System and method relates to a fuel control and distribution system comprising a fuel source, a fuel line, wherein the fuel source is connected to the fuel line, a fuel pump, wherein the fuel line is connected to the fuel pump, a main fuel line, wherein the fuel pump is connected to the main fuel line, a first remote transport truck, wherein the first remote transport truck comprises a first remote transport truck fuel line, wherein the main fuel line is connected to the first remote transport truck and wherein the first remote transport truck fuel line is connected to the first remote transport truck, a first tap line, wherein the first remote transport truck is connected to the first tap line, and a first fuel cap, wherein the first fuel cap comprises a first fuel level sensor, wherein the first tap line is connected to the first fuel cap and wherein the first fuel cap is adapted to be removably attached to a first equipment fuel tank.

System and method relates to a fuel control and distribution system comprising a fuel source, a fuel line, wherein the fuel source is connected to the fuel line, a fuel pump, wherein the fuel line is connected to the fuel pump, a main fuel line, wherein the fuel pump is connected to the main fuel line, a first remote transport truck, wherein the first remote transport truck comprises a first remote transport truck fuel line, wherein the main fuel line is connected to the first remote transport truck and wherein the first remote transport truck fuel line is connected to the first remote transport truck, a first tap line, wherein the first remote transport truck is connected to the first tap line, and a first fuel cap, wherein the first fuel cap comprises a first fuel level sensor, wherein the first tap line is connected to the first fuel cap and wherein the first fuel cap is adapted to be removably attached to a first equipment fuel tank.

A fuel dispenser is provided with a nozzle drying function that prevents the refreezing of melted ice buildup upon subsequent uses of the nozzle. The fuel dispenser comprises a housing including a holster. A fuel dispensing nozzle is configured to mate with a holster. A port is configured to direct air into the holster and onto the nozzle. A controller is configured to control flow of the air through the port. The port may be attached to a blower located inside or outside of the dispenser using tubing. Alternatively, the port may be attached to a compressed air assembly. The compressed air assembly may include a pressure regulator configured to control the amount of air produced. A heater may heat the air flowing to the port. A pressure cap including a plurality of openings may be configured to seal the nozzle when the nozzle is mated with the holster.

A robotic refuelling system and method for automatically operating a fuel station for refuelling vehicles includes a first detection unit for identifying the vehicle, a collaborative robot arm, and an adapter tool connected to the collaborative robot arm. The system is configured for detecting and identifying the vehicle, and controlling the collaborative robot arm and the adapter tool to engage at least one fuel dispenser unit of the fuel station and refuel the vehicle.

A collaborative robot arm for being used in an explosive environment includes electronics contained in at least one housing with at least one opening and a pressurization system configured for pressurizing the at least one housing with a gas at a predefined pressure level above atmospheric pressure.