mhurhangee/ep-ind-claims huggingface dataset:
A data transceiving method, wherein the method comprises: receiving, by a modem, pre-processing information, which is sent by an application processor AP, from an application, wherein the pre-processing information comprises at least a period range value and first data that are from the application, the period range value represents a value indicating a frequency that the application prompts the AP to send the first data, and the first data is data that the application prompts the AP to send to a server; invoking, by the modem, preset functions according to the period range value and a time at which the modem receives the pre-processing information, to determine a sending time of the first data; and sending, by the modem, the first data to the server according to the sending time, wherein the modem comprises a general control and the modem replaces the AP to perform pre-processing on a period data service and performs fitting on transceiving periods of the application in the modem. receiving, by a modem, pre-processing information, which is sent by an application processor AP, from an application, wherein the pre-processing information comprises at least a period range value and first data that are from the application, the period range value represents a value indicating a frequency that the application prompts the AP to send the first data, and the first data is data that the application prompts the AP to send to a server; invoking, by the modem, preset functions according to the period range value and a time at which the modem receives the pre-processing information, to determine a sending time of the first data; and sending, by the modem, the first data to the server according to the sending time, wherein the modem comprises a general control and the modem replaces the AP to perform pre-processing on a period data service and performs fitting on transceiving periods of the application in the modem.
A V-type filter frame for receiving at least one filter media pack, said V-type filter frame being arranged to be mounted to a filter holding structure, the V-type filter frame comprising a molded plastic rectangular front plate having a front surface and a back surface, and first and second side plates (112a, 112b) coupled to the back surface of the front plate, characterized in that the back surface comprises two support structures (150a, 150b) protruding in a plane substantially perpendicular to the back surface and extending along a major portion of the length of opposite sides of the back surface of the front plate, said opposite sides being the same sides of the front plate to which the side plates are coupled, such that the thickness of the front plate in the direction from the front surface to the back surface is increased towards the middle and reduced towards the ends of the front plate side.
Method for manufacturing a part layer-upon-layer using Additive Manufacturing technology, the method comprising the following steps: - printing the part together with an elastomeric enclosure shaped thereto leaving a gap free of material therebetween, the elastomeric enclosure comprising at least one opening (2.1); - heating the ensemble of the printed part and elastomeric enclosure or keeping an operating printing temperature; - applying vacuum by the at least one opening (2.1) of the elastomeric enclosure so that the elastomeric enclosure deflates thus exerting pressure to the printed part; and - maintaining the printed part under vacuum and heat during a predefined time. - printing the part together with an elastomeric enclosure shaped thereto leaving a gap free of material therebetween, the elastomeric enclosure comprising at least one opening (2.1); - heating the ensemble of the printed part and elastomeric enclosure or keeping an operating printing temperature; - applying vacuum by the at least one opening (2.1) of the elastomeric enclosure so that the elastomeric enclosure deflates thus exerting pressure to the printed part; and - maintaining the printed part under vacuum and heat during a predefined time.
A method of operating a terminal device for communicating with a base station in a telecommunications system over a radio interface supporting a downlink shared channel for conveying user-plane data from the base station to the terminal device and a downlink control channel for conveying control-plane data from the base station to the terminal device, wherein the control-plane data conveys information on physical resource allocations for the downlink shared channel for the terminal device, and wherein the radio interface is based on a radio frame structure comprising a plurality of subframes, wherein each subframe comprises a control region for supporting the downlink control channel and a user-plane region for supporting the downlink shared channel, and wherein the method comprises receiving in the control region of a first radio subframe an indication of a delayed physical resource allocation (704, 706) for the terminal device on the shared downlink channel in the user-plane region of a second radio subframe, and subsequently attempting to decode user-plane data in the relevant sub-carriers identified on the physical resource allocation for the terminal device on the shared downlink channel in the user-plane region of subsequent subframes until the terminal device is able to successfully decode the user-plane data from the physical resource allocated in the second radio subframe.
