mhurhangee/ep-ind-claims huggingface dataset:
A method for using a digital assistant operating on a device during a video call carried over a communications network between a local party and a remote party, comprising: configuring the digital assistant to listen to the video call between the local party and the remote party; initiating (1205, 1915, 2105, 3010) the digital assistant when the local party says a key word or key phrase; making a determination of an action to be performed by the digital assistant in view of what the local party says on the video call after the digital assistant is initiated; the digital assistant announcing the determined action by displaying the action using text or graphics on a user interface on the device and injecting a PIP overlay showing the interactions between the local party and the digital assistant into an outgoing video stream; the digital assistant performing the determined action; and returning the digital assistant to a listening mode so that the digital assistant is reinitiated when the locals party says the key word or key phrase. configuring the digital assistant to listen to the video call between the local party and the remote party; initiating (1205, 1915, 2105, 3010) the digital assistant when the local party says a key word or key phrase; making a determination of an action to be performed by the digital assistant in view of what the local party says on the video call after the digital assistant is initiated; the digital assistant announcing the determined action by displaying the action using text or graphics on a user interface on the device and injecting a PIP overlay showing the interactions between the local party and the digital assistant into an outgoing video stream; the digital assistant performing the determined action; and returning the digital assistant to a listening mode so that the digital assistant is reinitiated when the locals party says the key word or key phrase.
Apparatus for reducing drag in a transport vehicle having an exterior surface and comprising a first dielectric discharge barrier plasma actuator for providing a plasma jet, at least one solar array, an electronic control module and a sensor for actuating said dielectric discharge barrier plasma actuator wherein said apparatus further comprises a cover component formed to be integral with said exterior surface and disposed in registration with an area of said exterior surface and wherein said solar array is included in said cover component; said dielectric discharge barrier plasma actuator being positioned to provide a plasma jet over the exterior surface of said transport vehicle when actuated; and wherein the electronic control module and the sensor are coupled for actuating said dielectric discharge barrier plasma actuator at an unsteady actuator frequency determined based on the speed of a transport vehicle and the distance of the said dielectric discharge barrier plasma actuator electrode from the trailing edge of the transport vehicle in response to a preselected set of conditions including the transport vehicle speed exceeding a predetermined threshold below which drag will increase.
A motion vector detection device to detect a motion vector for generating a predicted image used for inter-frame prediction coding of an interlaced image, comprising: a first motion vector detection circuit configured to detect, with low pixel accuracy of one pixel unit or larger, a motion vector between a top field of an encoding target image and a top field of a reference image, a motion vector between the top field of the encoding target image and a bottom field of the reference image, a motion vector between a bottom field of the encoding target image and the top field of the reference image, and a motion vector between the bottom field of the encoding target image and the bottom field of the reference image, respectively as first motion vectors; a first motion vector extraction circuit configured to extract a preset reduced number of first motion vectors from the plurality of first motion vectors detected by the first motion vector detection circuit in both the case of generating a B picture and the case of generating a P picture; a selection circuit configured to select the first motion vectors detected by the first motion vector detection circuit in the case of generating the P picture, or select the first motion vectors extracted by the first motion vector extraction circuit in the case of generating the B picture; and a second motion vector detection circuit configured to further detect motion vectors with high pixel accuracy of smaller than one pixel unit as second motion vectors using macroblock reference image data acquired based on the first motion vectors selected by the selection circuit. a first motion vector detection circuit configured to detect, with low pixel accuracy of one pixel unit or larger, a motion vector between a top field of an encoding target image and a top field of a reference image, a motion vector between the top field of the encoding target image and a bottom field of the reference image, a motion vector between a bottom field of the encoding target image and the top field of the reference image, and a motion vector between the bottom field of the encoding target image and the bottom field of the reference image, respectively as first motion vectors; a first motion vector extraction circuit configured to extract a preset reduced number of first motion vectors from the plurality of first motion vectors detected by the first motion vector detection circuit in both the case of generating a B picture and the case of generating a P picture; a selection circuit configured to select the first motion vectors detected by the first motion vector detection circuit in the case of generating the P picture, or select the first motion vectors extracted by the first motion vector extraction circuit in the case of generating the B picture; and a second motion vector detection circuit configured to further detect motion vectors with high pixel accuracy of smaller than one pixel unit as second motion vectors using macroblock reference image data acquired based on the first motion vectors selected by the selection circuit.
