mhurhangee/patent-ind-claim-en huggingface dataset:
A filling element for filling a container with a flowable filling material, preferably for filling a can or a bottle with a beverage, comprising two concentric components that are movable relative to one another along a longitudinal axis , wherein a first of the two components extends radially outside the second of the two components, wherein at least one guide ring for guiding the first component relative to the second component is arranged between an outer side of the second component and an inner side of the first component, characterized in that the guide ring comprises a substantially ring-segment-shaped main body , wherein a plurality of sliding regions that are spaced apart from one another and project radially on a first side of the main body for sliding over a cylindrical surface and a plurality of support regions that are spaced apart from one another, project radially on a second side that is opposite the first side and for radial or radial and axial support against at least one bracing surface are arranged on the main body . wherein at least one guide ring for guiding the first component relative to the second component is arranged between an outer side of the second component and an inner side of the first component, characterized in that the guide ring comprises a substantially ring-segment-shaped main body , wherein a plurality of sliding regions that are spaced apart from one another and project radially on a first side of the main body for sliding over a cylindrical surface and a plurality of support regions that are spaced apart from one another, project radially on a second side that is opposite the first side and for radial or radial and axial support against at least one bracing surface are arranged on the main body .
A laser peening processing apparatus comprising: a laser oscillator that oscillates a laser light; and a nozzle that focuses the laser light and irradiates a surface to be processed of a workpiece (W) with the focused laser light while making a liquid (L) flow toward the surface to be processed, wherein a straightening part that straightens a flow of the liquid is disposed on the nozzle, characterized in that a straightening vane having a cross section of a gap through which the liquid passes is disposed on a tip of the nozzle, as the straightening part, the cross section of the gap having a star shape. a laser oscillator that oscillates a laser light; and a nozzle that focuses the laser light and irradiates a surface to be processed of a workpiece (W) with the focused laser light while making a liquid (L) flow toward the surface to be processed, wherein a straightening part that straightens a flow of the liquid is disposed on the nozzle, characterized in that a straightening vane having a cross section of a gap through which the liquid passes is disposed on a tip of the nozzle, as the straightening part, the cross section of the gap having a star shape.
A series of forage harvesters comprising a plurality of forage harvesters for chopping crop located on a working field, each of the forage harvesters comprising - at least one operating unit in the form of a conveyor unit for conveying cut crop in the direction of a chopping unit , - at least one operating unit in the form of a chopping unit for chopping the cut crop , - at least one drive device for driving at least one propulsion element, in particular an independent wheel or a track roller unit , as well as the operating unit, and also - at least one continuous main beam for receiving the operating units as well as the drive device, wherein, by means of the main beam, at least a proportion of the weight forces of the operating units and of the drive device can be dissipated, wherein the operating units are at least indirectly connected in a front section and the drive device is at least indirectly connected in a rear section of the main beam in the same force-transmitting manner, characterized in that a main beam of a forage harvester of the series constructed in the form of a long beam has a length which exceeds a length of a main beam of another forage harvester of the series constructed in the form of a short beam , so that the long beam and the short beam are different in length, wherein both the long beam as well as the short beam have at least substantially identically constructed front sections and rear sections , and wherein the long beam has an additional central section compared to the short beam , wherein all of the forage harvesters of the series which are equipped with long beams are equipped with propulsion elements in the form of track roller units on at least their front axles, and wherein all of the forage harvesters of the series which are equipped with a short beam are equipped with propulsion elements in the form of independent wheels on their front axles. - at least one operating unit in the form of a conveyor unit for conveying cut crop in the direction of a chopping unit , - at least one operating unit in the form of a chopping unit for chopping the cut crop , - at least one drive device for driving at least one propulsion element, in particular an independent wheel or a track roller unit , as well as the operating unit, and also - at least one continuous main beam for receiving the operating units as well as the drive device,
