Abstract: A 3D conversation system can facilitate 3D conversations in an augmented reality environment, allowing conversation participants to appear as if they are face-to-face. The 3D conversation system can accomplish this with a pipeline of data processing stages, which can include calibrate, capture, tag and filter, compress, decompress, reconstruct, render, and display stages. Generally, the pipeline can capture images of the sending user, create intermediate representations, transform the representations to convert from the orientation the images were taken from to a viewpoint of the receiving user, and output images of the sending user, from the viewpoint of the receiving user, in synchronization with audio captured from the sending user. Such a 3D conversation can take place between two or more sender/receiving systems and, in some implementations can be mediated by one or more server systems. In various configurations, stages of the pipeline can be customized based on a conversation context.

Abstract: A turbine engine includes a core having a fan section, a compressor section, combustion section, and turbine section in serial flow arrangement and defining an engine centerline. The turbine section has a set of turbine stages, having paired sets of non-rotating, circumferentially spaced vanes defining a respective nozzle, and rotating circumferentially spaced blades. A first stage turbine nozzle has a solidity that is a ratio of an axial chord length of the turbine vanes to the circumferential spacing between adjacent vanes.

Abstract: A turbine engine includes a core having a fan section, a compressor section, combustion section, and turbine section in serial flow arrangement and defining an engine centerline. The turbine section has a set of turbine stages, having paired sets of non-rotating, circumferentially spaced vanes defining a respective nozzle, and rotating circumferentially spaced blades. A first stage turbine nozzle has a solidity that is a ratio of an axial chord length of the turbine vanes to the circumferential spacing between adjacent vanes.

Abstract: An air ionization unit is provided to ionize air to remove particulates and to release cleaned air. Air moves into the air ionization unit where it may be first filtered by an air intake filter. The air is moved, preferably by a fan, into contact with an ion generator, where the air is ionized. One or more (such as two) other fans may be used to provide airflow to (1) at least partially remove ions emanating from the air that has been exposed to the ion generator, and (2) to push the cleaned air through one or more ozone filters and out of the air ionization unit. The air ionization unit may also include an outgoing air filter, and one or more doors to access the air intake filter and/or the air ionization unit.

Abstract: A power receptacle assembly includes a receptacle housing holding a power terminal including a socket at a mating end and a crimp barrel crimped to a power cable. The power receptacle assembly includes a rear cover coupled to the rear of the receptacle housing. Optionally, the rear cover includes a TPA element received in the cavity to interface with and assure proper positioning of the power terminal in the cavity. Optionally, the rear cover is fed on a carrier strip with a plurality of the rear covers with connecting strips therebetween, wherein the rear cover is singulated from the connecting strips to separate the rear cover from the carrier strip for coupling to the rear of the receptacle housing.

Abstract: A method includes receiving a first image captured by a content capture device, identifying a first object in the first image and determining a first update to a first setting of the content capture device. The method further includes receiving a second image captured by the content capture device, identifying a second object in the second image, and determining a second update to a second setting of the content capture device. The method further includes updating the first setting of the content capture device using the first update, receiving a third image using the updated first setting of the content capture device, updating the second setting of the content capture device using the second update, receiving a fourth image using the updated second setting of the content capture device, and stitching the third image and the fourth image together to form a composite image.

Abstract: Techniques for operating a depth sensor are discussed. A first sequence of operation steps and a second sequence of operation steps can be stored in memory on the depth sensor to define, respectively, a first depth sensing mode of operation and a second depth sensing mode of operation. In response to a first request for depth measurement(s) according to the first depth sensing mode of operation, the depth sensor can operate in the first mode of operation by executing the first sequence of operation steps. In response to a second request for depth measurement(s) according to the second depth sensing mode of operation, and without performing an additional configuration operation, the depth sensor can operate in the second mode of operation by executing the second sequence of operation steps.

Abstract: A head mounted display system can process images by assessing relative motion between the head mounted display and one or more features in a user's environment. The assessment of relative motion can include determining whether the head mounted display has moved, is moving and/or is expected to move with respect to one or more features in the environment. Additionally or alternatively, the assessment can include determining whether one or more features in the environment have moved, are moving and/or are expected to move relative to the head mounted display. The image processing can further include determining one or more virtual image content locations in the environment that correspond to a location where renderable virtual image content appears to a user when the location appears in the display and comparing the one or more virtual image content locations in the environment with a viewing zone.

Abstract: A poke-in terminal includes a main body, a tab terminal socket at a mating end, and a wire socket at a terminating end. The tab terminal socket includes walls forming a tab terminal receptacle configured to receive a tab terminal. Upper and lower beam contacts extend into the tab terminal receptacle to interface with the tab terminal. The wire socket includes walls forming a wire receptacle configured to receive a wire. Poke-in retention beams extend into the wire receptacle to interface with the wire when poked into the wire socket. The wire socket includes a wire release element configured to be actuated to release the poke-in retention beams from the wire.

Abstract: A gas sensor device including a sensing component for detection of first gas analyte, electronic circuitry, and a communication system, wherein the electronic circuitry is configured to control operation of the gas sensor device and to measure a concentration of the first gas analyte based on a signal from the sensing component, the electronic circuitry further being configured to control operation of the gas sensor device based upon an operational status of the gas sensor device determined at least in part on information received via the communication system based upon output from at least one sensor located at a different position from the gas sensor device.

