Thermal control system for a hybrid welder
A hybrid welder having a motor-driven welder assembly including a motor; an energy storage device electrically connected to the motor-driven assembly; a heat transfer assembly, the heat transfer assembly being in thermal communication with the motor and the energy storage device, wherein the heat transfer assembly is selectively adaptive to transfer heat from the motor to the energy storage device.
1. A hybrid welder comprising:
a housing defining a first compartment and a second compartment separated by a divider, wherein the divider includes a valve therein, the valve includes an open position permitting fluid from the first compartment to flow to the second compartment;
a motor-driven welder assembly housed within the first compartment, the motor-driven welder assembly including a motor;
an energy storage device housed within the second compartment, the energy storage device being electrically connected to the motor-driven welder assembly;
a heat transfer assembly, the heat transfer assembly being in thermal communication with the motor and the energy storage device, wherein the heat transfer assembly includes a fan in fluid communication with the second compartment, the fan draws fluid heated by the motor over the energy storage device;
a controller connected to a temperature sensor in the second compartment and connected to the valve, wherein the controller selectively opens the valve based on feedback from the temperature sensor;
wherein the second compartment has a first vent and a second vent, the first vent being located on one side of the energy storage device and the second vent being located at another side of the energy storage device, wherein the energy storage device is located between the first vent and the second vent; and
wherein the first vent includes a shutter assembly electrically connected to the controller, the shutter assembly selectively opens and closes the first vent.
2. The hybrid welder of claim 1 , wherein
the divider defines an opening wherein the valve is located at the opening operable to selectively open and close the opening, and wherein the fan draws heated air from the motor through the opening over the energy storage device.
3. The hybrid welder of claim 1 , wherein
the second compartment is releasably attached to the housing.
4. The hybrid welder of claim 1 , wherein
the shutter assembly closes the first vent when the valve is in an open position.
5. The hybrid welder of claim 1 , wherein
the shutter assembly opens the first vent when the valve is in a closed position.
6. The hybrid welder of claim 1 , wherein
the shutter assembly includes a louver rotatable between an open position and a closed position.
7. The hybrid welder of claim 1 , wherein
the fan is connected to the controller, wherein the controller selectively activates the fan to draw air through the valve when the valve is in an open position.
8. A hybrid welder comprising:
a housing defining a first compartment and a second compartment separated by a divider, wherein the divider includes a valve therein, the valve includes an open position permitting fluid from the first compartment to flow to the second compartment;
a motor driven welder assembly housed within the first compartment, the motor-driven welder assembly including a motor;
an energy storage device housed within the second compartment, the energy storage device being electrically connected to the motor-driven welder assembly;
means for selectively transferring heat from the motor-driven welder assembly to the energy storage device, wherein said means for selectively transferring heat include a fan in fluid communication with the second compartment, the fan draws heat from the motor over the energy storage device; and
a controller connected to a temperature sensor in the second compartment and connected to the valve, wherein the controller selectively opens the valve based on feedback from the temperature sensor;
wherein the second compartment has an air ingress and an air egress, the air ingress being located on one side of the energy storage device and the air egress being located at another side of the energy storage device, wherein the energy storage device is located between the air ingress and the air egress; and
wherein the air ingress includes a shutter assembly electrically connected to the controller, the shutter assembly selectively opens and closes the air ingress.