mhurhangee/ep-ind-claims huggingface dataset:
A method for consolidating a bridge structure of a rotating body having an axis of rotation for an electric drive, at least having steps for balancing and rotation consolidation, wherein the balancing has at least the following steps: - rotating the rotating body about an axis of rotation at an imbalance determination speed in order to detect an imbalance of the rotating body, - determining the imbalance of the rotating body, - attaching or removing, at a standstill speed, at least one balancing weight to or from the rotating body in order to compensate for the imbalance, wherein the rotation consolidation has at least the following step: - rotating the rotating body about the axis of rotation at a consolidation speed, wherein the consolidation speed is greater than the imbalance determination speed, wherein the rotating body is a rotor lamination, a rotor lamination stack, a rotor or an electrical machine and wherein at least one bridge structure is arranged on the outer circumference of at least one rotor lamination, wherein the magnitude of the consolidation speed is set such that, after the rotation consolidation, at least one bridge structure of the rotating body has a degree of elongation of at least 0.2 percent inclusive to 1 percent inclusive, preferably 0.5 percent. wherein the balancing has at least the following steps: - rotating the rotating body about an axis of rotation at an imbalance determination speed in order to detect an imbalance of the rotating body, - determining the imbalance of the rotating body, - attaching or removing, at a standstill speed, at least one balancing weight to or from the rotating body in order to compensate for the imbalance, - rotating the rotating body about an axis of rotation at an imbalance determination speed in order to detect an imbalance of the rotating body, - determining the imbalance of the rotating body, - attaching or removing, at a standstill speed, at least one balancing weight to or from the rotating body in order to compensate for the imbalance, wherein the rotation consolidation has at least the following step: - rotating the rotating body about the axis of rotation at a consolidation speed, wherein the consolidation speed is greater than the imbalance determination speed, wherein the rotating body is a rotor lamination, a rotor lamination stack, a rotor or an electrical machine and wherein at least one bridge structure is arranged on the outer circumference of at least one rotor lamination, - rotating the rotating body about the axis of rotation at a consolidation speed, wherein the consolidation speed is greater than the imbalance determination speed, wherein the rotating body is a rotor lamination, a rotor lamination stack, a rotor or an electrical machine and wherein at least one bridge structure is arranged on the outer circumference of at least one rotor lamination, wherein the magnitude of the consolidation speed is set such that, after the rotation consolidation, at least one bridge structure of the rotating body has a degree of elongation of at least 0.2 percent inclusive to 1 percent inclusive, preferably 0.5 percent.
A method implemented by a mobile device for concurrently performing a scan procedure of multiple cells using multiple input multiple output, MIMO, based antenna resources, the method comprising: determining a type of handoff-related measurement to perform based on a determined length of a scan interval, wherein the method further comprises the steps of: performing first handoff-related measurements of first wireless signals from a first neighbor cell received at first MIMO antenna resources (315-a-1) of the device, wherein the device is in communication with a serving cell; tuning second MIMO antenna resources from the frequency band of the serving cell to the frequency band of a second neighbour cell that operates in a different frequency band than the serving cell; performing second handoff-related measurements of second wireless signals from the second neighbor cell received at the second MIMO antenna resources (315-a-2) of the device, the second wireless signals received at the second MIMO antenna resources concurrently with the first wireless signals being received at the first MIMO antenna resources; and tuning the second MIMO antenna resources back to the frequency band of the serving cell. performing first handoff-related measurements of first wireless signals from a first neighbor cell received at first MIMO antenna resources (315-a-1) of the device, wherein the device is in communication with a serving cell; tuning second MIMO antenna resources from the frequency band of the serving cell to the frequency band of a second neighbour cell that operates in a different frequency band than the serving cell; performing second handoff-related measurements of second wireless signals from the second neighbor cell received at the second MIMO antenna resources (315-a-2) of the device, the second wireless signals received at the second MIMO antenna resources concurrently with the first wireless signals being received at the first MIMO antenna resources; and tuning the second MIMO antenna resources back to the frequency band of the serving cell.
