mhurhangee/patent-ind-claim-en huggingface dataset:
Suction head configured to be applied in a vacuum cleaner and to perform a cleaning action on a surface , the suction head comprising: a housing that includes a coupling area configured to enable coupling of the housing to an air suction source of the vacuum cleaner , and two brushes in a substantially parallel arrangement in the housing , wherein each of the brushes is rotatable about a rotation axis and is configured to interact with the surface to be cleaned, and wherein each of the brushes is designed to be capable to pick up liquids from the surface , wherein a surface of the housing facing the brushes comprises two adjacent concavely curved areas , wherein each of the concavely curved areas covers a portion of a respective one of the brushes , wherein the surface of the housing facing the brushes is provided with an outlet opening that is in fluid communication with the coupling area , characterized in that the outlet opening is at a position of an interface of the concavely curved areas and is dimensioned to cover only a portion of a dimension of the brushes in a longitudinal direction ( l ) being the direction in which the rotation axes of the brushes extend. a housing that includes a coupling area configured to enable coupling of the housing to an air suction source of the vacuum cleaner , and two brushes in a substantially parallel arrangement in the housing , wherein each of the brushes is rotatable about a rotation axis and is configured to interact with the surface to be cleaned, and wherein each of the brushes is designed to be capable to pick up liquids from the surface , wherein a surface of the housing facing the brushes comprises two adjacent concavely curved areas , wherein each of the concavely curved areas covers a portion of a respective one of the brushes , wherein the surface of the housing facing the brushes is provided with an outlet opening that is in fluid communication with the coupling area , characterized in that the outlet opening is at a position of an interface of the concavely curved areas and is dimensioned to cover only a portion of a dimension of the brushes in a longitudinal direction ( l ) being the direction in which the rotation axes of the brushes extend.
A random access method, comprising: grouping (S210, S310), by a network device, available random access resources into a plurality of random access resource groups, wherein the plurality of random access resource groups are in one-to-one correspondence with a plurality of combinations, and each of the plurality of combinations comprises a combination of an uplink transmission capability and a coverage level, wherein the uplink transmission capability comprises a carrier support capability, the carrier support capability is used to indicate whether multi-carrier transmission is supported, and a coverage level indicates a quantity of repeated transmissions of a terminal device; sending (S220, S320), by the network device, information about the plurality of random access resource groups to the terminal device; receiving (S240, S340), by the network device, a random access request from the terminal device, wherein the random access request is used to request to access the network device; determining (S250, S350), by the network device, a target random access resource group to which a random access resource used for the random access request belongs, wherein the plurality of random access resource groups comprise the target random access resource group; and determining (S260, S360), by the network device based on the target random access resource group, an uplink transmission capability and a coverage level of the terminal device that matches the target random access resource group. grouping (S210, S310), by a network device, available random access resources into a plurality of random access resource groups, wherein the plurality of random access resource groups are in one-to-one correspondence with a plurality of combinations, and each of the plurality of combinations comprises a combination of an uplink transmission capability and a coverage level, wherein the uplink transmission capability comprises a carrier support capability, the carrier support capability is used to indicate whether multi-carrier transmission is supported, and a coverage level indicates a quantity of repeated transmissions of a terminal device; sending (S220, S320), by the network device, information about the plurality of random access resource groups to the terminal device; receiving (S240, S340), by the network device, a random access request from the terminal device, wherein the random access request is used to request to access the network device; determining (S250, S350), by the network device, a target random access resource group to which a random access resource used for the random access request belongs, wherein the plurality of random access resource groups comprise the target random access resource group; and determining (S260, S360), by the network device based on the target random access resource group, an uplink transmission capability and a coverage level of the terminal device that matches the target random access resource group.
