mhurhangee/ep-ind-claims huggingface dataset:
A lens evaluation method comprising: a power distribution converting step for obtaining a power distribution of a plurality of measurement points in an arbitrary direction based on an actually measured power distribution of a spectacle lens, the actually measured power distribution consisting of a point group indicating spherical power, cylindrical power and cylinder axis; an actually measured power distribution conversion step for converting the actually measured power distribution into a continuous power distribution; a calculation power distribution creating step for creating a calculation power distribution (i.e., a design power distribution) of the spectacle lens; a calculation power distribution conversion step for converting the calculation power distribution into a continuous power distribution; a difference distribution calculating step for obtaining a difference distribution between the actually measured power distribution, which indicates an actual power distribution of the spectacle lens, and the calculation power distribution; a difference index calculating step for obtaining a difference index by differentiating the difference distribution obtained in the difference distribution calculating step with respect to the distance between the plurality of measurement points in the lens; and an evaluation step for evaluating the spectacle lens based on the difference index calculated in the difference index calculating step. a power distribution converting step for obtaining a power distribution of a plurality of measurement points in an arbitrary direction based on an actually measured power distribution of a spectacle lens, the actually measured power distribution consisting of a point group indicating spherical power, cylindrical power and cylinder axis; an actually measured power distribution conversion step for converting the actually measured power distribution into a continuous power distribution; a calculation power distribution creating step for creating a calculation power distribution (i.e., a design power distribution) of the spectacle lens; a calculation power distribution conversion step for converting the calculation power distribution into a continuous power distribution; a difference distribution calculating step for obtaining a difference distribution between the actually measured power distribution, which indicates an actual power distribution of the spectacle lens, and the calculation power distribution; a difference index calculating step for obtaining a difference index by differentiating the difference distribution obtained in the difference distribution calculating step with respect to the distance between the plurality of measurement points in the lens; and an evaluation step for evaluating the spectacle lens based on the difference index calculated in the difference index calculating step.
Method for operating a wind turbine comprising a rotor with rotor blades of which the angle can be adjusted by means of a turbine controller, in which a state variable which reflects the current thrust of the rotor is detected, comprising the steps of: a) determining a short-term mean value of the state variable (functional element 201); b) determining the difference between the short-term mean value of the state variable and the detected current state variable (functional element 202); c) determining a first target blade angle correction value from the determined difference (functional element 203); d) the turbine controller taking into account the target blade angle correction value for the blade angle adjustment. a) determining a short-term mean value of the state variable (functional element 201); b) determining the difference between the short-term mean value of the state variable and the detected current state variable (functional element 202); c) determining a first target blade angle correction value from the determined difference (functional element 203); d) the turbine controller taking into account the target blade angle correction value for the blade angle adjustment.
An alarming and measuring method for a volume measuring apparatus, the volume measuring apparatus at least comprising a processor, a trigger button, a first camera, and a second camera, the trigger button, the first camera, and the second camera electrically connected with the processor, the alarming and measuring method comprising: a) controlling the first camera and the second camera to respectively capture a left image and a right image when the trigger button is pressed; b) computing the left image and the right image by the processor to generate a depth graphic correspondingly, wherein the depth graphic at least comprises a depth information of multiple characteristic points collectively exist in the left image and the right image; c) scanning the depth graphic to first determine whether an entire image of a target box is in the depth graphic; d) computing a capturing angle of the volume measuring apparatus with respect to the target box in accordance with multiple contour lines of the entire image of the target box in the depth graphic only when the entire image of the target box is in the depth graphic; e) determining whether the capturing angle matches a measuring condition; f) sending out an alarming signal when the entire image of the target box is inexistent in the depth graphic or the capturing angle is unmatched with the measuring condition; and g) computing a volume related data of the target box in accordance with the multiple contour lines when the capturing angle matches the measuring condition. a) controlling the first camera and the second camera to respectively capture a left image and a right image when the trigger button is pressed; b) computing the left image and the right image by the processor to generate a depth graphic correspondingly, wherein the depth graphic at least comprises a depth information of multiple characteristic points collectively exist in the left image and the right image; c) scanning the depth graphic to first determine whether an entire image of a target box is in the depth graphic; d) computing a capturing angle of the volume measuring apparatus with respect to the target box in accordance with multiple contour lines of the entire image of the target box in the depth graphic only when the entire image of the target box is in the depth graphic; e) determining whether the capturing angle matches a measuring condition; f) sending out an alarming signal when the entire image of the target box is inexistent in the depth graphic or the capturing angle is unmatched with the measuring condition; and g) computing a volume related data of the target box in accordance with the multiple contour lines when the capturing angle matches the measuring condition.
