mhurhangee/patent-ind-claim-en huggingface dataset:
A dome for attachment to an in the ear canal element comprising a receiver and adapted for being inserted into an ear canal of a user, said dome being configured to be inserted into the ear canal of the user and comprising a front portion adapted to be brought into contact with the ear canal of the user, wherein said dome comprises a through-going sound canal and an elongated intermediate portion extending between a front surface of the front portion , configured for facing a tympanic membrane when inserted into the ear canal, and an attachment area of said dome , wherein the through-going sound canal is centrally arranged in said front portion and configured to allow sound to pass from said in the ear canal element to the tympanic membrane of the ear canal of the user, and said attachment area being configured to receive at least a portion of the in the ear canal element, wherein at least the front portion is adapted to substantially reach into a bony region of the ear canal of the user, wherein the dome further comprises a rear portion , wherein the rear portion is adapted to accommodate at least part of the receiver , when the in the ear canal element and the dome are connected to each other. wherein the through-going sound canal is centrally arranged in said front portion and configured to allow sound to pass from said in the ear canal element to the tympanic membrane of the ear canal of the user, and said attachment area being configured to receive at least a portion of the in the ear canal element, wherein at least the front portion is adapted to substantially reach into a bony region of the ear canal of the user, wherein the dome further comprises a rear portion , wherein the rear portion is adapted to accommodate at least part of the receiver , when the in the ear canal element and the dome are connected to each other.
A multilayer piston insulator , comprising: a plurality of axially aligned disks of a disk stack comprising a first disk , a second disk , and a third disk , wherein the second disk is coupled coaxially between the first disk and the third disk and comprises a different material than the first disk and the third disk, and wherein the disk stack is configured to couple to a hydraulic piston ; the multilayer piston insulator characterized in that the second disk comprises a first circumferential wall extending perpendicular to the second disk proximate an outer diameter of the second disk defining a disk cup . a plurality of axially aligned disks of a disk stack comprising a first disk , a second disk , and a third disk , wherein the second disk is coupled coaxially between the first disk and the third disk and comprises a different material than the first disk and the third disk, and wherein the disk stack is configured to couple to a hydraulic piston ; the multilayer piston insulator characterized in that the second disk comprises a first circumferential wall extending perpendicular to the second disk proximate an outer diameter of the second disk defining a disk cup .
A retrievable vascular filter , comprising: a filter structure configured to trap embolic matter in a vascular vessel; a retrieval structure connected to the filter structure, for retrieval of the vascular filter from the vessel; a first echogenic marker on the filter; and a second echogenic marker on the filter; characterised in that the first and second echogenic markers are longitudinally spaced a distance (d) from one another to enable visualization with an intravascular ultrasound probe, and wherein said distance is greater than 3mm; wherein the first and second echogenic markers are operable to generate discrete, spaced ultrasound images of the first and second echogenic markers demarking a retrieval structure capture zone between the first and second echogenic markers; and wherein the distance is sufficient to enable the intravascular ultrasound probe to be positioned between the first echogenic marker and the second echogenic marker at a location where neither the first echogenic marker nor the second echogenic marker is visually observed with the intravascular ultrasound probe. a filter structure configured to trap embolic matter in a vascular vessel; a retrieval structure connected to the filter structure, for retrieval of the vascular filter from the vessel; a first echogenic marker on the filter; and a second echogenic marker on the filter; characterised in that the first and second echogenic markers are longitudinally spaced a distance (d) from one another to enable visualization with an intravascular ultrasound probe, and wherein said distance is greater than 3mm; wherein the first and second echogenic markers are operable to generate discrete, spaced ultrasound images of the first and second echogenic markers demarking a retrieval structure capture zone between the first and second echogenic markers; and wherein the distance is sufficient to enable the intravascular ultrasound probe to be positioned between the first echogenic marker and the second echogenic marker at a location where neither the first echogenic marker nor the second echogenic marker is visually observed with the intravascular ultrasound probe.
