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Jos van Doorn, MARIN

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Hydraulic engineering research –, facilities and organizational stucture and illustrated the research activities with many interesting examples.
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Introduction of MARIN and some examples of nautical research Jos van Doorn HSB workshop 15-02-2012
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Page 1: Jos van Doorn, MARIN

Introduction of MARIN and some examples of nautical research

Jos van Doorn

HSB workshop 15-02-2012

Page 2: Jos van Doorn, MARIN

CONTENTS

2

1. Introduction MARIN

2. Introduction MARIN’s nautical centre MSCN

3. Example: Barrow exit manoeuvre

Page 3: Jos van Doorn, MARIN

MARITIME RESEARCH INSTITUTE NETHERLANDS

3

Independent and innovative service provider for the maritime sector in hydrodynamic and nautical research

Page 4: Jos van Doorn, MARIN

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FACTS

• Located in Wageningen, Ede and Houston • Agents in Spain and Brasil • Joint Venture in China

• 300 employees • Foundation • Non-profit • Since 1932

• 9200 models • 7100 propellors

Page 5: Jos van Doorn, MARIN

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DUAL MISSION

• To provide industry with innovative design solutions • To carry out advanced consultancy and research for the benefit

of the maritime sector as a whole

Page 6: Jos van Doorn, MARIN

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ACTIVITIES

Simulations Model testing

Full scale Training

Page 7: Jos van Doorn, MARIN

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FACILITIES

• Offshore Basin • Seakeeping and Manoeuvring Basin • Depressurised Wave Basin • Deep Water Towing Tank • Shallow Water Basin • High Speed Basin • Cavitation Tunnel • Full Mission Simulators • Tug Stations • Vessel Traffic Simulator • Full Scale Systems • Numerical Tools

MARIN facilities

Page 8: Jos van Doorn, MARIN

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FACILITIES

• L x B 45 x 36 m • D 0 – 10.5 m • Movable floor • 20 m pit, 5 m diam. • X – Y carriage • Rotating arm • 6 layer current • Multi directional wave capability • Active reflection compensation • Hs = 0.35 m • Wind frame 24 m wide

Offshore basin

Page 9: Jos van Doorn, MARIN

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FACILITIES

• L x B x D 170 x 40 x 5 m • X – Y carriage • 6 m/s, 4 m/s • Rotating arm • Captive / free sailing • 2 sides beaches • 2 sides wave flaps (331 flaps) • Multi directional waves • Active reflection compensation • Hs = 0.45 m

Seakeeping & Manoeuvring Basin

Page 10: Jos van Doorn, MARIN

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FACILITIES

• L x B x D 240 x 18 x 8 m • 25 mbar (2500 Pa) • Resistance / propulsion • Cavitation observation / pressure

fluctuations

• 2 sides beaches, 2 sides wave flaps (224 flaps)

• Active reflection compensation

• Silent cariage / hydrophones for propeller noise measurement

• Hs = 0.45 / 0.75 m

Depressurised Wave Basin

Page 11: Jos van Doorn, MARIN

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ORGANISATION

Management

Personnel

Finance

Quality Assurance

Communications

R&D

Research Development

MSG Simulators Software

Production Facilities

Basins

Offshore Services

T&M Full-scale Services

MSCN Nautical Services

Ships Services

Page 12: Jos van Doorn, MARIN

12

TURNOVER 2010

Turnover € 40 mln.

• Commercial service • Joint Industry Project (JIP) • Knowledge development (research)

Mission funding Market 74% 3% 15% 8% ___________ 11% 89%

Dutch public

Dutch privat

Europe

North Amerika

Asia

Rest

Regional turnover segmentation 2010

Page 13: Jos van Doorn, MARIN

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CLIENTS

Heavy transport Yachts Tugs

Offshore production Cruise industry Ports/container vessels

LNG carrier/terminal Ferries Navies

FLNGFLNG

Page 14: Jos van Doorn, MARIN

EXAMPLE: TUG EFFICIENCY IN WAVES

14

Page 15: Jos van Doorn, MARIN

EXAMPLE: SUBMARINE

15

Page 16: Jos van Doorn, MARIN

EXAMPLE: RENEWABLE ENERGY

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Page 17: Jos van Doorn, MARIN

