mhurhangee/ep-ind-claims huggingface dataset:
Process for obtaining a multilayer plate of composite material comprising lava stone intended to be preferably but not exclusively used as a coating plate or decorative plate, characterized in that it comprises the following steps: - providing at least a base layer made of a first material comprising lava stone having a predetermined melting temperature; - providing at least a second material in a solid state having a predetermined melting temperature lower than the melting temperature of the material of said first base layer wherein said at least a second material comprises glass; - positioning said at least a second material in a solid state in the form of plates, rods, mosaic tiles and/or granules having a minimum size of 1 cm and/or potsherds on said at least a base layer to obtain a first intermediate product comprising said base layer and said second material not adhered to each other; - heating said first intermediate product up to a first heating temperature higher than 1000 °C and lower than 1200 °C to cause the melting of said at least a second material in a solid state on said base layer, and - cooling said first intermediate product to obtain the solidification of said at least a second melted material on said base layer with formation of a first composite material having said at least a second material adhered to said at least a base layer as a result of the solidification occurred during the cooling. - providing at least a base layer made of a first material comprising lava stone having a predetermined melting temperature; - providing at least a second material in a solid state having a predetermined melting temperature lower than the melting temperature of the material of said first base layer wherein said at least a second material comprises glass; - positioning said at least a second material in a solid state in the form of plates, rods, mosaic tiles and/or granules having a minimum size of 1 cm and/or potsherds on said at least a base layer to obtain a first intermediate product comprising said base layer and said second material not adhered to each other; - heating said first intermediate product up to a first heating temperature higher than 1000 °C and lower than 1200 °C to cause the melting of said at least a second material in a solid state on said base layer, and - cooling said first intermediate product to obtain the solidification of said at least a second melted material on said base layer with formation of a first composite material having said at least a second material adhered to said at least a base layer as a result of the solidification occurred during the cooling.
An electric vehicle supply equipment, EVSE, charging system comprising: a) an EVSE charging station configured to be coupled to an electric vehicle, EV; and b) an EVSE server coupled to the EVSE charging station, c) wherein the EVSE server is configured to automatically determine a charging routine for the EV based on historic rate data and historic electrical charge data of the EV, including historic charging data for an individual charging site and pricing signals, and characterized by being configured to enable a user to interactively modify the charging routine in real-time, and d) wherein the charging routine is configured to provide several charging options to the user based on a desired trade-off between different charging cost structures, wherein the different charging cost structures are based on a rate of charge, a cost of the rate of charge and a variable energy pricing, wherein the trade-off refers to a trade-off between a rate of charge, a cost of the rate of charge, and a variable energy pricing. a) an EVSE charging station configured to be coupled to an electric vehicle, EV; and b) an EVSE server coupled to the EVSE charging station, c) wherein the EVSE server is configured to automatically determine a charging routine for the EV based on historic rate data and historic electrical charge data of the EV, including historic charging data for an individual charging site and pricing signals, and characterized by being configured to enable a user to interactively modify the charging routine in real-time, and d) wherein the charging routine is configured to provide several charging options to the user based on a desired trade-off between different charging cost structures, wherein the different charging cost structures are based on a rate of charge, a cost of the rate of charge and a variable energy pricing, wherein the trade-off refers to a trade-off between a rate of charge, a cost of the rate of charge, and a variable energy pricing.
An exhaust gas purification system comprising, as exhaust gas paths of an engine to be mounted in a ship, a main path which is in communication with outside and a bypass path which branches off from a halfway portion of the main path, and comprising a combined casing with which both the main path and the bypass path are in communication, wherein a selective catalyst reduction device (34, 35) which accelerates reduction of NOx existing in exhaust gas of the engine is accommodated in the combined casing at a location close to the main path, a path-switching member (37, 38) which switches exhaust gas moving directions between the main path and the bypass path is placed in a branched portion between the main path and the bypass path, and a reducing agent injection body of a reducing agent supply device which supplies reducing agent to exhaust gas is placed in the main path between the path-switching member and the combined casing, an interior of the combined casing is partitioned into the main path and the bypass path by a partition plate extending along the exhaust gas moving direction, the bypass path within the combined casing is formed as a space defined by the combined casing and the partition plate, and an exhaust gas inlet on the side of the main path in the combined casing is tapered toward its tip end such that a cross-sectional area of the exhaust gas inlet is reduced toward the upstream side, an upstream end of the partition plate is butted against a front inner surface of the exhaust gas inlet located upstream of the NOx catalyst (34, 35) in the combined casing so that the exhaust gas inlet on the side of the main path and an exhaust gas inlet on the side of the bypass path in the combined casing are not in fluid communication with each other.
