mhurhangee/patent-ind-claim-en huggingface dataset:
A method for managing flow aggregation and routing of data packets for a multi-connectivity client device , wherein the multi-connectivity client device includes a client communication engine and supports multiple different flow aggregation and routing protocols, the method comprising the client communication engine performing the steps of establishing connection with a network communication engine based on connection parameters, wherein the network communication engine manages a multi-access bearer proxy , wherein the proxy handles uplink and downlink data packet routing of the client device, and wherein the proxy supports one or more flow aggregation and routing protocols; transmitting communication capabilities of the client device to the network communication engine and receiving communication capabilities of the proxy from the network communication engine through a predefined communication protocol; and determining in conjunction with said network communication engine based on the exchanged communication capabilities a set of communication standards for managing flow aggregation and routing of data packets; wherein said determining includes determining the flow aggregation and routing protocols which are common to (i) the multiple different flow aggregation and routing protocols supported by the client connection engine, and (ii) the one or more flow aggregation and routing protocols supported by the proxy, and selecting for the set of communication standards at least one common flow aggregation and routing protocol; characterised by the set of communication standards further including a configuration mode which defines a combination of selected available access and core networks to be utilized by the multi-connectivity client device for communicating with a target terminal. establishing connection with a network communication engine based on connection parameters, wherein the network communication engine manages a multi-access bearer proxy , wherein the proxy handles uplink and downlink data packet routing of the client device, and wherein the proxy supports one or more flow aggregation and routing protocols; transmitting communication capabilities of the client device to the network communication engine and receiving communication capabilities of the proxy from the network communication engine through a predefined communication protocol; and determining in conjunction with said network communication engine based on the exchanged communication capabilities a set of communication standards for managing flow aggregation and routing of data packets; wherein said determining includes determining the flow aggregation and routing protocols which are common to (i) the multiple different flow aggregation and routing protocols supported by the client connection engine, and (ii) the one or more flow aggregation and routing protocols supported by the proxy, and selecting for the set of communication standards at least one common flow aggregation and routing protocol;
Solid adducts comprising MgCl 2 , ethanol and water characterized in that the amount of ethanol ranges from 52% to 55% by weight, the amount of water ranges from 0.5 to 5% by weight, the ethanol/water weight ratio is lower than 60 and the porosity, determined with Hg absorption method under the conditions reported in the characterization section, due to pores with radius up to 1μm and expressed in cm 3 /g, is lower than 0.15 cm 3 /g.
A dental blank in the form of a three-dimensional molded body for producing a dental restoration comprising a preform , wherein the preform has a base surface and a top surface opposite to the base surface as well as a first side surface and at least one further side surface , wherein a lumen is formed within the preform , that lumen extends from the base surface in the direction of the cover surface to a point P located between the base surface and the cover surface , wherein the point P being at a distance d1 from the base surface and at a distance d2 from the cover surface , and the ratio d1 to d2 being in the range from 1 : 1 to 10 : 1, wherein in the blank further comprises a base having a contact surface , wherein the base and the preform being formed in one piece of material and the contact surface being arranged in the plane of the first side surface , characterized in that , the preform being in the form of a frustum of pyramid.
A mirror assembly , comprising: a base , having a first recess , a side wall portion surrounding the first recess , at least one carrying portion located in the first recess , protruding from the side wall portion corresponding to at least one second recess ; an opening of the first recess and an opening of the second recess facing toward opposite directions, the first recess and second recess being separated by the side wall portion , a first mirror , disposed on the base and covering the first recess; at least one first magnetic component , disposed on the carrying portion , and located in the first recess; at least one second magnetic component , inserted into the second recess, and the first magnetic component and the second magnetic component attracting each other; at least one supporting frame , pivoted to the second magnetic component so as to rotate relative to the base; and at least one second mirror , disposed on the supporting frame. a base , having a first recess , a side wall portion surrounding the first recess , at least one carrying portion located in the first recess , protruding from the side wall portion corresponding to at least one second recess ; an opening of the first recess and an opening of the second recess facing toward opposite directions, the first recess and second recess being separated by the side wall portion , a first mirror , disposed on the base and covering the first recess; at least one first magnetic component , disposed on the carrying portion , and located in the first recess; at least one second magnetic component , inserted into the second recess, and the first magnetic component and the second magnetic component attracting each other; at least one supporting frame , pivoted to the second magnetic component so as to rotate relative to the base; and at least one second mirror , disposed on the supporting frame.
