mhurhangee/ep-ind-claims huggingface dataset:
A multilayer structure, comprising - at least one electrical node comprising: a first substrate film defining a cavity, and a first material layer arranged to at least partly fill the cavity, and to embed or at least partly cover at least one electrical element arranged into the cavity; or - at least one electrical node assembly, such as a strip or sheet, comprising: a first substrate film defining a plurality of cavities, and at least a corresponding number of first material layers with respect to a number of the plurality of cavities, wherein each of said first material layers at least partly fills a respective one of the cavities and embeds the at least one electrical element therein; wherein the multilayer structure further comprises - a host substrate, wherein said at least one electrical node or said at least one electrical node assembly is arranged on the host substrate, and - a molded or cast material layer covering said at least one electrical node or said at least one electrical node assembly on the host substrate, wherein the molded or cast material layer is further arranged to cover at least a portion of an area around the at least one electrical node or the least one electrical node assembly. - at least one electrical node comprising: a first substrate film defining a cavity, and a first material layer arranged to at least partly fill the cavity, and to embed or at least partly cover at least one electrical element arranged into the cavity; or - at least one electrical node assembly, such as a strip or sheet, comprising: a first substrate film defining a plurality of cavities, and at least a corresponding number of first material layers with respect to a number of the plurality of cavities, wherein each of said first material layers at least partly fills a respective one of the cavities and embeds the at least one electrical element therein; - a host substrate, wherein said at least one electrical node or said at least one electrical node assembly is arranged on the host substrate, and - a molded or cast material layer covering said at least one electrical node or said at least one electrical node assembly on the host substrate, wherein the molded or cast material layer is further arranged to cover at least a portion of an area around the at least one electrical node or the least one electrical node assembly.
An oil-based ink composition for ink jet printing comprising a colorant, an organic solvent, and a polymeric compound as a fixing resin, wherein the colorant comprises at least one pigment selected from organic pigments and inorganic pigments, the organic solvent comprises at least one (poly)alkylene glycol derivative selected from the group consisting of monoalkylether monoalkylesters, dialkylethers and dialkylesters of (poly)alkylene glycol, the amount of the organic solvent is from 30 to 99 % by weight based on the total weight of the ink composition, the polymeric compound is at least one polymeric compound selected from the group consisting of polyester resins, polyurethane resins, vinyl chloride resins and nitrocellulose, the amount of the polymeric compound is from 5 to 200 % by weight based on the weight of the pigment, and pH of an aqueous phase is from 5.5 to 8.0, which pH is obtained by adding 15 parts by weight of the oil-based ink composition to 85 parts by weight of ultrapure water, stirring the mixture with a magnetic stirrer of 30 minutes, filtrating the mixture until a filtrate becomes clear to obtain a filtrate, and measuring pH of the filtrate with a pH meter.
Method for controlling a system for thermally conditioning a vehicle passenger compartment, comprising: - a coolant fluid circuit, and - a heat transfer fluid circuit intended to transport calories generated by the coolant fluid circuit in order to deliver them to a stream of interior air that is able to be distributed in the passenger compartment, characterized in that the control method includes a step of regulating a flow rate Q cal of the heat transfer fluid, during which: - the heat transfer fluid flow rate Q cal is kept below the flow rate threshold Q cal limit while a pressure P d of the coolant fluid is less than or equal to a predetermined pressure threshold P d limit, and - the heat transfer fluid flow rate Q cal is increased beyond the flow rate threshold Q cal limit when the pressure P d of the coolant fluid is greater than the predetermined pressure threshold P d limit. - a coolant fluid circuit, and - a heat transfer fluid circuit intended to transport calories generated by the coolant fluid circuit in order to deliver them to a stream of interior air that is able to be distributed in the passenger compartment, - the heat transfer fluid flow rate Q cal is kept below the flow rate threshold Q cal limit while a pressure P d of the coolant fluid is less than or equal to a predetermined pressure threshold P d limit, and - the heat transfer fluid flow rate Q cal is increased beyond the flow rate threshold Q cal limit when the pressure P d of the coolant fluid is greater than the predetermined pressure threshold P d limit.
