Abstract: A system and method are disclosed for controlling an amount of ambient light transmitted to the eye of a wearer through an NED device. A passive component such as a photochromic coating may be applied to a visor of the NED device to block light. An active component may be included to augment the light dimming capabilities of the passive component.

Abstract: A system and method are disclosed for use in a virtual reality environment including a head mounted display device and a processing unit. In examples, the processing unit adjusts an amount by which left and right displayed images overlap each other at a given distance, such as the focal distance, from the head mounted display device.

Abstract: A near-eye-display system generates a dimming mask to enhance contrast between a computer-generated image and a real-world view. The system monitors eye tracking data to determine physical characteristics of the user's eye. Then, based on these physical characteristics, the system may generate and locate a dimming mask with relation to the CG image to decrease user perceived brightness of a real-world view at a location where the CG image is displayed. Specifically, the dimming mask affects an amount of light transmitted from a real-world object that is permitted to enter the user's eyes. The system uses the dimming mask to effectively “turn down” the brightness of the real-world view at specific regions of a composite view corresponding to the CG image. A size and transmittance level of the dimming mask may vary based upon the pupil size. A location of the dimming mask may vary based upon the gaze direction.

Abstract: A system and method are disclosed for controlling an amount of ambient light transmitted to the eye of a wearer through an NED device. A passive component such as a photochromic coating may be applied to a visor of the NED device to block light. An active component may be included to augment the light dimming capabilities of the passive component.

Abstract: A system and method are disclosed for controlling an amount of ambient light transmitted to the eye of a wearer through an NED device. A passive component such as a photochromic coating may be applied to a visor of the NED device to block light. An active component may be included to augment the light dimming capabilities of the passive component. The active component may comprise a bi-layer monochromatic dimming panel assembly.

Abstract: An automatic brightness adjustment for devices with displays includes the capability to assess ambient light. The assessment may be made using circuitry, such as a light meter circuit, by exploiting exposure control circuitry, or using other approaches. The ambient light value is sent to a brightness adjustment driver, which may employ a look-up table to keep track of brightness adjustments for particular ambient conditions. The look-up table may include distinct adjustment values.

Abstract: A system and method are disclosed for use in a virtual reality environment including a head mounted display device and a processing unit. In examples, the processing unit adjusts an amount by which left and right displayed images overlap each other at a given distance, such as the focal distance, from the head mounted display device.

Abstract: An automatic brightness adjustment for devices with displays includes the capability to assess ambient light. The assessment may be made using circuitry, such as a light meter circuit, by exploiting exposure control circuitry, or using other approaches. The ambient light value is sent to a brightness adjustment driver, which may employ a look-up table to keep track of brightness adjustments for particular ambient conditions.

Abstract: An automatic brightness adjustment for devices with displays includes the capability to assess ambient light. The assessment may be made using circuitry, such as a light meter circuit, by exploiting exposure control circuitry, or using other approaches. The ambient light value is sent to a brightness adjustment driver, which may employ a look-up table to keep track of brightness adjustments for particular ambient conditions.

Abstract: An automatic brightness adjustment for devices with displays includes the capability to assess ambient light. The assessment may be made using circuitry, such as a light meter circuit, by exploiting exposure control circuitry, or using other approaches. The ambient light value is sent to a brightness adjustment driver, which may employ a look-up table to keep track of brightness adjustments for particular ambient conditions. The look-up table may include distinct adjustment values.

Abstract: A first processor-based device (PBD), such as a personal computer functioning as a host and containing digital media files, may share a selected file with a second PBD. Media file-sharing may be facilitated by an automated technique including graphical user interfaces (GUIs). In one embodiment, when a device user wishes to transfer a file to another device, the user hovers the file over a particular desktop icon and drops it, causing it to be automatically transmitted to a corresponding destination. Optionally, in response to hovering, a software program automatically generates a GUI indicating potential destinations. The user then selects a destination, and the system automatically transfers the file to that destination. In another embodiment, media sharing can be initiated from a digital appliance, such as a digital picture frame, and a file can be sent to another PBD, such as another digital picture frame via an intermediary PBD.

Abstract: A first processor-based device (PBD), such as a personal computer functioning as a host and containing digital media files, may share a selected file with a second PBD. Media file-sharing may be facilitated by an automated technique including graphical user interfaces (GUIs). In one embodiment, when a device user wishes to transfer a file to another device, the user hovers the file over a particular desktop icon and drops it, causing it to be automatically transmitted to a corresponding destination. Optionally, in response to hovering, a software program automatically generates a GUI indicating potential destinations. The user then selects a destination, and the system automatically transfers the file to that destination. In another embodiment, media sharing can be initiated from a digital appliance, such as a digital picture frame, and a file can be sent to another PBD, such as another digital picture frame via an intermediary PBD.

