mhurhangee/patent-ind-claim-en huggingface dataset:
A method for retrieving and using Profiles, Demographics, and Interests (PDI) data, including a PDI-Q questionnaire, at a reception apparatus , said method comprising the following steps: receiving a broadcast stream, which includes: content from a content source , and metadata (PDI-FC) associated with said content, said metadata describing the available content; extracting from the received broadcast stream a Uniform Resource Identifier (URI) and a URI type that is associated with said URI; determining if the URI is a PDI locator based on the extracted URI type; determining the location of the PDI data associated with the received content based on the PDI locator identifying a location of the PDI data in a File Delivery over Unidirectional Transport, FLUTE, carousel extracted from a Transport Stream carrying the content; retrieving, by the reception apparatus , the PDI data including said PDI-Q questionnaire using the extracted URI when the extracted URI type indicates that the extracted URI is a PDI locator; generating PDI-A answers to said retrieved PDI-Q questionnaire; filtering the received content based on said PDI-A answers and said metadata (PDI-FC); and outputting the filtered content for display. receiving a broadcast stream, which includes: content from a content source , and metadata (PDI-FC) associated with said content, said metadata describing the available content; extracting from the received broadcast stream a Uniform Resource Identifier (URI) and a URI type that is associated with said URI; determining if the URI is a PDI locator based on the extracted URI type; determining the location of the PDI data associated with the received content based on the PDI locator identifying a location of the PDI data in a File Delivery over Unidirectional Transport, FLUTE, carousel extracted from a Transport Stream carrying the content; retrieving, by the reception apparatus , the PDI data including said PDI-Q questionnaire using the extracted URI when the extracted URI type indicates that the extracted URI is a PDI locator; generating PDI-A answers to said retrieved PDI-Q questionnaire; filtering the received content based on said PDI-A answers and said metadata (PDI-FC); and outputting the filtered content for display.
A current collecting member of a secondary battery, wherein the current collecting member is configured to connect a first tab of an electrode assembly of the secondary battery to a first electrode terminal of a top cover assembly of the secondary battery, wherein the electrode assembly comprises a main body portion ; the current collecting member comprises a substrate and a support plate , the support plate being connected to the first tab and the substrate ; and the substrate is provided with a channel, wherein the channel is configured to place an end surface of the main body portion in communication with space on a side of the substrate facing away from the main body portion , characterized in that the channel includes a groove disposed in an inner surface of the substrate close to the main body portion . the current collecting member comprises a substrate and a support plate , the support plate being connected to the first tab and the substrate ; and the substrate is provided with a channel, wherein the channel is configured to place an end surface of the main body portion in communication with space on a side of the substrate facing away from the main body portion , characterized in that the channel includes a groove disposed in an inner surface of the substrate close to the main body portion .
A battery management system comprising: a first to nth battery management modules (200, M, S 1 to S n-1 ) sequentially connected through a communication interface , wherein each battery management module designates itself as a master module or a slave module depending on whether or not a pulse signal is received from a battery management module at a higher level, and each battery management module allocates its communication ID according to a pulse width of the pulse signal received from the battery management module at a higher level, generates a pulse signal having the pulse width corresponding to the communication ID of the battery management module at a lower level, and outputs the generated pulse signal to the battery management module at a lower level, wherein when a battery management module recognizes that the battery management module at a lower level is replaced, it generates a pulse signal corresponding to the communication ID of the replaced battery management module and outputs the generated pulse signal.. a first to nth battery management modules (200, M, S 1 to S n-1 ) sequentially connected through a communication interface , wherein each battery management module designates itself as a master module or a slave module depending on whether or not a pulse signal is received from a battery management module at a higher level, and each battery management module allocates its communication ID according to a pulse width of the pulse signal received from the battery management module at a higher level, generates a pulse signal having the pulse width corresponding to the communication ID of the battery management module at a lower level, and outputs the generated pulse signal to the battery management module at a lower level, wherein when a battery management module recognizes that the battery management module at a lower level is replaced, it generates a pulse signal corresponding to the communication ID of the replaced battery management module and outputs the generated pulse signal..
A light barrier device with at least one light pulse emitting transmitter and at least one light pulse receiving receiver , the operation of which is optically synchronised so that the transmitter and the receiver are cyclically activated within predetermined scans, and having an evaluation unit in which an object detection signal is generated as a function of received signals, the light pulses of at least two scans forming different transmission channels being evaluated in the evaluation unit in order to generate the object detection signal, wherein the light pulses emitted by the transmitter in the two scans are different, characterised in that said or each transmitter transmits at least two pulse sequences at a defined time interval within one of the two scans, and in that said or each transmitter transmits at least one pulse sequence less within the second scan than within the first scan, the pulse sequences of different transmission channels being arranged temporally in such a way that at least one pulse sequence in at least two successive scans cannot be interfered with by the pulse sequences of another transmission channel.
