Abstract: An example embodiment of the present invention includes a headset computing device (HSC) having a port for docking. When worn on a user's head, the HSC operates in a “headset” mode and behaves as a hands-free computing device. When docked with a docking station, the HSC operates in a “docked” mode and behaves as a conventional PC using a conventional PC monitor as a display output and keyboard and/or mouse input devices. Operating in the headset mode, the HSC can use automatic speech recognition and head-tracking features to recognize verbal and head-motion commands and presents to the user a specific set of hands-fee applications or application features. When in the docked mode, the headset computing device makes available a different set of applications or application features more suited to keyboard and mouse operation. A common data set stored in the headset memory supports both/all sets of applications.

Abstract: In one embodiment, a method for displaying a user interface on a display of a head worn computer can include displaying a first layer of information in the user interface on a display of the head worn computer. The method can further include receiving a directional input from body movement, eye tracking, or hand gestures. The method can additionally include highlighting an area of the user interface on the display with a second layer of information. The area can be located in the user interface based on the received directional input.

Abstract: Liquid crystal display (LCD) driver circuits, and corresponding driving methods, having selectable grayscale and bi-level modes, that also provide DC restore are presented, including an example embodiment driver circuit having selectable direct current (DC) restore voltage switches including a digital to analog converter, a high voltage video signal path including a high voltage video amplifier, a set of high voltage level switches, a high voltage capacitor and a low voltage video signal path including a low voltage video amplifier, a set of low voltage level switches, a low voltage capacitor. Advantages include, for some applications, a display operates in a bi-level mode saving power relative to operating in a grayscale mode, while also being able to offer full grayscale mode in other applications. Further, advantages of some example embodiments include an extended DC-restore mode providing a longer period of DC restore voltage.

Abstract: The present application relates to human/computer interfaces and more particularly to a wireless computing headset with one or more microdisplay devices that can provide hands-free remote control of attached or remote peripheral devices, systems and/or networks. A wireless hands-free video computing headset, and corresponding method, enabling communication with a host processor to provide the user omnipresent expertise is disclosed. The wireless hands-free video computing headset, which includes a microdisplay device to present information to the user graphically, communicates with a host processor to provide the user with an expert resource. The expert resource may take numerous forms, such as diagnostic software, or live human support.

Abstract: Operating conditions for a headset computer are used to detect a situation where an emergency response mode should be activated. In emergency response mode, the headset computer may then broadcast location, live (real time) audio and video/data streams, and record other information concerning a possible theft and/or other situation of interest to law enforcement and/or security services.

Abstract: Systems and methods are described to extract desired audio from an apparatus to be worn on a user's wrist. The apparatus includes a wrist wearable device, configured to be worn on the user's wrist. The wrist wearable device includes a first microphone. The first microphone has a first response pattern. The first microphone is coupled to the wrist wearable device. The first microphone is positioned on the wrist wearable device to receive a voice signal from a user when the wrist wearable device is on the user's wrist.

Abstract: The invention is a mobile device collaboration framework (MDCF)—a form of communications framework, which enables devices to discover other devices that support the framework, access applications and services on those devices and exchange a variety of media and application-specific data. It is not tied to any one communications medium or protocol. It supports access restriction and data security at many levels. Sessions can involve multiple devices, creating subnets of devices, each with a shared purpose or task.

Abstract: A real-world viewer can include viewing optics positioned along a viewing optical axis for viewing a field of view of the real-world. An active display overlay unit can be optically coupled to the viewing optical axis of the viewing optics, for generating images and directing the images along the viewing optical axis of the viewing optics for simultaneous overlaid viewing of the images in the real-world scene as viewed in the field of view through the viewing optics. The active display overlay unit can be capable of providing full-color luminance of at least 1200 fL to the ocular of the host system with a luminance to power fL:mW ratio of at least 6:1 or greater or providing monochrome luminance from the active display overlay unit of at least 5000 fL to the ocular of the host system with a luminance to power fL:mW ratio of at least 15:1 or greater.