A DNA construct comprising (a) a promoter; (b) a gene of interest; and (c) a reporter gene flanked by a DNA recombinase recognition sequence (DRRS); wherein the reporter gene encodes a membrane anchored reporter molecule, wherein the MAR is a membrane-anchored protein of interest that can be detected on the cell surface; wherein the gene of interest has two or more exons and one or more introns, wherein an intron of the gene of the interest comprises a splice acceptor sequence followed by a membrane association sequence, wherein said splice acceptor sequence provides a means for alternative splicing wherein the expressed protein of interest can be membrane associated or secreted. (a) a promoter; (b) a gene of interest; and (c) a reporter gene flanked by a DNA recombinase recognition sequence (DRRS);
A message processing method, applied to a user plane function UPF device, wherein the method comprises: receiving user equipment UE authentication information sent by a session management function SMF device; matching a received uplink message of UE with the UE authentication information; and if the matching succeeds, sending, by the UPF device, the uplink message that comprises the UE authentication information to a first application APP, wherein the first APP performs authentication on the UE according to the UE authentication information. receiving user equipment UE authentication information sent by a session management function SMF device; matching a received uplink message of UE with the UE authentication information; and if the matching succeeds, sending, by the UPF device, the uplink message that comprises the UE authentication information to a first application APP, wherein the first APP performs authentication on the UE according to the UE authentication information.
Preparation for wound care based on honey, characterized in that the preparation comprises raw, unheated honey that has been sterilized by means of ozonizing the honey using an ozone generator, and that it comprises 25 - 80 wt.% of ozonized honey with respect to the total composition of the preparation.
A game controller comprising: a holding portion (8a, 8b) configured to be held by a user; a first button (7a, 7b) placed on an upper surface of a main body of the game controller and configured to allow the user to operate the first button with a finger of the user while holding the holding portion; and a second button (6a, 6b) placed on the upper surface of the main body of the game controller and closer to a front surface of the game controller than the first button is, and configured to allow the user to operate the second button with a finger of the user while holding the holding portion, wherein a first end portion of the first button adjacent to a center of the game controller has a first slope portion, a second end portion of the second button adjacent to the center of the game controller has a second slope portion, and a third end portion of the second button adjacent to a side surface of the game controller has a third slope portion, the third slope portion including a portion sloping at a first sloping angle and a portion sloping at a second sloping angle greater than the first sloping angle, characterized by the second button being supported to be pivotable by a second shaft placed on the center side of the game controller and extending from the second shaft in the direction of the side surface of the game controller. a holding portion (8a, 8b) configured to be held by a user; a first button (7a, 7b) placed on an upper surface of a main body of the game controller and configured to allow the user to operate the first button with a finger of the user while holding the holding portion; and a second button (6a, 6b) placed on the upper surface of the main body of the game controller and closer to a front surface of the game controller than the first button is, and configured to allow the user to operate the second button with a finger of the user while holding the holding portion, wherein a first end portion of the first button adjacent to a center of the game controller has a first slope portion, a second end portion of the second button adjacent to the center of the game controller has a second slope portion, and a third end portion of the second button adjacent to a side surface of the game controller has a third slope portion, the third slope portion including a portion sloping at a first sloping angle and a portion sloping at a second sloping angle greater than the first sloping angle, characterized by the second button being supported to be pivotable by a second shaft placed on the center side of the game controller and extending from the second shaft in the direction of the side surface of the game controller.
A method of monitoring a single molecule real-time enzymatic reaction between an enzyme and a member ligand of a plurality of ligands, the method comprising: providing a substrate comprising a substrate surface, a zero mode waveguide detection volume proximal to the substrate surface, and a single molecule of an enzyme positioned within the ZMW detection volume and bound to or associated with the substrate surface, wherein the enzyme comprises a polymerase; contacting the enzyme with a detectable construct comprising a labelled DNA dendrimer or a labelled circular DNA framework, wherein multiple ligands specific for the enzyme are removably coupled to the framework and wherein the ligands comprise one or more nucleotides or nucleotide analogs; and detecting the construct while the enzyme and a member ligand of the multiple ligands are interacting, thereby monitoring the enzymatic reaction. providing a substrate comprising a substrate surface, a zero mode waveguide detection volume proximal to the substrate surface, and a single molecule of an enzyme positioned within the ZMW detection volume and bound to or associated with the substrate surface, wherein the enzyme comprises a polymerase; contacting the enzyme with a detectable construct comprising a labelled DNA dendrimer or a labelled circular DNA framework, wherein multiple ligands specific for the enzyme are removably coupled to the framework and wherein the ligands comprise one or more nucleotides or nucleotide analogs; and detecting the construct while the enzyme and a member ligand of the multiple ligands are interacting, thereby monitoring the enzymatic reaction.
