mhurhangee/patent-ind-claim-en huggingface dataset:
A method of treating a food product comprising: a) applying a first antimicrobial composition to the food product; b) sequentially applying a second antimicrobial composition to the food product within 30 minutes of the first antimicrobial composition, the second antimicrobial composition comprising 0.01 wt.% to 2 wt.% of a fatty acid, wherein the fatty acid is octanoic acid; c) packaging the food product; and d) sealing the packaging, wherein the first antimicrobial composition comprises 0.01 wt.% to 2 wt.% of an antimicrobial agent that is oxidative, wherein the oxidative antimicrobial agent is acidified sodium chlorite; wherein the fatty acid and oxidative agent are part of separate compositions. a) applying a first antimicrobial composition to the food product; b) sequentially applying a second antimicrobial composition to the food product within 30 minutes of the first antimicrobial composition, the second antimicrobial composition comprising 0.01 wt.% to 2 wt.% of a fatty acid, wherein the fatty acid is octanoic acid; c) packaging the food product; and d) sealing the packaging,
A heater comprising: a ceramic body having a rod shape; a heating resistor embedded in the ceramic body; a conductor layer on at least one end surface of the ceramic body, electrically connected to the heating resistor ; a metal cap attached to an end portion of the ceramic body at a site near the end surface, the metal cap covering at least a portion of the conductor layer and the end surface with a gap therebetween and including a through hole ; and a lead terminal inserted in the through hole and electrically connected to the conductor layer , wherein an end portion of the lead terminal disposed in the gap comprises a portion that is outside the through hole when viewed in a penetrating direction of the through hole , wherein the metal cap includes a bottom portion and a side portion , the heater being characterised in that the metal cap has a slit connecting with the through hole from the side portion . a ceramic body having a rod shape; a heating resistor embedded in the ceramic body; a conductor layer on at least one end surface of the ceramic body, electrically connected to the heating resistor ; a metal cap attached to an end portion of the ceramic body at a site near the end surface, the metal cap covering at least a portion of the conductor layer and the end surface with a gap therebetween and including a through hole ; and a lead terminal inserted in the through hole and electrically connected to the conductor layer , wherein an end portion of the lead terminal disposed in the gap comprises a portion that is outside the through hole when viewed in a penetrating direction of the through hole , wherein the metal cap includes a bottom portion and a side portion , the heater being characterised in that the metal cap has a slit connecting with the through hole from the side portion .
Coffee bean feeder , intended to be interposed between a coffee bean container and a coffee bean conveying element , wherein this feeder has an inlet and an outlet , wherein said feeder is intended to be arranged with its inlet below and in alignment with an outlet of said coffee bean container and with its outlet above and in alignment with an inlet of said conveying element, wherein said coffee bean feeder includes a stationary upper plate , in which said feeder inlet is defined, a stationary lower plate , in which said feeder outlet is defined, and a body , which is arranged between said upper and lower plates , is provided with a plurality of coffee bean dosing compartments and is rotatable about its longitudinal axis, wherein said dosing compartments are made as cavities defined in said feeder body and mutually separated by partitions , characterized in that said feeder body comprises a solid core and the partitions are removably mounted to said solid core, so that the number and/or the position of said partitions can be modified.
A method, in a source node operating in a wireless communication network, the method comprising: determining that a user equipment, UE, served by the source node is a candidate for conditional handover configuration; the method characterised by sending , to a target node for conditional handover of the UE, a conditional handover request that includes one or more parameters indicative of a likelihood that handover of the UE to the target node will be executed, wherein the one or more parameters comprise a parameter representing a probability value. determining that a user equipment, UE, served by the source node is a candidate for conditional handover configuration; the method characterised by sending , to a target node for conditional handover of the UE, a conditional handover request that includes one or more parameters indicative of a likelihood that handover of the UE to the target node will be executed, wherein the one or more parameters comprise a parameter representing a probability value.
