mhurhangee/patent-ind-claim-en huggingface dataset:
A carcass for a sports ball, comprising: a textile element , which is warp-knitted or weft-knitted in a single piece and defines the shape of the carcass , wherein the textile element has at least two segments which are joined together by means of a warp-knitted or weft-knitted seam , and wherein the warp-knitted or weft-knitted seam is warp-knitted or weft-knitted in a single piece with the two segments , the textile element comprising: at least one melt yarn; and at least one additional yarn. a textile element , which is warp-knitted or weft-knitted in a single piece and defines the shape of the carcass , wherein the textile element has at least two segments which are joined together by means of a warp-knitted or weft-knitted seam , and wherein the warp-knitted or weft-knitted seam is warp-knitted or weft-knitted in a single piece with the two segments , the textile element comprising: at least one melt yarn; and at least one additional yarn. at least one melt yarn; and at least one additional yarn.
A lighting module comprising: a substrate ; a plurality of light emitting devices disposed on the substrate; a resin layer disposed on the substrate and the plurality of light emitting devices ; a phosphor layer disposed on the resin layer ; and a plurality of recess portions overlapping each of the light emitting devices in a vertical direction, wherein each of the recess portions is formed to be concave toward each of the light emitting devices on an upper surface of the resin layer and includes an inclined side surface lower than the upper surface of the resin layer , characterized in that : an upper surface area of each of the recess portions includes a range of 50% to 150% of an upper surface area of each of the light emitting devices , wherein a pitch (a1) between the light emitting devices is equal to or greater than a thickness (t2) of the resin layer , wherein a shortest distance (d1) between each of the light emitting devices and each of the recess portions is in a range of 3 to 5 times a thickness (t0) of the light emitting device , and wherein the lighting module comprises a light shielding portion or a phosphor portion disposed on an upper surface of each of the light emitting devices . a substrate ; a plurality of light emitting devices disposed on the substrate; a resin layer disposed on the substrate and the plurality of light emitting devices ; a phosphor layer disposed on the resin layer ; and a plurality of recess portions overlapping each of the light emitting devices in a vertical direction, wherein each of the recess portions is formed to be concave toward each of the light emitting devices on an upper surface of the resin layer and includes an inclined side surface lower than the upper surface of the resin layer , characterized in that : an upper surface area of each of the recess portions includes a range of 50% to 150% of an upper surface area of each of the light emitting devices , wherein a pitch (a1) between the light emitting devices is equal to or greater than a thickness (t2) of the resin layer , wherein a shortest distance (d1) between each of the light emitting devices and each of the recess portions is in a range of 3 to 5 times a thickness (t0) of the light emitting device , and wherein the lighting module comprises a light shielding portion or a phosphor portion disposed on an upper surface of each of the light emitting devices . an upper surface area of each of the recess portions includes a range of 50% to 150% of an upper surface area of each of the light emitting devices , wherein a pitch (a1) between the light emitting devices is equal to or greater than a thickness (t2) of the resin layer , wherein a shortest distance (d1) between each of the light emitting devices and each of the recess portions is in a range of 3 to 5 times a thickness (t0) of the light emitting device , and wherein the lighting module comprises a light shielding portion or a phosphor portion disposed on an upper surface of each of the light emitting devices .
An inkjet recording device comprising: a nozzle that atomizes an ink to eject ink particles; a charging electrode that charges the ink particles, which have been ejected from the nozzle , to correspond to a printing character; a deflection electrode that deflects the charged ink particles which have passed through the charging electrode ; a gutter that captures a non-charged ink; an ink supply path that supplies the ink in a main ink container of the inkjet recording device to the nozzle ; an ink recovery path that recovers the non-charged ink, which has been captured by the gutter , to the main ink container ; a solvent replenishment unit that supplies a solvent to the main ink container ; and the inkjet recording device further comprises a control unit that is configured to control an entirety of the device, wherein a heating device that is installed between the ink supply path and the nozzle to heat the ink, a thermometer that detects an ink temperature of the ink heated by the heating device , and a viscometer that detects a viscosity of the ink in the main ink container are provided, and the control unit is configured to control the heating device based on the temperature detected by the thermometer such that the temperature reaches a set temperature set in a range of an ink viscosity which enables printing, and controls an amount of supply of the solvent based on a detection value of the viscometer to regulate the viscosity of the ink in the main ink container to a predetermined ink viscosity. a nozzle that atomizes an ink to eject ink particles; a charging electrode that charges the ink particles, which have been ejected from the nozzle , to correspond to a printing character; a deflection electrode that deflects the charged ink particles which have passed through the charging electrode ; a gutter that captures a non-charged ink; an ink supply path that supplies the ink in a main ink container of the inkjet recording device to the nozzle ; an ink recovery path that recovers the non-charged ink, which has been captured by the gutter , to the main ink container ; a solvent replenishment unit that supplies a solvent to the main ink container ; and the inkjet recording device further comprises a control unit that is configured to control an entirety of the device, wherein a heating device that is installed between the ink supply path and the nozzle to heat the ink, a thermometer that detects an ink temperature of the ink heated by the heating device , and a viscometer that detects a viscosity of the ink in the main ink container are provided, and the control unit is configured to control the heating device based on the temperature detected by the thermometer such that the temperature reaches a set temperature set in a range of an ink viscosity which enables printing, and controls an amount of supply of the solvent based on a detection value of the viscometer to regulate the viscosity of the ink in the main ink container to a predetermined ink viscosity.
