mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing an array-type double-side light-emitting diode device, comprising the following steps performed in this order: S202, attaching an array of first transparent conductive layers to an array of light-emitting wafers by means of a first anisotropic conductive adhesive layer ; S204, attaching the array of light-emitting wafers to an array of second transparent conductive layers by means of a second anisotropic conductive adhesive layer ; S206, laminating the array of first transparent conductive layers, the array of light-emitting wafers and the array of second transparent conductive layers such that the array of first transparent conductive layers and the array of second transparent conductive layers are electrically connected to the array of light-emitting wafers; characterized in that the method comprises the subsequent step S208, coating a first fluorescent layer or quantum dot layer and a second fluorescent layer or quantum dot layer respectively on a surface of the array of first transparent conductive layers and a surface of the array of second transparent conductive layers, and coating a first protective layer and a second protective layer respectively on the first fluorescent layer or quantum dot layer and the second fluorescent layer or quantum dot layer . S202, attaching an array of first transparent conductive layers to an array of light-emitting wafers by means of a first anisotropic conductive adhesive layer ; S204, attaching the array of light-emitting wafers to an array of second transparent conductive layers by means of a second anisotropic conductive adhesive layer ; S206, laminating the array of first transparent conductive layers, the array of light-emitting wafers and the array of second transparent conductive layers such that the array of first transparent conductive layers and the array of second transparent conductive layers are electrically connected to the array of light-emitting wafers; characterized in that the method comprises the subsequent step S208, coating a first fluorescent layer or quantum dot layer and a second fluorescent layer or quantum dot layer respectively on a surface of the array of first transparent conductive layers and a surface of the array of second transparent conductive layers, and coating a first protective layer and a second protective layer respectively on the first fluorescent layer or quantum dot layer and the second fluorescent layer or quantum dot layer .
A method for establishing a communication connection, characterized by the method being performed by a client and comprising: establishing a communication connection with a server based on a first port, wherein the first port is a port negotiated by the client and the server, or the first port is a port used when the client communicated with the server last time; in a case that establishing the communication connection with the server based on the first port fails, reading port information in target configuration data, wherein the target configuration data is client configuration data or server configuration data; wherein in a case where the target configuration data is the client configuration data, the target configuration data is data updated based on the server configuration data; in a case where the target configuration data is the server configuration data, the client obtains the server configuration data from another device; and a second port indicated by the read port information in the target configuration data is capable of being used for establishing a communication connection between the client and the server, establishing a communication connection with the server based on the second port. establishing a communication connection with a server based on a first port, wherein the first port is a port negotiated by the client and the server, or the first port is a port used when the client communicated with the server last time; in a case that establishing the communication connection with the server based on the first port fails, reading port information in target configuration data, wherein the target configuration data is client configuration data or server configuration data; wherein in a case where the target configuration data is the client configuration data, the target configuration data is data updated based on the server configuration data; in a case where the target configuration data is the server configuration data, the client obtains the server configuration data from another device; and a second port indicated by the read port information in the target configuration data is capable of being used for establishing a communication connection between the client and the server, establishing a communication connection with the server based on the second port.
An electrical power system comprising: a direct current, DC, bus connected to a load ; a plurality of generators driven by rotation of a common shaft ; and a plurality of power converters characterized in that each power converter comprises an active rectifier controller that operates a respective active rectifier to rectify alternating current, AC, from a respective one of the generators to DC on the DC bus; and said system further comprising: a load sharing controller operable to provide a respective adjustment signal to each respective power converter that is enabled, the respective adjustment signals based on a difference between an average output current across all of the active rectifiers that are enabled, and a particular output current of the respective power converter; wherein each active rectifier controller is operable to determine a quadrature component current value for its associated generator based on its adjustment signal. a direct current, DC, bus connected to a load ; a plurality of generators driven by rotation of a common shaft ; and a plurality of power converters characterized in that each power converter comprises an active rectifier controller that operates a respective active rectifier to rectify alternating current, AC, from a respective one of the generators to DC on the DC bus; and said system further comprising: a load sharing controller operable to provide a respective adjustment signal to each respective power converter that is enabled, the respective adjustment signals based on a difference between an average output current across all of the active rectifiers that are enabled, and a particular output current of the respective power converter; wherein each active rectifier controller is operable to determine a quadrature component current value for its associated generator based on its adjustment signal. a load sharing controller operable to provide a respective adjustment signal to each respective power converter that is enabled, the respective adjustment signals based on a difference between an average output current across all of the active rectifiers that are enabled, and a particular output current of the respective power converter; wherein each active rectifier controller is operable to determine a quadrature component current value for its associated generator based on its adjustment signal.
