Gopro, Inc.

Skydio, Inc.

Stephen Yui

John George Muhlenkamp, Iv

Grant Adam McCauley

Ryan T Harrison

Theresa Loney Casarez

Ashwani Arya

Mehran Ferdowsi

Vikrant More

William Anthony Silva

Huy Phuong Nguyen

Nicholas D Woodman

Clark Weber

Sean Flanigan

Fong Tran

Abraham Kislevitz

William Silva

Michelle Gelberger

Lou Fillingham

John George Muhlenkamp Iv

Theresa Losey Casarez

John George Iv Muhlenkamp

An image capture device may start capture of visual content (start video recording) responsive to a particular user interaction with a button of the image capture device. During the capture of the visual content, a different user interaction with the button of the image capture device may be detected. Responsive to the different user interaction with the button of the image capture device, the capture of the visual content may be canceled by the image capture device.

Deletion of content captured by an image capture device

An image capture device may include multiple lenses and multiple image sensors. The image capture device may operate in a multi-lens exposure mode or a single lens exposure mode. In the multi-lens exposure mode, the exposure setting of individual image sensors may be determined based on luminance of the scene included within the field of view of corresponding lenses. In the single lens exposure mode, the group exposure setting for all image sensors may be determined based on luminance of the scene included within the field of view of a single lens. The user may change the operation of the image capture device between the multi-lens exposure mode and the single lens exposure mode by interacting with an exposure mode element presented on an electronic display.

Graphical user interface for controlling exposure mode of an image capture device

This disclosure describes a method of controlling an unmanned aerial vehicle (UAV). The steps of controlling include acquiring images with an image capture device of an unmanned aerial vehicle (UAV). The steps include analyzing the images to determine navigation information of the UAV with a vision-based navigation system. The steps include tracking a position of the UAV with the vision-based navigation system. The steps include controlling rotors of the UAV to prevent deviations in movement from a desired flight path or position of the UAV. The steps include limiting travel or flight of the UAV to a physical region determined by the desired flight path.

Multipoint cable cam system and method

A gimbal mount system is configured to a couple to a gimbal coupled to and securing a camera. The gimbal mount system includes a handle, a power source, a user interface, a mounting interface, a communication interface, and a communication bus. The mounting interface is located within an end of the gimbal mount system and includes an opening configured to receive a reciprocal mounting protrusion of the gimbal. A locking mechanism removably couples the gimbal to the gimbal mount system. The communication interface is located within the mounting interface and is configured to couple to a reciprocal communication interface of the gimbal. The communication bus is coupled to the power source, user interface, and communication interface and is configured to provide power from the power source to the gimbal. The communication bus may provide instructions to the gimbal based on user input received via the user interface.

Camera gimbal mount system

This disclosure describes systems and methods for a multipoint cable cam (MPCC) of an aerial vehicle. A method includes operations of receiving user input associated with a predetermined path and correlating the received user input with stored global positioning satellite (GPS) data to generate one or more virtual waypoints along the predetermined path. The method includes processing the one or more virtual waypoints to generate a spline-based flight path. The method may include storing the spline-based flight path and transmitting the spline-based flight path to the aerial vehicle.

A camera includes a lens, an image sensor, and a display. The lens and the image sensor are configured to capture images. The display may include an array of lights that are selectively illuminable to display the graphics. The lights may be arranged in a grid with each of the lights forming a pixel of the display. The display is hidden from view when not illuminated and displays graphics when illuminated. The camera may include a body that hides the display from view when not illuminated and permits light from the display to pass therethrough when illuminated. The body may include an elastomeric, light-permeable outer layer through which light from the display passes. The body may have a first side having the lens and on which the display displays the graphics. The camera may include a second display on a second side of the body facing opposite the first side.

Camera and display thereof

Display screen or portion thereof with graphical user interface

A wireless communication device may include a housing, a touch sensitive display integrally included within the housing, multiple radio frequency transceivers included within the housing, multiple input mechanisms included within the housing, and a processor included within the housing. The processor may be configured to obtain visual information captured by an image capture subsystem of the unmanned aerial vehicle, display the visual information via the touch sensitive display, detect parameters of a touch on the touch sensitive display, determine a first set of inputs based upon the parameters of the touch on the touch sensitive display, receive a second set of inputs when one or more of the multiple input mechanisms are engaged, effectuate transmission, via a first radio frequency transceiver, of instructions to the unmanned aerial vehicle based upon the first set of inputs and/or the second set of inputs.

Wireless communication device for communicating with an unmanned aerial vehicle

Growing community of inventors

Pacifica, CA, United States of America

Stephen Yui