Abstract: Systems and methods are described to extract desired audio from an apparatus to be worn on a user's head. The apparatus includes a head wearable device. A first microphone is coupled to the head wearable device, and is positioned on the head wearable device to receive a voice signal from the user when the head wearable device is on the user's head. A first signal from the first microphone is to be input as a main channel to a noise cancellation unit. A second microphone is coupled to the head wearable device. A first acoustic distance between the first microphone and the user's mouth is less than a second acoustic distance between the second microphone and the user's mouth when the head wearable device is on the user's head. A second signal from the second microphone is to be input as a reference channel to the noise cancellation unit. A first signal-to-noise ratio of the first signal from the first microphone is larger than a second signal-to-noise ratio of the second signal from the second microphone.

Abstract: To assist with hands-free computing, the Head Mounted Display or Headset Computer utilizes a series of user configurable Home Pages that contain the shortcuts and widgets the user wants. This allows the user to design a user interface environment which gives him the information he wants, in the order he wants.

Abstract: Systems and methods are described to automatically balance acoustic channel sensitivity. A long-term power level of a main acoustic signal is calculated to obtain an averaged main acoustic signal. Segments of the main acoustic signal are excluded from the averaged main acoustic signal using a desired voice activity detection signal. A long-term power level of a reference acoustic signal is calculated to obtain an averaged reference acoustic signal. Segments of the reference acoustic signal are excluded from the averaged reference acoustic signal using a desired voice activity detection signal. An amplitude correction signal is created using the averaged main acoustic signal and the averaged reference acoustic signal.

Abstract: An apparatus includes a monocular display with a wireless communications interface, a user input device, a transmitter, and a controller. The monocular display is positioned relative to the user's eye to display images to the user while occluding less than half of the user's maximum viewing space. The apparatus can incorporate a wireless communication controller that not only provides a video link to a host device, but also provides for control and management of a host device and other more devices. In this context, a host device may be any appropriate device that sources audio, video, text, office functionality and other information, such as a cell phone, personal computer, laptop, media player, and/or the like. The apparatus and the host may support Microsoft Windows SideShow, Remote Desktop Protocol (RDP), and Virtual Network Computing (VNC).

Abstract: A headset computer includes a removablely attachable cellular radio. The cellular radio when detached from the headset computer may be coupled to a docking station for WIFI or similar network communication to the headset computer.

Abstract: A wearable electronic eyewear display can include a head band member having two side portions which are connected together at rear portions thereof, for being worn in a generally horizontal orientation on a user's head. A display arm can extend forwardly from one of the side portions of the head band member and can have an active display device for positioning in front of one eye of the user for viewing. The two side portions of the head band member can have two pairs of ear capture structures on opposing top and bottom surfaces or edges of the head band member for engaging top portions of the user's ears with one of the two pairs of ear capture structures at a given time, and for allowing the head band member to be worn with the display arm extending in front of one eye or flipped over to be worn with the display arm extending in front of the other eye, while engaging the ears of the user in either orientation with a respective one pair of ear capture structures.

Abstract: The present invention related to human/computer interfaces and more particularly to a headset computing display device that accepts voice commands and tracks head motions to provide command inputs to and receive display information from a software application executed on a host computing device. An example embodiment of the present invention includes a method of, and corresponding system for, operating a native Smartphone or PC application, simultaneously displaying an output of the application through the Smartphone or PC screen and a headset computing display device, and using speech and head tracking commands to control the native application. The present invention enables hands-free operation of a Smartphone or PC application.

Abstract: Systems and methods are described to create a desired voice activity detection signal. A main acoustic signal and a plurality of reference acoustic signals are compressed. The compressed main acoustic signal is normalized by the plurality of compressed reference acoustic signals to create a plurality of normalized compressed main acoustic signals. The plurality of normalized compressed main acoustic signals is processed with a plurality of single channel normalized voice threshold comparators to form a plurality of normalized desired voice activity detection signals. One of the plurality of normalized desired voice activity detection signals is selected from the plurality of normalized desired voice activity detection signals to output as the desired voice activity detection signal.

Abstract: A remote control microdisplay device that uses hand and head movement and voice commands to control the parameters of a field of view for the microdisplay within a larger virtual display area associated with a host application.