Abstract: Provided herein are exemplary embodiments directed to a method for creating digital media, including the placing the digital media in a computer graphics environment, the computer graphics environment further comprising visually perceptible elements appearing as real objects placed in a real world setting, and viewing the digital media when at the real world setting. Various exemplary systems include an augmented reality and virtual reality server connected to a network, and a client device connected to the network, the client device having an augmented reality and virtual reality application. Further exemplary systems include a body or motion sensor connected to the client device and/or an augmented reality and virtual reality interface connected to the client device.

Abstract: Provided herein are media, methods, kits, primers and oligonucleotide probes for use in the molecular detection of pathogens. These may be used in combination for the rapid, high-throughput screening PCR-based techniques to simultaneously detect multiple pathogens. The multiplex-detection methods have improved sensitivity and specificity for the detection of multiple pathogens simultaneously. Real-time PCR assaying techniques using such primers include microarrays and multiplex arrays, the latter optionally simultaneously with oligonucleotide TaqMan probes.

Abstract: A wireless communication scenario comprises a radio propagation environment providing for a propagation of a wireless signal via a path component, the wireless communication scenario comprising a plurality of devices configured for wirelessly communicating in the wireless communication scenario. A member of the wireless communication scenario is configured for identifying the path component of the wireless signal travelling through the radio propagation environment.

Abstract: A polymeric radiation-source with customized geometries to maximize receipt of radiation into treatment areas that is formed from either radioisotopes molecularly bonded to a polymer or radioisotopes encased within a polymer.

Abstract: Methods and systems are provided that determine data characterizing spatial variation of vibrational dysfunction (such as HFTO) along the BHA of a drilling system. In embodiments, such data can be determined from a minimal set of measurements of any or all of four variables that include: vibration amplitude; vibration wavelength; vibration frequency; and the axial position of the first vibrational node. In embodiments, such data can be determined from measurements of vibration amplitude and vibration frequency of a BHA at two fixed positions along the BHA (e.g., with two sensors offset axially along the BHA). In other embodiments, such data can be generated from the estimated position of the first vibrational node and measurements of vibration amplitude and vibration frequency by a single sensor disposed at a fixed axial position along the BHA.

Abstract: The invention relates to a cleaning composition comprising a) from 1 to 30 wt. % of a primary alkyl sulfate surfactant; b) from 1 to 10 wt. % of an amphoteric surfactant selected from betaines, glucamides and sultaines; and, c) from 1 to 10 wt. % of a rhamnolipid biosurfactant surfactant; wherein the ratio of primary alkyl sulfate surfactant to biosurfactant is from 8:1 to 1:10; and, wherein the ratio of primary alkyl sulfate surfactant to amphoteric surfactant is from 8:1 to 1:10; wherein the primary alkyl sulfate is a C10-C20 alkyl sulphate; to a method of treatment of a substrate; to a method of treatment of a textile; and to the use of a combination of a biosurfactant and amphoteric surfactant to improve the cold storage stability of primary alkyl sulfate containing formulations.

Abstract: Device and method of forming the device are disclosed. The method includes providing a substrate prepared with a complementary metal oxide semiconductor (CMOS) region and a sensor region. A substrate cavity is formed in the substrate in the sensor region, the substrate cavity including cavity sidewalls and cavity bottom surface and a membrane which serves as a substrate cavity top surface. The cavity bottom surface includes a reflector. The method also includes forming CMOS devices in the CMOS region, forming a micro-electrical mechanical system (MEMS) component on the membrane, and forming a back-end-of-line (BEOL) dielectric disposed on the substrate having a plurality of interlayer dielectric (ILD) layers. The BEOL dielectric includes an opening to expose the MEMS component. The opening forms a BEOL cavity above the MEMS component.

Abstract: An apparatus comprises an antenna array comprising a plurality of antennas. The apparatus comprises a communication interface for receiving a control signal. The apparatus is configured to form a first radio frequency beam in accordance with a predetermined test case independent from the control signal using the antenna array. The apparatus is configured to form a second radio frequency beam that is different from the predetermined test case responsive to instructions contained in the control signal.

Abstract: An apparatus is configured for wirelessly communicating in a wireless communication network. The apparatus comprises a wireless interface arrangement for the wireless communication. The apparatus is configured for wirelessly transmitting, to a receiving apparatus, a diversity signal comprising a diversity information indicating a radio channel diversity (RCD) capability of the apparatus, the RCD capability relating to a capability of the apparatus to perform diversity for the wireless communication.

