A system and a method for mobilized autonomous hydrogen refueling of vertical lift aircraft using a framed landing pad with sensors, an onboard hydrogen storage tank, an onboard refueling arm configured to couple the hydrogen storage tank to the aircraft and an onboard controller configured to control a flow of fuel from the hydrogen storage tank to the aircraft.

An autonomous fueling system to dispense fuel to a vehicle. The system may include a fuel dispenser configured to autonomously deliver fuel to a vehicle. A server may monitor the fueling event. The system may also include a user device configured to communicate with the fuel dispenser and/or the server to order the fuel. The dispenser may be configured to autonomously insert a nozzle into the fuel system of the vehicle and deliver the fuel.

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.

An automated fueling assembly includes a refueling station that is positioned at a gas station for refueling gas burning vehicles. The refueling station includes a control panel that is movably integrated into the refueling station to facilitate a driver of a vehicle to access the control panel. The refueling station includes a robotic arm that is actuatable to extend into a refueling port in the vehicle for refueling the vehicle without requiring the driver to exit the vehicle. A pair of sensing units is each positioned on a driveway adjacent to the refueling station. Furthermore, the refueling station is turned on when each the sensing units senses the weight of the vehicle.

A fuel dispenser adaptor kit includes an adaptor tool and a ferromagnetic unit configured for being part of or attached to a fuel dispenser. The adaptor tool has a magnet configured for magnetically engaging with the ferromagnetic unit, and an activator configured for activating a lever of the fuel dispenser.

A robotic servicing system. The robotic servicing system includes an evacuation system, a refill system and a robotic assembly. The evacuation system includes a first quick connect fitting configured to mate with a quick connect valve of a vehicle. The refill system includes a second quick connect fitting configure to mate with the quick connect valve of the vehicle. The robotic assembly is couplable to the evacuation system and the refill system, and is configured to autonomously connect the first and second quick connection fittings to the quick connect valve of the vehicle.

A robotic servicing system. The robotic servicing system includes an evacuation system, a refill system and a robotic assembly. The evacuation system includes a first quick connect fitting configured to mate with a quick connect valve of a vehicle. The refill system includes a second quick connect fitting configure to mate with the quick connect valve of the vehicle. The robotic assembly is couplable to the evacuation system and the refill system, and is configured to autonomously connect the first and second quick connection fittings to the quick connect valve of the vehicle.

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.

Disclosed embodiments relate to systems and methods for automatically enabling supply of energy to a machine using a movable member comprising a camera and an energy supply mechanism. Techniques include positioning the movable member to a first orientation angle to capture image data using the camera; accessing a trained machine learning model associated with the machine; identifying, based on the trained machine learning model and the captured image data, an energy input location of the machine; positioning the movable member to a second orientation angle different from the first orientation angle; moving the energy supply mechanism into a position according to the energy input location; and enabling supply of energy via the energy supply mechanism to the machine at the energy input location.

Disclosed embodiments relate to systems and methods for automatically enabling supply of energy to a machine using a movable member comprising a camera and an energy supply mechanism. Techniques include positioning the movable member to a first orientation angle to capture image data using the camera; accessing a trained machine learning model associated with the machine; identifying, based on the trained machine learning model and the captured image data, an energy input location of the machine; positioning the movable member to a second orientation angle different from the first orientation angle; moving the energy supply mechanism into a position according to the energy input location; and enabling supply of energy via the energy supply mechanism to the machine at the energy input location.