IP Library Granted Patent US 12,434,312
Granted Patent B2
US 12,434,312 · App. 17/802,132 · Granted Oct 7, 2025

Method for cutting a shell-type object, a cutter system and a vessel equipped with the cutter system

Inventors: Kim Dalgaard Jensen (Rønde, DK); Peter Skov Eltzholtz (Højbjerg, KE); Allan Wad Petersen (Horsens, DK); Robert Wojciechowski (Svenstrup J, DK); Søren Madsen (Gedved, DK)
Assignee: Advantis A/S
B23D57/0038B23D57/0023B23D57/0046B23D57/0092
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Quick Facts
Patent No.
US 12,434,312
App. No.
17/802,132
Granted
Oct 7, 2025
Kind
B2
Abstract

An object of the invention is achieved by a method for cutting an elongated shell-type object. The method may include steps of providing a gantry defining a portal and comprising a wire grid operable in the portal; operating the wire grid, whilst moving the shell-type object through the wire grid along a lateral-axis (Z) substantially perpendicular to the portal. The method is performed by a stationary gantry, where the shell-type object is moved through the portal. Thereby, the method is simplified as there is no need for a rail system for moving the gantry.

Claims (37)

1. A method for cutting an elongated shell-type object being a wind turbine blade, an aero-plane hull, a vessel hull, glass fiber reinforced container, a tank, a vessel, or a pipe, the method comprises the following steps:

providing a gantry that defines a portal, the gantry including a wire grid operable in the portal, the wire grid comprises several cutter wires and the step of providing the gantry includes attaching a sled comprising a sled support to the shell-type object at a distal point relative to the gantry and a pull system having one or more cables extending between the sled and the gantry;

operating the wire grid; whilst

moving the shell-type object through the wire grid along a lateral-axis substantially perpendicular to the portal by pulling the sled towards the gantry by pulling the one or more cables as a function of the position of the distal point of the shell-type object; and

determining a strain on the wire grid to prevent breakage of the several cutter wires, wherein the step of pulling the sled and the shell-type object is performed as a function of the strain.

2. The method according to claim 1 , wherein

the step of providing the gantry includes providing a bottom support supporting the shell-type object at a proximal point relative to the gantry;

the step of moving the shell-type object includes a step of displacing the shell-type object along a vertical-axis by displacing the bottom support.

3. The method according to claim 1 , wherein the step of providing a gantry includes providing the gantry as an assembly kit in a container and the step of providing the gantry includes assembling the gantry.

4. Method for cutting multiple elongated shell-type objects aligned side by side and in parallel, wherein the method includes the following step of

cutting one shell-type object according to claim 1 ;

translocating the gantry along a horizontal axis perpendicular to the multiple shell-type objects; and

repeating the step of cutting and translocating one or more of the other shell-type objects.

5. A cutter system for cutting an elongated shell-type object such as a wind turbine blade, the cutter system comprising means for performing the method according to claim 1 .

6. An offshore vessel equipped with a cutter system according to claim 5 .

7. A method for cutting an elongated shell-type object being a wind turbine blade, an aero-plane hull, a vessel hull, glass fiber reinforced container, a tank, a vessel, or a pipe, the method comprises the following steps:

providing a gantry that defines a portal, the gantry including a wire grid operable in the portal, the wire grid comprises several cutter wires and the step of providing the gantry includes attaching a sled comprising a sled support to the shell-type object at a distal point relative to the gantry and a pull system having one or more cables extending between the sled and the gantry;

operating the wire grid; whilst

moving the shell-type object through the wire grid along a lateral-axis substantially perpendicular to the portal by pulling the sled towards the gantry by pulling the one or more cables as a function of the position of the distal point of the shell-type object; and

determining a strain on the several cutter wires, wherein the step of operating the wire grid is performed as a function of the strain to prevent breakage of the several cutter wires.

8. A cutter system configured for cutting an elongated shell-type object being a wind turbine blade, an aero-plane hull, a vessel hull, glass fiber reinforced container, a tank, a vessel, or a pipe, the cutter system comprising:

a gantry defining a portal, the gantry having a front side configured and arranged for facing the elongated shell-type object,

several cutter wires extending in the portal, thereby defining a wire grid,

a wire drive configured for driving the one or more cutter wires,

a sled comprising a sled support configured for supporting the shell-type object and for moving the shell-type object through the portal; and

a pull system having one or more cables extending between the sled and the gantry;

a controller, wherein the moving means is configured and arranged to be operated by the controller, and the controller is configured to determine a strain on the cutter wires and to pull the sled towards the gantry as a function of the strain to prevent breakage of the several cutter wires.

9. The cutter system according to claim 8 , the cutter system further including

a bottom support positioned at the portal and/or near the front side of the gantry, the bottom support configured and arranged for supporting the shell-type object at a proximal point relative to the gantry, and is displaceable along a vertical-axis.

10. The cutter system of claim 8 , wherein the moving means includes

a fastening system for attaching to the shell-type object at a distal point relative to the gantry; and

a pull system having one or more pull cables connected to the fastening system.

11. The cutter system according to claim 8 , further including an assembly kit having

a bottom plate with hinges;

two pillars, wherein each pillar having an extending top bar, thereby defining an L-shape, the extending top bar of a first pillar of the two pillars is configured for engaging the extending top bar of a second pillar of the two pillars; each pillar having, opposite to the top bar, a bottom base configured for engaging the hinges, thereby enabling each pillar to be pivotable between a horizontal position and a vertical position where the top bars engage,

the assembly kit configured to be assembled into the gantry.

12. The cutter system according to claim 11 , wherein the assembly kit is configured and arranged to be packed in a container.

Assignments (3)
CHANGE OF NAME Recorded Feb 24, 2025
From: ADVANTIS APS
To: ADVANTIS A/S
Reel/Frame 070308/0605 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Nov 8, 2022
From: JENSEN, KIM DALGAARD; ELTZHOLTZ, PETER SKOV; PETERSEN, ALLAN WAD; WOJCIECHOWSKI, ROBERT; MADSEN, SØREN
To: ADVANTIS APS
Reel/Frame 061696/0391 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Nov 8, 2022
From: JENSEN, KIM DALGAARD; ELTZHOLTZ, PETER SKOV; PETERSEN, ALLAN WAD; WOJCIECHOWSKI, ROBERT
To: ADVANTIS APS
Reel/Frame 061696/0473 →
Priority Claims (1)
DK 2020 70121 · Feb 25, 2020 · national
Continuity (1)
Related Publication 20230078101A1 · Mar 16, 2023
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