A composition for use in a method of reducing the allergenicity of a cat, wherein an effective amount of said composition is administered to said cat, and wherein said composition comprises (i) a modified virus-like particle (VLP) of cucumber mosaic virus (CMV) with at least one first attachment site; (ii) at least one Fel d1 protein with at least one second attachment site; and wherein said modified VLP comprises at least one modified CMV polypeptide, wherein said modified CMV polypeptide comprises (a) a CMV polypeptide comprising (i) an amino acid sequence of a coat protein of CMV; or (ii) a mutated amino acid sequence, wherein said mutated amino acid sequence and said coat protein of CMV show a sequence identity of at least 90 %; and (b) a T helper cell epitope, wherein said T helper cell epitope is a PADRE sequence or is derived from tetanus toxin; wherein said virus-like particle and said Fel d1 protein are linked through said at least one first and said at least one second attachment site. (i) a modified virus-like particle (VLP) of cucumber mosaic virus (CMV) with at least one first attachment site; (ii) at least one Fel d1 protein with at least one second attachment site; and wherein said modified VLP comprises at least one modified CMV polypeptide, wherein said modified CMV polypeptide comprises (a) a CMV polypeptide comprising (i) an amino acid sequence of a coat protein of CMV; or (ii) a mutated amino acid sequence, wherein said mutated amino acid sequence and said coat protein of CMV show a sequence identity of at least 90 %; and (b) a T helper cell epitope, wherein said T helper cell epitope is a PADRE sequence or is derived from tetanus toxin; (a) a CMV polypeptide comprising (i) an amino acid sequence of a coat protein of CMV; or (ii) a mutated amino acid sequence, wherein said mutated amino acid sequence and said coat protein of CMV show a sequence identity of at least 90 %; and (i) an amino acid sequence of a coat protein of CMV; or (ii) a mutated amino acid sequence, wherein said mutated amino acid sequence and said coat protein of CMV show a sequence identity of at least 90 %; and (b) a T helper cell epitope, wherein said T helper cell epitope is a PADRE sequence or is derived from tetanus toxin; wherein said virus-like particle and said Fel d1 protein are linked through said at least one first and said at least one second attachment site.
A hydrogen storage device provided in a vehicle that uses hydrogen as a fuel, the hydrogen storage device comprising: a plurality of receptacles ; a plurality of hydrogen tanks ; and a flow channel through which hydrogen flows from the receptacles to the hydrogen tanks , wherein: the flow channel has a confluence point (A) configured such that the hydrogen merges into one on a downstream side of the receptacles ; the flow channel is configured to branch from the confluence point (A) into the plurality of hydrogen tanks ; characterised in that in the flow channel , a length of a flow channel from every receptacle in the hydrogen storage device to the confluence point (A) is shorter than a length of a flow channel from the confluence point (A) to every hydrogen tank in the hydrogen storage device . a plurality of receptacles ; a plurality of hydrogen tanks ; and a flow channel through which hydrogen flows from the receptacles to the hydrogen tanks , wherein: the flow channel has a confluence point (A) configured such that the hydrogen merges into one on a downstream side of the receptacles ; the flow channel is configured to branch from the confluence point (A) into the plurality of hydrogen tanks ; the flow channel has a confluence point (A) configured such that the hydrogen merges into one on a downstream side of the receptacles ; the flow channel is configured to branch from the confluence point (A) into the plurality of hydrogen tanks ;
A wireless communication device for a base station side, comprising: at least one processor configured to acquire a distribution profile of user equipments; determine, based on the distribution profile of the user equipments, a Channel State Information Reference Signal CSI-RS mechanism to be adopted; generate indication information for informing a user equipment of the CSI-RS mechanism to be adopted; and control, according to the CSI-RS mechanism, a transmission of a CSI-RS to the user equipment. acquire a distribution profile of user equipments; determine, based on the distribution profile of the user equipments, a Channel State Information Reference Signal CSI-RS mechanism to be adopted; generate indication information for informing a user equipment of the CSI-RS mechanism to be adopted; and control, according to the CSI-RS mechanism, a transmission of a CSI-RS to the user equipment.
Acoustic transducer capable of converting an acoustic signal into an electrical signal, comprising an element that is mobile under the effect of said acoustic signal, a fixed element arranged opposite the mobile element, a cavity , and a dissipative element interposed between the mobile element and the fixed element, the coupled system constituted by the mobile element, the dissipative element and the cavity having a natural frequency corresponding to a resonance frequency of the transducer at which its sensitivity is maximum, the mobile element, the fixed element, the dissipative element and the cavity being configured so that the quality factor of the acoustic transducer is greater than two, characterized in that the mobile element is a mobile electrode comprising a deformable membrane, the fixed element is a fixed electrode , and the dissipative element is a resistive element, so that the transducer is a capacitive transducer, the cavity has a general shape of a straight prism or of a cylinder or of a frustum, said prism, respectively said cylinder, respectively said frustum comprising a first base and a second base distinct from the second base, the mobile element forming the first base of the prism, respectively of the cylinder, respectively of the frustum, the fixed element being arranged inside said prism, respectively said cylinder, respectively said frustum, raised with respect to the second base of the prism, respectively of the cylinder, respectively of the frustum.
