mhurhangee/patent-ind-claim-en huggingface dataset:
A bicycle trailer comprising a trailer frame and a wheel suspension connected to the trailer frame , wherein the wheel suspension has two wheel swing arms each having a wheel mounting , wherein the wheel swing arms are pivotably connected to the trailer frame in such a way that each of the wheel mountings is pivotable relative to the trailer frame in one of two pivot planes oriented in mutually parallel relationship about a common axis of rotation , wherein the wheel swing arms are connected together by way of a torsion bar spring in such a way that a torque (M 1 , M 2 ) can be transmitted between each of the wheel swing arms and the torsion bar spring , wherein the torsion bar spring is arranged perpendicularly to the two parallel pivot planes and along the common axis of rotation of the wheel swing arms , wherein the torsion bar spring is connected to the trailer frame in such a way that a torque (M 3 ) counteracting the torques (M 1 , M 2 ) introduced into the torsion bar spring by way of the wheel swing arms can be transmitted between the torsion bar spring and the trailer frame , characterised in that the torsion bar spring is connected to the trailer frame in such a way that a prestressing of the torsion bar spring is adjustable.
An anti-LAMP1 antibody or a LAMP1-binding antibody fragment thereof which comprises: a CDR1-H of sequence SEQ ID NO: 2 , a CDR2-H of sequence SEQ ID NO: 3, and a CDR3-H of sequence SEQ ID NO: 4; and a CDR1-L of sequence SEQ ID NO: 6, a CDR2-L of sequence DTS, and a CDR3-L of sequence SEQ ID NO: 7.
Process of preparation of a chewing candy comprising allulose and soluble dietary fibers, comprising: - seeding a 40/60 to 60/40 ratio by weight of allulose and soluble dietary fiber blended in a mixer or a puller with 10 to 25 % by weight of the total dry weight of the candy of crystalline allulose particles having a mean size below 100 μm, determined by means of a laser diffraction analyzer as identified in the description and - mixing at a temperature between 20 to 45°C, preferably at 35 °C, during 10 minutes to 30 minutes - seeding a 40/60 to 60/40 ratio by weight of allulose and soluble dietary fiber blended in a mixer or a puller with 10 to 25 % by weight of the total dry weight of the candy of crystalline allulose particles having a mean size below 100 μm, determined by means of a laser diffraction analyzer as identified in the description and - mixing at a temperature between 20 to 45°C, preferably at 35 °C, during 10 minutes to 30 minutes
Electro-medical appliance comprising a housing with a frame and at least one housing face accessible by a user, and an internal device for the conditional activation of at least one function of the appliance in response to the detection of an electric current circulating in a cable outside the appliance , characterised in that it further comprises a system having: - a cable-holding device arranged on the housing face, on the outer side of the appliance, for holding said cable outside the appliance in the region of the housing face, in a position passing close to the housing face, and - a current detecting device (30-31) built into the appliance in the region of the housing face and the cable-holding device, for detecting the circulation of current in said cable outside the appliance which is held in the cable-holding device. - a cable-holding device arranged on the housing face, on the outer side of the appliance, for holding said cable outside the appliance in the region of the housing face, in a position passing close to the housing face, and - a current detecting device (30-31) built into the appliance in the region of the housing face and the cable-holding device, for detecting the circulation of current in said cable outside the appliance which is held in the cable-holding device.
A method for providing a message or advertisement on a railway rail wherein a profile of the railway rail has three distinct parts: a foot that rests on the ground, a head on which train wheels run, and a web that connects these two parts; comprising the step of attachina a flexible maanetic strip comprising a messaae surface disolavina a message to at least a part of the web and at least a part of the foot of a piece of the railway rail , whereby the flexible magnetic strip is bent in order to follow the shape of the railway rail. advertisement on a railway rail wherein a profile of the railway rail has three distinct parts: a foot that rests on the ground, a head on which train wheels run, and a web that connects these two parts; comprising the step of attachina a flexible maanetic strip comprising a messaae surface disolavina a message to at least a part of the web and at least a part of the foot of a piece of the railway rail , whereby the flexible magnetic strip is bent in order to follow the shape of the railway rail. of attachina a flexible maanetic strip comprising a messaae surface disolavina a message to at least a part of the web and at least a part of the foot of a piece of the railway rail , whereby the flexible magnetic strip is bent in order to follow the shape of the railway rail.
