mhurhangee/ep-ind-claims huggingface dataset:
A single-layered substrate-less hard coating film, comprising: a photocured crosslinked copolymer of a photocurable elastic polymer with a tri- to hexa-functional acrylate monomer; and inorganic particles dispersed in the copolymer, wherein the photocurable elastic polymer has an elongation of 15 to 200%, as measured according to ASTM D638, wherein the copolymer is a copolymer in which 5 to 20 weight parts of the photocurable elastic polymer is crosslinked with 80 to 95 weight parts of the tri- to hexa-functional acrylate monomer based on 100 weight parts thereof, and wherein the hard coating film exhibits a pencil hardness of 7H or more at a load of 1 kg as measured by JIS K 5400. a photocured crosslinked copolymer of a photocurable elastic polymer with a tri- to hexa-functional acrylate monomer; and inorganic particles dispersed in the copolymer, wherein the photocurable elastic polymer has an elongation of 15 to 200%, as measured according to ASTM D638, wherein the copolymer is a copolymer in which 5 to 20 weight parts of the photocurable elastic polymer is crosslinked with 80 to 95 weight parts of the tri- to hexa-functional acrylate monomer based on 100 weight parts thereof, and wherein the hard coating film exhibits a pencil hardness of 7H or more at a load of 1 kg as measured by JIS K 5400.
A light emitting device, comprising: a carrier; a light emitting diode, LED, chip carried within the carrier; and an encapsulant covering the LED chip, wherein the carrier comprises: at least one electrode portion, each of the at least one electrode portion comprising at least an electrode portion cross section; and a housing comprising a housing cross section, the housing at least partially covering the at least one electrode portion; wherein the housing cross section and the electrode portion cross section are not level with one another, and wherein each of the at least one electrode portion further comprises a central area (112A1) and two edge areas (112A2), and wherein the electrode portion cross section is located on at least one of the two edge areas, wherein the central area and the two edge areas protrude from the housing cross section, and wherein the central area (112A1) protrudes from the two edge areas (112A2). at least one electrode portion, each of the at least one electrode portion comprising at least an electrode portion cross section; and a housing comprising a housing cross section, the housing at least partially covering the at least one electrode portion;
A retrofit method for modifying a radial lead seal assembly of a generator, wherein the generator comprises a lead assembly for conducting a field current to a rotor winding, wherein the lead assembly comprises an axial lead extending within an axial chamber through the rotor and a radial lead extending radially outward from the axial lead through a radial chamber, wherein the radial lead seal assembly fluidically seals the radial chamber from the axial chamber, wherein the radial lead seal assembly comprises a plurality of annular sealing elements disposed around the radial lead so as to seal an annular space between the radial lead and the radial chamber, a coil spring disposed annularly around the radial lead between the plurality of sealing elements and a junction between the radial lead and the axial lead, and a loading member, the retrofit method comprising: removing one or more of the annular sealing elements to define a radial space between the remainder of the sealing elements and the coil spring; inserting a plurality of conical springs in said radial space; and applying a radially inward compressive load on the radial lead seal assembly via the loading member such that the conical springs are only partially compressed. removing one or more of the annular sealing elements to define a radial space between the remainder of the sealing elements and the coil spring; inserting a plurality of conical springs in said radial space; and applying a radially inward compressive load on the radial lead seal assembly via the loading member such that the conical springs are only partially compressed.
A lighting device comprising: a board that contains ceramics on at least a surface thereof; a light emitting element that is provided on the surface of the board; a wiring pattern that is provided on the surface of the board and is electrically connected to the light emitting element; a surrounding wall member that is provided to surround the light emitting element; a joining portion that is provided between the board and the surrounding wall member; a coating portion (129, 139) that is provided between the board and the joining portion and contains a glass material; and a support portion that is provided in the region where the surrounding wall member is provided and separated from the wiring pattern, wherein the support portion has a same thickness dimension as a thickness dimension of the wiring pattern; characterised in that the coating portion (129, 139) is provided at least around the wiring pattern provided in the region where the surrounding wall member is provided and around the support portion. a board that contains ceramics on at least a surface thereof; a light emitting element that is provided on the surface of the board; a wiring pattern that is provided on the surface of the board and is electrically connected to the light emitting element; a surrounding wall member that is provided to surround the light emitting element; a joining portion that is provided between the board and the surrounding wall member; a coating portion (129, 139) that is provided between the board and the joining portion and contains a glass material; and a support portion that is provided in the region where the surrounding wall member is provided and separated from the wiring pattern,
A system comprising: a hydraulic motor pump configured to drive one or more hydraulic loads; a power bus configured to be selectively coupled to the hydraulic motor pump; a main bus configured to be selectively coupled to the power bus; a generator configured to be selectively coupled to the power bus; and an auxiliary power unit starter motor controller configured to selectively provide power to either the hydraulic motor pump or an auxiliary power unit; characterised in that the main bus is configured to be coupled to the power bus via a contactor when power from the main bus is available, and the generator is configured to be coupled to the power bus via the contactor when power from the main bus is unavailable; and in that the auxiliary power unit starter motor controller is configured to be coupled to the hydraulic motor pump via a contactor when the hydraulic motor pump is being started, and wherein the auxiliary power unit starter motor controller is configured to be isolated from the hydraulic motor pump via the contactor when the hydraulic motor pump is not being started. a hydraulic motor pump configured to drive one or more hydraulic loads; a power bus configured to be selectively coupled to the hydraulic motor pump; a main bus configured to be selectively coupled to the power bus; a generator configured to be selectively coupled to the power bus; and an auxiliary power unit starter motor controller configured to selectively provide power to either the hydraulic motor pump or an auxiliary power unit; characterised in that the main bus is configured to be coupled to the power bus via a contactor when power from the main bus is available, and the generator is configured to be coupled to the power bus via the contactor when power from the main bus is unavailable; and in that the auxiliary power unit starter motor controller is configured to be coupled to the hydraulic motor pump via a contactor when the hydraulic motor pump is being started, and wherein the auxiliary power unit starter motor controller is configured to be isolated from the hydraulic motor pump via the contactor when the hydraulic motor pump is not being started.
