Wednesday, 18 May 2011

Hall Anchor Dimensions and Weight


HALL ANCHOR














Weight, kg Dimension, mm
A B C D E Ø
50 575 410 184 300 378 15
75 660 480 210 340 429 15
100 723 510 230 375 474 20
125 780 550 245 405 511 20
150 835 580 264 430 544 20
180 888 625 281 454 578 20
200 915 645 290 470 594 25
225 950 670 300 493 622 25
240 985 690 312 510 644 25
275 1020 710 322 527 666 25
300 1050 738 330 543 685 30
325 1075 758 338 557 703 30
360 1100 778 346 570 719 30
400 1150 810 360 595 752 30
420 1175 826 368 607 767 30
450 1200 845 373 620 784 35
480 1220 860 380 630 797 35
500 1240 875 386 640 810 35
570 1280 904 400 660 837 40
600 1320 930 410 680 860 40
660 1360 955 420 700 887 40
700 1390 980 430 715 907 45
750 1425 1000 440 730 927 45
780 1450 1030 450 750 948 45
850 1480 1050 460 765 968 50
900 1490 1053 480 772 970 50
950 1520 1072 484 787 994 50
1020 1545 1090 496 800 1005 55
1140 1600 1126 512 825 1037 55
1200 1650 1165 530 855 1076 55
1290 1670 1180 535 865 1089 60
1350 1700 1205 550 890 1120 60
1440 1800 1245 555 895 1147 65
1590 1890 1260 565 900 1181 65
1740 1910 1290 582 945 1238 65
1920 1930 1362 616 999 1262 70
2100 2020 1407 623 1020 1296 70
2280 2040 1446 640 1033 1332 70
2460 2120 1483 667 1076 1367 75
2640 2170 1519 672 1085 1400 75
2850 2200 1540 700 1140 1434 75
3060 2261 1596 720 1172 1480 80
3300 2330 1636 734 1180 1508 80
3540 2335 1650 674 1210 1528 80
3780 2679 1844 733 1295 1600 80
4050 2466 1740 712 1278 1613 90
4320 2557 1790 763 1290 1659 90
5490 2784 1889 780 1384 1709 90
4890 2923 2011 804 1413 1746 100
5250 2728 1910 846 1364 1760 100
5610 2788 1952 846 1394 1798 100
6000 3270 2033 829 1525 1878 110
6450 2920 2046 906 1461 1885 110
6900 2930 2064 932 1512 1904 110
7350 3072 2150 950 1536 1982 120
7800 3113 2179 965 1556 2008 120
8300 3208 2246 995 1604 2070 120
8700 3253 2270 1005 1626 2097 130
8900 3268 2275 1012 1634 2108 130
9300 3301 2311 1023 1650 2129 130
9900 3330 2360 1045 1686 2175 140
10200 3338 2372 1070 1694 2186 140
10500 3438 2407 1075 1719 2217 140
11000 3502 2452 1086 1751 2259 140
11700 3565 2495 1105 1780 2295 150
12300 3600 2520 1140 1800 2325 150
12900 3681 2577 1141 1840 2374 150
13500 3738 2616 1159 1869 2411 160
14100 3793 2655 1176 1896 2446 160
14700 3845 2690 1190 1925 2480 160
15400 3880 2716 1210 1940 2502 170
16100 3964 2775 1229 1982 2557 170
16900 4030 2820 1250 2015 2600 170
17800 4099 2869 1270 2049 2644 180
18800 4157 2920 1295 2085 2690 180
20000 4262 2985 1320 2130 2750 180
21500 4365 3055 1355 2180 2815 200
23000 4485 3125 1385 2230 2880 200
24500 4560 3190 1415 2280 2940 200
26000 4651 3255 1442 2325 2999 200
27500 4720 3315 1470 2370 3055 200
29000 4825 3375 1495 2410 3110 200

Monday, 16 May 2011

Steel wire rope weights and breaking load

Standard: BS EN 12385-4:2002


















































Rope construction: 6x19 / 6x36 Group IWRC
Size Mass 1770 Tensile Grade 1960 Tensile Grade
mm Kg/100m MBL
tonnes
MBF
kN
MBL
tonnes
MBF
kN
8 26,2 4,11 40,3 4,56 44,7
9 33,1 5,20 51,0 5,76 56,5
10 40,9 6,42 63,0 7,12 69,8
11 49,5 7,77 76,2 8,61 84,4
12 58,9 9,25 90,7 10,2 100
13 69,1 10,8 106 12,0 118
14 80,2 12,6 124 14,0 137
16 105 16,4 161 18,3 179
18 133 20,8 204 23,1 226
19 148 23,1 227 25,7 252
20 164 25,7 252 28,5 279
22 198 31,1 305 34,5 338
24 236 37,0 363 41,0 402
26 276 43,4 426 48,1 472
28 321 50,4 494 55,8 547
32 419 65,7 645 72,9 715
35 501 78,7 772 87,2 855
36 530 83,3 817 92,2 904
38 591 92,8 910 103,0 1 010
40 654 103 1 010 114,0 1 120