A laser diode vertical epitaxial structure, comprising: a transverse waveguide comprising an active layer between an n-type semiconductor layer and a p-type semiconductor layer wherein the transverse waveguide is bounded by a lower index n-cladding layer on an n-side of the transverse waveguide and a lower index p-cladding layer on a p-side of the transverse waveguide ; a lateral waveguide that is orthogonal to the transverse waveguide , wherein the lateral waveguide is bounded in a longitudinal direction at a first end by a facet coated with a high reflector, HR, coating and at a second end by a facet coated with a partial reflector, PR, coating; and a higher order mode suppression layer, HOMSL, (702; 802; 902; 1002; 1102; 1202; 1302) disposed adjacent to at least one lateral side of the lateral waveguide and that extends in a longitudinal direction, wherein the lateral waveguide is confined by current injection with gain guiding; wherein the current injection is configured to enable higher order mode suppression via gain tailoring; wherein the gain tailoring is directed from an n-metal contact (2114; 2214; 2314; 2414; 2514; 2614; 2714; 2814; 2914) on the n-side of the laser diode epitaxial structure to the p-metal contact on the p-side of the epitaxial structure; wherein the n-metal contact (2214; 2414; 2614; 2714; 2914) is narrower in the lateral direction than the p-metal contact in the lateral direction; or wherein a first edge of the n-metal contact (2114; 2314; 2514) aligns to a center-plane of an emitter face of the laser diode epitaxial structure. a transverse waveguide comprising an active layer between an n-type semiconductor layer and a p-type semiconductor layer wherein the transverse waveguide is bounded by a lower index n-cladding layer on an n-side of the transverse waveguide and a lower index p-cladding layer on a p-side of the transverse waveguide ; a lateral waveguide that is orthogonal to the transverse waveguide , wherein the lateral waveguide is bounded in a longitudinal direction at a first end by a facet coated with a high reflector, HR, coating and at a second end by a facet coated with a partial reflector, PR, coating; and a higher order mode suppression layer, HOMSL, (702; 802; 902; 1002; 1102; 1202; 1302) disposed adjacent to at least one lateral side of the lateral waveguide and that extends in a longitudinal direction, wherein the lateral waveguide is confined by current injection with gain guiding; wherein the current injection is configured to enable higher order mode suppression via gain tailoring; wherein the gain tailoring is directed from an n-metal contact (2114; 2214; 2314; 2414; 2514; 2614; 2714; 2814; 2914) on the n-side of the laser diode epitaxial structure to the p-metal contact on the p-side of the epitaxial structure; wherein the n-metal contact (2214; 2414; 2614; 2714; 2914) is narrower in the lateral direction than the p-metal contact in the lateral direction; or wherein a first edge of the n-metal contact (2114; 2314; 2514) aligns to a center-plane of an emitter face of the laser diode epitaxial structure.
A winder for producing a roll from a material web of flexible material, which is guided over a contact roller of the winder and is wound in the same to form a roll , wherein the contact roller , during winding, stays in contact with the roll , and wherein the wrapping angle (α) of the material web moving over the contact roller during progressive winding, is held continuously at a variable set value predefined for the respective roll, with a device for supporting the roll to be wound, wherein in operation the contact roller touches the roll during winding, wherein means are provided in order to maintain, as winding of the roll progresses, a changeable set value, which can be predefined for the respective roll, for the wrapping angle (α) of the material web moving over the contact roller , wherein the means comprise an auxiliary roller , over which the material web is guided in operation, and wherein the auxiliary roller , during winding, is arranged so as to be movable relative to the contact roller , such that in operation the material web running off the auxiliary roller runs, depending on the respective position of the auxiliary roller , onto the contact roller at the location of another contact line , characterised in that the auxiliary roller is supported on further pendulum arms , which themselves are arranged so as to be movable relative to the contact roller , and wherein the contact roller is arranged on pendulum arms , which have a common swivel axis with the further pendulum arms of the auxiliary roller .
