mhurhangee/patent-ind-claim-en huggingface dataset:
Agricultural distributor, comprising: - at least one storage container carried by a machine frame for receiving the product for distribution; - at least one metering member arranged downstream of the storage container ; - at least two booms which are mounted pivotably on the machine frame and/or on the storage container ; - a plurality of distributing members which are carried by a respective boom and are arranged at a distance from one another; and - a plurality of conveying lines which serve for transferring the product for distribution from the metering member to the distributing members and of which at least end conveying line portions are carried by the booms , wherein the booms are pivotable by means of a motorized actuator , respectively, each between an operating position, in which the booms extend primarily horizontally in opposite directions transversely with respect to the longitudinal axis of the distributor, and a transport and inoperative position, in which the booms extend primarily vertically, wherein a lever is mounted on the machine frame and/or on the storage container so as to be pivotable about a pivot axis (S) extending substantially parallel to the longitudinal axis of the distributor, wherein the lever has a first lever arm , at the end of which that is remote from the pivot axis (S) thereof a respective boom is suspended in its operating position by means of at least one carrying means , characterized in that the lever has a second lever arm , the end of which that is remote from the pivot axis (S) thereof is fixed with respect to the machine frame and/or with respect to the storage container , wherein at least one axial portion of the lever is elastically flexible transversely with respect to the longitudinal axis of the distributor in order to provide for pendulum compensation of the booms in their operating position. - at least one storage container carried by a machine frame for receiving the product for distribution; - at least one metering member arranged downstream of the storage container ; - at least two booms which are mounted pivotably on the machine frame and/or on the storage container ; - a plurality of distributing members which are carried by a respective boom and are arranged at a distance from one another; and - a plurality of conveying lines which serve for transferring the product for distribution from the metering member to the distributing members and of which at least end conveying line portions are carried by the booms ,
An air bag base cloth comprising: a base cloth main body formed of synthetic fibers; and a synthetic resin layer with which at least one face of the base cloth main body is coated, wherein the base cloth main body is coated with the synthetic resin layer in an amount of 10 to 40 g/m 2 , and wherein a moisture content of the air bag base cloth measured in accordance with JIS L 1096.8.10 is 0.5% or less. a base cloth main body formed of synthetic fibers; and a synthetic resin layer with which at least one face of the base cloth main body is coated, wherein the base cloth main body is coated with the synthetic resin layer in an amount of 10 to 40 g/m 2 , and wherein a moisture content of the air bag base cloth measured in accordance with JIS L 1096.8.10 is 0.5% or less.
Method for determining a magnetic fingerprint of a sleeve part (HP) of a tool holder , said sleeve part being inserted into an induction coil of a shrink-fit device, characterized in that a test pulse having a known current magnitude, current waveform, frequency and duration of action is applied to the induction coil still before the beginning of an actual inductive heating process at the sleeve part (HP) inserted into the induction coil , for said test pulse a time/current curve is determined for the sleeve part (HP) inserted into the induction coil and the time/current curve determined for the test pulse as a whole is taken as the magnetic fingerprint for the sleeve part (HP) inserted into the induction coil .
An oral care implement comprising: a longitudinal axis (A-A); a head portion comprising a plurality of tooth cleaning elements ; a handle portion supporting the head portion ; a front side of the handle portion defining at least one front contact zone (Z1, Z2), the front contact zone defining a front support plane (S2); a rear side of the handle portion defining a plurality of rear contact zones, the rear contact zones defining a rear support plane (S1); wherein the head portion is obliquely angled to the front support plane (S2), and the front and rear support planes (S1, S2) do not intersect the head portion including the plurality of tooth cleaning elements ; and wherein the front contact zone (Z1, Z2) is defined by a central body of the handle portion , and characterised in that the rear contact zones are defined by a pair of opposing appendages extending laterally outwards from opposing lateral sides of the central body. a longitudinal axis (A-A); a head portion comprising a plurality of tooth cleaning elements ; a handle portion supporting the head portion ; a front side of the handle portion defining at least one front contact zone (Z1, Z2), the front contact zone defining a front support plane (S2); a rear side of the handle portion defining a plurality of rear contact zones, the rear contact zones defining a rear support plane (S1); wherein the head portion is obliquely angled to the front support plane (S2), and the front and rear support planes (S1, S2) do not intersect the head portion including the plurality of tooth cleaning elements ; and wherein the front contact zone (Z1, Z2) is defined by a central body of the handle portion , and characterised in that the rear contact zones are defined by a pair of opposing appendages extending laterally outwards from opposing lateral sides of the central body.