Rope construction: 6x19 / 6x36 Group Fibre Core
Size Mass 1770 Tensile Grade 1960 Tensile Grade
mm Kg/100m MBL
tonnes
MBF
kN
MBL
tonnes
MBF
kN
8 23,6 3,81 37,4 4,22 41,4
9 29,7 4,82 47,3 5,34 52,4
10 36,7 5,95 58,4 6,60 64,7
11 44,4 7,21 70,7 7,99 78,3
12 52,8 8,57 84,1 9,50 93,1
13 62,0 10,1 96,7 11,1 109
14 71,9 11,6 114 13,0 127
16 94,0 15,3 150 16,9 166
18 119 19,3 189 21,4 210
19 132 21,5 211 23,8 233
20 147 23,9 234 26,4 259
22 178 28,8 263 31,9 313
24 211 34,3 336 38,0 373
26 248 40,3 395 44,6 437
28 288 46,7 458 51,7 507
32 376 61,0 598 67,5 662
35 450 73,0 716 80,8 792
36 476 77,2 757 85,5 838
38 530 85,9 843 95,3 834
40 567 95,3 935 106,0 1 040



Friday, 6 May 2011

Ukrainian auto market in April 2011

As per the report of the Ukrainian agency AUTO-Consulting, in April 2011 the automotive market for the passenger and light commercial vehicles in Ukraine shows the stable upward dynamics.

Laut des Berichts von der ukrainischen Autoberatungsagentur AUTO-Consulting hat der PKW/Kleinttransporter-Markt in der Ukraine im April 2011 einen beständigen Zuwachs gezeigt.



It is worth mentioning the success of Hyundai making the 2nd place.

Das ist nennenswert den Erfog des koreanischen Herstellers Hyundai, der den 2. Platz erreicht, zu betonen.

Wednesday, 4 May 2011

Fresh Water Allowance (FWA) vs Dock Water Allowance (DWA)


Fresh Water Allowance (FWA) is the amount by which a ship's mean draft changes when she moves from the sea standard salt water (SW @ 1.025 t/m3) to fresh water (FW @ 1.000 t/m3).

FWA (in mm) = Displacement / (4 x TPC)
FWA (in cm) = Displacement / (40 x TPC)

For box-shaped vessel FWA remains same at all drafts (as TPC remains constant), otherwise FWA increases with the draft (as TPC increases with the draft).

Dock Water Allowance (DWA) is the amount by which a ship's mean draft changes when she moves from the sea standard salt water (SW @ 1.025 t/m3) to dock water (DW @ various t/m3).

The formula that may be used is:

DWA = FWA * (1.025 – density of DW) / 0.025


Recently I found a meticulous video explanation on the topic. Tribute to the author of the video Capt. A.N. Rizvi.

Friday, 8 April 2011

Car carrier ports and hubs in Europe and wider Mediterranean


Our planet is encompassed by the trade flows which grew up from the caravan paths of anciency into the modern pattern of routes and act like blood vessels to the industrial society: instead of blood, in the literal sense, nations and communities get channelled food, water, equipment, materials, and other goods. Routes transport the blood of the Economy - values.
One type of the goods that concentrate in itself a pretty great value pro unit of mass is cars.
So many cars - so much value overseas (Newark, USA)

Cars are not only valuable, they are also fascinating. Russian writer Nikolai Gogol wrote about addiction to speed when describing the national character of his compatriots. My own humble observations indicate that all people in the world are too much alike and definitely enjoy speeds more than that of a pedestrian. Moreover shiny and comfortable, powerful and technological means of transport and self-propelled power tools have always attracted us humans. So how do they get transported? The answer is by road, by rail, by air, and by sea.


Con-Ro ship loads Ro-Ro cargo (Bremerhaven, Germany)

It is not surprising that the largest share in the transporting cars worldwide belongs to ships. The lowest cost per unit of a rolling-on rolling-of cargo (Ro-Ro)  is achieved by utilising specialized Ro-Ro ships, particularly Pure Car-Truck Carriers (PCTC's), and specialized Ro-Ro terminals. The driving strive for the efficiency in the highly competitive environment has resulted in creating a net of dedicated port terminals and dry hubs. The Ro-Ro terminals are highly flexible or, I would say its the other way, mutable as they are often easily responsive to the fluctuations in the type of cargo. What remains more or less stable, it is the pattern of the channelling trade routes. This in its turn contributes to the relative stability of the main terminals' locations.


