mhurhangee/ep-ind-claims huggingface dataset:
A method for facilitating verification of an identity module operatively coupled to a terminal equipment, the method comprising: a. determining if the identity module is in a bonded state; and b. if the identity module is in said bonded state: i. reading one or more bonding identifiers from the identity module; ii. comparing the one or more bonding identifiers with at least a predetermined portion of a terminal equipment identifier stored in the terminal equipment; and iii. shifting the identity module into a predetermined operating condition if at least one of the one or more bonding identifiers corresponds with at least said predetermined portion of the terminal equipment identifier; wherein the identity module is associated with a removable identity module card; and wherein the identity module is placed in a reduced-operational state or a non-operational state if the identity module is not shifted into said predetermined operating condition. a. determining if the identity module is in a bonded state; and b. if the identity module is in said bonded state: i. reading one or more bonding identifiers from the identity module; ii. comparing the one or more bonding identifiers with at least a predetermined portion of a terminal equipment identifier stored in the terminal equipment; and iii. shifting the identity module into a predetermined operating condition if at least one of the one or more bonding identifiers corresponds with at least said predetermined portion of the terminal equipment identifier; i. reading one or more bonding identifiers from the identity module; ii. comparing the one or more bonding identifiers with at least a predetermined portion of a terminal equipment identifier stored in the terminal equipment; and iii. shifting the identity module into a predetermined operating condition if at least one of the one or more bonding identifiers corresponds with at least said predetermined portion of the terminal equipment identifier;
A method for sharing three-dimensional gameplay of a video game to a social network, comprising: receiving a request as a button press on a controller device to share a recorded gameplay portion to a social network, the recorded gameplay portion defined by three-dimensional recorded video, gaze direction data of the user's eyes, and game state data recorded during the gameplay portion; generating a two-dimensional video clip based on the three-dimensional recorded video using a video conversion process; sharing the two-dimensional video clip to the social network; wherein the method is executed by a processor; and wherein generating the two-dimensional video clip includes determining, based on the gaze direction data and game state data, an object situated at a given focal depth as the object the user was looking at and setting, for the video conversion process, a focal depth for a frame of the two-dimensional video clip at the focal depth of said object. receiving a request as a button press on a controller device to share a recorded gameplay portion to a social network, the recorded gameplay portion defined by three-dimensional recorded video, gaze direction data of the user's eyes, and game state data recorded during the gameplay portion; generating a two-dimensional video clip based on the three-dimensional recorded video using a video conversion process; sharing the two-dimensional video clip to the social network; wherein the method is executed by a processor; and wherein generating the two-dimensional video clip includes determining, based on the gaze direction data and game state data, an object situated at a given focal depth as the object the user was looking at and setting, for the video conversion process, a focal depth for a frame of the two-dimensional video clip at the focal depth of said object.
Device for the non-rail-bound transport of a wheel set provided with two wheels or a bogie provided with wheelsets with a transport frame, which is movable by means of at least two running units (11, 12) on a floor is movable and which comprises at least one lifting device (14, 15), by means of which at least one of the wheels of the wheelset or the bogie can be lifted and held, characterized in that at least two transport units with a transport frame each and a first wheel holding unit and a second wheel holding unit are provided, that are coupled to a lifting drive and axially displaceable mounted with respect to the first wheel holding unit in such a way that the wheel holding units (14, 15) can be pressed from two sides against the wheel rim, preferably against the wheel flange, of the wheel such that the wheel can be lifted upwards.
An isolated monoclonal antibody or antigen binding fragment thereof, comprising a heavy chain variable region and a light chain variable region, the heavy chain variable region comprising SEQ ID NO: 5, and the light chain variable region comprising SEQ ID NO: 6; wherein the monoclonal antibody or antigen binding fragment specifically binds to TEM8 and is neutralizing. the heavy chain variable region comprising SEQ ID NO: 5, and the light chain variable region comprising SEQ ID NO: 6; wherein the monoclonal antibody or antigen binding fragment specifically binds to TEM8 and is neutralizing.