A polymer composition for extrusion coating comprising a) 10 to 60 wt-% of low density polyethylene b) 90 to 40 wt-% of a plastomer wherein a) is a low density polyethylene having - a melt flow rate (MFR 2), measured according to ISO1133 (190 °C, 2,16 kg load) of 2,5 to 10 g/10min, - a density of 920 kg/m 3 or less, b) is a plastomer of ethylene-octene copolymer and having a density of 880 to 915 kg/m 3, and where the amounts of a) and b) are based on the total weight of the composition. a) 10 to 60 wt-% of low density polyethylene b) 90 to 40 wt-% of a plastomer a) is a low density polyethylene having - a melt flow rate (MFR 2), measured according to ISO1133 (190 °C, 2,16 kg load) of 2,5 to 10 g/10min, - a density of 920 kg/m 3 or less, - a melt flow rate (MFR 2), measured according to ISO1133 (190 °C, 2,16 kg load) of 2,5 to 10 g/10min, - a density of 920 kg/m 3 or less, b) is a plastomer of ethylene-octene copolymer and having a density of 880 to 915 kg/m 3, and
A method for determining multiple touch events in a multi-touch sensor system having a touch sensor including a plurality of nodes defined by a plurality of first electrodes arranged in a first layer and second electrodes arranged in a second layer, the method comprising: performing first capacitance measurements for measuring self capacitance of each of the plurality of second electrodes using a capacitance measuring circuit (600, 1200, 1701); detecting one or more touched second electrodes as a result of the performed first capacitance measurements; performing a plurality of second capacitance measurements for only a subset of the nodes, wherein the subset is fewer than all of the nodes and includes at least the nodes corresponding to the touched electrodes and wherein second capacitance measurement is performed at the second electrodes, wherein a pulse drive circuit (1012, 1312, 1712) is connected with one of said first electrodes and the capacitance measuring circuit (600, 1200, 1701) is connected with one of said second electrodes, wherein during a second capacitance measurement a pulse from the pulse drive circuit (1012, 1312, 1712) alters the capacitance measurement at the second electrode through a mutual capacitance formed between the first and second electrode; and detecting two or more touched nodes as a result of the plurality of second capacitance measurements. performing first capacitance measurements for measuring self capacitance of each of the plurality of second electrodes using a capacitance measuring circuit (600, 1200, 1701); detecting one or more touched second electrodes as a result of the performed first capacitance measurements; performing a plurality of second capacitance measurements for only a subset of the nodes, wherein the subset is fewer than all of the nodes and includes at least the nodes corresponding to the touched electrodes and wherein second capacitance measurement is performed at the second electrodes, wherein a pulse drive circuit (1012, 1312, 1712) is connected with one of said first electrodes and the capacitance measuring circuit (600, 1200, 1701) is connected with one of said second electrodes, wherein during a second capacitance measurement a pulse from the pulse drive circuit (1012, 1312, 1712) alters the capacitance measurement at the second electrode through a mutual capacitance formed between the first and second electrode; and detecting two or more touched nodes as a result of the plurality of second capacitance measurements.
A sandwich panel construction, consisting of two outer layers and a core placed between the outer layers, upper and lower, wherein the core is a grid of four-sided cells formed by lapped bars, characterized in that the lower layer (2, 12) has formed at the periphery side walls divergent upwards finished flat flange (3, 13) tightly connected to the upper layer (1, 11) and the bars forming the grid have a layered structure comprising an odd number of firmly combined component layers, in particular from three to seven, each of which is connected by the narrow surfaces to the upper layer (1, 11) and the lower layer (2, 12) including its side walls, wherein the outer component layers (5, 15) have a stiffness greater than the associated component of the intermediate layer (6, 16).
A method feeder mould comprising a mould body having a mould surface or surfaces defining an open mould cavity, wherein at least a part (26, 44) of the surface or surfaces is movable to assist release in use of a loaded ground bait feeder (10,11) from the mould; characterized in that the movable surface or surfaces (26, 28, 44) are provided on an element slidably movable with respect to the mould body.
A multiplexer, comprising an input/output apparatus and multiple resonant cavities, wherein the input/output apparatus comprises: a main tap and at least three branch taps of the main tap, wherein each branch tap is configured to couple to a different resonant cavity in the multiplexer, and the at least three branch taps comprise a first branch tap, a second branch tap and a third branch tap configured to connect to a first resonant cavity, a second resonant cavity and a third resonant cavity respectively, wherein operating frequencies of the first resonant cavity, the second resonant cavity and the third resonant cavity are in an ascending order or a descending order and individual coupling polarities of successive branch taps are set to an inductive coupling polarity or a capacitive coupling polarity in an alternating manner such that when the coupling polarity of the first branch tap is set to the inductive coupling polarity, the coupling polarities of the second branch tap and the third branch tap are set to the capacitive coupling polarity and the inductive coupling polarity respectively, and when the coupling polarity of the first branch tap is set to the capacitive coupling polarity, the coupling polarities of the second branch tap and the third branch tap are set to the inductive coupling polarity and the capacitive coupling polarity respectively. a main tap and at least three branch taps of the main tap, wherein each branch tap is configured to couple to a different resonant cavity in the multiplexer, and the at least three branch taps comprise a first branch tap, a second branch tap and a third branch tap configured to connect to a first resonant cavity, a second resonant cavity and a third resonant cavity respectively, wherein operating frequencies of the first resonant cavity, the second resonant cavity and the third resonant cavity are in an ascending order or a descending order and individual coupling polarities of successive branch taps are set to an inductive coupling polarity or a capacitive coupling polarity in an alternating manner such that when the coupling polarity of the first branch tap is set to the inductive coupling polarity, the coupling polarities of the second branch tap and the third branch tap are set to the capacitive coupling polarity and the inductive coupling polarity respectively, and when the coupling polarity of the first branch tap is set to the capacitive coupling polarity, the coupling polarities of the second branch tap and the third branch tap are set to the inductive coupling polarity and the capacitive coupling polarity respectively.
