An intelligent shading umbrella comprises a base assembly, an umbrella support assembly coupled to a base assembly, a first memory, a first processor coupled to the first memory, and a computing device, wherein the computing device has a non-volatile memory having computer-readable instructions stored thereon, a second memory, and a second processor. A first processor communicates commands and/or signals to the umbrella support assembly to cause movement of the umbrella support assembly. A second processor, of the computing device, is enclosed within the intelligent shading object fetches computer-readable instructions from the non-volatile memory, loads the computer-readable instructions from the non-volatile memory into the second memory, and executes the computer-readable instructions to communicate with external computing devices and/or to generate commands and/or signals to the first processor to request movements of the umbrella shading assembly.

An intelligent shading umbrella includes a processor, a base assembly, a stem assembly coupled to a base assembly and a central support assembly coupled to a stem assembly, the central support assembly including one or more arm support assemblies. The intelligent shading umbrella further comprises one or more blades, coupled to the arm support assemblies. The intelligent shading umbrella further comprises an infrared receiver, the infrared receiver receiving signals from a remote device and communicating signals to control movement of the intelligent shading umbrella.

A method of automatically operating an intelligent umbrella includes automatically capturing sensor measurements from detection sensors without user intervention and communicating captured sensor measurements, automatically analyzing captured sensor measurements, and automatically generating, at a controller, commands and/or signals, based at least in part on the analyzed sensor measurements. The method of automatically operating an intelligent umbrella further includes communicating the generated commands and/or signals to one or more of a first motor assembly, a second motor assembly or a third motor assembly; and automatically generating signals and/or commands to cause movement of an umbrella by rotating about an azimuth axis, rotating about an elevation axis, or deploying or retracting one or more arm support assemblies.

A mobile computing device may comprise a user interface component configured to output stimuli and receive inputs, a wireless transceiver configured to communicate commands and/or messages to one or more wireless transceivers of the one or more electronic devices, and one or more processors coupled to the user interface component and the wireless transceiver. A computer-readable storage medium may contains computer-readable instructions, that, when executed by the one or more processors, cause the one or more processors to receive input corresponding to a selected azimuth movement/position of the intelligent umbrella and a selected tilting movement position, communicate messages and/or commands, based on the selected azimuth movement and the selected tilting movement to the intelligent umbrella to cause a support assembly to rotate with respect to a base about an azimuth axis and to cause an upper support assembly to tilt with respect to a lower assembly about an elevation axis.

An intelligent shading umbrella comprises a base assembly, a stem assembly coupled to a base assembly, and a center support assembly coupled to a stem assembly, the center support assembly comprising one or more arm support assemblies. The intelligent shading umbrella further comprises one or more blades, coupled to the arm support assemblies, a shading fabric, coupled to at least the one or more blades; and a camera, the camera to capture images of an area in proximity to the intelligent shading umbrella. The camera may be located in the center support assembly and the center support assembly may rotate with respect to the base assembly, allowing the camera to capture a variety of images of an area in proximity to the intelligent shading umbrella.

An article comprises a non-transitory computer readable medium having stored thereon computer implementable instructions executable by a processor in a computing device to receive measurements from one or more environmental sensors of an intelligent shading device, analyze and compare received sensor measurements to preset user-defined weather-based thresholds, and generate and communicate alert messages to identify that user-defined weather-based thresholds have been met or exceeded.

An intelligent umbrella includes an array of solar panels/cells for capturing sunlight and converting into electrical energy, a solar panel charging assembly to receive power from one or more solar assemblies, a rechargeable battery to receive power generated from the solar panel charging assembly, and a processor and a memory, the processor and the memory to receive power from the rechargeable battery; and a wireless transceiver to receive power from the rechargeable battery, the wireless transceiver to communicate messages and/or signals when no external power source is connected to and/or available for the intelligent umbrella. The intelligent umbrella may further comprise a cellular transceiver to receive power from the rechargeable battery, the cellular transceiver to communicate messages and/or signals when no external power source is connected to and/or available to supply power for the intelligent umbrella.

An unmanned aerial vehicle (UAV) configured to be carried on a vehicle and a method and a system for holding umbrella using the UAV are disclosed. The UAV and the vehicle are communicated with each other wirelessly. The UAV can be used for providing the service of holding umbrella for the occupant getting on/off the vehicle. The occupant does not have to manually hold the umbrella, so as to effectively solve the problem of getting wet when getting on/off the vehicle due to holding umbrella manually.

A sunshade switchable between a manual mode and an electric mode includes an operating device having a shaft. A driven gear is rotatably coupled to the shaft. A driving gear for electric mode is rotatable in unison with the shaft. A runner interlocks with the shaft. The shaft is movable to couple with the driven gear for electric mode or the driving gear for manual mode. When the driven gear for electric mode is coupled with the shaft, a motor can be used to move the runner for folding, unfolding, tilting, or straightening the sunshade. When the driving gear for manual mode is coupled with the shaft, a handle can be operated to move the runner for folding, unfolding, tilting, or straightening the sunshade.

An umbrella assembly comprises a container, at least one shoulder strap, and an umbrella. The umbrella is movably connected to the container to move between a closed position and open position. The umbrella includes a fixed shaft, a stretcher frame, and a canopy, and the canopy of the umbrella is attached to a plurality of ribs of the stretcher frame. In the closed position, the umbrella has a V-shaped, cone arrangement. In the open position, the umbrella has a peak on which a rotating device may be mounted to generate electricity. The umbrella may also have a first lighting mechanism fixed on a bottom side of the canopy and a second lighting mechanism fixed on a top side of the canopy.