mhurhangee/patent-ind-claim-en huggingface dataset:
A coated tool , comprising: a base member ; and a coating layer located on the base member , wherein the coating layer comprises a cubic crystal that comprises one or more kinds of elements selected from Groups 4, 5 and 6 in the periodic table, Al, Si, B, Y and Mn, and one or more kinds of elements selected from C, N and O, the coating layer comprises an AlTiN layer comprising an AlTiN crystal as the cubic crystal, in a distribution of X-ray intensity indicated at α axis of a pole figure, the X-ray intensity regarding a plane of the cubic crystal, the coating layer comprises a first peak located in a range of 15° to 30°, a second peak located in a range of 60° to 75°, and a valley part between the first peak and the second peak, the valley part comprising the X-ray intensity smaller than the X-ray intensity at each of the first peak and the second peak, and the X-ray intensity at the first peak is 1.0 times or greater of the X-ray intensity at the second peak. a base member ; and a coating layer located on the base member , wherein the coating layer comprises a cubic crystal that comprises one or more kinds of elements selected from Groups 4, 5 and 6 in the periodic table, Al, Si, B, Y and Mn, and one or more kinds of elements selected from C, N and O, the coating layer comprises an AlTiN layer comprising an AlTiN crystal as the cubic crystal, in a distribution of X-ray intensity indicated at α axis of a pole figure, the X-ray intensity regarding a plane of the cubic crystal, the coating layer comprises a first peak located in a range of 15° to 30°, a second peak located in a range of 60° to 75°, and a valley part between the first peak and the second peak, the valley part comprising the X-ray intensity smaller than the X-ray intensity at each of the first peak and the second peak, and a first peak located in a range of 15° to 30°, a second peak located in a range of 60° to 75°, and a valley part between the first peak and the second peak, the valley part comprising the X-ray intensity smaller than the X-ray intensity at each of the first peak and the second peak, and the X-ray intensity at the first peak is 1.0 times or greater of the X-ray intensity at the second peak.
A computer-implemented method comprising: receiving audio signals into which an utterance is encoded; obtaining location indicia for an area within a building where the utterance was spoken; determining a set of likelihoods based on the location indicia , each likelihood in the set corresponding to a likelihood that the utterance was spoken in a particular area of the building from a plurality of candidate areas of the building; selecting a plurality of selected areas of the building from the plurality of candidate areas of the building based on the set of likelihoods; accessing, for each selected area of the building, a model (208, 210, 212, 214,142a-d) for speech recognition associated with the respective selected area of the building; generating a composite model by weighting the accessed models for speech recognition with the likelihoods associated with the corresponding selected areas of the building; and generating a transcription of the utterance using the composite model . receiving audio signals into which an utterance is encoded; obtaining location indicia for an area within a building where the utterance was spoken; determining a set of likelihoods based on the location indicia , each likelihood in the set corresponding to a likelihood that the utterance was spoken in a particular area of the building from a plurality of candidate areas of the building; selecting a plurality of selected areas of the building from the plurality of candidate areas of the building based on the set of likelihoods; accessing, for each selected area of the building, a model (208, 210, 212, 214,142a-d) for speech recognition associated with the respective selected area of the building; generating a composite model by weighting the accessed models for speech recognition with the likelihoods associated with the corresponding selected areas of the building; and generating a transcription of the utterance using the composite model .
Transport box for packaging flat, substantially rectangular components , comprising a base and four side walls which internally have webs in the direction of the base in a particular spacing, grooves thus being formed between said webs, and dividing strips which subdivide the transport box into compartments being insertable into the grooves , the dividing strips having the same webs and grooves as in the side walls in the same spacing on both sides, and the components being held spaced apart vertically between opposite grooves , and the base having domes on which the inserted dividing strips are braced and thus held in a straight line, characterised in that the walls of the grooves are formed concave.
