Remote robotic welding with a handheld controller

1. A robotic device, comprising:

at least one memory that stores computer-executable instructions; and

at least one processor configured to access the at least one memory, wherein the at least one processor is configured to execute the computer-executable instructions to:

define one or more keepout planes to prevent an end effector from crossing the one or more keepout planes;

define one or more planes using one or more captured points in space during a learning stage using a probe;

determine a starting point and an ending point associated with a welding path;

indicate the starting point by a first button press on a remote handheld device after the remote handheld device has moved in space to a starting position associated with the starting point, wherein the remote handheld device comprises the probe;

determine coordinates of a probe tip of the probe based on a profile associated with the probe;

indicate the ending point by a second button press on the remote handheld device after the remote handheld device has moved in space to an ending position associated with the ending point;

move the remote handheld device to a point in space associated with the ending point;

traverse the end effector of the robotic device from the starting point to the ending point, wherein a welding tip is attached to the end effector;

prevent the end effector from crossing the one or more keepout planes;

perform a weld using the welding tip as the end effector is traversing across the welding path; and

apply one or more preset functions while performing the weld, wherein the one or more preset functions are input from a pendant, and wherein the one or more preset functions comprises at least current, voltage, wire speed, weave pattern, and dwell.

2. The robotic device of claim 1 , wherein the welding path is saved into the at least one memory by pressing at least one button on the remote handheld device after determining the starting point and the ending point of the welding path.

3. The robotic device of claim 1 , wherein pulling a trigger of the remote handheld device controls the speed of movement along the welding path.

4. The robotic device of claim 1 , wherein the starting position is determined by moving the end effector to a first location using the remote handheld device and pressing the first button on the remote handheld device to indicate that the first location is the starting position.

5. The robotic device of claim 1 , wherein the ending position is determined by moving the end effector to a second location after the starting position has been determined and pressing the second button on the remote handheld device to indicate that the second location is the end position.

6. The robotic device of claim 1 , wherein the remote handheld device controls arming the welding tip by pressing a second button on the remote handheld device, and wherein an arc starts once a trigger of the remote handheld device is pressed.

7. The robotic device of claim 1 , wherein the welding path is a first welding path of a group of discrete welding paths.

8. The robotic device of claim 1 , wherein the processor is further configured to execute the computer-executable instructions to switch control between the robotic device and a workpiece manipulator using the remote handheld device.

9. The robotic device of claim 8 , wherein the workpiece manipulator is capable of rotating, repositioning, or sliding the workpiece for the weld.

10. A non-transitory computer-readable medium storing computer-executable instructions which when executed by one or more processors result in performing operations comprising:

defining one or more keepout planes to prevent an end effector from crossing the one or more keepout planes;

defining one or more planes using one or more captured points in space during a learning stage using a probe;

determining a starting point and an ending point associated with a welding path;

indicating the starting point by a first button press on a remote handheld device after the remote handheld device has moved in space to a starting position associated with the starting point, wherein the remote handheld device comprises the probe;

determining coordinates of a probe tip of the probe based on a profile associated with the probe;

indicating the ending point by a second button press on the remote handheld device after the remote handheld device has moved in space to an ending position associated with the ending point;

moving the remote handheld device to a point in space associated with the ending point;

traversing the end effector of a robotic device from the starting point to the ending point, wherein a welding tip is attached to the end effector;

preventing the end effector from crossing the one or more keepout planes;

performing a weld using the welding tip as the end effector is traversing across the welding path; and

applying one or more preset functions while performing the weld, wherein the one or more preset functions are inputted from a pendant, and wherein the one or more preset functions comprises at least current, voltage, wire speed, weave pattern, and dwell.

11. The non-transitory computer-readable medium of claim 10 , wherein the welding path is saved into memory by pressing at least one button on the remote handheld device after determining the starting point and the ending point of the welding path.

12. The non-transitory computer-readable medium of claim 10 , wherein pulling a trigger of the remote handheld device controls the speed of movement along the welding path.

13. The non-transitory computer-readable medium of claim 10 , wherein the starting position is determined by moving the end effector to a first location using the remote handheld device and pressing the first button on the remote handheld device to indicate that the first location is the starting position.

14. A method comprising:

defining one or more keepout planes to prevent an end effector from crossing the one or more keepout planes;

defining one or more planes using one or more captured points in space during a learning stage using a probe;

determining, by one or more processors, a starting point and an ending point associated with a welding path;

indicating the starting point by a first button press on a remote handheld device after the remote handheld device has moved in space to a starting position associated with the starting point, wherein the remote handheld device comprises a probe;

determining coordinates of a probe tip of the probe based on a profile associated with the probe;

indicating the ending point by a second button press on the remote handheld device after the remote handheld device has moved in space to an ending position associated with the ending point;

moving the remote handheld device to a point in space associated with the ending point;

traversing the end effector of a robotic device from the starting point to the ending point, wherein a welding tip is attached to the end effector;

preventing the end effector from crossing the one or more keepout planes;

performing a weld using the welding tip as the end effector is traversing across the welding path; and

applying one or more preset functions while performing the weld, wherein the one or more preset functions are inputted from a pendant, and wherein the one or more preset functions comprises at least current, voltage, wire speed, weave pattern, and dwell.

15. The method of claim 14 , wherein the welding path is saved into memory by pressing at least one button on the remote handheld device after determining the starting point and the ending point of the welding path.