MARIN’S NAUTICAL CENTRE MSCN

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“Nautical safety and efficiency”

• Ship manoeuvring studies

- Evaluating new vessels for existing ports

- Evaluating new port lay-out, Approach channels

- Determination of operation envelope (limiting conditions)

• Risk studies

• Ship handling Training

• VTS Training

Page 18: Jos van Doorn, MARIN

FACILITIES NAUTICAL CENTRE MSCN

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Ship manoeuvring simulators

Page 19: Jos van Doorn, MARIN

FACILITIES NAUTICAL CENTRE MSCN

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Fast time simulations, Risk studies, VTS simulator

Page 20: Jos van Doorn, MARIN

EXAMPLE: BARROW EXIT MANOEUVRE

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Nuclear submarines:

Built by BAE (former Vickers) in Barrow-in-Furness

Page 21: Jos van Doorn, MARIN

LOCATION

21

Page 22: Jos van Doorn, MARIN

HISTORY (TRIDENT/VANGUARD)

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Barrow: access channel for the Trident class submarine

(1990 – 1999, with Delft Hydraulics) Contents:

• Channel design (1990 -1991)

• Training (1992 – 1999)

Plymouth: training for manoeuvres in and out of Plymouth

• Training (2005 – ongoing)

Page 23: Jos van Doorn, MARIN

STUDIES EXECUTED FOR ASTUTE 2004/2005

23

Part I: Shallow water model tests and computations for Astute (MARIN)

Part II: Channel Verification Study (MARIN/DELFT HYDRAULICS)

Task 1: Evaluation of existing situation

Task 2: Field measurements

Task 3: Flow and wave modeling

Task 4: Channel width study

Task 5: Channel depth

Task 6: Confirmation of design and procedures

Page 24: Jos van Doorn, MARIN

PART I: MANOEUVRING CHARACTERISTICS OF ASTUTE

24

Objective

Getting a robust and reliable description of the manoeuvring characteristics of Astute at the ‘Barrow trim’ in shallow water.

Investigation of relevant hydrodynamic behaviour.

Creation of mathematical simulation model for the studies in part 2

Note: Vanguard: 150 meters Astute: 100 meters

Page 25: Jos van Doorn, MARIN

PART I: SCOPE OF WORK

25

• Model manufacture

• Free sailing tests

Squat, zigzag tests

• Tests in waves in shallow water (head&beam)

• Calculations in waves (Diffrac)

• Bank suction model tests and calculations

• PMM tests

• Set-up of mathematical model

• Turning circle tests (to verify mathematical model)

Page 26: Jos van Doorn, MARIN

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MODEL MANUFACTURE

Page 27: Jos van Doorn, MARIN

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MODEL TEST

Page 28: Jos van Doorn, MARIN

BANK SUCTION

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Page 29: Jos van Doorn, MARIN

BANK SUCTION AT 15 METERS

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Page 30: Jos van Doorn, MARIN

BANK SUCTION AT 20 METERS

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Page 31: Jos van Doorn, MARIN

BANKSUCTION AT 30 METERS

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Page 32: Jos van Doorn, MARIN

BANK SUCTION MODEL TESTS

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Model

Under water bank

Page 33: Jos van Doorn, MARIN

TYPICAL STEERING BEHAVIOUR

33

Page 34: Jos van Doorn, MARIN

BEHAVIOUR IN WAVES

34

Model tests were performed in:

• Head waves at 8 knots

• Beam waves at 0 knots

These results are used to tune DBSNELH calculations for all wave directions.

Results:

• Used for UKC study

• Used for bridge simulations

Page 35: Jos van Doorn, MARIN

RESULT

35

A complete and reliable mathematical manoeuvring model that includes the typical steering characteristics of Astute

Page 36: Jos van Doorn, MARIN

PART II: CHANNEL VERIFICATION STUDY

36

Task 4: Channel width study

1. Fast time simulations (comparison Vanguard 150 m and Astute 100m)

2. Real time simulations

Fast time simulation

Condition Tide

HW Vw Dir Hs Dir Vanguard M8412

[m] [m/s] [-] [m] [-]

