Keppel Offshore & Marine Technology Centre Pte Ltd

Wen Sin Chong

Kok Seng Foo

Alex Kah Keong Tan

Asbjørn Mortensen

Xiaoxia Sheng

Toh Tung Wong

Michael Barclay

Ming Liu

Ravindu Atapattu

Nirmal Raman Gurunthalingam

Teng Kiat Lim

Hee Yan Yip

Asbjorn Mortensen

Prapisala Thepsithar

Zong Yao

Paul Campbell

Asok Kumar Nedumaran

Xiao Xia Sheng

Yun Shui Chen

Cheng Kiang Eio

Ratnesh Bedi

Cristian Felipe Ruilova Vidal

Kah Keong Alex Tan

A structural block is fabricated with necessary components and structure for LNG storage and/or process. The structural block may be an LNG tank with the same configuration as that in an LNG carrier. The structural block may also be a regasification plant or a liquefaction plant to be used for LNG process. An existing vessel, e.g. an LNG carrier, is cut apart to form a forward section and an aft section. The forward section and the aft section are moved away from each other to form a space therebetween. The structural block is then placed into the space and jointed to the forward and aft sections, by welding for example, to form an integrated new vessel. The structural block provides the new vessel with increased LNG storage and transportation capabilities as well as regasification and/or liquefaction process facilities to meet the increased demand for LNG storage, transportation and processing.

LNG carrier construction method

Embodiments of the present invention provide a process for liquefaction of a natural gas. The process includes cooling the natural gas with a first refrigerant provided by a first cooling system and cooling the natural gas with a second refrigerant provided by a second cooling system. The second cooling system is a single phase cooling system. The first and second cooling systems operate independently from each other. The second refrigerant is cooled with the first refrigerant so that the cooling capacity of the second refrigerant and the second cooling system is increased.

System and process for natural gas liquefaction

A natural gas liquefaction process suited for offshore liquefaction of natural gas produced in association with oil production is described.

Process for natural gas liquefaction

Embodiments of the present invention relate to a system and method for efficient removal of sulfur oxides (SOx), nitrogen oxides (NOx) and particulate matter (PM) contained in an exhaust gas generated from fuel combustion and efficient treatment of water containing microorganizms (e.g. ballast water).

Systems and methods for exhaust gas cleaning and/or ballast water treatment

Disclosed are various apparatus and method for transferring a hydrocarbon fluid between two bodies. To this purpose, a transfer skid and transfer hoses are moved from a first body to a second body to be installed thereupon to provide fluid communication between the two bodies. Offloading of hydrocarbon fluid may then take place between the two bodies. Emergency release operation may be triggered during the offloading, where the transfer hoses are disconnected from the transfer skid, and are returned to the first body. Various features of the transfer skid and associated apparatus allow the transfer skid to be installed on the second body with improved mating connections, transfer hoses to be returned to the first body after offloading operation without hydrocarbon fluid leakage, and transfer hoses to disconnect with speed and safety during emergency release operation.

Apparatus and method for offloading a hydrocarbon fluid

Disclosed are systems and methods for limiting structural damage to an affected offshore platform and preventing damage spread from the affected offshore platform to another platform during an accident or an emergency condition. An offshore platform arrangement includes a mobile offshore production unit (MOPU), a mobile storage platform and a mobile offloading platform which are disposed at a clearance distance from one another. The platforms are fluidly connected by pipes to allow hydrocarbon fluid transfer therebetween. The pipes are adapted to cease fluid communication of hydrocarbon fluid between platforms for preventing damage spread therebetween. Also disclosed is an offloading system for hydrocarbon fluid transfer which includes a lifting system having an extendable lifting arm and a spreader frame platform rotatably coupled to the lifting arm. The spreader frame platform is operable to support a transfer skid and allow angular adjustment of the transfer skid in a horizontal plane.

Offshore systems and methods for liquefied gas production, storage and offloading to reduce and prevent damage

The present disclosure relates to hull conversion of existing vessel for tank integration to allow storage of multiple hydrocarbon and non-hydrocarbon products onboard the existing vessel. In a converted vessel, a first liquefied hydrocarbon fluid may be stored in an added independent tank, while a second hydrocarbon fluid or a non-hydrocarbon fluid may be stored in an un-converted carge tank, which can be any one of a centre cargo tank, a port side tank or a starboard side tank.

Hull conversion of existing vessels for tank integration

A mooring system may comprise a station keeping apparatus having a turntable rotatably mounted thereon. The station keeping apparatus is operable to movably couple to a first vessel and to a second vessel in a side-by-side configuration. The turntable is operable to freely rotate both the first and the second vessel about the station keeping apparatus. The station keeping apparatus is securable to the second vessel using a head mooring line having a length which is adjustable for aligning a heading of both the first and the second vessel with a prevailing weather direction. Further, the mooring system may comprise a rigid yoke or a soft yoke movably coupling the turntable to the first vessel for angular adjustment between the station keeping apparatus and a longitudinal center line of the first vessel.

Side-by-side mooring bay

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Singapore, Singapore

Wen Sin Chong