mhurhangee/patent-ind-claim-en huggingface dataset:
A layered structure, comprising: a substrate composed of germanium including a first porous multilayer having a first porosity; an active quantum well capping layer epitaxially grown over the first porous multilayer; a second porous multilayer having the first porosity over the active quantum well capping layer, wherein edges of the second porous multilayer align with edges of the first porous multilayer . a substrate composed of germanium including a first porous multilayer having a first porosity; an active quantum well capping layer epitaxially grown over the first porous multilayer; a second porous multilayer having the first porosity over the active quantum well capping layer, wherein edges of the second porous multilayer align with edges of the first porous multilayer .
A printing apparatus comprising: a printhead configured to discharge ink; a carriage , on which the printhead is mounted, configured to move in a first direction (X) such that the printhead moves across a printing region (R1) where a printing operation by the printhead is performed and a standby region (R2) adjacent to the printing region; a cap arranged in the standby region and configured to suck the ink from the printhead; and a wiper configured to perform wiping for the printhead, wherein the cap can be displaced to a first position (P1') and a second position (P2'), wherein the first position (P1') of the cap corresponds to a cleaning position (P1) of the printhead and is farther from the printing region (R1) in the first direction (X) than the second position (P2'), and wherein, at the first position (P1'), the cap can be displaced to an upper first position to cap the printhead at the cleaning position (P1), characterized in that at the first position (P1'), the cap can further be displaced to a lower first position to be separated from the printhead, allowing the wiper to wipe the printhead by passing through a space between the cap at the lower first position and the printhead at the cleaning position (P1). a printhead configured to discharge ink; a carriage , on which the printhead is mounted, configured to move in a first direction (X) such that the printhead moves across a printing region (R1) where a printing operation by the printhead is performed and a standby region (R2) adjacent to the printing region; a cap arranged in the standby region and configured to suck the ink from the printhead; and a wiper configured to perform wiping for the printhead, wherein the cap can be displaced to a first position (P1') and a second position (P2'), wherein the first position (P1') of the cap corresponds to a cleaning position (P1) of the printhead and is farther from the printing region (R1) in the first direction (X) than the second position (P2'), and wherein, at the first position (P1'), the cap can be displaced to an upper first position to cap the printhead at the cleaning position (P1), characterized in that at the first position (P1'), the cap can further be displaced to a lower first position to be separated from the printhead, allowing the wiper to wipe the printhead by passing through a space between the cap at the lower first position and the printhead at the cleaning position (P1).
A method of making In (1-x) Ga x P nanostructures, wherein 0<x<1, comprising: (a) admixing InP nanostructures comprising at least one sulfur-containing ligand and a halide salt mixture, wherein to dissolve the InP nanostructures in the halide salt mixture, the InP nanostructures are ground with the halide salt mixture and heated at a temperature between about 250°C and 450°C to form a molten mixture; (b) admixing the molten mixture obtained in (a) with a gallium source at a temperature between about 290°C and 380°C; to provide the In (1-x) Ga x P nanostructures. (a) admixing InP nanostructures comprising at least one sulfur-containing ligand and a halide salt mixture, wherein to dissolve the InP nanostructures in the halide salt mixture, the InP nanostructures are ground with the halide salt mixture and heated at a temperature between about 250°C and 450°C to form a molten mixture; (b) admixing the molten mixture obtained in (a) with a gallium source at a temperature between about 290°C and 380°C;
A steering shaft for a motor vehicle, which steering shaft comprises an outer shaft which is configured as a hollow shaft and in which an inner shaft is arranged coaxially which can be telescoped relative to the outer shaft in the direction of a longitudinal axis (L) of the steering shaft and is connected in a torque-transmitting manner to the outer shaft via at least one rolling body , it being possible for the rolling body to roll in the direction of the longitudinal axis (L), and said rolling body bearing against the inner shaft and against the outer shaft in a positively locking manner between rolling body raceways in the circumferential direction with regard to a rotation about the longitudinal axis (L), the steering shaft comprising a securing element which is fixed on the outer shaft and has a coupling section which is arranged between the inner shaft and the outer shaft and via which the inner shaft and the outer shaft can be connected in a torque-transmitting manner, characterized in that the coupling section has at least one transmission body which engages in a loose positively locking connection with regard to a rotation about the longitudinal axis (L) between the rolling body raceways of the inner shaft and the outer shaft .
