IP Library › Granted Patent US 12,599,117
Granted Patent B2
US 12,599,117 · App. 19/036,407 · Granted Apr 14, 2026

Aquaculture-feeding / oxygen-dissolution assembly for ocean applications and method thereof

Inventors: Evan Logue (Campbell River, CA); Mathew Stephen Clarke (Campbell River, CA)
Assignee: POSEIDON OCEAN SYSTEMS LTD.
A01K63/042A01K61/80
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Quick Facts
Patent No.
US 12,599,117
App. No.
19/036,407
Granted
Apr 14, 2026
Kind
B2
Abstract

There is provided an aquaculture assembly including a pump for outputting water of a first concentration of dissolved oxygen. The aquaculture assembly includes an oxygen dissolution system operatively connected to the pump so as to receive said water therefrom and via which water of a second higher concentration of dissolved oxygen is output. The aquaculture assembly includes a manifold operatively connected to the oxygen dissolution system so as to receive said water of the second concentration of dissolved oxygen. The aquaculture assembly includes a plurality of valves in fluid communication with respective outlets of the manifold. A first said valve associated with a closer sea cage is more closed compared to a second said valve associated with a more distant sea cage, to promote a consistent oxygen backpressure across multiple said outlets within a predetermined threshold. The aquaculture assembly includes feed injection conduits operatively connected to respective said valves.

Claims (36)

1 . An aquaculture assembly comprising:

a pump for outputting water of a first concentration of dissolved oxygen;

an oxygen dissolution system operatively connected to the pump so as to receive said water of the first concentration of dissolved oxygen, with the oxygen dissolution system outputting water of a second concentration of dissolved oxygen higher than that of the first concentration of dissolved oxygen;

a manifold operatively connected to the oxygen dissolution system so as to receive said water of the second concentration of dissolved oxygen;

a plurality of valves in fluid communication with respective outlets of the manifold, wherein a first valve of said plurality of valves associated with a sea cage that is closer, is more closed compared to a second valve of said plurality of valves associated with a sea cage that is more distant, to promote a consistent backpressure across multiple said outlets within a predetermined threshold; and

a plurality of feed injection conduits operatively connected to respective said valves.

2 . An aquaculture assembly according to claim 1 , wherein the manifold is downstream of the oxygen dissolution system and upstream of the plurality of feed injection conduits.

3 . An aquaculture assembly according to claim 1 , wherein the plurality of valves are flow balancing valves which are selectively adjustable to promote flows of water through the feed injection conduits that are equal to each other within a predetermined threshold.

4 . An aquaculture assembly according to claim 1 , wherein said backpressure promotes dissolution of oxygen within the assembly.

5 . An aquaculture assembly according to claim 1 , wherein each said feed injection conduit outputting into a respective said sea cage a liquid-solid flow of water with an elevated concentration of dissolved oxygen together with feed dispersed therewithin.

6 . An aquaculture assembly according to claim 1 , wherein the plurality of valves are upstream of said feed injection conduits and wherein feed is injected into the feed injection conduits.

7 . An aquaculture assembly according to claim 1 , wherein each said valve is positioned such that adjustment of the extent to which oxygen is dissolved within the water via said valve is independent of feed rate.

8 . An aquaculture assembly according to claim 1 , wherein the assembly is configured to enable the extent to which oxygen is dissolved within the water to be adjustable via selectively adjusting positioning of the valves.

9 . An aquaculture assembly according to claim 1 , including a plurality of water flow meters downstream of the oxygen dissolution system, the plurality of water flow meters being inline with and/or operatively connecting to respective said feed injection conduits.

10 . An aquaculture assembly according to claim 9 , including a processor in communication with the plurality of water flow meters, wherein the processor selectively actuates or adjusts one or more of the plurality of valves based on input from the water flow meters so as to promote water flows within the feed injection conduits that are equal within a predetermined threshold.