Assembly comprising a rotating element and a tie-rod coupled to the rotating element , the tie-rod being hinged to the rotating element about a hinge axis (x 3 , x 4 ) parallel to the rotation axis (x 1 , x 2 ) of the rotating element , wherein the tie-rod comprises, at at least one end thereof, a fork formed by a pair of tongues , wherein the rotating element comprises, on a surface thereof facing towards the at least one end of the tie-rod , a coupling formation protruding from the surface of the rotating element , characterized in that said rotating element and said tie-rod are of plastic material, said tongues have respective pins extending towards each other, a through hole , or a pair of blind holes, adapted to receive said pins , is/are formed through the coupling formation , a top end of the coupling formation having a wedge portion configured to cause the tongues of the fork to temporarily spread apart during mounting of the tie-rod onto the rotating element , and in that on said surface of the rotating element there is formed a pair of grooves arranged on opposite sides of the coupling formation , said grooves being configured to be engaged by respective end protrusions of the tongues in a partial range of the angular stroke of the tie-rod relative to the rotating element . wherein the tie-rod comprises, at at least one end thereof, a fork formed by a pair of tongues , wherein the rotating element comprises, on a surface thereof facing towards the at least one end of the tie-rod , a coupling formation protruding from the surface of the rotating element , characterized in that said rotating element and said tie-rod are of plastic material, said tongues have respective pins extending towards each other, a through hole , or a pair of blind holes, adapted to receive said pins , is/are formed through the coupling formation , a top end of the coupling formation having a wedge portion configured to cause the tongues of the fork to temporarily spread apart during mounting of the tie-rod onto the rotating element , and in that on said surface of the rotating element there is formed a pair of grooves arranged on opposite sides of the coupling formation , said grooves being configured to be engaged by respective end protrusions of the tongues in a partial range of the angular stroke of the tie-rod relative to the rotating element .
Method for producing an expanded granulate from sand grain-shaped mineral material having an expanding agent, for example for producing an expanded granulate from perlite sand or obsidian sand; wherein the material is fed into a furnace ; wherein the material is conveyed in a substantially vertically disposed furnace shaft of the furnace along a conveying path through a plurality of heating zones arranged vertically separated from one another, wherein each heating zone can be heated with at least one independently controllable heating element ; wherein the material is thereby heated to a critical temperature at which the surfaces of the sand grains become plastic and the sand grains are expanded due to the expanding agent; wherein the expanded material is discharged from the furnace , wherein furthermore the material is fed together with a quantity of air from below, wherein the material is conveyed from bottom to top along the conveying path by means of the quantity of air flowing from bottom to top in the furnace shaft and forming an air flow, and wherein the expansion of the sand grains takes place in the upper half, preferably in the uppermost third, of the conveying path , characterized in that the material is heated so that the material , immediately before its entry into the furnace shaft , has a material entry temperature (T3) which is lower than the critical temperature and higher than an ambient temperature (RT).
A method of purifying a biological composition, the method comprising: a) disposing loose cationic ligand-functionalized staple fibers and a biological composition within a mixing volume of a vessel, wherein the loose cationic ligand-functionalized staple fibers have a modified surface layer comprising a grafted acrylic polymer comprising 10 to 100 percent by weight of a cationically-ionizable monomer unit, and wherein at least a portion of the loose cationic ligand-functionalized staple fibers are fibrillated; b) agitating the biological composition and the loose cationic ligand-functionalized staple fibers while they are in intimate contact with each other within the mixing volume to provide modified fibers and a purified biological composition; and c) separating at least a portion of the purified biological composition from the modified fibers and any loose cationic ligand-functionalized staple fibers with which it is in contact. a) disposing loose cationic ligand-functionalized staple fibers and a biological composition within a mixing volume of a vessel, wherein the loose cationic ligand-functionalized staple fibers have a modified surface layer comprising a grafted acrylic polymer comprising 10 to 100 percent by weight of a cationically-ionizable monomer unit, and wherein at least a portion of the loose cationic ligand-functionalized staple fibers are fibrillated; b) agitating the biological composition and the loose cationic ligand-functionalized staple fibers while they are in intimate contact with each other within the mixing volume to provide modified fibers and a purified biological composition; and c) separating at least a portion of the purified biological composition from the modified fibers and any loose cationic ligand-functionalized staple fibers with which it is in contact.