An antimicrobial composition comprising: a) a modified clay particle comprising an antimicrobial compound, the modified clay particle comprising: (i) an asymmetric 1:1 or 2:1:1 clay particle comprising alternating tetrahedral and octahedral sheets terminating with a tetrahedral sheet at one external surface plane and an octahedral sheet at another external surface plane, and (ii) at least one orally acceptable antimicrobial compound selected from a quaternary ammonium material, wherein the at least one antimicrobial compound is attached to the coordinating cation on an external surface plane of the clay particle; and b) at least one biphenol compound. wherein the at least one antimicrobial compound is cetylpyridinium chloride (CPC). a) a modified clay particle comprising an antimicrobial compound, the modified clay particle comprising: (i) an asymmetric 1:1 or 2:1:1 clay particle comprising alternating tetrahedral and octahedral sheets terminating with a tetrahedral sheet at one external surface plane and an octahedral sheet at another external surface plane, and (ii) at least one orally acceptable antimicrobial compound selected from a quaternary ammonium material, wherein the at least one antimicrobial compound is attached to the coordinating cation on an external surface plane of the clay particle; and (i) an asymmetric 1:1 or 2:1:1 clay particle comprising alternating tetrahedral and octahedral sheets terminating with a tetrahedral sheet at one external surface plane and an octahedral sheet at another external surface plane, and (ii) at least one orally acceptable antimicrobial compound selected from a quaternary ammonium material, wherein the at least one antimicrobial compound is attached to the coordinating cation on an external surface plane of the clay particle; and b) at least one biphenol compound.
A correlator system (10. 50) comprising: a plurality of numerically controlled oscillators (12, 14, 52-54) configured to produce respective replica carrier signals; a carrier multiplexer configured to select between respective replica carrier signals produced by at least two of the plurality of numerically controlled oscillators (12, 14, 52-54); a code generator configured to provide a replica code; a delay component configured to provide a delayed code from the replica code; and a code multiplexer configured to: selectively provide one of the delayed code and the replica code to a multiplier (24, 71- 76), the multiplier being configured to further receive an input stream representing a received signal and a replica carrier signal selected at the carrier multiplexer and provide a correlation result representing a similarity of the provided code to a code associated with the received input stream; and characterized in that the code multiplexer is further configured to: selectively provide code consisting of a sequence of a constant value, such that when code consisting of the sequence of the constant value is provided, the multiplier combines the selected replica carrier signal from the carrier multiplexer , the code consisting of the sequence of the constant value, and the input stream, to provide an output representing a discrete Fourier transform at a frequency represented by the selected output from the carrier multiplexer . a plurality of numerically controlled oscillators (12, 14, 52-54) configured to produce respective replica carrier signals; a carrier multiplexer configured to select between respective replica carrier signals produced by at least two of the plurality of numerically controlled oscillators (12, 14, 52-54); a code generator configured to provide a replica code; a delay component configured to provide a delayed code from the replica code; and a code multiplexer configured to: selectively provide one of the delayed code and the replica code to a multiplier (24, 71- 76), the multiplier being configured to further receive an input stream representing a received signal and a replica carrier signal selected at the carrier multiplexer and provide a correlation result representing a similarity of the provided code to a code associated with the received input stream; and characterized in that the code multiplexer is further configured to: selectively provide code consisting of a sequence of a constant value, such that when code consisting of the sequence of the constant value is provided, the multiplier combines the selected replica carrier signal from the carrier multiplexer , the code consisting of the sequence of the constant value, and the input stream, to provide an output representing a discrete Fourier transform at a frequency represented by the selected output from the carrier multiplexer .
A chloroprene rubber composition comprising: 100 parts by mass of a chloroprene-based rubber; 0.5 to 5.0 parts by mass of a sulfur-based compound represented by General Formula below; and more than 0 parts by mass and 2.0 parts by mass or less of a xanthogen disulfide compound represented by General Formula below. [In the formula, R 1 represents a hydrogen atom, a hydroxyl group, or an alkyl group having 1 to 8 carbon atoms, and R 2 and R 3 each independently represent a hydrogen atom or an alkyl group having 1 to 8 carbon atoms.] [In the formula, R 4 and R 5 each independently represent a hydrogen atom or an alkyl group having 1 to 8 carbon atoms.]
A method of generating a bitstream representative of multi-channel audio content, the method comprising: generating multi-channel audio content for transmission to a content consumer; specifying data in the bitstream comprising a plurality of matrices and the order of the plurality of matrices; and specifying audio rendering information in the bitstream, wherein the audio rendering information further includes a signal value that includes two or more bits that define an index associated with one of the plurality of matrices, wherein the index uniquely identifies which of the plurality of matrices was used to configure the audio renderer of the content creator for rendering the set of spherical harmonic coefficients to a plurality of speaker feeds when generating the multi-channel audio content. generating multi-channel audio content for transmission to a content consumer; specifying data in the bitstream comprising a plurality of matrices and the order of the plurality of matrices; and specifying audio rendering information in the bitstream, wherein the audio rendering information further includes a signal value that includes two or more bits that define an index associated with one of the plurality of matrices, wherein the index uniquely identifies which of the plurality of matrices was used to configure the audio renderer of the content creator for rendering the set of spherical harmonic coefficients to a plurality of speaker feeds when generating the multi-channel audio content.