Abstract: A wireless communication system configured for providing wireless communication is adapted to provide a first radio channel in a radio propagation channel and in a first frequency interval and to provide a second radio channel in the radio propagation channel and in a second frequency interval differing from the first frequency interval. The wireless communication system is to obtain first radio channel information indicating a behaviour of the first radio channel and to manage beamforming for the second radio channel based on the first radio channel information.

Abstract: Systems and methods for providing secure access to delegated resources are disclosed. In accordance with embodiments, a method may include receiving a delegation request, where the delegation request is associated with a user account; determining a list of delegable resources for which the user account has permission to delegate access; presenting the list of delegable resources via a user interface; receiving from the user interface, a user selection of a delegable resource from the list; generating a delegate identifier; associating an access permission to the delegate identifier, where the access permission provides access to the delegable resource; receiving the delegate identifier via the user interface; authenticating the delegate identifier; and providing access to the delegable resource based on the access permission.

Abstract: Among network devices for use within a wireless communication network, a transmitting network device is configured to transmit to a receiving network device via a control channel one or more control signals for configuring the receiving network device for a characterization of at least one of the transmitting network device and the receiving network device and/or for a characterization of one or more communication channels between the transmitting network device and the receiving network device.

Abstract: A control unit configured for controlling communication of members of a first communication system is to transmit a first signal relating to a configuration of the first communication system or a different second communication system and/or to receive a second signal relating to the configuration of the first communication system or the second communication system.

Abstract: The invention concerns a detergent composition, comprising: (a) from 1 to 40 wt. % of a secondary alkane sulfonate surfactant with an average of 15 to 18 carbon atoms in a linear alkane chain; (b) from 1 to 40 wt. % of an anionic surfactant other than a); and, (c) from 0.01 to 8%, of an alkyl hydroxysultaine co-surfactant; and wherein greater than 50 wt. % of the alkyl chain of the secondary alkane sulfonate is C15 to C18, secondary alkane sulfonate; the invention also concerns a method, preferably a domestic method of treating a textile.

Abstract: A network node configured for wirelessly transceiving signals for operating in a wireless communication network is to form a response beam pattern responsive to a recognized stimulus of a stimulating node based on a criterion. The network node is to receive a signal indicated a request to influence the criterion and is to influence the criterion based on the request.

Abstract: An apparatus comprises an antenna array comprising a plurality of antennas. The apparatus comprises a communication interface for receiving a control signal. The apparatus is configured to form a first radio frequency beam in accordance with a predetermined test case independent from the control signal using the antenna array. The apparatus is configured to form a second radio frequency beam that is different from the predetermined test case responsive to instructions contained in the control signal.

Abstract: The invention concerns a detergent composition, comprising: (a) from 1 to 40 wt. % of a secondary alkane sulfonate surfactant with an average of 15 to 18 carbon atoms in a linear alkane chain; (b) from 1 to 40 wt. % of an nonionic surfactant; and, (c) from 0.01 to 8%, of an alkyl hydroxysultaine co-surfactant; wherein the total weight ratio of total weight of anionic surfactants to total weight of nonionic surfactants ranges from 30:1 to 1:2; and, wherein the hydroxy sultaine cosurfactant has the formula: R-N+(CH3)2—CH2—CH(OH)—CH2—SO3—M+ where R is an alkyl chain with C10-C18 and M is any suitable cationic counterion; the invention also concerns a method, preferably a domestic method of treating a textile.

Abstract: An apparatus for determining a position of an entity of a wireless communication network, the comprises a position determining processor to determine a position of a first entity (gNB, UE, IoT) in the wireless communication network using one or more position measurements between the first entity and one or more second entities (gNB, UE, IoT), each of the first and second entities comprising one or more antennas to transmit and/or receive a radio signal for the position measurement. The position determining processor is to determine the position of the first entity using a transmission reception reference point, TRRP, of the radio signal at the one or more antennas of the first entity and/or the one or more second entities.

Abstract: Among network devices for use within a wireless communication network, a transmitting network device is configured to transmit to a receiving network device via a control channel one or more control signals for configuring the receiving network device for a characterization of at least one of the transmitting network device and the receiving network device and/or for a characterization of one or more communication channels between the transmitting network device and the receiving network device.

Abstract: Techniques for determining depths of provenance of drill cuttings contained in a drilling fluid received from a wellbore. The drilling fluid contains drill cuttings of different sizes that arrive at surface at different times, and the drill cuttings originate from different formation layers at different depths along the wellbore. Such techniques may include extracting samples of drill cuttings from the drilling fluid and repeating this step as necessary to provide samples of drill cuttings that arrive at surface at different recorded times; characterizing one or more formation attributes associated with the drill cuttings; and for each formation attribute, estimating a distribution of formation attribute characterization versus depth of provenance.