An induction heating cooking apparatus including a heating unit (110, 120) for heating a vessel placed in a heating region, the heating unit comprising a plurality of heating coils (wc1, wc2, wc3, wc4) forming heating regions, respectively, wherein the induction heating cooking apparatus comprises: a plurality of inverters (210, 220) configured to supply a driving voltage to one or more of the heating coils; a sensing unit (510, 520) configured to sense a current of the heating coils and output the current value; a control unit configured to compare the current value with a predetermined reference current value and detect one or more heating regions in which the vessel is placed on the basis of the comparison results and control the plurality of inverters according to a control command; and a plurality of relays (310, 320) connecting the one or more heating coils corresponding to the heating regions detected by the control unit and the one or more of the inverters, on the basis of respective opening and closing signals; and wherein heating coils connectable to a same inverter, among the heating coils corresponding to the detected heating regions, are connected in series to each other by relays. a plurality of inverters (210, 220) configured to supply a driving voltage to one or more of the heating coils; a sensing unit (510, 520) configured to sense a current of the heating coils and output the current value; a control unit configured to compare the current value with a predetermined reference current value and detect one or more heating regions in which the vessel is placed on the basis of the comparison results and control the plurality of inverters according to a control command; and a plurality of relays (310, 320) connecting the one or more heating coils corresponding to the heating regions detected by the control unit and the one or more of the inverters, on the basis of respective opening and closing signals; and wherein heating coils connectable to a same inverter, among the heating coils corresponding to the detected heating regions, are connected in series to each other by relays.
SOLAR THERMAL COLLECTOR WITH TRANSPARENT INSULATION, used to capture solar energy and transform it into heat energy, working at low-medium or high temperature and formed principally by an absorber, a transparent exterior cover and transparent thermal insulating material between the exterior transparent cover and the absorber, characterised in that the transparent thermal insulation comprises at least the following layers: - a transparent silica aerogel layer closest to the absorber; and - a transparent honeycomb structure insulation material layer made of glass or transparent polymer, closest to the cover. - a transparent silica aerogel layer closest to the absorber; and - a transparent honeycomb structure insulation material layer made of glass or transparent polymer, closest to the cover.
Optoelectronic component, wherein the optoelectronic component is a laser diode, having a layer structure with an active zone for producing an electromagnetic radiation, wherein the active zone is arranged in a plane, wherein the layer structure comprises a top side and four side faces (3, 4, 5, 6), wherein the first and the third side face (3, 5) are arranged opposite one another, wherein the second and the fourth side face (4, 6) are arranged opposite one another, wherein a strip-type ridge structure is arranged on the top side of the layer structure, wherein the ridge structure extends between the first side face and the third side face, wherein the first side face constitutes a radiation surface for electromagnetic radiation, wherein a first recess is introduced into the top side of the layer structure laterally next to the ridge structure, wherein the first recess extends over an entire length of the laser diode, from the first to the third side face (3, 5), along the second side face, wherein the second side face has laterally recessed wall surfaces (50, 51) in the region of the first recess, wherein a second recess is introduced laterally into the recessed wall faces (50, 51) of the second side face, wherein the second recess is introduced into the top side of the layer structure, wherein the second recess extends along the second side face (4, 50, 51), wherein the second recess is formed at a distance from the first side face and at a distance from the third side face.
A piezoelectric-type electroacoustic conversion device comprising: a ring-shaped frame; a support plate whose outer periphery portion of its lower surface is fixed to an upper surface of the frame, and which includes a through hole at a central portion thereof; a metal plate whose outer periphery portion of its lower surface is fixed to a portion of an upper surface of the support plate positioned at a circumference of the through hole; an upper groove provided in a ring shape on an upper surface of the metal plate; a shock absorbing member provided in the upper groove of the metal plate; and a piezoelectric element wherein at least an outer periphery portion of its lower surface is fixed to an upper surface of the shock absorbing member. a ring-shaped frame; a support plate whose outer periphery portion of its lower surface is fixed to an upper surface of the frame, and which includes a through hole at a central portion thereof; a metal plate whose outer periphery portion of its lower surface is fixed to a portion of an upper surface of the support plate positioned at a circumference of the through hole; an upper groove provided in a ring shape on an upper surface of the metal plate; a shock absorbing member provided in the upper groove of the metal plate; and a piezoelectric element wherein at least an outer periphery portion of its lower surface is fixed to an upper surface of the shock absorbing member.
