mhurhangee/ep-ind-claims huggingface dataset:
Enclosure for power electronic components, comprising: an enclosure wall comprising an insulating material, a first conductive layer covering a portion of an inner face of the enclosure wall, and a second conductive layer covering at least a portion of an outer face of the enclosure wall, wherein the first and the second conductive layers are electrically insulated from each other by the enclosure wall, characterized in that, the first and the second conductive layers are capable of exhibiting a different electrical potential, and wherein at least a portion of the inner face of the enclosure wall not being covered with a conductive layer and abutting the portion being covered by the conductive layer is covered by a resistive material layer. an enclosure wall comprising an insulating material, a first conductive layer covering a portion of an inner face of the enclosure wall, and a second conductive layer covering at least a portion of an outer face of the enclosure wall, wherein the first and the second conductive layers are electrically insulated from each other by the enclosure wall, characterized in that, the first and the second conductive layers are capable of exhibiting a different electrical potential, and wherein at least a portion of the inner face of the enclosure wall not being covered with a conductive layer and abutting the portion being covered by the conductive layer is covered by a resistive material layer.
A method of detecting grid islanding in a grid supporting voltage source converter, the method comprising: modulating an output voltage at an output of the grid supporting voltage source converter; determining at least one grid parameter at an input to the grid supporting voltage source converter; and detecting the grid islanding for the grid supporting voltage source converter based on the at least one grid parameter. modulating an output voltage at an output of the grid supporting voltage source converter; determining at least one grid parameter at an input to the grid supporting voltage source converter; and detecting the grid islanding for the grid supporting voltage source converter based on the at least one grid parameter.
A method for determining whether a configuration of an optical transmission interface of a first device has to be adjusted for transmitting an optical signal to a second device, the method being such that a monitoring device performs: - obtaining an information representative of a time drift between successive symbols of an optical signal received by the second device, from the first device; and - determining whether the configuration of the optical transmission interface of the first device has to be adjusted, on the basis of said information representative of the time drift; characterized in that, the optical signal being transmitted by the first device to the second device via an optical band-pass filter, the second device having an optical reception interface configured to enable receiving optical signals output by said optical band-pass filter and transmitted by the first device on a carrier wavelength when said carrier wavelength is comprised in the passband of the optical band-pass filter, the monitoring device performs: - receiving, from the second device, information representative of instants at which extremes of signal strength are detected by the second device in at least two successive symbols of the optical signal received by the second device, from the first device, via the optical band-pass filter; - determining at least one time period between said instants at which extremes of signal strength are detected; and - obtaining the information representative of the time drift on the basis of the determined at least one time period. - obtaining an information representative of a time drift between successive symbols of an optical signal received by the second device, from the first device; and - determining whether the configuration of the optical transmission interface of the first device has to be adjusted, on the basis of said information representative of the time drift; - receiving, from the second device, information representative of instants at which extremes of signal strength are detected by the second device in at least two successive symbols of the optical signal received by the second device, from the first device, via the optical band-pass filter; - determining at least one time period between said instants at which extremes of signal strength are detected; and - obtaining the information representative of the time drift on the basis of the determined at least one time period.
A method for incremental printing with an inkjet swath printer by depositing multiple drops of an ink from a printhead in each column of an image, in each scanning pass of the printhead over a print medium, comprising: obtaining the image; analyzing the image to determine which drops of ink will define leading edges or trailing edges in each row of the image element with respect to a scanning direction; removing one drop, two drops, or the first and third drops of ink immediately after the drop defining the leading edge and/or immediately preceding the drop defining the trailing edge, respectively, in each of the rows whilst retaining substantially all drops subsequent to the removed one drop, two drops, or the first and third drops of ink immediately after the drop defining the leading edge and/or substantially all drops preceding the removed one drop, two drops, or the first and third drops of ink immediately preceding the drop defining the trailing edge; and depositing the remainder of the drops of the ink to be printed in the scanning pass, after said removal of at least one drop, on the medium while passing the printhead over the media in the scanning direction. obtaining the image; analyzing the image to determine which drops of ink will define leading edges or trailing edges in each row of the image element with respect to a scanning direction; removing one drop, two drops, or the first and third drops of ink immediately after the drop defining the leading edge and/or immediately preceding the drop defining the trailing edge, respectively, in each of the rows whilst retaining substantially all drops subsequent to the removed one drop, two drops, or the first and third drops of ink immediately after the drop defining the leading edge and/or substantially all drops preceding the removed one drop, two drops, or the first and third drops of ink immediately preceding the drop defining the trailing edge; and depositing the remainder of the drops of the ink to be printed in the scanning pass, after said removal of at least one drop, on the medium while passing the printhead over the media in the scanning direction.