A method of controlling a wastewater treatment plant, the plant comprising at least one process tank, an aeration structure configured for aeration of the at least one process tank, at least one sensor for detecting a first tank parameter and a second tank parameter, and a control unit for controlling the aeration structure, the control unit comprises computer means and memory means to determine a first and a second event, wherein a first and a second predetermined time period and a first and a second threshold value are stored in the memory means, the method comprising alternating steps of: - increasing aeration to the at least one process tank when the first event occurs, wherein the first event is one of when the first threshold value of a first tank parameter is reached and when the first predetermined time period has expired, and - decreasing aeration to the at least one process tank when the second event occurs, wherein the second event is one of when the second threshold value of a second tank parameter is reached and when the second predetermined time period has expired, wherein the first and second tank parameters are selected from a group consisting of nitrate concentration, nitrite concentration, and ammonium concentration determined in the water in the at least one process tank, wherein at least one of the first and second event is when a threshold value is reached, at least one of the first and second tank parameter being ammonium concentration, wherein for said ammonium concentration at least one of the first and second threshold value is in the range of 0-10 mgN/l, and wherein the steps of increasing aeration and decreasing aeration are carried out to reduce N2O emissions from the plant. - increasing aeration to the at least one process tank when the first event occurs, wherein the first event is one of when the first threshold value of a first tank parameter is reached and when the first predetermined time period has expired, and - decreasing aeration to the at least one process tank when the second event occurs, wherein the second event is one of when the second threshold value of a second tank parameter is reached and when the second predetermined time period has expired, wherein the first and second tank parameters are selected from a group consisting of nitrate concentration, nitrite concentration, and ammonium concentration determined in the water in the at least one process tank, wherein at least one of the first and second event is when a threshold value is reached, at least one of the first and second tank parameter being ammonium concentration, wherein for said ammonium concentration at least one of the first and second threshold value is in the range of 0-10 mgN/l, and wherein the steps of increasing aeration and decreasing aeration are carried out to reduce N2O emissions from the plant.
A tunnel luminaire consisting of a luminaire housing extending along a longitudinal axis (LA) and a housing cover which is transparent at least in sections and which can be connected to the luminaire housing , which enclose a housing interior , in which a plurality of lighting means in the form of light-emitting diodes and at least one associated control unit connected to the lighting means for activating the lighting means are accommodated in the housing interior , in which at least one flat, plate-shaped carrier module extending along the longitudinal axis (LA) and having an upper and lower side (10.1, 10.2) is accommodated in the housing interior in an exchangeable manner, wherein the lighting means in the form of light-emitting diodes are arranged on its upper side (10.1) facing the housing cover and are connected to the carrier module in a thermally conductive manner for cooling purposes, wherein at least one lens system for beam shaping is associated with the lighting means and wherein the carrier module is formed in a plurality of parts and comprises at least one first carrier module part having an upper and lower side (10.1a, 10.2a) and a second carrier module part having an upper and a lowerside (10.1b, 10.2b), wherein the lighting means are arranged on the upper side (10.1a) of the first carrier module part and the at least one control unit is arranged on the lower side (10.2b) of the second carrier module part (10.2), wherein the carrier module parts are connected to the luminaire housing in a thermally conductive and exchangeable manner via at least two U-shaped retaining profiles , wherein the U-shaped retaining profiles are arranged displaceably on a housing bottom section (2.1) so that a distance between the U-shaped retaining profiles can be adjusted and wherein the first carrier module part including the lighting means and the at least one lens system forms an exchangeable assembly and the second carrier module part (10.2) forms an exchangeable assembly with the control unit .