A calibration method for a flexible pipeline, comprising at least one traction armor layer wherein the traction armor layer consists of one or more layers comprising at least one helicoidally-arranged metallic wire, wherein said flexible pipeline is mounted on a topside fitting which comprises an inspection window, and the method comprising: - fasten at least one sensor to at least one traction armor wire; characterized by: - induce a temperature variation in said sensor and in said at least one wire; - carry out a reading of the strain variation undergone by the sensor due to the temperature variation; and - identify a potential failure based on the reading carried out. - fasten at least one sensor to at least one traction armor wire; - induce a temperature variation in said sensor and in said at least one wire; - carry out a reading of the strain variation undergone by the sensor due to the temperature variation; and - identify a potential failure based on the reading carried out.
Heating arrangement for bonding a protective shell to a wind turbine blade, comprising a heating blanket (9, 24, 42) with a first portion and a second portion of a heatable structure, characterised in that the first portion and the second portion adjoin at a fold of the heating blanket (9, 24, 42), wherein the fold is curved equally or substantially equally to a curvature of an edge of the wind turbine blade or of a segment of an edge of the wind turbine blade, wherein the heating blanket (9, 24, 42) is mountable to a surface of the wind turbine blade in such manner that the fold abuts the edge or the segment of the edge and that the first portion and the second portion each abuts the surface of the wind turbine blade.
A lighting device comprising: a lighting panel; a plurality of winches coupled at different, respective locations to the lighting panel; one or more controllers configured to control the winches to raise and/or lower the lighting panel at one or more of the different, respective locations; and a safety control device coupled to the plurality of winches and the one or more controllers, wherein the safety control device is configured to receive, from the winches, status data relating to a setup process status, and wherein, when the status data satisfies a predefined condition, the safety control device is configured to: control one or more of the winches to stop raising and/or lowering the lighting panel, and/or prevent the lighting panel from being raisable and/or lowerable by one or more of the winches, and/or disable and/or switch off power supply to one or more of the winches, and wherein the safety control device is configured to detect a number of winches upon coupling of the winches to the safety control device, and wherein the one or more controllers are configured to control the winches using data indicative of the number of winches. a lighting panel; a plurality of winches coupled at different, respective locations to the lighting panel; one or more controllers configured to control the winches to raise and/or lower the lighting panel at one or more of the different, respective locations; and a safety control device coupled to the plurality of winches and the one or more controllers, wherein the safety control device is configured to receive, from the winches, status data relating to a setup process status, and wherein, when the status data satisfies a predefined condition, the safety control device is configured to: control one or more of the winches to stop raising and/or lowering the lighting panel, and/or prevent the lighting panel from being raisable and/or lowerable by one or more of the winches, and/or disable and/or switch off power supply to one or more of the winches, and wherein the safety control device is configured to detect a number of winches upon coupling of the winches to the safety control device, and wherein the one or more controllers are configured to control the winches using data indicative of the number of winches. control one or more of the winches to stop raising and/or lowering the lighting panel, and/or prevent the lighting panel from being raisable and/or lowerable by one or more of the winches, and/or disable and/or switch off power supply to one or more of the winches, and wherein the safety control device is configured to detect a number of winches upon coupling of the winches to the safety control device, and wherein the one or more controllers are configured to control the winches using data indicative of the number of winches.
A fiber optic plug comprising: a fiber optic connector comprising a connector housing and a plug ferrule at least partially disposed within the connector housing and capable of being mounted upon an end portion of at least one optical fiber; wherein the plug ferrule is mounted within the connector housing such that a front face of the plug ferrule extends beyond a forward end of the connector housing, and a plug body extending lengthwise between a first end and a second end and having a shroud that is cylindrical proximate the first end thereof, wherein the first end is opposed from the second end wherein the first end of the plug body extends beyond the front face of the plug ferrule wherein the fiber optic connector is disposed within the plug body such that the front face of the plug ferrule and the forward end of the connector housing are exposed and accessible within the shroud via the first end of the plug body the fiber optic plug being characterised in that the shroud defines openings on opposite sides thereof that are aligned with one another, the openings extending lengthwise from at least a medial portion of the shroud to the first end of the plug body, the shroud further comprising a pair of arcuate shroud portions separated by the openings, the openings defining an interior angle of less than 90 degree and having a width greater than the height of the connector housing. a fiber optic connector comprising a connector housing and a plug ferrule at least partially disposed within the connector housing and capable of being mounted upon an end portion of at least one optical fiber; wherein the plug ferrule is mounted within the connector housing such that a front face of the plug ferrule extends beyond a forward end of the connector housing, and a plug body extending lengthwise between a first end and a second end and having a shroud that is cylindrical proximate the first end thereof, wherein the first end is opposed from the second end wherein the first end of the plug body extends beyond the front face of the plug ferrule wherein the fiber optic connector is disposed within the plug body such that the front face of the plug ferrule and the forward end of the connector housing are exposed and accessible within the shroud via the first end of the plug body the fiber optic plug being characterised in that the shroud defines openings on opposite sides thereof that are aligned with one another, the openings extending lengthwise from at least a medial portion of the shroud to the first end of the plug body, the shroud further comprising a pair of arcuate shroud portions separated by the openings, the openings defining an interior angle of less than 90 degree and having a width greater than the height of the connector housing.