A method for linking item parameters of items processed in a production line comprising a plurality of measuring devices (106, 108, 110) configured to measure item parameters, the method comprising: - retrieving a time series (302, 304, 306) of time stamps (302a-e, 304a-d, 306a-d) for each measuring device indicative of when an item passed the respective measuring device (106, 108, 110) in the production line, wherein each time stamp is associated with a measured item parameter value; characterized by: - determining a set of time differences between consecutive time stamps for each of the time series of time stamps, wherein each time difference is associated with one of its consecutive time stamps; - correlating subsets of time differences associated with at least two of the measuring devices, wherein, - when the subsets of time differences are determined to match, associating the corresponding time stamps from the matching subsets of time differences with each other, thereby linking the associated time stamps and the associated measured item parameters to each other; and - storing the associated time stamps in a data storage device. - retrieving a time series (302, 304, 306) of time stamps (302a-e, 304a-d, 306a-d) for each measuring device indicative of when an item passed the respective measuring device (106, 108, 110) in the production line, wherein each time stamp is associated with a measured item parameter value; characterized by: - determining a set of time differences between consecutive time stamps for each of the time series of time stamps, wherein each time difference is associated with one of its consecutive time stamps; - correlating subsets of time differences associated with at least two of the measuring devices, wherein, - when the subsets of time differences are determined to match, associating the corresponding time stamps from the matching subsets of time differences with each other, thereby linking the associated time stamps and the associated measured item parameters to each other; and - storing the associated time stamps in a data storage device. - determining a set of time differences between consecutive time stamps for each of the time series of time stamps, wherein each time difference is associated with one of its consecutive time stamps; - correlating subsets of time differences associated with at least two of the measuring devices, wherein, - when the subsets of time differences are determined to match, associating the corresponding time stamps from the matching subsets of time differences with each other, thereby linking the associated time stamps and the associated measured item parameters to each other; and - storing the associated time stamps in a data storage device.
Anhydrous cosmetic or dermatological composition in the form of a loose or compact powder, comprising: 1) at least particles with release of a beneficial agent comprising a core containing at least one beneficial agent and an envelope surrounding the core; said envelope being constituted of at least one hydrophobically modified polysaccharide chosen from starch (C 5 -C 20) alkenyl succinates and of at least one water-soluble carbohydrate chosen from maltodextrins having a dextrose equivalent ranging from 4 to 20; said particles simultaneously having a poured powder density ranging from 300.0 g/l to 600.0 g/l and an absolute density of greater than 1.0; said particles being spherical and having a number-mean diameter ranging from 1 to 30 μm, and a volume-mean diameter ranging from 5 to 150 μm; and 2) optionally at least one filler other than said particles. 1) at least particles with release of a beneficial agent comprising a core containing at least one beneficial agent and an envelope surrounding the core; said envelope being constituted of at least one hydrophobically modified polysaccharide chosen from starch (C 5 -C 20) alkenyl succinates and of at least one water-soluble carbohydrate chosen from maltodextrins having a dextrose equivalent ranging from 4 to 20; said particles simultaneously having a poured powder density ranging from 300.0 g/l to 600.0 g/l and an absolute density of greater than 1.0; said particles being spherical and having a number-mean diameter ranging from 1 to 30 μm, and a volume-mean diameter ranging from 5 to 150 μm; and 2) optionally at least one filler other than said particles.