A method for quantitative analysis of residual CI in synthesized zinc ferrite, which comprises: introducing samples of zinc ferrite synthesized from a chloride precursor into Sn capsules, and then continuously transferring the samples with tungsten oxide (WO 3 ) into an automatic quick furnace (AQF) pretreatment apparatus heated at a high temperature; burning the Sn capsules containing the samples in the AQF pretreatment apparatus; collecting gaseous CI released by the combustion in the AQF pretreatment apparatus in an absorbing solution; and injecting the solution in which gaseous CI has been collected into an ion chromatography (IC), and then quantifying the CI content. introducing samples of zinc ferrite synthesized from a chloride precursor into Sn capsules, and then continuously transferring the samples with tungsten oxide (WO 3 ) into an automatic quick furnace (AQF) pretreatment apparatus heated at a high temperature; burning the Sn capsules containing the samples in the AQF pretreatment apparatus; collecting gaseous CI released by the combustion in the AQF pretreatment apparatus in an absorbing solution; and injecting the solution in which gaseous CI has been collected into an ion chromatography (IC), and then quantifying the CI content.
A humanized anti-C1q antibody, or an antigen-binding fragment thereof, wherein the antibody or antigen-binding fragment thereof comprises: a) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 1 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 5; b) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 3 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 8; c) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 3 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 7; or d) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 4 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 7. a) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 1 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 5; b) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 3 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 8; c) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 3 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 7; or d) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 4 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 7.
A curable composition comprising : a) 30 wt% to 75 wt%, preferably 40 wt% to 60 wt% of at least one urethane (meth)acrylate oligomer having an average in number molecular weight Mn measured by GPC of from 2,000 g/mol to 50,000 g/mol, preferably 5,000 g/mol to 25,000 g/mol ; b) 10 wt% to 60 wt%, preferably 20 wt% to 40 wt% of at least one mono (meth)acrylate functional monomer; c) 1 wt% to 50 wt%, preferably 2 wt% to 35 wt% of at least one tackifying resin ; and d) up to 5 wt% of at least one initiator system ; e) up to 5 wt% of at least one multifunctional monomer ; f) up to 3 wt% of at least one wetting agent; and g) optionally, other additives. with the sum of % of a) + b) + c) + d) + e) + f) + g) being 100% wherein the at least one urethane (meth)acrylate oligomer has a mean OH value from 2 mg KOH/g to 50 mg KOH/g, the mean OH value being determined as set forth in the description as filed, and an average in number-functionality of 1.2 to 1.8 (meth)acrylates, said average in number-functionality being the calculated theoretical functionality. a) 30 wt% to 75 wt%, preferably 40 wt% to 60 wt% of at least one urethane (meth)acrylate oligomer having an average in number molecular weight Mn measured by GPC of from 2,000 g/mol to 50,000 g/mol, preferably 5,000 g/mol to 25,000 g/mol ; b) 10 wt% to 60 wt%, preferably 20 wt% to 40 wt% of at least one mono (meth)acrylate functional monomer; c) 1 wt% to 50 wt%, preferably 2 wt% to 35 wt% of at least one tackifying resin ; and d) up to 5 wt% of at least one initiator system ; e) up to 5 wt% of at least one multifunctional monomer ; f) up to 3 wt% of at least one wetting agent; and g) optionally, other additives. with the sum of % of a) + b) + c) + d) + e) + f) + g) being 100% wherein the at least one urethane (meth)acrylate oligomer has a mean OH value from 2 mg KOH/g to 50 mg KOH/g, the mean OH value being determined as set forth in the description as filed, and an average in number-functionality of 1.2 to 1.8 (meth)acrylates, said average in number-functionality being the calculated theoretical functionality.
Knife element for a working element of a fiber-processing machine, the working element having a working width and a working direction which runs transversely to the working width , the knife element having a plurality of knife blades which point counter to the working direction and a plurality of ejection openings , each ejection opening being assigned to a knife blade and the ejection openings having a length (C) in the direction of the working width and a width (D) in the working direction , and the knife element being formed from a metal sheet, the ejection openings in the metal sheet being in the form of through-openings and the knife blades being formed by edges of the through-openings, characterized in that the ejection openings have a ratio of length (C) to width (D) of less than 20 to 1.