Laundry care appliance with an outer tub for receiving washing liquid, wherein the outer tub has an outlet opening and an inlet opening, which are fluidically connected by means of a liquid pipe, a laundry drum for receiving laundry, a washing liquid supply facility for supplying washing liquid into the outer tub, a pump which is embodied to drain washing liquid through the outlet opening into the liquid pipe and to supply the drained washing liquid through the inlet opening back to the outer tub in order to wet the laundry in the laundry drum, a volume recording facility for recording a volume (157-1, 157-2) of washing liquid not bound to the laundry and a controller for controlling the pump and the washing liquid supply facility, characterised in that the controller is embodied to activate the washing liquid supply facility during a first time segment and to supply a first quantity of washing liquid to the outer tub, that the controller is embodied to activate the pump during the first time segment in order to recirculate the supplied washing liquid through the liquid pipe, wherein the volume recording facility is embodied to record a first volume of the washing liquid not bound to the laundry during the first time segment, that the controller is embodied to activate the washing liquid supply facility during a further time segment which follows the first time segment and to supply a further quantity of washing liquid to the outer tub, that the controller is embodied to activate the pump during the further time segment in order to recirculate the supplied washing liquid through the liquid pipe, wherein the volume recording facility is embodied to record a further volume of the washing liquid not bound to the laundry during the further time segment, and that the controller is embodied to deactivate the washing liquid supply facility after the further time segment when the sum of the first volume and the further volume exceeds a volume limit value. the controller is embodied to activate the washing liquid supply facility during a first time segment and to supply a first quantity of washing liquid to the outer tub, that the controller is embodied to activate the pump during the first time segment in order to recirculate the supplied washing liquid through the liquid pipe, wherein the volume recording facility is embodied to record a first volume of the washing liquid not bound to the laundry during the first time segment, that the controller is embodied to activate the washing liquid supply facility during a further time segment which follows the first time segment and to supply a further quantity of washing liquid to the outer tub, that the controller is embodied to activate the pump during the further time segment in order to recirculate the supplied washing liquid through the liquid pipe, wherein the volume recording facility is embodied to record a further volume of the washing liquid not bound to the laundry during the further time segment, and that the controller is embodied to deactivate the washing liquid supply facility after the further time segment when the sum of the first volume and the further volume exceeds a volume limit value.
Stent comprising a tubular, flexible body whose wall has a web structure (4; 30; 60; 60'), wherein the web structure (4; 30; 60; 60') has a plurality of adjacent web patterns (31, 33, 34, 35, 52) and a plurality of adjoining cells (18, 19; 50, 51; 76) that are surrounded by webs of said web structure (4, 30; 60; 60'), wherein at least one spring element (22; 32; 63; 63') is provided per cell (18, 19; 50, 51; 76), and wherein the web pattern comprises the following: first loops that open in a first direction, second loops that follow the first loops and open in a second direction, third loops that follow the second loops and open in a third direction that is opposite to the first direction, and fourth loops that follow the third loops and open in the same direction as the second loops, wherein the first to fourth loops (36, 39, 42, 45) comprise in each case two interconnected legs (37; 38; 40; 41; 43; 44, 46, 47) that are arranged at an acute angle with respect to one another and form a recurring sequence of loops in which the first loops of a sequence follow the fourth loops of a preceding sequence, characterized in that the web structure (4; 30; 60 60') is formed from a sequence of in each case web patterns (31, 33, 34, 35, 52) that are mirror-inverted at an axis, the connection therebetween being provided in each case at the vertices of the first or third loops. first loops that open in a first direction, second loops that follow the first loops and open in a second direction, third loops that follow the second loops and open in a third direction that is opposite to the first direction, and fourth loops that follow the third loops and open in the same direction as the second loops, wherein the first to fourth loops (36, 39, 42, 45) comprise in each case two interconnected legs (37; 38; 40; 41; 43; 44, 46, 47) that are arranged at an acute angle with respect to one another and form a recurring sequence of loops in which the first loops of a sequence follow the fourth loops of a preceding sequence, characterized in that the web structure (4; 30; 60 60') is formed from a sequence of in each case web patterns (31, 33, 34, 35, 52) that are mirror-inverted at an axis, the connection therebetween being provided in each case at the vertices of the first or third loops.
A method of forming an electrode, comprising: contacting a porous material comprising carbon with a filler solution comprising a filler material, such that the filler material forms a coating on a first portion of the porous material, producing a first coated porous material; contacting the first coated porous material with an electrode material comprising sulfur as an active electrode species and a binder material, such that the electrode material forms a coating on at least a second portion of the porous material, producing a second coated porous material; and removing at least some of the filler material from the second coated porous material, thereby forming the electrode. contacting a porous material comprising carbon with a filler solution comprising a filler material, such that the filler material forms a coating on a first portion of the porous material, producing a first coated porous material; contacting the first coated porous material with an electrode material comprising sulfur as an active electrode species and a binder material, such that the electrode material forms a coating on at least a second portion of the porous material, producing a second coated porous material; and removing at least some of the filler material from the second coated porous material, thereby forming the electrode.