A paper or paperboard product comprising: (i) a cellulose-containing substrate; wherein the cellulose-containing substrate comprises or is dark Kraft pulp, recycled pulp or combinations thereof; and (ii) a top ply comprising an inorganic particulate material and at least 5 wt. % to 30 wt. % microfibrillated cellulose based on the total weight of the top ply, wherein the inorganic particulate material content is 67 wt.% to 92 wt.% based on the total weight of the top ply, wherein the microfibrillated cellulose has a d 50 ranging from 5 μm to 500 μm, as measured by laser light scattering, wherein the inorganic particulate material has a particle size distribution in which at least 20 wt.% to at least 95 wt.% of the particles have an equivalent spherical diameter (e.s.d.) of less than 2 μm, wherein the brightness measured (according to ISO Standard 11475 (F8; D65 - 400 nm)) on the top ply is at least about 65%; wherein the top ply has a grammage of about 15 g/m 2 to about 40 g/m 2 ; and wherein the microfibrillated cellulose is derived from fibrous substrate comprising cellulose obtained from a pulp selected from the group comprising a chemical pulp, or a chemi-thermomechanical pulp, or a mechanical pulp, or a dissolving pulp, a kenaf pulp, a market pulp, a partially carboxymethylated pulp, an abaca pulp, a hemlock pulp, a birch pulp, a grass pulp, a bamboo pulp, a palm pulp, a peanut shell, or a combination thereof, or a recycled pulp, or a papermill broke, or a papermill waste stream, or waste from a papermill. (i) a cellulose-containing substrate; wherein the cellulose-containing substrate comprises or is dark Kraft pulp, recycled pulp or combinations thereof; and (ii) a top ply comprising an inorganic particulate material and at least 5 wt. % to 30 wt. % microfibrillated cellulose based on the total weight of the top ply, wherein the inorganic particulate material content is 67 wt.% to 92 wt.% based on the total weight of the top ply, wherein the microfibrillated cellulose has a d 50 ranging from 5 μm to 500 μm, as measured by laser light scattering, wherein the inorganic particulate material has a particle size distribution in which at least 20 wt.% to at least 95 wt.% of the particles have an equivalent spherical diameter (e.s.d.) of less than 2 μm, wherein the brightness measured (according to ISO Standard 11475 (F8; D65 - 400 nm)) on the top ply is at least about 65%; wherein the top ply has a grammage of about 15 g/m 2 to about 40 g/m 2 ; and wherein the microfibrillated cellulose is derived from fibrous substrate comprising cellulose obtained from a pulp selected from the group comprising a chemical pulp, or a chemi-thermomechanical pulp, or a mechanical pulp, or a dissolving pulp, a kenaf pulp, a market pulp, a partially carboxymethylated pulp, an abaca pulp, a hemlock pulp, a birch pulp, a grass pulp, a bamboo pulp, a palm pulp, a peanut shell, or a combination thereof, or a recycled pulp, or a papermill broke, or a papermill waste stream, or waste from a papermill.
A method for determining at least one mechanical property of at least one object , wherein the at least one object is subjected to at least one interaction which influences a motion state of the at least one object , wherein the at least one interaction is selected such that the motion state caused by the interaction is a function of the at least one mechanical property, wherein the at least one object is observed by at least one camera, wherein the motion state is determined from the images captured by the at least one camera , and wherein the at least one mechanical property of the at least one object is determined from the motion state thus determined. wherein the at least one object is subjected to at least one interaction which influences a motion state of the at least one object , wherein the at least one interaction is selected such that the motion state caused by the interaction is a function of the at least one mechanical property, wherein the at least one object is observed by at least one camera, wherein the motion state is determined from the images captured by the at least one camera , and wherein the at least one mechanical property of the at least one object is determined from the motion state thus determined.
A monoclonal antibody that binds canine platelet derived growth factor receptor alpha (cPDGFRA) comprising a light chain variable region (LCVR) and a heavy chain variable region (HCVR), wherein the LCVR comprises complementarity determining regions (CDRs) LCDR1, LCDR2, and LCDR3 and the HCVR comprises CDRs HCDR1, HCDR2, and HCDR3, wherein the amino acid sequence of LCDR1 is given by SEQ ID NO:16, the amino acid sequence of LCDR2 is given by SEQ ID NO: 18, the amino acid sequence of LCDR3 is given by SEQ ID NO: 20, the amino acid sequence of HCDR1 is given by SEQ ID NO: 6, the amino acid sequence of HCDR2 is given by SEQ ID NO: 8, and the amino acid sequence of HCDR3 is given by SEQ ID NO: 10.
