Abstract: Disclosed is a method of receiving and processing content-sending inputs received by a head-worn device system including one or more display devices, one or more cameras and a vertically-arranged touchpad. The method includes displaying a content item on the one or more display devices, receiving a touch input on the touchpad corresponding to a send instruction, displaying a carousel of potential recipients, receiving a horizontal touch input on the touchpad, scrolling the carousel left or right on the one or more display devices in response to the horizontal touch input, receiving a tap touch input on the touchpad to select a particular recipient, receiving a further touch input, and in response to the further touch input, transmitting the content item to the selected recipient.

Abstract: Disclosed is a method of receiving and processing navigation inputs executed by one or more processors in a head-worn device system including one or more display devices, one or more cameras and a generally vertically-arranged touchpad. The method comprises displaying a first carousel of AR effects icons, receiving a first horizontal input on the touchpad, rotating the first carousel of AR effects icons in response to first horizontal input, receiving a first touch input on the touchpad to select a particular AR effects icon that is in a selection position in the first carousel, displaying a scene viewed by the one or more cameras, the scene being enhanced with AR effects corresponding to the particular AR effects icon, receiving content capture user input, and in response to the content capture user input, capturing a new content item corresponding to the scene.

Abstract: A method of activating a head-worn device is disclosed. The method includes activating the head-worn device and performing a partial bootup. When an user-input instruction to perform a function is received, it is determined whether or not the user-input instruction is permitted for partial bootup execution. The user-input instruction is executed based on the user-input instruction being permitted for partial bootup execution, and a bootup of the head-work device is completed based on the user-input instruction not being permitted for partial bootup execution. The method may further comprise determining if the user-input instruction requires user authentication in order to be executed, and based on the user-input instruction being partial bootup compatible and not requiring user authentication, executing the user-input instruction.

Abstract: The user interface of an electronic eyewear device tracks a user's head movement to keep the user interface in front of the user's eyes. A position forward vector, a rotation forward vector, and an up vector are defined to enable the system to individually adjust the rates of translation and rotation of the user interface as the user's head moves through space. By disconnecting the translation and rotation of the user interface from the head forward vector, the rates of translation and rotational movement of the user interface are separated from the rate of movement of the user's head to enable a delay in user interface movement relative to head movement for a more realistic VR/AR 3D presentation. The pitch angle is monitored to maintain the user interface in front of the user's eyes in the correct orientation even at difficult pitch angles such as straight up or straight down.

Abstract: Systems, devices, media, and methods are presented for displaying a virtual object on the display of a portable eyewear device using motion data gathered by a face-tracking application on a mobile device. A controller engine leverages the processing power of a mobile device to locate the face supporting the eyewear, locate the hand holding the mobile device, acquire the motion data, and calculate an apparent path of the virtual object. The virtual object is displayed in a series of locations along the apparent path, based on both the course traveled by the mobile device (in the hand) and the track traveled by the eyewear device (on the face), so that the virtual object is persistently viewable to the user.

Abstract: Disclosed is a method of receiving and processing content-sending inputs received by a head-worn device system including one or more display devices, one or more cameras and a vertically-arranged touchpad. The method includes displaying a content item on the one or more display devices, receiving a touch input on the touchpad corresponding to a send instruction, displaying a carousel of potential recipients, receiving a horizontal touch input on the touchpad, scrolling the carousel left or right on the one or more display devices in response to the horizontal touch input, receiving a tap touch input on the touchpad to select a particular recipient, receiving a further touch input, and in response to the further touch input, transmitting the content item to the selected recipient.

Abstract: A method of activating a head-worn device is disclosed. The method includes activating the head-worn device and performing a partial bootup. When an instruction to perform a function is received, it is determined whether or not the instruction is permitted for partial bootup execution. The instruction is executed based on the instruction being permitted for partial bootup execution, and a bootup of the head-work device is completed based on the instruction not being permitted for partial bootup execution. The method may further comprise determining if the instruction requires user authentication in order to be executed, and based on the instruction being partial bootup compatible and not requiring user authentication, executing the instruction.

Abstract: Methods and system for creating and using graphical user interfaces (GUIs) for eyewear devices and eyewear devices including GUIs. The eyewear devices detect finger touches on a surface of the eyewear device and present GUIs on image displays of the eyewear device that are responsive to the finger touches.

Abstract: Disclosed are systems and methods for adaptively adjusting brightness of a wearable device projection system. The systems and methods perform operations comprising: causing projection elements of the AR wearable device to project an image; receiving a measure of ambient light from an ambient light sensor; adjusting one or more hardware parameters of the projection elements of the AR wearable device based on the measure of ambient light; modifying one or more color values of the image displayed by the projection elements of the AR wearable device based on the measure of ambient light; and projecting the image with the modified color values using the projection elements of the AR wearable device with the adjusted one or more hardware parameters.

