will, for the first time, employ high modulus synthetic fiber rope to replace the ‘traditional’ 3 X 19 wire rope. The change to synthetic rope is necessary, as the weight of a wire rope sufficiently strong to support the proposed corer would have inherently excessive mass to allow reasonable shipboard handling and provide an acceptable factor of safety during operations. This change to fiber rope is possible due to the recent introduction of suitable products made from high performance synthetic fibers. These new high modulus braided ropes are stronger than equivalent diameter wire rope, but are buoyant or lightweight in seawater. -
Readin' Both Pages
Readin’ Both Pages A membership publication of the Sail, Power & Steam Museum Vol. 1, No. 1 Winter 2008 Rekord ~ A Fascinating Freighter From the Memoirs of Capt. Jim Sharp Life is too short to own an ugly boat! That was my motto and I adhered to it with almost religious devotion. The next boat I was destined to drag into Camden Harbor was one interesting and handsome vessel. Although sailing was still very much my forte, this little ship conveyed the closest thing to worship of a power vessel that this old codger can conjure up. She was called the Record, spelled Rekord in old Norwegian, and was more than attractive in a thousand different ways. Rekord had history, intrigue, humor, challenge, personality and humility, all trunnelled together into one magnificent hull. Museum volunteers and staff were busy throughout the summer season working on many projects aboard Rekord. In this picture, Ben Breda applies fresh white paint to the starboard foredeck rail. Her ad was buried deep among the many listings in the “Yellow Pages” (that’s the scandal sheet of boats for sale shoe ... it was not bad. There was some worming, but noth- in the commercial world). I should never have taken my ing that would be a structural problem. And those worms copy into Fitzpatrick’s Deli to peruse the Boats For Sale would soon die in our cold Maine water. I think I knew I listings over my coffee. It was just a small picture and would buy this boat before even stepping aboard. Then I really fuzzy, but it snapped the hair-trigger on my snooping asked the owner about the engine. -
Boston Harbor Auctions
Boston Harbor Auctions NAUTICAL ANTIQUE AND SHIP MODEL AUCTION Saturday - April 20, 2019 NAUTICAL ANTIQUE AND SHIP MODEL AUCTION 1: Samuel Walters Marine Painting USD 4,000 - 6,000 Fine, painting of the clipper ship Mary Moore by Samuel Walters. The vessel is shown under shortened sail, and carries a house flag and British flag. Large canvas. On sight 51 x 33. Overall 58 x 40. 2: Boston built tugboat painting USD 450 - 650 Oil painting of army tug DPC 16. Built by Lawley and Son, Neponset Mass in 1944. She was 86 feet long. Sold in 1946 as Gremlin, later Alice St. Philip and Honcho. Tug is shown in great detail. Rear of canvas states FINISHED 9/22/44. 26 X 19 3: George Lawley Painting USD 300 - 500 Painting originally from the George Lawley and Son shipyard in Boston. This is of the Lawley Built US Navy sub chaser launched at Neponset Mass 1943 and commissioned as USS PC 1087 painted in 1944 by Benjamin Stephenson. Signed lower right STEPHENSON. 31 x 20 4: Tropical naval ship landing painting USD 300 - 500 Original oil by Benjamin T. Stephenson. The reader of canvas reads: USS LCI 691, (center line ramp) titled EARLY MORNING LANDING OPERATION. Painted by Benjamin T. Stephenson 14 Longmeadow Road finished Oct 27, 1944. 31 x 20 5: Landing craft support LCS 1 Painting USD 250 - 450 Original oil painting showing a US Navy World War II LCS-1 landing craft ship underway. Back is marked with artists Benjamin T. Stephenson, 14 Longmeadow Road, Newton Corner, Massachusetts. -
31' Camano Troll
31’ Camano Troll 31’ Camano Troll . Year: 2003 . Boat Name: MV Puffin . Located in Sidney, BC . Hull Material: Fiberglass . Engine/Fuel Type: Single diesel . Pristine and beautifully equipped . Boathouse kept $ 154,900 CAD Boat last out-of-water for bottom paint/zincs spring 2013. Boat mechanically serviced spring 2013. Major Price Adjustment August 30th, 2013. Owner will look at aggressive sale pricing to buyer of the combination of boat and boathouse (boathouse moorage paid to March 31st, 2014)!! Come and tour this beautiful Camano. www.vanislemarina.com 31’ Camano Troll www.vanislemarina.com 31’ Camano Troll Dimensions Engine LOA: 31 ft 0 in Engine Brand: Volvo Beam: 10 ft 5 in Year Built: 2003 Minimum Draft: 3 ft 2 in Engine Model: TMD 41T Headroom: 6 ft 5 in Engine Type: Inboard Dry Weight: 12000 lbs Engine/Fuel Type: Diesel Engine Hours: 1150 Tanks Propeller: 3 blade propeller Fuel Tanks: 2 (50 Gallons) Drive Type: Direct Drive Engine(s) Total Power: 200 HP Accommodations Number of double berths: 1 Covers Number of cabins: 2 Bimini Top Number of heads: 1 www.vanislemarina.com 31’ Camano Troll Inside Equipment Electronics Oven Compass Microwave oven CD player Refrigerator Plotter Battery charger - and inverter GPS Electric bilge pump Cockpit speakers Manual bilge pump Radar Heating - Webasto diesel furnace Autopilot Bow thruster Navigation center Electric head VHF Hot water Radio Outside Equipment/Extras Electrical Equipment Swimming ladder Inverter Davits Shore power inlet Tender Electrical Circuit: 110V Electric windlass Electronics . Icom VHF radio . Marine radar . Integrated (2) station Furuno plotters with radar overlay . Simrad auto pilot AP26, (1) Simrad R3000x remote, c/w rudder angle indicator . -
