mhurhangee/ep-ind-claims huggingface dataset:
A microphone module comprising a microphone having a sound receiving portion; a casing having a chamber therein with at least one end open, said microphone mounted in said chamber such that at least a portion of said chamber extends beyond said sound receiving portion; and a film completely covering said open end of said chamber, characterized in that said film is adapted to have at least one slit therein in a portion of said film that is located over said chamber open end, said slit extending completely through said film thereby separating said film into a first vibrating portion and a second vibrating portion when a sound wave strikes said film. a microphone having a sound receiving portion; a casing having a chamber therein with at least one end open, said microphone mounted in said chamber such that at least a portion of said chamber extends beyond said sound receiving portion; and a film completely covering said open end of said chamber, characterized in that said film is adapted to have at least one slit therein in a portion of said film that is located over said chamber open end, said slit extending completely through said film thereby separating said film into a first vibrating portion and a second vibrating portion when a sound wave strikes said film.
A method, comprising: distributing a plurality of subcarriers of a resource unit, RU, to generate a distributed-tone RU, dRU, on an 80MHz frequency segment or subblock; and communicating with a communication entity using the dRU; characterized in that the dRU is generated based on a tone indices table generated with a tone distribution pattern K td (r, k) of the dRU based on a formula as follows: K td r, k = RU start r + I i + j*N p, wherein RU start (r) denotes a first or starting tone index for the dRU, N p denotes a repetition period of a plurality of tones of the dRU, l (i) denotes a tone distribution pattern within one repetition period, r denotes a logical RU index, i = mod(k, L) = 0, 1, 2,..., L - 1, k = 0, 1,..., N st - 1, L denotes a number of tones within one repetition period, N st denotes a number of tones associated with the dRU, and j = 0, 1, 2,..., | N st /L | - 1, wherein the dRU comprises a 106-tone dRU with the RU start (r) = {0, 6, 9, 2, 8, 1, 4, 10} and the l (i) = {0, 3, 13, 26} for the logical RU index being equal to 1, 3 or 4, l (i) = {0, 13, 23, 26} for the logical RU index being equal to 2 or 7, and l (i) = {0, 10, 13, 23} for the logical RU index being equal to 5, 6 or 8. distributing a plurality of subcarriers of a resource unit, RU, to generate a distributed-tone RU, dRU, on an 80MHz frequency segment or subblock; and communicating with a communication entity using the dRU; characterized in that the dRU is generated based on a tone indices table generated with a tone distribution pattern K td (r, k) of the dRU based on a formula as follows: K td r, k = RU start r + I i + j*N p, wherein RU start (r) denotes a first or starting tone index for the dRU, N p denotes a repetition period of a plurality of tones of the dRU, l (i) denotes a tone distribution pattern within one repetition period, r denotes a logical RU index, i = mod(k, L) = 0, 1, 2,..., L - 1, k = 0, 1,..., N st - 1, L denotes a number of tones within one repetition period, N st denotes a number of tones associated with the dRU, and j = 0, 1, 2,..., | N st /L | - 1, wherein the dRU comprises a 106-tone dRU with the RU start (r) = {0, 6, 9, 2, 8, 1, 4, 10} and the l (i) = {0, 3, 13, 26} for the logical RU index being equal to 1, 3 or 4, l (i) = {0, 13, 23, 26} for the logical RU index being equal to 2 or 7, and l (i) = {0, 10, 13, 23} for the logical RU index being equal to 5, 6 or 8.
Gas-liquid separator in an anode circuit of a fuel cell for separation of at least one liquid constituent, in particular H 2 O, from a gaseous constituent, in particular H 2, having at least one vessel which is supplied at least indirectly via a connecting conduit with a medium from an anode region of the fuel cell, and/or a medium, in particular a motive medium, is supplied from a tank via a metering valve by means of a tank conduit, where at least the liquid constituent of the medium is separated out in the vessel, where the separated constituent of the medium is discharged from the vessel via a return conduit, and the remaining gaseous component of the medium, in particular H 2, is returned to the anode region via a discharge conduit, characterized in that the vessel has an interior and a flow region that are separated from one another by means of a membrane, where the flow region is fluidically connected to the connecting conduit or the tank conduit and the outflow conduit, where the interior is at least indirectly fluidically connected to the connecting conduit via a branch conduit, and where the interior is at least indirectly fluidically connected to the return conduit and where a constituent of the gaseous medium is separated from the H 2 by means of the membrane, where the membrane takes the form of a wall of a first jet pump disposed at least partly within in the vessel, where the flow region runs within the jet pump and where the jet pump has an intake region and/or a diffuser region.