An electronic device , comprising: a first conductive pattern that sends and receives a communication signal with regard to a communication function; a second conductive pattern that is arranged adjacent to the first conductive pattern and receives a power signal with regard to charging; a communication hardware interface comprising a bridge circuit, connected with the first conductive pattern; a processor electrically connected with the communication hardware interfaces, the processor being configured to simultaneously turn on only upper switches or only lower switches or any combination of the upper switches and the lower switches of the bridge circuit; and a shield layer having a surface, and wherein the processor is configured to control the communication hardware interface such that a closed loop including the first conductive pattern is formed if a specific power signal is supplied through the second conductive pattern, characterised in that the first conductive pattern comprises a pattern having one or more turns with respect to a point of the shield layer and the second conductive pattern comprises a pattern having one or more turns with respect to the point of the shield layer and is arranged inside the first conductive pattern, wherein the number of turns of the first conductive pattern is a natural number which corresponds to the number of turns of the second conductive pattern, wherein the first conductive pattern and the second conductive pattern are configured such that an induced signal has a same phase. a first conductive pattern that sends and receives a communication signal with regard to a communication function; a second conductive pattern that is arranged adjacent to the first conductive pattern and receives a power signal with regard to charging; a communication hardware interface comprising a bridge circuit, connected with the first conductive pattern; a processor electrically connected with the communication hardware interfaces, the processor being configured to simultaneously turn on only upper switches or only lower switches or any combination of the upper switches and the lower switches of the bridge circuit; and a shield layer having a surface, and wherein the processor is configured to control the communication hardware interface such that a closed loop including the first conductive pattern is formed if a specific power signal is supplied through the second conductive pattern, characterised in that the first conductive pattern comprises a pattern having one or more turns with respect to a point of the shield layer and the second conductive pattern comprises a pattern having one or more turns with respect to the point of the shield layer and is arranged inside the first conductive pattern, wherein the number of turns of the first conductive pattern is a natural number which corresponds to the number of turns of the second conductive pattern, wherein the first conductive pattern and the second conductive pattern are configured such that an induced signal has a same phase.
A first apparatus, in a first node, for CoMP-based resource allocation for a second node, wherein the first node and the second node belong to the same CoMP cluster, the first apparatus comprising: a first selecting module configured to select a subset of CoMP hypotheses among a plurality of CoMP hypotheses based on measurement information reported by the second node, wherein the measurement information is associated with communication quality of the second node, wherein the CoMP hypotheses in the subset of CoMP hypotheses define dimensional conditions when the second node supports CoMP, wherein the dimensional conditions include limitations of a dimension that influences the CoMP transmission performance; a first transmitting module configured to transmit a resource allocation request to the second node, wherein the resource allocation request is for indicating the selected subset of CoMP hypotheses available for the second node to select and for indicating resource information corresponding to the CoMP hypotheses in the selected subset of CoMP hypotheses; a first receiving module configured to receive feedback information from the second node in response to the resource allocation request, wherein when the feedback information indicates a CoMP hypothesis selected by the second node and defines a dimensional condition having a limitation of a corresponding dimension when the second node supports CoMP, the first receiving module is configured to perform a corresponding operation comprising actuating a coordinated transmission with the second node on the corresponding dimension. a first selecting module configured to select a subset of CoMP hypotheses among a plurality of CoMP hypotheses based on measurement information reported by the second node, wherein the measurement information is associated with communication quality of the second node, wherein the CoMP hypotheses in the subset of CoMP hypotheses define dimensional conditions when the second node supports CoMP, wherein the dimensional conditions include limitations of a dimension that influences the CoMP transmission performance; a first transmitting module configured to transmit a resource allocation request to the second node, wherein the resource allocation request is for indicating the selected subset of CoMP hypotheses available for the second node to select and for indicating resource information corresponding to the CoMP hypotheses in the selected subset of CoMP hypotheses; a first receiving module configured to receive feedback information from the second node in response to the resource allocation request, wherein when the feedback information indicates a CoMP hypothesis selected by the second node and defines a dimensional condition having a limitation of a corresponding dimension when the second node supports CoMP, the first receiving module is configured to perform a corresponding operation comprising actuating a coordinated transmission with the second node on the corresponding dimension.
