Home Page
Home Page      |      About Us      |      Courses      |      Simulators      |      Articles     |      FAQ's      |      Links      |      Contact Us
  > Bridge
  > Engine Room
  > GMDSS
  > ECDIS
   



The Kongsberg Neptune Engine Room Simulator

Full mission engine room simulator

The Kongsberg Neptune Engine Room Simulator is a high fidelity engine room simulator developed in close co-operation with maritime research institutes around the world.

The PMTC Kongsberg Neptune ERS-L11 model exceeds the requirements of STCW 95 Regulation I/12, Section A-I/12, Table A-III/1, Table A-III/2 and Table A-III/4 and Section B-I/12 that define minimum competence standards for junior and senior engineers as well as the performance standards for simulator training and equipment. The following organizations have certified or approved ERS :

  • Det Norske Veritas (DNV)
  • MAN B&W

The capabilities of Kongsberg Neptune ERS-L11 Engine Room Simulator :

  • Creates a real-time environment for all engine room operations for all main and auxiliary systems.
  • Monitors and evaluates machinery and systems performance
  • Simulates machinery malfunctions.
  • Provides facility for unlimited scenario / exercise building, on-line student performance assessment.
  • Provides facility for individual or watch-team training.
  • Allows instructor-controlled external conditions such as weather, sea depth, ship's trim, draught, seawater and air temperatures and systems variables such as tank levels, pressures and temperatures.
  • Provides facility to isolate certain processes or systems for performing specific training tasks.
  • Includes IG system, Emissions control system and full UMS automation control system simulation.

ER Simulator Model Configuration / Specifications

The desktop type Kongsberg Neptune ER Simulator consists of one (1) instructor workstation networked with six (6) student double-screen workstations and is capable of accommodating up to twelve (12) students.

The ERS ERS-L11 MAN B&W 5L90MC-VLCC model simulates a Very Large Crude Carrier with a MAN B&W slow speed turbo charged diesel engine. The model is based on real engine data that make the dynamic behavior of the simulator close to real engine response.

Vessel's Main Particulars

 

Main Engine Data

 

Length overall

305.00 m

Type

MAN B&W 5L90MC

Length between pp

295.00 m

Cylinder bore

90 cm

Breadth moulded

47.00 m

Piston stroke

290 cm

Depth moulded

30.40 m

No. of cylinders

5

Summer Draught

19.07 m

No. of air coolers

2

Dead-weight

187997 tons

No. of turbochargers

2

Speed

14 knots

MCR

17400 KW

   

Corresp. Eng. Speed

76 RPM

   

Mean indicated press

13 Bar

   

Scavenge air press

2.1 Bar

   

Turbocharger speed

8000 RPM

   

No. of propeller blades

5

   

Propeller pitch

1.2 P/D

   

Spec. fuel consumption

168 g/kwh

   

Fuel

DO/HFO 700 cSt

The following dynamic models and features are included:

  • Sea & LT/HT fresh water systems. Incl. FW generator
  • Electrical power plant Incl. diesel-, shaft- and turbo generators
  • Start & service air compressors. Incl. compressor intermediate coolers and emergency compressor
  • Electrical power and pump management. Manual or automatic
  • Steam plant. Incl. D-type oil fired boiler and exhaust boiler
  • Diesel/heavy fuel oil systems. Incl. tanks, separators, viscosimeters
  • Lubricating oil systems. Incl. separator
  • Stern tube systems.
  • Propeller servo LO system.
  • CPP bow thruster.
  • Steering gear/autopilot. Incl. double acting IMO type steering gear and ship course control
  • Turbo charger systems.
  • Main engine control system. Incl. bridge, ECR and local control
  • Main engine control air system
  • FO high pressure pump system. Incl. VIT system
  • Cylinder indication diagrams.
  • Piston ring monitoring
  • Main engine load diagram
  • Shaft generator/shaft motor
  • Bilge wells & bilge separator
  • I nert gas plant
  • Cargo and ballast pump turbines
  • Ballast system
  • Refrigeration systems
  • Remote CO2 release, emergency stops and quick release valves
  • CO2 scavenging air box fire extinguish system
  • Emission Control System (water emulsification & Pmax-reduction /SCR / Scrubbing)

Excersise briefing / debriefing - Student evaluation

Exercise build and playback
PMTC's Neptune ER Simulator is capable of scenario / exercise building allowing the instructor to select from a very long list of malfunctions and focus to the desired training requirements. The system records exercise progress and allows playback of all or part of individual student exercise.