A sensor (100, 300) for measuring an electric current flowing in a conductor (COND) comprising: - a first pair (110, 210, 310) of Rogowski-type coils (111, 112, 211, 212, 311, 312) connected in series, the Rogowski-type coils of the first pair being configured to measure the electric current in a first frequency band; - a second pair (120, 220, 320) of Rogowski-type coils (121, 122, 221, 222, 321, 322) connected in series, the Rogowski-type coils of the second pair being configured to measure the electric current in a second frequency band, the second frequency band comprising at least partly frequencies higher than the frequencies of the first frequency band; and - a means for electrically shielding (115, 215, 315) the first pair of coils, and wherein a core of the Rogowski-type coils of the first and second pairs has a relative permeability of less than 10 and wherein one coil of each pair comprises at least one multi-turn winding, the other coil of the pair comprising at least one multi-turn winding wound in the opposite direction. - a first pair (110, 210, 310) of Rogowski-type coils (111, 112, 211, 212, 311, 312) connected in series, the Rogowski-type coils of the first pair being configured to measure the electric current in a first frequency band; - a second pair (120, 220, 320) of Rogowski-type coils (121, 122, 221, 222, 321, 322) connected in series, the Rogowski-type coils of the second pair being configured to measure the electric current in a second frequency band, the second frequency band comprising at least partly frequencies higher than the frequencies of the first frequency band; and - a means for electrically shielding (115, 215, 315) the first pair of coils,
A single-use dosing device for nasal spray or drop applications, with a bearing element in the form of an ampoule and a discharge element in the form of an actuating adapter, wherein the ampoule (1, 2) is connected detachably to the actuating adapter, wherein the actuating adapter has a guide and actuation element for actuating a pulse for discharging a liquid active substance from the ampoule (1, 2), wherein the actuating adapter has an actuation element, a piston, a receptacle, a guide and actuation element and also a spring element, wherein the guide and actuation element is in an operative connection with a spring element via an actuation element, wherein the spring element is in an operative connection with a piston, wherein the ampoule (1, 2) can be connected to the actuating adapter via a bayonet lock, wherein the ampoule (1, 2) a cam for detachably connecting to the bayonet lock is present, wherein a removable product protection means is present on the ampoule (1,2) and a plastics-material element is arranged in the ampoule (1, 2) and the ampoule (1, 2) has a stopper arranged displaceably in the interior of the ampoule (1, 2), characterised in that the ampoule (1, 2) has at one end a product protection means and at an opposite end at least the cam, and in the interior of the ampoule (1, 2) there is on the end opposite the product protection means the stopper, the receptacle comprising the piston, which is in an operative connection with the stopper, with upon the movement of the piston towards the ampoule (1, 2) the stopper being pushed in the interior of the ampoule (1, 2) towards the product protection means, the product protection means being able to be removed by a rotary movement.
An apparatus (100, 102) for testing an incrementally updated map database, the apparatus (100, 102) comprising a memory (201, 301) and a controller (200, 300), the memory (201, 301) configured to: store a table populated with one or more first map tiles associated with a list of recompiled objects derived from an update package for updating the map database, wherein the one or more first map tiles include at least one first map tile geographically adjacent to at least one second map tile of one or more second map tiles, the one or more second map tiles not included in the table populated with the one or more first map tiles; store different respective threshold values for different types of error associated with the update package; and store a test script including a consistency check algorithm for the one or more first map tiles, wherein the test script is generated from the list of recompiled objects, and wherein the consistency check algorithm determines whether references between each of the recompiled objects within the at least one first map tile and the at least one geographically adjacent second map tile are valid, the controller (200, 300) configured to: execute the test script on the map database to generate return values indicating the numbers of each type of error in the references; and finalize the update package to the map database only if the numbers of each type of error indicated by the return values are below the different respective threshold values. store a table populated with one or more first map tiles associated with a list of recompiled objects derived from an update package for updating the map database, wherein the one or more first map tiles include at least one first map tile geographically adjacent to at least one second map tile of one or more second map tiles, the one or more second map tiles not included in the table populated with the one or more first map tiles; store different respective threshold values for different types of error associated with the update package; and store a test script including a consistency check algorithm for the one or more first map tiles, wherein the test script is generated from the list of recompiled objects, and wherein the consistency check algorithm determines whether references between each of the recompiled objects within the at least one first map tile and the at least one geographically adjacent second map tile are valid, execute the test script on the map database to generate return values indicating the numbers of each type of error in the references; and finalize the update package to the map database only if the numbers of each type of error indicated by the return values are below the different respective threshold values.