Oral dosage form comprising at least nor-ursodeoxycholic acid and/or at least one pharmaceutically acceptable salt and/or ester thereof for use in the treatment and/or prevention of arteriosclerosis, wherein the oral dosage form comprises 10 to 8,000 mg or 1 to 100 mg/kg/d of at least nor-ursodeoxycholic acid or of at least one pharmaceutically acceptable salt and/or ester thereof, wherein the oral dosage form is a controlled release dosage form that releases at least nor-ursodeoxycholic acid and/or at least one pharmaceutically acceptable salt and/or ester thereof only after the oral dosage form has reached the stomach or the gastro-intestinal tract.
An oral care composition comprising: a) a copolymer of methyl vinyl ether and maleic anhydride; b) polyvinyl pyrrolidone; c) an ethoxylated alkyl sulfate anionic surfactant having a formula RO(CH 2 CH 2 O) n SO 3 M, wherein R is an alkyl or alkenyl group having from 8 to 18 carbon atoms; M is a solubilising cation comprising sodium, potassium, ammonium, substituted ammonium or mixtures thereof; n is the degree of ethoxylation of from 0.5 to 3; d) a pigment having a hue angle, h, in the CIELAB system of from 220 to 320 degrees; and e) a physiologically acceptable carrier; wherein the copolymer and the polyvinyl pyrrolidone are present in a weight ratio of from 1:20 to 1:4. a) a copolymer of methyl vinyl ether and maleic anhydride; b) polyvinyl pyrrolidone; c) an ethoxylated alkyl sulfate anionic surfactant having a formula RO(CH 2 CH 2 O) n SO 3 M, wherein R is an alkyl or alkenyl group having from 8 to 18 carbon atoms; M is a solubilising cation comprising sodium, potassium, ammonium, substituted ammonium or mixtures thereof; n is the degree of ethoxylation of from 0.5 to 3; d) a pigment having a hue angle, h, in the CIELAB system of from 220 to 320 degrees; and e) a physiologically acceptable carrier;
An over-the-air test system for measuring the radiation performance as a function of temperature of a device under test having at least one antenna unit and at least one radio frequency circuit, wherein the over-the-air test system comprises: - a measurement antenna unit, - a measurement unit for at least one of signal generation and signal analysis, - an enclosure that provides an internal space for accommodating the device under test for testing purposes in a sealed manner, and - an atmosphere conditioning system that is configured to adapt the atmosphere within the internal space, wherein the enclosure comprises at least one sealable opening via which the internal space is connectable with the atmosphere conditioning system to adapt the atmosphere within the internal space for the testing, wherein, in an atmosphere conditioning operation mode of the test system, the atmosphere conditioning system is connected to the enclosure via the at least one sealable opening in order to adapt the atmosphere within the internal space, and wherein, in a testing operation mode of the test system, the atmosphere conditioning system is disconnected from the enclosure and the at least one sealable opening is sealed off such that the device under test is accommodated in the enclosure in a sealed manner. - a measurement antenna unit, - a measurement unit for at least one of signal generation and signal analysis, - an enclosure that provides an internal space for accommodating the device under test for testing purposes in a sealed manner, and - an atmosphere conditioning system that is configured to adapt the atmosphere within the internal space, wherein the enclosure comprises at least one sealable opening via which the internal space is connectable with the atmosphere conditioning system to adapt the atmosphere within the internal space for the testing, wherein, in an atmosphere conditioning operation mode of the test system, the atmosphere conditioning system is connected to the enclosure via the at least one sealable opening in order to adapt the atmosphere within the internal space, and wherein, in a testing operation mode of the test system, the atmosphere conditioning system is disconnected from the enclosure and the at least one sealable opening is sealed off such that the device under test is accommodated in the enclosure in a sealed manner.