mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator appliance comprising: a cabinet defining a compartment (14, 16); a door (18, 20) hingedly coupled with the cabinet and configured to selectively seal the compartment (14, 16), wherein the door (18, 20) includes a door trim breaker; an engagement member extending from the door trim breaker and having a first retention ridge extending from a first side of the engagement member and a second retention ridge extending from a second side of the engagement member, wherein the first retention ridge is offset from the second retention ridge; and a gasket configured to fit over the engagement member, wherein the gasket includes: a coupling portion defining a first retention space and a second retention space, wherein the first retention space is configured to receive the first retention ridge and the second retention space is configured to receive the second retention ridge; and a contact portion integrally formed with the coupling portion and configured to at least partially abut the cabinet when the door (18, 20) is closed, wherein the compartment (14, 16) is accessible by a compartment opening (60, 66), wherein the compartment opening (60, 66) is defined by a compartment trim breaker (62, 68), wherein the contact portion abuts the compartment trim breaker (62, 68) when the door (18, 20) is closed, wherein an exterior gasket includes a magnet assembly configured to bias the door (18, 20) closed and wherein the door trim breaker defines a gasket channel configured to receive an anchor of the exterior gasket to couple the exterior gasket with the door (18, 20). a cabinet defining a compartment (14, 16); a door (18, 20) hingedly coupled with the cabinet and configured to selectively seal the compartment (14, 16), wherein the door (18, 20) includes a door trim breaker; an engagement member extending from the door trim breaker and having a first retention ridge extending from a first side of the engagement member and a second retention ridge extending from a second side of the engagement member, wherein the first retention ridge is offset from the second retention ridge; and a gasket configured to fit over the engagement member, wherein the gasket includes: a coupling portion defining a first retention space and a second retention space, wherein the first retention space is configured to receive the first retention ridge and the second retention space is configured to receive the second retention ridge; and a contact portion integrally formed with the coupling portion and configured to at least partially abut the cabinet when the door (18, 20) is closed, wherein the compartment (14, 16) is accessible by a compartment opening (60, 66), wherein the compartment opening (60, 66) is defined by a compartment trim breaker (62, 68), wherein the contact portion abuts the compartment trim breaker (62, 68) when the door (18, 20) is closed, wherein an exterior gasket includes a magnet assembly configured to bias the door (18, 20) closed and wherein the door trim breaker defines a gasket channel configured to receive an anchor of the exterior gasket to couple the exterior gasket with the door (18, 20).
A bone and joint protection composition comprising Chinese medicinal herbs, characterized in that said Chinese medicinal herbs are Eucommiae Cortex, Astragali Radix, Achyranthis Bidentatae Radix and Chuanxiong Rhizoma.
A method of performing communication by a user equipment that is configured with a control resource set, CORESET, by a base station in a wireless communication system, the method comprising: receiving configuration information of a CORESET; receiving configuration information of a search space; determining, based on the configuration information of the search space, a subband to which the configuration information of the CORESET is to be applied, from among a plurality of subbands within a bandwidth part, wherein the plurality of subbands are identified based on gap information configured from a base station and the gap information includes a number of resource blocks, RBs, indicating a gap between the plurality of subbands; identifying the CORESET in the subband based on a result of the determining; and performing monitoring in the identified CORESET for reception of a physical downlink control channel, PDCCH. receiving configuration information of a CORESET; receiving configuration information of a search space; determining, based on the configuration information of the search space, a subband to which the configuration information of the CORESET is to be applied, from among a plurality of subbands within a bandwidth part, wherein the plurality of subbands are identified based on gap information configured from a base station and the gap information includes a number of resource blocks, RBs, indicating a gap between the plurality of subbands; identifying the CORESET in the subband based on a result of the determining; and performing monitoring in the identified CORESET for reception of a physical downlink control channel, PDCCH.
A method of wireless communication performed by an apparatus for wireless communication at a user equipment, UE, comprising: selecting a first synchronization signal burst set, SSBS, occurrence during which to perform a loop tracking task and a radio link management, RLM, task, wherein the first SSBS occurrence is during an OFF duration of a connected-mode discontinuous reception, CDRX, cycle; determining that the UE can perform a third task associated with at least a frequency range during the first SSBS occurrence; and performing the third task associated with the at least a frequency range during the first SSBS occurrence. selecting a first synchronization signal burst set, SSBS, occurrence during which to perform a loop tracking task and a radio link management, RLM, task, wherein the first SSBS occurrence is during an OFF duration of a connected-mode discontinuous reception, CDRX, cycle; determining that the UE can perform a third task associated with at least a frequency range during the first SSBS occurrence; and performing the third task associated with the at least a frequency range during the first SSBS occurrence.