Abstract: An embodiment of the invention is a method of generating a final exposure setting, including, (a) selecting one of a number of predetermined exposure settings as a current exposure setting for a solid state camera having a camera imager, (b) generating a captured scene by the camera imager using the current exposure setting, (c) selecting according to an automated search methodology another one of the exposure settings to be the current setting in response to the captured scene being underexposed or overexposed, and, (d) repeating (b) and (c) until the captured scene is neither underexposed or overexposed.

Abstract: An automatic brightness adjustment for devices with displays includes the capability to assess ambient light. The assessment may be made using circuitry, such as a light meter circuit, by exploiting exposure control circuitry, or using other approaches. The ambient light value is sent to a brightness adjustment driver, which may employ a look-up table to keep track of brightness adjustments for particular ambient conditions.

Abstract: An automatic brightness adjustment for devices with displays includes the capability to assess ambient light. The assessment may be made using circuitry, such as a light meter circuit, by exploiting exposure control circuitry, or using other approaches. The ambient light value is sent to a brightness adjustment driver, which may employ a look-up table to keep track of brightness adjustments for particular ambient conditions. The look-up table may include distinct adjustment values based upon the type of display.

Abstract: A first processor-based device (PBD), such as a personal computer functioning as a host and containing digital media files, may share a selected file with a second PBD. Media file-sharing may be facilitated by an automated technique including graphical user interfaces (GUIs). In one embodiment, when a device user wishes to transfer a file to another device, the user hovers the file over a particular desktop icon and drops it, causing it to be automatically transmitted to a corresponding destination. Optionally, in response to hovering, a software program automatically generates a GUI indicating potential destinations. The user then selects a destination, and the system automatically transfers the file to that destination. In another embodiment, media sharing can be initiated from a digital appliance, such as a digital picture frame, and a file can be sent to another PBD, such as another digital picture frame via an intermediary PBD.

Abstract: A first processor-based device (PBD), such as a personal computer functioning as a host and containing digital media files, may share a selected file with a second PBD. Media file-sharing may be facilitated by an automated technique including graphical user interfaces (GUIs). In one embodiment, when a device user wishes to transfer a file to another device, the user hovers the file over a particular desktop icon and drops it, causing it to be automatically transmitted to a corresponding destination. Optionally, in response to hovering, a software program automatically generates a GUI indicating potential destinations. The user then selects a destination, and the system automatically transfers the file to that destination. In another embodiment, media sharing can be initiated from a digital appliance, such as a digital picture frame, and a file can be sent to another PBD, such as another digital picture frame via an intermediary PBD.

Abstract: A first processor-based device (PBD), such as a personal computer functioning as a host and containing digital media files, may share a selected file with a second PBD. Media file-sharing may be facilitated by an automated technique including graphical user interfaces (GUIs). In one embodiment, when a device user wishes to transfer a file to another device, the user hovers the file over a particular desktop icon and drops it, causing it to be automatically transmitted to a corresponding destination. Optionally, in response to hovering, a software program automatically generates a GUI indicating potential destinations. The user then selects a destination, and the system automatically transfers the file to that destination. In another embodiment, media sharing can be initiated from a digital appliance, such as a digital picture frame, and a file can be sent to another PBD, such as another digital picture frame via an intermediary PBD.

Abstract: An embodiment of the invention is a method of generating a final exposure setting, including, (a) selecting one of a number of predetermined exposure settings as a current exposure setting for a solid state camera having a camera imager, (b) generating a captured scene by the camera imager using the current exposure setting, (c) selecting according to an automated search methodology another one of the exposure settings to be the current setting in response to the captured scene being underexposed or overexposed, and, (d) repeating (b) and (c) until the captured scene is neither underexposed or overexposed.

Abstract: An embodiment of the invention is a method of generating a final exposure setting, including, (a) selecting one of a number of predetermined exposure settings as a current exposure setting for a solid state camera having a camera imager, (b) generating a captured scene by the camera imager using the current exposure setting, (c) selecting according to an automated search methodology another one of the exposure settings to be the current setting in response to the captured scene being underexposed or overexposed, and, (d) repeating (b) and (c) until the captured scene is neither underexposed or overexposed.