A method for controling access network stored content, wherein the method is performed in a network storage system used in a message service, wherein the method comprises: receiving , by the network storage system, a creating request for creating a shared folder sent by a first user; storing , by the network storage system, an access rule of the shared folder to permit a second user to write in the shared folder, wherein the access rule of the shared folder is set by the first user; receiving , by the network storage system, an upload request from the second user to upload a media content to the shared folder; permiting , by the network storage system, uploading the media content to the shared folder according to the access rule after succeeded authentication; storing , by the network storage system, the media content shared by the second user in the shared folder; receiving , by the network storage system, an obtain request for obtaining the media content in the shared folder sent by the first user; providing , by the network storage system, the media content to the first user. receiving , by the network storage system, a creating request for creating a shared folder sent by a first user; storing , by the network storage system, an access rule of the shared folder to permit a second user to write in the shared folder, wherein the access rule of the shared folder is set by the first user; receiving , by the network storage system, an upload request from the second user to upload a media content to the shared folder; permiting , by the network storage system, uploading the media content to the shared folder according to the access rule after succeeded authentication; storing , by the network storage system, the media content shared by the second user in the shared folder; receiving , by the network storage system, an obtain request for obtaining the media content in the shared folder sent by the first user; providing , by the network storage system, the media content to the first user.
A meat processing apparatus comprising an automated analysis stage comprising: a radiation-shielded chamber , a tomography scanner with a scanner controller, and arranged to perform analysis of meat parts placed in carriers , a digital data processor linked with the scanner for processing scan data and providing outputs, a port for entry and exit of meat parts placed in carriers into and out of the chamber for analysis by the scanner, a handling system for automated movement of the carriers between the port and the scanner , and a controller for the handling system, wherein the apparatus further comprises a pre-scan inspection station (283-285) with one or more sensors and arranged to detect volume and/or density of anatomical meat parts on a carrier and an inspection controller configured to feed corresponding data to the scanner controller, and the scanner controller is configured to modify scanner operation according to said inspection data, and wherein the scanner controller is configured to change scanner voltage and/or current to compensate for different anatomical meat part depth and/or volume or product artifacts so as to minimize degradation of the scanner. a radiation-shielded chamber , a tomography scanner with a scanner controller, and arranged to perform analysis of meat parts placed in carriers , a digital data processor linked with the scanner for processing scan data and providing outputs, a port for entry and exit of meat parts placed in carriers into and out of the chamber for analysis by the scanner, a handling system for automated movement of the carriers between the port and the scanner , and a controller for the handling system, wherein the apparatus further comprises a pre-scan inspection station (283-285) with one or more sensors and arranged to detect volume and/or density of anatomical meat parts on a carrier and an inspection controller configured to feed corresponding data to the scanner controller, and the scanner controller is configured to modify scanner operation according to said inspection data, and wherein the scanner controller is configured to change scanner voltage and/or current to compensate for different anatomical meat part depth and/or volume or product artifacts so as to minimize degradation of the scanner.
Ventilation system for an interior of a motor vehicle, having at least one air duct and at least one air filtration device , the air filtration device comprising at least one holding device having at least one holding element , the holding device being configured to fasten the holding element detachably on the motor vehicle, characterised in that the air filtration device has at least a lichen and/or a moss as a natural filtration medium, and the filtration medium is held at least in part in an airflow of the air duct by means of the holding element .
An enteral sustained-release sugar alcohol additive, comprising an inner layer structure and an outer layer structure, wherein the inner layer structure contains components of xylitol and agar, and the outer layer structure contains components of carrageenan or gellan gum or xanthan gum or guar gum, vitamin B12, L-arabinose, and fermented bifidobacterium or fermented propionibacterium or fermented lactobacillus.