A hot-rolled steel sheet comprising: by mass%, C: 0.02% to 0.20%; Si: more than 0% to 0.15%; Mn: 0.5% to 2.0%; P: more than 0% to 0.10%; S: more than 0% to 0.05%; Cr: 0.05% to 0.5%; Al: 0.01% to 0.5%; N: 0.0005% to 0.01%; Ti: 0% to 0.20%; Nb: 0% to 0.10%; Cu: 0% to 2.0%; Ni: 0% to 2.0%; Mo: 0% to 1.0%; V: 0% to 0.3%; Mg: 0% to 0.01%; Ca: 0% to 0.01%; REM: 0% to 0.1%; and B: 0% to 0.01%, with a remainder consisting of Fe and impurities, in which amounts of Cr and Al added satisfy Expression below, wherein a metallographic structure has, by % by volume, a ferrite fraction of 92% or more and 98% or less, a martensite fraction of 2% or more and 8% or less and, furthermore, a fraction of a residual structure made of one or more of pearlite, bainite, and residual austenite being less than 1%, the ferrite has an average circle-equivalent diameter of 4 μm or more and a maximum circle-equivalent diameter of 30 μm or less, and the martensite has an average circle-equivalent diameter of 10 μm or less and a maximum circle-equivalent diameter of 20 μm or less wherein the fractions of ferrite, martensite and the residual structure and the average/maximum circle-equivalent diameter of ferrite and martensite are determined by the method disclosed in the description; Cr × 5 + Al ≥ 0.50 here, in Expression , [Cr] represents an amount of Cr in mass%, and [Al] represents an amount of Al in mass%. C: 0.02% to 0.20%; Si: more than 0% to 0.15%; Mn: 0.5% to 2.0%; P: more than 0% to 0.10%; S: more than 0% to 0.05%; Cr: 0.05% to 0.5%; Al: 0.01% to 0.5%; N: 0.0005% to 0.01%; Ti: 0% to 0.20%; Nb: 0% to 0.10%; Cu: 0% to 2.0%; Ni: 0% to 2.0%; Mo: 0% to 1.0%; V: 0% to 0.3%; Mg: 0% to 0.01%; Ca: 0% to 0.01%; REM: 0% to 0.1%; and B: 0% to 0.01%, with a remainder consisting of Fe and impurities, in which amounts of Cr and Al added satisfy Expression below, wherein a metallographic structure has, by % by volume, a ferrite fraction of 92% or more and 98% or less, a martensite fraction of 2% or more and 8% or less and, furthermore, a fraction of a residual structure made of one or more of pearlite, bainite, and residual austenite being less than 1%,
Growing substrate for plants, comprising peat and/or peat substitute, characterized in that the growing substrate comprises psyllium seed husks and/or psyllium seed husk fragments.
An aluminum nitride single crystal substrate comprising a main surface, the main surface comprising: a center; a periphery; an outer region whose distance from the center is greater than 30% of a first distance, the first distance being a distance from the center to the periphery; and an inner region whose distance from the center is no more than 30% of the first distance, wherein a ratio (v A - v B ) / v B is within the range of ±0.05%, wherein v A is a minimum value of peak wave numbers of micro-Raman spectra in the inner region; v B is an average value of peak wave numbers of micro-Raman spectra in the outer region; and the v A and v B are measured by a method as described in the description. the main surface comprising: a center; a periphery; an outer region whose distance from the center is greater than 30% of a first distance, the first distance being a distance from the center to the periphery; and an inner region whose distance from the center is no more than 30% of the first distance, a center; a periphery; an outer region whose distance from the center is greater than 30% of a first distance, the first distance being a distance from the center to the periphery; and an inner region whose distance from the center is no more than 30% of the first distance, wherein a ratio (v A - v B ) / v B is within the range of ±0.05%, wherein v A is a minimum value of peak wave numbers of micro-Raman spectra in the inner region; v B is an average value of peak wave numbers of micro-Raman spectra in the outer region; and the v A and v B are measured by a method as described in the description.
