Abstract: An additive manufacturing system includes an additive manufacturing tool configured to receive a plurality of metallic anchoring materials and to supply a plurality of droplets to a part, and a controller configured to independently control the composition, formation, and application of each droplet to the plurality of droplets to the part. The plurality of droplets is configured to build up the part. Each droplet of the plurality of droplets includes at least one metallic anchoring material of the plurality of metallic anchoring materials.

Abstract: In certain embodiments, a system includes a welding-type system including circuitry configured to receive direct current (DC) power directly from a distributed DC bus, to generate a current using the received DC power, and to isolate the welding-type system from the distributed DC bus.

Abstract: An additive manufacturing system includes an additive manufacturing tool configured to receive a plurality of metallic anchoring materials and to supply a plurality of droplets to a part, and a controller configured to independently control the composition, formation, and application of each droplet to the plurality of droplets to the part. The plurality of droplets is configured to build up the part. Each droplet of the plurality of droplets includes at least one metallic anchoring material of the plurality of metallic anchoring materials.

Abstract: An automated welding system includes a welding robot and control circuitry. The welding bug robot includes a welding torch. The welding bug robot is configured to move on a track disposed around a circumference of a first pipe and perform a root pass welding operation at a joint between the first pipe and a second pipe. The control circuitry is configured to control movement of the welding bug robot around the circumference of the first pipe, apply a high energy welding phase via the welding torch to establish a first root condition, and apply a low energy welding phase via the welding torch to establish a second root condition.

Abstract: In certain embodiments, a system includes a welding-type system including circuitry configured to receive direct current (DC) power directly from a distributed DC bus, to generate a current using the received DC power, and to isolate the welding-type system from the distributed DC bus.

Abstract: A welding training system includes one or more welding operator device which provides positional feedback relevant to a quality weld. The positional feedback is analyzed and, when the positional feedback is outside of a predetermined range, a signal is provided to the welding operator. In one embodiment, tactile feedback is provided in a welding gun.

Abstract: An example weld training system includes a computing device comprising a display device on a first side and a camera on a second side, the computing device configured to: capture images with the camera; process the captured images to identify a first simulation device as a simulation weld torch and a second simulation device as a simulation workpiece; and display images of a simulated welding operation on the display device of the computing device based on analyzing the captured images to detect indicia of weld performance, the images of the simulated welding operation reflecting the indicia of weld performance; and a mounting device configured to removably hold the computing device to orient the camera of the computing device toward a simulation area.

Abstract: A welding training system includes one or more welding operator device which provides positional feedback relevant to a quality weld. The positional feedback is analyzed and, when the positional feedback is outside of a predetermined range, a signal is provided to the welding operator. In one embodiment, tactile feedback is provided in a welding gun.

Abstract: Embodiments of a welding power supply include an engine adapted to drive a generator to produce a first power and a energy storage device adapted to discharge energy to produce a second power. The welding power supply also includes control circuitry adapted to detect a commanded output. The control circuitry is adapted to meet the commanded output by controlling access to power from the energy storage device to produce the second power when the commanded output is below a first predetermined load level. The control circuitry is further adapted to meet the commanded output by controlling access to power from the engine and the energy storage device to produce the first power and the second power when the commanded output is above a second predetermined load level.

Abstract: An example weld training system includes: an orientation device; a mobile device; and a mount configured to attach the mobile device to a welding accessory, wherein the mobile device comprises: one or more sensors including at least a camera; a processor; and a machine readable storage device storing machine readable instructions which, when executed by the processor, cause the processor to: recognize identifiers on the orientation device based on images captured via the camera; determine at least one of position information or orientation information for a welding torch with respect to the orientation device based on the recognized identifiers; and display, via a display of the mobile device, a welding operation based on the at least the position information or the orientation information.

