Abstract: A tape includes: a substrate, a conductive adhesive layer disposed on the substrate, and an insulating layer disposed on a part of a bonding surface of the conductive adhesive layer. The insulating layer is configured to insulate the conductive adhesive layer from a conducting part of an object to be bonded.

Abstract: The present disclosure provides designs for an electrically heated respirator/face mask to kill or deactivate airborne viruses and bacteria by creating a seamless thermal and/or humidity chamber/barrier around the wearer's nose and mouth area; in addition to efficiently filtering the tiny particles according to NIOSH N95 standards, it reduces the chance of contracting the disease. The designs include various combinations: a disposable or reusable N95 respirator with or without an exhalation valve, disposable or reusable medical face mask, both with or without integrated and replaceable filter layers, and a reusable respirator with filter cartridges. Each design is comprised of multiple layers with an active thermal filter with a heating element, which is made of graphene. The respirator is connected via a USB cable to a power unit. A control module is used to turn the device on and off and control the inner temperature and humidity optionally through sensors.

Abstract: The disclosure presents a set of novel methods and apparatus designed to add a communication ability to an external surface of a vehicle, using an animated visible light electronic message device, by selectively displaying pre-defined digital symbols. The addition of the display to a vehicle allows the vehicle to communicate with other vehicles, persons, or devices without requiring any functionality change to the other party. The new methods and apparatus also enable two vehicles that are both installed with the message devices to communicate with each other. These message devices can be installed on surfaces which include, but are not limited to, windshields of the vehicle, the top of the vehicle, the front and back bumper of the vehicle or other windows of the vehicle. The digital symbols displayed are pre-defined by the device manufacturer and not modifiable or creatable by the vehicle user.

Abstract: The disclosure presents a set of novel methods and apparatus designed to add a communication ability to an external surface of a vehicle, using an animated visible light electronic message device, by selectively displaying pre-defined digital symbols. The addition of the display to a vehicle allows the vehicle to communicate with other vehicles, persons, or devices without requiring any functionality change to the other party. The new methods and apparatus also enable two vehicles that are both installed with the message devices to communicate with each other. These message devices can be installed on surfaces which include, but are not limited to, windshields of the vehicle, the top of the vehicle, the front and back bumper of the vehicle or other windows of the vehicle. The digital symbols displayed are pre-defined by the device manufacturer and not modifiable or creatable by the vehicle user.

Abstract: The disclosure presents novel methods and apparatuses to add new imaging functions to an existing smart device, comprising a plate accessory with one or more optical components that is attached to the smart device. The plate can be rotated to the front of the screen and supported at more than one sides of the smart device. The imaging function added could be a virtual reality viewer or a wide light field camera. The plate can also be worn on one's head by self-contained retractable brace, stands and strap. If the plate is moved close to the smart device's cameras, the optical components can form multiple images from multiple viewing angles of the scene onto the camera sensor. The captured images can be used to generate stereoscopic 3D or light field 4D recording of the scene by computational photographic algorithms. The attaching accessory is very light, portable, flexible, affordable and easy to use.

Abstract: The disclosure presents novel methods and apparatuses to add new imaging functions to an existing smart device, comprising a plate accessory with one or more optical components that is attached to the smart device. The plate can be rotated to the front of the screen and supported at more than one sides of the smart device. The imaging function added could be a virtual reality viewer or a wide light field camera. The plate can also be worn on one's head by self-contained retractable brace, stands and strap. If the plate is moved close to the smart device's cameras, the optical components can form multiple images from multiple viewing angles of the scene onto the camera sensor. The captured images can be used to generate stereoscopic 3D or light field 4D recording of the scene by computational photographic algorithms. The attaching accessory is very light, portable, flexible, affordable and easy to use.

Abstract: A dual projection system can align displayed images using an alignment pattern. The alignment pattern can be used to modify part of an image content frame of an image data sequence. Two image data sequences can be spatially aligned based on the modification to part of the image content frame using the alignment pattern. An image content frame may be warped and displayed. The displayed warped image content frame can be captured. A set of transformation vectors can be determined based on the captured image content frame and alignment image data. Stored transformation data can be updated using the set of transformation vectors and the updated transformation data can be used to spatially align two image data sequences.

Abstract: Hybrid image projection systems and methods can superimpose image components of an input image. An input image can be divided into smaller regions and at least one parameter of each region can be determined. The input image can be decomposed based on the parameter of each region into multiple, less correlated, orthogonal or quasi-orthogonal image components. Each projector can display respective image components so that the images projected may be optically superimposed on a screen. The superposition of orthogonal or quasi-orthogonal image components can result in superposition of images in an existing multi-projector image systems being more insensitive to inter-projector image misalignment. Superimposing orthogonal or quasi-orthogonal images can be used to avoid visible image degradation, and provide more robust image quality in a multiple projector system implementation.