An in vitro method for reprogramming at least a cell into at least a non-tumor pluripotent stem cell, comprises these steps of: (a) constructing a recombinant nucleic acid composition capable of being delivered, and processed into at least an RNA molecule containing the sequence of SEQ.ID.NO. 3 capable of silencing a plurality of genes targeted by mir-302, in particular CDK2, cyclin D1 and cyclin D2 genes; (b) treating the cell in vitro with said recombinant nucleic acid composition to silence the plurality of genes including CDK2, cyclin D1 and cyclin D2 genes. (a) constructing a recombinant nucleic acid composition capable of being delivered, and processed into at least an RNA molecule containing the sequence of SEQ.ID.NO. 3 capable of silencing a plurality of genes targeted by mir-302, in particular CDK2, cyclin D1 and cyclin D2 genes; (b) treating the cell in vitro with said recombinant nucleic acid composition to silence the plurality of genes including CDK2, cyclin D1 and cyclin D2 genes.
Soldering nozzle for simultaneously selectively wave soldering at least two spaced apart rows of soldering points in a soldering installation, comprising a main body which has a base portion which can be arranged on a nozzle plate and a shaft portion which forms the soldering shaft during operation and has a circumferential wall having a free upper side, and comprising at least one separating strip which can be wetted with solder and which can be used in the shaft portion, the at least one separating strip being frameless and being made ferromagnetic material at least in portions, the separating strip having free narrow sides and an underside, the narrow sides and/or the underside coming into contact with contact portions when the separating strip is inserted into the shaft portion, and the contact portions being designed as the receiving grooves which receive the narrow sides and/or the underside of the separating strip, characterized in that the receiving grooves are formed by insert parts inserted into the main body, and in that holding means for holding the separating strip are provided in or on the main body in the form of holding magnets.
A method of producing a steel pipe in which a plate material which is bent at width end portions is subjected to at least one bending along its widthwise direction to form a preformed body having a U-shaped cross-section, an open pipe with a gap portion in a longitudinal direction is formed by adding a bending force to the preformed body to press the preformed body, and end surfaces of the gap portion of the open pipe are butt-joined to each other to form a steel pipe, the method comprising: providing a lightly-bent portion to which a slighter curvature is applied as compared to other regions, or providing a non-bent portion in which the bending is omitted in at least a part of the plate material in performing the bending on the plate material; characterized in that the bending force is applied to a part spaced apart from the center of the lightly-bent portion or the non-bent portion by a distance within a range of W/4 ± 0.07W in a width end portion direction of the plate material, where W is the width of the plate material, without constraining the lightly-bent portion or the non-bent portion, in pressing the preformed body into the open pipe, and that the length of the lightly-bent portion or the non-bent portion along the widthwise direction of the plate material is not more than 10% of the plate material width. providing a lightly-bent portion to which a slighter curvature is applied as compared to other regions, or providing a non-bent portion in which the bending is omitted in at least a part of the plate material in performing the bending on the plate material; characterized in that the bending force is applied to a part spaced apart from the center of the lightly-bent portion or the non-bent portion by a distance within a range of W/4 ± 0.07W in a width end portion direction of the plate material, where W is the width of the plate material, without constraining the lightly-bent portion or the non-bent portion, in pressing the preformed body into the open pipe, and that the length of the lightly-bent portion or the non-bent portion along the widthwise direction of the plate material is not more than 10% of the plate material width.
A vehicular glass antenna disposed on a window glass of an automotive vehicle for receiving electric waves of band III of DAB, comprising: a core wire side feed point; an earth side feed point which is separate from the core wire side feed point, wherein the core wire side feed point and the earth side feed point are disposed so as to be spaced apart from each other in the vertical direction and the core wire side feed point is disposed at a more upper part than the earth side feed point; a core wire side antenna element connected to the core wire side feed point and extended from the core wire side feed point; in the horizontal rightward direction; a loop shaped strip connected to the earth side feed point, the loop shaped strip being extended from the core wire side feed point in the horizontal rightward direction thereafter being bent vertically toward the lower side, and thereafter extending in a horizontally rightward direction, and thereafter being folded back in the upper vertical direction at a bending point located at a lower part of the loop shaped strip to enclose the core wire side antenna element, a tip section of the loop shaped strip providing an open end; and an auxiliary strip with one end thereof being connected to the bending point and the auxiliary strip being extended from the bending point in the horizontal rightward direction. a core wire side feed point; an earth side feed point which is separate from the core wire side feed point, wherein the core wire side feed point and the earth side feed point are disposed so as to be spaced apart from each other in the vertical direction and the core wire side feed point is disposed at a more upper part than the earth side feed point; a core wire side antenna element connected to the core wire side feed point and extended from the core wire side feed point; in the horizontal rightward direction; a loop shaped strip connected to the earth side feed point, the loop shaped strip being extended from the core wire side feed point in the horizontal rightward direction thereafter being bent vertically toward the lower side, and thereafter extending in a horizontally rightward direction, and thereafter being folded back in the upper vertical direction at a bending point located at a lower part of the loop shaped strip to enclose the core wire side antenna element, a tip section of the loop shaped strip providing an open end; and an auxiliary strip with one end thereof being connected to the bending point and the auxiliary strip being extended from the bending point in the horizontal rightward direction.
