mhurhangee/ep-ind-claims huggingface dataset:
A method for the manipulation of particles (BEAD) by means of an at least a two-dimensional array of blocks (BLOCK_i,j) of electrodes, comprising the steps of: i. generating a first configuration of field of force (F_i), which presents at least one first point (CAGE_i,j) and at least one second point (CAGE_i,j+1) of stable equilibrium for said particles (BEAD), said points being positioned, respectively, on a first block (BLOCK_i,j) and on a second block (BLOCK_i,j+1) of said array immediately adjacent to the first, and being such that at least one particle (BEAD) is entrapped in said first point of stable equilibrium (CAGE_i,j); ii. generating at least one second configuration of field of force (F_ii) such that a particle (BEAD) is pushed within a basin of attraction of said at least one second point of stable equilibrium (CAGE_i,j+1); and iii. generating again said first configuration of field of force (F_i), such that said particle (BEAD) is attracted towards the second point of stable equilibrium (CAGE_i,j+1); said method being characterized in that each said block (BLOCK_i,j) of electrodes of the array is electrically connected to two groups of voltages (Vrow_i[p], Vcol_j[q]) distributed in the array, respectively, in rows and columns and connected electrically to the blocks of electrodes that share the same row or column, said first configuration (F_i) and said second configuration (F_ii) of field of force being generated by means of at least two different configurations of first voltages (Vrow_i [p] and Vcol_j [q]) applied to the electrodes of the first block of the array (BLOCK_i,j) and of second voltages (Vrow_i [p] and Vcol_j +1[q]) applied to the electrodes of the second block of the array (BLOCK_i,j +1). i. generating a first configuration of field of force (F_i), which presents at least one first point (CAGE_i,j) and at least one second point (CAGE_i,j+1) of stable equilibrium for said particles (BEAD), said points being positioned, respectively, on a first block (BLOCK_i,j) and on a second block (BLOCK_i,j+1) of said array immediately adjacent to the first, and being such that at least one particle (BEAD) is entrapped in said first point of stable equilibrium (CAGE_i,j); ii. generating at least one second configuration of field of force (F_ii) such that a particle (BEAD) is pushed within a basin of attraction of said at least one second point of stable equilibrium (CAGE_i,j+1); and iii. generating again said first configuration of field of force (F_i), such that said particle (BEAD) is attracted towards the second point of stable equilibrium (CAGE_i,j+1);
Method of controlling a laser marking matrix system, the matrix system comprising an N x M matrix of lasers to produce the laser marking, N being the vertical or raster dots, and M the number of dots over the width of the matrix, N and M being at least two dots, the method comprising the sequential transformation of at least two images to be marked into a series of marking commands according to an N x M matrix of dots, characterised in that it comprises the following phases: - division of a first image into a fixed portion of the image and a variable portion of the image - transformation of the fixed portion of the image into a fixed matrix and the variable portion of the image into a variable matrix, - combination of said fixed and variable matrices, forming the complete N x M matrix of the dots to be marked, - laser marking of the first matrix on the surface to be marked, - processing of a second image, obtaining a new variable matrix which is added to the previous fixed matrix, producing a complete new N' x M' matrix corresponding to a new image, - laser marking of the second matrix on the surface to be marked. - division of a first image into a fixed portion of the image and a variable portion of the image - transformation of the fixed portion of the image into a fixed matrix and the variable portion of the image into a variable matrix, - combination of said fixed and variable matrices, forming the complete N x M matrix of the dots to be marked, - laser marking of the first matrix on the surface to be marked, - processing of a second image, obtaining a new variable matrix which is added to the previous fixed matrix, producing a complete new N' x M' matrix corresponding to a new image, - laser marking of the second matrix on the surface to be marked.
A curable composition comprising oxyalkylene-based polymer having more than one reactive silicon group on average in one molecule, which group is a dimethoxymethylsilyl group, (meth)acrylate-based polymer having a reactive silicon group represented by the formula: -SiX 3 wherein each X is independently a hydroxy group or a hydrolyzable group, wherein a reactive silicon group equivalent is not less than 0.30 mmol/g, and high-molecular weight plasticizer having more than 0 and not more than one reactive silicon group on average in one molecule, which group is a dimethoxymethylsilyl group, wherein the high-molecular weight plasticizer has a number average molecular weight of 1,000 to 15,000.