A method for communicating information through a telecommunication network, the telecommunication network comprising at least one server and at least one terminal (100, 200, 300) exchanging a data set; said at least one terminal (100, 200, 300) being configured to implement an Internet browser; the communication method using the data format JavaScript Object Notation, JSON, and being executed by the Internet browser and comprising a step of analyzing said data set; the data set consisting of at least one element among: an object element, a branch element and a display element; - the object element being configured to be unique when it is generated, and being an attribute that allows associating an informational content with a dynamic object; - the branch element being configured to comprise at least one auxiliary branch element and/or at least one terminal branch element; and, - the display element being a program configured to create a graphic representation, the communication method comprising a step of generating a markup language HTML from said data set by the Internet browser to represent at least one Web page. - the object element being configured to be unique when it is generated, and being an attribute that allows associating an informational content with a dynamic object; - the branch element being configured to comprise at least one auxiliary branch element and/or at least one terminal branch element; and, - the display element being a program configured to create a graphic representation,
Method for preparing a dispersible dairy calcium in powder form, characterised in that it comprises the following steps: a) mixing a micronised dairy calcium phosphate powder and a cheese-making whey, demineralised or not, having a pH of between 6 and 7.5, optionally concentrated; b) drying the mixture of step a; characterised in that the micronised dairy calcium phosphate powder comprises between 68 and 85% ash, including between 20 and 35% by mass calcium and between 9 and 15% by mass phosphorus, 0.1 to 15% by mass lactose and 10 to 15% by mass dairy proteins, and in that the micronised dairy calcium phosphate powder has a mean particle size of 1 to 5 μm and a specific surface area of 41 to 120 m 2 /g. a) mixing a micronised dairy calcium phosphate powder and a cheese-making whey, demineralised or not, having a pH of between 6 and 7.5, optionally concentrated; b) drying the mixture of step a;
An energy-absorbing member having a structure in which a plurality of fiber reinforced resin layers are layered in a thickness direction of said member, and including, as said plurality of fiber reinforced resin layers, at least a plurality of unidirectional materials each comprising unidirectionally aligned reinforcing fibers and a resin and a plurality of cross materials each comprising a reinforcing fiber woven fabric and a resin, characterized in that lengths of said plurality of unidirectional materials in an external-loading direction are changed sequentially, wherein a length of a unidirectional material located at a more inner-layer side in said thickness direction of said member is set shorter than a length of a unidirectional material located at a more outer-layer side, wherein each of said unidirectional materials is layered at a condition being put between said cross materials and wherein an incorporated component is contained in the energy-absorbing member.
A method to determine how a service level experience, SLE, event in a communications environment should be addressed comprising: determining a plurality of SLE elements; constructing a multi-dimensional SLE status vector, SLESV, whose elements include one or more of the plurality of SLE elements; determining variability of one or more SLE elements based on varying a starting time of a measurement time-window, wherein determining variability of the one or more SLE elements comprises determining the maximum and minimum values of each element; constructing an augmented service level experience status vector, ASLESV, by adding the maximum and minimum values as elements to the SLESV for each time-window; developing a predictive model; inputting a measured SLESV at time t i to the predictive model; predicting, using the predictive model, the values of the elements of an ASLESV at time t i+1 identifying and initiating an action at least based on a determination whether a measured SLESV parameter falls within an expected or predicted Pn Max and Pn Min of the predicted ASLESV value, wherein Pn Max is a predicted maximum value of the nth element of the ASLESV at time t i+1 and Pn Min is a predicted minimum value of the nth element of the ASLESV at time t i+1. determining a plurality of SLE elements; constructing a multi-dimensional SLE status vector, SLESV, whose elements include one or more of the plurality of SLE elements; determining variability of one or more SLE elements based on varying a starting time of a measurement time-window, wherein determining variability of the one or more SLE elements comprises determining the maximum and minimum values of each element; constructing an augmented service level experience status vector, ASLESV, by adding the maximum and minimum values as elements to the SLESV for each time-window; developing a predictive model; inputting a measured SLESV at time t i to the predictive model; predicting, using the predictive model, the values of the elements of an ASLESV at time t i+1 identifying and initiating an action at least based on a determination whether a measured SLESV parameter falls within an expected or predicted Pn Max and Pn Min of the predicted ASLESV value, wherein Pn Max is a predicted maximum value of the nth element of the ASLESV at time t i+1 and Pn Min is a predicted minimum value of the nth element of the ASLESV at time t i+1.
A polymeric sheet comprising: a first cap layer comprising a first laser-direct structuring additive, wherein the first LDS additive is selected from the group consisting of copper chromium oxide spinel, copper hydroxide phosphate, copper phosphate, copper chromium oxide spinel, a copper sulfate, a cuprous thiocyanate, an organic metal complex, a palladium/palladium-containing heavy metal complex, a metal oxide, a metal oxide-coated filler, antimony doped tin oxide coated on mica, a copper containing metal oxide, a zinc containing metal oxide, a tin containing metal oxide, a magnesium containing metal oxide, an aluminum containing metal oxide, a gold containing metal oxide, a silver containing metal oxide, and a combination thereof, and a base layer; wherein said first cap layer contacts said base layer, wherein the first cap layer and the base layer comprise a polymeric resin, and wherein the base layer is free of LDS additives. a first cap layer comprising a first laser-direct structuring additive, wherein the first LDS additive is selected from the group consisting of copper chromium oxide spinel, copper hydroxide phosphate, copper phosphate, copper chromium oxide spinel, a copper sulfate, a cuprous thiocyanate, an organic metal complex, a palladium/palladium-containing heavy metal complex, a metal oxide, a metal oxide-coated filler, antimony doped tin oxide coated on mica, a copper containing metal oxide, a zinc containing metal oxide, a tin containing metal oxide, a magnesium containing metal oxide, an aluminum containing metal oxide, a gold containing metal oxide, a silver containing metal oxide, and a combination thereof, and a base layer; wherein said first cap layer contacts said base layer, wherein the first cap layer and the base layer comprise a polymeric resin, and wherein the base layer is free of LDS additives. wherein said first cap layer contacts said base layer, wherein the first cap layer and the base layer comprise a polymeric resin, and wherein the base layer is free of LDS additives.
