mhurhangee/patent-ind-claim-en huggingface dataset:
An optoelectronic sensor apparatus , comprising: at least one optoelectronic transmitter and at least one optoelectronic receiver ; a memory device having at least one non-volatile memory which is adapted to store an individual data set; and a data interface which enables access to the non-volatile memory , wherein the optoelectronic sensor apparatus has an application-specific integrated circuit , with the memory device being connected to the application-specific integrated circuit or being integrated into the application-specific integrated circuit ; and wherein the application-specific integrated circuit is adapted to process and output received signals of the optoelectronic receiver , characterized in that the individual data set represents a spectral sensitivity characteristic of the optoelectronic sensor apparatus , a distance-dependent sensitivity characteristic of the optoelectronic sensor apparatus and/or an angle-dependent sensitivity characteristic of the optoelectronic sensor apparatus , with the application-specific integrated circuit further being adapted to read and to output the individual data set or parts thereof from the non-volatile memory , but with the application-specific integrated circuit not being suitable to process the received signals of the optoelectronic receiver in dependence on the individual data set. at least one optoelectronic transmitter and at least one optoelectronic receiver ; a memory device having at least one non-volatile memory which is adapted to store an individual data set; and a data interface which enables access to the non-volatile memory , wherein the optoelectronic sensor apparatus has an application-specific integrated circuit , with the memory device being connected to the application-specific integrated circuit or being integrated into the application-specific integrated circuit ; and wherein the application-specific integrated circuit is adapted to process and output received signals of the optoelectronic receiver , characterized in that the individual data set represents a spectral sensitivity characteristic of the optoelectronic sensor apparatus , a distance-dependent sensitivity characteristic of the optoelectronic sensor apparatus and/or an angle-dependent sensitivity characteristic of the optoelectronic sensor apparatus , with the application-specific integrated circuit further being adapted to read and to output the individual data set or parts thereof from the non-volatile memory , but with the application-specific integrated circuit not being suitable to process the received signals of the optoelectronic receiver in dependence on the individual data set.
A power conversion device , comprising: a plurality of conversion branches (L1, L2, ... , Ln), each comprising an input terminal and an output terminal, wherein the input terminals of the plurality of conversion branches (L1, L2, ... , Ln) are connected in parallel, and the output terminals of the plurality of conversion branches (L1, L2, ... , Ln) are connected in series, wherein an output voltage of the power conversion device is a sum of voltages at the output terminals of the plurality of conversion branches (L1, L2, ... , Ln), and characterized in that each of the plurality of conversion branches (L1, L2, ... , Ln) comprises a first-stage isolated converter (11,12, ... , 1n), which is an LLC series resonant converter, that when a conversion branch of the plurality of conversion branches (L1, L2, ... , Ln) enters an operating state, the voltage at the output terminal of the conversion branch is continuous and adjustable within a preset voltage range, that when a conversion branch of the plurality of conversion branches (L1, L2, ... , Ln) enters a non-operating state, the voltage at the output terminal of the conversion branch is 0V, and that each of the plurality of conversion branches (L1, L2, ... , Ln) are controlled to enter the operating state or the non-operating state, so as to make the output voltage of the power conversion device adjustable within a continuous range. a plurality of conversion branches (L1, L2, ... , Ln), each comprising an input terminal and an output terminal, wherein the input terminals of the plurality of conversion branches (L1, L2, ... , Ln) are connected in parallel, and the output terminals of the plurality of conversion branches (L1, L2, ... , Ln) are connected in series, wherein an output voltage of the power conversion device is a sum of voltages at the output terminals of the plurality of conversion branches (L1, L2, ... , Ln), and characterized in that each of the plurality of conversion branches (L1, L2, ... , Ln) comprises a first-stage isolated converter (11,12, ... , 1n), which is an LLC series resonant converter, that when a conversion branch of the plurality of conversion branches (L1, L2, ... , Ln) enters an operating state, the voltage at the output terminal of the conversion branch is continuous and adjustable within a preset voltage range, that when a conversion branch of the plurality of conversion branches (L1, L2, ... , Ln) enters a non-operating state, the voltage at the output terminal of the conversion branch is 0V, and that each of the plurality of conversion branches (L1, L2, ... , Ln) are controlled to enter the operating state or the non-operating state, so as to make the output voltage of the power conversion device adjustable within a continuous range.