A machine for forming filter-bags containing infusion products, including at least one transporting element configured for picking up, transporting and releasing individual filter-bags from a operating station for forming the filter-bags , rotating about a first axis (X3), to a station for preparing and packaging groups (G) of filter-bags formed; the preparing and packaging station comprising at least: - a tubular conduit having an upper end opening positioned facing the transporting element and configured for receiving single filter-bags ; - units for controlling the descent of the individual filter-bags and for defining the group (G) of filter-bags to be formed, movable along the tubular conduit ; the units being configured to form, retain and transfer the stacked group (G) of filter-bags beyond the bottom of the tubular conduit ; - a unit for transferring the group (G) of filter-bags positioned, in a receiving position, al below the tubular conduit ; the transfer unit having a body for housing the group (G) of filter-bags ; the body being associated with at least one supporting frame connected to a unit for moving the body configured to rotate about a second axis (X11) parallel to the first axis (X3) so as to allow a rotation of the body from the position for receiving the group (G) of filter-bags to a position for releasing the group (G) of filter-bags inside a box and vice versa; the transfer unit having the frame for supporting the housing body articulated to the unit for moving the body in such a way as to rotate also about a third axis (X10) transversal to the second axis (X11) of rotation of the movement unit of the body ; kinematic means of rotation about the third axis (X10) being interposed between the unit for moving the body and the supporting frame and configured to allow a synchronised rotation of the frame about the second (X11) and the third (X10) axis in such a way as to rotate and orient the group (G) of filter-bags prior to the arrival of the body in the release position inside the box . - a tubular conduit having an upper end opening positioned facing the transporting element and configured for receiving single filter-bags ; - units for controlling the descent of the individual filter-bags and for defining the group (G) of filter-bags to be formed, movable along the tubular conduit ; the units being configured to form, retain and transfer the stacked group (G) of filter-bags beyond the bottom of the tubular conduit ; - a unit for transferring the group (G) of filter-bags positioned, in a receiving position, al below the tubular conduit ; the transfer unit having a body for housing the group (G) of filter-bags ; the body being associated with at least one supporting frame connected to a unit for moving the body configured to rotate about a second axis (X11) parallel to the first axis (X3) so as to allow a rotation of the body from the position for receiving the group (G) of filter-bags to a position for releasing the group (G) of filter-bags inside a box and vice versa;
An assembly for rotational equipment, comprising: a seal device including: a plurality of seal shoes arranged around a centerline in an annular array, the plurality of seal shoes comprising a first seal shoe ; a seal base circumscribing the annular array; and a plurality of spring elements comprising a first spring element , the first spring element connecting and extending between the first seal shoe and the seal base ; a ring structure axially adjacent the seal device , the ring structure comprising a fastener aperture extending axially through the ring structure ; and a fastener mated with the fastener aperture , wherein the fastener is abutted axially against the seal device ; characterised in that the fastener axially engages an axially exterior surface at a side of the seal base . a seal device including: a plurality of seal shoes arranged around a centerline in an annular array, the plurality of seal shoes comprising a first seal shoe ; a seal base circumscribing the annular array; and a plurality of spring elements comprising a first spring element , the first spring element connecting and extending between the first seal shoe and the seal base ; a plurality of seal shoes arranged around a centerline in an annular array, the plurality of seal shoes comprising a first seal shoe ; a seal base circumscribing the annular array; and a plurality of spring elements comprising a first spring element , the first spring element connecting and extending between the first seal shoe and the seal base ; a ring structure axially adjacent the seal device , the ring structure comprising a fastener aperture extending axially through the ring structure ; and a fastener mated with the fastener aperture , wherein the fastener is abutted axially against the seal device ; characterised in that the fastener axially engages an axially exterior surface at a side of the seal base .