A building system controller for a building having at least one controllable device associated with a control zone (106, 111, 112) and one or more communication access points configured to receive an electromagnetic signal having a unique identifier of a mobile device and an elevation indicator indicating the elevation of the mobile device, said building system controller comprising: means which store a map of the building defining one or more control zones (106, 111, 112) and indicating the location of each access point; a location module configured to receive from the one or more access points and process the electromagnetic signal received by the one or more communication access points to determine the location of the mobile device; an occupancy module configured to receive the location of each mobile device as determined by the location module and determine the number of mobile devices located within each of the control zones (106, 111, 112), based upon a comparison between the map of the building and the location of each mobile device as determined by the location module and based at least in part upon the elevation indicator included in the electromagnetic signal; and a rules processor having a control output configured to control a controllable device of a control zone (106, 111, 112) in response to, at least in part, the number of mobile devices located within the control zone (106, 111, 112). means which store a map of the building defining one or more control zones (106, 111, 112) and indicating the location of each access point; a location module configured to receive from the one or more access points and process the electromagnetic signal received by the one or more communication access points to determine the location of the mobile device; an occupancy module configured to receive the location of each mobile device as determined by the location module and determine the number of mobile devices located within each of the control zones (106, 111, 112), based upon a comparison between the map of the building and the location of each mobile device as determined by the location module and based at least in part upon the elevation indicator included in the electromagnetic signal; and a rules processor having a control output configured to control a controllable device of a control zone (106, 111, 112) in response to, at least in part, the number of mobile devices located within the control zone (106, 111, 112).
Trans -4-{4-[3-(4-Trifluoromethoxy-phenyl)-ureido]-cyclohexyloxy}-benzoic acid (tTUCB; compound 1728) for use in ameliorating or delaying the progression and/or reversing the progression of laminitis in an equine, the use comprising administering to the equine the trans -4-{4-[3-(4-Trifluoromethoxy-phenyl)-ureido]-cyclohexyloxy}-benzoic acid (tTUCB; compound 1728).
Wipe for cleaning and disinfecting objects and/or surfaces, having a liquid-storing base material in the form of a fibre mixture, characterized in that the fibre mixture comprises: - 35% to 75% by weight of positively charged regenerated cellulose fibres, - 15% to 55% by weight of synthetic fusible binding fibres, - 5% to 35% by weight of synthetic microfibres. - 35% to 75% by weight of positively charged regenerated cellulose fibres, - 15% to 55% by weight of synthetic fusible binding fibres, - 5% to 35% by weight of synthetic microfibres.
A pneumatic tire comprising, in a tread surface, two or more circumferential main grooves extending in a tread circumferential direction, and a land portion partitioned between the circumferential main grooves or by one of the circumferential main grooves and a tread edge, wherein the land portion comprises a width direction sipe extending in a tread width direction, the width direction sipe comprises, in a cross section along a depth direction, a linear portion (41c, 41e) extending from an opening of the width direction sipe toward a bottom of the width direction sipe, and a bent portion (42c, 42e) connected to the linear portion (41c, 41e), bending and extending from a connecting portion with the linear portion (41c, 41e) to the bottom of the width direction sipe, and the linear portion (41c, 41e) of the width direction sipe has a length in the depth direction increasing as the linear portion (41c, 41e) extends from a center portion of the width direction sipe in the tread width direction toward an end portion in the tread width direction, and wherein in the cross section along the depth direction, the bent portion (42c, 42e) of the width direction sipe includes two or more apexes in the center portion of the width direction sipe in the tread width direction, characterized in that in the end portion of the width direction sipe in the tread width direction, a number of apexes is smaller than a number of the apexes in the center portion in the tread width direction. the land portion comprises a width direction sipe extending in a tread width direction, the width direction sipe comprises, in a cross section along a depth direction, a linear portion (41c, 41e) extending from an opening of the width direction sipe toward a bottom of the width direction sipe, and a bent portion (42c, 42e) connected to the linear portion (41c, 41e), bending and extending from a connecting portion with the linear portion (41c, 41e) to the bottom of the width direction sipe, and the linear portion (41c, 41e) of the width direction sipe has a length in the depth direction increasing as the linear portion (41c, 41e) extends from a center portion of the width direction sipe in the tread width direction toward an end portion in the tread width direction, and wherein in the cross section along the depth direction, the bent portion (42c, 42e) of the width direction sipe includes two or more apexes in the center portion of the width direction sipe in the tread width direction, characterized in that in the end portion of the width direction sipe in the tread width direction, a number of apexes is smaller than a number of the apexes in the center portion in the tread width direction.