A method of adjusting the pH and nickel content of a nickel plating solution, the method comprising the steps of: a) diverting a portion of the nickel plating solution from a nickel plating bath to an electrolytic cell , said electrolytic cell comprising a cooled cathode and a plurality of nickel anodes capable of creating hydrogen gas on the cooled cathode when current is applied; b) applying current to the nickel anode and the cooled cathode for a period of time to increase the pH of the nickel plating solution in the electrolytic cell, wherein the electrolytic cell replenishes nickel by dissolution of the nickel anode; and c) returning the nickel plating solution in the electrolytic cell to the nickel plating bath, wherein the cathode is cooled by circulating chilled water inside the cathode, the cathode is maintained at a temperature of less than 38°C (100°F), and a current density of greater than 1615 A/m 2 (150 asf) is applied to the cathode. a) diverting a portion of the nickel plating solution from a nickel plating bath to an electrolytic cell , said electrolytic cell comprising a cooled cathode and a plurality of nickel anodes capable of creating hydrogen gas on the cooled cathode when current is applied; b) applying current to the nickel anode and the cooled cathode for a period of time to increase the pH of the nickel plating solution in the electrolytic cell, wherein the electrolytic cell replenishes nickel by dissolution of the nickel anode; and c) returning the nickel plating solution in the electrolytic cell to the nickel plating bath,
An information processing method performed by a user equipment, the method comprising: reporting a first coverage enhancement requirement to a base station at a first moment by using a random access preamble sequence, wherein the first coverage enhancement requirement has a first precision, reporting at a moment between the first moment and a second moment a message to the base station and subsequently receiving from the base station a coverage enhancement requirement indication message according to the message reported by the user equipment at the second moment after the first moment, wherein the coverage enhancement requirement indication message is used to instruct the user equipment to adjust the first coverage enhancement requirement to a second coverage enhancement requirement, the second coverage enhancement requirement has a second precision, and the second precision is higher than the first precision, obtaining, by user equipment, the second coverage enhancement requirement according to the coverage enhancement requirement indication message (S1); and communicating, by the user equipment, with the base station according to the second coverage enhancement requirement (S2). reporting a first coverage enhancement requirement to a base station at a first moment by using a random access preamble sequence, wherein the first coverage enhancement requirement has a first precision, reporting at a moment between the first moment and a second moment a message to the base station and subsequently receiving from the base station a coverage enhancement requirement indication message according to the message reported by the user equipment at the second moment after the first moment, wherein the coverage enhancement requirement indication message is used to instruct the user equipment to adjust the first coverage enhancement requirement to a second coverage enhancement requirement, the second coverage enhancement requirement has a second precision, and the second precision is higher than the first precision, obtaining, by user equipment, the second coverage enhancement requirement according to the coverage enhancement requirement indication message (S1); and communicating, by the user equipment, with the base station according to the second coverage enhancement requirement (S2).
A recombinant arginase I for use in treating a bone condition in a subject, wherein the bone condition is selected from the group consisting of: osteoporosis; inflammation in the bone; Paget's disease; osteogenesis imperfecta; fibrous dysplasis; and osteomyelitis; optionally wherein the bone condition is osteoporosis associated with an osteoclast dysfunction.
A method for performing wireless communication by a first device, the method comprising: receiving (S2040), from a base station, information related to a configured grant, CG, scheduling a CG resource; transmitting (S2050), to a second device, first sidelink data on the CG resource based on the information related to the CG; determining that the transmission of the first sidelink data is failed; receiving (S2060), from the base station, a downlink control information, DCI, which relates to a dynamic grant, DG, scheduling a DG resource, and is received through a physical downlink control channel, PDCCH, wherein the DCI includes an index of the CG; identifying the CG resource linked to the DG resource, based on the index of the CG; and retransmitting (S2070), to the second device, the first sidelink data through the DG resource. receiving (S2040), from a base station, information related to a configured grant, CG, scheduling a CG resource; transmitting (S2050), to a second device, first sidelink data on the CG resource based on the information related to the CG; determining that the transmission of the first sidelink data is failed; receiving (S2060), from the base station, a downlink control information, DCI, which relates to a dynamic grant, DG, scheduling a DG resource, and is received through a physical downlink control channel, PDCCH, wherein the DCI includes an index of the CG; identifying the CG resource linked to the DG resource, based on the index of the CG; and retransmitting (S2070), to the second device, the first sidelink data through the DG resource.
A biodegradable polyester resin prepared through an esterification reaction and a condensation polymerization reaction by adding an acid component having a weight ratio of dimethyl terephthalate as aromatic dicarboxylic acid and adipic acid as aliphatic dicarboxylic acid of 40:60 to 60:40, a glycol component of 1,4-butanediol, polyglycerol succinate as a reaction rate control agent and polyglycerol furanoate as a molecular weight increasing agent, the biodegradable polyester resin thus prepared having: - a number average molecular weight of 70,000 or more, and a weight average molecular weight of 150,000 or more, as measured by gel permeation chromatography with polystyrene as a reference material, - an acid value of 0.4 to 0.8 mg-KOH/g, as measured by the method outlined in the description and - a tensile strength of 39.2 MPa (400 kgf/cm 2 ) or more, as measured by an ISO527 test method using a 20-micron film specimen at a rate of 500 mm/min. - a number average molecular weight of 70,000 or more, and a weight average molecular weight of 150,000 or more, as measured by gel permeation chromatography with polystyrene as a reference material, - an acid value of 0.4 to 0.8 mg-KOH/g, as measured by the method outlined in the description and - a tensile strength of 39.2 MPa (400 kgf/cm 2 ) or more, as measured by an ISO527 test method using a 20-micron film specimen at a rate of 500 mm/min.
