mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for defining at least one boundary surface within a digital tooth data model of an artificial tooth element, comprising at least the following steps: defining a first boundary curve on the tooth surface of the artificial tooth element, determining, with respect to the first boundary curve, an incisally/ occlusally located tooth surface, and displacing surface areas of said tooth surface inwards towards the surface normal by different amounts in order to produce the at least one boundary surface, in particular the first boundary surface, wherein the different amounts of displacement are based on variable design parameters which describe a maximum first displacement of the tooth surface and a first length to define a transition surface extending in incisal direction, wherein the first length defines a transition area starting from the first boundary curve, characterized in that in the case of a first displacement there is no displacement yet for anterior and posterior teeth directly at the first boundary curve and preferably for posterior teeth additionally at the central fissure, and wherein the amount of the first displacement towards the surface normal in incisal/occlusal direction increases steadily from the first boundary curve until the maximum first displacement is reached, wherein the first length is set as the design parameter, and the first length is defined starting from zero up to the full first displacement. defining a first boundary curve on the tooth surface of the artificial tooth element, determining, with respect to the first boundary curve, an incisally/ occlusally located tooth surface, and displacing surface areas of said tooth surface inwards towards the surface normal by different amounts in order to produce the at least one boundary surface, in particular the first boundary surface, wherein the different amounts of displacement are based on variable design parameters which describe a maximum first displacement of the tooth surface and a first length to define a transition surface extending in incisal direction, wherein the first length defines a transition area starting from the first boundary curve, characterized in that in the case of a first displacement there is no displacement yet for anterior and posterior teeth directly at the first boundary curve and preferably for posterior teeth additionally at the central fissure, and wherein the amount of the first displacement towards the surface normal in incisal/occlusal direction increases steadily from the first boundary curve until the maximum first displacement is reached, wherein the first length is set as the design parameter, and the first length is defined starting from zero up to the full first displacement.
A method for operating a user equipment, UE, (120, 810, 1010), the method comprising: receiving, from a first beacon device (130, 310, 510, 740, 820), a first signal comprising a first category identification, ID and a first unique ID; determining whether a signal strength of the received first signal is below a threshold value or exceeds the threshold value; registering the first category ID in the UE (120, 810, 1010) responsive to a determination that the signal strength of the received first signal exceeds the threshold value; receiving, from a second beacon device (320, 330, 340, 520, 530, 540, 550, 560, 710, 720, 730, 830), a second signal comprising a second category ID and a second unique ID different from the first unique ID; determining whether the second category ID matches the first category ID; and presenting information corresponding to the second unique ID responsive to the second category ID matching the registered first category ID. receiving, from a first beacon device (130, 310, 510, 740, 820), a first signal comprising a first category identification, ID and a first unique ID; determining whether a signal strength of the received first signal is below a threshold value or exceeds the threshold value; registering the first category ID in the UE (120, 810, 1010) responsive to a determination that the signal strength of the received first signal exceeds the threshold value; receiving, from a second beacon device (320, 330, 340, 520, 530, 540, 550, 560, 710, 720, 730, 830), a second signal comprising a second category ID and a second unique ID different from the first unique ID; determining whether the second category ID matches the first category ID; and presenting information corresponding to the second unique ID responsive to the second category ID matching the registered first category ID.