A method of producing a shear web for a wind turbine blade, comprising: providing a mold (22, 32) generally conforming to a shape of at least a portion of a shear web; characterized by: adding reinforcing material to the mold in either a unidirectional or multidirectional pattern; filling the mold with a closed cell structural foam; allowing the closed cell structural foam to at least partially cure in the mold; removing the at least partially cured closed cell structural foam from the mold; and wrapping the removed and at least partial cured closed cell structural foam in a structural fabric that is infused with a resin matrix. providing a mold (22, 32) generally conforming to a shape of at least a portion of a shear web; characterized by: adding reinforcing material to the mold in either a unidirectional or multidirectional pattern; filling the mold with a closed cell structural foam; allowing the closed cell structural foam to at least partially cure in the mold; removing the at least partially cured closed cell structural foam from the mold; and wrapping the removed and at least partial cured closed cell structural foam in a structural fabric that is infused with a resin matrix. adding reinforcing material to the mold in either a unidirectional or multidirectional pattern; filling the mold with a closed cell structural foam; allowing the closed cell structural foam to at least partially cure in the mold; removing the at least partially cured closed cell structural foam from the mold; and wrapping the removed and at least partial cured closed cell structural foam in a structural fabric that is infused with a resin matrix.
A computer-implemented method of providing an authenticated certificate to be modified by a user in the generation of certified user data, the method comprising the steps of: verifying, by an associating entity, user data, wherein the user data comprises personal information of the user; associating, by the associating entity, the verified user data with a first set of data; storing (S2, S3), by the associating entity, the association between the first set of data and the verified user data; creating, by the associating entity, the authenticated certificate to be modified in the generation of the certified user data, wherein the authenticated certificate comprises a modifiable portion including an indication of the first set of data; and providing, by the associating entity, the authenticated certificate for the generation of the certified user data, wherein the modifiable portion is re-randomizable such that, when re-randomized, the authenticated certificate can no longer be associated with the verified user data, wherein the method further comprises the step of encrypting the first set of data using a public key of a trustee system to form an encrypted first set of data, and wherein the encrypted first set of data forms the indication of the first set of data. verifying, by an associating entity, user data, wherein the user data comprises personal information of the user; associating, by the associating entity, the verified user data with a first set of data; storing (S2, S3), by the associating entity, the association between the first set of data and the verified user data; creating, by the associating entity, the authenticated certificate to be modified in the generation of the certified user data, wherein the authenticated certificate comprises a modifiable portion including an indication of the first set of data; and providing, by the associating entity, the authenticated certificate for the generation of the certified user data, wherein the modifiable portion is re-randomizable such that, when re-randomized, the authenticated certificate can no longer be associated with the verified user data, wherein the method further comprises the step of encrypting the first set of data using a public key of a trustee system to form an encrypted first set of data, and wherein the encrypted first set of data forms the indication of the first set of data.
A chip-type ceramic semiconductor electronic component, which is a positive thermistor or a negative thermistor, comprising: a ceramic body comprising a ceramic semiconductor; a pair of first external electrodes formed on both end surfaces of the ceramic body; and a pair of second external electrodes formed to cover the first external electrodes and extend partially on side surfaces of the ceramic body, wherein the second external electrodes comprise a conductive agent and a thermosetting resin hardenable at a temperature of 500°C or lower, and wherein each of the first external electrodes is formed by sputtering, characterized in that each of the second external electrodes is 1 to 35 μm in thickness. a ceramic body comprising a ceramic semiconductor; a pair of first external electrodes formed on both end surfaces of the ceramic body; and a pair of second external electrodes formed to cover the first external electrodes and extend partially on side surfaces of the ceramic body, wherein the second external electrodes comprise a conductive agent and a thermosetting resin hardenable at a temperature of 500°C or lower, and wherein each of the first external electrodes is formed by sputtering, characterized in that each of the second external electrodes is 1 to 35 μm in thickness.