A method for monitoring reactivity in reactions between a first and second material of interest, said method comprising the steps of: a) providing an osmotic reaction cell comprising first and second wells (14, 16) and a semi-permeable membrane separating said first and second wells; b) introducing a reference solution comprising any one or combination of the first material of interest, the second material of interest, a surrogate reference material and a carrier fluid into one of said first well and said second well, wherein the reference solution is a solution having a total number of solute molecules that will not change; c) introducing a reaction mixture into one of said first well or said second well, which does not contain said reference solution, said reaction mixture comprising a carrier fluid and said first and second materials of interest; and d) monitoring a change in an osmotic pressure in said osmotic reaction cell occurring as a result of a change in concentration in said osmotic reaction cell of one or more of said first material, second material, surrogate reference material or reaction products formed from said first and second materials, characterized in that said step d) is performed by measuring the change in solution height in a manometer fluidly connected with at least one of said first well and said second well; said method is performed using an array of osmotic reaction cells, and at least two of the osmotic cells of the array utilize different first and/or second materials; and said first and second wells have a volume of from 0.05 μl to 100 μl. a) providing an osmotic reaction cell comprising first and second wells (14, 16) and a semi-permeable membrane separating said first and second wells; b) introducing a reference solution comprising any one or combination of the first material of interest, the second material of interest, a surrogate reference material and a carrier fluid into one of said first well and said second well, wherein the reference solution is a solution having a total number of solute molecules that will not change; c) introducing a reaction mixture into one of said first well or said second well, which does not contain said reference solution, said reaction mixture comprising a carrier fluid and said first and second materials of interest; and d) monitoring a change in an osmotic pressure in said osmotic reaction cell occurring as a result of a change in concentration in said osmotic reaction cell of one or more of said first material, second material, surrogate reference material or reaction products formed from said first and second materials, said step d) is performed by measuring the change in solution height in a manometer fluidly connected with at least one of said first well and said second well; said method is performed using an array of osmotic reaction cells, and at least two of the osmotic cells of the array utilize different first and/or second materials; and
An achromatized metasurface lens (104; 600) comprising: a color filter array having a first color filter element for a first color of light, and a second color filter element for a second color of light; and a metasurface lens located proximate to the color filter array, wherein the metasurface lens includes: a first subset of nanostructures configured to modify the first color of light, wherein the first subset of nanostructures is optically aligned with the first color filter element and configured to collimate the first color of light; and a second subset of nanostructures configured to modify the second color of light, wherein the second subset of nanostructures is optically aligned with the second color filter element and configured to collimate the second color of light. a color filter array having a first color filter element for a first color of light, and a second color filter element for a second color of light; and a metasurface lens located proximate to the color filter array, wherein the metasurface lens includes: a first subset of nanostructures configured to modify the first color of light, wherein the first subset of nanostructures is optically aligned with the first color filter element and configured to collimate the first color of light; and a second subset of nanostructures configured to modify the second color of light, wherein the second subset of nanostructures is optically aligned with the second color filter element and configured to collimate the second color of light. a first subset of nanostructures configured to modify the first color of light, wherein the first subset of nanostructures is optically aligned with the first color filter element and configured to collimate the first color of light; and a second subset of nanostructures configured to modify the second color of light, wherein the second subset of nanostructures is optically aligned with the second color filter element and configured to collimate the second color of light.
