초록 ▼

A system and method of controlling available power of an auxiliary output of a welding-type power source is disclosed. The welding-type power source is configured to supply power to a variable combination of a welding-type output and the auxiliary output and includes a controller configured to detec

A system and method of controlling available power of an auxiliary output of a welding-type power source is disclosed. The welding-type power source is configured to supply power to a variable combination of a welding-type output and the auxiliary output and includes a controller configured to detect a load on the auxiliary output. The controller is configured to monitor an engine operating parameter of the welding-type power source and to limit the amount of power provided to the auxiliary output to an amount of power capable of being generated by the engine at a current engine condition.

대표청구항 ▼

What is claimed is: 1. A welding power source comprising: an engine; a generator driven by the engine to produce power; power conversion circuitry coupled to the generator and configured to convert the power from the generator to a welding power output and an auxiliary power output; and control cir

What is claimed is: 1. A welding power source comprising: an engine; a generator driven by the engine to produce power; power conversion circuitry coupled to the generator and configured to convert the power from the generator to a welding power output and an auxiliary power output; and control circuitry detecting a desired auxiliary power output, subsequently monitoring an operating parameter of the engine including at least one of a throttle position, an engine speed, and an engine/power map to determine a current engine condition corresponding to the at least one of a throttle position, an engine speed, and an engine/power map, determining a supportable auxiliary power output by reducing the desired auxiliary power output to an amount capable of being supported by the current engine condition, and regulating the auxiliary power output to the supportable auxiliary power output while maintaining the speed of the engine constant at the current engine condition. 2. The welding power source of claim 1, wherein the control circuitry limits the power supplied to the auxiliary power output. 3. The welding power source of claim 1, wherein the control circuitry regulates the power supplied to the auxiliary power output. 4. The welding power source of claim 1, wherein the auxiliary power output is at least one of approximately 110 VAC and approximately 240 VAC. 5. The welding power source of claim 1, wherein the control circuitry regulates the welding power output based on the operating parameter of the engine. 6. The welding power source of claim 5, wherein the control circuitry selectively distributes the power from the generator at the current engine condition between the auxiliary power output and the welding power output. 7. A welding power source comprising: an engine; a generator driven by the engine to produce power; power conversion circuitry coupled to the generator and configured to convert the power from the generator to a welding output and an auxiliary power output; an engine speed sensor that monitors an engine speed of the engine; and a controller receiving feedback corresponding to a current engine condition including a current engine speed from the engine speed sensor and adjusting power delivered to the auxiliary power output to a reduced power level supportable by the current engine condition while maintaining the engine speed constant at the current engine speed. 8. The welding power source of claim 7, wherein the auxiliary output delivers an output of at least one of approximately 110 VAC and approximately 240 VAC. 9. The welding power source of claim 7, wherein the generator comprises a first generator that generates the welding output and a second generator that generates the auxiliary output. 10. The welding power source of claim 7, wherein the controller adjusts the auxiliary output to maintain the engine speed at a desired engine speed. 11. The welding power source of claim 10, wherein the desired engine speed extends from approximately idle speed to full speed. 12. A method of controlling a welding power supply comprising: sensing an auxiliary load present at an auxiliary output of an engine-driven power source, the engine-driven power source comprising an engine and a generator driven by the engine to produce power for a welding output and the auxiliary output; sensing a power parameter of the engine-driven power source comprising at least one of a throttle position, an engine speed, and an engine/power map; comparing the auxiliary load and the power parameter of the engine-driven power source; reducing the auxiliary output to a supportable auxiliary power level based on the comparison of the auxiliary load and the power parameter of the engine-driven power source; and adjusting power delivered to the auxiliary output to the supportable auxiliary power level while maintaining the speed of the engine-driven power source constant. 13. The method of claim 12, wherein adjusting power delivered to the auxiliary output comprises increasing the power delivered to the auxiliary output to a desired output when the engine can support the auxiliary load as determined by the power parameter of the engine-driven power source. 14. The method of claim 12, wherein adjusting power delivered to the auxiliary output occurs over a range of engine operating speeds. 15. A welding power source comprising: an engine driven generator comprising an engine and a generator driven by the engine to produce power for a welding output and an auxiliary output; a first sensor that monitors an engine operating parameter of the engine driven generator comprising at least one of a throttle position, an engine speed, and an engine/power map to determine a current engine condition corresponding to the at least one of a throttle position, an engine speed, and an engine/power map; a second sensor that monitors an auxiliary power demand present at the auxiliary output of the engine driven generator; and a controller receiving feedback from the first sensor and the second sensor regarding the current engine condition and the auxiliary power demand and adjusting power delivered to the auxiliary output to a power level supportable by the current engine condition while maintaining the engine speed constant at the current engine condition.