A powder switch , particularly for selectively supplying different types and/or kinds of powders to a powder dispensing device , wherein the powder switch comprises the following: - a first powder inlet and at least one further second powder inlet ; and - a powder outlet , wherein either the first powder inlet or the at least one second powder inlet is selectively fluidly connectable to the powder outlet of the powder switch , wherein an actuating element is provided to which the first and the at least one second powder inlet are coupled in such a manner as to be movable relative to the powder outlet of the powder switch , wherein the actuating element comprises a carriage assembly in which the first powder inlet and the at least one second powder inlet are accommodated, wherein the carriage assembly is movable relative to the powder outlet , wherein the powder outlet is configured in a powder outlet block which is accommodated in a housing of the powder switch , and wherein at least one groove facing toward the carriage assembly in which a sealing ring is accommodated is configured in the powder outlet block ; and wherein a compressed gas channel system preferably at least partially integrated into the powder outlet block is further provided, by means of which the at least one groove facing the carriage assembly can be pressurized as needed by the compressed air such that the sealing ring accommodated in the groove is pressed against the carriage assembly for the purpose of sealing. - a first powder inlet and at least one further second powder inlet ; and - a powder outlet ,
An absorbent article comprising: a chassis comprising a topsheet , a backsheet , and an absorbent core disposed between the topsheet and backsheet; and an ear joined to the chassis and comprising: a laminate comprising a first nonwoven and second nonwoven and an elastomeric material sandwiched between said first and second nonwovens, wherein the laminate further comprises a plurality of ultrasonic bonds which join the nonwoven layers through the elastomeric material; and wherein: the elastomeric material comprises a maximum dimension, Y, in a stretch direction; the elastomeric material defines a primary region comprising an elastic region and one or more unstretched zones ; the elastic region comprises a maximum dimension, X, in the stretch direction and the one or more unstretched zones comprise an aggregate lateral width of Wd, and a ratio of Wd to Y is 0.3 or less; wherein the stretch direction comprises a lateral direction of the absorbent article; wherein Wd is 13 mm or less, and wherein the ratio of Wd to X is 0.55 or less. a chassis comprising a topsheet , a backsheet , and an absorbent core disposed between the topsheet and backsheet; and an ear joined to the chassis and comprising: a laminate comprising a first nonwoven and second nonwoven and an elastomeric material sandwiched between said first and second nonwovens, wherein the laminate further comprises a plurality of ultrasonic bonds which join the nonwoven layers through the elastomeric material; and wherein: the elastomeric material comprises a maximum dimension, Y, in a stretch direction; the elastomeric material defines a primary region comprising an elastic region and one or more unstretched zones ; the elastic region comprises a maximum dimension, X, in the stretch direction and the one or more unstretched zones comprise an aggregate lateral width of Wd, and a ratio of Wd to Y is 0.3 or less; the elastomeric material comprises a maximum dimension, Y, in a stretch direction; the elastomeric material defines a primary region comprising an elastic region and one or more unstretched zones ; the elastic region comprises a maximum dimension, X, in the stretch direction and the one or more unstretched zones comprise an aggregate lateral width of Wd, and a ratio of Wd to Y is 0.3 or less; wherein the stretch direction comprises a lateral direction of the absorbent article; wherein Wd is 13 mm or less, and wherein the ratio of Wd to X is 0.55 or less.