A method for evaluating a subject's risk of developing type 2 diabetes and/or of having prediabetes, comprising: providing an in vitro biosample from a subject, wherein the biosample comprises blood, plasma or serum; performing Nuclear Magnetic Resonance on the in vitro biosample, obtaining an NMR spectrum of the biosample; programmatically calculating, using a processor, a diabetes risk index score of the subject using a mathematical model of risk of developing type 2 diabetes that includes a measurement of a lipoprotein component, a measurement of a branched chain amino acid, and a measurement of GlycA, each obtained from the NMR spectrum of the in vitro biosample, wherein GlycA is a composite NMR signal from carbohydrate portions of acute phase reactant glycoproteins containing N-acetylglucosamine and/or N-acetylgalactosamine moieties, and wherein the diabetes risk index score has a defined numerical range. providing an in vitro biosample from a subject, wherein the biosample comprises blood, plasma or serum; performing Nuclear Magnetic Resonance on the in vitro biosample, obtaining an NMR spectrum of the biosample; programmatically calculating, using a processor, a diabetes risk index score of the subject using a mathematical model of risk of developing type 2 diabetes that includes a measurement of a lipoprotein component, a measurement of a branched chain amino acid, and a measurement of GlycA, each obtained from the NMR spectrum of the in vitro biosample, wherein GlycA is a composite NMR signal from carbohydrate portions of acute phase reactant glycoproteins containing N-acetylglucosamine and/or N-acetylgalactosamine moieties, and wherein the diabetes risk index score has a defined numerical range.
A method comprising: specifying a physical interface at a first provider edge, PE, node in a network; specifying a first control path from the first PE node to a second PE node in the network; specifying a second control path from the first PE node to a third PE node in the network; specifying a plurality of redundant combinations of pseudowires, PWs, wherein each redundant combination includes a primary pseudowire that is configured as a virtual circuit between the physical interface of the first PE node and the second PE node and a backup pseudowire that is configured as a virtual circuit between the physical interface of the first PE node and the third PE node; grouping the pseudowires into a primary PW group that includes the primary pseudowires and a backup PW group that includes the backup pseudowires; and using group identifiers for the PW groups to assign an active status to the primary pseudowires and a standby status to the backup pseudowires, wherein the active status enables data transfers along corresponding PW data paths and the standby status disables data transfers along corresponding PW data paths. specifying a physical interface at a first provider edge, PE, node in a network; specifying a first control path from the first PE node to a second PE node in the network; specifying a second control path from the first PE node to a third PE node in the network; specifying a plurality of redundant combinations of pseudowires, PWs, wherein each redundant combination includes a primary pseudowire that is configured as a virtual circuit between the physical interface of the first PE node and the second PE node and a backup pseudowire that is configured as a virtual circuit between the physical interface of the first PE node and the third PE node; grouping the pseudowires into a primary PW group that includes the primary pseudowires and a backup PW group that includes the backup pseudowires; and using group identifiers for the PW groups to assign an active status to the primary pseudowires and a standby status to the backup pseudowires, wherein the active status enables data transfers along corresponding PW data paths and the standby status disables data transfers along corresponding PW data paths.
A linear actuator comprising: a plastic housing, a stator assembly disposed in the plastic housing, the stator assembly having windings, a rotor assembly, having a permanent magnet, mounted for rotation with respect to the stator assembly such that when the windings are energized, a magnetic field is generated to cause rotation of the rotor assembly, a shaft restricted from rotation and associated with the rotor assembly such that rotation of the rotor assembly causes linear movement of the shaft, and a connector structure, housing leads for powering the windings, characterized in that: said plastic housing has an integral flange for mounting the actuator, the plastic housing has a distal- annular end that extends beyond an annular surface of the connector structure, that is heat deformed to capture the annular surface of the connector structure to form a connection, thereby coupling the plastic housing to the connector structure such that the connection can be air leak tested. a plastic housing, a stator assembly disposed in the plastic housing, the stator assembly having windings, a rotor assembly, having a permanent magnet, mounted for rotation with respect to the stator assembly such that when the windings are energized, a magnetic field is generated to cause rotation of the rotor assembly, a shaft restricted from rotation and associated with the rotor assembly such that rotation of the rotor assembly causes linear movement of the shaft, and a connector structure, housing leads for powering the windings, a stator assembly disposed in the plastic housing, the stator assembly having windings, a rotor assembly, having a permanent magnet, mounted for rotation with respect to the stator assembly such that when the windings are energized, a magnetic field is generated to cause rotation of the rotor assembly, a shaft restricted from rotation and associated with the rotor assembly such that rotation of the rotor assembly causes linear movement of the shaft, and a connector structure, housing leads for powering the windings, said plastic housing has an integral flange for mounting the actuator, the plastic housing has a distal- annular end that extends beyond an annular surface of the connector structure, that is heat deformed to capture the annular surface of the connector structure to form a connection, thereby the plastic housing has a distal- annular end that extends beyond an annular surface of the connector structure, that is heat deformed to capture the annular surface of the connector structure to form a connection, thereby coupling the plastic housing to the connector structure such that the connection can be air leak tested.