A method for discovering and retrieving content, the method comprising: a call session control function, CSCF, on a control plane of an IP multimedia subsystem, IMS, core network receiving a content request from a client device, the content request including a content identity, ID, that uniquely identifies a content object; the CSCF resolving the content ID with a content name resolution handler, CNRH, to obtain identity information of at least one content provider for serving the content request; selecting a content provider; forwarding the content request to the selected content provider; and the CSCF setting up a media resource function, MRF, on a data plane of the IMS core network in response to the content request, wherein the MRF is setup for manipulating the content object and the manipulating the content object includes at least one of deep packet inspection and modification, content security, media relay, firewall traversal, announcement insertion, advertisement insertion, stream mixing, media transcoding, or data path access control enforcement. a call session control function, CSCF, on a control plane of an IP multimedia subsystem, IMS, core network receiving a content request from a client device, the content request including a content identity, ID, that uniquely identifies a content object; the CSCF resolving the content ID with a content name resolution handler, CNRH, to obtain identity information of at least one content provider for serving the content request; selecting a content provider; forwarding the content request to the selected content provider; and the CSCF setting up a media resource function, MRF, on a data plane of the IMS core network in response to the content request, wherein the MRF is setup for manipulating the content object and the manipulating the content object includes at least one of deep packet inspection and modification, content security, media relay, firewall traversal, announcement insertion, advertisement insertion, stream mixing, media transcoding, or data path access control enforcement.
Access node device arranged for receiving and forwarding data packets in a communication network, comprising at least one processor arranged to: receive data packets from a user node; and forward data packets from said user node in a stateless mode or in a stateful mode depending on a type of service associated with the data packets; wherein in the stateless mode, the at least one processor is arranged to forward the data packets over a first path to a destination gateway node according to a Uniform Resource Identifier, URI, identifying a service provider network associated with the destination gateway node, the first path being a default path; and in the stateful mode, the at least one processor is arranged to forward the data packets over a second path to a destination node, the second path being determined by user and/or session specific information for said user node; wherein said destination gateway node is a service provider gateway, SPGW, node associated with a specific service provider. receive data packets from a user node; and forward data packets from said user node in a stateless mode or in a stateful mode depending on a type of service associated with the data packets; wherein in the stateless mode, the at least one processor is arranged to forward the data packets over a first path to a destination gateway node according to a Uniform Resource Identifier, URI, identifying a service provider network associated with the destination gateway node, the first path being a default path; and in the stateful mode, the at least one processor is arranged to forward the data packets over a second path to a destination node, the second path being determined by user and/or session specific information for said user node; wherein said destination gateway node is a service provider gateway, SPGW, node associated with a specific service provider.
A shifting device, having a shifting shaft, a sleeve which is non-rotatably arranged on the shifting shaft, a signal transmitter support body for a signal transmitter, wherein the signal transmitter support body is axially secured via the sleeve on the shifting shaft, characterised in that the signal transmitter support body is radially secured directly on the shifting shaft.
Method for producing an elastomeric skin having a visible front face produced against a mould surface, said visible front face having a visually spotted appearance, the method comprising the steps of: - providing a liquid skin forming composition; - spraying said liquid skin forming composition in the form of a spray of droplets onto at least a portion of said mould surface; - allowing the liquid skin forming composition to harden; and - removing the produced elastomeric skin from said mould surface, characterized in that said liquid skin forming composition comprises between 0,1 weight% and 5 weight% solid spot forming particles having a longest dimension that is between 40 μm and 500 μm, and in that at least 50 volume% of said solid spot forming particles have a longest dimension which is at least half the median volume diameter of said droplets determined according to ASTM E 799-03. - providing a liquid skin forming composition; - spraying said liquid skin forming composition in the form of a spray of droplets onto at least a portion of said mould surface; - allowing the liquid skin forming composition to harden; and - removing the produced elastomeric skin from said mould surface, said liquid skin forming composition comprises between 0,1 weight% and 5 weight% solid spot forming particles having a longest dimension that is between 40 μm and 500 μm, and in that at least 50 volume% of said solid spot forming particles have a longest dimension which is at least half the median volume diameter of said droplets determined according to ASTM E 799-03.