Abstract: Methods and systems for reducing or eliminating perceived ghosting in stereoscopic three-dimensional (3D) image display are described. A stereoscopic image that includes image content can be received. Display system parameters can be received. A local region of the stereoscopic image can be identified using the image content. The local region can include ghosting. Psychovisual factors can be selected using the image content. A modified stereoscopic image can be generated from the stereoscopic image by reducing or eliminating the ghosting of the local region using the psychovisual factors and the display system parameters. The modified stereoscopic image can be outputted for display.

Abstract: Hybrid image projection systems and methods can superimpose image components of an input image. An input image can be divided into smaller regions and at least one parameter of each region can be determined. The input image can be decomposed based on the parameter of each region into multiple, less correlated, orthogonal or quasi-orthogonal image components. Each projector can display respective image components so that the images projected may be optically superimposed on a screen. The superposition of orthogonal or quasi-orthogonal image components can result in superposition of images in an existing multi-projector image systems being more insensitive to inter-projector image misalignment. Superimposing orthogonal or quasi-orthogonal images can be used to avoid visible image degradation, and provide more robust image quality in a multiple projector system implementation.

Abstract: Hybrid image projection systems and methods can superimpose image components of an input image. An input image can be divided into smaller regions and at least one parameter of each region can be determined. The input image can be decomposed based on the parameter of each region into multiple, less correlated, orthogonal or quasi-orthogonal image components. Each projector can display respective image components so that the images projected may be optically superimposed on a screen. The superposition of orthogonal or quasi-orthogonal image components can result in superposition of images in an existing multi-projector image systems being more insensitive to inter-projector image misalignment. Superimposing orthogonal or quasi-orthogonal images can be used to avoid visible image degradation, and provide more robust image quality in a multiple projector system implementation.

Abstract: Embodiments of the present disclosure are directed towards a method of encoding image frames into a multiplexed frame, and a corresponding method of decoding the multiplexed frame. The encoding method includes modifying image frames to generate corresponding processed frames, and generating masking data that indicates how an output frame can be produced from one of the processed frames and another of the processed frames. The processed frames and the masking data can be combined to form a multiplexed frame. The decoding method includes receiving a multiplexed frame containing processed frames and masking data, and unpacking the multiplexed frame to identify the processed frames and the masking data. Once unpacked, an output frame can be generated from the processed frames by combining one of the processed frames with another of the processed frames according to the masking data.

Abstract: Certain aspects relate to a method and system whereby any defined system characteristic, property, or parameter can be normalized for farther improving the displayed image quality. The normalization processing can use a generalized calibration process and can normalize a system characteristic, or a system property, and/or parameter to result in a more uniform or accurately displayed image using a generalized image processing method.

Abstract: A dual projection system can align displayed images using an alignment pattern. The alignment pattern can be used to modify part of an image content frame of an image data sequence. Two image data sequences can be spatially aligned based on the modification to part of the image content frame using the alignment pattern. An image content frame may be warped and displayed. The displayed warped image content frame can be captured. A set of transformation vectors can be determined based on the captured image content frame and alignment image data. Stored transformation data can be updated using the set of transformation vectors and the updated transformation data can be used to spatially align two image data sequences.

Abstract: Hybrid image projection systems and methods can superimpose image components of an input image. An input image can be divided into smaller regions and at least one parameter of each region can be determined. The input image can be decomposed based on the parameter of each region into multiple, less correlated, orthogonal or quasi-orthogonal image components. Each projector can display respective image components so that the images projected may be optically superimposed on a screen. The superposition of orthogonal or quasi-orthogonal image components can result in superposition of images in an existing multi-projector image systems being more insensitive to inter-projector image misalignment. Superimposing orthogonal or quasi-orthogonal images can be used to avoid visible image degradation, and provide more robust image quality in a multiple projector system implementation.

Abstract: Certain aspects relate to a method and system whereby any defined system characteristic, property, or parameter can be normalized for farther improving the displayed image quality. The normalization processing can use a generalized calibration process and can normalize a system characteristic, or a system property, and/or parameter to result in a more uniform or accurately displayed image using a generalized image processing method.

Abstract: Methods and systems for reducing or eliminating perceived ghosting in stereoscopic three-dimensional (3D) image display are described. A stereoscopic image that includes image content can be received. Display system parameters can be received. A local region of the stereoscopic image can be identified using the image content. The local region can include ghosting. Psychovisual factors can be selected using the image content. A modified stereoscopic image can be generated from the stereoscopic image by reducing or eliminating the ghosting of the local region using the psychovisual factors and the display system parameters. The modified stereoscopic image can be outputted for display.