IP Library Granted Patent US 11,708,139
Granted Patent B2
US 11,708,139 · App. 17/844,594 · Granted Jul 25, 2023

Marine salvage drill assemblies and systems

Inventors: Joseph E. Farrell, III (Fort Lauderdale, FL); Thomas Adriaan Bambach (Gouda, NL); Patrick Louis Tielman (Gouda, NL); Cornelis Hendrikus Geurtsen (Groenekan, NL); Alexander van der Speld (Gouda, NL); Todd Jeffrey Schauer (Fort Lauderdale, FL); Matthew Ken Bierwagen (London, GB); Nolan Blake Conway (Fort Lauderdale, FL)
Assignee: Resolve Marine Group, Inc.
B63C11/52B23B41/00B25H1/0071B63B73/00B63C7/006
View Patent ↗
Loading inventors, assignments & file history…
Monitor This Case
Get email alerts when status or documents change.
Order Certified Copies
Most orders are placed with the USPTO same day — all within 24 business hours.
Order via The Patent Place →
Pre-filled with this patent's details
Quick Facts
Patent No.
US 11,708,139
App. No.
17/844,594
Granted
Jul 25, 2023
Kind
B2
Abstract

A drilling system configured to install a tap assembly into a ship skin is disclosed. The drilling system comprises a remotely-operated underwater vehicle and a drilling assembly configured to be operated by the remotely-operated underwater vehicle. The drilling assembly comprises a frame comprising an attachment element configured to hold the drilling assembly to a surface of the ship skin. The drilling assembly further comprises a drill actuation system comprising a linear actuator attached to the frame and a rotary actuator, wherein an actuation of the linear actuator is configured to move the rotary actuator relative to the frame to install the tap assembly into the ship skin by driving the tap assembly with the rotary actuator and the linear actuator.

Claims (44)

1. An underwater drill assembly, comprising:

a drilling system configured to drill a tap assembly into a ship skin;

a frame releasably securable to the ship skin, wherein the drilling system is movably supported by said frame, and wherein said frame comprises:

a plurality of slide members attached to said drilling system; and

a plurality of legs configured to conform to a curvature of the ship skin to releasably secure said frame to the ship skin, wherein said slide members are slidably supported by said legs, and wherein each said leg comprises:

a base portion comprising a socket joint; and

an attachment foot pivotably supported within said socket joint, wherein said attachment foot comprises:

a ball portion positioned within said socket joint;

a shaft extending from said ball portion; and

an attachment element configured to secure said leg to the ship skin.

2. The underwater drill assembly of claim 1 , wherein said attachment element comprises a suction cup, wherein said suction cup comprises vacuum apertures defined therein, and wherein said ball portion and said shaft comprise a through-hole in fluid communication with said vacuum apertures.

3. The underwater drill assembly of claim 2 , wherein said base portion comprises a port hole defined therein in fluid communication with said through-hole.

4. The underwater drill assembly of claim 1 , wherein a gap is defined between said base portion and said attachment element.

5. The underwater drill assembly of claim 1 , wherein said shaft is threadably engaged with said attachment element.

6. The underwater drill assembly of claim 1 , wherein said attachment element comprises an electromagnet.

7. An underwater drill assembly, comprising:

a drilling system configured to drill a tap assembly into a ship skin;

a tripod frame releasably securable to the ship skin, wherein the drilling system is movably supported by said tripod frame, and wherein said tripod frame comprises:

a plurality of slide members attached to said drilling system; and

a plurality of legs configured to conform to a curvature of the ship skin to releasably secure said tripod frame to the ship skin, wherein said slide members are slidably supported by said legs, and wherein each said leg comprises:

a base portion comprising a socket joint; and

an attachment foot pivotably supported within said socket joint, wherein said attachment foot comprises:

an upper ball portion positioned within said socket joint;

a shaft extending from said upper ball portion; and

an attachment element attached to an end of said shaft and configured to secure said leg to the ship skin, wherein the attachment foot is configured to adaptively conform to the curvature of the ship skin to secure the attachment element to the ship skin.

8. The underwater drill assembly of claim 7 , wherein said attachment element comprises a suction cup, wherein said suction cup comprises vacuum apertures defined therein, and wherein said upper ball portion and said shaft comprise a through-hole in fluid communication with said vacuum apertures.

9. The underwater drill assembly of claim 8 , wherein said base portion comprises a port hole defined therein in fluid communication with said through-hole.

10. The underwater drill assembly of claim 7 , wherein a gap is defined between said base portion and said attachment element.

11. The underwater drill assembly of claim 7 , wherein said shaft is threadably engaged with said attachment element.

12. The underwater drill assembly of claim 7 , wherein said attachment element comprises an electromagnet.

13. An underwater drill assembly, comprising:

a drilling system configured to drill a tap assembly into a ship skin;

a three-legged frame releasably securable to the ship skin, wherein the drilling system is movably supported by said three-legged frame, and wherein said three-legged frame comprises:

a plurality of slide members attached to said drilling system; and

three legs configured to conform to a curvature of the ship skin to releasably secure said three-legged frame to the ship skin, wherein said slide members are slidably supported by said three legs, and wherein each leg of said three legs comprises:

a base portion comprising a socket joint; and

a suction cup foot pivotably supported within said socket joint, wherein said suction cup foot comprises:

an upper ball portion positioned within said socket joint;

a shaft extending from said upper ball portion; and

a suction cup element attached to an end of said shaft and configured to secure said leg to the ship skin by providing a vacuum seal against the ship skin, wherein the suction cup element is configured to adaptively conform to the curvature of the ship skin to align and secure the suction cup element to the ship skin.

14. The underwater drill assembly of claim 13 , wherein said suction cup element comprises vacuum apertures defined therein, and wherein said upper ball portion and said shaft comprise a through-hole in fluid communication with said vacuum apertures.

15. The underwater drill assembly of claim 14 , wherein said base portion comprises a port hole defined therein in fluid communication with said through-hole.

16. The underwater drill assembly of claim 13 , wherein a gap is defined between said base portion and said suction cup element.

17. The underwater drill assembly of claim 13 , wherein said shaft is threadably engaged with said suction cup element.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jul 6, 2023
From: FARRELL, JOSEPH E., III; BAMBACH, THOMAS ADRIAAN; TIELMAN, PATRICK LOUIS; GEURTSEN, CORNELIS HENDRIKUS; VAN DER SPELD, ALEXANDER; SCHAUER, TODD JEFFREY; BIERWAGEN, MATTHEW KEN; CONWAY, NOLAN BLAKE
To: RESOLVE MARINE GROUP, INC.
Reel/Frame 064172/0062 →
Continuity (4)
Continuation 17231380 · Apr 15, 2021
Division 16356398 · Mar 18, 2019
Provisional Application 62644676 · Mar 19, 2018
Related Publication 20220388616A1 · Dec 8, 2022
Cited By (4)
US 12,227,273 US 12,612,139 US 12,617,508 US 12,709,366