A device comprising: a control module (101, 102, 103) for generating service messages, wherein said control module (101, 102, 103) is a first control point (101, 102, 103) on said device; a multiplex module for generating a multiplex message and for exchanging the service messages, with a data communication device, DCD, said multiplex message comprising: said service messages; a client ID field for identifying the control module (101, 102, 103) associated with the device and with said service messages; and a service type field for identifying a service entity (114, 115) associated with the DCD and with said service messages; the control module (101, 102, 103) being adapted to negotiate with the DCD a client ID for the client ID field; a control module (101, 102, 103) for generating service messages, wherein said control module (101, 102, 103) is a first control point (101, 102, 103) on said device; a multiplex module for generating a multiplex message and for exchanging the service messages, with a data communication device, DCD, said multiplex message comprising: said service messages; a client ID field for identifying the control module (101, 102, 103) associated with the device and with said service messages; and a service type field for identifying a service entity (114, 115) associated with the DCD and with said service messages; said service messages; a client ID field for identifying the control module (101, 102, 103) associated with the device and with said service messages; and a service type field for identifying a service entity (114, 115) associated with the DCD and with said service messages; the control module (101, 102, 103) being adapted to negotiate with the DCD a client ID for the client ID field;
A grain-oriented electrical steel sheet having a chemical composition consisting of Si: 1.0-5.0 mass% and Mn: 0.01-1.0 mass% and optionally one or more selected from Cu: 0.01-0.2 mass%, Ni: 0.01-1.0 mass%, Cr: 0.01-0.5 mass%, Sb: 0.01-0.1 mass%, Sn: 0.01-0.5 mass%, Mo: 0.01-0.5 mass% and Bi: 0.001-0.1 mass% and one or more selected from B: 0.001-0.01 mass%, Ge: 0.001-0.1 mass%, As: 0.005-0.1 mass%, P: 0.005-0.1 mass%, Te: 0.005-0.1 mass%, Nb: 0.005-0.1 mass%, Ti: 0.005-0.1 mass% and V: 0.005-0.1 mass%, the remainder being Fe and inevitable impurities, and including an underlying film composed mainly of forsterite and an overcoat film, characterized in that an average grain size of grain traces constituting the underlying film observed on a exfoliated portion side of a steel sheet after the film exfoliating test is not more than 0.6 μm, and a C-direction average size of secondary recrystallized grains is not more than 8 mm, and a twin generating ratio after the twining test is not more than 2%.
Hose holder for storing a hose at a water tap comprising a connection portion for connecting the holding device with the water tap and a holding portion for receiving the hose, wherein the connection portion comprises a tap connection portion for mechanically and fluidly coupling the hose holder with said water tap and wherein the holding portion comprises a hose receiving area for supporting the coiled hose in a hanging position such that the windings of the coiled hose are arranged in a vertical or essentially vertical plane, whereby the hose holder is adapted to be rotated around a vertical axis when coupled with the water tap, characterized in, that the holding portion comprises a hook-shaped section including an upwardly inclined hose holding portion.
A method for charging a pool cleaning robot, the method comprising: wirelessly charging a first wireless charging element (222, 223) of a pool cleaning robot; wherein the method is characterized by: positioning the first wireless charging element (222, 223) of the pool cleaning robot within a charging range of a second wireless charging element of a floating unit; wherein the floating unit is electrically and mechanically coupled to an external power source; wherein the wirelessly charging occurs while maintaining the first wireless charging element (222, 223) of the pool cleaning robot within the charging range of the second wireless charging element of the floating unit; and wherein the positioning comprises estimating, by at least one of the pool cleaning robot and the floating unit, future spatial relationship between the pool cleaning robot and the floating unit and taking into account the future spatial relationship. wirelessly charging a first wireless charging element (222, 223) of a pool cleaning robot; wherein the method is characterized by: positioning the first wireless charging element (222, 223) of the pool cleaning robot within a charging range of a second wireless charging element of a floating unit; wherein the floating unit is electrically and mechanically coupled to an external power source; wherein the wirelessly charging occurs while maintaining the first wireless charging element (222, 223) of the pool cleaning robot within the charging range of the second wireless charging element of the floating unit; and wherein the positioning comprises estimating, by at least one of the pool cleaning robot and the floating unit, future spatial relationship between the pool cleaning robot and the floating unit and taking into account the future spatial relationship. positioning the first wireless charging element (222, 223) of the pool cleaning robot within a charging range of a second wireless charging element of a floating unit; wherein the floating unit is electrically and mechanically coupled to an external power source; wherein the wirelessly charging occurs while maintaining the first wireless charging element (222, 223) of the pool cleaning robot within the charging range of the second wireless charging element of the floating unit; and wherein the positioning comprises estimating, by at least one of the pool cleaning robot and the floating unit, future spatial relationship between the pool cleaning robot and the floating unit and taking into account the future spatial relationship.