Abstract: An example welding user interface system includes: a user interface configured to receive a plurality of control inputs indicative of a plurality of weld specifications, wherein the plurality of weld specifications comprise two or more physical attributes of a weld, the physical attributes comprising two or more of a workpiece thickness, a joint type, a workpiece material, a fillet size, a penetration depth, a penetration profile, a bead width, a wire type, a wire feed speed, or a gas type; and a processor configured to convert the weld specifications from the plurality of control inputs into electrical parameters of a welding power source, and to control an output welding power of the welding power source based at least in part on the electrical parameters.

Abstract: An example robotic welding system, includes: a robotic manipulator configured to manipulate a welding torch; and a robotic controller, comprising: a processor; and a machine readable storage medium comprising machine readable instructions which, when executed by the processor, cause the processor to, in response to initiation of a robotic welding procedure involving the robotic manipulator: prior to starting the robotic welding procedure, output at least one of a visual notification or an audible notification proximate to the robotic manipulator; and after satisfying at least one weld-ready condition, control the robotic manipulator to perform the robotic welding procedure using the welding torch.

Abstract: A welding training system includes one or more welding operator device which provides positional feedback relevant to a quality weld. The positional feedback is analyzed and, when the positional feedback is outside of a predetermined range, a signal is provided to the welding operator. In one embodiment, tactile feedback is provided in a welding gun.

Abstract: Embodiments of a welding power supply include an engine adapted to drive a generator to produce a first power and a energy storage device adapted to discharge energy to produce a second power. The welding power supply also includes control circuitry adapted to detect a commanded output. The control circuitry is adapted to meet the commanded output by controlling access to power from the energy storage device to produce the second power when the commanded output is below a first predetermined load level. The control circuitry is further adapted to meet the commanded output by controlling access to power from the engine and the energy storage device to produce the first power and the second power when the commanded output is above a second predetermined load level.

Abstract: Embodiments of the present disclosure are directed toward an energy storage caddy configured to be coupled to a secondary side of a welder. The energy storage caddy is configured to combine a first power output of the welder with a second power output of the energy storage caddy to produce a total power output for a welding system.

Abstract: An example weld training system includes a computing device comprising a display device on a first side and a camera on a second side, the computing device configured to: capture images with the camera; process the captured images to identify a first simulation device as a simulation weld torch and a second simulation device as a simulation workpiece; and display images of a simulated welding operation on the display device of the computing device based on analyzing the captured images to detect indicia of weld performance, the images of the simulated welding operation reflecting the indicia of weld performance; and a mounting device configured to removably hold the computing device to orient the camera of the computing device toward a simulation area.

Abstract: In certain embodiments, a system includes a welding-type system including circuitry configured to receive direct current (DC) power directly from a distributed DC bus, to generate a current using the received DC power, and to isolate the welding-type system from the distributed DC bus.

Abstract: Embodiments of energy storage caddies adapted to couple to a welding power supply are provided. The energy storage caddies may include an energy storage device, a charger, control circuitry, and power conversion circuitry. Certain control circuitry may be adapted to control the energy storage device to discharge to provide a direct current (DC) voltage output to the welding power supply when a weld load demand is detected, to monitor a charge level of the energy storage device, and to alert a user to an error when the charge level of the energy storage device falls below a predetermined limit.

Abstract: An example weld training system includes a computing device comprising a display device on a first side and a camera on a second side, the computing device configured to: capture images with the camera; process the captured images to identify a first simulation device as a simulation weld torch and a second simulation device as a simulation workpiece; and display images of a simulated welding operation on the display device of the computing device based on analyzing the captured images to detect indicia of weld performance, the images of the simulated welding operation reflecting the indicia of weld performance; and a mounting device configured to removably hold the computing device to orient the camera of the computing device toward a simulation area.

Abstract: In certain embodiments, a system includes a welding-type system including circuitry configured to receive direct current (DC) power directly from a distributed DC bus, to generate a current using the received DC power, and to isolate the welding-type system from the distributed DC bus.