A method, comprising: determining a data state of a memory cell (111-1, 111-N, 311); and determining whether a state (224-1, 224-2) of the memory cell (111-1, 111-N, 311) is in a valley between adjacent distributions (203-1, 203-2) of states associated with respective data states (337-1, 337-P, 347-1, 347-P); entropy coding the data state (337-1, 337-P, 347-1, 347-P) as a variable-length code having a shorter code length in response to the state (224-1, 224-2) not being in the valley and having a longer code length in response to the state (224-1, 224-2) being in the valley ; characterised by : generating a high confidence log-likelihood ratio for error correction circuitry in response to the variable-length code having a shorter code length; and generating a low confidence log-likelihood ratio for the error correction circuitry in response to the variable-length code having a longer code length. determining a data state of a memory cell (111-1, 111-N, 311); and determining whether a state (224-1, 224-2) of the memory cell (111-1, 111-N, 311) is in a valley between adjacent distributions (203-1, 203-2) of states associated with respective data states (337-1, 337-P, 347-1, 347-P); entropy coding the data state (337-1, 337-P, 347-1, 347-P) as a variable-length code having a shorter code length in response to the state (224-1, 224-2) not being in the valley and having a longer code length in response to the state (224-1, 224-2) being in the valley ; generating a high confidence log-likelihood ratio for error correction circuitry in response to the variable-length code having a shorter code length; and generating a low confidence log-likelihood ratio for the error correction circuitry in response to the variable-length code having a longer code length.
Wall element and accompanying horizontal seal, the wall element being a prefabricated wall element that is suitable for application in a curtain wall , and to this end consisting of a frame of assembled profiles and one or more infill elements that are attached against the outside of the frame, whereby the frame consists of mullions and transoms in the form of one-piece profiles (9a, 9b and 10a, 10b) whereby the bottom transom is provided with a female coupling part and the top transom is provided with a complementary male coupling part thanks to which similar wall elements one above the other fit telescopically in each other and whereby the accompanying horizontal seal is a profile with a part with which the horizontal seal can rest on an underlying wall element with male coupling part and with an upstanding edge which in an assembled condition extends against an upstanding leg of the male coupling part and which on assembly of a higher wall element is sealed and clamped between the male coupling part and female coupling part in question, whereby the length of the horizontal seal is such that it can be applied without a break in a horizontal direction overlapping several sideways adjacent wall elements , whereby the wall element is fitted along the perimeter of the infill elements with insulation profiles which are attached to the frame and overlap towards the outside reaching over the edges of the infill elements , the insulation profiles are fitted along their outside perimeter with a first level (A) of seals at a fixed distance from the outside of the wall element which ensure a seal against adjoining wall elements and a seal with the underlying horizontal seal , and the male coupling part of the wall element is provided with a leg which along its free edge has a fourth level seal which is slid to fit in the groove of the female coupling part of an overlying wall element and which vis-a-vis the first level seal , a second level seal and a third level seal is located closer to the inside of the curtain wall . whereby the wall element is fitted along the perimeter of the infill elements with insulation profiles which are attached to the frame and overlap towards the outside reaching over the edges of the infill elements , the insulation profiles are fitted along their outside perimeter with a first level (A) of seals at a fixed distance from the outside of the wall element which ensure a seal against adjoining wall elements and a seal with the underlying horizontal seal , and the male coupling part of the wall element is provided with a leg which along its free edge has a fourth level seal which is slid to fit in the groove of the female coupling part of an overlying wall element and which vis-a-vis the first level seal , a second level seal and a third level seal is located closer to the inside of the curtain wall .
Measuring system for testing a beam pattern of a vehicular radar , comprising at least one radar test panel , arranged in an expected radiation direction of the vehicular radar , wherein each of the at least one radar test panels comprises a two-dimensional radar test array of radar receivers , wherein the at least one radar test panel is configured to display a measured beam pattern of the vehicular radar , using the radar receivers , wherein each of the radar receivers comprises - a radar receiver , configured to receive the radar radiation from the vehicular radar , - an amplifier , configured to amplify the received radar signal, and - a light emitter , configured to emit the visible light based upon the amplified received radar signal. comprising at least one radar test panel , arranged in an expected radiation direction of the vehicular radar , wherein each of the at least one radar test panels comprises a two-dimensional radar test array of radar receivers , wherein the at least one radar test panel is configured to display a measured beam pattern of the vehicular radar , using the radar receivers , wherein each of the radar receivers comprises - a radar receiver , configured to receive the radar radiation from the vehicular radar , - an amplifier , configured to amplify the received radar signal, and - a light emitter , configured to emit the visible light based upon the amplified received radar signal. - a radar receiver , configured to receive the radar radiation from the vehicular radar , - an amplifier , configured to amplify the received radar signal, and - a light emitter , configured to emit the visible light based upon the amplified received radar signal.