A method for producing poly(3,4-ethylenedioxythiophene) polystyrene sulfonate (PEDOT:PSS) particles comprising at least the steps of: a) providing a mixture comprising poly(3,4-ethylenedioxythiophene) and polystyrene sulfonate in a solvent comprising at least water; b) forming one or more PEDOT:PSS drops by introducing the mixture from method step a) into an organic solvent A, the aqueous PEDOT:PSS mixture forming the interior of the drop and the organic solvent A forming the exterior of the drop; c) contacting the PEDOT:PSS drops obtained from step b) with a coagulation solution comprising a curing agent and at least one further solvent B, wherein the density of the coagulating solution is greater than the density of the organic solvent A and less than the density of the aqueous poly(3,4-ethylenedioxythiophene) and polystyrene sulfonate mixture; thereby curing the PEDOT:PSS drops into PEDOT:PSS particles. a) providing a mixture comprising poly(3,4-ethylenedioxythiophene) and polystyrene sulfonate in a solvent comprising at least water; b) forming one or more PEDOT:PSS drops by introducing the mixture from method step a) into an organic solvent A, the aqueous PEDOT:PSS mixture forming the interior of the drop and the organic solvent A forming the exterior of the drop; c) contacting the PEDOT:PSS drops obtained from step b) with a coagulation solution comprising a curing agent and at least one further solvent B, wherein the density of the coagulating solution is greater than the density of the organic solvent A and less than the density of the aqueous poly(3,4-ethylenedioxythiophene) and polystyrene sulfonate mixture; thereby curing the PEDOT:PSS drops into PEDOT:PSS particles.
A method comprising: providing a substrate transfer chamber on top of a reaction chamber in between the reaction chamber and a remote plasma source of a plasma atomic layer deposition reactor; loading at least one substrate into the reaction chamber via the substrate transfer chamber; operating the plasma atomic layer deposition reactor configured to deposit material in the reaction chamber on said at least one substrate by sequential self-saturating surface reactions; and allowing gas from an inactive gas source to flow via the remote plasma source towards a widening radical in-feed part opening towards the reaction chamber substantially during a whole deposition cycle. providing a substrate transfer chamber on top of a reaction chamber in between the reaction chamber and a remote plasma source of a plasma atomic layer deposition reactor; loading at least one substrate into the reaction chamber via the substrate transfer chamber; operating the plasma atomic layer deposition reactor configured to deposit material in the reaction chamber on said at least one substrate by sequential self-saturating surface reactions; and allowing gas from an inactive gas source to flow via the remote plasma source towards a widening radical in-feed part opening towards the reaction chamber substantially during a whole deposition cycle.
A device for making energy storage assemblies comprising means (100, 200, 300) for supplying monolayer or multilayer films (90, 40, 92), driving means for scrolling these films, means for gathering these films in a complex, and a mandrel adapted for winding up these films as a multilayer winding (10, 20, 30, 40, 50, 60), characterized in that it comprises: - first cutting means for severing transversely to their running direction, one or several of the layer(s) forming the complex, the film along which the first cutting means are positioned comprising a foil (84, 85) formed with a material able to withstand the first severing means so that only the one or the other layer(s) may be severed by the first cutting means, - and second cutting means for severing transversely to their running direction, the remaining layers (10, 20, 30, 50, 60), so that the layers severed by the first means are positioned setback from the other layers (10, 20, 30, 50, 60) at an end of the winding of the complex. - first cutting means for severing transversely to their running direction, one or several of the layer(s) forming the complex, the film along which the first cutting means are positioned comprising a foil (84, 85) formed with a material able to withstand the first severing means so that only the one or the other layer(s) may be severed by the first cutting means, - and second cutting means for severing transversely to their running direction, the remaining layers (10, 20, 30, 50, 60), so that the layers severed by the first means are positioned setback from the other layers (10, 20, 30, 50, 60) at an end of the winding of the complex.