1 8.55 4 W 0.75 W 1A-C 11A-C

2 8.55 10 W 1.75 W 2A-C 12A-C

3 9.3 4 W 0.75 W 3A-C 13A-C

4 9.3 10 W 1.75 W 4A-C 14A-C

Wind Waves Figures

Page 37: Jos van Doorn, MARIN

CRITICAL STRETCHES

37

• Dock entrance

• Piel bend

• Haws Point

Page 38: Jos van Doorn, MARIN

FAST TIME: DEPARTURE FROM THE DOCK

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Vanguard 9.3 m tide (Env. B) M8412

Page 39: Jos van Doorn, MARIN

PIEL BEND (9.3 M TIDE, ENV. B)

39

Vanguard M8412

Page 40: Jos van Doorn, MARIN

PIEL BEND (9.3 M TIDE, ENV. B)

40

Vanguard

M8412

Page 41: Jos van Doorn, MARIN

CONCLUSIONS FAST-TIME SIMULATIONS

41

Controllability:

• Effect of typical steering behavior clearly visible

Can a pilot cope with this?

• Rudder use comparable to Vanguard (lower ship speeds!)

Exit of the dock:

• Easier compared to Vanguard (Is higher tide possible?)

Channel width used:

• Comparable to Vanguard

Page 42: Jos van Doorn, MARIN

REAL TIME SIMULATIONS

42

3 locations:

1. FMBI: Fin

2. FMBII: Control room

3. 4 tertiary bridges: Tugs

Page 43: Jos van Doorn, MARIN

ELECTRONIC POSITIONING SYSTEM

43

Page 44: Jos van Doorn, MARIN

EXAMPLE OF VISUALS

44

Page 45: Jos van Doorn, MARIN

ENVIRONMENTAL CONDITIONS

45

Environmental data provided by Deltares

• Tide: 8.5 and 9.3 m

• Current (time dependent)

• Waves: 0.75, 1.75 and 2 meters (S and SW)

Tidal curves

4.000

4.500

5.000

5.500

6.000

6.500

7.000

7.500

8.000

8.500

9.000

9.500

10.000

09:00 09:30 10:00 10:30 11:00 11:30 12:00 12:30 13:00 13:30 14:00 14:30 15:00 15:30

Time [hrs]

Wa

terl

ev

el +

CD

[m

]

HW = 8.5 m

HW = 9.3 m

Western

waves

South

Western

waves

Page 46: Jos van Doorn, MARIN

STRATEGY LEAVING THE DOCK

46

4 Tugs alongside

Page 47: Jos van Doorn, MARIN

NORMAL SIMULATIONS

47

Critical manoeuvres:

• Dock exit

• Piel bend passage

• Haws Point passage

Analyses:

• Discussion of individual runs

• Analyses of combined runs

• Controllability (criteria!)

• Channel width used (Swept Path, criteria!)

Page 48: Jos van Doorn, MARIN

EXAMPLE OF A MANOEUVRE

48

Out

er C

hann

el

Walney Channel

Piel

Haws Point

Page 49: Jos van Doorn, MARIN

DOCK ENTRANCE

49

Analyses of individual runs

Page 50: Jos van Doorn, MARIN

SWEPT PATH: ASTUTE + TUGS

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8.5 m tide 9.3 m tide

Page 51: Jos van Doorn, MARIN

SWEPT PATH ASTUTE

51

Piel Bend 9.3 m tide Haws Point

Page 52: Jos van Doorn, MARIN

CONCLUSIONS

52

• Most critical passage is Piel bend (safety limits are exceeded)

• Vessel always well within the channel: width is sufficient

• Timing is very important (support from Electronic Positioning system)

• Steering characteristic: can be coped with

• Learning effect (training) visible

Page 53: Jos van Doorn, MARIN

EMERGENCY SIMULATIONS

53

Rudder failure Manoeuvre back into the dock

Engine failure

Page 54: Jos van Doorn, MARIN

QUESTIONS ?

54

Question to HSB members

Page 55: Jos van Doorn, MARIN

QUESTION FOR HSB

55

For a project we are executing we are looking for the following information:

The procedure to analyze multi-beam data for the development of nautical charts

1. Verification of data and elimination of wrong data

2. Procedures from these data => nautical chart

International standards?

Examples from other various countries


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