Abstract: OTT Platform for Real Estate (OPRE) is an over-the-top (OTT) immersive media platform used to enhance real estate market participants' experience and to motivate real estate purchase decisions. OPRE is comprising combinations of hardware and software which can operate on various media delivery systems including iOS, Android, macOS, Windows OS, Roku, and TVOS (Apple TV). OPRE is also supported on Samsung and LG smart TVs. OPRE creates an enhanced interactive and immersive audio-visual environment. Users can view and interact with OPRE through a virtual reality (VR) headset to access the platform and view an environment that is presented in such a way as to enables the user to suspend disbelief and accept the presented environment and its contents as a credible environment.

Abstract: A system comprising computer hardware, computer software, various client end-user devices, and methodology for co-viewing of media and conducting synchronization of viewing by two or more system users through over-the-top (OTT) media devices, mobile devices, tablets devices or Web platform. Said system enables sychronization of the content viewing experience between a first logged-in user of the system who is authorized to perform synchronization, and one or a plurality of other users who are logged into the system, wherein one user serves as a guide and the other user or users are followers of the viewed content media.

Abstract: Techniques are discussed herein for providing wireless communication services using mobile nodes in a cellular network, such as a 5G network. The mobile nodes may operate as Integrated Access and Backhaul (IAB) nodes which are utilized to provide wireless backhaul links and access links in a 5G network. One or more mobile nodes may be wirelessly coupled to a base station node (which may also be referred to herein as a “wired node”), such as a gNodeB, that includes a wired connection to the core network. The wireless backhaul extends coverage to user equipment (UE) that are not directly connected to a gNodeB base station.

Abstract: Various embodiments are directed to methods, apparatuses, systems, computing devices, computing entities, and the like for robotically depalletizing objects. In various embodiments, a controller-implemented method for robotic depalletization may comprise detecting a first object of a plurality of palletized objects arranged in a plurality of pallet layers, the first object defining at least a portion of a top pallet layer; identifying an initial pallet height defined by the first object; identifying a second pallet height defined by a second object of the plurality of palletized objects; detecting a pallet height difference based at least in part on the second pallet height; and determining that the top pallet layer has been depalletized based at least in part on a comparison of the pallet height difference to a threshold pallet layer height.

Abstract: Techniques for configuring a network system that includes a cellular network and a Wi-Fi network to support location-based resource allocation are discussed herein. To cover regions with weak cellular signal and/or with densely packed devices (e.g., a stadium during a football game), a network may use both cellular and Wi-Fi networks to provide coverage. In some examples, the system may configure a base station and a user device to enable automatic authentication of the user device to access a new Wi-Fi network. In response to a service request from the user device, the system may determine whether the Wi-Fi network can handle the service or switch a serving connection. The system may also determine whether the Wi-Fi network includes location-based applications that should be rendered at the user device.

Abstract: Techniques for configuring a network system that includes a cellular network and a Wi-Fi network to support location-based resource allocation are discussed herein. To cover regions with weak cellular signal and/or with densely packed devices (e.g., a stadium during a football game), a network may use both cellular and Wi-Fi networks to provide coverage. In some examples, the system may configure a base station and a user device to enable automatic authentication of the user device to access a new Wi-Fi network. In response to a service request from the user device, the system may determine whether the Wi-Fi network can handle the service or switch a serving connection. The system may also determine whether the Wi-Fi network includes location-based applications that should be rendered at the user device.

Abstract: Techniques for configuring a network system including base stations that support wireless backhaul are discussed herein. To provide network coverage for a new rural area with low network capacity requirements, a service provider may initially deploy a limited network configured with wired base stations that uses fiber links as backhaul. The limited network may have large coverage gap due to the time and cost associated with deploying fiber cables. In such low traffic areas, the system may reserve a portion of available frequency bands to use as wireless backhaul and configure wireless nodes to use the backhaul provided by the reserved frequency bands. The system may configure the existing wired base stations to serve as donor nodes to provide network link for the wireless nodes. The system may deploy a network of these wireless nodes to rapidly fill in coverage gaps.

Abstract: System and method for restoring management components of software-defined data centers (SDDCs) in computing environments uses a software-defined data center (SDDC) bootstrap service running in a virtualization software of a host computer in a computing environment to deploy a new management component in an SDDC after powering down a management component of the SDDC. After the new management component has been deployed, the new management component is restored to a backup state of the management component and configured to replace the management component by an SDDC configuration service running in the SDDC.

Abstract: Techniques described herein include receiving, authorizing, and processing voice commands to control computing devices and perform various device capabilities. In some examples, a user computing device may implement voice command functionality using multiple independent components, with shared security credentials established between different combinations of components. An intermediate voice authorization component may receive and compare voice input data received from a user interface component with voice template data stored securely by a voice data component, to protect against a component becoming compromised by malware or exposure to an untrusted system. Voice commands may be used to execute, disable, or enable various capabilities on the user device, including different device applications and features, and may be authorized by different users with various security and authorization techniques.

Abstract: An apparatus, method, and system disclosed herein are directed to a user equipment (UE) capable of switching an uplink modulation mode to a higher order modulation mode based on communication, or link, conditions and a condition associated with the UE. The UE, in response to receiving a request to change a current uplink modulation mode to a new modulation mode having a higher order modulation, may determine whether a current condition associated with the UE meets a predetermined condition. In response to determining that the current condition, including a current transmit power level and a current battery power level, meets the predetermined condition, the UE may generate a confirmation indicating that the current condition meets the predetermined condition, send the confirmation, and change the uplink modulation mode to the new modulation mode.