Articulated lever for a device for moving a furniture part received on a furniture carcass of an item of furniture , wherein the articulated lever has a spacer member in the form of a first and a second embossing , wherein the first embossing is present on a first side of the first articulated lever , and the second embossing is present on a second side of the first articulated lever , wherein the first and the second side of the first articulated lever are present opposite one another and spaced apart from one another, wherein the first and the second embossing are present opposite one another, characterized in that the first embossing has in the azimuthal and/or radial direction, about a centre, an elevation (22-24) and a depression (25-27) relative to a remaining surface of the first side , and the second embossing has in the azimuthal and/or radial direction, about a centre, an elevation and a depression relative to a remaining surface of the second side , wherein the articulated lever has an attachment means in the form of a through-opening which extends starting from the first side of the articulated lever to the opposite second side of the articulated lever , and wherein the first and/or the second embossing are or is formed to extend about the opening , wherein the first embossing and/or the second embossing have or has a bearing surface , wherein the bearing surface is formed in such a way that a further element of the device can be arranged in particular to bear flat against the bearing surface.
A method, comprising: receiving a video comprising video frames as an input; generating a set of object proposals from the video; generating object tracklets, each comprising object proposals with a predetermined level of confidence appearing in consecutive frames of the video; dividing each frame into a plurality of superpixels; constructing a graph comprising the set of object proposals from tracklets and superpixels; calculating a first cost function depending on the superpixel likelihoods of having an object class label and on estimated likelihoods defined for each superpixel, the estimated likelihood of a superpixel being a weighted sum of the object class likelihoods of the object proposals connected to it in the graph; calculating a second cost function depending on the object class likelihood of the object proposal and on estimated likelihoods defined for each object proposal being a weighted sum of the object class likelihoods of its constituent superpixels; minimizing the first and the second cost function simultaneously to infer the object class likelihoods of the object proposals and superpixels ; computing posterior probabilities of the superpixels of having an object class label based on the inferred object class likelihoods; and assigning each superpixel with an object class with a maximum posterior probability to constitute semantic object segmentation. receiving a video comprising video frames as an input; generating a set of object proposals from the video; generating object tracklets, each comprising object proposals with a predetermined level of confidence appearing in consecutive frames of the video; dividing each frame into a plurality of superpixels; constructing a graph comprising the set of object proposals from tracklets and superpixels; calculating a first cost function depending on the superpixel likelihoods of having an object class label and on estimated likelihoods defined for each superpixel, the estimated likelihood of a superpixel being a weighted sum of the object class likelihoods of the object proposals connected to it in the graph; calculating a second cost function depending on the object class likelihood of the object proposal and on estimated likelihoods defined for each object proposal being a weighted sum of the object class likelihoods of its constituent superpixels; minimizing the first and the second cost function simultaneously to infer the object class likelihoods of the object proposals and superpixels ; computing posterior probabilities of the superpixels of having an object class label based on the inferred object class likelihoods; and assigning each superpixel with an object class with a maximum posterior probability to constitute semantic object segmentation.
Method for determining a starting condition for cleaning a brake disk, comprising a. determining that an amount of rust on the brake disk exceeds a predefined threshold (S 1), b. determining an energy quantity being necessary for removing the amount of rust from the brake disk by pressing at least one corresponding brake pad against the brake disk (S2), c. estimating a distribution of brake energy over a current drive cycle by using at least one parameter describing historic driving behavior and at least one parameter characterizing the current drive cycle (S3), wherein the current drive cycle is the portion of the drive cycle which lies ahead, and d. deriving a starting speed and a starting brake force request from the distribution of brake energy, the starting speed and the starting brake force being determined such that the energy quantity being necessary for removing the determined amount of rust is fully applied to the brake disk during the current drive cycle (S4). a. determining that an amount of rust on the brake disk exceeds a predefined threshold (S 1), b. determining an energy quantity being necessary for removing the amount of rust from the brake disk by pressing at least one corresponding brake pad against the brake disk (S2), c. estimating a distribution of brake energy over a current drive cycle by using at least one parameter describing historic driving behavior and at least one parameter characterizing the current drive cycle (S3), wherein the current drive cycle is the portion of the drive cycle which lies ahead, and d. deriving a starting speed and a starting brake force request from the distribution of brake energy, the starting speed and the starting brake force being determined such that the energy quantity being necessary for removing the determined amount of rust is fully applied to the brake disk during the current drive cycle (S4).