A phthalide derivative of Formula I or Formula II, an optical isomer or pharmaceutically acceptable salt thereof, or their mixtures
Cutting device for conveying and cutting, in particular agricultural material to be cut, having a conveying channel and at least one pivotally mounted cutting element which can be transferred from a rest position into a cutting position by being moved in a first pivot direction , in which cutting position the cutting element for cutting the material to be cut is at least partly positioned within the conveying channel , having a positioning device (I) comprising a positioning element which abuts the cutting element at least in the cutting position of the cutting element during operation and is in particular pivotally mounted about a positioning pivot axis , having a switching shaft which can be transferred into different switching positions and rotatably mounted about a switching shaft axis , to which shaft the positioning element is coupled in at least one of the switching positions of the switching shaft during operation, and having a restoring element for restoring the cutting element to the cutting position and for holding the cutting element in the cutting position, characterized in that the positioning element has a switching contact region which abuts the switching shaft in the switching position during operation.
A Java Card device , comprising: - a volatile memory ; - an operating system, OS ; and - a Java Card virtual machine, JCVM , comprising a JCVM thread ; characterized in that , the volatile memory comprises: - a first portion allocated to an OS stack for supporting execution of native code defined in a language used for programming the OS ; - a second portion within the first portion , allocated to a JCVM stack for supporting the JCVM thread ; and - a third portion outside the first portion , allocated to a heap . - a volatile memory ; - an operating system, OS ; and - a Java Card virtual machine, JCVM , comprising a JCVM thread ; characterized in that , the volatile memory comprises: - a first portion allocated to an OS stack for supporting execution of native code defined in a language used for programming the OS ; - a second portion within the first portion , allocated to a JCVM stack for supporting the JCVM thread ; and - a third portion outside the first portion , allocated to a heap .
Turbo machine , which can be operated both as a motor and as a pump, with axially fixed shaft (Mw), comprising a power unit with at least one inlet and outlet, a controller which at least comprises a connection part on which at least one distributor part with passage openings and at least one feed line part are arranged, the distributor part by means of at least one drive (MW) arranged on the shaft (Mw) is driven and axial forces are distributed to a piston arranged axially on the distributor part , the at least one inlet and outlet provided on the power part being designed to rotate and from the distributor part and the pistons is supplied with at least two co-rotating drive pressures (p1, p2) via the supply line part , the drive presses (p1, p2) with their associated projected annular surfaces (A1, A2) on the piston generating the forces Fp1 and Fp2 generate, whereby at least one end face of the distributor part is acted upon by at least one further pressure (pw1, pw2, ...) on at least one equivalent surface (B3, C3, C4, ...), characterized in that through feed lines and a control device at least one of the further pressure areas or replacement areas (8, B3, C3, C4, ...) is connected to a drive to the control device and thereby to a control pressure (ps) is applied and thereby the total force on the face (Fgsx) and the efficiency (η) over the total resulting force (Fgx), which the contact surfaces between the piston and distributor part , as well as between distributor part and supply part pressed against each other, is changed within a control range .
