mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for facilitating forwarding packets in a content centric network, CCN, the method comprising: receiving, by a content producing device, a packet that corresponds to a first Interest for a Content Object from a content requesting device, wherein the first Interest includes a unique name corresponding to the Content Object; responsive to determining, by the content producing device, that additional time is required to generate the Content Object, generating, by the content producing device, a notification message which indicates a time period after which a second Interest for the Content Object is to be sent out by the content requesting device; and transmitting, by the content producing device, the notification message to the content requesting device; responsive to transmitting the notification message, receiving, by the content producing device, the second Interest from the content requesting device; generating, by the content producing device, the Content Object; and responsive to receiving the second Interest, transmitting, by the content producing device, the Content Object to the content requesting device. receiving, by a content producing device, a packet that corresponds to a first Interest for a Content Object from a content requesting device, wherein the first Interest includes a unique name corresponding to the Content Object; responsive to determining, by the content producing device, that additional time is required to generate the Content Object, generating, by the content producing device, a notification message which indicates a time period after which a second Interest for the Content Object is to be sent out by the content requesting device; and transmitting, by the content producing device, the notification message to the content requesting device; responsive to transmitting the notification message, receiving, by the content producing device, the second Interest from the content requesting device; generating, by the content producing device, the Content Object; and responsive to receiving the second Interest, transmitting, by the content producing device, the Content Object to the content requesting device.
An electrophotographic photosensitive member comprising a support and a photosensitive layer provided thereon, wherein the surface of the electrophotographic photosensitive member has a plurality of depressed portions which are independent from one another, wherein the ratio (Rdv/Rpc) of the depth (Rdv) of each depressed portion to the major-axis diameter (Rpc) of each depressed portion is more than 1.0 and not more than 7.0, where the depth (Rdv) is the distance between the deepest part of each depressed portion and the opening of each depressed portion, and wherein the depressed portions, Rpc, and Rdv are determined according to the description.
A gas turbine combustor comprising: a combustion chamber to which fuel and air are supplied; a first burner located on an upstream side of the combustion chamber, the first burner jetting fuel into the combustion chamber and jetting air into the combustion chamber in a swirling manner; a plurality of second burners arranged around the first burner, each of the second burners supplying a premixed gas of air and fuel to the combustion chamber; an annular bulkhead disposed between the first burner and the second burners, the annular bulkhead having an inclined surface formed to broaden toward the downstream side of the combustion chamber; and a plurality of air jet ports formed in the inclined surface of the annular bulkhead, each of the air jet ports being adapted to jet air into the combustion chamber; characterized in that if the number of the second burners arranged around the first burner is K, the number of the air jet ports provided is K × n + 1 (n = 1, 2, 3, · · ·). a combustion chamber to which fuel and air are supplied; a first burner located on an upstream side of the combustion chamber, the first burner jetting fuel into the combustion chamber and jetting air into the combustion chamber in a swirling manner; a plurality of second burners arranged around the first burner, each of the second burners supplying a premixed gas of air and fuel to the combustion chamber; an annular bulkhead disposed between the first burner and the second burners, the annular bulkhead having an inclined surface formed to broaden toward the downstream side of the combustion chamber; and a plurality of air jet ports formed in the inclined surface of the annular bulkhead, each of the air jet ports being adapted to jet air into the combustion chamber; characterized in that if the number of the second burners arranged around the first burner is K, the number of the air jet ports provided is K × n + 1 (n = 1, 2, 3, · · ·).
An image processing device comprising: a data input for receiving spectral computed tomography volumetric image data organized in voxels, said volumetric image data comprises multispectral information for each voxel; a calcium surface feature analyzer for estimating, for each voxel of said volumetric image data and based on said multispectral information, a first value indicative of a maximum probability that a local neighborhood around said voxel corresponds to a calcium surface structure and a second value indicative of an orientation of said calcium surface structure that corresponds to said maximum; a probability processor for calculating a probability map indicative of a probability, for each voxel of said volumetric image data, that said voxel represents a bone or hard plaque structure, taking at least said first value, said second value and said multispectral information into account; and a segmentation unit for segmenting bone and/or hard plaque structures in said volumetric image data based on said probability map. a data input for receiving spectral computed tomography volumetric image data organized in voxels, said volumetric image data comprises multispectral information for each voxel; a calcium surface feature analyzer for estimating, for each voxel of said volumetric image data and based on said multispectral information, a first value indicative of a maximum probability that a local neighborhood around said voxel corresponds to a calcium surface structure and a second value indicative of an orientation of said calcium surface structure that corresponds to said maximum; a probability processor for calculating a probability map indicative of a probability, for each voxel of said volumetric image data, that said voxel represents a bone or hard plaque structure, taking at least said first value, said second value and said multispectral information into account; and a segmentation unit for segmenting bone and/or hard plaque structures in said volumetric image data based on said probability map.