Abstract: A method of activating a head-worn device is disclosed. The method includes activating the head-worn device and performing a partial bootup. When an instruction to perform a function is received, it is determined whether or not the instruction is permitted for partial bootup execution. The instruction is executed based on the instruction being permitted for partial bootup execution, and a bootup of the head-work device is completed based on the instruction not being permitted for partial bootup execution. The method may further comprise determining if the instruction requires user authentication in order to be executed, and based on the instruction being partial bootup compatible and not requiring user authentication, executing the instruction.

Abstract: Methods and system for creating and using graphical user interfaces (GUIs) for eyewear devices and eyewear devices including GUIs. The eyewear devices detect finger touches on a surface of the eyewear device and present GUIs on image displays of the eyewear device that are responsive to the finger touches.

Abstract: A method for improving the startup time of a six-degrees of freedom tracking system is described. An augmented reality system receives a device initialization request and activates a first set of sensors in response to the device initialization request. The augmented reality system receives first tracking data from the first set of sensors. The augmented reality system receives an augmented reality experience request and in response to the augmented reality request, causes display of a set of augmented reality content items based on the first tracking data and simultaneously activates a second set of sensors. The augmented reality system receives second tracking data from the activated second set of sensors. The augmented reality system updates the display of the set of augmented reality content items based on the second tracking data.

Abstract: Systems, devices, media, and methods are presented for displaying a virtual object on the display of a portable eyewear device using motion data gathered by a face-tracking application on a mobile device. A controller engine leverages the processing power of a mobile device to locate the face supporting the eyewear, locate the hand holding the mobile device, acquire the motion data, and calculate an apparent path of the virtual object. The virtual object is displayed in a series of locations along the apparent path, based on both the course traveled by the mobile device (in the hand) and the track traveled by the eyewear device (on the face), so that the virtual object is persistently viewable to the user.

Abstract: A method for improving the startup time of a six-degrees of freedom tracking system is described. An augmented reality system receives a device initialization request and activates a first set of sensors in response to the device initialization request. The augmented reality system receives first tracking data from the first set of sensors. The augmented reality system receives an augmented reality experience request and in response to the augmented reality request, causes display of a set of augmented reality content items based on the first tracking data and simultaneously activates a second set of sensors. The augmented reality system receives second tracking data from the activated second set of sensors. The augmented reality system updates the display of the set of augmented reality content items based on the second tracking data.

Abstract: Systems, devices, media, and methods are presented for displaying a virtual object on the display of a portable eyewear device using motion data gathered by a face-tracking application on a mobile device. A controller engine leverages the processing power of a mobile device to locate the face supporting the eyewear, locate the hand holding the mobile device, acquire the motion data, and calculate an apparent path of the virtual object. The virtual object is displayed in a series of locations along the apparent path, based on both the course traveled by the mobile device (in the hand) and the track traveled by the eyewear device (on the face), so that the virtual object is persistently viewable to the user.

Abstract: Disclosed are systems and methods for adaptively adjusting brightness of a wearable device projection system. The systems and methods perform operations comprising: causing projection elements of the AR wearable device to project an image; receiving a measure of ambient light from an ambient light sensor; adjusting one or more hardware parameters of the projection elements of the AR wearable device based on the measure of ambient light; modifying one or more color values of the image displayed by the projection elements of the AR wearable device based on the measure of ambient light; and projecting the image with the modified color values using the projection elements of the AR wearable device with the adjusted one or more hardware parameters.

Abstract: The user interface of an electronic eyewear device tracks a user's head movement to keep the user interface in front of the user's eyes. A position forward vector, a rotation forward vector, and an up vector are defined to enable the system to individually adjust the rates of translation and rotation of the user interface as the user's head moves through space. By disconnecting the translation and rotation of the user interface from the head forward vector, the rates of translation and rotational movement of the user interface are separated from the rate of movement of the user's head to enable a delay in user interface movement relative to head movement for a more realistic VR/AR 3D presentation. The pitch angle is monitored to maintain the user interface in front of the user's eyes in the correct orientation even at difficult pitch angles such as straight up or straight down.

Abstract: Disclosed is a method of receiving and processing navigation inputs executed by one or more processors in a head-worn device system including one or more display devices, one or more cameras and a generally vertically-arranged touchpad. The method comprises displaying a first carousel of AR effects icons, receiving a first horizontal input on the touchpad, rotating the first carousel of AR effects icons in response to first horizontal input, receiving a first touch input on the touchpad to select a particular AR effects icon that is in a selection position in the first carousel, displaying a scene viewed by the one or more cameras, the scene being enhanced with AR effects corresponding to the particular AR effects icon, receiving content capture user input, and in response to the content capture user input, capturing a new content item corresponding to the scene.

Abstract: Disclosed is a method of receiving and processing content-sending inputs received by a head-worn device system including one or more display devices, one or more cameras and a vertically-arranged touchpad. The method includes displaying a content item on the one or more display devices, receiving a touch input on the touchpad corresponding to a send instruction, displaying a carousel of potential recipients, receiving a horizontal touch input on the touchpad, scrolling the carousel left or right on the one or more display devices in response to the horizontal touch input, receiving a tap touch input on the touchpad to select a particular recipient, receiving a further touch input, and in response to the further touch input, transmitting the content item to the selected recipient.