Abstract: An improved Liquid Crystal Display (LCD) heating system is provided. Resistor meshes, in particular VCOM resistor heating meshes, in the pixel array improve capacity of the display heater (heating system) so that the display is heated faster from low temperatures. The resistor mesh design provides much lower resistance from one point in the pixel array to an edge than pixel-to-pixel horizontal VCOM resistance, thus reducing horizontal crosstalk. Further, the approach permits the display to be active during the warm-up process.

Abstract: In one embodiment, a head worn computer comprising a housing, wherein the housing includes at least one spring applying inward force to a user's head, a plurality of regions, the regions being able to be flexible regions or stiff regions, and two end regions, configured to wrap around a portion of the user's head, such that the two end regions are located at the front of the user's head, and each of the two end regions are on opposite sides of the user's head. In another embodiment, a method of configuring a head worn computer to a user, using the above mentioned head worn computer.

Abstract: A Head Mounted Display (HMD) system that includes a wireless front end that interprets spoken commands and/or hand motions and/or body gestures to selectively activate subsystem components only as needed to carry out specific commands.

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: A head mounted display (HMD) system includes a number of separately and uniquely packaged components. A first component is a headset that incorporates at least a microphone input and speaker output devices into headset housing apparatus designed to be supported about the user's head or face. A microdisplay element is located in an optical pod at the end of an adjustable boom as part of the headset. Additional components, including electronic circuits, such as a microcomputer, one or more wired and wireless interfaces, associated memory or storage devices, auxiliary device mounts and the like are packaged in the headset or as a pager sized gateway device having a belt clip.

Abstract: Capacitive touch sensors are integrated with a head-mounted display (HMD) device or other video eyewear devices to create a more reliable and more intuitive user interface. The sensors, which may be implemented as an array, control various aspects of a left and right channel multimedia presentation, such as interpupillary distance or stereoscopic convergence, brightness, volume, or power mode.

Abstract: A wearable display apparatus includes a display for providing viewable images. A display support assembly can support the display. The display support assembly can be self centering and telescoping for adjusting the position of the display for viewing by a user. The display support assembly can include right side and left side arm members spaced apart from each other, and a flexibly resilient support member to which the display is mounted between the arm members. The support member can be telescopically mounted to the arm members. The support member can have flexibly resilient right and left side portions secured to the display. Each side portion can be slidably mounted to a respective arm member for telescoping.

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: Operating conditions for a headset computer are determined using input from a speed sensor or accelerometer together with the results of scene analysis performed on images captured by a camera embedded in the headset computer. If the headset is travelling above a predetermined speed, and if the scene analysis returns a decision that the wearer is sitting in a driver's seat of the vehicle, then one or more features of the headset computer are disabled or restricted. The headset computer may disable display operation, mobile phone operation, or change audio interface options, or take other actions.

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: A system performs stable control of moving devices (such as a helicopter or robot) with attached camera(s), providing live imagery back to a head-mounted computer (HMC). The HMC controls the moving device. The HMC user specifies a desired path or location for the moving device. Camera images enable the user-specified instructions to be followed accurately and the device's position to be maintained thereafter. A method of controlling a moving device with a headset computer includes analyzing, at the headset computer, at least one image received from the moving device to form an indication of change in position of the moving device. The method displays to a user of the headset computer the indication of change in position of the moving device. The method can additionally include enabling the user to control the moving device.

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: A method of, and corresponding headset computer for, performing instant speech translation including, establishing a local network including a link between a first and a second headset computer in which preferred language settings of each headset computer are exchanged, transmitting captured speech in a first language from a first headset computer to a network-based speech recognition service to recognize and transcribe the captured speech as text, receiving the text at the first headset computer, broadcasting the text over the local network to at least the second headset computer, receiving the text at the second headset computer, transmitting the received text from the second headset computer to a network-based text translation service to translate the text to a text in a second language, receiving the text in the second language at the second headset computer from the network-based text translation service, and displaying the translated text at the second headset computer.

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 t 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: A wearable electronic display includes an eyewear display and a flexible band attached to the eyewear display for securing the eyewear display to the user's head. At least one speaker is slidably attached below the flexible band by a slidable mount. The slidable mount is capable of sliding forwardly and rearwardly on the flexible band for adjusting the at least one speaker to the user's ears.

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: In headset computers that leverage voice commands, often the user does not know what voice commands are available. In one embodiment, a method includes providing a user interface in a headset computer and, in response to user utterance of a cue toggle command, displaying at least one cue in the user interface. Each cue can correspond to a voice command associated with code to execute. In response to user utterance of the voice command, the method can also include executing the code associated with the voice command. The user can therefore ascertain what voice commands are available.