A packaging material for a cell including a laminate with at least a base material layer, an adhesive layer, a metal layer and a sealant layer laminated in this order, wherein the metal layer is an aluminum foil having a 0.2% yield strength of 64 to 85 N/mm 2 when a tensile test is conducted in a parallel direction with respect to a rolling direction, and wherein the aluminum foil satisfies a tensile rupture strength of 100 to 110 N/mm 2 when a tensile test is conducted in a parallel direction with respect to a rolling direction.
A method for developing a virtual channel matrix for mapping analysis channels to stimulation channels for a cochlear implant patient comprising: selecting a stimulation channel and measuring the amplitude growth function for the selected stimulation channel in response to commands to the cochlear implant to apply electrical stimulation pulses for the stimulation channel, where each stimulation pulse comprises a negative (401, 401a, 401b) and positive phase separated in time by a first inter-phase-gap; measuring the amplitude growth function for the selected stimulation channel in response to commands to the cochlear implant to apply electrical stimulation pulses for the stimulation channel, where each stimulation pulse comprises a negative (401, 401a, 401b) and positive phase separated in time by a second inter-phase-gap and whereby the first and second inter-phase-gaps are different; determining the slopes of the measured amplitude growth functions for the stimulation channel measured with the first and second inter-phase-gaps, and calculating an indicator based at least in part on the difference of the slopes of the amplitude growth functions indicative of the local neural survival for that stimulation channel; and repeating this process for each stimulation channel where an indicator shall be derived; selecting for the virtual channel matrix the stimulation channels with best local neural survival by optimizing a function based at least in part on the calculated indicators of the stimulation channels. selecting a stimulation channel and measuring the amplitude growth function for the selected stimulation channel in response to commands to the cochlear implant to apply electrical stimulation pulses for the stimulation channel, where each stimulation pulse comprises a negative (401, 401a, 401b) and positive phase separated in time by a first inter-phase-gap; measuring the amplitude growth function for the selected stimulation channel in response to commands to the cochlear implant to apply electrical stimulation pulses for the stimulation channel, where each stimulation pulse comprises a negative (401, 401a, 401b) and positive phase separated in time by a second inter-phase-gap and whereby the first and second inter-phase-gaps are different; determining the slopes of the measured amplitude growth functions for the stimulation channel measured with the first and second inter-phase-gaps, and calculating an indicator based at least in part on the difference of the slopes of the amplitude growth functions indicative of the local neural survival for that stimulation channel; and repeating this process for each stimulation channel where an indicator shall be derived; selecting for the virtual channel matrix the stimulation channels with best local neural survival by optimizing a function based at least in part on the calculated indicators of the stimulation channels.
Vibrator assembly for ground improvement, comprising a lock with a silo pipe and with a lock drive for moving the lock, the lock being designed to receive a bulk material and to guide it into the silo pipe, a feed hopper for feeding the bulk material to the lock, wherein a feed hopper drive is provided for moving the feed hopper between a waiting position and a docking position at a stop arranged on the lock, characterized in that a control of the feed hopper drive is designed to reduce a force of the feed hopper drive in the direction towards the stop from a first value to a second value in the docking position, wherein the second value has a smaller absolute value than a force of the lock drive, i.e. that drive force which acts on the lock. a lock with a silo pipe and with a lock drive for moving the lock, the lock being designed to receive a bulk material and to guide it into the silo pipe, a feed hopper for feeding the bulk material to the lock, wherein a feed hopper drive is provided for moving the feed hopper between a waiting position and a docking position at a stop arranged on the lock, characterized in that a control of the feed hopper drive is designed to reduce a force of the feed hopper drive in the direction towards the stop from a first value to a second value in the docking position, wherein the second value has a smaller absolute value than a force of the lock drive, i.e. that drive force which acts on the lock.