A method for detecting control information by a User Equipment, UE , in a wireless communication system supporting reconfiguration of radio resources, the method comprising: receiving a first uplink-downlink, UL-DL, configuration on system information block, SIB; receiving a radio resource reconfiguration message including a second UL-DL configuration via a Physical Downlink Control Channel, PDCCH; and monitoring a PDCCH during an on-duration time on a downlink subframe and a special subframe including a downlink pilot time slot, DwPTS, based on the second UL-DL configuration, wherein the on-duration time is counted based on the downlink subframe and the special subframe including the DwPTS based on the first UL-DL configuration, wherein the first and the second UL-DL configurations respectively indicate a first pattern of 10 subframes and a second pattern of 10 subframes, wherein each of the first and second patterns is a combination of at least one uplink subframe, at least one downlink subframe, and at least one special subframe including the DwPTS. receiving a first uplink-downlink, UL-DL, configuration on system information block, SIB; receiving a radio resource reconfiguration message including a second UL-DL configuration via a Physical Downlink Control Channel, PDCCH; and monitoring a PDCCH during an on-duration time on a downlink subframe and a special subframe including a downlink pilot time slot, DwPTS, based on the second UL-DL configuration, wherein the on-duration time is counted based on the downlink subframe and the special subframe including the DwPTS based on the first UL-DL configuration, wherein the first and the second UL-DL configurations respectively indicate a first pattern of 10 subframes and a second pattern of 10 subframes, wherein each of the first and second patterns is a combination of at least one uplink subframe, at least one downlink subframe, and at least one special subframe including the DwPTS.
A turbine vane assembly, comprising: a stator vane , including: a pressure side extending from a leading edge to a trailing edge ; and a suction side extending from the leading edge to the trailing edge, the pressure side and the suction side together defining an internal vane cavity therebetween, the internal vane cavity configured for a cooling airflow to flow therethrough; an internal vane rib extending into the internal vane cavity from one or more of the pressure side or the suction side; a vane insert positioned in the internal vane cavity; and a flow discourager configured to prevent the cooling airflow from flowing past the internal vane rib; characterized in that : the flow discourager is positioned at the vane insert and retained in an insert pocket of the vane insert . a stator vane , including: a pressure side extending from a leading edge to a trailing edge ; and a suction side extending from the leading edge to the trailing edge, the pressure side and the suction side together defining an internal vane cavity therebetween, the internal vane cavity configured for a cooling airflow to flow therethrough; a pressure side extending from a leading edge to a trailing edge ; and a suction side extending from the leading edge to the trailing edge, the pressure side and the suction side together defining an internal vane cavity therebetween, the internal vane cavity configured for a cooling airflow to flow therethrough; an internal vane rib extending into the internal vane cavity from one or more of the pressure side or the suction side; a vane insert positioned in the internal vane cavity; and a flow discourager configured to prevent the cooling airflow from flowing past the internal vane rib; characterized in that : the flow discourager is positioned at the vane insert and retained in an insert pocket of the vane insert .
An electroporation apparatus, comprising: a mixing chamber which includes interior chamber wall sections and interior chamber walls, two inlet ports , oriented nonparallel to each other, adjacent to a top corner of the top chamber wall section of said chamber for separate entry of two different water-based liquid flow streams that mix in said chamber providing a liquid flow mixture, a vertical first straight chamber wall section extending downward from said inlet ports , a first curved chamber wall section connected to said vertical first straight chamber wall section for redirecting the direction of said liquid flow mixture, a second curved chamber wall section connected to said first curved chamber wall section and connected to the top chamber wall section for further redirecting said liquid flow mixture, a liquid outlet port in communication with said second curved chamber section , and electrodes on opposing sides of said chamber , said electrodes serving as chamber electrode walls of said chamber. a mixing chamber which includes interior chamber wall sections and interior chamber walls, two inlet ports , oriented nonparallel to each other, adjacent to a top corner of the top chamber wall section of said chamber for separate entry of two different water-based liquid flow streams that mix in said chamber providing a liquid flow mixture, a vertical first straight chamber wall section extending downward from said inlet ports , a first curved chamber wall section connected to said vertical first straight chamber wall section for redirecting the direction of said liquid flow mixture, a second curved chamber wall section connected to said first curved chamber wall section and connected to the top chamber wall section for further redirecting said liquid flow mixture, a liquid outlet port in communication with said second curved chamber section , and electrodes on opposing sides of said chamber , said electrodes serving as chamber electrode walls of said chamber.