An electro-optic modulator, comprising an input waveguide , a beam splitter connected to the input waveguide , a modulation arm that is disposed on each branch of the beam splitter and that is configured to modulate a signal, a beam combiner that is connected to each branch of the beam splitter and that is configured to combine signals, and an output waveguide connected to the beam combiner , wherein each modulation arm is correspondingly disposed with a double-layer electrode, and characterized in that a first layer electrode of the double-layer electrode is a high-frequency traveling wave electrode that is configured to change carrier concentration in the modulation arm, a second layer electrode is a direct current electrode having an inductor function, and the second layer electrode is connected with the first layer electrode .
A wind turbine generator comprising: a tower part ; a plurality of wind turbine parts each having a rotor, a blade provided to the rotor, and a generator that is configured to generate power by rotating force of the rotor; and a support member that is connected to the tower part and supports each of the wind turbine parts , wherein the plurality of wind turbine parts have a first wind turbine part , and a second wind turbine part disposed so as to be aligned at substantially the same height as the first wind turbine part , characterized in that each of the first wind turbine part and the second wind turbine part is fixed such or is configured to be set such that a yaw angle is oblique to a flow direction of wind received by the tower part , and in the first wind turbine part , the yaw angle is fixed or configured to be set to be oblique such that an inner end being an end, on a side close to the second wind turbine part , of the first wind turbine part is located on a wake side in the flow direction of the wind with respect to an outer end being an end on a side opposite to the inner end of the first wind turbine part , and in the second wind turbine part , the yaw angle is fixed or configured to be set to be oblique such that an inner end being an end, on a side close to the first wind turbine part , of the second wind turbine part is located on the wake side in the flow direction of the wind with respect to an outer end being an end on a side opposite to the inner end of the second wind turbine part . a tower part ; a plurality of wind turbine parts each having a rotor, a blade provided to the rotor, and a generator that is configured to generate power by rotating force of the rotor; and a support member that is connected to the tower part and supports each of the wind turbine parts , wherein the plurality of wind turbine parts have a first wind turbine part , and a second wind turbine part disposed so as to be aligned at substantially the same height as the first wind turbine part , characterized in that each of the first wind turbine part and the second wind turbine part is fixed such or is configured to be set such that a yaw angle is oblique to a flow direction of wind received by the tower part , and in the first wind turbine part , the yaw angle is fixed or configured to be set to be oblique such that an inner end being an end, on a side close to the second wind turbine part , of the first wind turbine part is located on a wake side in the flow direction of the wind with respect to an outer end being an end on a side opposite to the inner end of the first wind turbine part , and in the second wind turbine part , the yaw angle is fixed or configured to be set to be oblique such that an inner end being an end, on a side close to the first wind turbine part , of the second wind turbine part is located on the wake side in the flow direction of the wind with respect to an outer end being an end on a side opposite to the inner end of the second wind turbine part .
A method for a cryptographic coprocessor , the method comprising: obtaining , at the cryptographic coprocessor, digital information; scrambling , by the cryptographic coprocessor, the digital information using at least one scrambling key (502; 504) to produce scrambled digital information; storing , by the cryptographic coprocessor, the scrambled digital information in at least one memory ; preventing , by the cryptographic coprocessor, access to the digital information by changing the at least one scrambling key, wherein the at least one scrambling key is stored in at least one key register; the method characterised in that the preventing comprises overwriting the at least one key register with random bits; and performing a secure wipe by overwriting the random bits in the at least one key register with a constant value. obtaining , at the cryptographic coprocessor, digital information; scrambling , by the cryptographic coprocessor, the digital information using at least one scrambling key (502; 504) to produce scrambled digital information; storing , by the cryptographic coprocessor, the scrambled digital information in at least one memory ; preventing , by the cryptographic coprocessor, access to the digital information by changing the at least one scrambling key, wherein the at least one scrambling key is stored in at least one key register; the method characterised in that the preventing comprises overwriting the at least one key register with random bits; and performing a secure wipe by overwriting the random bits in the at least one key register with a constant value.
Microorganism strain for the production of low-molecular-weight substances or proteins, containing in its genome a mutation in a gene, which mutation brings about an auxotrophy in the strain, and also a production plasmid encoding at least one enzyme for the production of a low-molecular-weight substance or at least one recombinant protein and also a functional copy of the gene, the chromosomal inactivation of which brings about the auxotrophy, characterized in that the auxotrophy is a nonfeedable auxotrophy and the gene is the pyrH gene having SEQ ID No.1 or a pyrH -homologous gene, wherein a nonfeedable auxotrophy is to be understood to mean that the auxotrophy reduces the growth of the microorganism cell or brings about the death of the microorganism cell and is not supplementable by addition of metabolism-specific precursors, intermediates and/or end products to the growth medium and wherein the pyrH-homologous genes are genes which code for a protein having pyrH activity and which have a sequence identity greater than 30% in relation to SEQ ID No.1.
