IP Library Granted Patent US 12,372,190
Granted Patent B1
US 12,372,190 · App. 18/862,659 · Granted Jul 29, 2025

Pipe navigation apparatus with collapsible drive assembly

Inventors: Katelyn Marie Angeliu (Schenectady, NY); Todd William Danko (Niskayuna, NY)
Assignee: GE Infrastructure Technology LLC
F16L55/28F16L55/30F16L55/32F16L55/34F16L55/46F16L2101/30
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Quick Facts
Patent No.
US 12,372,190
App. No.
18/862,659
Granted
Jul 29, 2025
Kind
B1
Abstract

A navigation apparatus for use in navigating a pipe includes a body, a movable core coupled to the body by a sacrificial connector, and a drive assembly configured to engage an interior wall of the pipe to propel the navigation apparatus through the pipe. The drive assembly including a first arm, a second arm, and a wheel, wherein the first arm is pivotably coupled to the core and the wheel, and the second arm is pivotably coupled to the body and the wheel.

Claims (32)

1. A navigation apparatus for use in navigating a pipe, said navigation apparatus comprising:

a body;

a movable core coupled to said body by a sacrificial connector; and

a drive assembly configured to engage an interior wall of the pipe to propel said navigation apparatus through the pipe, said drive assembly comprising a first arm, a second arm, and a wheel, wherein said first arm is pivotably coupled to said core and said wheel, and said second arm is pivotably coupled to said body and said wheel.

2. The navigation apparatus of claim 1 , wherein said navigation apparatus is transitionable from an engaged configuration to a collapsed configuration by breaking said sacrificial connector, and wherein, in the engaged configuration, said drive assembly exerts an outward force on the interior wall of the pipe and, in the collapsed configuration, said core is moved relative to said body from the engaged configuration and said wheel is spaced from the interior wall of the pipe.

3. The navigation apparatus of claim 2 , wherein, when transitioning from the engaged configuration to the collapsed configuration, said first arm and said second arm are pivoted inward toward said body.

4. The navigation apparatus of claim 2 further comprising a tether coupled to said body and sized to extend out of the pipe when said navigation apparatus is received within said pipe, wherein said sacrificial connector is configured to break in response to a loading on said tether when said navigation apparatus is in the engaged configuration.

5. The navigation apparatus of claim 4 further comprising:

a first end; and

a second end opposite said first end, wherein said wheel is positioned adjacent said first end, and said tether is coupled to said body proximate said second end.

6. The navigation apparatus of claim 4 , wherein said tether is configured to provide at least one of power, communications, and a fluid for a fluid treatment to said navigation apparatus.

7. The navigation apparatus of claim 1 , wherein said drive assembly comprises a first motor assembly and a second motor assembly, said first motor assembly configured to rotate said first arm on said core, and said second motor assembly configured to drive said wheel.

8. The navigation apparatus of claim 1 , wherein said sacrificial connector comprises a pin extending radially outward from said body to said core.

9. The navigation apparatus of claim 1 further comprising a safety connector, said safety connector transitionable from a first operative state, in which said safety connector couples said movable core to said body, to a second operative state, in which said safety connector is disengaged from at least one of said core and said body.

10. The navigation apparatus of claim 9 , wherein said safety connector is configured to passively transition from the first operative state to the second operative state in response to a loss of power to said safety connector.

11. The navigation apparatus of claim 9 further comprising a tether coupled to said body and sized to extend out of the pipe when said navigation apparatus is received within said pipe, wherein said sacrificial connector is configured to break in response to a loading on said tether when said navigation apparatus is in the engaged configuration and said safety connector is in the second operative state, and wherein the loading is directed to said safety connector when said safety connector is in the first operative state.

12. A pipe navigation system for use in navigating a pipe comprising:

a tether; and

a pipe navigation apparatus comprising:

a body, wherein said tether is coupled to said body;

a movable core coupled to said body by a sacrificial connector; and

a drive assembly pivotably coupled to said body and said movable core, said drive assembly configured to engage an interior wall of the pipe to propel said navigation apparatus through the pipe, wherein said sacrificial connector is configured to break in response to a loading on said tether to disengage said drive assembly from the interior wall and collapse said drive assembly on said body.

13. The pipe navigation system of claim 12 , wherein said drive assembly comprises a first arm pivotably coupled to said core, a second arm pivotably coupled to said body, and a wheel pivotably coupled to said first arm and said second arm.

14. The pipe navigation system of claim 13 , wherein said first arm and said second arm are configured to pivot inward toward said body when said drive assembly is collapsed.

15. The pipe navigation system claim 13 , wherein said drive assembly comprises a first motor assembly and a second motor assembly, said first motor assembly configured to rotate said first arm on said core, and said second motor assembly configured to drive said wheel.

16. The pipe navigation system of claim 12 , wherein said tether is configured to provide at least one of power, communications, and a fluid for a fluid treatment to said navigation apparatus.

17. The pipe navigation system of claim 12 , where said navigation apparatus further comprises a safety connector, said safety connector transitionable from a first operative state, in which said safety connector couples said movable core to said body, to a second operative state, in which said safety connector is disengaged from at least one of said core and said body and wherein said safety connector passively transitions from the first operative state to the second operative state in response to a loss of power to said safety connector.

18. A method for controlling a navigation apparatus in a pipe, said method comprising:

controlling a drive assembly of a navigation apparatus to engage an interior wall of the pipe, the navigation apparatus including a body and a movable core coupled to the body by a sacrificial connector, wherein the drive assembly is pivotably coupled to the core and the body; and

loading a tether connected to the body to break the sacrificial connector and disengage the drive assembly from the interior wall of the pipe, and collapse the drive assembly on the body.

19. The method of claim 18 , wherein the drive assembly includes a first arm pivotably coupled to the core, a second arm pivotably coupled to the body, and a wheel pivotably coupled to the first arm and the second arm.

20. The method of claim 19 , wherein the first arm and the second arm pivot inward toward the body when the drive assembly is collapsed.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Nov 4, 2024
From: ANGELIU, KATELYN MARIE; DANKO, TODD WILLIAM
To: GE INFRASTRUCTURE TECHNOLOGY LLC
Reel/Frame 069126/0988 →
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