Process for welding a first part and a second part, said welding process comprising: - a linear friction step during which the two parts are rubbed against one another in a linear movement, - a first cooling step during which the temperature of the parts thus welded is reduced to ambient temperature, said process being characterized in that it comprises: - a heating step during which the parts thus welded are heated to a temperature above a temperature of transition between a two-phase α-β field and a single-phase β field of the material constituting the two parts, and - a second cooling step during which the temperature of the parts thus heated is reduced to ambient temperature. - a linear friction step during which the two parts are rubbed against one another in a linear movement, - a first cooling step during which the temperature of the parts thus welded is reduced to ambient temperature, - a heating step during which the parts thus welded are heated to a temperature above a temperature of transition between a two-phase α-β field and a single-phase β field of the material constituting the two parts, and - a second cooling step during which the temperature of the parts thus heated is reduced to ambient temperature.
A single-groove blind fastener, comprising a rivet and a collar, wherein the rivet consists of a rivet head (1.1), a polished rod (1.2), a locking groove (1.3), a tail broached groove (1.4) and a tail tooth (1.5) in sequence, and the collar consists of a sleeve (2.1) and a cap head (2.2); and a tail of the rivet is a single-groove short tail structure, a ratio of length of the tail broached groove (1.4) to total length of the tail tooth (1.5) is 0.1 to 2, an included angle A between a generatrix at a bottom of the tail broached groove (1.4) and an axis of the rivet is -30° to 0°, two axial ends at the bottom of the tail broached groove (1.4) are fillet transition structures, a ratio of length of a flat portion of the tail tooth (1.5) to the total length of the tail tooth (1.5) is 0.1 to 1, and a tail of the tail tooth (1.5) is a fillet transition structure.
A method of manufacturing a battery including a container including a bottom portion, long-sidewall portions each standing on a corresponding one of longer side portions of the bottom portion, and short-sidewall portions each standing on a corresponding one of shorter side portions of the bottom portion, an electrode assembly housed in the container, a lid closing the container, and an electrode terminal, the container having a cuboid shape, the bottom portion being rectangular, the long-sidewall portions each being rectangular, and the short-sidewall portions each being rectangular, said manufacturing method comprising: folding a flat plate to form a shape of the container, the flat plate being made of metal and having an unfolded form of the container, characterized by welding portions of the flat plate which are mutually abutting after said folding, wherein, in said welding, welding is performed such that a difference in dimension between the bottom portion of the container and a corresponding opening portion is less than or equal to 1 mm. folding a flat plate to form a shape of the container, the flat plate being made of metal and having an unfolded form of the container, characterized by welding portions of the flat plate which are mutually abutting after said folding, wherein, in said welding, welding is performed such that a difference in dimension between the bottom portion of the container and a corresponding opening portion is less than or equal to 1 mm.
A razor cartridge comprising: a housing ; a blade assembly mounted to the housing , the blade assembly comprising at least one razor blade defined by a substrate comprising: a first portion comprising first and second outer surfaces ; and a second portion comprising first and second sections separated by a split line (SL), wherein the first section comprises a first facet and an end facet, the second section comprises an end facet, the end facets of the first and second sections converge at a tip to define a cutting edge , wherein a shoulder is positioned between the first facet and the end facet of the first section and defines a skin-contacting surface. a housing ; a blade assembly mounted to the housing , the blade assembly comprising at least one razor blade defined by a substrate comprising: a first portion comprising first and second outer surfaces ; and a second portion comprising first and second sections separated by a split line (SL), a first portion comprising first and second outer surfaces ; and a second portion comprising first and second sections separated by a split line (SL), wherein the first section comprises a first facet and an end facet, the second section comprises an end facet, the end facets of the first and second sections converge at a tip to define a cutting edge , wherein a shoulder is positioned between the first facet and the end facet of the first section and defines a skin-contacting surface.