A method for managing map data of a digital map of a navigation apparatus, in which - the map data comprise original map data, which are stored in a memory, which is assigned to the navigation apparatus, - the original map data are in each case assigned to one of a plurality of original map tiles, - the original map tiles are each assigned a validity indicator, - in the event of an update of an update map tile, associated update map data are assigned and permanently stored, wherein the particular update map tile is provided to replace an assigned original map tile, - after the update map data of the particular update map tile have been successfully stored, the validity indicator of the assigned original map tile is setto invalid, - wherein, during operation of the navigation apparatus, the particular original map tile is loaded if the validity indicator assigned thereto is valid, and otherwise the update map tile assigned to the particular original map tile is loaded, - wherein the particular validity indicator is stored in header data of the particular original map tile, characterised in that - after the update map data of the particular update map tile has been successfully stored, the memory path of the update map data of the particular update map tile is stored in the associated validity indicator, - wherein the original map data are protected by means of a signature and the particular validity indicators are stored outside the signature. - the map data comprise original map data, which are stored in a memory, which is assigned to the navigation apparatus, - the original map data are in each case assigned to one of a plurality of original map tiles, - the original map tiles are each assigned a validity indicator, - in the event of an update of an update map tile, associated update map data are assigned and permanently stored, wherein the particular update map tile is provided to replace an assigned original map tile, - after the update map data of the particular update map tile have been successfully stored, the validity indicator of the assigned original map tile is setto invalid, - wherein, during operation of the navigation apparatus, the particular original map tile is loaded if the validity indicator assigned thereto is valid, and otherwise the update map tile assigned to the particular original map tile is loaded, - wherein the particular validity indicator is stored in header data of the particular original map tile, - after the update map data of the particular update map tile has been successfully stored, the memory path of the update map data of the particular update map tile is stored in the associated validity indicator, - wherein the original map data are protected by means of a signature and the particular validity indicators are stored outside the signature.
A method for allocating transmission resources to a User Equipment, UE, in a Universal Terrestrial Radio Access Network, UTRAN, network by a Node B comprising a Radio Network Layer, RNL, including a Radio Resource Control, RRC, entity, characterized in that the method comprises: determining, by said RRC entity of the Node B, a need for a persistent transmission resource allocation to said UE or a need for modifying it in response to a data flow set up with said UE and via said Node B wherein the persistent transmission resource allocation implies an allocation of transmission resources for more than one transmission interval, and wherein the determination comprises considering at least one of: a type of the data flow, QoS requirements of the user equipment associated with the data flow, a total number of active user equipments in a cell, types of data flows currently in use by other user equipments, resource allocations of the other user equipments, and current load in said UTRAN; in response to the determination of the need for the persistent transmission resource allocation to said UE or the need for modifying it allocating, by a persistent allocation manager function of the RRC entity in the RNL, transmission resources to the UE for the data flow over a plurality of time transmission intervals; and informing the UE of the allocated transmission resources with a single RRC signaling message at said RNL. determining, by said RRC entity of the Node B, a need for a persistent transmission resource allocation to said UE or a need for modifying it in response to a data flow set up with said UE and via said Node B wherein the persistent transmission resource allocation implies an allocation of transmission resources for more than one transmission interval, and wherein the determination comprises considering at least one of: a type of the data flow, QoS requirements of the user equipment associated with the data flow, a total number of active user equipments in a cell, types of data flows currently in use by other user equipments, resource allocations of the other user equipments, and current load in said UTRAN; in response to the determination of the need for the persistent transmission resource allocation to said UE or the need for modifying it allocating, by a persistent allocation manager function of the RRC entity in the RNL, transmission resources to the UE for the data flow over a plurality of time transmission intervals; and informing the UE of the allocated transmission resources with a single RRC signaling message at said RNL.
