mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a plurality of tensor operation calculators each configured to perform a type of tensor operation of a plurality of types of tensor operations, each of the tensor operations corresponding to an operation involving one or more tensors; the plurality of tensor operation calculators comprising multiple instances of tensor operation calculators configured to perform a first type of the tensor operations; a plurality of tensor register files , each of the tensor register files being dedicated to one of the plurality of tensor operation calculators; and logic configured to store tensors in the plurality of tensor register files in accordance with the type of tensor operation to be performed on the respective tensors; wherein the logic is further configured to store multiple separate copies of tensors, for which the apparatus is to perform the first type of tensor operation, in each of the dedicated tensor register files that are associated with the multiple instances of the tensor operation calculators configured to perform the first type of tensor operation, to the exclusion of others of the plurality of tensor register files. a plurality of tensor operation calculators each configured to perform a type of tensor operation of a plurality of types of tensor operations, each of the tensor operations corresponding to an operation involving one or more tensors; the plurality of tensor operation calculators comprising multiple instances of tensor operation calculators configured to perform a first type of the tensor operations; a plurality of tensor register files , each of the tensor register files being dedicated to one of the plurality of tensor operation calculators; and logic configured to store tensors in the plurality of tensor register files in accordance with the type of tensor operation to be performed on the respective tensors; wherein the logic is further configured to store multiple separate copies of tensors, for which the apparatus is to perform the first type of tensor operation, in each of the dedicated tensor register files that are associated with the multiple instances of the tensor operation calculators configured to perform the first type of tensor operation, to the exclusion of others of the plurality of tensor register files.
A module comprising a base supporting a planar capacitor, an antenna, and a microcircuit electrically connected to each other to form a resonant electrical circuit, the capacitor including on a first face of the base a first electrode and a second electrode disposed on a second face opposite to said first face facing said first electrode, the second electrode and the first electrode having substantially the same shape, characterized in that each electrode has at least a first portion and a second portion disposed on either side of the turns of said antenna.
A method for authenticating solid objects, characterized in that authentication is performed by means of an electromagnetic acoustic transducer technique, wherein the method further comprises: - generating an excitation current in the form of a pulse, - generating a dynamic magnetic field for applying an electromotive force to the object to be authenticated, - generating an outer magnetic field in order to create a Lorentz force, - inducing eddy currents to the surfaces and edges of the object to be authenticated, thereby causing the lattice of the object to vibrate around its equilibrium position by means of the Lorentz force acting on the eddy currents, thus producing a mechanical wave propagating in the lattice of the object for inducing eddy currents by means of the propagating mechanical wave, - obtaining the object's structure specific voltage signal, - digitizing the object's structure specific voltage signal, - obtaining at least one characteristic feature from the object's digitized structure specific voltage signal, where the object's digitized structure specific voltage signal comprises the form of the signal between the voltage pulses, - authenticating the object by comparing said at least one characteristic feature to at least one corresponding characteristic feature obtained from at least one other object's digitized structure specific voltage signal. - generating an excitation current in the form of a pulse, - generating a dynamic magnetic field for applying an electromotive force to the object to be authenticated, - generating an outer magnetic field in order to create a Lorentz force, - inducing eddy currents to the surfaces and edges of the object to be authenticated, thereby causing the lattice of the object to vibrate around its equilibrium position by means of the Lorentz force acting on the eddy currents, thus producing a mechanical wave propagating in the lattice of the object for inducing eddy currents by means of the propagating mechanical wave, - obtaining the object's structure specific voltage signal, - digitizing the object's structure specific voltage signal, - obtaining at least one characteristic feature from the object's digitized structure specific voltage signal, where the object's digitized structure specific voltage signal comprises the form of the signal between the voltage pulses, - authenticating the object by comparing said at least one characteristic feature to at least one corresponding characteristic feature obtained from at least one other object's digitized structure specific voltage signal.