Current sensor arrangement with a first measuring inductance, a second measuring inductance (403, 503) and a third measuring inductance (405, 505), wherein the first measuring inductance comprises the following features: a first measuring coil comprising windings which are planar and disposed in a first plane; a second measuring coil comprising windings which are planar and disposed in a second plane; wherein the first measuring coil and the second measuring coil are electrically connected in series, have different coil properties and are electrically connected via a winding-free section, wherein the second measuring inductance (403,503) comprises a third planar measuring coil having first windings which are disposed in a first plane, a fourth planar measuring coil having second windings which are disposed in a second plane and a winding-free connecting section which electrically connects the third planar measuring coil to the fourth planar measuring coil, wherein the third measuring inductance (405, 505) comprises a fifth planar measuring coil having first windings which are disposed in the first plane, a sixth planar measuring coil having second windings which are disposed in the second plane and a winding-free connecting section which electrically connects the fifth planar measuring coil to the sixth planar measuring coil, and wherein each measuring inductance is provided for detecting a current in one current-carrying conductor of a multi-phase conductor system at a time. a first measuring coil comprising windings which are planar and disposed in a first plane; a second measuring coil comprising windings which are planar and disposed in a second plane; wherein the first measuring coil and the second measuring coil are electrically connected in series, have different coil properties and are electrically connected via a winding-free section, wherein the second measuring inductance (403,503) comprises a third planar measuring coil having first windings which are disposed in a first plane, a fourth planar measuring coil having second windings which are disposed in a second plane and a winding-free connecting section which electrically connects the third planar measuring coil to the fourth planar measuring coil, wherein the third measuring inductance (405, 505) comprises a fifth planar measuring coil having first windings which are disposed in the first plane, a sixth planar measuring coil having second windings which are disposed in the second plane and a winding-free connecting section which electrically connects the fifth planar measuring coil to the sixth planar measuring coil, and wherein each measuring inductance is provided for detecting a current in one current-carrying conductor of a multi-phase conductor system at a time.
A searchable code processing system in which a registration client, a search client and a management server are connected via a network, wherein the registration client is provided with units that create secure data acquired by encrypting unciphered data for registration; the management server is provided with a storage that stores secure data including a first search tag used for a search; and the registration client further determines the length of the first search tag for the secure data according to tag length stored in a data storage and is provided with units that create the first search tag having a different length from the tag length stored in the data storage for the secure data; wherein the search client creates a secure keyword, by dividing an unciphered text keyword for a search in n divided pieces, encrypting the n divided pieces as n intermediate encrypted keywords, wherein each intermediate encrypted keyword is created utilizing the previously created intermediate encrypted keyword, acquiring a main body of an encrypted keyword utilizing the nth intermediate encrypted keyword, creating an initial vector and a second search tag, and connecting the initial vector, the main body of the encrypted keyword and the second search tag as the secure keyword, and transmits it to the management server via the network; and the management server receives the secure keyword via the network and searches the secure data and the secure keyword.
A method for a base station operating with shared spectrum channel access on at least one of a carrier or a cell, the method comprising: configuring a User Equipment, UE, with a plurality of configured grants for uplink transmission in one or more bandwidth parts, BWPs, of at least one of the carrier or the cell, wherein the plurality of configured grants comprises a first configured grant and a second configured grant; configuring the UE with a first minimum Downlink Feedback Indication, DFI, time delay for the first configured grant, wherein the first minimum DFI time delay is for validation of Hybrid Automatic Repeat Request, HARQ, information in response to one or more first uplink transmissions; configuring the UE with a second minimum DFI time delay for the second configured grant, wherein the second minimum DFI time delay is for validation of HARQ information in response to one or more second uplink transmissions; configuring the UE with a first set of one or more HARQ processes for the first configured grant; and configuring the UE with a second set of one or more HARQ processes for the second configured grant, characterized in that the method further comprises determining whether the first configured grant and the second configured grant are in a same BWP or not, and a first value of the first minimum DFI time delay is configured to be the same as a second value of the second minimum DFI time delay based on a determination that the first configured grant and the second configured grant are configured in the same BWP. configuring a User Equipment, UE, with a plurality of configured grants for uplink transmission in one or more bandwidth parts, BWPs, of at least one of the carrier or the cell, wherein the plurality of configured grants comprises a first configured grant and a second configured grant; configuring the UE with a first minimum Downlink Feedback Indication, DFI, time delay for the first configured grant, wherein the first minimum DFI time delay is for validation of Hybrid Automatic Repeat Request, HARQ, information in response to one or more first uplink transmissions; configuring the UE with a second minimum DFI time delay for the second configured grant, wherein the second minimum DFI time delay is for validation of HARQ information in response to one or more second uplink transmissions; configuring the UE with a first set of one or more HARQ processes for the first configured grant; and configuring the UE with a second set of one or more HARQ processes for the second configured grant, characterized in that the method further comprises determining whether the first configured grant and the second configured grant are in a same BWP or not, and a first value of the first minimum DFI time delay is configured to be the same as a second value of the second minimum DFI time delay based on a determination that the first configured grant and the second configured grant are configured in the same BWP.