A system for automatic zone visualization, the system comprising: an ultrasound probe operable to scan an anatomical region comprising a prostate; and an ultrasound imaging workstation operably connected to the ultrasound probe to track a generation of an ultrasound volume of the prostate within a patient space responsive to a scan of the anatomical region by the ultrasound probe, wherein the ultrasound imaging workstation is operable to track a labeling of procedurally-defined zones of the prostate within the ultrasound volume derived from an ultrasound volume model of the prostate labeled with the procedurally-defined zones, and wherein the procedurally-defined zones within the ultrasound volume facilitate an ultrasound-guided visualization of the prostate according to a biopsy sampling scheme, which is added to the ultrasound volume model of the prostate by identifying a number of N locations in the prostate as geometrical objects which serve to guide a systematic sampling of the prostate. an ultrasound probe operable to scan an anatomical region comprising a prostate; and an ultrasound imaging workstation operably connected to the ultrasound probe to track a generation of an ultrasound volume of the prostate within a patient space responsive to a scan of the anatomical region by the ultrasound probe, wherein the ultrasound imaging workstation is operable to track a labeling of procedurally-defined zones of the prostate within the ultrasound volume derived from an ultrasound volume model of the prostate labeled with the procedurally-defined zones, and wherein the procedurally-defined zones within the ultrasound volume facilitate an ultrasound-guided visualization of the prostate according to a biopsy sampling scheme, which is added to the ultrasound volume model of the prostate by identifying a number of N locations in the prostate as geometrical objects which serve to guide a systematic sampling of the prostate. wherein the ultrasound imaging workstation is operable to track a labeling of procedurally-defined zones of the prostate within the ultrasound volume derived from an ultrasound volume model of the prostate labeled with the procedurally-defined zones, and wherein the procedurally-defined zones within the ultrasound volume facilitate an ultrasound-guided visualization of the prostate according to a biopsy sampling scheme, which is added to the ultrasound volume model of the prostate by identifying a number of N locations in the prostate as geometrical objects which serve to guide a systematic sampling of the prostate.
A device for filling and advancing a series of containers including a first container and a next container, the device including: - a first assembly including a first restraining member, and - a second assembly including a second restraining member; wherein the first and second assemblies are positionable relative to each other in at least the following configurations: (i) an object-receiving configuration in which the first restraining member and the second restraining member are inserted into the first container, and at least partially define a gap therebetween for deposition of an object; (ii) a transitional configuration in which the second restraining member is raised relative to the first container, and a lower portion of the second restraining member is positioned above and behind a leading internal face of the next container to be insertable into the next container; (iii) a container advancement configuration in which at least part of the second restraining member is in contact with and applying an advancement force to the leading internal face of the next container. - a first assembly including a first restraining member, and - a second assembly including a second restraining member; (i) an object-receiving configuration in which the first restraining member and the second restraining member are inserted into the first container, and at least partially define a gap therebetween for deposition of an object; (ii) a transitional configuration in which the second restraining member is raised relative to the first container, and a lower portion of the second restraining member is positioned above and behind a leading internal face of the next container to be insertable into the next container; (iii) a container advancement configuration in which at least part of the second restraining member is in contact with and applying an advancement force to the leading internal face of the next container.