Orbital welding device , at least comprising a frame part for arranging one or more functional devices, a coupling area for coupling to a guide band , wherein the guide band is preferably being fastened to a tube in an operating state, the guide band surrounds the tube in the circumferential direction (U) and the guide band extends in the axial direction (A), thereby overlapping the tube in sections, a connecting device for connecting at least one feed line , a welding head connected to the connection device via the feed line , at least one drive device , wherein the drive device interacts with the guide band for moving the welding device with respect to the guide band , and a holding device arranged on the frame part , a fixing device and an axis device , wherein the holding device comprises a bearing seat wherein the axis device being designed to receive a welding wire storage device , wherein the axis device holds the welding wire storage device in such a way that it can be rotated at least at times with respect to the frame part , wherein the axle device can be locked in at least one position with respect to the frame part by means of the fixing device and the axis device comprising an operating element characterized in that that the fixing device comprises a first axis-side fixing means and a second fixing means , wherein the second fixing means is arranged or formed on a bearing seat or in the region of a bearing seat of the holding device , wherein the first fixing means and the second fixing means lock the axis device with respect to the holding device depending on a rotation of the axis device about its longitudinal axis which can be effected by means of the operating element and therefore a rotation of the first fixing means about the longitudinal axis of the axis device and wherein the axis device represents a subassembly, comprising one axis on which a first axle bearing seat and a second axle bearing seat for positioning in or on the holding device are formed, a first fixing means for interacting with a second fixing means formed in the area of the holding device , a brake device for reducing the rotation speed of the welding wire storage device and an operating element for manual positioning and rotating of the axis device . a holding device arranged on the frame part , a fixing device and an axis device , wherein the holding device comprises a bearing seat wherein the axis device being designed to receive a welding wire storage device , wherein the axis device holds the welding wire storage device in such a way that it can be rotated at least at times with respect to the frame part , wherein the axle device can be locked in at least one position with respect to the frame part by means of the fixing device and the axis device comprising an operating element characterized in that
Electric motor vehicle device comprising a working means , an electric drive motor for driving the working means , a commutation means for controlling the drive motor , a separately formed connector to which a corresponding counter-connector can be coupled electrically and mechanically, a device housing with an opening through which the at least one electric line extends that is led into the connector , and a fastening arrangement for fixing the connector , said fastening arrangement being arranged on the outer side of the device housing , characterized in that the fastening arrangement comprises at least one retaining web protruding outward from the device housing , and the retaining web is at least partly deformed around a connector flange of the connector so that the connector is fixed to the device housing by positive engagement, the device housing has a housing flange with a flange surface , the connector flange is formed as a web or frame protruding laterally from the connector , is formed to circumferentially extend, either partly or fully, around the connector , and is in surface contact with the housing flange , and the connector includes an electrically non-conductive connector body and at least one electric line retained by the connector body .
A sensor for measuring the flow rate of a fluid in a flow tube , the sensor comprising sensing means and a sensor body , wherein: a portion of the sensing means is located within the sensor body ; and a first portion of the sensor body is arranged to fasten the sensor body to the flow tube such that the sensor is positioned for sensing the flow rate of the fluid in the flow tube , and wherein the first portion of the sensor body is threaded and arranged to threadably fasten to the flow tube ; the first portion, or a further portion, of the sensor body is arranged to fasten the sensor body to a housing ; the housing houses signal converting means ; and wherein the signal converting means is arranged to apply an input signal to the sensing means and receive an output signal from the sensing means or a further sensing means of a further sensor , and characterised in that the sensor is positioned in a measurement tube arranged within the flow tube . a portion of the sensing means is located within the sensor body ; and a first portion of the sensor body is arranged to fasten the sensor body to the flow tube such that the sensor is positioned for sensing the flow rate of the fluid in the flow tube , and wherein the first portion of the sensor body is threaded and arranged to threadably fasten to the flow tube ; the first portion, or a further portion, of the sensor body is arranged to fasten the sensor body to a housing ; the housing houses signal converting means ; and wherein the signal converting means is arranged to apply an input signal to the sensing means and receive an output signal from the sensing means or a further sensing means of a further sensor , and characterised in that the sensor is positioned in a measurement tube arranged within the flow tube . the first portion, or a further portion, of the sensor body is arranged to fasten the sensor body to a housing ; the housing houses signal converting means ; and wherein the signal converting means is arranged to apply an input signal to the sensing means and receive an output signal from the sensing means or a further sensing means of a further sensor , and characterised in that the sensor is positioned in a measurement tube arranged within the flow tube .
Freeze-dried molded article, characterized in that it comprises ≥ 75% by wt. ascorbic acid and optionally one or more active substances and ≤ 15% by wt. of one or more scaffold-forming agents, wherein the scaffolding agents are selected from the group consisting of polysaccharides, polyaminosaccharides, glycosaminoglycans and / or synthetic polymers or mixtures thereof, with proteins being excepted, as well as optionally one or more auxiliary substances, in each case based on the total composition of the freeze-dried molded article, and whose 1% by wt. solution or suspension in water at 20 °C has a pH value of < 7.