A method performed by a gateway node, for handling an incoming call to a first user equipment, which gateway node is serving the first user equipment in a terminating network, the method comprising: obtaining information about whether or not the incoming call relates to a subscriber number that is comprised in a set of subscriber numbers registered by the first user equipment, when the incoming call relates to a subscriber number that is comprised in the set of subscriber numbers, converting the incoming call to an Enhanced Multi-level Precedence and Pre-emption service, EMLPP, call in the terminating network at the gateway node, which EMLPP call is a prioritized call achieving priority features over other calls in the terminating network, and which priority features comprise any one or more out of the following priority features: - Faster Call Setup Time - Queuing Capabilities - Precedence Capabilities - Pre-emption Capabilities obtaining information about whether or not the incoming call relates to a subscriber number that is comprised in a set of subscriber numbers registered by the first user equipment, when the incoming call relates to a subscriber number that is comprised in the set of subscriber numbers, converting the incoming call to an Enhanced Multi-level Precedence and Pre-emption service, EMLPP, call in the terminating network at the gateway node, which EMLPP call is a prioritized call achieving priority features over other calls in the terminating network, and which priority features comprise any one or more out of the following priority features: - Faster Call Setup Time - Queuing Capabilities - Precedence Capabilities - Pre-emption Capabilities - Faster Call Setup Time - Queuing Capabilities - Precedence Capabilities - Pre-emption Capabilities
A method for controlling a controlled electronic device by using an electronic device, the method comprising: storing (505, 701) a group operation command comprising attribute information and operation information, the attribute information and the operation information corresponding to at least one first controlled electronic device included in a first network, the attribute information representing a category that is classified according to a function of the at least one first controlled electronic device; and when the electronic device, enters a second network which is different from the first network, transmitting the group operation command, which is stored in advance in the electronic device, with respect to the at least one first controlled electronic device included in the first network, through a gateway, included in the second network and configured to manage the second network, to at least one second controlled electronic device that is included in the second network and having the same attribute information as included in the group operation command, such that the at least one second controlled electronic device performs an operation based on the operation information included in the group operation command. storing (505, 701) a group operation command comprising attribute information and operation information, the attribute information and the operation information corresponding to at least one first controlled electronic device included in a first network, the attribute information representing a category that is classified according to a function of the at least one first controlled electronic device; and when the electronic device, enters a second network which is different from the first network, transmitting the group operation command, which is stored in advance in the electronic device, with respect to the at least one first controlled electronic device included in the first network, through a gateway, included in the second network and configured to manage the second network, to at least one second controlled electronic device that is included in the second network and having the same attribute information as included in the group operation command, such that the at least one second controlled electronic device performs an operation based on the operation information included in the group operation command.
An electric component comprising at least one electric cable (2, 2') and an electric functional unit connected to the same at the end in a non-detachable manner, the electric cable (2, 2') having at least one metallic wire and a plastic insulating jacket surrounding the at least one wire, and the electric functional unit comprising an insulator housing, injection-moulded onto the plastic insulating jacket of the cable (2, 2'), and at least one electric functional element accommodated therein and contacted with the at least one wire, characterized in that the plastic insulating jacket of the cable (2, 2'), in the region of an annular zone covered by the insulator housing of the electric functional unit, is structured in such a manner circumferentially on its external surface, by means of laser machining, that it has a groove pattern (13, 19, 21, 25) and elevations (16; 20; 20'; 23) remaining between the grooves (14, 15; 17, 18; 17', 18'; 22; 24), wherein the insulator housing has a pattern of webs, formed during its injection moulding by the groove pattern (13, 19, 21, 25) of the insulating jacket and corresponding to the same, having webs entering into the grooves (14, 15; 17, 18; 17', 18'; 22; 24) and anchored there in such a manner that the insulator housing and the plastic insulating jacket in the annular zone are permanently sealed against liquid media with respect to one another.
A handheld device, comprising an audio interface arrangement, wherein the audio interface arrangement comprises: at least two audio connecting means, wherein each of the at least two audio connecting means is adapted to connect a respective audio accessory to the audio interface arrangement, at the same time, and wherein at least one of the at least two audio connecting means is a socket which is adapted to connect the respective audio accessory by receiving an audio plug of the respective audio accessory, characterised in that the audio interface arrangement further comprises an accessory determining means coupled to said at least two audio connecting means, wherein the accessory determining means is adapted to determine which type of audio accessory that is connected to the respective audio connecting means, and in that the handheld device further comprises a processing unit adapted to obtain information from the accessory determining means regarding which audio accessory/-ies that is/are connected to the respective audio connecting means, the processing unit further being adapted to select at least one audio input source and at least one audio output destination by utilizing an audio routing table, based on which audio accessory/-ies that is/are connected to the respective audio connecting means. at least two audio connecting means, wherein each of the at least two audio connecting means is adapted to connect a respective audio accessory to the audio interface arrangement, at the same time, and wherein at least one of the at least two audio connecting means is a socket which is adapted to connect the respective audio accessory by receiving an audio plug of the respective audio accessory, characterised in that the audio interface arrangement further comprises an accessory determining means coupled to said at least two audio connecting means, wherein the accessory determining means is adapted to determine which type of audio accessory that is connected to the respective audio connecting means, and in that the handheld device further comprises a processing unit adapted to obtain information from the accessory determining means regarding which audio accessory/-ies that is/are connected to the respective audio connecting means, the processing unit further being adapted to select at least one audio input source and at least one audio output destination by utilizing an audio routing table, based on which audio accessory/-ies that is/are connected to the respective audio connecting means.