Assembly of a shut-off flap for blocking a fluid duct and of a drive shaft for driving said flap extending across a bore formed in the shut-off flap, - the drive shaft being rotationally driven, on one side of the flap, by a drive portion of the shaft pivot-mounted in a first rotary bearing, - the drive shaft extending from the drive portion as far as an end portion, the assembly being characterized in that the said end portion is covered by a cap, that rotates as one with the shaft, on the other side of the flap, the cap being pivot mounted in a second bearing with the same cradle diameter as the first, the connection between the shaft and the cap being a sealed connection. - the drive shaft being rotationally driven, on one side of the flap, by a drive portion of the shaft pivot-mounted in a first rotary bearing, - the drive shaft extending from the drive portion as far as an end portion,
A method of rendering spatialized audio, comprising: detecting a first head pose of a listener; rendering first audio data corresponding to a first plurality of sources to second audio data corresponding to a second plurality of sources based on the detected first head pose of the listener; detecting a most current second head pose as part of the most recently available pose data of the listener; and rendering the second audio data corresponding to the second plurality of sources to third audio data corresponding to a third plurality of sources based on the detected most current second head pose of the listener, wherein the second plurality of sources consists of fewer sources than the first plurality of sources, wherein rendering the first audio data to the second audio data comprises processing the first audio data, wherein rendering the second audio data to the third audio data comprises processing the second audio data, and wherein the third plurality of sources consists of an equal number or fewer sources than the second plurality of sources. detecting a first head pose of a listener; rendering first audio data corresponding to a first plurality of sources to second audio data corresponding to a second plurality of sources based on the detected first head pose of the listener; detecting a most current second head pose as part of the most recently available pose data of the listener; and rendering the second audio data corresponding to the second plurality of sources to third audio data corresponding to a third plurality of sources based on the detected most current second head pose of the listener, wherein the second plurality of sources consists of fewer sources than the first plurality of sources, wherein rendering the first audio data to the second audio data comprises processing the first audio data, wherein rendering the second audio data to the third audio data comprises processing the second audio data, and wherein the third plurality of sources consists of an equal number or fewer sources than the second plurality of sources.
An exchanger (800; 1000) comprising: a seal; a first channel with an inlet and an outlet, wherein the first channel is adapted to receive a waste stream having a pressure from a process; a second channel alongside the first channel and isolated from the first channel by the seal, the second channel including an inlet and an outlet, wherein the second channel is adapted to receive at least a portion of an input stream in parallel with a pump configured to increase a pressure of the input stream to generate a high-pressure stream for use within the process; and a transfer turbine comprising: a first portion with one or more blades located within the first channel; a second portion with one or more blades located within the second channel; and a shaft connecting the first portion and the second portion, wherein the shaft extends through the seal, and wherein the shaft is adapted so that rotation of the first portion is synchronized with rotation of the second portion, wherein the transfer turbine converts some of the waste stream pressure to the input stream to generate the high-pressure stream. a seal; a first channel with an inlet and an outlet, wherein the first channel is adapted to receive a waste stream having a pressure from a process; a second channel alongside the first channel and isolated from the first channel by the seal, the second channel including an inlet and an outlet, wherein the second channel is adapted to receive at least a portion of an input stream in parallel with a pump configured to increase a pressure of the input stream to generate a high-pressure stream for use within the process; and a transfer turbine comprising: a first portion with one or more blades located within the first channel; a second portion with one or more blades located within the second channel; and a shaft connecting the first portion and the second portion, wherein the shaft extends through the seal, and wherein the shaft is adapted so that rotation of the first portion is synchronized with rotation of the second portion, wherein the transfer turbine converts some of the waste stream pressure to the input stream to generate the high-pressure stream. a first portion with one or more blades located within the first channel; a second portion with one or more blades located within the second channel; and a shaft connecting the first portion and the second portion, wherein the shaft extends through the seal, and wherein the shaft is adapted so that rotation of the first portion is synchronized with rotation of the second portion, wherein the transfer turbine converts some of the waste stream pressure to the input stream to generate the high-pressure stream.
A method of performing foreign object detection in a wireless power transmission system, the method comprising: performing a plurality of FOD, Foreign Object Detection, measurements at different times; processing the plurality of FOD measurements to obtain a FOD measurement result; and determining whether to enable or disable wireless power transfer based on the FOD measurement result, wherein the processing comprises determining whether the plurality of FOD measurements converge, and, if so, discontinuing further FOD measurements. performing a plurality of FOD, Foreign Object Detection, measurements at different times; processing the plurality of FOD measurements to obtain a FOD measurement result; and determining whether to enable or disable wireless power transfer based on the FOD measurement result, wherein the processing comprises determining whether the plurality of FOD measurements converge, and, if so, discontinuing further FOD measurements.