An apparatus for producing a continuously transposed cable, the apparatus comprising: a continuously transposing head including at least four transposing devices (110, 120, 130, 140, 150, 160), a cage strand for providing the transposing devices with line wires for the continuously transposed cable, and a control part for controlling the individual transposing devices (110, 120, 130, 140, 150, 160) and the continuously transposing head in order to produce the continuously transposed cable, said control part being connected to the individual transposing devices (110, 120, 130, 140, 150, 160) in the continuously transposing head; wherein the control part is provided with a processing unit and a memory unit, in which a control program for controlling the continuously transposing head is loaded on the control part, characterized by a display input part for enabling a user to access and control the control part, the display input part being connected to the control part with wired or wireless connections, said control part providing a program interface that is a control menu provided on the display input part, wherein the control part is connected to the cage strand whereby the control part is configured to receive information including the size and the number of strands of wire in the continuously transposed cable from the cage strand and is configured to control each of the transposing devices by using such information. a continuously transposing head including at least four transposing devices (110, 120, 130, 140, 150, 160), a cage strand for providing the transposing devices with line wires for the continuously transposed cable, and a control part for controlling the individual transposing devices (110, 120, 130, 140, 150, 160) and the continuously transposing head in order to produce the continuously transposed cable, said control part being connected to the individual transposing devices (110, 120, 130, 140, 150, 160) in the continuously transposing head; wherein the control part is provided with a processing unit and a memory unit, in which a control program for controlling the continuously transposing head is loaded on the control part, characterized by a display input part for enabling a user to access and control the control part, the display input part being connected to the control part with wired or wireless connections, said control part providing a program interface that is a control menu provided on the display input part, wherein the control part is connected to the cage strand whereby the control part is configured to receive information including the size and the number of strands of wire in the continuously transposed cable from the cage strand and is configured to control each of the transposing devices by using such information.
An expansion joint construction element comprising a heavy-duty dowel with a rectangular cross-section and a bearing sleeve, in which the heavy-duty dowel is intended to be supported, wherein the heavy-duty dowel is a filled hollow dowel, and that the bearing sleeve in the installed state runs with its exit face flush with an expansion joint-side outer face of a building component (B 2), in which the bearing sleeve is intended to be installed, whilst the heavy-duty dowel is intended to be installed in an adjacent building component (B 1) cast in concrete in alignment with the bearing sleeve, characterised in that double-headed bolts (26, 17) are fitted directly or indirectly both to the heavy-duty dowel and also to the bearing sleeve at two side walls (25, 16) lying opposite one another and orientated vertically in the installed position, and the hollow dowel is filled with ultrahigh-strength concrete.
Machine tool having working field illumination arranged in a housing, comprising a luminous means and a transparent element which forms a region of the housing and from which light can be coupled out from the luminous means towards the working field, it being possible for a light beam between the luminous means and the transparent element to be deflected at a reflector surface, wherein the reflector surface is arranged outside the transparent element in such a way that the light can be deflected via the reflector surface into a light entrance surface of the transparent element, characterized in that the luminous means shines with a main emission direction towards the reflector surface.
Horizontally opening roller door (1, 100, 200) comprising at least one panel in the form of a windable closure material (10, 110, 210), in particular a film, a fabric or a roller shutter curtain, wherein the panel is movable between an open position as a first end position, in which it substantially exposes a wall opening, and a closed position as a second end position, in which it substantially closes the wall opening, characterized in that a wear-free floor seal is provided by enabling a portion of the roller door that creates the floor seal, namely a lower edge of the panel or a seal attached to the lower edge of the panel, to be brought into contact with a floor or with a sealing counterpart located in the floor only at the end of a closing process, and in that at the start of an opening process this portion of the roller door can be moved away from the floor again or this portion of the roller door and the sealing counterpart can be moved away from each other again.
