Abstract: A standoff feature for an appliance includes a connecting member having a first end and a second end. A first side member extends in a first direction from the first end of the connecting member. A second side member is spaced from the first side member. The second side member extends in the first direction from the second end of the connecting member. A first flange extends from a first side edge of the connecting member. The first side edge extends between the first end and the second end. The first flange extends in a second direction from the connecting member. A second flange extends from a second side edge of the connecting member. The second side edge extends between the first end and the second end and opposes the first side edge. The second flange extends in the second direction from the connecting member.

Abstract: A multi-aperture free-space optical communications receiver comprises a plurality of telescopes each having a clear objective aperture with a diameter between 50 mm and 250 mm and arranged for receiving light collectively from an optical communications light source. A coherent combiner unit is configured for coherently combining the collectively received light to produce a combined optical signal therewith. Each telescope is arranged in association with, respectively, a wavefront detector to determine a wavefront of said received light directed to it by the respective telescope, a steerable reflector unit including a deformable mirror controllable to deform according to said determined wavefront such that said received light is reflected by the deformable mirror with a modified wavefront, and an optical signal receiver comprising a single-mode optical fibre.

Abstract: One embodiment provides a method, including: detecting, using a processor of an information handling device and in a virtual environment, a user input directed to a virtual human input device; accessing, from a data store, sensation data associated with user interaction with a real-world counterpart device of the virtual human input device; and providing, based on the sensation data and using a wearable haptic device, a haptic output responsive to the user input, wherein the haptic output emulates an interaction feel of the user input provided to the real-world counterpart device. Other aspects are described and claimed.

Abstract: A system can include a processor; memory accessible to the processor; a first display housing that includes a first display, a first display surface and a recess; a second display housing that includes a second display, a second display surface, where the second display housing is translatable at least partially out of the recess to expose at least a portion of the second display surface adjacent to the first display surface; a sensor that generates a position signal for position of the second display; and circuitry that controls rendering of information to the second display based at least in part on the position signal.

Abstract: An electronic device is provided that includes a housing that has a sensor mounting panel, and first and second sensors mounted in the housing and oriented to extend through the sensor mounting panel to face an environment of interest. The electronic device is operable to change an operating state, of the first sensor, between first, second and third operating states. The first operating state represents a network sharing state in which the first type of information collected by the first sensor is shared with the network resource through the communications interface. The second operating state represents a local state in which the first type of information is maintained locally on, and is solely accessible to, the one or more processors of the electronic device and is not shared with the network resource.

Abstract: The invention relates to the field of Free Space Optics (FSO), more specifically it is directed to: a method of obtaining a connection between at least two optical signal nodes, of a FSO, communication system each node comprising a transmitting device and receiving device; and transmitting via the transmitting device of a first node, a first diverged optical signal into an optical medium; receiving at the receiving device of the second node the first diverged optical signal and transmitting via the transmitting device of the second node a second diverged signal to the receiving device of the first node to establish a location of said first node establishing a connection, after which; the first node switches from the diverged optical signal to a narrower optical signal for the transmission of data via the connection.

Abstract: A vaginal dilation device is provided that may include any of a number of features. One feature of the vaginal dilation device is that it is configured to dilate vaginal tissue during labor to prevent tissue damage. Another feature of the vaginal dilation device is that it can be manually controlled to dilate vaginal tissue, or can be automatically controlled to dilate vaginal tissue. In some embodiments, the vaginal dilation device is configured to measure a force applied by the device to tissue. In other embodiments, the vaginal dilation device is configured to apply a constant force to tissue. In other embodiments, the vaginal dilation device is configured to expand at a constant rate. Methods associated with use of the vaginal dilation device are also provided.

Abstract: A method for preparing a fuel additive d is provided. The method comprises carrying out the following reaction: (1) The fuel additive d may be used as an octane-boosting additive in a fuel for a spark, ignition internal combustion engine.

Abstract: A device can include a video cable that includes opposing ends; and a human presence sensor operatively coupled to the video cable between the opposing ends.

Abstract: A method for preparing a substituted fuel additive d is provided. The method comprises carrying out the following reaction: (a) (b) (d), The fuel additive d may be used as an octane-boosting additive in a fuel for a spark-ignition internal combustion engine.

Abstract: An optical system (100) comprising: a transmitter module (102) configured to transmit a sequence of optical pulses (300), each optical pulse in the sequence (300) having a different magnitude to each other optical pulse in the sequence (300); a receiver module (104) comprising one or more optical signal detectors, the receiver module (104) configured to receive the sequence of optical pulses (300) transmitted by the transmitter module (102); and one or more processors (110) configured to process the sequence of optical pulses received by the receiver module (104) to select an optical pulse from the received sequence of optical pulses (400) based on one or more predetermined criteria. The one or more predetermined criteria include a criterion that the selected optical pulse does not saturate the one or more optical signal detectors.

Abstract: An apparatus can include a processor; memory accessible to the processor; a base housing; a display housing that includes a center panel and folding wings that fold over the center panel to form a recess for the base housing; and a hinge assembly that couples the display housing to the base housing.

Abstract: An unmanned aerial vehicle assembly includes an unmanned aerial vehicle including a plurality of propulsion units thereby facilitating the unmanned aerial vehicle to fly. A plurality of cameras is each coupled to the unmanned aerial vehicle to capture imagery of the area surrounding the unmanned aerial vehicle. A microphone is coupled to the unmanned aerial vehicle to capture audible sounds in the area surrounding the unmanned aerial vehicle. A transceiver is integrated into the unmanned aerial vehicle and the transceiver is in communication with an extrinsic communication network. In this way the transceiver can receive flight control commands from a personal electronic device that is in communication with the extrinsic communication network thereby facilitating an authorized user to remotely control the unmanned aerial vehicle. A user interface is integrated into the unmanned aerial vehicle to capture a signature from a person.