11 . An aquaculture assembly according to claim 9 , wherein the plurality of flow meters create additional backpressure used to promote dissolving of oxygen within the assembly.

12 . An aquaculture assembly according to claim 1 , including a processor in communication with the plurality of valves, wherein the processor selectively adjusts and/or actuates one or more of the plurality of valves to vary and/or control the extent to which oxygen is dissolved within the feed injection conduits.

13 . An aquaculture assembly according to claim 1 , including a degassing system via which undissolved gases are selectively released, the degassing system being downstream of the oxygen dissolution system and upstream of the feed injection conduits.

14 . An aquaculture assembly according to claim 1 , including an elongate conduit system comprising said feed injection conduits, wherein the conduit system extends from the pump to said sea cages, and wherein the conduit system undulates at least in part and/or spans conveyance distances.

15 . An aquaculture assembly according to claim 1 , wherein the pump is a variable speed pump, and wherein adjusting the speed of the variable speed pump adjusts at least in part the extent to which oxygen is dissolved within the water and/or assembly.

16 . A method of providing aquaculture feed and oxygenated water to a plurality of sea cages, the method comprising:

dissolving oxygen into water via an oxygen dissolution system so as to output water of elevated dissolved oxygen;

splitting the water of elevated dissolved oxygen into a plurality of distribution lines whose outlets are in fluid communication with respective said sea cages;

injecting feed into each said distribution line; and

adjusting flow through the distribution lines via water flow balancing valves, including adjusting a first water flow balancing valve of said water flow balancing valves associated with a sea cage of said plurality of sea cages that is closer to be more closed compared to a second water flow balancing valve of said water flow balancing valves associated with a sea cage of said plurality of sea cages that is more distant, to promote a consistent backpressure across multiple said outlets within a predetermined threshold.

17 . A method according to claim 16 , including operatively connecting together the oxygen dissolution system and the plurality of distribution lines via a manifold positioned upstream of the injecting of the feed.

18 . A method according to claim 16 , including adjusting the extent to which oxygen is dissolved within the water by adjusting the extent to which respective ones of the water flow balancing valves are opened.

19 . A method according to claim 16 , including equalizing within a predetermined threshold the flow of water through the outlets via the water flow balancing valves.

20 . A method according to claim 16 , wherein the plurality of distribution lines comprises a conduit system which is curved at least in part, which is undulating at least in part due to the ocean environment and/or which has one or more conveyance distances.

21 . An aquaculture assembly comprising:

a pump for outputting water of a first concentration of dissolved oxygen;

an oxygen dissolution system operatively connected to the pump so as to receive said water of the first concentration of dissolved oxygen, with the oxygen dissolution system outputting water of a second concentration of dissolved oxygen higher than that of the first concentration of dissolved oxygen;

a manifold operatively connected to the oxygen dissolution system so as to receive said water of the second concentration of dissolved oxygen;

a plurality of spaced-apart sea cages;

a plurality of valves in fluid communication with respective outlets of the manifold, wherein a first said valve of said plurality of valves associated with a closer sea cage of said plurality of spaced-apart sea cages that is closer, is more closed compared to a second said valve of said plurality of valves associated with a more distant sea cage of said plurality of spaced-apart sea cages that is more distant, to promote a consistent backpressure across multiple said outlets within a predetermined threshold; and

a plurality of feed injection conduits operatively connected to respective said valves.

Assignments (2)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jan 27, 2025
From: LOGUE, EVAN; CLARKE, MATHEW STEPHEN
To: POSEIDON OCEAN SYSTEMS LTD.
Reel/Frame 070020/0304 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jan 27, 2025
From: LOGUE, EVAN; CLARKE, MATHEW STEPHEN
To: POSEIDON OCEAN SYSTEMS LTD.
Reel/Frame 070020/0350 →
Continuity (3)
Continuation PCTCA2023050978 · Jul 20, 2023
Provisional Application 63394532 · Aug 2, 2022
Related Publication 20250160304A1 · May 22, 2025
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