Plant for grapes withering by dehydration, comprising: - a dehumidification room isolatable from an outer environment and intended to house grapes containers stacked on a row of pallets, wherein said room is defined by perimetral floor, ceiling and shell walls, said shell walls being intended for joining together said ceiling and floor walls, - air flow generating means comprising a ventilation circuit and a first and a second diffusion module (4a,5a,4b,5b,4c,5c) for said air flow in said room, - at least one sensor for detecting at least one operating parameter indicative of the grapes dehydration level, said airflow generating means being operatively connected to said at least one sensor such to control said airflow on the basis of said at least one operating parameter, characterized in that - said first and said second diffusion modules (4a,5a,4b,5b,4c,5c) are arranged facing each other on said shell walls at the opposite sides of the room and are intended for the forced supply of an air flow and for the corresponding intake thereof respectively, said first and said second diffusion modules (4a,5a,4b,5b,4c,5c) being substantially provided with the same air passage area, so as to obtain a uniform air motion that is horizontal and orthogonal to the row of pallets, - said air flow generating means being intended to send said air flow from said first diffusion module to said second diffusion module and vice versa, and said air flow generating means being controllable such to reverse the direction of said air flow. - a dehumidification room isolatable from an outer environment and intended to house grapes containers stacked on a row of pallets, wherein said room is defined by perimetral floor, ceiling and shell walls, said shell walls being intended for joining together said ceiling and floor walls, - air flow generating means comprising a ventilation circuit and a first and a second diffusion module (4a,5a,4b,5b,4c,5c) for said air flow in said room, - at least one sensor for detecting at least one operating parameter indicative of the grapes dehydration level, said airflow generating means being operatively connected to said at least one sensor such to control said airflow on the basis of said at least one operating parameter, characterized in that - said first and said second diffusion modules (4a,5a,4b,5b,4c,5c) are arranged facing each other on said shell walls at the opposite sides of the room and are intended for the forced supply of an air flow and for the corresponding intake thereof respectively, said first and said second diffusion modules (4a,5a,4b,5b,4c,5c) being substantially provided with the same air passage area, so as to obtain a uniform air motion that is horizontal and orthogonal to the row of pallets, - said air flow generating means being intended to send said air flow from said first diffusion module to said second diffusion module and vice versa, and said air flow generating means being controllable such to reverse the direction of said air flow.
A method for producing an electrical power device comprising an insulator, the method comprising: by means of additive manufacturing, applying a polymeric insulating material in the device, to form the insulator in said device; and in a subsequent consolidation step, subjecting the insulator to elevated temperature and pressure during a predetermined time period to consolidate the insulator, characterized in forming the insulator in the form of a condenser core of the electrical power device, wherein the method further comprises: by means of the additive manufacturing, applying an inner concentric layer of the condenser core, of the polymeric insulating material around and along a longitudinal through hole of the device; applying a first of a plurality of concentric intermediate layers of an electrically conducting material, on top of the inner layer, around and along the longitudinal through hole; and by means of the additive manufacturing, applying an outer concentric layer of the condenser core, of the polymeric insulating material, on top of a second of the plurality of concentric intermediate layers, around and along the longitudinal through hole. by means of additive manufacturing, applying a polymeric insulating material in the device, to form the insulator in said device; and in a subsequent consolidation step, subjecting the insulator to elevated temperature and pressure during a predetermined time period to consolidate the insulator, characterized in forming the insulator in the form of a condenser core of the electrical power device, wherein the method further comprises: by means of the additive manufacturing, applying an inner concentric layer of the condenser core, of the polymeric insulating material around and along a longitudinal through hole of the device; applying a first of a plurality of concentric intermediate layers of an electrically conducting material, on top of the inner layer, around and along the longitudinal through hole; and by means of the additive manufacturing, applying an outer concentric layer of the condenser core, of the polymeric insulating material, on top of a second of the plurality of concentric intermediate layers, around and along the longitudinal through hole. by means of the additive manufacturing, applying an inner concentric layer of the condenser core, of the polymeric insulating material around and along a longitudinal through hole of the device; applying a first of a plurality of concentric intermediate layers of an electrically conducting material, on top of the inner layer, around and along the longitudinal through hole; and by means of the additive manufacturing, applying an outer concentric layer of the condenser core, of the polymeric insulating material, on top of a second of the plurality of concentric intermediate layers, around and along the longitudinal through hole.