A method of determining an electro-mechanical fault condition in a synchronous machine having a stator a rotor , and an exciter (20-1), wherein the exciter (20-1) is a rotating exciter having an exciter stator (20-1a) an exciter rotor (20-1b), and exciter stator windings , wherein the method comprises: a) obtaining an exciter current signal which is a measurement of an exciter current flowing through the exciter stator windings of the exciter (20-1), wherein the exciter current signal is an exciter stator current, b) transforming the exciter current signal to obtain an exciter current frequency spectrum, characterised in that the rotating exciter (20-1) has an AC/AC type of stator-rotor arrangement, and in that the method comprises: c) determining that a stator short-circuit fault is present in case the harmonic content of the exciter current frequency spectrum comprises a dominant frequency component at 3f s *(1-2s), where f s is the power supply frequency and s is the rotor slip of the exciter (20-1). a) obtaining an exciter current signal which is a measurement of an exciter current flowing through the exciter stator windings of the exciter (20-1), wherein the exciter current signal is an exciter stator current, b) transforming the exciter current signal to obtain an exciter current frequency spectrum, characterised in that the rotating exciter (20-1) has an AC/AC type of stator-rotor arrangement, and in that the method comprises: c) determining that a stator short-circuit fault is present in case the harmonic content of the exciter current frequency spectrum comprises a dominant frequency component at 3f s *(1-2s), where f s is the power supply frequency and s is the rotor slip of the exciter (20-1).
Switching device for the controlled switching of an electrical connection, comprising a positive power terminal and a negative power terminal , a connection element , which is configured to controllably electrically couple the positive power terminal and the negative power terminal to one another when in a first state and electrically disconnect the positive power terminal and the negative power terminal from one another when in a second state, and a blocking element , which is configured to block the connection element in the second state when in a non-driven state and to release the connection element when in a driven state, wherein the connection element has a spring-loaded armature , characterized in that the armature has at a first end a contact bridge for connecting the positive power terminal and the negative power terminal , and said armature has at a second end an undercut, in particular a mushroom head , wherein the spring force is configured to move the armature into the second state, in which the positive power terminal and the negative power terminal are electrically disconnected from one another, wherein the blocking element has a spring-loaded pawl , which is prestressed by the spring force in the direction of the mushroom head and is configured to form-fittingly contact and block the mushroom head in the non-driven state of the blocking element , and wherein the blocking element has an electromagnet configured to pull the pawl out of the travel path of the mushroom head when in the driven state. a positive power terminal and a negative power terminal , a connection element , which is configured to controllably electrically couple the positive power terminal and the negative power terminal to one another when in a first state and electrically disconnect the positive power terminal and the negative power terminal from one another when in a second state, and a blocking element , which is configured to block the connection element in the second state when in a non-driven state and to release the connection element when in a driven state, wherein the connection element has a spring-loaded armature , characterized in that the armature has at a first end a contact bridge for connecting the positive power terminal and the negative power terminal , and said armature has at a second end an undercut, in particular a mushroom head , wherein the spring force is configured to move the armature into the second state, in which the positive power terminal and the negative power terminal are electrically disconnected from one another, wherein the blocking element has a spring-loaded pawl , which is prestressed by the spring force in the direction of the mushroom head and is configured to form-fittingly contact and block the mushroom head in the non-driven state of the blocking element , and wherein the blocking element has an electromagnet configured to pull the pawl out of the travel path of the mushroom head when in the driven state.