A method for locating selected images on a belt for an image reproduction system, comprising: performing an image on paper registration process, and thereafter generating a registration test pattern (105, 110); printing the registration test pattern (105, 110); measuring at least one registration test pattern parameter; using the at least one registration test pattern parameter to determine a lateral distance required to shift an image to a desired location on the belt; shifting the image to the desired location, characterized in that the method further comprising detecting a residual error in a lateral location of the image after an image on image registration setup; using the residual error in conjunction with the at least one registration test pattern parameter to determine the lateral distance required to shift the image to a desired location on the belt, wherein the image being shifted is a registration mark. performing an image on paper registration process, and thereafter generating a registration test pattern (105, 110); printing the registration test pattern (105, 110); measuring at least one registration test pattern parameter; using the at least one registration test pattern parameter to determine a lateral distance required to shift an image to a desired location on the belt; shifting the image to the desired location, characterized in that the method further comprising detecting a residual error in a lateral location of the image after an image on image registration setup; using the residual error in conjunction with the at least one registration test pattern parameter to determine the lateral distance required to shift the image to a desired location on the belt, wherein the image being shifted is a registration mark.
A feed loading bridge, which comprises an extendable tread surface height-adjustable at a front edge, wherein drives of the height adjustment and the extension of the tread surface are connected to a controller, wherein the controller comprises an input interface, with which the tread surface can be positioned by a user through a height adjustment and an extension, characterised in that the controller comprises an additional interface, the actuation whereof causes an extension of the tread surface, and that, proceeding from a rest position of the feed loading bridge, the input interface is deactivated until an initial actuation of the additional interface by the controller.
A method for inducing differentiation of a pluripotent stem cell into a neural precursor cell, comprising culturing the pluripotent stem cell in the presence of a small molecule BMP inhibitor and a small molecule TGFβ family inhibitor, wherein the small molecule BMP inhibitor is Dorsomorphin or LDN-193189, wherein the small molecule TGFβ family inhibitor is SB431542 or A-83-01, wherein the concentration of LDN-193189 is higher than 50nM.
A method for manufacturing an incombustible color-coated steel sheet, comprising the steps of: (a) applying an under-coating agent to a base steel sheet, followed by heat drying, thereby forming a pretreatment layer; (b) applying a primer coating composition to the pretreatment layer, followed by heat drying, thereby forming a primer layer; and (c) applying to the primer layer a flame-retardant coating composition comprising, based on 100 parts by weight, 15-20 parts by weight of silica sol, 5-15 parts by weight of polyurethane resin, 40-70 parts by weight of a solvent, 5-15 parts by weight of deionized water, 1-3 parts by weight of an acid catalyst, 0.1-2.0 parts by weight of an acid stabilizer, and 5-20 parts by weight of a pigment, followed by drying and curing at a temperature of 200°C to 250°C, thereby forming a flame-retardant coating layer, wherein the flame-retardant coating layer has a thickness of 5 to 10 μm, and wherein the acid stabilizer comprises diluted nitric acid or hydrochloric acid. (a) applying an under-coating agent to a base steel sheet, followed by heat drying, thereby forming a pretreatment layer; (b) applying a primer coating composition to the pretreatment layer, followed by heat drying, thereby forming a primer layer; and (c) applying to the primer layer a flame-retardant coating composition comprising, based on 100 parts by weight, 15-20 parts by weight of silica sol, 5-15 parts by weight of polyurethane resin, 40-70 parts by weight of a solvent, 5-15 parts by weight of deionized water, 1-3 parts by weight of an acid catalyst, 0.1-2.0 parts by weight of an acid stabilizer, and 5-20 parts by weight of a pigment, followed by drying and curing at a temperature of 200°C to 250°C, thereby forming a flame-retardant coating layer,
An electronic apparatus, comprising: a voice input unit adapted to receive an audio; a voice sensing unit adapted to sense whether a user voice is input through the voice input unit in a stand-by mode of the electronic apparatus, and if the user voice is input, outputs a first power control signal; and a power control voice recognition unit which, if the first power control signal is received from the voice sensing unit, is adapted to turn on power and performs voice recognition regarding the input user voice; characterized in that: the voice sensing unit is adapted to sense that the user voice is input when a volume of the audio received through the voice input unit increases by more than a predetermined value in comparison with a volume of a previously-input audio. a voice input unit adapted to receive an audio; a voice sensing unit adapted to sense whether a user voice is input through the voice input unit in a stand-by mode of the electronic apparatus, and if the user voice is input, outputs a first power control signal; and a power control voice recognition unit which, if the first power control signal is received from the voice sensing unit, is adapted to turn on power and performs voice recognition regarding the input user voice; the voice sensing unit is adapted to sense that the user voice is input when a volume of the audio received through the voice input unit increases by more than a predetermined value in comparison with a volume of a previously-input audio.
