Skip to main content

Engine room procedure to follow after grounding

The engineering staff may not be in a position to ascertain that the ship is aground and in normal circumstances will be informed by the bridge. However any grating noises along the ships hull in the machinery space should be considered a possible grounding or collision. In the event of grounding no attempt to re-float the ship will be made without first carrying out a thorough inspection to ascertain any damage.The following actions should be taken if the bridge informs the engine room that the ship is aground.

The initial response may be to Stop the Main Engine as quickly as possible and secure it, simultaneously with this start the Main Diesel Generator. Please note though with regard to the Main Engine it is our duty to obey Telegraph Orders as long as it possible and sensible to do so.
  • Stop and secure the steering gear, be aware that the Rudder may be aground/damaged.
  • Carry out a thorough inspection of the machinery space for structural damage and ingress of water. Due to the double bottom structure in the machinery space it may not be possible to see any structural damage clearly.
  • Sound all the machinery space tanks that have the ships hull forming part of there boundary. Careful when unscrewing any caps, as there might be water pressure present. This should include Fuel, Water, L.O. and double bottom tanks and dry spaces.
  • Inform the bridge of your findings and take further soundings at regular intervals.
  • Record all actions taken in the Engine Log book.
  • Check all sea inlets/outlets, their associated pumps and coolers are working correctly and not fouled.
  • Keep a close eye on the stern tube L.O. tank for loss of oil.
  • Engage turning gear and try to turn shaft. If any strain is shown by the turning gear it must be assumed that the propeller is also aground and the bridge informed of this. No further attempt to turn the shaft should be made until the propeller is clear. check crankshaft deflection to check bearing alignment.
  • A grounding could cause rapid fouling of Sea Suctions, Pumps and Coolers, with silt, resulting in a Blackout, as such the only power available would be that from the Diesel Generator and the Emergency Generator. Staff must be prepared to respond to situations and priorities which may change quickly.
When the ship is afloat and the engines are ready for use again a close eye should be kept on the shaft bearing and stern tube for
overheating or unusual vibrations in case the hull structure has been deformed, causing misalignment.

Comments

  1. I liked your work and, as a result, the manner you presented this content about Raymarine Autopilot for Sale Singapore.It is a valuable paper for us. Thank you for sharing this blog with us.

    ReplyDelete
  2. You wrote this post very carefully.online navigation charts The amount of information is stunning and also a gainful article for us. Keep sharing this kind of articles, Thank you.

    ReplyDelete
  3. You wrote this post Fastest Boater Course California very carefully. The amount of information is stunning and also a gainful article for us. Keep sharing this kind of articles, Thank you.

    ReplyDelete

Post a Comment

If you have any doubts.Please let me know

Popular posts from this blog

Main engine interlocks

Interlocks are provided so that the engine can be started or reversed only when certain conditions have been fulfilled. When there is a remote control of engines, it is essential to have interlocks. This reduces the possibility of engine damage and any hazards to the operating personnel. Turning gear Interlock . This device prevents the engine from being started if the Turning gear is engaged. Running Direction Interlock . This prevents the fuel from being supplied if the running direction of the engine does not match the Telegraph. Starting Air Distributor in end position . This prevents starting from taking place if the shifting of the Distributor has not been completed. Main Lube. oil pressure, Piston cooling pressure, Jacket water pressure, and important parameters must be above the required minimum. Auxiliary Blower Interlock . The Auxiliary Blower is provided in case of Constant pressure turbo charging. Air Spring pressure Interlock . In case of the present generation...

Differences between MC/MC-C and ME/ME-C engines

The electrohydraulic control mechanisms of the ME engine replace the following components of the conventional MC engine: Chain drive for camshaft Camshaft with fuel cams, exhaust cams and indicator cams Fuel pump actuating gear, including roller guides and reversing mechanism Conventional fuel pressure booster and VIT system Exhaust valve actuating gear and roller guides Engine driven starting air distributor Electronic governor with actuator Regulating shaft Engine side control console Mechanical cylinder lubricators. The Engine Control System of the ME engine comprises: Control units Hydraulic power supply unit Hydraulic cylinder units, including: Electronically controlled fuel injection, and Electronically controlled exhaust valve activation Electronically controlled starting air valves Electronically controlled auxiliary blowers Integrated electronic governor functions Tacho system Electronically controlled Alpha lubricators

Shell Expansion Plan

It is a two dimensional drawing of a three dimensional surface of the ship’s hull form. This plan is very useful for the following information:It is used for marking the location of a hull Damage on this plan by identifying the strake number , letter and frame number so that the exact location of the damage and also suggested repairs are marked in a localised copy. The shell expansion can be used for finding areas of painting surfaces such as topside, boot topping and bottom areas by applying Simpsons rules directly.  In the shell expansion the vertical scale used is different from the horizontal scale and a suitable adjustment has to be made when calculating areas. This becomes useful in solving disputes concerning areas of preparation and painting. It gives information on the thickness of the original strake which is indicated by the number in the circle shown in the strake.  The quality of steel used is also shown by letters A,B,D E and AH, BH,DH, EH.