A radio communication terminal apparatus comprising: integrated circuitry which, in operation, generates CSI, Channel State Information, using a desired signal component and an interference component; and a transmitter which, in operation, transmits the CSI, wherein the integrated circuitry , in operation, measures the desired signal component and the interference component using a resource indicated by resource information, wherein the resource information indicates a resource to which a reference signal is mapped, wherein, when no resource exists for measuring a desired signal component of CSI to be reported in a subframe received at timing at which trigger information that requests a CSI report is received, the integrated circuitry , in operation, uses a desired signal component of CSI to be reported that is measured before receiving the trigger information, and when a resource used to measure a desired signal component of CSI corresponding to a base station and a resource used to measure an interference component of CSI corresponding to another base station are the same, the integrated circuitry , in operation, measures the desired signal component using the resource after receiving the trigger information and measures the interference component using the interference component measured using the resource before receiving the trigger information. integrated circuitry which, in operation, generates CSI, Channel State Information, using a desired signal component and an interference component; and a transmitter which, in operation, transmits the CSI, wherein the integrated circuitry , in operation, measures the desired signal component and the interference component using a resource indicated by resource information, wherein the resource information indicates a resource to which a reference signal is mapped, wherein, when no resource exists for measuring a desired signal component of CSI to be reported in a subframe received at timing at which trigger information that requests a CSI report is received, the integrated circuitry , in operation, uses a desired signal component of CSI to be reported that is measured before receiving the trigger information, and when a resource used to measure a desired signal component of CSI corresponding to a base station and a resource used to measure an interference component of CSI corresponding to another base station are the same, the integrated circuitry , in operation, measures the desired signal component using the resource after receiving the trigger information and measures the interference component using the interference component measured using the resource before receiving the trigger information.
A passive compression wave imaging system comprising an array of sensor elements arranged in a sparse array and processing means arranged to: store a plurality of samples of the output from each of the sensor elements over a sample period; derive from the stored samples a value for each of a set of image pixels; wherein for each of the image pixels the processing means is arranged to: a. define a plurality of different sets of weights for the elements of the sparse array; b. calculate a component of a pixel value from each of the sets of weights and the stored samples; and c. sum the components of the pixel value to produce a final pixel value; characterized in that for each of the pixels the weights are defined by a weight mask defined over a coarray of the sparse array, and the processing means is arranged to centre the weight mask at a different point in the coarray for each pixel. store a plurality of samples of the output from each of the sensor elements over a sample period; derive from the stored samples a value for each of a set of image pixels; wherein for each of the image pixels the processing means is arranged to: a. define a plurality of different sets of weights for the elements of the sparse array; b. calculate a component of a pixel value from each of the sets of weights and the stored samples; and c. sum the components of the pixel value to produce a final pixel value; a. define a plurality of different sets of weights for the elements of the sparse array; b. calculate a component of a pixel value from each of the sets of weights and the stored samples; and c. sum the components of the pixel value to produce a final pixel value; characterized in that for each of the pixels the weights are defined by a weight mask defined over a coarray of the sparse array, and the processing means is arranged to centre the weight mask at a different point in the coarray for each pixel.
A mechanically propelled surface vessel having a fusiform hull and a keel in the lower part of the hull, the hull being elongated in a longitudinal direction of the vessel, the keel having at its lower end a bulb linked to the hull by a linking part of the keel, the maximum width of the linking part being smaller than the maximum width of the bulb , the maximum length of the linking part being smaller than the maximum length of the bulb , said lengths and widths being considered in the longitudinal direction of the vessel and in a horizontal transverse direction perpendicular to the longitudinal direction, respectively, wherein the hull has total width to total length ratio of less than 0.2 and a maximum length of less than 20 metres and a minimum length of at least 2.5 metres, and with a ratio of the hull height above the waterline and except possible appendices thereof to the hull height under the waterline lower than 0.8 and higher than 0.1, and wherein the mechanical propulsion includes at least one electrical motor and/or internal combustion engine and operating directly or indirectly one or several propellers or one or several turbines, the vessel having no sail, mast or rigging, or any other equipment intended to use the force of the wind, wherein the keel is ballasted and wherein the vessel is of the wave-piercing type and is configured to sail at speeds corresponding to a Froude number higher than 0.45 without however being of the "planning" type. wherein the hull has total width to total length ratio of less than 0.2 and a maximum length of less than 20 metres and a minimum length of at least 2.5 metres, and with a ratio of the hull height above the waterline and except possible appendices thereof to the hull height under the waterline lower than 0.8 and higher than 0.1, and wherein the mechanical propulsion includes at least one electrical motor and/or internal combustion engine and operating directly or indirectly one or several propellers or one or several turbines, the vessel having no sail, mast or rigging, or any other equipment intended to use the force of the wind, wherein the keel is ballasted and wherein the vessel is of the wave-piercing type and is configured to sail at speeds corresponding to a Froude number higher than 0.45 without however being of the "planning" type.