A polymer P obtained by radical copolymerization of a mixture of: - acrylic acid; - methacrylic acid; and - at least one allylcatechol which is selected from 4-allylbenzene-1,2-diol; 3-allylbezene-1,2-diol, having the formulae below, and mixtures thereof - acrylic acid; - methacrylic acid; and - at least one allylcatechol which is selected from 4-allylbenzene-1,2-diol; 3-allylbezene-1,2-diol, having the formulae below, and mixtures thereof
A method of controlling light distribution in a lighting system for a space, said lighting system including an artificial light source, at least one blind for a window in the space, a lighting control unit and a daylight/blind control unit, the method comprising the steps of: in the lighting control unit, estimating illuminances emitted by the artificial light source (111,112,113) and an external/daylight light source at a plurality of measuring areas within the space; control an intensity level of the artificial light source (111,112,113) based on the estimated illuminances and an amount of light from the external/daylight light source entering the space; and determining a first positioning of the at least one blind according to predetermined lighting system/user requirements and/or measurements by the lighting system; in the daylight/blind control unit, receiving the plurality of measuring areas data within the space; determining a second positioning of the at least one blind according to predetermined lighting system/user requirements; selecting either the first or second positioning of the at least one blind according to predetermined criteria to provide optimal daylight comfort, glare prevention and view. in the lighting control unit, estimating illuminances emitted by the artificial light source (111,112,113) and an external/daylight light source at a plurality of measuring areas within the space; control an intensity level of the artificial light source (111,112,113) based on the estimated illuminances and an amount of light from the external/daylight light source entering the space; and determining a first positioning of the at least one blind according to predetermined lighting system/user requirements and/or measurements by the lighting system; estimating illuminances emitted by the artificial light source (111,112,113) and an external/daylight light source at a plurality of measuring areas within the space; control an intensity level of the artificial light source (111,112,113) based on the estimated illuminances and an amount of light from the external/daylight light source entering the space; and determining a first positioning of the at least one blind according to predetermined lighting system/user requirements and/or measurements by the lighting system; in the daylight/blind control unit, receiving the plurality of measuring areas data within the space; determining a second positioning of the at least one blind according to predetermined lighting system/user requirements; selecting either the first or second positioning of the at least one blind according to predetermined criteria to provide optimal daylight comfort, glare prevention and view. receiving the plurality of measuring areas data within the space; determining a second positioning of the at least one blind according to predetermined lighting system/user requirements; selecting either the first or second positioning of the at least one blind according to predetermined criteria to provide optimal daylight comfort, glare prevention and view.