A system for characterizing a quiet zone of an over-the-air testing space, with at least one measurement antenna and at least one scattering member, wherein the scattering member is located in the quiet zone under test within the over-the-air testing space, wherein the measurement antenna is configured to at least transmit electromagnetic signals, wherein the scattering member relates to a reference scattering object as the scattering member comprises predefined scattering properties, wherein the scattering member is enabled to scatter the electromagnetic signals so as to generate scattered electromagnetic signals that are transmitted in a defined manner, and wherein the system comprises an analyzing module that is configured to analyze the scattered electromagnetic signals in order to characterize the quiet zone since the predefined scattering properties of the scattering member result in a scattered field having well-known characteristics such that deviations from the field expected are caused by the quiet zone.
A pharmaceutical composition for use in a method of wound healing, wherein the composition is administered to a tissue site by fluid instillation therapy in the form of a solution, wherein the composition comprises: one or more matrix metalloprotease substrates selected from the group consisting of gelatin and a hydrolysate thereof; one or more preservatives selected from the group consisting of ethylenediaminetetraacetic acid (EDTA), diethylene triamine pentaacetic acid (DTPA), catechins, sodium benzoate, potassium sorbate, and sodium nitrate; one or more antimicrobial agents; and a pharmaceutically acceptable carrier. one or more matrix metalloprotease substrates selected from the group consisting of gelatin and a hydrolysate thereof; one or more preservatives selected from the group consisting of ethylenediaminetetraacetic acid (EDTA), diethylene triamine pentaacetic acid (DTPA), catechins, sodium benzoate, potassium sorbate, and sodium nitrate; one or more antimicrobial agents; and a pharmaceutically acceptable carrier.
A method of making an aqueous MICR inkjet ink comprising: mixing a magnetic iron oxide with cobalt doping pigment nano powder at between 20% to 60% by weight with humectant at between 5% to 30% by weight, a polymer dispersant, a defoamer and water to create a dispersion; milling the dispersion in a wet media mill to obtain a milled emulsion having an average particle size less than 200 nm; and adding humectant, surfactant and/or solvent to the milled emulsion. mixing a magnetic iron oxide with cobalt doping pigment nano powder at between 20% to 60% by weight with humectant at between 5% to 30% by weight, a polymer dispersant, a defoamer and water to create a dispersion; milling the dispersion in a wet media mill to obtain a milled emulsion having an average particle size less than 200 nm; and adding humectant, surfactant and/or solvent to the milled emulsion.
A user equipment, comprising: a wireless interface for communication with a cellular communication network, and a control logic configured to control transitions of the user equipment between different operating states which include a power saving state (43, 44), the control logic being configured to process a device-to-device signal received directly from a further user equipment (3, 4) at the wireless interface, characterized in that the control logic is further configured to selectively control, in response to the device-to-device signal, a transition of the user equipment from the power saving state (43, 44) in which one or several access stratum functions are deactivated to a further operating state (41, 42) different from the power saving state (43, 44)), the further operating state being a Radio Resource Control, RRC, idle state or a Radio Resource Control, RRC, connected state. a wireless interface for communication with a cellular communication network, and a control logic configured to control transitions of the user equipment between different operating states which include a power saving state (43, 44), the control logic being configured to process a device-to-device signal received directly from a further user equipment (3, 4) at the wireless interface, characterized in that the control logic is further configured to selectively control, in response to the device-to-device signal, a transition of the user equipment from the power saving state (43, 44) in which one or several access stratum functions are deactivated to a further operating state (41, 42) different from the power saving state (43, 44)), the further operating state being a Radio Resource Control, RRC, idle state or a Radio Resource Control, RRC, connected state.