A two-component polyurethane adhesive composition, comprising: A) a polyol component, wherein the polyol component comprises one or more polyether polyols; and B) an isocyanate component, wherein the isocyanate component comprises a first isocyanate prepolymer, wherein the first isocyanate prepolymer is polymerized from isocyanate and a non-linear chain extender, characterized in that the polyol component further comprises an amine catalyst, wherein the amine catalyst has a property of delaying reaction, and wherein the amine catalyst is at least one selected from the group consisting of diazabicycloundecene catalysts that block acid, and a reaction product of glycerol and diazabicyclooctane, and in that the isocyanate component further comprises an aliphatic isocyanate, wherein the aliphatic isocyanate comprises 2 isocyanate groups, and wherein the aliphatic isocyanate is at least one selected from the group consisting of 4,4-dicyclohexylmethane diisocyanate, hexamethylene diisocyanate and isophorone diisocyanate. A) a polyol component, wherein the polyol component comprises one or more polyether polyols; and B) an isocyanate component, wherein the isocyanate component comprises a first isocyanate prepolymer, wherein the first isocyanate prepolymer is polymerized from isocyanate and a non-linear chain extender, characterized in that the polyol component further comprises an amine catalyst, wherein the amine catalyst has a property of delaying reaction, and wherein the amine catalyst is at least one selected from the group consisting of diazabicycloundecene catalysts that block acid, and a reaction product of glycerol and diazabicyclooctane, and in that the isocyanate component further comprises an aliphatic isocyanate, wherein the aliphatic isocyanate comprises 2 isocyanate groups, and wherein the aliphatic isocyanate is at least one selected from the group consisting of 4,4-dicyclohexylmethane diisocyanate, hexamethylene diisocyanate and isophorone diisocyanate. wherein the isocyanate component comprises a first isocyanate prepolymer, wherein the first isocyanate prepolymer is polymerized from isocyanate and a non-linear chain extender, characterized in that the polyol component further comprises an amine catalyst, wherein the amine catalyst has a property of delaying reaction, and wherein the amine catalyst is at least one selected from the group consisting of diazabicycloundecene catalysts that block acid, and a reaction product of glycerol and diazabicyclooctane, and in that the isocyanate component further comprises an aliphatic isocyanate, wherein the aliphatic isocyanate comprises 2 isocyanate groups, and wherein the aliphatic isocyanate is at least one selected from the group consisting of 4,4-dicyclohexylmethane diisocyanate, hexamethylene diisocyanate and isophorone diisocyanate.
A three-dimensional printing device , comprising: a printing platform , comprising a carrying surface (S1, S1'); a printing head , disposed above the printing platform ; a sensor , disposed above the printing platform ; and a controller , coupled to the printing head and the sensor , wherein the controller is configured to: analyze a first layer slicing data (SI) of a three-dimensional object to obtain a printing range (PR), and operate the sensor to sense a plurality of sensing points (D1, D2, D3, D4) corresponding to the printing range (PR) on the carrying surface (S1, S1') of the printing platform , so as to obtain a plurality of sensing parameters corresponding to the sensing points (D1, D2, D3, D4), determine whether the printing platform is inclined according to the sensing parameters, if the printing platform 15 is inclined, determine an object shape of a compensation object (OB) according to the printing range (PR) and the sensing parameters, and operate the printing head to pre-print the compensation object (OB) on the carrying surface (S1, S1') of the printing platform before printing the three-dimensional object. a printing platform , comprising a carrying surface (S1, S1'); a printing head , disposed above the printing platform ; a sensor , disposed above the printing platform ; and a controller , coupled to the printing head and the sensor , wherein the controller is configured to: analyze a first layer slicing data (SI) of a three-dimensional object to obtain a printing range (PR), and operate the sensor to sense a plurality of sensing points (D1, D2, D3, D4) corresponding to the printing range (PR) on the carrying surface (S1, S1') of the printing platform , so as to obtain a plurality of sensing parameters corresponding to the sensing points (D1, D2, D3, D4), determine whether the printing platform is inclined according to the sensing parameters, if the printing platform 15 is inclined, determine an object shape of a compensation object (OB) according to the printing range (PR) and the sensing parameters, and operate the printing head to pre-print the compensation object (OB) on the carrying surface (S1, S1') of the printing platform before printing the three-dimensional object. analyze a first layer slicing data (SI) of a three-dimensional object to obtain a printing range (PR), and operate the sensor to sense a plurality of sensing points (D1, D2, D3, D4) corresponding to the printing range (PR) on the carrying surface (S1, S1') of the printing platform , so as to obtain a plurality of sensing parameters corresponding to the sensing points (D1, D2, D3, D4), determine whether the printing platform is inclined according to the sensing parameters, if the printing platform 15 is inclined, determine an object shape of a compensation object (OB) according to the printing range (PR) and the sensing parameters, and operate the printing head to pre-print the compensation object (OB) on the carrying surface (S1, S1') of the printing platform before printing the three-dimensional object.
Toilet seat or toilet lid implemented with at least one functional electronic or electric component mounted on a support which is joint to a base material of the toilet seat or the toilet lid and is connected to a power supply or signal processing unit, wherein the support consists of approximately the same material as a base body of the toilet seat or toilet lid, wherein the arrangement of the toilet seat or toilet lid is prefabricated in a separate production line and then delivered to a press as a preform, and wherein a seat heater is mounted on the prefabricated support as an additional functional, preferably electronic or electric component.