A handling and/or packaging device for packaging groups of articles, - with a first conveying section for transporting a plurality of articles in mass flow and/or in a series in a defined conveying direction and/or in a conveying direction which changes in the course of conveying, - with a second conveying section located close to the first conveying section and/or running parallel to the first conveying section for successively transporting at least two outer packages , which outer packages are each provided and prepared for receiving at least one article group formed from a plurality of articles , - and with a handling device associated with the conveying sections and having at least one gripper head , which gripper head is provided and designed for simultaneously gripping and seizing a respective group of articles from the first conveying section , transferring them to the second conveying section and for inserting the group of articles into one of the outer packages conveyed on the second conveying section , or for simultaneously gripping and seizing in each case one group of articles from the outer packages conveyed on the second conveying section , for transferring them to the first conveying section and for placing the group of articles onto the first conveying section , wherein at least one retaining element is associated with the second conveying section , wherein by means of the at least one retaining element at least two adjacent outer packages or at least two outer packages successively arranged in transport direction are coupled or can be coupled to one another on the second conveying section at least in phases before or during the loading of the outer packages with the group of articles or the removal of the group of articles from the outer packages , and wherein the at least two coupled outer packages can be moved on the second conveying section relative to the transport speed of the second conveying section . - with a first conveying section for transporting a plurality of articles in mass flow and/or in a series in a defined conveying direction and/or in a conveying direction which changes in the course of conveying, - with a second conveying section located close to the first conveying section and/or running parallel to the first conveying section for successively transporting at least two outer packages , which outer packages are each provided and prepared for receiving at least one article group formed from a plurality of articles , - and with a handling device associated with the conveying sections and having at least one gripper head , which gripper head is provided and designed for simultaneously gripping and seizing a respective group of articles from the first conveying section , transferring them to the second conveying section and for inserting the group of articles into one of the outer packages conveyed on the second conveying section , or for simultaneously gripping and seizing in each case one group of articles from the outer packages conveyed on the second conveying section , for transferring them to the first conveying section and for placing the group of articles onto the first conveying section ,
A method for handling a circuit switched fallback, CSFB, procedure by a first base station in a wireless communication system, the method comprising: receiving , from a mobility management entity, MME, a user equipment, UE, context modification request message associated to a UE, said message including a CSFB indicator receiving , from a second base station, a radio link failure, RLF, indication message associated to the UE; and determining not to trigger a handover procedure of the UE to the second base station that transmitted the RLF indication message based on the CSFB indicator. receiving , from a mobility management entity, MME, a user equipment, UE, context modification request message associated to a UE, said message including a CSFB indicator receiving , from a second base station, a radio link failure, RLF, indication message associated to the UE; and determining not to trigger a handover procedure of the UE to the second base station that transmitted the RLF indication message based on the CSFB indicator.
A method comprising: i) producing, by a mid-air haptic feedback system, an acoustic field from a transducer array having known relative positions and orientations by assigning respective complex-values transducer activation coefficients to each transducer; ii) defining at least one control point having a known spatial relationship relative to the transducer array; iii) assigning an amplitude to the control point; and iv) moving the at least one control point within the acoustic field to create a control region having predetermined mid-air haptic effects, characterized in that the step of moving the at least one control point creates a smooth transition between any two complex spaces of transducer activation coefficients by using an average phase offset that is substantially zero. i) producing, by a mid-air haptic feedback system, an acoustic field from a transducer array having known relative positions and orientations by assigning respective complex-values transducer activation coefficients to each transducer; ii) defining at least one control point having a known spatial relationship relative to the transducer array; iii) assigning an amplitude to the control point; and iv) moving the at least one control point within the acoustic field to create a control region having predetermined mid-air haptic effects,
An anvil for a surgical stapler, said anvil comprising: an elongate anvil body comprising an upper body portion and a staple forming undersurface; an anvil mounting portion adjacent to said elongate anvil body and configured to movably support said anvil on a portion of the surgical stapler; an anvil cap configured to be mechanically interlocked to said upper body portion of said elongate anvil body; at least one weld between said anvil cap and said upper body portion of said elongate anvil body; wherein said upper body portion defines an opening through an upper surface thereof and said anvil cap is mechanically interlocked to said upper body portion within said opening, and wherein said upper body portion forms an opening perimeter; and characterised in that said upper body portion comprises a plurality of retention formations formed in said opening perimeter and configured to frictionally engage corresponding portions of said anvil cap when said anvil cap is positioned within said opening. an elongate anvil body comprising an upper body portion and a staple forming undersurface; an anvil mounting portion adjacent to said elongate anvil body and configured to movably support said anvil on a portion of the surgical stapler; an anvil cap configured to be mechanically interlocked to said upper body portion of said elongate anvil body; at least one weld between said anvil cap and said upper body portion of said elongate anvil body; wherein said upper body portion defines an opening through an upper surface thereof and said anvil cap is mechanically interlocked to said upper body portion within said opening, and wherein said upper body portion forms an opening perimeter; and characterised in that said upper body portion comprises a plurality of retention formations formed in said opening perimeter and configured to frictionally engage corresponding portions of said anvil cap when said anvil cap is positioned within said opening.