A camera decoration part, applied to an electronic device, wherein the electronic device comprises a camera assembly, the camera assembly comprises a main camera protruding from an outer surface of a housing of the electronic device by a first height, and a protrusion that is located around the main camera and that is connected to an outer surface of the housing of the electronic device; the camera decoration part comprises a first plate and a second plate ; a first surface (A) of the first plate is connected to a second surface (B) of the second plate , and a first surface of the second plate is connected to the outer surface of the housing of the electronic device; a first through-hole used to penetrate through the main camera (on, 012) is disposed on the first plate , and a second through-hole (202 A) corresponding to the first through-hole is disposed on the second plate ; the first surface (A) of the first plate has a decoration rendering, and a material of the first plate is a transparent material; and the first surface of the second plate comprises a connection area and an avoidance area (202 B), and the avoidance area (202 B) is formed by recessing the first surface of the second plate to the second surface (B) of the second plate by a first depth, wherein a thickness of the second plate is greater than or equal to a height of the protrusion on the housing of the electronic device, the first depth is greater than or equal to the height of the protrusion , and a projection of the protrusion is in a projection area of the avoidance area (202 B). the camera decoration part comprises a first plate and a second plate ; a first surface (A) of the first plate is connected to a second surface (B) of the second plate , and a first surface of the second plate is connected to the outer surface of the housing of the electronic device; a first through-hole used to penetrate through the main camera (on, 012) is disposed on the first plate , and a second through-hole (202 A) corresponding to the first through-hole is disposed on the second plate ; the first surface (A) of the first plate has a decoration rendering, and a material of the first plate is a transparent material; and the first surface of the second plate comprises a connection area and an avoidance area (202 B), and the avoidance area (202 B) is formed by recessing the first surface of the second plate to the second surface (B) of the second plate by a first depth, wherein a thickness of the second plate is greater than or equal to a height of the protrusion on the housing of the electronic device, the first depth is greater than or equal to the height of the protrusion , and a projection of the protrusion is in a projection area of the avoidance area (202 B).
Connection device for the connection of a conductor end , which connection device has a housing and also a busbar section , a clamping spring arrangement and a rotary lever arrangement in the housing , the clamping spring arrangement being able to be rotated, with the aid of the rotary lever arrangement , from an open position to a contact position, in which contact is made with the conductor end , wherein the busbar section is configured trough-shaped, in particular V- or U-shaped, in cross section, the conductor end being insertable into the busbar section perpendicular to this cross section, and wherein the clamping spring arrangement is designed to be pivoted, at least in sections, into the busbar section transverse to the conductor insertion direction so as to press the conductor end in the end contact position into the trough-shaped busbar section so as to contact said section in this region and wherein the clamping spring arrangement consists of more clamping springs which are each embodied as leaf springs and each have at least one clamping limb and at least one actuating limb , wherein the clamping springs are arranged laid inside one another in such a way that the bending regions thereof are positioned inside one another, wherein the clamping springs of the clamping spring arrangement further have exactly or substantially the same axis of rotation D1 or D1', and that the connection device has a restoring spring , characterised in that the rotary lever arrangement and the clamping spring arrangement have the same direction of rotation (DR) during the rotation from the open position into the contact position.
A multi-phase personal care composition comprising: (a) an aqueous phase comprising fatty acid amide and nonionic surfactant; and (b) an oil phase, wherein: (i) the weight ratio of the nonionic surfactant to the fatty acid amide is at least 5:1; (ii) the aqueous phase is visually distinct from and in physical contact with the oil phase; (iii) the non-ionic surfactant comprises the condensation products of aliphatic alcohols having from 8 to 22 carbon atoms in either straight or branched chain configuration with ethylene oxide, condensates of alkylphenols having C6-C15 alkyl groups with 5 to 25 moles of ethylene oxide per mole of alkylphenol, polyoxyethylene sorbitan fatty acid esters, alkyl glucoside, or a mixture thereof; (iv) the nonionic surfactant is different from the fatty acid amide; and (v) the fatty acid amide contains at least 6 carbon atoms. (a) an aqueous phase comprising fatty acid amide and nonionic surfactant; and (b) an oil phase, (i) the weight ratio of the nonionic surfactant to the fatty acid amide is at least 5:1; (ii) the aqueous phase is visually distinct from and in physical contact with the oil phase; (iii) the non-ionic surfactant comprises the condensation products of aliphatic alcohols having from 8 to 22 carbon atoms in either straight or branched chain configuration with ethylene oxide, condensates of alkylphenols having C6-C15 alkyl groups with 5 to 25 moles of ethylene oxide per mole of alkylphenol, polyoxyethylene sorbitan fatty acid esters, alkyl glucoside, or a mixture thereof; (iv) the nonionic surfactant is different from the fatty acid amide; and (v) the fatty acid amide contains at least 6 carbon atoms.