A catheterization system , comprising: a catheter having a flexible catheter shaft with a distal portion adapted for insertion into a heart of a subject, the distal portion having at least one electrode , the catheter shaft having a lumen for passing an electrically conductive fluid therethrough to exit the catheter at the distal portion, the catheter providing an isolated ground of the system; an electrical connection protruding into the lumen at one end and connected to the isolated ground of the system provided by the catheter at the other end so as to link electrically conductive fluid passing through the lumen to the isolated ground, wherein the electrical connection protrudes into the lumen at a location proximal of the distal portion so as to bypass the electrode a catheter having a flexible catheter shaft with a distal portion adapted for insertion into a heart of a subject, the distal portion having at least one electrode , the catheter shaft having a lumen for passing an electrically conductive fluid therethrough to exit the catheter at the distal portion, the catheter providing an isolated ground of the system; an electrical connection protruding into the lumen at one end and connected to the isolated ground of the system provided by the catheter at the other end so as to link electrically conductive fluid passing through the lumen to the isolated ground, wherein the electrical connection protrudes into the lumen at a location proximal of the distal portion so as to bypass the electrode
A heart organoid of at least 60% cardiac cells irrespective of optional additional cells of a vascular system of the organoid; wherein the cardiac cells surround an inner cavity, wherein the cardiac cells are selected from the group of cardiomyocytes, endocardial cells and epicardial cells, and wherein the heart organoid comprises cardiomyocytes or endocardial cells that directly face the inner cavity, wherein the organoid is obtainable by differentiating pluripotent cells to cardiac cells and culturing in 3D culture.
A carrier and associated bracket wherein the carrier has a longitudinal length and comprises a carrier base and two side walls , the carrier having a substantially U-shaped cross-section, and wherein the bracket is for mounting panels to the carrier, the bracket comprising a base and two flanges extending away from the base, the base being located between the two flanges, each flange having an inwardly-facing surface and an outwardly-facing surface bounded by two side edges and a distal end , and wherein each flange comprises at least one outwardly protruding tab configured to engage with an inner surface of a side wall of the carrier when the bracket and carrier are assembled such that the distal end of each flange of the bracket extends in a direction parallel to the longitudinal length of the carrier and thereby securing the bracket to the carrier, and characterized in that the bracket further comprises one or more slots for receiving a panel.
headlamp for a motor vehicle, comprising: -) a first optical assembly , which is mounted so as to pivot about a first axis -) a second optical assembly which is pivotably mounted about a second axis , wherein the first axis and the second axis are substantially parallel to each other, wherein at least one adjusting device is provided for simultaneously pivoting the two optical units about their axes , wherein the at least one adjusting device is movably connected to a coupling element and drives the coupling element , and wherein the coupling element driven by the at least one adjusting device is movably connected to the first structural unit via a first connection point and to the second structural unit via a second connection point , wherein exactly one optical unit is further pivotable about an axis extending normal to the two pivot axes , characterized in that that connecting point which connects the coupling element to that structural unit which is mounted so as to be pivotable about only one axis is designed in such a way that the coupling element and the structural unit can be displaced relative to one another at least in a plane normal to the further pivot axis , running normal to the two pivot axes , of the structural unit which can be pivoted about two axes. -) a first optical assembly , which is mounted so as to pivot about a first axis -) a second optical assembly which is pivotably mounted about a second axis ,
A preformed stabilizer formed by free-radical polymerization of a mixture comprising: (a) at least one ethylenically unsaturated macromolecule or macromer, with (b) at least three different radically polymerizable ethylenically unsaturated monomers, in the presence of (c) at least one free-radical polymerization initiator, and, optionally, (d) a liquid diluent, and, optionally, (e) a chain transfer agent (a) at least one ethylenically unsaturated macromolecule or macromer, with (b) at least three different radically polymerizable ethylenically unsaturated monomers, in the presence of (c) at least one free-radical polymerization initiator, and, optionally, (d) a liquid diluent, and, optionally, (e) a chain transfer agent
A method for uplink transmission without dynamic grant, comprising: receiving , by a user equipment, UE, a radio resource control, RRC, signaling carrying one or more configurations for one or more bandwidth parts within a system bandwidth and one or more configuration of resources for transmission without dynamic grant including demodulation reference signal, DMRS, configuration, associated with the one or more bandwidth parts, the configuration for each of the one or more bandwidth parts comprising a numerology, a starting frequency domain location, a frequency domain length for transmission without dynamic grant; and performing , by the UE, uplink transmission without dynamic grant according to the resources configuration in a bandwidth part of the one or more bandwidth parts. receiving , by a user equipment, UE, a radio resource control, RRC, signaling carrying one or more configurations for one or more bandwidth parts within a system bandwidth and one or more configuration of resources for transmission without dynamic grant including demodulation reference signal, DMRS, configuration, associated with the one or more bandwidth parts, the configuration for each of the one or more bandwidth parts comprising a numerology, a starting frequency domain location, a frequency domain length for transmission without dynamic grant; and performing , by the UE, uplink transmission without dynamic grant according to the resources configuration in a bandwidth part of the one or more bandwidth parts.