Detection device , in particular for the bulk detection of goods provided with transponders, - with at least one reading device for contactless identification of transponders, - with a reading area which is at least section wise arranged within the range of the reading device and in which goods for bulk detection can be arranged, - with an exit for goods located within the reading area and - with a limiting device for temporarily limiting the exit and/or the position of goods in the reading area , - wherein the reading device comprises at least one reading unit which can be moved automatically in relation to the reading area , - wherein the limiting device is designed as a blocking device for temporarily closing the exit, - wherein the limiting device is configured to release the exit of the reading area and/or the removal of the goods from the reading area only after a predetermined period of time has elapsed after the start of a respective reading process, characterized in that that the limiting device is configured to lock the exit during the predetermined period of time. - with at least one reading device for contactless identification of transponders, - with a reading area which is at least section wise arranged within the range of the reading device and in which goods for bulk detection can be arranged, - with an exit for goods located within the reading area and - with a limiting device for temporarily limiting the exit and/or the position of goods in the reading area , - wherein the reading device comprises at least one reading unit which can be moved automatically in relation to the reading area , - wherein the limiting device is designed as a blocking device for temporarily closing the exit, - wherein the limiting device is configured to release the exit of the reading area and/or the removal of the goods from the reading area only after a predetermined period of time has elapsed after the start of a respective reading process, characterized in that that the limiting device is configured to lock the exit during the predetermined period of time.
A cooking appliance comprising: a base , a heat source , and cooking elements mounted to said base, cooking elements providing a cooking surface upon which food can be cooked, characterized in that said cooking element is a multisided element having various cooking surfaces , where each side of said multisided cooking elements provides a different cooking surface, said various cooking surfaces being arranged about a central axis of said multisided cooking element and said multisided cooking element is mounted to said base to allow said cooking element to rotate in order to present the desired surfaces . a base , a heat source , and cooking elements mounted to said base, cooking elements providing a cooking surface upon which food can be cooked, characterized in that said cooking element is a multisided element having various cooking surfaces , where each side of said multisided cooking elements provides a different cooking surface, said various cooking surfaces being arranged about a central axis of said multisided cooking element and said multisided cooking element is mounted to said base to allow said cooking element to rotate in order to present the desired surfaces .
A refrigerant fluoropropene composition comprising E-1,3,3,3-tetrafluoropropene, 1,1,3,3,3-pentafluoropropene, and 2,3,3,3-tetrafluoroprop ene, wherein the total amount of 1,1,3,3,3-pentafluoropropene and 2,3,3,3-tetrafluoropropene is 1.0 wt.% or less, based on the total weight of the fluoropropene composition, wherein the 2,3,3,3-tetrafluoropropene is present in the fluoropropene composition in an amount of at least 0.001 wt.% based on the total weight of the fluoropropene composition, and wherein the 1,1,3,3,3-pentafluoropropene is present in the fluoropropene composition in an amount of at least 0.001 wt.% based on the total weight of the fluoropropene composition.
A sensor mounting assembly configured for use with a vessel arrangement including at least first, second, third and fourth vessels , the sensor mounting assembly including: a first elongated frame member ; a first roller attached to the first elongated frame member , the first roller configured to contact and roll upon a first surface of one of the first, second, third and fourth vessels ; a first sensor attached to the first elongated frame member and configured to contact a surface of the first vessel upon actuation in a first direction ; a second elongated frame member connected to the first elongated frame member ; a second roller attached to the second elongated frame member , the second roller configured to contact and roll upon a second surface of one of the first, second, third and fourth vessels ; and a second sensor attached to the second elongated frame member and configured to contact a surface of the second vessel upon actuation in a second direction that is substantially orthogonal to the first direction . a first elongated frame member ; a first roller attached to the first elongated frame member , the first roller configured to contact and roll upon a first surface of one of the first, second, third and fourth vessels ; a first sensor attached to the first elongated frame member and configured to contact a surface of the first vessel upon actuation in a first direction ; a second elongated frame member connected to the first elongated frame member ; a second roller attached to the second elongated frame member , the second roller configured to contact and roll upon a second surface of one of the first, second, third and fourth vessels ; and a second sensor attached to the second elongated frame member and configured to contact a surface of the second vessel upon actuation in a second direction that is substantially orthogonal to the first direction .