An X-ray fluorescence spectrometer configured to irradiate a sample with primary X-rays, the sample including a single thin film which contains respective components in known contents and has a thickness to be measured, to determine a quantitative value of the thickness of the thin film on the basis of measured intensities of generated secondary X-rays by fundamental parameter method, the X-ray fluorescence spectrometer is characterised by comprising a determination module configured to determine, with respect to every one of measurement lines that correspond to the secondary X-rays having intensities to be measured, whether or not a ratio of a theoretical intensity in thin film calculated on the basis of an assumed thickness and the known contents of the respective components to a theoretical intensity in bulk calculated on the basis of the known contents of the respective components exceeds a predetermined threshold; and a saturation thickness quantification module configured to, when the determination module has determined that the ratio of the theoretical intensities has exceeded the predetermined threshold with respect to every one of the measurement lines, calculate a saturation thickness with respect to each of the measurement lines, at which the theoretical intensity saturates, on the basis of the known contents of the respective components, to adopt a largest saturation thickness as the quantitative value of the thickness and to cause a display unit to display that the actual thickness of the thin film exceeds the quantitative value of the thickness. a determination module configured to determine, with respect to every one of measurement lines that correspond to the secondary X-rays having intensities to be measured, whether or not a ratio of a theoretical intensity in thin film calculated on the basis of an assumed thickness and the known contents of the respective components to a theoretical intensity in bulk calculated on the basis of the known contents of the respective components exceeds a predetermined threshold; and a saturation thickness quantification module configured to, when the determination module has determined that the ratio of the theoretical intensities has exceeded the predetermined threshold with respect to every one of the measurement lines, calculate a saturation thickness with respect to each of the measurement lines, at which the theoretical intensity saturates, on the basis of the known contents of the respective components, to adopt a largest saturation thickness as the quantitative value of the thickness and to cause a display unit to display that the actual thickness of the thin film exceeds the quantitative value of the thickness.
A device carrier panel of a satellite, having a plurality of electronic boxes that accommodate electrical and/or electronic modules, the electronic boxes being electrically connected or connectable to one another, - wherein the device carrier panel (1; 12, 13, 14; 16, 17, 18) is provided with at least one docking structure (2; 2A, 2A', 2A"; 2B, 2B', 2B"); - wherein a base plate of the device carrier panel (1; 12, 13, 14; 16, 17, 18) and preferably the at least one docking structure (2; 2A, 2A', 2A"; 2B, 2B', 2B") have first mechanical connecting means (20, 21) for holding electronic boxes; - wherein the at least one docking structure (2; 2A, 2A', 2A"; 2B, 2B', 2B") has first electrical connecting means (22, 23, 24) for electrical connection to the electronic boxes; and - wherein the electronic boxes are provided with mechanical mating connection means (30, 31) and electrical mating connection means (32, 33, 34) for respectively mechanically holding and electrically contacting a particular electronic box on the docking structure (2; 2A, 2A', 2A"; 2B, 2B', 2B") and/or the device carrier panel (1; 12, 13, 14; 16, 17, 18), characterized in that - the base plate in the area of the first mechanical connecting means (20, 21) is provided with heat contact surfaces (41, 43, 45) on which an electronic box that is engaged with the mechanical connecting means (20, 21) rests in heat-conducting contact with the underside (3") of a housing surface. - wherein the device carrier panel (1; 12, 13, 14; 16, 17, 18) is provided with at least one docking structure (2; 2A, 2A', 2A"; 2B, 2B', 2B"); - wherein a base plate of the device carrier panel (1; 12, 13, 14; 16, 17, 18) and preferably the at least one docking structure (2; 2A, 2A', 2A"; 2B, 2B', 2B") have first mechanical connecting means (20, 21) for holding electronic boxes; - wherein the at least one docking structure (2; 2A, 2A', 2A"; 2B, 2B', 2B") has first electrical connecting means (22, 23, 24) for electrical connection to the electronic boxes; and - wherein the electronic boxes are provided with mechanical mating connection means (30, 31) and electrical mating connection means (32, 33, 34) for respectively mechanically holding and electrically contacting a particular electronic box on the docking structure (2; 2A, 2A', 2A"; 2B, 2B', 2B") and/or the device carrier panel (1; 12, 13, 14; 16, 17, 18), - the base plate in the area of the first mechanical connecting means (20, 21) is provided with heat contact surfaces (41, 43, 45) on which an electronic box that is engaged with the mechanical connecting means (20, 21) rests in heat-conducting contact with the underside (3") of a housing surface.