Apparatus for labelling individual products , in particular packs or goods, - having a feed device for transporting respective products along a transport path, - having a label application device with a blower head for applying a label to the surface of the product , wherein the blower head has holding means for fixing the label in a blowing-off position (II) and blowing-off means for generating a compressed-air blast directed in a blowing-off direction (A) from the blowing-off position (II) to the feed device , and - having a label dispensing device for providing a label in a dispensing position (I), - wherein the label application device has a conveying unit for transporting the respective labels from the dispensing position (I) to the blowing-off position (II), wherein the conveying unit has a transport element and a contact-pressure generating means , characterized - in that the label application device has a label adjusting means that is separated from the blower head and is rotatable about an axis of rotation (d) parallel to the blowing-off direction (A), said label adjusting means having one or more suction openings which are or are able to be fluidically connected to a negative-pressure generating unit, wherein the transport element passes the suction openings . - having a feed device for transporting respective products along a transport path, - having a label application device with a blower head for applying a label to the surface of the product , wherein the blower head has holding means for fixing the label in a blowing-off position (II) and blowing-off means for generating a compressed-air blast directed in a blowing-off direction (A) from the blowing-off position (II) to the feed device , and - having a label dispensing device for providing a label in a dispensing position (I), - wherein the label application device has a conveying unit for transporting the respective labels from the dispensing position (I) to the blowing-off position (II), wherein the conveying unit has a transport element and a contact-pressure generating means , characterized - in that the label application device has a label adjusting means that is separated from the blower head and is rotatable about an axis of rotation (d) parallel to the blowing-off direction (A), said label adjusting means having one or more suction openings which are or are able to be fluidically connected to a negative-pressure generating unit, wherein the transport element passes the suction openings .
A method comprising: receiving, with one or more processors , information representative of a bioelectrical brain signal of a patient; selecting a frequency band of interest of the bioelectrical brain signal from a plurality of predetermined frequency bands, wherein the frequency band of interest is based on a patient condition, and wherein the predetermined frequency bands include two or more of a delta band, a theta band, an alpha band, a beta band, a gamma band, or a high gamma band; selecting two or more frequency sub-bands of the frequency band of interest of the bioelectric brain signal; determining, with the one or more processors, activity of the bioelectrical brain signal within the selected two or more frequency sub-bands; determining, with the one or more processors, a patient state based on activity of the bioelectrical brain signal within the selected two or more frequency sub-bands of the frequency band of interest of the bioelectrical brain signal; and generating, with the one or more processors, an indication of the determined patient state. receiving, with one or more processors , information representative of a bioelectrical brain signal of a patient; selecting a frequency band of interest of the bioelectrical brain signal from a plurality of predetermined frequency bands, wherein the frequency band of interest is based on a patient condition, and wherein the predetermined frequency bands include two or more of a delta band, a theta band, an alpha band, a beta band, a gamma band, or a high gamma band; selecting two or more frequency sub-bands of the frequency band of interest of the bioelectric brain signal; determining, with the one or more processors, activity of the bioelectrical brain signal within the selected two or more frequency sub-bands; determining, with the one or more processors, a patient state based on activity of the bioelectrical brain signal within the selected two or more frequency sub-bands of the frequency band of interest of the bioelectrical brain signal; and generating, with the one or more processors, an indication of the determined patient state.
A method of separating oil from a composition comprising an oil and water emulsion, which comprises adding a separation additive to the composition and performing at least one oil separation step, wherein the separation additive comprises a mixture of a fatty ester of an alkoxylated polyol wherein the polyol comprises greater than 3 carbon atoms and a fatty ester of alkoxylated glycerol.
A vacuum film for scanning an oral cavity , comprising: - a perforation layer ; - a fiber layer arranged on the perforation layer ; and - a texture layer arranged on the fiber layer . - a perforation layer ; - a fiber layer arranged on the perforation layer ; and - a texture layer arranged on the fiber layer .