A connector comprising: a housing capable of being fitted to a counterpart housing; one or more terminal fittings provided in the housing, connected to ends of electric wires, and configured to electrically come into contact with counterpart terminal fittings provided in the counterpart housing when both of the housings (10; 80) are fitted together; and a pair of detection terminals provided in the housing and configured to mutually energized thereby to form a detection circuit when both of the housings (10; 80) are properly fitted together; and an electric wire via which the pair of detection terminals are mutually connected; wherein said detection terminals are formed in the same shape as the terminal fittings; characterized in that the housing is provided with a plurality of cavities (12A; 12B) into which the terminal fittings and the detection terminals are each inserted, a front wall closing a space on a front side of the cavities in an insertion direction of the terminal fittings and the detection terminals, and a retainer mounting hole intersecting and communicating with the cavities (12A; 12B); the connector further comprising a retainer to retain the terminal fittings and the detection terminals inserted into the retainer mounting hole; wherein a pressing portion capable of abutting onto the detection terminals and pressing the detection terminals toward the front wall is protrudingly provided in the retainer; and the pressing portion is not disposed at a position corresponding to the terminal fittings. a housing capable of being fitted to a counterpart housing; one or more terminal fittings provided in the housing, connected to ends of electric wires, and configured to electrically come into contact with counterpart terminal fittings provided in the counterpart housing when both of the housings (10; 80) are fitted together; and a pair of detection terminals provided in the housing and configured to mutually energized thereby to form a detection circuit when both of the housings (10; 80) are properly fitted together; and an electric wire via which the pair of detection terminals are mutually connected; wherein said detection terminals are formed in the same shape as the terminal fittings; characterized in that the housing is provided with a plurality of cavities (12A; 12B) into which the terminal fittings and the detection terminals are each inserted, a front wall closing a space on a front side of the cavities in an insertion direction of the terminal fittings and the detection terminals, and a retainer mounting hole intersecting and communicating with the cavities (12A; 12B); the connector further comprising a retainer to retain the terminal fittings and the detection terminals inserted into the retainer mounting hole; wherein a pressing portion capable of abutting onto the detection terminals and pressing the detection terminals toward the front wall is protrudingly provided in the retainer; and the pressing portion is not disposed at a position corresponding to the terminal fittings.
A method of forming a hole or cavity or channel in a region of an electrically insulating substrate, comprising the steps: a) providing an electrically insulating substrate, b) applying, by means of a voltage supply feedback controlled by a trans-substrate current, a voltage across a region of said electrically insulating substrate, said voltage being sufficient to give rise to a significant increase in electrical current through said region and to a controlled dielectric breakdown (CDEB) through said region, wherein step b) occurs by placement of electrodes at or near said region and by application of said voltage across said electrodes, c) applying heat to said region so as to increase the temperature of said region to define the location where dielectric breakdown is to occur, said heat originating either from an energy or heat source or from components of said voltage applied in step b), said heat being applied so as to reduce the amplitude of voltage required in step b) to give rise to said current increase through said region, wherein step b) is performed and ended using an electronic feedback mechanism operating according to user-predefined parameters, said electronic feedback mechanism controlling the properties of said applied voltage and/or of said electrical current, wherein said electronic feedback mechanism comprises or is a series resistor connected in series with said electrodes to limit the current during controlled dielectric breakdown, and wherein in step c), heat is applied in a directed and locally restricted manner to said region only. a) providing an electrically insulating substrate, b) applying, by means of a voltage supply feedback controlled by a trans-substrate current, a voltage across a region of said electrically insulating substrate, said voltage being sufficient to give rise to a significant increase in electrical current through said region and to a controlled dielectric breakdown (CDEB) through said region, wherein step b) occurs by placement of electrodes at or near said region and by application of said voltage across said electrodes, c) applying heat to said region so as to increase the temperature of said region to define the location where dielectric breakdown is to occur, said heat originating either from an energy or heat source or from components of said voltage applied in step b), said heat being applied so as to reduce the amplitude of voltage required in step b) to give rise to said current increase through said region,