Method of manufacturing a stator comprising the steps of: - providing a stator body with at least two stator segments which are designed as identical parts and each have a coil space formed on a stator segment for receiving a coil wire in the form of a coil, the coil space having a groove, - inserting a winding template into a stator segment; - inserting an insulating paper with a radial projection beyond the pole tips of the respective stator halves; - pulling the radial projection inwardly during the subsequent winding process to ensure during winding that the insulating paper is not kinked by the coil wire; - introducing the coil wire into the coil space, the coil wire being wound beyond the groove in the region between two pole horns, - at least partially connecting the windings of the coil to one another in a materially coherent manner at least in parts of the area of the coil located outside the groove; and - remove the winding template. - providing a stator body with at least two stator segments which are designed as identical parts and each have a coil space formed on a stator segment for receiving a coil wire in the form of a coil, the coil space having a groove, - inserting a winding template into a stator segment; - inserting an insulating paper with a radial projection beyond the pole tips of the respective stator halves; - pulling the radial projection inwardly during the subsequent winding process to ensure during winding that the insulating paper is not kinked by the coil wire; - introducing the coil wire into the coil space, the coil wire being wound beyond the groove in the region between two pole horns, - at least partially connecting the windings of the coil to one another in a materially coherent manner at least in parts of the area of the coil located outside the groove; and - remove the winding template.
Refrigeration apparatus comprising: - a cold storage compartment, accessible from the outside through a door, and provided internally with a sealed container adapted to accommodate a flexible and compressible receptacle holding a beverage, said container having an elongated shape and being provided with a cover arranged at an end portion of said container, - pneumatic or air compression means to generate a selectively controllable pressure between said container and said flexible receptacle, - refrigerating means to pull down the temperature inside said cold storage compartment, - a control panel to control the temperature-related and pressure-related operation of said refrigeration apparatus from the outside, characterized in that said pneumatic means, said refrigerating means and said control panel are arranged on a side portion of said refrigeration apparatus. - a cold storage compartment, accessible from the outside through a door, and provided internally with a sealed container adapted to accommodate a flexible and compressible receptacle holding a beverage, said container having an elongated shape and being provided with a cover arranged at an end portion of said container, - pneumatic or air compression means to generate a selectively controllable pressure between said container and said flexible receptacle, - refrigerating means to pull down the temperature inside said cold storage compartment, - a control panel to control the temperature-related and pressure-related operation of said refrigeration apparatus from the outside,
A method of forming a multi-layer dosage form having at least two layers comprising: (a) dosing a first formulation comprising a first non-gelling matrix forming agent and having a first density into a preformed mold; (b) dosing a second formulation comprising a second non-gelling matrix forming agent and having a second density not equal to the first density into the same preformed mold, wherein a difference between the density of the first formulation and the density of the second formulation is 0.005 g/ml to 0.475 g/ml; (c) freezing the first and second dosed formulations; and (d) freeze drying the frozen first and second formulations to form the multi-layered dosage form having at least two layers. (a) dosing a first formulation comprising a first non-gelling matrix forming agent and having a first density into a preformed mold; (b) dosing a second formulation comprising a second non-gelling matrix forming agent and having a second density not equal to the first density into the same preformed mold, wherein a difference between the density of the first formulation and the density of the second formulation is 0.005 g/ml to 0.475 g/ml; (c) freezing the first and second dosed formulations; and (d) freeze drying the frozen first and second formulations to form the multi-layered dosage form having at least two layers.
A method of reconstructing time-of-flight images, comprising: obtaining a profile of a subject to be imaged in an examination region of an imaging system, the profile includes a volume of interest within the subject; generating a dynamic radiation event acceptance window based at least on the profile; detecting events associated with radiation emitted from the subject and generating corresponding electronic data; identifying pairs of substantially simultaneous events; determining a spatial line of response connecting each identified event pair; and filtering the event pairs associated with each LOR with the dynamic acceptance window, which dynamically changes shape to follow the profile of the subject, wherein event pairs that fall within the acceptance window are retained and event pairs that fall outside of the acceptance window are discarded, the LORs corresponding to the retained event pairs being reconstructed; and reconstructing images from the remaining electronic data. obtaining a profile of a subject to be imaged in an examination region of an imaging system, the profile includes a volume of interest within the subject; generating a dynamic radiation event acceptance window based at least on the profile; detecting events associated with radiation emitted from the subject and generating corresponding electronic data; identifying pairs of substantially simultaneous events; determining a spatial line of response connecting each identified event pair; and filtering the event pairs associated with each LOR with the dynamic acceptance window, which dynamically changes shape to follow the profile of the subject, wherein event pairs that fall within the acceptance window are retained and event pairs that fall outside of the acceptance window are discarded, the LORs corresponding to the retained event pairs being reconstructed; and reconstructing images from the remaining electronic data.