A receiver comprising: a heterodyne frequency generator to sequentially generate a plurality of heterodyne frequencies such that a given frequency of the plurality of heterodyne frequencies converts, via a mixer, a radio-frequency signal of a respective subchannel of a plurality of subchannels to a corresponding baseband signal over a filter-input sampling interval; a subchannel filter selection switch to provide the baseband signal to a respective filter of a plurality of subchannel low-pass filters; wherein each of the subchannel low-pass filters are associated with one of the subchannels, and each of the subchannel low-pass filters are arranged to accumulate signal information from the associated one of the subchannels during a filter-input sampling interval, wherein the filter-input sampling interval is to occur at least as often as the inverse of a bandwidth of a subchannel. a heterodyne frequency generator to sequentially generate a plurality of heterodyne frequencies such that a given frequency of the plurality of heterodyne frequencies converts, via a mixer, a radio-frequency signal of a respective subchannel of a plurality of subchannels to a corresponding baseband signal over a filter-input sampling interval; a subchannel filter selection switch to provide the baseband signal to a respective filter of a plurality of subchannel low-pass filters; wherein each of the subchannel low-pass filters are associated with one of the subchannels, and each of the subchannel low-pass filters are arranged to accumulate signal information from the associated one of the subchannels during a filter-input sampling interval, wherein the filter-input sampling interval is to occur at least as often as the inverse of a bandwidth of a subchannel.
An inspection execution method performed by a computer, for causing each of a plurality of apparatuses to execute a plurality of inspections, the method comprising: a schedule determination step of determining an inspection schedule including at least order of the plurality of inspections; and an inspection step of causing the apparatuses to execute the inspections on the basis of the determined inspection schedule, characterized in that, the plurality of inspections includes first-type inspections and second-type inspections, wherein each of the apparatuses is a refrigerant cycle apparatus configured such that an indoor unit (3a to 5a,3b to 5b, 3c to 5c, 3d to 5d) is connected to a heat source unit (2a, 2b, 2c, 2d), the first-type inspections are refrigerant filling amount inspections for a refrigerant filling amount of a refrigerant filled in the refrigerant cycle apparatus and the second-type inspections are wiring inspections for wiring to check whether or not wiring for connecting the heat source unit (2a, 2b, 2c, 2d) with the indoor unit (3ato 5a, 3b to 5b, 3c to 5c, 3d to 5d) is proper, and wherein the inspection schedule is determined to concurrently execute the refrigerant filling amount inspections and to separately execute the wiring inspections. a schedule determination step of determining an inspection schedule including at least order of the plurality of inspections; and an inspection step of causing the apparatuses to execute the inspections on the basis of the determined inspection schedule, characterized in that, the plurality of inspections includes first-type inspections and second-type inspections, wherein each of the apparatuses is a refrigerant cycle apparatus configured such that an indoor unit (3a to 5a,3b to 5b, 3c to 5c, 3d to 5d) is connected to a heat source unit (2a, 2b, 2c, 2d), the first-type inspections are refrigerant filling amount inspections for a refrigerant filling amount of a refrigerant filled in the refrigerant cycle apparatus and the second-type inspections are wiring inspections for wiring to check whether or not wiring for connecting the heat source unit (2a, 2b, 2c, 2d) with the indoor unit (3ato 5a, 3b to 5b, 3c to 5c, 3d to 5d) is proper, and wherein the inspection schedule is determined to concurrently execute the refrigerant filling amount inspections and to separately execute the wiring inspections.