Abstract: Featured is a method for location-based augmented reality capture. The method can include invoking an augmented reality capture mode on a device including a plurality of sensors, recording an augmented reality capture in response to user input, and storing the augmented reality capture. The device can be, for example, a smartphone, a tablet, or a laptop. Also featured is a device for location-based augmented reality capture embodying such a method(s). Such a device can be, for example, a smartphone, a tablet, or a laptop.

Abstract: Featured is a method for distributing location-based augmented reality captures. The method can include creating an augmented reality capture on a first device, packaging the augmented reality capture, and transmitting the augmented reality capture to a second device via a communications protocol. The first device can be, for example, a smartphone or a laptop. The second device can be a smartphone, a laptop, or a remote server. The remote server can function as a cloud-based web service. Also featured is a device for distributing location-based augmented reality captures embodying such methods for distributing.

Abstract: Featured is a method for location-based augmented reality capture. The method can include invoking an augmented reality capture mode on a device including a plurality of sensors, recording an augmented reality capture in response to user input, and storing the augmented reality capture. The device can be, for example, a smartphone, a tablet, or a laptop. Also featured is a device for location-based augmented reality capture embodying such a method(s). Such a device can be, for example, a smartphone, a tablet, or a laptop.

Abstract: Featured is a method for distributing location-based augmented reality captures. The method can include creating an augmented reality capture on a first device, packaging the augmented reality capture, and transmitting the augmented reality capture to a second device via a communications protocol. The first device can be, for example, a smartphone or a laptop. The second device can be a smartphone, a laptop, or a remote server. The remote server can function as a cloud-based web service. Also featured is a device for distributing location-based augmented reality captures embodying such methods for distributing.

Abstract: Featured is a method for location-based augmented reality capture. The method can include invoking an augmented reality capture mode on a device including a plurality of sensors, recording an augmented reality capture in response to user input, and storing the augmented reality capture. The device can be, for example, a smartphone, a tablet, or a laptop. Also featured is a device for location-based augmented reality capture embodying such a method(s). Such a device can be, for example, a smartphone, a tablet, or a laptop.

Abstract: A bottle opening device includes a sports projectile and an insert. The sports projectile has an outer surface and a cavity extending into the outer surface. The cavity is defined at least partially by a bearing surface of the sports projectile. The insert has an opening that extends through the insert and between a first face surface and an opposing second face surface of the insert. The insert is received within the cavity of the sports projectile such that (i) the first face surface of the insert engages the bearing surface of the sports projectile and (ii) the second face surface of the insert is at least substantially flush with the outer surface of the sports projectile in an area adjacent to the cavity.

Abstract: An apparatus (1) for supporting a mobile electronic display system. The mobile electronic display system includes a display element (11) and a power source (12). In use a wearable computer (4) controls operation of the display element (11). The apparatus (1) comprises a relatively rigid support frame (8), a relatively soft cushion member (9), and a cover (10) for the support frame (8). The support frame (8) is suitable for being worn by a person to support the mobile electronic display system. The support frame (8) comprises a front support frame part (13) located at the front of the wearer, a rear support frame part (14) located at the rear of the wearer, a first bearing member (15) extending over a first shoulder of the wearer, and a second bearing member (16) extending over a second shoulder of the wearer.

Abstract: An apparatus (1) for supporting a mobile electronic display system. The mobile electronic display system includes a display element (11) and a power source (12). In use a wearable computer (4) controls operation of the display element (11). The apparatus (1) comprises a relatively rigid support frame (8), a relatively soft cushion member (9), and a cover (10) for the support frame (8). The support frame (8) is suitable for being worn by a person to support the mobile electronic display system. The support frame (8) comprises a front support frame part (13) located at the front of the wearer, a rear support frame part (14) located at the rear of the wearer, a first bearing member (15) extending over a first shoulder of the wearer, and a second bearing member (16) extending over a second shoulder of the wearer.

Abstract: A method according to the present invention is provided for determining memory device identification. The method invokes a serial output from n identification fuses of two or more memory devices, the output for identifying the device, and sampling the serial output every nth bit to determine a fuse state for a fuse of each device. The method further repeats the sampling for all n fuses to acquire fuse data for all devices, and determines a pass/fail string corresponding to the sampled output, the pass/fail string being employed to identify the devices through a parallel test and burn-in system. The output is on an enabled data line which is used during the burn-in test wherein other data lines are disabled for avoiding bus contention. The method also includes storing the pass/fail string for the data in a database, and translating the pass/fail string using a structured query language expression executed against the database.

Abstract: A method according to the present invention is provided for determining memory device identification. The method invokes a serial output from n identification fuses of two or more memory devices, the output for identifying the device, and sampling the serial output every nth bit to determine a fuse state for a fuse of each device. The method further repeats the sampling for all n fuses to acquire fuse data for all devices, and determines a pass/fail string corresponding to the sampled output, the pass/fail string being employed to identify the devices through a parallel test and burn-in system. The output is on an enabled data line which is used during the burn-in test wherein other data lines are disabled for avoiding bus contention. The method also includes storing the pass/fail string for the data in a database, and translating the pass/fail string using a structured query language expression executed against the database.