A polymer for an organic electroluminescent element, which is represented by the following general formula, the polymer comprising an indolocarbazole structure and a polymerizable group as pendants in a repeating unit constituting a main chain, wherein the polymer has a weight-average molecular weight of 1,000 to 1,000,000: where R's each represent a hydrogen atom or a monovalent organic group, Y represents a divalent linking group, Z represents a substituted or unsubstituted indolocarbazolyl group having a bonding at an N-position, W represents a polymerizable group, mand n represent abundance molar ratios, and m represents 1 to 95 mol% and n represents 5 to 99 mol%, and 1 represents an average number of repetitions and represents 2 to 10,000.
Modular specimen holder (10, 10') for high pressure freezing and X-ray crystallography of a specimen comprising a specimen holding element (100, 100') and an extension element (200, 200') connectable with each other and separable from each other; the specimen holding element (100, 100') comprising a tubule (120, 120') and a base element (110, 110'), wherein: - the tubule (120, 120') is adapted to hold the specimen, - the base element (110, 110') is adapted to hold the tubule (120, 120'), - wherein a distance from a bottom of the base element (110, 110') to a top of the tubule (120, 120') is a distance d 1; the extension element (200, 200') being adapted to be connected with the base element (110, 110'), wherein, - when the extension element (200, 200') and the base element (110, 110') are connected with each other, a distance from a bottom of the extension element (200, 200') to the top of the tubule (120, 120') is a second distance d 2; wherein the second distance d 2 is larger than the first distance d 1; wherein the first distance d 1 is dimensioned to fit in a high pressure freezing unit for high pressure freezing of the specimen holding element (100, 100'); and wherein the second distance d 2 is dimensioned to fit in an X-ray crystallography unit for conducting an X-ray crystallography of the specimen. - the tubule (120, 120') is adapted to hold the specimen, - the base element (110, 110') is adapted to hold the tubule (120, 120'), - wherein a distance from a bottom of the base element (110, 110') to a top of the tubule (120, 120') is a distance d 1; - when the extension element (200, 200') and the base element (110, 110') are connected with each other, a distance from a bottom of the extension element (200, 200') to the top of the tubule (120, 120') is a second distance d 2;
An electrical apparatus for management of arc faults, the apparatus comprising: an electrical enclosure (108, 150, 222, 240); electrical equipment within the enclosure and having one or more electrical phases (A, B, C) with respective electrical conductors; dielectric arc channels (120a-120c, 221a-221c, 244a-244c) having fixed barriers (140, 224a, 224b, 246b, 246c), each arc channel (120a-120c, 221a-221c, 244a-244c) surrounding a respective one of the electrical conductors at a conductor joint (225a-225c) thereof and having a sufficient length to attenuate an arc produced at the conductor j oint; and an exhaust channel (132, 162a-162c, 204, 210, 231) connected in fluid communication to each arc channel (120a-120c, 221a-221c, 244a-244c) at the end of its sufficient length; wherein the fixed barriers (140, 224a, 224b, 246b, 246c) separate the electrical conductors of the one or more electrical phases to form at least part of each of the dielectric arc channels (120a-120c, 221a-221c, 244a-244c), characterized in that during arcing conditions, the exhaust channel (132, 162a-162c, 204, 210, 231) and the dielectric arc channels (120a-120c, 221a-221c, 244a-244c) are configured to lengthen the arc and attenuate its current and temperature until the arc is extinguished. an electrical enclosure (108, 150, 222, 240); electrical equipment within the enclosure and having one or more electrical phases (A, B, C) with respective electrical conductors; dielectric arc channels (120a-120c, 221a-221c, 244a-244c) having fixed barriers (140, 224a, 224b, 246b, 246c), each arc channel (120a-120c, 221a-221c, 244a-244c) surrounding a respective one of the electrical conductors at a conductor joint (225a-225c) thereof and having a sufficient length to attenuate an arc produced at the conductor j oint; and an exhaust channel (132, 162a-162c, 204, 210, 231) connected in fluid communication to each arc channel (120a-120c, 221a-221c, 244a-244c) at the end of its sufficient length; wherein the fixed barriers (140, 224a, 224b, 246b, 246c) separate the electrical conductors of the one or more electrical phases to form at least part of each of the dielectric arc channels (120a-120c, 221a-221c, 244a-244c), characterized in that during arcing conditions, the exhaust channel (132, 162a-162c, 204, 210, 231) and the dielectric arc channels (120a-120c, 221a-221c, 244a-244c) are configured to lengthen the arc and attenuate its current and temperature until the arc is extinguished.