Debriefing equipment
Exercise briefing and debriefing are considered very important parts of the training procedure. The Neptune ER Simulator at Piraeus Maritime Training Center includes a variety of advanced visual and playback functions to enhance briefing and debriefing. System's capability of replaying selected parts of individual student exercise allows for further analysis and discussion.

Briefing / debriefing equipment includes printers, plotters and large screen projector to display picture of real time and playback operations.

Student evaluation
The built-in evaluation function is an aid to the instructor when evaluating the trainees' performance making structural and objective student assessment possible. . It allows for monitoring of key variables in the simulated plant, thus giving an indication of how well the plant is managed / controlled.

 


Training Contents / Exercise scenarios

The simulator is designed to meet the training demands for basic operational training of junior engineers, fault studies by senior engineers, and economy and optimizing studies by the chief engineers or shore based technical staff. The instructor can create an unlimited number of scenarios that can be used during the different exercises. A library of "ready to run" exercises is available.

The training capabilities of Neptune ERS are almost unlimited and course contents can be varied according to customers' special needs. The system is provided with a very long menu of instructor set malfunctions allowing him to built complicated scenarios. Main fields of training are :

Normal operations training :

  • Engine Room preparation sequence from dead ship condition to navigation full speed.
  • Main Engine remote or emergency start and maneuvering.
  • Study of Main Engine cylinders combustion parameters and study of indicator diagrams.
  • Main Engine load, performance and fuel consumption.
  • Electric generator sets (diesel, steam turbine, shaft) preparation, start and parallel running.
  • Operation and performance of steam generation plant and steam turbines
  • Operation and performance of auxiliary machinery and systems.
  • Operation and performance of automation and control equipment.
  • Inert gas system operation
  • Effects of external conditions (sea water, trim/draft, weather conditions) on engine plant performance.
  • Emissions control for diesel engines and boiler including exhaust gas quality optimization

  • Malfunctions and emergency response training :

  • ME and Diesel generators overload and emergency running
  • Malfunctions of turbochargers and charging air system
  • Bearings misalignment and asymmetrical loading
  • Running on worn ME liner and piston rings
  • ME Scavenging space fires
  • Malfunction and readjustment of ME h.p.fuel injection system and VIT
  • Running on different or contaminated Fuel and Lub.oil grades
  • Running on malfunctioning remote control system and automations
  • Oil fired boiler tube leakage, feed water and combustion system malfunction
  • Gas boiler running dirty - Soot fires
  • Steam turbine and shaft generator running on unstable ME load

KONGSBERG Neptune ER Simulator - A guide to training


"STCW is about

demonstrating and

evaluating

competence..."


Complying with the STCW '95 requirements

STCW - Chapter III

Specification of
standard of

competence
for ratings and
officers in charge
of an
engineering
watch

Table A-III/1.4

Maintain a safe engineering watch

Table A-III/1.6

Operate main and auxiliary machinery and associated equipment

Table A-III/1.7

Operate pumping systems and associated control systems

Table A-III/1.8

Operate alternators, generators and control systems

Table A-III/1.9

Maintain marine engineering systems, including control systems

Table A-III/1.10

Ensure compliance with pollution prevention requirements

Table A-III/1.11

Maintain sea-worthiness of the ship

Table A-III/2.1

Plan and schedule operations

Table A-III/2.2

Start-up and shut-down main propulsion and auxiliary machinery and associated systems

Table A-III/2.3

Operate, monitor and evaluate engine performance and capacity

Table A-III/2.4

Maintain safety of engine equipment, systems and services

Table A-III/2.5

Manage fuel and ballast operations

Table A-III/2.7

Operate electrical and electronic control equipment

Table A-III/2.8

Test, detect faults and maintain and restore electrical and electronic control equipment to operating conditions.

Table A-III/2.10

Detect and identify the cause of machinery malfunctions and correct faults.

Table A-III/4

Carry out a watch routine appropriate to the duties of a rating forming part of an engine room watch - Understand orders and be understood in matters relevant to watch-keeping duties

 

 
    Created by eProductions
Home Page Email Print this page