A grating with mesh structure, where there is a pattern of openings at a top side of the grating, which allow water to drain away from the top side, where the grating is made from sheet metal, where openings in the top side of the grating are formed by pressing the sheet metal so that walls are formed between the openings and have the shape of barrel arches, where a top of the arches forms the top of the grating and where sides of the arches form the side walls of the adjacent openings, and where the openings are rectangular and the barrel arches form cross arches in the grating where the side walls cross each other, characterised in that there are embossings formed at the top of the arches that extend over the top side of the grating.
A clamping device for fixing a tool in a machine tool, comprising a base body defining a clamping axis, said base body including a machine interface having a mounting cone and an annular flange and being formed in the rear axial end portion of said base body, and a clamping portion which defines a receptacle for a tool shank and is formed in the front axial end region of the base body opposite the machine interface, the base body having an outer contour which corresponds to that of a heat-shrink chuck and is formed in a standardized manner in accordance with DIN 69882-8, characterized - in that the receptacle is annularly surrounded by a pressure chamber which can be acted upon by a hydraulic medium, a thin wall being provided between the receptacle and the pressure chamber, which wall can be elastically deformed inwards by increasing the pressure in the pressure chamber in order to fix a tool shank inserted into the receptacle in a force-fitting manner, or - in that the holder is surrounded by a plurality of pressure chambers which can be acted upon hydraulically and are arranged uniformly distributed along the circumference of the holder and, in particular, are designed concentrically with respect to the clamping axis, thin wall sections remaining between the pressure chambers and the holder, which wall sections can be deformed elastically inwards by increasing the pressure in the pressure chambers in order to fix a tool shank inserted into the holder in a force-fitting manner. - in that the receptacle is annularly surrounded by a pressure chamber which can be acted upon by a hydraulic medium, a thin wall being provided between the receptacle and the pressure chamber, which wall can be elastically deformed inwards by increasing the pressure in the pressure chamber in order to fix a tool shank inserted into the receptacle in a force-fitting manner, or - in that the holder is surrounded by a plurality of pressure chambers which can be acted upon hydraulically and are arranged uniformly distributed along the circumference of the holder and, in particular, are designed concentrically with respect to the clamping axis, thin wall sections remaining between the pressure chambers and the holder, which wall sections can be deformed elastically inwards by increasing the pressure in the pressure chambers in order to fix a tool shank inserted into the holder in a force-fitting manner.
Control architecture comprising: - at least one programmable logic controller comprising an automation program, - at least one cloud computing system comprising an address accessible through a communication network, - the automation program comprises at least one control module (MC1, MC2) designed to control an application by consuming input data in accordance with a model of input data and by determining output data in accordance with a model of output data, characterized in that: - the cloud computing system is designed to store first data in accordance with the model of input data of the control module and second data in accordance with the model of output data of the control module, - at least one first entity is connected to the cloud computing system and designed to publish said first data in the cloud computing system in order to being read by the programmable logic controller when it executes the control module, - at least one second entity is connected to the cloud computing system and designed to read said second data published in the cloud computing system by the programmable logic controller when it executes said control module. - at least one programmable logic controller comprising an automation program, - at least one cloud computing system comprising an address accessible through a communication network, - the automation program comprises at least one control module (MC1, MC2) designed to control an application by consuming input data in accordance with a model of input data and by determining output data in accordance with a model of output data, - the cloud computing system is designed to store first data in accordance with the model of input data of the control module and second data in accordance with the model of output data of the control module, - at least one first entity is connected to the cloud computing system and designed to publish said first data in the cloud computing system in order to being read by the programmable logic controller when it executes the control module, - at least one second entity is connected to the cloud computing system and designed to read said second data published in the cloud computing system by the programmable logic controller when it executes said control module.