Electrode patch (10, 10'), in particular for performing electrocardiography, comprising: an elastic adhesive layer (12, 12') having an adhesive contact surface (14, 14') that is configured to adhere to the skin of a subject the electrode patch (10, 10') is applied to; an elastic conductive layer (26, 26') including a plurality of measurement points and conductive paths, the conductive paths being configured to conductively connect the plurality of measurement points to a connector; and a plurality of electrodes, wherein each of the plurality of electrodes is formed at least by one of the plurality of measurement points and a corresponding recess provided in the adhesive layer (12, 12'), which recess extends through the entire layer thickness of the adhesive layer (12, 12') and is provided or providable with a substance (30, 30') that is adhesive and conductive, such as hydrogel, so as to conductively connect the one of the plurality of measurement points to the skin of the subject; wherein at least 90% of the area of the electrode patch (10, 10') is radiolucent by means of radiolucency of the adhesive layer (12, 12') and the conductive layer (26, 26'). an elastic adhesive layer (12, 12') having an adhesive contact surface (14, 14') that is configured to adhere to the skin of a subject the electrode patch (10, 10') is applied to; an elastic conductive layer (26, 26') including a plurality of measurement points and conductive paths, the conductive paths being configured to conductively connect the plurality of measurement points to a connector; and a plurality of electrodes, wherein each of the plurality of electrodes is formed at least by one of the plurality of measurement points and a corresponding recess provided in the adhesive layer (12, 12'), which recess extends through the entire layer thickness of the adhesive layer (12, 12') and is provided or providable with a substance (30, 30') that is adhesive and conductive, such as hydrogel, so as to conductively connect the one of the plurality of measurement points to the skin of the subject; wherein at least 90% of the area of the electrode patch (10, 10') is radiolucent by means of radiolucency of the adhesive layer (12, 12') and the conductive layer (26, 26').
A procatalyst composition comprising: a combination of a magnesium moiety, a titanium moiety, and a multiple internal electron donor comprising (i) a silyl ester internal electron donor and (ii) an electron donor component, wherein the silyl ester has the structure wherein m is an integer from 1 to 5 denoting a hydrocarbyl with the same number of carbon atoms, n is an integer from 1 to 5 denoting a hydrocarbyl with the same number of carbon atoms, R 1 -R 7 are the same or different and each is selected from the group consisting of hydrogen, a substituted hydrocarbyl group having 1 to 20 carbon atoms, an unsubstituted hydrocarbyl group having 1 to 20 carbon atoms, and combinations thereof, and X is an electron donating group. a combination of a magnesium moiety, a titanium moiety, and a multiple internal electron donor comprising (i) a silyl ester internal electron donor and (ii) an electron donor component, wherein the silyl ester has the structure wherein m is an integer from 1 to 5 denoting a hydrocarbyl with the same number of carbon atoms, n is an integer from 1 to 5 denoting a hydrocarbyl with the same number of carbon atoms, R 1 -R 7 are the same or different and each is selected from the group consisting of hydrogen, a substituted hydrocarbyl group having 1 to 20 carbon atoms, an unsubstituted hydrocarbyl group having 1 to 20 carbon atoms, and combinations thereof, and X is an electron donating group.
An electromagnetic vibrating diaphragm pump comprising: a casing containing a pair of opposing electromagnet coils to which an alternating-current power source is connected and an oscillator arranged movably in reciprocation between the pair of electromagnet coils; and a pair of pump casings fixed to both ends of the casing via diaphragms fixed to both ends of the oscillator, and adapted to suction fluid from outside and discharge fluid to outside by reciprocating motion of the oscillator and elastic deformation of the diaphragms, wherein an electromagnet coil container containing the electromagnet coils in an airtight manner is further provided inside the casing, the electromagnet coil container is configured to prevent fluid penetrated into a space outside the electromagnet coil container from penetrating into a space inside the electromagnet coil container, and wherein the electromagnet coil container has a passage formed for the oscillator to move in reciprocation and the passage is formed of an outer surface of a partition wall of the electromagnet coil container, preventing fluid penetrated into a space inside the passage from penetrating into a space inside the electromagnet coil container. a casing containing a pair of opposing electromagnet coils to which an alternating-current power source is connected and an oscillator arranged movably in reciprocation between the pair of electromagnet coils; and a pair of pump casings fixed to both ends of the casing via diaphragms fixed to both ends of the oscillator, and adapted to suction fluid from outside and discharge fluid to outside by reciprocating motion of the oscillator and elastic deformation of the diaphragms,
A system for managing house appliances (110(i)) supplied through a power grid, each house appliance being adapted to operate according to at least one corresponding operative mode, each operative mode comprising a sequence of operative phases, the system comprising at least one control unit (130; 140) interfaced with the house appliances for exchanging data, the at least one control unit being configured to: - collect power profile data comprising timing and electric power consumption data of each operative phase of each operative mode of said house appliances; - generate a time schedule of the house appliances operations by distributing in time the execution of the operative phases thereof in such a way that at any time the total power consumption of the house appliances is kept under a maximum power threshold of the power grid; - control the operation of the appliances based on the time schedule, wherein: the at least one control unit is configured to generate the time schedule by exploiting a Particle Swarm Optimization approach based on a nature-inspired evolutionary flight. - collect power profile data comprising timing and electric power consumption data of each operative phase of each operative mode of said house appliances; - generate a time schedule of the house appliances operations by distributing in time the execution of the operative phases thereof in such a way that at any time the total power consumption of the house appliances is kept under a maximum power threshold of the power grid; - control the operation of the appliances based on the time schedule,