Abstract: Techniques are discussed herein for providing wireless communication services using mobile nodes in a cellular network, such as a 5G network. The mobile nodes may operate as Integrated Access and Backhaul (IAB) nodes which are utilized to provide wireless backhaul links and access links in a 5G network. One or more mobile nodes may be wirelessly coupled to a base station node (which may also be referred to herein as a “wired node”), such as a gNodeB, that includes a wired connection to the core network. The wireless backhaul extends coverage to user equipment (UE) that are not directly connected to a gNodeB base station.

Abstract: A wireless device provides voice authorization commands to disable and enable various data capabilities. In some examples, a single voice command from an authorized user disables multiple data capabilities on the wireless device while retaining voice call functionality and other desired device capabilities. Voice authorization commands to disable and enable data capabilities may override the control of the data capabilities, including deactivating and reactivating the corresponding user controls within the settings menu of the wireless device, after which a second associated voice authorization command may be used to re-enable the disabled data capabilities. In various examples, voice commands may be used to enable or disable different types of data capabilities on the wireless devices, including for different device applications and features, and may be authorized by different users with various security and authorization techniques.

Abstract: An implantable vestibular prosthesis system includes an implantable optical array of optical sources configured for engagement with a disordered vestibular system to deliver optical stimulation signals to target stimulation locations within the bony or membranous labyrinth of the disordered vestibular system. An implantable stimulation processor is connected to the optical array and configured to produce the optical stimulation signals with the optical sources so as to generate directional pressure waves within the endolymphatic fluid directed to the target stimulation locations for vestibular perception by residual vestibular functioning.

Abstract: Optogenetic signal processing is described for an auditory prosthesis with an intracochlear array of optical stimulation sources implanted in a patient having auditory neurons genetically modified with light sensitive ion channels. Stimulation timing signals are generated for the corresponding auditory neurons for each band pass signal based on characteristic temporal fine structure features of the band pass signals. The stimulation timing signals include: i. one or more channel opening signals adapted to open the ion channels of the corresponding auditory neurons, and ii. one or more channel closing signals adapted to close the ion channels of the corresponding ion channels. Optical stimulation signals are then produced for the optical stimulation sources based on the stimulation timing signals.

Abstract: An apparatus, method, and system disclosed herein are directed to a user equipment (UE) capable of switching an uplink modulation mode to a higher order modulation mode based on communication, or link, conditions and a condition associated with the UE. The UE, in response to receiving a request to change a current uplink modulation mode to a new modulation mode having a higher order modulation, may determine whether a current condition associated with the UE meets a predetermined condition. In response to determining that the current condition, including a current transmit power level and a current battery power level, meets the predetermined condition, the UE may generate a confirmation indicating that the current condition meets the predetermined condition, send the confirmation, and change the uplink modulation mode to the new modulation mode.

Abstract: A signal processing arrangement generates optical stimulation signals to optical stimulation contacts in an implanted cochlear implant array. An input sound signal is transformed into band pass signals that each represent an associated band of audio frequencies, with each band pass signal includes an envelope component characterizing loudness of the band pass signal, and a fine structure component characterizing temporal details of the band pass signal. One or more of the signal components of each band pass signal is half wave rectified to remove negative phase signals. Signal slope is determined that corresponds to rate of change of the rectified one or more signal components. Then constant-rate optical stimulation pulses are generated for one or more given band signals only when the rectified one or more signal components has a positive signal slope.

Abstract: Insights about customers and/or merchants obtained through analysis of transaction data between the customers and the merchants can be provided to a review platform, merchants, or even customers themselves. A method can include receiving transaction data, the transaction data comprising at least two transaction attributes; segmenting the transaction data based on a particular insight option of a plurality of insight options; and determining a resulting insight for the particular insight option based on the segmented transaction data. The transaction data can include attributes such as a merchant identifier, a masked user identifier, a time and date, a payment method, a country code of an issuer, a country code of the merchant, a state code of the merchant, a city code of the merchant, or a category code of the merchant.

Abstract: Architecture and techniques for identifying types of objects based upon disruption of signal strength of millimeter-wave (mmW) transmitted signals caused by objects interfering with or blocking transmitted signals within a wireless communication network. In particular, types of objects may be identified based upon drops in signal strength due to objects moving between a transmission point and a receiving device. Based on factors including one or more of a size of an object, materials that make up the object, etc., the object causes a drop in received signal strength, thereby causing a change in a pattern of received signal strength. The changed pattern may be compared with base patterns that are correlated with a type or identity of an object in order to identify the object.

Abstract: Arrangements are described for fitting a cochlear implant to a recipient patient. An acoustic stimulus is delivered to an ear of the patient over a range of acoustic frequencies. A baseline acoustic transfer function resulting from the acoustic stimulus is measured using a response sensor configured to sense pressure response characteristics in the middle ear. And a maximum comfortable level (MCL) of stimulation is determined for at least one stimulation contact in the electrode array, based on performing an electrically evoked measurement to an electric stimulation signal and using the response sensor to measure a modified acoustic transfer function. The modified acoustic transfer function is compared to the baseline acoustic transfer function to determine when a stapedius reflex response occurs and identify the MCL.

Abstract: Architecture and techniques for identifying types of objects based upon disruption of signal strength of millimeter-wave (mmW) transmitted signals caused by objects interfering with or blocking transmitted signals within a wireless communication network. In particular, types of objects may be identified based upon drops in signal strength due to objects moving between a transmission point and a receiving device. Based on factors including one or more of a size of an object, materials that make up the object, etc., the object causes a drop in received signal strength, thereby causing a change in a pattern of received signal strength. The changed pattern may be compared with base patterns that are correlated with a type or identity of an object in order to identify the object.