After 88 Years - Four-Masted Barque PEKING Back in Her Homeport Hamburg
Four-masted barque PEKING - shifting Wewelfsfleth to Hamburg - September 2020 After 88 Years - Four-masted Barque PEKING Back In Her Homeport Hamburg Four-masted barque PEKING - shifting Wewelfsfleth to Hamburg - September 2020 On February 25, 1911 - 109 years ago - the four-masted barque PEKING was launched for the Hamburg ship- ping company F. Laeisz at the Blohm & Voss shipyard in Hamburg. The 115-metres long, and 14.40 metres wide cargo sailing ship had no engine, and was robustly constructed for transporting saltpetre from the Chilean coast to European ports. The ship owner’s tradition of naming their ships with words beginning with the letter “P”, as well as these ships’ regular fast voyages, had sailors all over the world call the Laeisz sailing ships “Flying P-Liners”. The PEKING is part of this legendary sailing ship fleet, together with a few other survivors, such as her sister ship PASSAT, the POMMERN and PADUA, the last of the once huge fleet which still is in active service as the sail training ship KRUZENSHTERN. Before she was sold to England in 1932 as stationary training ship and renamed ARETHUSA, the PEKING passed Cape Horn 34 times, which is respected among seafarers because of its often stormy weather. In 1975 the four-master, renamed PEKING, was sold to the USA to become a museum ship near the Brooklyn Bridge in Manhattan. There the old ship quietly rusted away until 2016 due to the lack of maintenance. -Af ter returning to Germany in very poor condition in 2017 with the dock ship COMBI DOCK III, the PEKING was meticulously restored in the Peters Shipyard in Wewelsfleth to the condition she was in as a cargo sailing ship at the end of the 1920s. -
Anchor Chain and Windlass?
Anchor loss - technical and operational challenges and recommendations DNV GL, Gard and The Swedish Club March 2016 Ungraded © DNV GL AS 2016. All rights reserved 1 DNV GL © 2016 29 February 2016 SAFER, SMARTER, GREENER Anchor loss – prevention - Content ° Background ° Technical issues and recommendations ° Operational issues and recommendations ° Legal notice Ungraded 2 DNV GL © 2016 29 February 2016 Why focus on anchor loss - lost per year? Anchors lost per 100 ship year since 2007 ° DNV GL has observed a relatively high number of anchor losses with 8-10 anchors lost per 1000 ships per year and a negative trend in 2014/2015 Anchor lost due to D-link opening up DNV GL Anchors lost per 100 ship year ( DNV GL fleet) Ungraded 3 DNV GL © 2016 29 February 2016 Anchor losses per ship type Anchors lost per 100 ship year & ship type ° Tanker for oil and Passenger Ships more exposed ° Reflecting the ship type trading pattern? Anchor losses per 100 ship-year and ship type 1,200 1,000 0,800 0,600 0,400 0,200 Loss per 100 Shipyear DNV Fleet 2010-2015 0,000 DNV GL Anchors lost per 100 ship year & ship type ( DNV fleet) Ungraded 4 DNV GL © 2016 29 February 2016 Costs involved with loss of anchors Swedish Club claims including deductible – loss of anchor Swedish Club claims including deductible ° Direct cost to replace lost anchor and chain ° Gard has seen increasing costs related to recovering lost anchors amounting up to USD 50 000 ° Delays and off-hire ° Cost due to grounding / collision / damage to subsea equipment etc. -
Abyc H-40 (Pdf)
H-40 7/03 H-40 ANCHORING, MOORING, AND STRONG POINTS Table of Contents 40.1 PURPOSE .......................................................................................................................................................1 40.2 SCOPE ............................................................................................................................................................1 40.3 DEFINITIONS................................................................................................................................................1 40.4 ANCHORING AND MOORING ...................................................................................................................1 40.5 TOWING AND TRAILERING ......................................................................................................................2 40.6 LIFTING SYSTEMS ......................................................................................................................................2 40.7 OWNER’S MANUALS..................................................................................................................................3 APPENDIX ...................................................................................................................................................................5 H-40 7/03 H-40 ANCHORING, MOORING, AND STRONG POINTS Based on ABYC’s assessment of the existing technology, Chain stopper - A device designed to secure the chain and and the problems associated with achieving the goals -