Bremerhaven is one of the largest auto hubs of the world

For the subject region, Europe an wider Mediterranean, one could observe new emerging hubs and port terminals; though, many old places hold the grounds and remain stable. For a "car carrier man" the names would sound familiar:-

Mediterranean Sea:
Tartous
Beirut
Derince
Piraeus
Koper
Livorno
Genoa
Gioia Tauro
Sete
Tarragona
Barcelona

Alexandria
Tripoli
Casablanca

Northern Europe:
Immingham
Tilbury
Southampton
Antwerp
Rotterdam
Bremerhaven
Wallhamn
Le Havre
Malmo
Gothenborg
Hanko
Emden

Black Sea:
Illichivsk
Constanza

The list does not include many other smaller ports that serve for the automotive industry. As well as those involved in the container transport of vehicles, which became the trend recently.

A.O. Chepok
Creative Commons License
This text is licensed under a Creative Commons Attribution-NonCommercial-NoDerivs 3.0 Unported License.

Wednesday, 23 March 2011

"Mark V" type ro-ro's for Wallenius Wilhelmsen




Type/ClassGeneral Cargo Container Car Carrier RO/RO
Built2011-2013 by Mitsubishi Heavy Industries
LOA265 m
RampSWL 500 mt
Decks9 + Wx deck

W&W's Green Terminal project





"Castor Green Terminal" is a Zero Emissions ocean terminal for ro-ro services. Modern, lean, electric and attractive. With its breaking new vision optimized by Wallenius Wilhelmsen for the global vehicle supply chain.

Friday, 18 February 2011

'TIS Auto Terminal' project in port of Yuzhny

In 2007-2009 the leading Ukrainian private stevedoring company Transinvestservice Ltd. (TIS Ltd.) was pursuing a project of a Ro-Ro terminal in port of Yuzhny.

The main advantages of the project were the depths alongside, infrastructure benefits, substantial area prospects of the site, and the quality commitment of the private port operators. Behind this project there were the best professionals available with experience in Ro-Ro port operations in Ukraine as well as worldwide. I had an honour to be a part of that team as the Manager in charge of the terminal construction and set-up of the operations. Unfortunately in early 2009 the project got suspended and finally totally frozen due to the collapse of the automotive market.

Here you are I post the last presentations for the project as today the interest to the TIS Ro-Ro is reviving, although not in the cargo volumes that were reckoned on and with the other people at the backstage.

2009 presentations for TIS Auto Terminal (TIS Ltd, port of Yuzhny, Ukraine) in Russian and in English.
Презентации ТИС Авто Терминала (ООО "ТИС", порт Южный, Украина) 2009 года на русском и английском.

2009 TIS Auto Terminal Presentation En


2009 TIS Auto Terminal Presentation Ru


2009 TIS Auto Terminal (TransRussia) Ru

Tuesday, 15 February 2011

Magnus Effect 'E-Ship 1'

Ein seltsames Schiff lüft sich aus dem Nebel an der Emsmeldorf. Von weitem sieht es sich aus, als hätte es vier vier Schornsteine wie ein Dampfschiff. Doch die Entwickler des "E-Ship 1" nutzen einen noch viel interaktive Kraft - den Wind. Dieses weltweit einmalige Frachtschiff segelt.



Sprecher:
- Sicherlich sind das keine gewöhnlichen Segeln in kommenden Sinne, aber es sind Machinen, die Wind nutzen um den Schiff voran zu treiben. Also würdigt es daran Segeln bezeichnen.

Die Konstrukteure des "E-Ship 1" machen sich ein Phänomen zu nutzen, das bereits 1852 beschrieben und seinen Entdecker Heinrich Gustav Magnus genannt wurde. Die vier Zylinder werden durch Elektromotoren in Rotation versetzt. Der Windfeld wird auf einen Seite beschleunigt und darauf gegen der überliegenden Seite abgebremst. Dadurch entsteht eine Geschwindigkeitsdifferenz, die entsprechenden Strömungsgesetzen einen Druckunterschied der gibt. Und daraus entsteht dann eine Kraft, die quer zu Windrichtung wirkt. Die sogenannten Flettner-Rotoren des E-Schiffes. Ausgeklügelte Steuerungstechnik stellt das reibungslose Zusammenspiel von CD- und Konventionelle Antrieb sicher.