A method of preparing xylene comprising: (a) providing a reactor containing a non-steamed, phosphorus-treated ZSM-5-type zeolite catalyst; (b) contacting the catalyst with a toluene/methanol feed and a cofeed of hydrogen under reactor conditions suitable for the methylation of toluene; and (c) introducing water cofeed into the reactor during the methylation reaction, wherein the cofeed water is introduced after the toluene methylation reaction has started. (a) providing a reactor containing a non-steamed, phosphorus-treated ZSM-5-type zeolite catalyst; (b) contacting the catalyst with a toluene/methanol feed and a cofeed of hydrogen under reactor conditions suitable for the methylation of toluene; and (c) introducing water cofeed into the reactor during the methylation reaction, wherein the cofeed water is introduced after the toluene methylation reaction has started.
Method for manufacturing of an electric actuator, which electric actuator consists of an electric actuator arrangement, being sensible to heat and/or generating heat and comprising one or several light emitting electric actuators, such as LEDs, the electric actuator being put together to form a uniform light source, and comprising a frame part (2; 2') that exists against a heat exchange surface of the electric actuator arrangement, and wherein the light emitting electric actuators comprise thermosetting plastic, thermoplastic, vulcanized rubber and/or thermoplastic elastomer, characterized in that, in production of the electric actuator that is meant for use in LED-lighting/light production an electrical conductor arrangement and electronics, being coupled with the electric actuator arrangement to operate the same, are being processed in an integral manner inside the frame part (2; 2'), being formed by injection molding or die-casting thermosetting plastic, thermoplastic, vulcanized rubber and/or thermoplastic elastomer in connection with the electric actuator arrangement.
A drug delivery system comprising at least one core comprising one or more therapeutically active substance(s) and at feast one membrane encasing the core, characterized in that the system further comprises an intermediary layer of a substantially inert material that is not covalently bound to the material of the core or the membrane(s) and wherein the substantially inert material is selected from the group consisting of silica, fumed and precipitated silicas and talc and wherein the drug delivery system is a vaginal delivery system, an implant, an intrauterine delivery system, an intracervical delivery system, a helical coil or a spring.
An apparatus of a user equipment, UE, comprising: multiple radio frequency, RF, chains configured to operate on multiple RF bands; one or more baseband processors to decode a radio resource configuration, RRC, message received from an evolved NodeB, eNB, wherein the RRC message includes a request field for the UE to provide a measurement gap, MG, preference and at least a carrier aggregation, CA, specific measurement group CA specific MG request information element, IE, and to encode an RRC response message for the eNB, wherein the RRC response message includes a UE-EUTRA-Capability IE used to convey the measurement gap preference, the EUTRA UE Radio Access Capability Parameters and the Feature Group Indicators for mandatory features to the network; and a memory to store the measurement gap preference; and characterized in that: the UE-EUTRA-Capability IE indicates a type of measurement gap for an associated serving cell and per band combination, one of three values i) a regular measurement gap, ii) a small measurement gap or iii) no gap is required. multiple radio frequency, RF, chains configured to operate on multiple RF bands; one or more baseband processors to decode a radio resource configuration, RRC, message received from an evolved NodeB, eNB, wherein the RRC message includes a request field for the UE to provide a measurement gap, MG, preference and at least a carrier aggregation, CA, specific measurement group CA specific MG request information element, IE, and to encode an RRC response message for the eNB, wherein the RRC response message includes a UE-EUTRA-Capability IE used to convey the measurement gap preference, the EUTRA UE Radio Access Capability Parameters and the Feature Group Indicators for mandatory features to the network; and a memory to store the measurement gap preference; and characterized in that: the UE-EUTRA-Capability IE indicates a type of measurement gap for an associated serving cell and per band combination, one of three values i) a regular measurement gap, ii) a small measurement gap or iii) no gap is required.
Oven for heating surface-treated workpieces, having a heating chamber to receive the workpiece and a convector heating system that incorporates a heating unit, a fan and air guidance ducts that guide the heated air blown by the fan through the heating chamber so that it flows over the workpiece, wherein the heating chamber incorporates a radiant heating system the radiating element of which, as an infrared radiating element, optionally emits medium-wave infrared radiation and, as a so-called dark radiator, emits long-wave infrared radiation and is oriented so that its radiation radiates into the interior of the heating chamber and which is disposed so as to surround the workpiece in a three-dimensional arrangement inside the heating chamber, characterised in that the radiator is designed as a panel radiator such that it forms three limit plates (4, 5, 6) functioning as wall, floor or ceiling surfaces of the heating chamber that surround the workpiece on at least three sides.