A battery module, comprising: a plurality of pouch-type secondary batteries arranged in a lateral direction to stand in a vertical direction; a plurality of cartridges configured to accommodate the pouch-type secondary batteries in an inner space thereof, the cartridges being stacked in a lateral direction; and a housing provided to at least one of front and rear ends of the cartridges and coupled and fixed to at least two cartridges, characterized in that the secondary battery is formed so that at least a part of its outer side has a gradually decreasing width in an outward direction, and the secondary battery has two inclined surfaces at its outer side, the inner side of two cartridges is formed to correspond to the shape of the outer side of the secondary battery so that at least a part of the inner side of each of the two cartridges has a gradually decreasing width in an inward direction, and each of the two cartridges has two inclined surfaces at its inner side, and one inclined surface of the secondary battery is fixed to one inclined surface of one cartridge and the other inclined surface of the secondary battery is fixed to one inclined surface of the other cartridge. a plurality of pouch-type secondary batteries arranged in a lateral direction to stand in a vertical direction; a plurality of cartridges configured to accommodate the pouch-type secondary batteries in an inner space thereof, the cartridges being stacked in a lateral direction; and a housing provided to at least one of front and rear ends of the cartridges and coupled and fixed to at least two cartridges,
An attachment system (101, 501, 701) for an offshore structure (107, 507), the attachment system comprising: a porch having at least two side plates (105A, 105B), the porch configured to be affixed to the offshore structure, each side plate (105A, 105B) comprising an upper socket (102A, 102B), a lower socket, and a latch (109A, 109B); and an adaptor configured to engage with said side plates (105A, 105B) of the porch, the adaptor comprising a pair of upper lugs configured to engage with the upper sockets (102A, 102B) and a pair of lower lugs configured to engage with the lower sockets (106A, 106B), wherein the latch (109A, 109B) retains the adaptor into engagement with the at least two side plates (105A, 105B), wherein the adaptor is configured to support an equipment device. a porch having at least two side plates (105A, 105B), the porch configured to be affixed to the offshore structure, each side plate (105A, 105B) comprising an upper socket (102A, 102B), a lower socket, and a latch (109A, 109B); and an adaptor configured to engage with said side plates (105A, 105B) of the porch, the adaptor comprising a pair of upper lugs configured to engage with the upper sockets (102A, 102B) and a pair of lower lugs configured to engage with the lower sockets (106A, 106B), wherein the latch (109A, 109B) retains the adaptor into engagement with the at least two side plates (105A, 105B), wherein the adaptor is configured to support an equipment device.
A heterodimer protein that is composed of a first polypeptide comprising an immunoglobulin heavy chain (hereinafter, abbreviated to H chain) constant region (hereinafter, abbreviated to CH) and a second polypeptide comprising a constant region sequence (hereinafter, referred to as CL-Fc) prepared by fusion of an immunoglobulin light chain (hereinafter, abbreviated to L chain) constant region (hereinafter, abbreviated to CL) and Fc region, and also has a deletion or substitution of Cys residues involved in disulfide bonds between L chain-H chain molecules in the IgG antibody, and wherein the second polypeptide is a polypeptide having a reduced binding activity for a CH binder, wherein the CH binder is Protein A, wherein the second polypeptide is a polypeptide having a deletion or substitution of at least one amino acid residue selected from positions 253, 310, 433, 435, and 436 of the EU index numbering as in Kabat et al. (hereinafter, referred to as EU index).
A mass analysis data processing method for processing data collected by a mass spectrometer capable of an MS n analysis, where n is an integer equal to or more than two, comprising: a) an MS 1 data-analysis step for analysing MS 1 spectrum data collected by an MS 1 analysis; b) an MS n data-analysis step for performing a multivariate analysis of a matrix in which MS n analysis information based on MS n spectrum data collected by an MS n analysis is described, wherein the matrix is a correlation coefficient matrix whose elements are correlation coefficients obtained from MS n spectra corresponding to different combinations of precursor ions, wherein the multivariate analysis allows to identify groups of precursor ions having a correlation; and c) a display processing step for displaying, on a same window, a result of the analysis in the MS 1 data-analysis step and a result of the multivariate analysis in the MS n data-analysis step, wherein said display processing step shows information for identifying precursor ions regarded as belonging to the same group. a) an MS 1 data-analysis step for analysing MS 1 spectrum data collected by an MS 1 analysis; b) an MS n data-analysis step for performing a multivariate analysis of a matrix in which MS n analysis information based on MS n spectrum data collected by an MS n analysis is described, wherein the matrix is a correlation coefficient matrix whose elements are correlation coefficients obtained from MS n spectra corresponding to different combinations of precursor ions, wherein the multivariate analysis allows to identify groups of precursor ions having a correlation; and c) a display processing step for displaying, on a same window, a result of the analysis in the MS 1 data-analysis step and a result of the multivariate analysis in the MS n data-analysis step, wherein said display processing step shows information for identifying precursor ions regarded as belonging to the same group.
Fan motor which is accommodated in a housing pot having a fastening flange, at least one annular damping element (24, 54, 56, 90) being arranged between the housing pot and a fastening region of the fastening flange, characterized in that the fastening flange consists of an inner part and an outer part which are connected to one another via the damping element.