Bei der Konstruktion des Schiffes Propellers kommen die Ingenieure auf Know-How aus dem Bau von Windkraftanlagen zurückreichen. Die Ruderanlagen wurde wurde für die Fahrt unter Segeln optimiert.

Sprecher:
- Alles ist darauf abgestimmt möglich viel Energie einzusparen. Und das rein teoretische Potenzial betont er immer wieder licht irgendwo obgleich bei 50%.

Fahrtschiffe verbrauchen weltweit circa 200 Mill. Tonnen Öl pro Jahr. Das "E-Ship 1" ist ein erster Schritt auf dem Weg zu einer erfolgreicher Energie-Wende in der Schiffsfahrt.


'E-Ship 1' in Emden (source General Anzeiger)

Type/ClassGen.Cargo / GL Ro-Ro Ice E3
Built02.08.2010
ShipyardLindenau Werft, Kiel
GRT12,968
DWT10,500
Capacity20,580 m³
LOA130.40 m
Breadth22.50 m
Draft9.30 m
Engine2 x 3,500 kW
Speed17.5 knots
Cargo gearStern ramp, 2 cranes SWL 80-120 mt
OwnerEnercon GmbH

Alongside in Emden

The Flettner rotors of 'E-Ship 1' are 27-m high and 4-m in diameter each. They use wind energy to propel the ship and work on the the principle of Magnus effect described by Heinrich Gustav Magnus yet in 1852. The concept of the rotor was demonstrated by a German physicist Anton Flettner in 1924.

The principle of Magnus effect
A spinning cylinder in a moving airstream creates a lateral force perpendicular to the direction of the airstream which, when used on ships, propels the ship to move forward. Though the main propulsion power source is the conventional diesel bi-plant, the Flettner rotors allow to save 30% on fuel consumption, especially effective in beam winds.

"E-Ship 1" alongside for cargo ops (source MarineTraffic.com
The owner of the "E-Ship 1", the German company Enercon GmbH, is one of the largest wind turbine manufacturer in world. They ordered the vessel for the worldwide transporting of their produce. First contract served by the ship is the Irish contract of Enercon, where it installs wind turbines at the sea-shelf wind farms. It is estimated that annually Enercon supplies up to 16000 turbines in 30 countries all over the globe.

Thursday, 3 February 2011

Оказание помощи моторной лодке «La_Cavernae»

Целью данного реферата является анализ действий судна по оказанию помощи/спасению на море и рассмотрен пример документального оформления подобных событий, которые не являются редкостью в районах плавания у побережья США, стран Латинской и Южной Америки. Рассматриваемый случай позволяет определить алгоритм действий команды мостика и капитана с точки зрения обеспечения должной безопасности (охраны) судна, минимизации возможных убытков, потери эксплуатационного времени или других коммерческих рисков.

Мой реферат, предоставленный на курсах повышения квалификации в 2011г.


What is inside a car carrier? Cars? - Vehicles!

Having served for several years on board car carrier vessels I feel puzzled when asked how it looks like inside such a ship. Perhaps as a huge parking lot??? The best answer gives a picture, especially as the below picture, which shows outside the ship all that gets inside in addition to nice "cuts" on the sides.

All that is outside goes inside - a huge sailing parking lot

Then I suggest you have a look at the below pictures.
Deck 6

Deck 9

Movable cardeck - Deck 10

Ready to go

Driving out through the ramp

Thursday, 27 January 2011

Vehicle accidents at the time of Break-out

Analysis conducted on board ships of a major world car carrier indicated a whole accident category - the break-out accidents, which happened frequently in the US and European ports.

Below figure depicts how the vehicle collision damage occurs during the break-out operation, i.e. when a vehicle is being driven out from a stack and to the opening of the designated slopeway. Usually such accidents occurred after two or three hours past the commencement of the cargo operations.

A driver may be compelled to make a large turning in order to make an easy approach to the slopes. During the attempt to break out the vehicle (marked with a star on the figure) is prone to hit another one moved out from the nearby stack in the hold.


The above situation clearly indicates the lack of coordination which is supposed to be done by the signalman and/or crew.

Countermeasures
For Signalman and Crew:
  • Stand ahead of passenger side of the vehicle.
  • Checked the following at the break-out operation: the front wheels are straight, the driver’s hands are kept neutral position.
For Break-out Driver:
  • Keep steering wheel straight unless the vehicles was moved well ahead (at least one car's length).
  • Always follow the signalman's instruction - self-judgement is strictly prohibited.