A method of introducing a specific sequence into a target site on a double-stranded nucleic acid in a cell, the method comprising: contacting the cell with or expressing in the cell a nuclease that induces DSBs only in specific phases of the cell cycle, comprising a fusion protein comprising a cell-cycle regulated protein domain linked to an engineered nuclease, wherein the cell-cycle regulated protein domain is from CtIP, Cdk2, Cyclin A1, Cyclin A2, Cyclin B1, or Gemini, and wherein the engineered nuclease is selected from the group consisting of a ZFN, a TALEN, a CRISPR/Cas9, and a CRISPR RNA-guided FokI nucleases (RFNs)
A headlamp for a vehicle, comprising: a first plurality of LEDs (111-113) mounted on a first mount aligned in a first direction; a second plurality of LEDs (124-126) mounted on a second mount adjacent the first mount, the second plurality of LEDs being aligned in a second direction, wherein the first direction is aligned obliquely with respect to the second direction; a first projection lens oriented to receive light emitted from the first plurality of LEDs for projecting a first light output, and a second projection lens oriented to receive light emitted from the second plurality of LEDs for projecting a second light output; an optic spanning the first light output and second light output, the optic being oriented for shaping the first light output and the second light output to create a light pattern ahead of the vehicle; and a controller adapted to independently control each of the first plurality of LEDs and the second plurality of LEDs for adaptively dimming portions of the light pattern, characterised by at least one of the first projection lens and the second projection lens comprising a toric-shaped lens surface adapted for shaping light emitted from the first plurality of LEDs and the second plurality of LEDs, respectively. a first plurality of LEDs (111-113) mounted on a first mount aligned in a first direction; a second plurality of LEDs (124-126) mounted on a second mount adjacent the first mount, the second plurality of LEDs being aligned in a second direction, wherein the first direction is aligned obliquely with respect to the second direction; a first projection lens oriented to receive light emitted from the first plurality of LEDs for projecting a first light output, and a second projection lens oriented to receive light emitted from the second plurality of LEDs for projecting a second light output; an optic spanning the first light output and second light output, the optic being oriented for shaping the first light output and the second light output to create a light pattern ahead of the vehicle; and a controller adapted to independently control each of the first plurality of LEDs and the second plurality of LEDs for adaptively dimming portions of the light pattern, characterised by at least one of the first projection lens and the second projection lens comprising a toric-shaped lens surface adapted for shaping light emitted from the first plurality of LEDs and the second plurality of LEDs, respectively.
A hybrid automatic repeat request, HARQ, retransmission method, comprising: determining a transmission parameter ; and selecting dynamically a transmission starting position of each retransmission redundancy version from a circular buffer according to the transmission parameter ; the transmission parameter at least comprises a coding parameter of a low-density parity-check, LDPC, code; the coding parameter at least comprises an information bit length and a coding rate; wherein the selecting dynamically the transmission starting position of each retransmission redundancy version from the circular buffer according to the transmission parameter comprises: determining a version number of each retransmission redundancy version; and selecting the transmission starting position of each retransmission redundancy version from the circular buffer according to the information bit length, the coding rate, and the version number of each retransmission redundancy version. determining a transmission parameter ; and selecting dynamically a transmission starting position of each retransmission redundancy version from a circular buffer according to the transmission parameter ; the transmission parameter at least comprises a coding parameter of a low-density parity-check, LDPC, code; the coding parameter at least comprises an information bit length and a coding rate; wherein the selecting dynamically the transmission starting position of each retransmission redundancy version from the circular buffer according to the transmission parameter comprises: determining a version number of each retransmission redundancy version; and selecting the transmission starting position of each retransmission redundancy version from the circular buffer according to the information bit length, the coding rate, and the version number of each retransmission redundancy version. determining a version number of each retransmission redundancy version; and selecting the transmission starting position of each retransmission redundancy version from the circular buffer according to the information bit length, the coding rate, and the version number of each retransmission redundancy version.
A disk blank for producing commutator bars of a disk commutator , comprising a carbon mold body made of carbon material for forming tread segments of the commutator bars and comprising a contact arrangement made of a carbon and arranged on the carbon mold body and comprising a contact material having contact metal for forming connecting segments of the commutator bars, the contact arrangement comprising contact bodies spaced apart from each other via transition areas , said carbon mold body forming a continuous first layer and said contact arrangement forming a second layer disrupted by the transition areas in such a manner that the transition areas do not comprise any contact material, characterized in that said contact bodies are realized as contact-material mold bodies and are connected to the carbon mold body by compression molding in such a manner that the disk blank is realized as a multi-layered body, and the contact bodies are formed as multi-layered bodies made of at least two contact layers, comprising an inner contact layer for forming a contact body base and an outer contact layer arranged on the inner contact layer for forming a contact-body upper part .
An audio signal decoding method comprising: a long-term prediction information decoding step of decoding a time-domain pitch period code to obtain a time-domain pitch period L; and a period conversion step of obtaining, as a converted interval T 1 , a frequency-domain sample interval corresponding to the time-domain pitch period L, decoding a first frequency-domain pitch period code to obtain a multiple value indicating how many times a first frequency-domain pitch period T is greater than the converted interval T 1 , and obtaining, as the first frequency-domain pitch period T, the converted interval T 1 multiplied by the multiple value. a long-term prediction information decoding step of decoding a time-domain pitch period code to obtain a time-domain pitch period L; and a period conversion step of obtaining, as a converted interval T 1 , a frequency-domain sample interval corresponding to the time-domain pitch period L, decoding a first frequency-domain pitch period code to obtain a multiple value indicating how many times a first frequency-domain pitch period T is greater than the converted interval T 1 , and obtaining, as the first frequency-domain pitch period T, the converted interval T 1 multiplied by the multiple value.