Method in a first node for adapting a signal to be sent over a radio link from the first node to a second node in a wireless communication system , wherein the second node is configured with a codebook comprising a set of possible information alternatives for assisting the adaptation of the signal, from which codebook, the second node is arranged to select an information alternative, the first node being arranged to know a set of subsets of the set of possible information alternatives, wherein each subset of the set of subsets comprises at least a part of the codebook, and wherein the set of subsets comprises all different subsets of the set of possible information alternatives, the method comprising: sending a message to the second node , the message comprising a configuration request that restricts selection of information alternatives in the second node to one subset of the set of subsets; and receiving an information alternative from the second node , which information alternative is selected from the subset of the set of subsets of the set of possible information alternatives according to the configuration request. the first node being arranged to know a set of subsets of the set of possible information alternatives, wherein each subset of the set of subsets comprises at least a part of the codebook, and wherein the set of subsets comprises all different subsets of the set of possible information alternatives, the method comprising: sending a message to the second node , the message comprising a configuration request that restricts selection of information alternatives in the second node to one subset of the set of subsets; and receiving an information alternative from the second node , which information alternative is selected from the subset of the set of subsets of the set of possible information alternatives according to the configuration request. sending a message to the second node , the message comprising a configuration request that restricts selection of information alternatives in the second node to one subset of the set of subsets; and receiving an information alternative from the second node , which information alternative is selected from the subset of the set of subsets of the set of possible information alternatives according to the configuration request.
A process for producing an aqueous polymer dispersion by free-radically initiated aqueous emulsion polymerization, which comprises free-radically polymerizing, in an aqueous medium, in the presence of at least one polymer 1, ≤ 5.0% by weight of at least one α,β-monoethylenically unsaturated C 3 to C 6 mono- or dicarboxylic acid (monomers A2), ≥ 95% and ≤ 100% by weight of at least one ethylenically unsaturated compound other than the monomers A2 (monomers B2), where the amounts of monomers A2 and B2 add up to 100% by weight, with the proviso that • the nature and amounts of monomers A2 and B2 are chosen such that the polymer 2 obtained therefrom has a Hansch parameter ≥ 2.80 and a glass transition temperature ≥ 20°C, • the at least one polymer 1 comprises, in copolymerized form, ≥ 3.0% and ≤ 35% by weight of at least one α,β-monoethylenically unsaturated C 3 to C 6 mono- or dicarboxylic acid (monomers A1), and ≥ 65% and ≤ 97.0% by weight of at least one ethylenically unsaturated compound other than the monomers A1 (monomers B1), where the amounts of monomers A1 and B1 add up to 100% by weight, • the nature and amounts of monomers A1 and B1 have been chosen here such that the at least one polymer 1 has a Hansch parameter > 1.35, and • the weight ratio of the at least one polymer 1 to the sum of the total amounts of monomers A2 and B2 (total amount of monomers 2) is in the range of 15:85 to 60:40. ≤ 5.0% by weight of at least one α,β-monoethylenically unsaturated C 3 to C 6 mono- or dicarboxylic acid (monomers A2), ≥ 95% and ≤ 100% by weight of at least one ethylenically unsaturated compound other than the monomers A2 (monomers B2), where the amounts of monomers A2 and B2 add up to 100% by weight, with the proviso that • the nature and amounts of monomers A2 and B2 are chosen such that the polymer 2 obtained therefrom has a Hansch parameter ≥ 2.80 and a glass transition temperature ≥ 20°C, • the at least one polymer 1 comprises, in copolymerized form, • the nature and amounts of monomers A2 and B2 are chosen such that the polymer 2 obtained therefrom has a Hansch parameter ≥ 2.80 and a glass transition temperature ≥ 20°C, • the at least one polymer 1 comprises, in copolymerized form, ≥ 3.0% and ≤ 35% by weight of at least one α,β-monoethylenically unsaturated C 3 to C 6 mono- or dicarboxylic acid (monomers A1), and ≥ 65% and ≤ 97.0% by weight of at least one ethylenically unsaturated compound other than the monomers A1 (monomers B1), where the amounts of monomers A1 and B1 add up to 100% by weight, • the nature and amounts of monomers A1 and B1 have been chosen here such that the at least one polymer 1 has a Hansch parameter > 1.35, and • the weight ratio of the at least one polymer 1 to the sum of the total amounts of monomers A2 and B2 (total amount of monomers 2) is in the range of 15:85 to 60:40. • the nature and amounts of monomers A1 and B1 have been chosen here such that the at least one polymer 1 has a Hansch parameter > 1.35, and • the weight ratio of the at least one polymer 1 to the sum of the total amounts of monomers A2 and B2 (total amount of monomers 2) is in the range of 15:85 to 60:40.