An electrode for a non-aqueous electrolyte secondary battery characterized in that the electrode comprises: a conduction aid; and an active material layer containing an active material capable of alloying with Li, wherein the conduction aid contains acetylene black and a vapor grown carbon fiber; a mass ratio of the acetylene black is within a range of from 12 mass% to 20 mass% inclusive with respect to a mass of the active material; a mass ratio of the vapor grown carbon fiber is within a range of from 2 mass% to 6 mass% inclusive with respect to a mass of the active material; the active material layer contains a binder selected from the group consisting of a salt of CMC, a salt of polyacrylic acid, a salt of an acrylic acid-maleic acid copolymer and alginate; and the mass ratio of the binder is 18 mass% or more with respect to a mass of the active material. a conduction aid; and an active material layer containing an active material capable of alloying with Li, wherein the conduction aid contains acetylene black and a vapor grown carbon fiber; a mass ratio of the acetylene black is within a range of from 12 mass% to 20 mass% inclusive with respect to a mass of the active material; a mass ratio of the vapor grown carbon fiber is within a range of from 2 mass% to 6 mass% inclusive with respect to a mass of the active material; the active material layer contains a binder selected from the group consisting of a salt of CMC, a salt of polyacrylic acid, a salt of an acrylic acid-maleic acid copolymer and alginate; and the mass ratio of the binder is 18 mass% or more with respect to a mass of the active material.
A sequencing probe comprising a target binding domain and a barcode domain; wherein said target binding domain comprises at least eight nucleotides and is capable of binding a target nucleic acid, and wherein at least two nucleotides in the target binding domain are universal bases capable of binding to any base within the target nucleic acid; wherein said barcode domain comprises a synthetic backbone, said barcode domain comprising at least six attachment positions, each attachment position comprising at least one attachment region, said attachment region comprising at least one nucleic acid sequence capable of being bound by a complementary nucleic acid molecule, wherein each attachment position of the at least six attachment positions corresponds to one nucleotide in the target binding domain and each of the at least six attachment positions have a different nucleic acid sequence, and wherein said nucleic acid sequence of each position of the at least six attachment positions determines the position and identity of the corresponding one nucleotide in said target nucleic acid that is bound by said target binding domain, and wherein the universal bases precede and follow the nucleotides corresponding to positions in the barcode domain. wherein each attachment position of the at least six attachment positions corresponds to one nucleotide in the target binding domain and each of the at least six attachment positions have a different nucleic acid sequence, and wherein said nucleic acid sequence of each position of the at least six attachment positions determines the position and identity of the corresponding one nucleotide in said target nucleic acid that is bound by said target binding domain, and wherein the universal bases precede and follow the nucleotides corresponding to positions in the barcode domain.
A process for producing a melamine-formaldehyde foam, said process comprising heating and foaming a mixture comprising at least one melamine-formaldehyde precondensate, at least one curative, at least a surfactant and a blowing agent mixture, wherein that blowing agent mixture comprises 2.5 to 20 wt.-% of a fluorinated ether.
A non-aqueous electrolyte electricity-storage element comprising: a positive electrode including a positive-electrode active material capable of inserting and releasing anions; a negative electrode including a negative-electrode active material capable of inserting and releasing cations; and a non-aqueous electrolyte, wherein the positive-electrode active material is porous carbon having communicating pores having a three-dimensional network structure, and wherein the pores of the three-dimensional network structure of the porous carbon are mesopores, and wherein the anions are inserted and released inside the mesopores of the three-dimensional network structure of the porous carbon, and wherein a changing rate of a cross-sectional thickness of a positive electrode film including the positive-electrode active material defined by Formula below is less than 45%, wherein the changing rate of cross-sectional thickness is determined as specified in the description, wherein the charge-discharge is performed up to 50 cycles, wherein charge is performed with cut-off voltage of 4.5 V and discharge is performed with cut-off voltage of 1.5 V, Changing rate of cross-sectional thickness % = Film thickness after charge-discharge − Film thickness before charge-discharge Film thickness before charge-discharge × 100 a positive electrode including a positive-electrode active material capable of inserting and releasing anions; a negative electrode including a negative-electrode active material capable of inserting and releasing cations; and a non-aqueous electrolyte, wherein the positive-electrode active material is porous carbon having communicating pores having a three-dimensional network structure, and wherein the pores of the three-dimensional network structure of the porous carbon are mesopores, and wherein the anions are inserted and released inside the mesopores of the three-dimensional network structure of the porous carbon, and wherein a changing rate of a cross-sectional thickness of a positive electrode film including the positive-electrode active material defined by Formula below is less than 45%, wherein the changing rate of cross-sectional thickness is determined as specified in the description, wherein the charge-discharge is performed up to 50 cycles, wherein charge is performed with cut-off voltage of 4.5 V and discharge is performed with cut-off voltage of 1.5 V, Changing rate of cross-sectional thickness % = Film thickness after charge-discharge − Film thickness before charge-discharge Film thickness before charge-discharge × 100