A method of adding adapters to the ends of a plurality of RNA molecules comprising: a) forming a mixture of a plurality of RNA molecules with a double stranded 5'adapter having a 3' sticky end and a double stranded 3' adapter having a 5' sticky end, b) adding an RNA ligase to the mixture under conditions such that the 5' adapter and the 3' adapter are ligated to the ends of the plurality of RNA molecules, wherein the ligation reaction produces (i) RNA ligation products and (ii) adapter:adapter byproducts formed by the 5' adapter and the 3' adapter being ligated to each other, c) denaturing the ligation products of step (b) and adding a blocking oligonucleotide under conditions such that the oligonucleotide binds to an adapter:adapter byproduct of the ligation reaction of step (b) such that reverse transcription of the adapter:adapter byproduct is blocked, wherein the blocking oligonucleotide comprises a first segment at a 5' end and a second segment at a 3' end, and wherein the first segment hybridizes with the 3'adapter and the second segment hybridizes with the 5' adapter, wherein at least nucleotides 1-7 of the first segment of the blocking oligonucleotide comprise 2'-O-methyl modified nucleotides, and wherein the second segment of the blocking oligonucleotide comprises at least one inosine base. a) forming a mixture of a plurality of RNA molecules with a double stranded 5'adapter having a 3' sticky end and a double stranded 3' adapter having a 5' sticky end, b) adding an RNA ligase to the mixture under conditions such that the 5' adapter and the 3' adapter are ligated to the ends of the plurality of RNA molecules, wherein the ligation reaction produces (i) RNA ligation products and (ii) adapter:adapter byproducts formed by the 5' adapter and the 3' adapter being ligated to each other, c) denaturing the ligation products of step (b) and adding a blocking oligonucleotide under conditions such that the oligonucleotide binds to an adapter:adapter byproduct of the ligation reaction of step (b) such that reverse transcription of the adapter:adapter byproduct is blocked, wherein the blocking oligonucleotide comprises a first segment at a 5' end and a second segment at a 3' end, and wherein the first segment hybridizes with the 3'adapter and the second segment hybridizes with the 5' adapter, wherein at least nucleotides 1-7 of the first segment of the blocking oligonucleotide comprise 2'-O-methyl modified nucleotides, and wherein the second segment of the blocking oligonucleotide comprises at least one inosine base.
A reaction vessel for testing, comprising a Reaction cup, a Sample holder and a Cover, wherein the Sample holder is accommodated in the Reaction cup or the Cover; the Reaction cup is made of a transparent material and has a First cavity for receiving an external first reagent; the Sample holder has a Collection portion for receiving an external test sample; the Collection portion is disposed inside and exposed from the First cavity; the Cover is provided for covering an opening of the First cavity; the First cavity is configured to contain the first reagent for mixing with the test sample contained in the Collection portion; a Liquid passing hole is formed at an upper end of the Sample holder and provided for communicating the Collection portion and the First cavity, such that when in use the reaction vessel is turned upside down, the first reagent contained in the first cavity is contacted and mixed with the test sample contained in the collection portion of the sample holder; the reaction vessel further comprises a Piercing member and a Packaging bag, the Piercing member and the Packaging bag being either both accommodated in the cover or accommodated in the Reaction cup and the Cover, respectively, and the Packaging bag having a Second cavity for receiving an external second reagent and a Diaphragm for covering an opening of the Second cavity, and the Piercing member being provided for piercing the Diaphragm, so as to when in use mix the second reagent with the first reagent and the test sample; the Cover comprises an Outer cap and an Inner cap installed in the Outer cap, and the Outer cap is detachably coupled to the Reaction cup; the Inner cap is configured to be displaced toward the Piercing member, such that when in use the diaphragm is pierced by the Piercing member to mix the second reagent with the first reagent and the test sample. a Liquid passing hole is formed at an upper end of the Sample holder and provided for communicating the Collection portion and the First cavity, such that when in use the reaction vessel is turned upside down, the first reagent contained in the first cavity is contacted and mixed with the test sample contained in the collection portion of the sample holder; the reaction vessel further comprises a Piercing member and a Packaging bag, the Piercing member and the Packaging bag being either both accommodated in the cover or accommodated in the Reaction cup and the Cover, respectively, and the Packaging bag having a Second cavity for receiving an external second reagent and a Diaphragm for covering an opening of the Second cavity, and the Piercing member being provided for piercing the Diaphragm, so as to when in use mix the second reagent with the first reagent and the test sample; the Cover comprises an Outer cap and an Inner cap installed in the Outer cap, and the Outer cap is detachably coupled to the Reaction cup; the Inner cap is configured to be displaced toward the Piercing member, such that when in use the diaphragm is pierced by the Piercing member to mix the second reagent with the first reagent and the test sample.