IP Library › Granted Patent US 12,498,070
Granted Patent B2
US 12,498,070 · App. 18/024,589 · Granted Dec 16, 2025

Marine breakaway couplings

Inventors: Ian Latimer (Stannington, GB); Michael Stanton (Backcrofts, GB)
Assignee: Flexible Engineered Solutions Limited
F16L55/1007
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Quick Facts
Patent No.
US 12,498,070
App. No.
18/024,589
Granted
Dec 16, 2025
Kind
B2
Abstract

A breakaway coupling system for an offloading string comprises a first coupling part 101 and a second coupling part 102 . The coupling parts are connectable together to form a conduit through which fluid can flow and separable from each other to seal the conduit. The system further comprises movement sensing means 160, 162, 166, 168 arranged to sense movement of the two coupling parts relative to each other and transmission means arranged to transmit a separation signal in response to sensing of the relative movement.

Claims (26)

1 . A breakaway coupling system for an offloading string, the system comprising a first coupling part, a second coupling part and at least one monitoring sensor, the first and second coupling parts having a fully coupled condition in which they are connected together to form a conduit through which fluid can flow and movable from the fully coupled condition, through a partially coupled condition to a separated condition in which they seal the conduit, the system further comprising: a monitoring node and a separation mode, wherein:

the monitoring node comprises a processor, a first power supply, and a transmitter and is arranged, while the coupling is in the fully coupled condition, to receive inputs from the at least one monitoring sensor and to transmit monitoring data derived from the inputs; and

the separation mode comprises a second power supply, a movement sensor arranged to sense movement of the two coupling parts relative to each other and a transmitter arranged to transmit a separation signal in response to sensing of the relative movement, and

the separation node is arranged to remain in an inactive mode while the coupling parts are in the fully coupled condition, and to be activated by separation of the coupling parts.

2 . A system according to claim 1 wherein the separation node further comprises a processor connected to the movement sensor and the transmitter, and arranged to receive an activation signal from the movement sensor, and to output the separation signal for transmission by the transmitter.

3 . A system according to claim 1 wherein the movement sensor comprises a switch arranged to be closed in response to the movement.

4 . A system according to claim 3 wherein the switch is arranged to connect the transmitter to the second power supply in response to the movement.

5 . A system according to claim 3 wherein the movement sensor further comprises a magnet arranged to close the switch in response to the movement.

6 . A system according to claim 1 wherein the movement sensor comprises a wireless ranging system arranged to measure relative movement of the two coupling parts over a range of distances.

7 . A system according to claim 1 wherein the movement sensor comprises a wireless ranging system arranged to measure relative movement of the two coupling parts over a range of distances, and the wireless ranging system comprises a first transceiver forming part of the separation node and a second transceiver forming part of the monitoring node.

8 . A system according to claim 1 wherein the processor of the monitoring node is arranged to receive signals from the at least one monitoring sensor, to analyse the signals to determine when a fault condition is met, and to generate a fault indication output if the fault condition is met.

9 . A system according to claim 8 further comprising a gateway node remote from the coupling, the gateway node comprising a further processor, the system further comprising a communication system arranged to enable the transmission of data between the processor of the monitoring node and the further processor of the gateway node, and wherein the further processor of the gateway node is arranged to receive data from the processor of the monitoring node at predetermined times, to determine if the data is not successfully transmitted at a predetermined number of the predetermined times, and in response, to generate a submergence warning signal.

10 . A condition monitoring system for a marine breakaway coupling of an offloading string, the monitoring system comprising a monitoring node arranged to be mounted on the coupling, the monitoring node being arranged to monitor the condition of the coupling and transmit condition indication signals at predetermined times, and a further node arranged to be located remote from the coupling and to receive the condition indication signals at the predetermined times, wherein the further node is further arranged to determine if the condition indication signals are not successfully transmitted at a predetermined number of the predetermined times, and in response, to generate a submergence warning signal.

11 . A monitoring system according to claim 9 wherein the monitoring node is arranged to transmit the condition indicating signals wirelessly to the further node.

12 . A monitoring system according to claim 10 wherein the further node is a gateway node arranged to communicate further condition indicating signals to a central hub.

13 . A monitoring system according to claim 10 wherein the monitoring node is a first monitoring node and the system further comprises a second monitoring node arranged to be mounted on the marine breakaway coupling at a different position to the first monitoring node so that it can transmit condition indication signals to the further node if the first monitoring node is under water.

14 . A system according to claim 1 including a receiver arranged to receive vessel tracking data and to store the vessel tracking data as a vessel movement record.

15 . A system according to claim 14 wherein the system is arranged to transmit data from the vessel movement record in response to sensing of said relative movement.

16 . A system according to claim 14 wherein, in response to sensing of said relative movement, the system is arranged to identify vessels which were within a predetermined area associated with the coupling, within a predetermined time from the sensing of the relative movement.

17 . A breakaway coupling system for an offloading string, the system comprising:

a first coupling part and a second coupling part, the first and second coupling parts having a fully coupled condition in which they are connected together to form a conduit through which fluid can flow and movable from the fully coupled condition, though a partially coupled condition to a separated condition in which they seal the conduit, the system further comprising,

a first node mounted on the first coupling part and comprising a first GPS unit;

a second node mounted on the second coupling part and comprising a second GPS unit,

a further node remote from the coupling, the further node comprising a further processor,

a movement sensor arranged to sense movement of the two coupling parts relative to each other and

at least one transmitter arranged to transmit separation signals to the further node in response to sensing of the relative movement, and to transmit positional signals to the further node, the positional signals indicating the position of each of the GPS units.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Dec 5, 2023
From: LATIMER, IAN
To: FLEXIBLE ENGINEERED SOLUTIONS LIMITED
Reel/Frame 065768/0680 →
Priority Claims (1)
GB 2013921 · Sep 4, 2020 · national
Continuity (1)
Related Publication 20230323993A1 · Oct 12, 2023
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