A method of cooling a static power electronics conversion device having at least one electrical circuit comprising an assembly of active components and passive components interconnected with each other in a way adapted to the performance of a given function of conversion of electrical energy, and supported by an electronic card, said circuit comprising means of input of electrical energy to be converted and means of output of the converted electrical energy, and being mounted in a closed sealed radiator housing of which only said means of input and output of said circuit communicate with the outside of said housing, the housing comprising plates forming a bottom, a hood and side walls, as well as flanges closing the openings delimited between the plates at the longitudinal ends of the housing, and the outer walls of the plates forming the housing comprising cooling fins , characterized in that the distribution of the heat energy released by said active and passive components is homogenized by forced convection throughout the internal volume of said housing, and said heat energy is transferred to said radiator housing by forced convection substantially uniformly over the entire inner surface of the walls of said housing by circulation in closed circuit of at least one fluid contained within said sealed housing, with two means of propulsion and circulation of said fluid disposed substantially in the middle of the electronic card in the direction of its length and on the lateral edges thereof, a partition longitudinally oriented in the interior of the housing being disposed between the two means of propulsion for guiding the flow of air , the fluid sucked and projected by a first means of propulsion reflecting on a first end flange of the housing and then being sucked and projected by the second propulsion means .
A method for operating a refrigeration cycle apparatus with standard composition refrigerant configured as a zeotropic refrigerant mixture containing at least first refrigerant and second refrigerant having a higher boiling point than the first refrigerant at a same pressure, the refrigeration cycle apparatus comprising a main circuit in which a compressor , a first heat exchanger , an expansion valve , and a second heat exchanger are sequentially connected, and a component separation circuit connected to the main circuit , the first refrigerant having a property of disproportionation, the method comprising: separating and storing, by the component separation circuit, from the main circuit , mixed refrigerant containing the first refrigerant having a higher composition ratio than in the standard composition refrigerant in an operation of a separation-storage mode separating components of the standard composition refrigerant, characterized by activating, by the component separation circuit, the separation-storage mode at least when a temperature or a pressure of the refrigerant discharged from the compressor is higher than a temperature or a pressure that causes disproportionation of the first refrigerant. separating and storing, by the component separation circuit, from the main circuit , mixed refrigerant containing the first refrigerant having a higher composition ratio than in the standard composition refrigerant in an operation of a separation-storage mode separating components of the standard composition refrigerant, characterized by activating, by the component separation circuit, the separation-storage mode at least when a temperature or a pressure of the refrigerant discharged from the compressor is higher than a temperature or a pressure that causes disproportionation of the first refrigerant.
A system for managing a group of dairy animals , comprising: - a dwelling space , such as an animal shed, in which the dairy animals can roam, - at least one dairy animal-related device for performing a dairy animal-related operation, wherein the dairy animal-related device is arranged in the dwelling space , and wherein the dairy animals in the dwelling space can walk to the dairy animal-related device through the dwelling space , - a luring system with luring devices , each of which is attached to in each case one of the dairy animals , wherein the luring device of each dairy animal is activatable in order to give off a luring signal to said dairy animal so as to lure said dairy animal to the dairy animal-related device , characterized in that the system is provided with a detection system which is configured to detect the position of each individual dairy animal in the dwelling space , and in that the luring system is connected to the detection system for receiving the positions of the dairy animals in the dwelling space detected by the detection system , and in that the luring system is configured to determine, on the basis of the received detected positions of the dairy animals in the dwelling space , the number of dairy animals which are situated in a predetermined area of the dwelling space adjacent to the dairy animal-related device , and to activate the luring device of one of the other dairy animals depending on said number of dairy animals situated in said area . - a dwelling space , such as an animal shed, in which the dairy animals can roam, - at least one dairy animal-related device for performing a dairy animal-related operation, wherein the dairy animal-related device is arranged in the dwelling space , and wherein the dairy animals in the dwelling space can walk to the dairy animal-related device through the dwelling space , - a luring system with luring devices , each of which is attached to in each case one of the dairy animals , wherein the luring device of each dairy animal is activatable in order to give off a luring signal to said dairy animal so as to lure said dairy animal to the dairy animal-related device ,