A discharge unit comprising: a head configured to discharge a liquid; a head mount to which the head is detachably attached; and a holder holding the head mount , wherein the head mount includes multiple rotation mechanisms on respective side plates on respective ends of the head mount arranged in a longitudinal direction of the head mount , and the holder rotatably and independently holds the side plates of the head mount by means of the respective rotation mechanisms ; wherein the holder rotatably holds both ends of the head mount , which are arranged in the longitudinal direction of the head mount , and the head mount includes eccentric cams and each of the side plates includes an elongated hole , wherein each of the eccentric cams engages with a respective one of the elongated holes so as to rotate each respective end of the head mount , characterized in that : the head mount includes an operation part (3 10b) having a length longer than a length between the side plates , wherein the operation part is attached to the eccentric cam that engages with the elongated hole in one of the side plates , and passes through a hole in the other one of the side plates , so that the operation part (3 10b) is configured to rotate one end of the head mount and is operable from the other end of the head mount . a head configured to discharge a liquid; a head mount to which the head is detachably attached; and a holder holding the head mount , wherein the head mount includes multiple rotation mechanisms on respective side plates on respective ends of the head mount arranged in a longitudinal direction of the head mount , and the holder rotatably and independently holds the side plates of the head mount by means of the respective rotation mechanisms ; wherein the holder rotatably holds both ends of the head mount , which are arranged in the longitudinal direction of the head mount , and the head mount includes eccentric cams and each of the side plates includes an elongated hole , wherein each of the eccentric cams engages with a respective one of the elongated holes so as to rotate each respective end of the head mount , characterized in that : the head mount includes an operation part (3 10b) having a length longer than a length between the side plates , wherein the operation part is attached to the eccentric cam that engages with the elongated hole in one of the side plates , and passes through a hole in the other one of the side plates , so that the operation part (3 10b) is configured to rotate one end of the head mount and is operable from the other end of the head mount .
Method for checking a coin or a medal or medallion, comprising determining (S110) of a horizontal reference plane of the coin or medallion or medal, wherein the determining of the horizontal reference plane comprises the determining of a termination plane of a relief of the coin , and the horizontal reference plane is determined from the termination plane of the relief of the coin; producing (S120) a measured value in relation to the horizontal reference plane ; and determining (S130) of an examination result from the measured value. determining (S110) of a horizontal reference plane of the coin or medallion or medal, wherein the determining of the horizontal reference plane comprises the determining of a termination plane of a relief of the coin , and the horizontal reference plane is determined from the termination plane of the relief of the coin; producing (S120) a measured value in relation to the horizontal reference plane ; and determining (S130) of an examination result from the measured value.
A method of controlling a light fixture comprising at least one light source emitting light having a spectral characteristic, a first color filter, a second color filter and a third color filter, each color filter has a predetermined spectral filter characteristic which gradually increases across said color filter, said color filters are independently movable and can be arranged in a number of different positions in relation to one another and in relation to said light, said method comprises the steps of: - receiving at least one color parameter relating to the position of said color filters and at least one color temperature parameter relating to the color temperature of said light emitted by said light source; - obtaining a resulting color of said light based on said color parameter, said color temperature parameter and said predetermined spectral filter characteristics of said color filters; - obtaining color filter position parameters indicating the position of said color filters in relation to said light based on said resulting color, said predetermined characteristics of said color filters and said spectral characteristic of said light emitted by said light source; - arranging said color filters in relation to one another and in relation to said light based on color filter parameters, wherein said step of obtaining said resulting color comprises the steps of: - emulating a light source emitting emulated light having an emulated spectral characteristic; - generating a resulting spectrum by applying said color filters to said emulated spectral characteristic according to said color parameter; and - obtaining said resulting color based on said resulting spectrum. - receiving at least one color parameter relating to the position of said color filters and at least one color temperature parameter relating to the color temperature of said light emitted by said light source; - obtaining a resulting color of said light based on said color parameter, said color temperature parameter and said predetermined spectral filter characteristics of said color filters; - obtaining color filter position parameters indicating the position of said color filters in relation to said light based on said resulting color, said predetermined characteristics of said color filters and said spectral characteristic of said light emitted by said light source; - arranging said color filters in relation to one another and in relation to said light based on color filter parameters, wherein said step of obtaining said resulting color comprises the steps of: - emulating a light source emitting emulated light having an emulated spectral characteristic; - generating a resulting spectrum by applying said color filters to said emulated spectral characteristic according to said color parameter; and - obtaining said resulting color based on said resulting spectrum. - emulating a light source emitting emulated light having an emulated spectral characteristic; - generating a resulting spectrum by applying said color filters to said emulated spectral characteristic according to said color parameter; and - obtaining said resulting color based on said resulting spectrum.