A power steering system for a vehicle, said vehicle comprising a traction engine designed to drive wheels through a driveline comprising an upstream portion which is connected to the engine and a downstream portion which is permanently connected to the drive wheels, said power steering system comprising a hydraulic circuit including a fluid tank and a steering actuator, wherein the power steering system further comprises: - a first pump which is driven by mechanical power from the downstream portion of the driveline; - a second pump which is driven by an electric motor; the first and second pumps (10, 11) being arranged in parallel between the fluid tank and the steering actuator and being capable of supplying fluid from the fluid tank to the steering actuator at the same time, wherein the first pump is a variable displacement pump designed to deliver a relatively high fluid flow at low vehicle speed and a limited fluid flow at high vehicle speed. - a first pump which is driven by mechanical power from the downstream portion of the driveline; - a second pump which is driven by an electric motor;
A medical fastener having a first, pre-deployment shape for loading into a surgical instrument, and a second, post-deployment shape for connecting tissue together, the fastener comprising: (a) a crown including a pair of ends; (b) a pair of legs, each leg extending substantially transversely from a respective end of the crown in the first, pre-deployment shape; (c) a fastener interior surface defined by interior surfaces of the crown and the pair of legs; (d) a fastener exterior surface defined by exterior surfaces of the crown and the pair of legs; and characterized in that (e) at least one coating of a tissue repair composition is applied only to the interior surfaces of the crown and the pair of legs, wherein the fastener exterior surface is uncoated. (a) a crown including a pair of ends; (b) a pair of legs, each leg extending substantially transversely from a respective end of the crown in the first, pre-deployment shape; (c) a fastener interior surface defined by interior surfaces of the crown and the pair of legs; (d) a fastener exterior surface defined by exterior surfaces of the crown and the pair of legs; and characterized in that (e) at least one coating of a tissue repair composition is applied only to the interior surfaces of the crown and the pair of legs, wherein the fastener exterior surface is uncoated.
A delamination resistant glass pharmaceutical container comprising a glass composition comprising: SiO 2 in an amount greater than or equal to 72 mol.% and less than or equal to 78 mol.%; from 3.0 mol.% to 13 mol.% alkaline earth oxide comprising both MgO and CaO, wherein CaO is present in an amount from 0.1 mol.% to 1.0 mol.%, and a ratio (CaO (mol.%)/(CaO (mol.%)+MgO (mol.%))) is less than or equal to 0.5; X mol.% Al 2 O 3, wherein X is greater than or equal to 5 mol.% and less than or equal to 7 mol.%; Y mol.% alkali oxide, wherein the alkali oxide comprises Na 2 O in an amount greater than 8 mol.%; a ratio of a concentration of B 2 O 3 (mol.%) in the glass container to (Y mol.% - X mol.%) is less than or equal to 0.3; and a ratio of Y:X is greater than 1 and less than or equal to 2, wherein the pharmaceutical container contains a pharmaceutical composition comprising Adalimumab. SiO 2 in an amount greater than or equal to 72 mol.% and less than or equal to 78 mol.%; from 3.0 mol.% to 13 mol.% alkaline earth oxide comprising both MgO and CaO, wherein CaO is present in an amount from 0.1 mol.% to 1.0 mol.%, and a ratio (CaO (mol.%)/(CaO (mol.%)+MgO (mol.%))) is less than or equal to 0.5; X mol.% Al 2 O 3, wherein X is greater than or equal to 5 mol.% and less than or equal to 7 mol.%; Y mol.% alkali oxide, wherein the alkali oxide comprises Na 2 O in an amount greater than 8 mol.%; a ratio of a concentration of B 2 O 3 (mol.%) in the glass container to (Y mol.% - X mol.%) is less than or equal to 0.3; and a ratio of Y:X is greater than 1 and less than or equal to 2, wherein the pharmaceutical container contains a pharmaceutical composition comprising Adalimumab. X mol.% Al 2 O 3, wherein X is greater than or equal to 5 mol.% and less than or equal to 7 mol.%; Y mol.% alkali oxide, wherein the alkali oxide comprises Na 2 O in an amount greater than 8 mol.%; a ratio of a concentration of B 2 O 3 (mol.%) in the glass container to (Y mol.% - X mol.%) is less than or equal to 0.3; and a ratio of Y:X is greater than 1 and less than or equal to 2, wherein the pharmaceutical container contains a pharmaceutical composition comprising Adalimumab.
A system for loading a material into a porous substrate, comprising: a sealed container comprising an entry port, at least one substrate cavity containing the porous substrate, and top, side and bottom walls defining an inner surface of the container, a lip surrounding the periphery of the substrate cavity and the top wall is sealed to the lip adjacent the substrate cavity periphery; the entry port configured to receive the material; the substrate cavity in communication with the entry port and having the porous substrate maintained under negative pressure; characterised in that the container volume is substantially the same as a volume of the porous substrate. a sealed container comprising an entry port, at least one substrate cavity containing the porous substrate, and top, side and bottom walls defining an inner surface of the container, a lip surrounding the periphery of the substrate cavity and the top wall is sealed to the lip adjacent the substrate cavity periphery; the entry port configured to receive the material; the substrate cavity in communication with the entry port and having the porous substrate maintained under negative pressure; characterised in that the container volume is substantially the same as a volume of the porous substrate. the entry port configured to receive the material; the substrate cavity in communication with the entry port and having the porous substrate maintained under negative pressure; characterised in that the container volume is substantially the same as a volume of the porous substrate.