A can lid comprising: a panel portion including a rivet and a score line which is provided adjacent to the rivet and can be broken by application of an external force to form an opening piece; and a tab which is formed of a metal plate in which a resin film is laminated on at least one main surface of a base member made of a metal material, and which includes a fixing portion including a rivet hole into which the rivet is inserted, a pressing portion which is formed integrally with the fixing portion and configured to press a portion in a region defined by the score line, and a finger hook portion which is formed integrally with the pressing portion , wherein the finger hook portion includes a ring hole , and the tab further comprises a double or triple folded curl portion on an outer periphery of the pressing portion and the finger hook portion includes a double or triple folded curl portion on an inner periphery of the ring hole , characterised in that a film layer lies on an entire external surface of the tab and on the surfaces of the curl portions, wherein a part of the external surface of the panel portion is in contact with at least a part of the curl portions of the tab . a tab which is formed of a metal plate in which a resin film is laminated on at least one main surface of a base member made of a metal material, and which includes a fixing portion including a rivet hole into which the rivet is inserted, a pressing portion which is formed integrally with the fixing portion and configured to press a portion in a region defined by the score line, and a finger hook portion which is formed integrally with the pressing portion , wherein the finger hook portion includes a ring hole , and the tab further comprises a double or triple folded curl portion on an outer periphery of the pressing portion and the finger hook portion includes a double or triple folded curl portion on an inner periphery of the ring hole , characterised in that a film layer lies on an entire external surface of the tab and on the surfaces of the curl portions,
A picture coding device that partitions differential information between a picture that is a coding target and a picture that is a prediction target into a plurality of sub blocks and codes the partitioned sub blocks in a predetermined sequence, the picture coding device comprising: a significant sub block information encoder that codes significant sub block information that represents whether or not all the values of differential coefficients belonging to the sub block are zero; a significant differential coefficient information encoder that codes significant differential coefficient information that represents whether or not the value of the differential coefficient is zero; a differential coefficient value encoder that codes the value of the differential coefficient; and a context deriver that is configured to derive a neighboring significant index, wherein the neighboring significant index is a sum of the significant sub block information of a coded sub block that is neighboring to the right side of the sub block that is a coding target and the significant sub block information multiplied by 2 of a coded sub block that is neighboring to the lower side of the sub block that is a coding target, and to derive a context used for coding the significant differential coefficient information of the differential coefficient that is a coding target based on the neighboring significant index and the position of the differential coefficient that is the coding target in the sub block that is the coding target, wherein the context deriver is configured to derive the context without referring to the significant differential coefficient information that belongs to the sub block that is the coding target. a significant sub block information encoder that codes significant sub block information that represents whether or not all the values of differential coefficients belonging to the sub block are zero; a significant differential coefficient information encoder that codes significant differential coefficient information that represents whether or not the value of the differential coefficient is zero; a differential coefficient value encoder that codes the value of the differential coefficient; and a context deriver that is configured to derive a neighboring significant index, wherein the neighboring significant index is a sum of the significant sub block information of a coded sub block that is neighboring to the right side of the sub block that is a coding target and the significant sub block information multiplied by 2 of a coded sub block that is neighboring to the lower side of the sub block that is a coding target, and to derive a context used for coding the significant differential coefficient information of the differential coefficient that is a coding target based on the neighboring significant index and the position of the differential coefficient that is the coding target in the sub block that is the coding target, wherein the context deriver is configured to derive the context without referring to the significant differential coefficient information that belongs to the sub block that is the coding target.
A method for sending information, comprising: receiving (S102) downlink control information, wherein the downlink control information comprises first information, the first information indicates an uplink control channel resource for carrying uplink control information, the uplink control channel resource belongs to a first uplink control channel resource set, and the first uplink control channel resource set comprises at least two uplink control channel resources that correspond to different quantities of symbols; determining S103), based on the first information, the uplink control channel resource for carrying uplink control information; and sending (S104) the uplink control information to a network device by using the uplink control channel resource, wherein the first uplink control channel resource set comprises a first uplink control channel resource, and the first uplink control channel resource corresponds to one symbol; and the first uplink control channel resource set further comprises a second uplink control channel resource, and the second uplink control channel resource corresponds to two symbols. receiving (S102) downlink control information, wherein the downlink control information comprises first information, the first information indicates an uplink control channel resource for carrying uplink control information, the uplink control channel resource belongs to a first uplink control channel resource set, and the first uplink control channel resource set comprises at least two uplink control channel resources that correspond to different quantities of symbols; determining S103), based on the first information, the uplink control channel resource for carrying uplink control information; and sending (S104) the uplink control information to a network device by using the uplink control channel resource, wherein the first uplink control channel resource set comprises a first uplink control channel resource, and the first uplink control channel resource corresponds to one symbol; and the first uplink control channel resource set further comprises a second uplink control channel resource, and the second uplink control channel resource corresponds to two symbols.