A primer coating composition comprising: (a) a (meth)acrylic polymer comprising hydroxyl groups, and having a Tg of at least 30°C, as determined in accordance with the Fox Equation; (b) a polyester comprising hydroxyl groups, and having a weight average molecular weight of less than 3000, as determined by gel permeation chromatography using polystyrene standards, and a hydroxyl value of at least 100, as determined in accordance with ASTM E222-10 Standard Test Method for hydroxyl groups using acetic anhydride acetylation; and (c) a crosslinking agent having at least two isocyanate groups, wherein the (meth)acrylic polymer is free of aromatic groups or includes less than 0.1 percent by weight of aromatic groups, in which the percent weights are based on the total weight of the monomers from which the (meth)acrylic polymer is prepared. (a) a (meth)acrylic polymer comprising hydroxyl groups, and having a Tg of at least 30°C, as determined in accordance with the Fox Equation; (b) a polyester comprising hydroxyl groups, and having a weight average molecular weight of less than 3000, as determined by gel permeation chromatography using polystyrene standards, and a hydroxyl value of at least 100, as determined in accordance with ASTM E222-10 Standard Test Method for hydroxyl groups using acetic anhydride acetylation; and (c) a crosslinking agent having at least two isocyanate groups, wherein the (meth)acrylic polymer is free of aromatic groups or includes less than 0.1 percent by weight of aromatic groups, in which the percent weights are based on the total weight of the monomers from which the (meth)acrylic polymer is prepared.
A semi-permeable hydrogel composition comprising an alginate matrix covalently crosslinked in the periphery of the alginate matrix to a multi-armed water soluble polymer, wherein the multi-armed water soluble polymer has from 3-10 polymer arms.
A wastewater lifting station, comprising a tank (1, 2) that has a removable cover, a motor pump unit which is fitted in the tank and is not fixed to the cover, and at least one level detector (9, 12, 13) fitted in the tank, characterised by: - a stud arranged on the upper face of the bottom of the tank, - a vertical tube placed on or in the stud and extending upwardly to at least a level higher than the maximum filling level of the tank, and the level detector (9, 12, 13) is suspended on the tube, and - a guide cable fixed to the bottom of the tank, passing from the bottom to the top of the tank parallel to the tube and onto which a guide ring is threaded and fixed in the bottom part of the tube. - a stud arranged on the upper face of the bottom of the tank, - a vertical tube placed on or in the stud and extending upwardly to at least a level higher than the maximum filling level of the tank, and the level detector (9, 12, 13) is suspended on the tube, and - a guide cable fixed to the bottom of the tank, passing from the bottom to the top of the tank parallel to the tube and onto which a guide ring is threaded and fixed in the bottom part of the tube.
Method for manufacturing a circuit carrier, in particular, a lead frame or a printed circuit board track, for a semiconductor component, wherein at least one first copper layer or a first copper alloy layer with a first expansion coefficient and at least a second layer made of a second, low-stretch material with a second expansion coefficient, which is smaller than the first expansion coefficient, are bonded to each other, characterized in that, between the first copper layer or the first copper alloy layer and the second layer, at least one first bonding layer is made of a bonding material and the bonding material creates a bond, which withstands temperatures above the bonding temperature and comprises silver (Ag) and/or a silver alloy, wherein the bonding material is configured as a sintering material, wherein the first copper layer or the first copper alloy layer and the second layer are bonded to each other at a bonding temperature of 150 °C - 300 °C by means of a low-temperature sintering method.
Method for connecting an external part to a panel using at least two components (1a, 1b, 1c), wherein each component has a flange for engaging at least partially over an edge of the external part, and wherein the method comprises placing the two components each engaging with their flange over the edge and thus connect the external part to the panel via the two components wherein each component comprises a connection side which is positioned at a distance from the panel and wherein a compound is introduced between the connection side and the panel, a zone is delimited between the connection side and the panel such that a physical barrier is formed for the compound, which zone has at least an opening in the connection side, and wherein a compound in liquid form is applied above the opening so as to flow through the opening and fill the zone, wherein above said opening a further zone is at least partially filled by the compound such that, after at least partial curing of the compound, the component is held mechanically by the compound.