A manufacturing method of a natural fiber composite material for injection molding using a reduced nozzle heating jig, comprising: combining natural fibers and synthetic fibers to form a combined yarn(SI); heat-pressing the combined yarn while passing through a reduced nozzle heating jig 100 and melting and pressing the synthetic fibers and fusing the synthetic fibers to the natural fibers (S2) to form a mixed yarn; and pelletizing the mixed yarn (S3), wherein the reduced nozzle heating jig 100 is configured to include a jig body 110, one or more reduced nozzles 120 formed in the jig body 110, and one or more heating heaters 130 installed in the jig body 110, and the reduced nozzle 120 is configured to further includes a derivation introduction unit 121, a reduced heating pressing unit 122 formed subsequently to the derivation introduction unit 121 and having an inner diameter which is gradually reduced, and a heat-pressing unit 123 formed subsequently to the reduced heat-pressing unit 122, and wherein an inner diameter d1 of the heat-pressing unit 123 is formed to be smaller than an outer diameter d0 of the combined yarn. combining natural fibers and synthetic fibers to form a combined yarn(SI); heat-pressing the combined yarn while passing through a reduced nozzle heating jig 100 and melting and pressing the synthetic fibers and fusing the synthetic fibers to the natural fibers (S2) to form a mixed yarn; and pelletizing the mixed yarn (S3), wherein the reduced nozzle heating jig 100 is configured to include a jig body 110, one or more reduced nozzles 120 formed in the jig body 110, and one or more heating heaters 130 installed in the jig body 110, and the reduced nozzle 120 is configured to further includes a derivation introduction unit 121, a reduced heating pressing unit 122 formed subsequently to the derivation introduction unit 121 and having an inner diameter which is gradually reduced, and a heat-pressing unit 123 formed subsequently to the reduced heat-pressing unit 122, and wherein an inner diameter d1 of the heat-pressing unit 123 is formed to be smaller than an outer diameter d0 of the combined yarn.
Tailgate for a motor vehicle that is intended to be mounted movably at the top on the body of said vehicle , the tailgate comprising a support frame , a transparent panel secured to said frame and hinge-forming elements and actuating means for opening and closing the tailgate , characterized in that said frame has a general U-shaped cross section arranged between an upper part and a lower part of the transparent panel .
A window frame element for a vehicle , in particular a motor vehicle, said frame element being substantially horizontal and configured to extend, to the exterior of the vehicle, along a substantially horizontal edge of a window and in the extension of this window, this element comprising a body configured to be carried by a support of the vehicle, the element comprising at least one pixel information display screen and a control and communication system , which is configured to communicate remotely, i.e. wirelessly, and to receive first signals and to transmit second signals to said at least one screen , said screen being configured to display information in accordance with said second signals, characterized in that said body comprises a standard portion carrying said screen and a fitting portion configured to be interposed between the standard portion and the vehicle and to allow the attachment of the body to the vehicle.
A data processing method, comprising: determining , by a terminal device according to a transmission mode used for transmitting data and a downlink control information, DCI, format of DCI used for scheduling the data, a modulation coding scheme, MCS, mapping table, the MCS mapping table comprising a mapping relationship between multiple MCS indication information and multiple MCSs; determining , by the terminal device according to MCS indication information carried in the DCI and the MCS mapping table, a MCS used for data processing; and performing , by the terminal device according to the MCS, encoding and modulation, or demodulation and decoding, on the data, wherein a first MCS mapping table determined by the terminal device, when the transmission mode is a first transmission mode and the DCI format is a first DCI format, is different from a second MCS mapping table determined by the terminal device, when the transmission mode is a second transmission mode and/or when the DCI format is a second DCI format, in that one of the first MCS mapping table and the second MCS mapping table comprises 256QAM and another one of the first MCS mapping table and the second MCS mapping table does not comprise 256QAM, and wherein the transmission mode used for transmitting the data comprises any one of: a transmission mode based on a single antenna port, a transmission mode based on multiple input multiple output, MIMO, a transmission mode based on multiple antenna ports, a transmission mode based on a single transmission point, or a transmission mode based on multiple transmission points. determining , by a terminal device according to a transmission mode used for transmitting data and a downlink control information, DCI, format of DCI used for scheduling the data, a modulation coding scheme, MCS, mapping table, the MCS mapping table comprising a mapping relationship between multiple MCS indication information and multiple MCSs; determining , by the terminal device according to MCS indication information carried in the DCI and the MCS mapping table, a MCS used for data processing; and performing , by the terminal device according to the MCS, encoding and modulation, or demodulation and decoding, on the data, wherein a first MCS mapping table determined by the terminal device, when the transmission mode is a first transmission mode and the DCI format is a first DCI format, is different from a second MCS mapping table determined by the terminal device, when the transmission mode is a second transmission mode and/or when the DCI format is a second DCI format, in that one of the first MCS mapping table and the second MCS mapping table comprises 256QAM and another one of the first MCS mapping table and the second MCS mapping table does not comprise 256QAM, and wherein the transmission mode used for transmitting the data comprises any one of: a transmission mode based on a single antenna port, a transmission mode based on multiple input multiple output, MIMO, a transmission mode based on multiple antenna ports, a transmission mode based on a single transmission point, or a transmission mode based on multiple transmission points.