An add-on module for a DIN rail-mounted circuit breaker, said add-on module configured to measure at least one electrical parameter of the circuit breaker, comprising: - at least one sensor configured to measure the at least one electrical parameter; - a microprocessor for communicating the at least one electrical parameter to a secondary device, and for controlling a state of the circuit breaker; - a wireless transceiver unit for radio link communication with an external device, preferably the secondary device, characterized in that the add-on module further comprises: - a first serial connector configured to receive a power load wire; - a second serial connector configured to be connected to a power load terminal of the circuit breaker, wherein the add-on module is arrangeable in serial connection with the circuit breaker by connecting the power load wire for the terminal of the circuit breaker to the first serial connector and connecting the second serial connector to the power load terminal of the circuit breaker; and - a first switch for switching the circuit breaker between an active connected state and an inactive state, wherein the active state corresponds to a load in serial connection with the circuit breaker being enabled and the inactive state corresponds to the load in serial connection with the circuit breaker being disabled. - at least one sensor configured to measure the at least one electrical parameter; - a microprocessor for communicating the at least one electrical parameter to a secondary device, and for controlling a state of the circuit breaker; - a wireless transceiver unit for radio link communication with an external device, preferably the secondary device, - a first serial connector configured to receive a power load wire; - a second serial connector configured to be connected to a power load terminal of the circuit breaker, - a first switch for switching the circuit breaker between an active connected state and an inactive state, wherein the active state corresponds to a load in serial connection with the circuit breaker being enabled and the inactive state corresponds to the load in serial connection with the circuit breaker being disabled.
A component with a wall thickness of no more than 3 mm on at least one part of the component, wherein the component is produced via thermoplastic processing of a polymer boron nitride compound, and wherein the polymer boron nitride compound comprises a thermoplastically processable polymer material and a thermally conductive filler, wherein the filler comprises boron nitride agglomerates, and wherein the boron nitride agglomerates comprise platelet-shaped hexagonal boron nitride primary particles which are connected to one another by means of an inorganic binding phase which comprises at least one nitride and/or oxynitride.
A porous support for parallel organic synthesis which is a paper-based array comprising: a sheet of paper that contains a periodic array of areas; a solvophilic area for spotting and permeating an organic solvent comprising a reagent for synthesizing an organic compound; and a solvophobic area that surrounds the solvophilic area wherein the solvophobic area comprises a perfluorinated material such as perfluorinated polymer that repels the organic solvent. a sheet of paper that contains a periodic array of areas; a solvophilic area for spotting and permeating an organic solvent comprising a reagent for synthesizing an organic compound; and a solvophobic area that surrounds the solvophilic area wherein the solvophobic area comprises a perfluorinated material such as perfluorinated polymer that repels the organic solvent.
A method performed by a computation node for determining a performance metric for an antenna deployment, the method comprising: obtaining (500, 600, 602, 604) the antenna deployment comprising a plurality of antennas and corresponding locations for the plurality of antennas, a cell assignment for the plurality of antennas such that each antenna is assigned to one cell out of one or more cells, and a resource assignment for the plurality of antennas such that each antenna is assigned to one radio resource out of one or more radio resources; and based on the antenna deployment, the cell assignment, and the resource assignment, determining a rank of the antenna deployment, where determining the rank of the antenna deployment comprises: determining a minimum target metric required to achieve exactly a rank of one; for each cell and for each data stream in this cell: determining a target metric received in a given area; determining that a rank of this data stream is a ratio of the target metric to the minimum target metric; and determining that a rank of this cell is a sum of ranks of each data stream in this cell; and determining that the rank of the antenna deployment is a maximum rank of a rank of each of the cells. obtaining (500, 600, 602, 604) the antenna deployment comprising a plurality of antennas and corresponding locations for the plurality of antennas, a cell assignment for the plurality of antennas such that each antenna is assigned to one cell out of one or more cells, and a resource assignment for the plurality of antennas such that each antenna is assigned to one radio resource out of one or more radio resources; and based on the antenna deployment, the cell assignment, and the resource assignment, determining a rank of the antenna deployment, where determining the rank of the antenna deployment comprises: determining a minimum target metric required to achieve exactly a rank of one; for each cell and for each data stream in this cell: determining a target metric received in a given area; determining that a rank of this data stream is a ratio of the target metric to the minimum target metric; and determining that a rank of this cell is a sum of ranks of each data stream in this cell; and determining that the rank of the antenna deployment is a maximum rank of a rank of each of the cells. determining a minimum target metric required to achieve exactly a rank of one; for each cell and for each data stream in this cell: determining a target metric received in a given area; determining that a rank of this data stream is a ratio of the target metric to the minimum target metric; and determining that a rank of this cell is a sum of ranks of each data stream in this cell; and determining a target metric received in a given area; determining that a rank of this data stream is a ratio of the target metric to the minimum target metric; and determining that a rank of this cell is a sum of ranks of each data stream in this cell; and determining that the rank of the antenna deployment is a maximum rank of a rank of each of the cells.