Abstract: An electrical connector has a housing with a front surface, a rear surface, and side surfaces. A first wall extends between the front surface, the rear surface and the side surfaces. A second wall extends between the front surface, the rear surface and the side surfaces, the second wall having a radiused reference surface. An alignment projection extends from the radiused reference surface in a direction away from the first wall. Compression clips extend from the side surfaces. The compression clips have bases, beams and a latching projections, with the beams extending at angles relative to the side surfaces.

Abstract: An optical imaging system (1) is configured for photographing a sample and includes a lighting module (11) and an imaging module (15). The lighting module (11) is configured for outputting excitation light, the excitation light is configured to excite the sample to generate excited light, the imaging module (15) comprises a time delay integration line scan camera (151), the time delay integration line scan camera (151) is configured to record the excited light. A biochemical substance detection system using the optical imaging system (1) is also provided, improving the detection flux.

Abstract: Methods and systems described in this disclosure electronically notarize a document. The system can receive biometric information from a user, extract characteristics from the biometric information, and compare the characteristics of the biometric information with previously stored characteristics of the user's biometric information. When the characteristics of the biometric information match the previously stored characteristics to a threshold, the system can create an identity of the user using the characteristics of the biometric information. The system can send a document to the user for cryptographic signature and receive an indication that the document has been signed. The cryptographic signature can be generated with a digest of the document, the identity, and a cryptographic key associated with the user. The system can inspect the digest of the document, the cryptographic key, and the identity associated with the document to verify authenticity of the document and the identity of the user.

Abstract: Systems and methods for enabling the secure use of cryptocurrencies (such as but not limited to Bitcoin, Ethereum, or Litecoin) in prize funds or gift cards that accept purchases or wagers in fiat currencies and payout in cryptocurrency. The prize funds can be associated with lotteries, charitable gaming, or casino environments with the inherent volatility of cryptocurrencies optionally mitigated and cryptocurrency payouts enabled for consumers or players without prior digital wallets as well as consumers or players with preexisting digital wallets.

Abstract: Several embodiments of the present invention are generally directed to medical visualization systems that comprise combinations of disposable and reusable components, such as catheters, functional handles, hubs, optical devices, etc. Other embodiments of the present invention are generally directed to features and aspects of an in-vivo visualization system that comprises an endoscope having a working channel through which a catheter having viewing capabilities is routed. the catheter may obtain viewing capabilities by being constructed as a vision catheter or by having a fiberscope or other viewing device selectively routed through one of its channels. The catheter is preferably of the steerable type so that the distal end of the catheter may be steered from its proximal end as it is advanced with the body. A suitable use for the in-vivo visualization system includes but is not limited to diagnosis and/or treatment of the duodenum, and particularly the biliary tree.

Abstract: A method includes receiving a first image captured by a content capture device included in a mixed reality or augmented reality device, identifying a location corresponding to a pixel group of a plurality of pixel groups in the first image, and determining, for each location, one or more updates for one or more settings of the content capture device. The method also includes iteratively: updating the content capture device using an update of the one or more updates, capturing an image of a predetermined number of images using the content capture device and the update of the one or more updates, and repeating updating the content capture device and capturing the image the predetermined number of times. The method also includes stitching the predetermined number of images together to form a composite image.

Abstract: A method for rendering a code is provided. The method is implemented by a first mobile apparatus and includes: obtaining (S201) a digital certificate; obtaining (S202) information representing a time and/or a location; obtaining (S203) a code generated using a code generating model based on the information representing the time and/or the location; and displaying (S204) the code along with at least one element that is comprised in the digital certificate on a display of the first mobile apparatus.

Abstract: A control handle includes a housing and at least one control wire that extends from the housing to terminate at a distal tip. A steering assembly is coupled with the at least one control wire for selectively tensioning the at least one control wire to effectuate movement of the distal tip. The steering assembly includes at least one cam that is rotatable about an axis and presents a winding surface that extends circumferentially. The at least one control wire is connected to the at least one cam. An actuator dial is rotatable about the axis and coupled with the at least one cam for rotatably driving the at least one cam from a neutral position to an actuated position to at least partially wind the control wire about the winding surface and to tension the at least one control wire for deflecting the distal tip.

Abstract: A system and method for operating a depth sensor. A configuration operation can be performed by storing a first sequence of operation steps which define a first depth sensing mode of operation, and a second sequence of operation steps which define a second depth sensing mode of operation, in the memory. In response to a first request for depth measurements according to the first depth sensing mode of operation, the depth sensor can be operated in the first mode of operation by causing it to execute the first sequence of operation steps. In response to a second request for depth measurements according to the second depth sensing mode of operation, and without performing an additional configuration operation, the depth sensor can be operated in the second mode of operation by causing it to execute the second sequence of operation steps.

Abstract: A method of operating a gas sensor for a gas analyte including a sensing component includes, in a first mode, interrogating the sensor by periodically applying an electrical signal to the sensing component of the sensor, measuring sensor response to the electrical signal which is indicative of a sensitivity of the sensor each time the electrical signal is applied to the sensing component, determining whether one or more thresholds have been exceeded based upon the sensor response determined each time the electrical signal is applied to the sensing component, and entering a second mode, different from the first mode in analysis of the sensor response to the periodically applied electrical signals, if one or more thresholds are exceeded.