An outdoor unit for an air conditioner comprising: a base forming the bottom surface of the outdoor unit; a main body connected to the base and having a plurality of suction holes for allowing air thereinto and a discharge hole for discharging air therefrom; a heat exchanger disposed within the main body and installed on top of the base, adapted for executing heat exchange with the air flowing through the outdoor unit; a discharge fan provided at the discharge hole side of the main body and being adapted to generate downstream air flow out of the outdoor unit; and a compressor installed on top of the base for compressing a refrigerant, the main body having a rectangular parallelepiped shape and the plurality of suction holes are formed on three lateral sides of the main body respectively, wherein the discharge hole is formed on the top surface of the main body, wherein the heat exchanger includes three sections facing towards the plurality of suction holes, characterized in that a suction fan is provided at the suction hole side of the main body and is adapted to generate upstream air flow into the outdoor unit; wherein the suction fan is provided in the lower portion of the main body and disposed on top of the base, wherein the suction fan is provided between a rear section of the three sections of the heat exchanger and the compressor . a base forming the bottom surface of the outdoor unit; a main body connected to the base and having a plurality of suction holes for allowing air thereinto and a discharge hole for discharging air therefrom; a heat exchanger disposed within the main body and installed on top of the base, adapted for executing heat exchange with the air flowing through the outdoor unit; a discharge fan provided at the discharge hole side of the main body and being adapted to generate downstream air flow out of the outdoor unit; and a compressor installed on top of the base for compressing a refrigerant, the main body having a rectangular parallelepiped shape and the plurality of suction holes are formed on three lateral sides of the main body respectively, wherein the discharge hole is formed on the top surface of the main body, wherein the heat exchanger includes three sections facing towards the plurality of suction holes, characterized in that a suction fan is provided at the suction hole side of the main body and is adapted to generate upstream air flow into the outdoor unit; wherein the suction fan is provided in the lower portion of the main body and disposed on top of the base, wherein the suction fan is provided between a rear section of the three sections of the heat exchanger and the compressor .
A video generation method to enlarge and display a first area including a moving object based on user input by an imaging device, the video generation method comprising the steps of: receiving a video imaging button selection (S301); displaying a moving video on a screen of the imaging device (S302); detecting said user input selecting said moving object from a plurality of moving objects in the video (S303); displaying the selected object differently from the other plurality of moving objects (S304) during a predetermined time period; upon elapsing of said predetermined time period, gradually enlarging the first area including the selected object; and displaying the enlarged first area on the screen, wherein the first area is cropped from the video, and the size of the enlarged first area corresponds to the size of the screen. receiving a video imaging button selection (S301); displaying a moving video on a screen of the imaging device (S302); detecting said user input selecting said moving object from a plurality of moving objects in the video (S303); displaying the selected object differently from the other plurality of moving objects (S304) during a predetermined time period; upon elapsing of said predetermined time period, gradually enlarging the first area including the selected object; and displaying the enlarged first area on the screen, wherein the first area is cropped from the video, and the size of the enlarged first area corresponds to the size of the screen.
An intercalary prosthesis for spanning portions of a long bone, comprising: a first intramedullary component having a first stem and a first connector disposed at one end of the first stem , the first stem being configured to be received within an intramedullary canal of a long bone; a second intramedullary component having a second stem and a second connector disposed at one end of the second stem , the second stem being configured to be received within an intramedullary canal of the long bone; and a connector component having a body , the body having opposing ends each having a connector configured to respectively connect to the connectors of the first and second intramedullary components , the body also having an outer shell and defining a through-opening extending through the connector component and through each of the connectors , the prosthesis being characterized in that the body of the connector component has an inner lattice structure disposed within and connected to the outer shell and in that the lattice structure is in communication with the through-opening . a first intramedullary component having a first stem and a first connector disposed at one end of the first stem , the first stem being configured to be received within an intramedullary canal of a long bone; a second intramedullary component having a second stem and a second connector disposed at one end of the second stem , the second stem being configured to be received within an intramedullary canal of the long bone; and a connector component having a body , the body having opposing ends each having a connector configured to respectively connect to the connectors of the first and second intramedullary components , the body also having an outer shell and defining a through-opening extending through the connector component and through each of the connectors , the prosthesis being characterized in that the body of the connector component has an inner lattice structure disposed within and connected to the outer shell and in that the lattice structure is in communication with the through-opening .