A combination pillow and sleeping bag configurable between a first configuration and a second configuration, the combination pillow and sleeping bag comprising: a first pillow portion; a second pillow portion detachably coupled to the first pillow portion, the second pillow portion defining a cavity; and a sleeping bag having a first end coupled to the first pillow portion and a second end coupled to the second pillow portion; wherein in the first configuration, the first and second pillow portions (18, 22) are coupled together and the sleeping bag is positioned within the cavity of the second pillow portion; and wherein in the second configuration, the first and second pillow portions (18, 22) are detached from one another and spaced apart such that the sleeping bag extends between the first and second pillow portions (18, 22), and wherein the second end of the sleeping bag is coupled to the second pillow portion around an entire perimeter of the second end of the sleeping bag such that the second pillow portion cooperates with the sleeping bag to form a closed end. a first pillow portion; a second pillow portion detachably coupled to the first pillow portion, the second pillow portion defining a cavity; and a sleeping bag having a first end coupled to the first pillow portion and a second end coupled to the second pillow portion; wherein in the first configuration, the first and second pillow portions (18, 22) are coupled together and the sleeping bag is positioned within the cavity of the second pillow portion; and wherein in the second configuration, the first and second pillow portions (18, 22) are detached from one another and spaced apart such that the sleeping bag extends between the first and second pillow portions (18, 22), and wherein the second end of the sleeping bag is coupled to the second pillow portion around an entire perimeter of the second end of the sleeping bag such that the second pillow portion cooperates with the sleeping bag to form a closed end.
Tipifarnib for use in a method of treating cetuximab-refractory squamous cell carcinoma of the head and neck (SCCHN) in a subject, wherein the SCCHN has an HRAS mutation.
Conveyor equipment with at least one endless conveyor (3, 3.5, 5), which comprises at least one conveyor element (3.1, 3.51, 5.1), for persons and/or objects, wherein at least one sensor for detection of a surface of the endless conveyor (3, 3.5, 5) and at least one circuit for preparing a sensor signal imaging the surface are provided, wherein operating variables can be generated and/or missing or damaged conveyor elements (3.1, 3.51, 5.1) can be detected from the prepared sensor signals, characterised in that the sensor is an antenna (10.1) operating in the high-frequency range and the conveyor element (3.1, 3.51, 5.1) is movable in the near field of the antenna (10.1).
An arrangement for handling shared data memory access for a Thick Control Flow, TCF, aware processor supporting TCFs with arbitrary thickness, the arrangement comprising at least a flexible latency handling unit comprising local memory and related control logic, said local memory being provided for storing shared data memory access related data, wherein the arrangement is configured to receive at least one TCF comprising a plurality of fibers, each fiber comprising a plurality of instructions, wherein each TCF is executed one instruction at a time and a step is completed when all fibers of the at least one TCF have executed an instruction, wherein the flexible latency handling unit is configured to - determine if shared data memory access is required by the at least one instruction, - if shared data memory access is required, send a shared data memory access request, - via the flexible latency handling unit, observe, once per clock cycle, if a reply to the shared data memory access request is received, - suspend continued execution of the instruction until all shared data memory references related to the instruction have been received, and - continue execution of the instruction after receiving the shared data memory references so that the delay associated with the shared data memory access, in terms of clock cycles, is dynamically determined by the actual required shared data memory access latency and corresponds to one clock cycle at minimum, such that the shared memory references generated by a previous step are completed before starting of a next step. - determine if shared data memory access is required by the at least one instruction, - if shared data memory access is required, send a shared data memory access request, - via the flexible latency handling unit, observe, once per clock cycle, if a reply to the shared data memory access request is received, - suspend continued execution of the instruction until all shared data memory references related to the instruction have been received, and - continue execution of the instruction after receiving the shared data memory references so that the delay associated with the shared data memory access, in terms of clock cycles, is dynamically determined by the actual required shared data memory access latency and corresponds to one clock cycle at minimum, such that the shared memory references generated by a previous step are completed before starting of a next step.
A device, comprising a current transformer housing and a fastening element, wherein the current transformer housing is configured in such a way that a conductor can be releasably fastened to the current transformer housing, the current transformer housing has a retaining element and the retaining element is arranged on the current transformer housing, the fastening element is guided through the retaining element, the fastening element bears at least in part against the surface of the conductor in a state in which the conductor is fastened to the current transformer housing, the fastening element in the fastened state is guided in a loop-like manner around the peripheral face of the conductor, the fastening element has a first end portion and a second end portion, which is opposite the first end portion, and the first end portion can be guided through a first through-opening provided on the retaining element, characterised in that the fastening element can be fixed to the retaining element in a secure position.