Best practice
The most experienced driver(s), normally a foreman and his assistant, undertake(s) duty of breaking out the vehicles and positioning them just in front of the slope ready to be driven out by the next pack of riding drivers. Key is already inserted, electronic safety switch is turned off, car is ready to drive. Sometimes during high intensity operations, when it is safe to do so, the driver's door is left open as well.

    Thursday, 13 January 2011

    IMDG Code 2010 and transportation of vehicles by sea

    Amendments related to the transportation of vehicles by sea as put in the new edition of the IMDG Code.
    UN 3166 Engines, internal combustion, flammable gas powered:
    “Engine, Internal Combustion Or Vehicle, Flammable Gas Powered Or Vehicle, Flammable Liquid Powered Or Engine, Fuel Cell, Flammable Gas Powered Or Engine, Fuel Cell, Flammable Liquid Powered Or Vehicle, Fuel Cell, Flammable Gas Powered Or Vehicle, Fuel Cell, Flammable Liquid Powered.”

    UN 3171 Battery-Powered Vehicle or Battery-Powered Equipment:
    "Types of articles transported under this entry include vehicles or equipment powered by wet batteries, sodium batteries or lithium batteries with the batteries installed, such as electrically-powered cars, lawnmowers, wheelchairs and other mobility aids."

    New special provisions related to the carriage of vehicles and engines:

    "SP312. Vehicles or machinery powered by a fuel cell engine shall be consigned under the entries UN 3166 Vehicle, Fuel Cell, Flammable Gas Powered or UN 3166 Vehicle, Fuel Cell, Flammable Liquid Powered, or UN 3166 Engine, Fuel Cell, Flammable Gas Powered or UN 3166 Engine, Fuel Cell, Flammable Liquid Powered, as appropriate.

    “These entries include hybrid electric vehicles powered by both a fuel cell and an internal combustion engine with wet batteries, sodium batteries or lithium batteries, transported with the battery(ies) installed.

    “Other vehicles which contain an internal combustion engine shall be consigned under the entries UN 3166 Vehicle, Flammable Gas Powered Or UN 3166 Vehicle, Flammable Liquid Powered, as appropriate.

    “These entries include hybrid electric vehicles powered by both an internal combustion engine and wet batteries, sodium batteries or lithium batteries, transported with the batteries installed.”

    “SP961. Vehicles and equipment are not subject to the provisions of this Code if they are stowed on a roll-on/roll-off ship or in another cargo space designated by the Administration (flag State) as specifically designed and approved for the carriage of vehicles and equipment and there are no signs of leakage from the battery, engine, fuel cell, compressed gas cylinder or accumulator, or fuel tank when applicable.

    “In addition, vehicles and equipment are not subject to the provisions of this Code if any of the following conditions are met:

    1) The fuel tank(s) of the vehicle or equipment powered by a flammable liquid fuel is empty and installed batteries are protected from short circuit;
    2) The fuel tank(s) of the vehicle or equipment powered by a flammable gas is emptied of liquefied or compressed gas, the positive pressure in the tank does not exceed 2 bar, the fuel shutoff or isolation valve is and secured, and installed batteries are protected from short circuit; or
    3) The vehicle or equipment is solely powered by a wet or dry electric storage battery or a sodium battery, and the battery is protected from short circuit.

    “SP 962. Vehicles or equipment powered by internal combustion engines, fuel cells or batteries not meeting the conditions of special provision 961 shall be assigned to class 9 and shall meet the following requirements:

    1) Vehicles and equipment shall not show signs of leakage from batteries, engines, fuel cells, compressed gas cylinders or accumulators, or fuel tank(s) when applicable;
    2) For flammable liquid powered vehicles and equipment, the fuel tank(s) containing the flammable liquid shall not be more than one-fourth full and in any case the flammable liquid shall not exceed 250l;
    3) For flammable gas powered vehicles and equipment, the fuel shut-off valve of the fuel tank(s) shall be securely closed;
    4) Installed batteries shall be protected from damage, short circuit and accidental activation during transport. Lithium ion or lithium metal batteries shall meet the requirements of the United Nations Manual of Tests and Criteria, Part III, subsection 38.3, unless otherwise approved by the competent authority; and
    5) Dangerous goods required for the operation of the vehicle or equipment such as fire extinguishers, compressed gas accumulators, airbag inflators, etc, shall be securely mounted in the vehicle or equipment.

    “The marking, labelling and placarding provisions of this Code shall not apply."

    One could as well read more on Dangerous Goods on pages of Shashi Kallada's blog. Particularly his posts relevant to this one, namely: UN 3166 VEHICLE, Vehicle and Dangerous Goods, and 3166 Vehicle and Placarding.

    New IMDG Code
    2010 is available
    at Amazon.com

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