Abstract: A battery system for a head-mounted display is provided. A first arm member has one or more interior walls defining a first chamber, wherein one or more first batteries are positioned in the first chamber of the first arm member. A second arm member has one or more interior walls defining a second chamber, wherein one or more second batteries are positioned in the second chamber of the second arm member. A base member is coupled to the first arm member and the second arm member. The base member has a base member power connector positioned along an exterior surface. A first auxiliary battery removably couples to the exterior surface of the base member via a first fastener, the first auxiliary battery having a first side and a second side. A first auxiliary battery power connector is positioned on the first side and aligns with the base member power connector.

Abstract: The invention is directed towards a wearable platform system (e.g., head-mounted computing device) that allows for various modular peripheral devices to be interchangeably attached and detached, as well as methods and systems for transitioning an operational mode of the wearable platform between a hard connection mode and a wireless connection mode when a peripheral device is attached to or removed from the wearable platform. Specifically, the wearable platform may include a base member coupled to one or more arm members. A variety of modular peripheral devices may be attached at a hardware interface of the wearable platform to provide varied functionality to the wearable platform. As a user begins to remove a peripheral device, the wearable platform system may determine the peripheral device is being removed from the wearable platform and may transition from a hard connection mode to a wireless connection mode.

Abstract: Systems and methods for a flexible, modular head-mounted display is provided. The head-mounted display system may comprise a base member and one or more arm members that are coupled to the base member. The arm member(s) may be coupled to the base member via a hinge system that allows the arm member(s) to move with respect to the base member. Interior walls of the hinge system may define a passage therethrough such that wiring may extend throughout the head-mounted display system. The head-mounted display system may further include a cover that encloses at least a portion of the hinge. The cover may overlap with the base member or the one or more arm members.

Abstract: Systems and methods for a flexible, head-mounted display is provided. The head-mounted display system may comprise a base member and one or more arm members that are coupled to the base member. Each of the arm members are coupled to the base member via a hinge that allows the arm members to move with respect to one another. Interior walls of the arm members and base member may define one or more chambers. One or more first batteries are positioned within a chamber in the first arm member and one or more second batteries are positioned within a chamber in the second arm member. One or more wired connections coupled to the batteries extend through the arm member(s) and hinges, and into one or more chambers in the base member, where the one or more wired connections are coupled to a battery monitor.

Abstract: Systems and methods for a flexible, modular head-mounted display is provided. The head-mounted display system may comprise a base member and one or more arm members that are coupled to the base member. The arm member(s) may be coupled to the base member via a hinge system that allows the arm member(s) to move with respect to the base member. Interior walls of the hinge system may define a passage therethrough such that wiring may extend throughout the head-mounted display system. The head-mounted display system may further include a cover that encloses at least a portion of the hinge. The cover may overlap with the base member or the one or more arm members.

Abstract: A battery system for a head-mounted display is provided. A first arm member has one or more interior walls defining a first chamber, wherein one or more first batteries are positioned in the first chamber of the first arm member. A second arm member has one or more interior walls defining a second chamber, wherein one or more second batteries are positioned in the second chamber of the second arm member. A base member is coupled to the first arm member and the second arm member. The base member has a base member power connector positioned along an exterior surface. A first auxiliary battery removably couples to the exterior surface of the base member via a first fastener, the first auxiliary battery having a first side and a second side. A first auxiliary battery power connector is positioned on the first side and aligns with the base member power connector.

Abstract: Systems and methods for a flexible, head-mounted display is provided. The head-mounted display system may comprise a base member and one or more arm members that are coupled to the base member. Each of the arm members are coupled to the base member via a hinge that allows the arm members to move with respect to one another. Interior walls of the arm members and base member may define one or more chambers. One or more first batteries are positioned within a chamber in the first arm member and one or more second batteries are positioned within a chamber in the second arm member. One or more wired connections coupled to the batteries extend through the arm member(s) and hinges, and into one or more chambers in the base member, where the one or more wired connections are coupled to a battery monitor.

Abstract: The invention is directed towards a wearable platform system (e.g., head-mounted computing device) that allows for various modular peripheral devices to be interchangeably attached and detached, as well as methods and systems for transitioning an operational mode of the wearable platform between a hard connection mode and a wireless connection mode when a peripheral device is attached to or removed from the wearable platform. Specifically, the wearable platform may include a base member coupled to one or more arm members. A variety of modular peripheral devices may be attached at a hardware interface of the wearable platform to provide varied functionality to the wearable platform. As a user begins to remove a peripheral device, the wearable platform system may determine the peripheral device is being removed from the wearable platform and may transition from a hard connection mode to a wireless connection mode.

Abstract: Audio sensors collaborate for geo-location and tracking of health conditions for multiple users. Different users can be independently geo-located and tracked within the AI environment. Location is determined from two or more AI clients of known locations that detect an event such as a human voice command to connect a call with a specific user. Responsive to classification of a health event of concern, in view of the estimated location, a command for an AI action, such as contacting a hospital server or adapting to monitor a suspected health condition, is received for a response to the health event at the AI clients that detected the health event, or others.

Abstract: Audio sensors collaborate for geo-location and tracking of health conditions for multiple users. Different users can be independently geo-located and tracked within the AI environment. Location is determined from two or more AI clients of known locations that detect an event such as a human voice command to connect a call with a specific user. Responsive to classification of a health event of concern, in view of the estimated location, a command for an AI action, such as contacting a hospital server or adapting to monitor a suspected health condition, is received for a response to the health event at the AI clients that detected the health event, or others.

Abstract: Audio sensors collaborate for geo-location and tracking of multiple users. Different users can be independently geo-located and tracked within the AI environment. Location is determined from two or more AI clients of known locations that detect an event such as a human voice command to connect a call with a specific user. Responsive to classification of the event in view of the estimated location, a command for an AI action, such as connecting a call between users, is received for a response to the event at the AI clients that detected the event, or others.

Abstract: Audio sensors collaborate for geo-location and tracking of multiple users. Different users can be independently geo-located and tracked within the AI environment. Location is determined from two or more AI clients of known locations that detect an event such as a human voice command to connect a call with a specific user. Responsive to classification of the event in view of the estimated location, a command for an AI action, such as connecting a call between users, is received for a response to the event at the AI clients that detected the event, or others.

Abstract: An artificial intelligence (AI) system leverages collaboration of multiple audio sensors for geo-location of an event. Location information is stored for each of the plurality of geographically-dispersed AI clients. Each of the AI clients can include an audio sensor, a network controller, and a feedback mechanism (e.g., a speaker or an LED) within a common enclosure. Responsive to detection of an event (e.g., involving a human, machine, or ambient condition) at two or more of the plurality of geographically-dispersed AI clients, audio event data is centrally received from audio sensors of the two or more of the plurality of geographically-dispersed AI sensors. A location is estimated based on the location information and the audio event data. Responsive to classification of the event in view of the estimated location, a command is received for a response to the event at the AI clients that detected the event, or others.

Abstract: Audio sensors collaborate for geo-location and tracking of multiple users. Different users can be independently geo-located and tracked within the AI environment. Location is determined from two or more AI clients of known locations that detect an event such as a human voice command to connect a call with a specific user. Responsive to classification of the event in view of the estimated location, a command for an AI action, such as connecting a call between users, is received for a response to the event at the AI clients that detected the event, or others.