Glossary of Nautical Terms the Maritime World Has a Language of Its Own
Glossary of Nautical Terms The maritime world has a language of its own. It may seem silly to use special terms instead of simply using one that we use for the same thing shore side, but it actually serves a practical purpose. For example, why not just call a galley a kitchen; it’s just a place where you cook food, right? Not exactly, in a kitchen you can leave pot of hot soup on the counter and, barring some geological event, it will still be there when you get back. In a galley, it is more likely to be all over the deck upon return. Using the proper terminology aboard a vessel helps to enforce the mindset that the maritime environment is different from that on shore and therefore, demands a different code of conduct. Objects: Bit: Two adjacent posts used for mooring or making a line fast to Bollard: A single post used for mooring or making a line fast to Boom: (1) Horizontal spar attached to the foot of a sail; (2) A spar used for lifting such as on a crane or davit Bow: The forward end of the vessel *Bowsprit: Spar protruding from the bow of a sailing vessel used for the attachment of the headsails Bulkhead: A vertical partition inside a vessel Bulwark: A partition extending above the weather deck of a vessel used to prevent seas from washing over and keep objects and personnel from going overboard Capstan: Deck winch, usually configured vertically, used for hauling in lines See Windlass. Ceiling: Planking on the interior sides the hull used for separating internal space from the frame bays; in some cases used to increase hull stiffness to prevent hogging particularly in wood vessels (Hogging is the sagging of the vessel towards the bow and stern due to lack of floatation from the narrowing of the hull. -
Requirements Concerning MOORING, ANCHORING and TOWING
INTERNATIONAL ASSOCIATION OF CLASSIFICATION SOCIETIES Requirements concerning MOORING, ANCHORING AND TOWING CONTENTS A1 Anchoring Equipment Corr.2 Mar 2017 A2 Shipboard fittings and supporting hull structures associated with towing and mooring on conventional ships Corr.2 Mar 2017 A3 Anchor Windlass Design and Testing June 2017 Page 1 IACS Req. 2017 A1 A1A1 Anchoring Equipment (1981) (cont) (Rev.1 A1.1 Design of the anchoring equipment 1987) (Rev.2 A1.1.1 The anchoring equipment required herewith is intended for temporary mooring of a 1992) ship within a harbour or sheltered area when the ship is awaiting berth, tide, etc. IACS (Rev.3 Recommendation No. 10 ‘Anchoring, Mooring and Towing Equipment’ may be referred to for 1994) recommendations concerning anchoring equipment for ships in deep and unsheltered water. (Rev.4 Aug A1.1.2 The equipment is therefore not designed to hold a ship off fully exposed coasts in 1999) rough weather or to stop a ship which is moving or drifting. In this condition the loads on the (Rev.5 anchoring equipment increase to such a degree that its components may be damaged or lost Jun owing to the high energy forces generated, particularly in large ships. 2005) (Rev.6 A1.1.3 The anchoring equipment required herewith is designed to hold a ship in good Oct holding ground in conditions such as to avoid dragging of the anchor. In poor holding ground 2016) the holding power of the anchors is significantly reduced. (Corr.1 Dec A1.1.4 The Equipment Number (EN) formulae for anchoring equipment as given in A1.2 and 2016) A1.3 are based on an assumed maximum current speed of 2.5 m/s, maximum wind speed of (Corr.2 25 m/s and a minimum scope of chain cable of 6, the scope being the ratio between length of Mar chain paid out and water depth. -
Guide to the William A. Baker Collection
Guide to The William A. Baker Collection His Designs and Research Files 1925-1991 The Francis Russell Hart Nautical Collections of MIT Museum Kurt Hasselbalch and Kara Schneiderman © 1991 Massachusetts Institute of Technology T H E W I L L I A M A . B A K E R C O L L E C T I O N Papers, 1925-1991 First Donation Size: 36 document boxes Processed: October 1991 583 plans By: Kara Schneiderman 9 three-ring binders 3 photograph books 4 small boxes 3 oversized boxes 6 slide trays 1 3x5 card filing box Second Donation Size: 2 Paige boxes (99 folders) Processed: August 1992 20 scrapbooks By: Kara Schneiderman 1 box of memorabilia 1 portfolio 12 oversize photographs 2 slide trays Access The collection is unrestricted. Acquisition The materials from the first donation were given to the Hart Nautical Collections by Mrs. Ruth S. Baker. The materials from the second donation were given to the Hart Nautical Collections by the estate of Mrs. Ruth S. Baker. Copyright Requests for permission to publish material or use plans from this collection should be discussed with the Curator of the Hart Nautical Collections. Processing Processing of this collection was made possible through a grant from Mrs. Ruth S. Baker. 2 Guide to The William A. Baker Collection T A B L E O F C O N T E N T S Biographical Sketch ..............................................................................................................4 Scope and Content Note .......................................................................................................5 Series Listing