A method comprising: coating fuel particles with ceramic powder; placing the coated fuel particles in a first die; applying a first current and a first pressure to the first die so as to form a fuel pebble by direct current sintering, removing the fuel pebble from the first die and placing the fuel pebble within a bed of non-fueled matrix ceramic in a second die; and applying a second current and a second pressure to the second die so as to form a composite fuel pebble. coating fuel particles with ceramic powder; placing the coated fuel particles in a first die; applying a first current and a first pressure to the first die so as to form a fuel pebble by direct current sintering, removing the fuel pebble from the first die and placing the fuel pebble within a bed of non-fueled matrix ceramic in a second die; and applying a second current and a second pressure to the second die so as to form a composite fuel pebble.
A heat dissipation device comprising: a lateral-spreading heat dissipating structure having a base structure, said base structure having a top surface and a bottom surface; a close-loop shunting heat conductive structure having a first end and a second end; a distal heat dissipating segment configured to dissipate heat to an exterior of the heat dissipation device, said distal heat dissipating segment connected to at least one end of the lateral-spreading heat dissipating structure; and a heat generating device , said heat generating device connected to the top surface or the bottom surface of the base structure, wherein the first end of the closed-loop shunting heat conductive structure is connected on the opposite surface of the base structure than the heat generating device and the second end of the closed-loop shunting heat conductive structure is connected to the distal heat dissipating structure so that heat generated from the heat generating device is conductable through the closed-loop shunting heat conductive structure and through the lateral-spreading heat dissipating structure to the distal heat dissipating segment to be dissipated to the exterior of the heat dissipation device, and characterized in that the lateral-spreading heat dissipating structure comprises a different heat-conductive material than the closed-loop shunting heat conductive structure . a lateral-spreading heat dissipating structure having a base structure, said base structure having a top surface and a bottom surface; a close-loop shunting heat conductive structure having a first end and a second end; a distal heat dissipating segment configured to dissipate heat to an exterior of the heat dissipation device, said distal heat dissipating segment connected to at least one end of the lateral-spreading heat dissipating structure; and a heat generating device , said heat generating device connected to the top surface or the bottom surface of the base structure, wherein the first end of the closed-loop shunting heat conductive structure is connected on the opposite surface of the base structure than the heat generating device and the second end of the closed-loop shunting heat conductive structure is connected to the distal heat dissipating structure so that heat generated from the heat generating device is conductable through the closed-loop shunting heat conductive structure and through the lateral-spreading heat dissipating structure to the distal heat dissipating segment to be dissipated to the exterior of the heat dissipation device, and characterized in that the lateral-spreading heat dissipating structure comprises a different heat-conductive material than the closed-loop shunting heat conductive structure .
A powder composition for treating keratin fibres, preferably human keratin fibres, especially human hair, characterized in that it comprises one or more direct dye(s) selected from HC Red 18, HC Blue 18 and HC Yellow 16, one or more alkanolamine(s) as alkalizing agent, and an organic and/or inorganic pulverulent excipient.
A method of retrieving a file, the method being implemented in a data receiver, the method comprising: receiving a portion of a file segment (SGM) transmitted in accordance with a multicast protocol from a file delivery service, wherein receiving includes receiving packets of symbols and generating the file segment by decoding received packets of symbols, and when the received packets of symbols comprise repair symbols, by processing transmission errors using the received repair symbols; and receiving a file delivery table, FDT, from the file delivery service; characterized in that the file segment is divided into data fragments (mfrg) that are independently processable as the file segment, the file portion comprising one or more data fragments, the method further comprising: reading in the file delivery table location data (tlbi) indicating locations of the data fragments in the received file segment; and determining from the location data locations of non-corrupted data fragments in the received file segment. receiving a portion of a file segment (SGM) transmitted in accordance with a multicast protocol from a file delivery service, wherein receiving includes receiving packets of symbols and generating the file segment by decoding received packets of symbols, and when the received packets of symbols comprise repair symbols, by processing transmission errors using the received repair symbols; and receiving a file delivery table, FDT, from the file delivery service; characterized in that the file segment is divided into data fragments (mfrg) that are independently processable as the file segment, the file portion comprising one or more data fragments, the method further comprising: reading in the file delivery table location data (tlbi) indicating locations of the data fragments in the received file segment; and determining from the location data locations of non-corrupted data fragments in the received file segment. reading in the file delivery table location data (tlbi) indicating locations of the data fragments in the received file segment; and determining from the location data locations of non-corrupted data fragments in the received file segment.