A method for determining the presence or absence of a chromosome aneuploidy, comprising: (a) obtaining counts of nucleotide sequence reads mapped to genomic sections of a reference genome, which sequence reads are: (i) reads of circulating cell-free nucleic acid from a test sample from a pregnant female, and (ii) reads from nucleic acid fragments that are shorter than 160 bases, wherein obtaining counts comprises removing nucleotide sequence reads that are from fragments equal to or longer than 160 bases; (b) normalizing the counts, thereby generating normalized counts of sequence reads mapped to the genomic sections; and (c) determining the presence or absence of a chromosome aneuploidy according to the normalized counts. (a) obtaining counts of nucleotide sequence reads mapped to genomic sections of a reference genome, which sequence reads are: (i) reads of circulating cell-free nucleic acid from a test sample from a pregnant female, and (ii) reads from nucleic acid fragments that are shorter than 160 bases, wherein obtaining counts comprises removing nucleotide sequence reads that are from fragments equal to or longer than 160 bases; (i) reads of circulating cell-free nucleic acid from a test sample from a pregnant female, and (ii) reads from nucleic acid fragments that are shorter than 160 bases, wherein obtaining counts comprises removing nucleotide sequence reads that are from fragments equal to or longer than 160 bases; (b) normalizing the counts, thereby generating normalized counts of sequence reads mapped to the genomic sections; and (c) determining the presence or absence of a chromosome aneuploidy according to the normalized counts.
A method performed by a station, the method comprising: receiving, at the station , a beacon frame that includes a first set of enhanced distributed channel access, EDCA, parameters and a second set of EDCA parameters, wherein the first set of EDCA parameters is included in a first EDCA parameter set information element, IE, of the beacon frame and wherein the second set of EDCA parameters are included in a second EDCA parameter set information element, IE, of the beacon frame; and selecting, either the first set of EDCA parameters or the second set of EDCA parameters to apply to communication of data by the station via a network, based on one or more characteristics of the station , wherein the one or more characteristics include whether the station is battery operated or mains operated. receiving, at the station , a beacon frame that includes a first set of enhanced distributed channel access, EDCA, parameters and a second set of EDCA parameters, wherein the first set of EDCA parameters is included in a first EDCA parameter set information element, IE, of the beacon frame and wherein the second set of EDCA parameters are included in a second EDCA parameter set information element, IE, of the beacon frame; and selecting, either the first set of EDCA parameters or the second set of EDCA parameters to apply to communication of data by the station via a network, based on one or more characteristics of the station , wherein the one or more characteristics include whether the station is battery operated or mains operated.
A method performed by a central unit, CU, of a gNodeB, gNB, the gNB including the CU and a plurality of distributed units, DUs, the method comprising: receiving , from a source DU of the gNB, a first uplink, UL, radio resource control, RRC, transfer message including a measurement report associated with a user equipment, UE; transmitting , to a target DU of the gNB, a UE context setup request message based on the first UL RRC transfer message; receiving , from the target DU of the gNB, a UE context setup response message as a response to the UE context setup request message, the UE context setup response message including an identifier associated with the UE; transmitting , to the source DU of the gNB, an RRC reconfiguration message for the UE and information indicating that the source DU of the gNB stops data transmission for the UE; and receiving , from the target DU of the gNB, a second UL RRC transfer message including an RRC reconfiguration complete message. receiving , from a source DU of the gNB, a first uplink, UL, radio resource control, RRC, transfer message including a measurement report associated with a user equipment, UE; transmitting , to a target DU of the gNB, a UE context setup request message based on the first UL RRC transfer message; receiving , from the target DU of the gNB, a UE context setup response message as a response to the UE context setup request message, the UE context setup response message including an identifier associated with the UE; transmitting , to the source DU of the gNB, an RRC reconfiguration message for the UE and information indicating that the source DU of the gNB stops data transmission for the UE; and receiving , from the target DU of the gNB, a second UL RRC transfer message including an RRC reconfiguration complete message.