A method for bidirectional transparent proxying, the method comprising: configuring (S101), by a first proxy end , iptables rules based on a protocol type of a requesting-end-requested packet, and receiving, by the first proxy end , the requesting-end-requested packet that is guided based on the iptables rules; sending (S102), by the first proxy end , the requesting-end-requested packet and the protocol type of the requesting-end-requested packet to a second proxy end; based on the requesting-end-requested packet and the protocol type of the requesting-end-requested packet, sending (S103), by the second proxy end, the requesting-end-requested packet to an acknowledging end, where a requesting-end ip address and a requesting-end port in the requesting-end-requested packet are used as a source ip address and a source port; by configuring ospf service (S104), iptables rules and routing rules, guiding and receiving, by the second proxy end, an acknowledging-end-responded packet, and sending, by the second proxy end, the acknowledging-end-responded packet to the first proxy end ; sending (S105), by the first proxy end , the acknowledging-end-responded packet to the requesting end, wherein the requesting-end-requested packet refers to a packet requested by the requesting end, and the acknowledging-end-responded packet refers to a packet responded by the acknowledging end. configuring (S101), by a first proxy end , iptables rules based on a protocol type of a requesting-end-requested packet, and receiving, by the first proxy end , the requesting-end-requested packet that is guided based on the iptables rules; sending (S102), by the first proxy end , the requesting-end-requested packet and the protocol type of the requesting-end-requested packet to a second proxy end; based on the requesting-end-requested packet and the protocol type of the requesting-end-requested packet, sending (S103), by the second proxy end, the requesting-end-requested packet to an acknowledging end, where a requesting-end ip address and a requesting-end port in the requesting-end-requested packet are used as a source ip address and a source port; by configuring ospf service (S104), iptables rules and routing rules, guiding and receiving, by the second proxy end, an acknowledging-end-responded packet, and sending, by the second proxy end, the acknowledging-end-responded packet to the first proxy end ; sending (S105), by the first proxy end , the acknowledging-end-responded packet to the requesting end, wherein the requesting-end-requested packet refers to a packet requested by the requesting end, and the acknowledging-end-responded packet refers to a packet responded by the acknowledging end.
A method for preparing a copolymer comprising lactate monomer unit and 3-hydroxyalkanoate monomer unit, wherein the method comprises culturing a microorganism comprising a gene of enzyme converting lactate and 3- hydroxyalkanoate into lactyl-CoA and 3-hydroxyalkanoyl-CoA, respectively, and polyhydroxyalkanoate (PHA) synthase gene together, wherein said polyhydroxyalkanoate synthase gene is phaC1 ps6-19 encoding the polyhydroxyalkanoate (PHA) synthase of SEQ ID No:8.
Use of porous starch as bulking agent to replace partially or totally polyols such as sugar alcohols in a sugar-free chewing gum composition, wherein the porous starch replaces up to 100%, preferably up to 60% and more preferably up to 30% by weight of the polyol powder in the chewing gum composition, wherein the porous starch is a granular starch produced through a process comprising a step of enzymatic hydrolysis of native starch granules with one or multiple amylolytic enzymes, such as α-amylase and amyloglucosidase, at a temperature inferior to the gelatinization temperature of the starch, and wherein the porous starch has a particle diameter comprised between 0.5 um and 200 um and has multiple pores on the surface with diameter comprised between 0.01 um and 5 μm. wherein the porous starch replaces up to 100%, preferably up to 60% and more preferably up to 30% by weight of the polyol powder in the chewing gum composition, wherein the porous starch is a granular starch produced through a process comprising a step of enzymatic hydrolysis of native starch granules with one or multiple amylolytic enzymes, such as α-amylase and amyloglucosidase, at a temperature inferior to the gelatinization temperature of the starch, and wherein the porous starch has a particle diameter comprised between 0.5 um and 200 um and has multiple pores on the surface with diameter comprised between 0.01 um and 5 μm.