Vessels ROVs & suport toolings special machines ROV multi-tasking conclusions VLV T Workshop Enabling technologies for deepwater operations Amsterdam,

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vessels ROVs & suport toolings special machines ROV multi-tasking conclusions VLV T Workshop Enabling technologies for deepwater operations Amsterdam, October 7th, 2003

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions summary Deployment to sea bottom: support vessels Underwater operations ROVs + support tooling; example of operation specially developed machines with dedicated power and control: one example from recent experience ROV multi-tasking: dedicated machines for individual operations, operated through ROVs: one example case

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions fundamental capabilities for deepwater installation deployment to seabed and positioning over site with adequate accuracy capability to work in very deep water by remote control with dexterity and safety engineering of equipment and operations

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Marine Spread for deployment to sea bottom Support vessels Conventional vessels for auxiliary services: barges tugs

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Support vessels Example: Polar Prince

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Support vessels Example: Polar Prince

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Support vessels Example: Polar Prince length (LOA)94.1m beam 22.0m draught7.1m clear deck area1,000m 2 deepwater crane capacity (2000 msw) 75t (constant tension and heave compensated) A-frame capacity100t stern roller60 t moonpools: two: 7x 6,5 m and 4,9 x 5,2 m

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Support vessels Example: Polar Prince Propulsion and Thrusters: 2 x 4.3 kW CP propellers in nozzles 3 transverse thrusters 2 azimuth thrusters Dynamic Positioning fully redundant system DP2, 2 DGPS

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Support vessels Example: Maxita

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Support vessels Example: Maxita length162m beam 38m draught9m deck capacity18,000t deck area:3,800m 2 accommodations:84 berths craneage: main hook 600t auxiliary hook 200t heave compensation to +/-1.6m

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Support vessels Example: Maxita tunnel thruster Fwd 800HP azimuth thruster Fwd2 x 3,600HP azimuth thruster Aft 2 x 2,780HP DP System DP 2, fully redundant Simrad 702

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Underwater works: Remotely Operated Vehicles Typical “Working Class” ROVs are free-flying vehicles linked to surface through an electric umbilical ROVs are typically powered by a submersible electric motor rated about 100 to 150 HP; this motor generates hydraulic power; ROV users are typically hydraulic Typical ROV missions include use of manipulators and of specific support toolings

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Underwater works: other vehicles Manned submersible vehicles are not of normal use in the offshore industry Autonomous Underwater Vehicles (AUV) are used in the industry for a limited number of job types, especially survey. Possible further development may lead to increased possibility of use in other activities, such as data gathering for maintenance. Low power availability and poor station keeping capability prevent their use as work class ROVs.

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Underwater works: Remotely Operated Vehicles Typical underwater works by ROVs include: survey assistance for deployment to sea bottom manipulation small tasks on subsea equipment (e.g.: cleaning, cutting), assisted or not by manipulators

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions ROVs Example: Innovator

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions ROVs: Example: Innovator

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions ROVs: Example: Innovator

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Innovator main data Dimensions (LxWxH): 3.00 x 1.50 x 2.00m Payload3kN Depth capability3,500msw (two Innovators upgraded to 4,000msw) Hydraulic Power System one electric motor 150 HP; 4,200 V, two shaft ends Hydraulic Power Unit (HPU) driven by electric motor Propulsion System Seven Curvetech hydraulic thrusters

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Innovator main data max thrust capacity, forward/lateral10kN max thrust capacity, vertical6kN through-frame lifting capacity140kN power through umbilical 500HP capability for automatic heading and trimming ring laser gyro extended tether

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions ROVs: the Tether Management System

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions ROV and TMS being deployed

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Extended tether - horizontal excursion m200 m400 m600 m800 m1000 m typical for standard ROVs: m Innovators: 700 to 1200 m

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Examples of support toolings for ROVs

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Example of ROV operation Tapping operation: cutting a 700 mm dia hole through a steel plate on a sunken vessel and fitting a valve on it

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Specially developed machines In some cases special machines are designed and built on purpose, to carry out specific jobs which are not within ROV capabilities One example follows: Beluga

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Mission requirement: pipeline burial for free-span correction very deep water: up to 2,200 m free-flying for easy installation over the pipeline pipe slope up to 30° trenching all soils, including rock up to 30 MPa

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Mission requirement: pipeline burial for free-span correction

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Beluga

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Beluga

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Beluga main data max water depth pipeline size weight in air free-flying dimensions (L x W x H,m) total power on vehicle trenching by suction by trench size rated 2200 mwd 24”, adjustable for other sizes 38 tonnes 8 8 kN each 8 x 2.5 x x kV 2 cutting discs for variable trench profile 2 pumps rated 1000 m3/h each max 1.5 m one pass, capable of multipass and trench widening

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Beluga animation to show how Beluga works

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Subsea tool multi-tasking This mode of operation consists of making use of ROVs and interfacing them with specially developed machines, to carry out specific tasks

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Subsea tool multi-tasking individual special machines are developed to perform specific operations these machines are operated through ROVs, by using their power, which is transferred through hydraulic wet-mateable connectors control is either performed through ROVs (for simple cases) or from a surface separate control station. In both cases the link to surface is through the ROV umbilical. wet mateable connector systems to transfer hydraulic power and electric power/signal have been successfully developed and are the basis for extended use of multi- tasking

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Wet mateable connector plate

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Wet mateable connector plate: example (fixed part)

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Wet mateable connector plate: example (moving part)

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions ROV docking and mating over underwater user video to show connector mating

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Subsea tool multi-tasking: example from experience BRUTUS: an underwater system for pipeline tie-ins

vessels ROVs & suport toolings special machines ROV multi-tasking conclusions Conclusions present technology enables capabilities to deploy underwater systems to water depth up to 3000 m and more general purpose equipment to do operations in such water depths are available to the industry specific dedicated equipment, to be used in combination with available equipment, can be developed on the ground of established engineering methods high level equipment engineering and operation engineering are required. Both of them are within capabilities of the offshore industry today.