An electro-optical stimulation and recording system , comprising: a substrate ; a plurality of cell culture wells coupled to the substrate, wherein the plurality of cell culture wells and the substrate form a multiwell plate; a plurality of electrode arrays, each of the plurality of electrode arrays being positioned at a base of one of the plurality of cell culture wells, wherein each respective electrode array comprises a plurality of electrodes, each individual electrode of each respective electrode array being arranged to collect a respective electric signal associated with a respective portion of said one of the plurality of cell culture wells; characterized by an optical stimulation device comprising a plurality of light-emitting element sets , wherein each of the plurality of light-emitting element sets is attached to the optical stimulation device, each of the plurality of light-emitting element sets corresponding to one of the plurality of cell culture wells having an electrode array, each of the plurality of light-emitting element sets being configured to deliver optical stimulation to at least a portion of one of the plurality of cell culture wells, and wherein the optical stimulation device is detachably coupled to the multiwell plate; and a control and monitoring system operably connected to the plurality of electrode arrays, wherein the control and monitoring system is configured to control the optical stimulation device and to receive the respective electrical signal collected by each individual electrode of each respective electrode array. a substrate ; a plurality of cell culture wells coupled to the substrate, wherein the plurality of cell culture wells and the substrate form a multiwell plate; a plurality of electrode arrays, each of the plurality of electrode arrays being positioned at a base of one of the plurality of cell culture wells, wherein each respective electrode array comprises a plurality of electrodes, each individual electrode of each respective electrode array being arranged to collect a respective electric signal associated with a respective portion of said one of the plurality of cell culture wells; characterized by an optical stimulation device comprising a plurality of light-emitting element sets , wherein each of the plurality of light-emitting element sets is attached to the optical stimulation device, each of the plurality of light-emitting element sets corresponding to one of the plurality of cell culture wells having an electrode array, each of the plurality of light-emitting element sets being configured to deliver optical stimulation to at least a portion of one of the plurality of cell culture wells, and wherein the optical stimulation device is detachably coupled to the multiwell plate; and a control and monitoring system operably connected to the plurality of electrode arrays, wherein the control and monitoring system is configured to control the optical stimulation device and to receive the respective electrical signal collected by each individual electrode of each respective electrode array.
An EC motor having a stator in which an armature is rotatably mounted, wherein the armature comprises an armature shaft on which an armature plate stack having a plurality of permanent magnets is held, wherein the armature plate stack being electrically insulated with respect to the armature shaft by means of a casting compound , wherein the permanent magnets being held in pockets of the armature plate stack by means of casting compound , characterized in that a balancing ring is provided at at least one axial end of the armature plate stack which is accommodated with a central recess on the armature shaft , wherein a gap between the armature shaft and the central recess being filled with casting compound , in that the central recess of the balancing ring is used as a sprue channel in the form of the gap for the passage of casting compound into a gap between the armature plate stack and the armature shaft and into the pockets of the armature plate stack , and in that the outer diameter of each balancing ring corresponds to the outer diameter of the armature plate stack .
A tandem photovoltaic structure with 2 PIN-type terminals comprising from the rear face to the front face: - a first solar cell with a silicon heterojunction comprising a first P-type doped amorphous silicon layer and an N-type doped crystalline silicon substrate disposed between a first intrinsic amorphous silicon layer and a second intrinsic amorphous silicon layer , - a junction layer , - a second perovskite-type solar cell comprising a second P-type layer , an active layer made of a perovskite material and an N-type layer , characterised in that the junction layer is made of transparent conductive oxide (TCO), and in that the junction layer is in contact with the second intrinsic amorphous silicon layer of the first solar cell and with the second P-type layer of the second solar cell , the junction layer acting as an N-type layer in the first solar cell . - a first solar cell with a silicon heterojunction comprising a first P-type doped amorphous silicon layer and an N-type doped crystalline silicon substrate disposed between a first intrinsic amorphous silicon layer and a second intrinsic amorphous silicon layer , - a junction layer , - a second perovskite-type solar cell comprising a second P-type layer , an active layer made of a perovskite material and an N-type layer , characterised in that the junction layer is made of transparent conductive oxide (TCO), and in that the junction layer is in contact with the second intrinsic amorphous silicon layer of the first solar cell and with the second P-type layer of the second solar cell , the junction layer acting as an N-type layer in the first solar cell .
A clothing drying apparatus, comprising a cabinet assembly, a drying drum and a filter device; wherein the cabinet assembly comprises a front panel and a front support mechanism , the front support mechanism is arranged on the front panel , and the front panel is provided with a clothing throw-in port in communication with an interior of the drying drum ; the filter device comprises an annular filter member , a lint cleaning member and a lint collecting member; the annular filter member is arranged between the front support mechanism and the drying drum , the lint cleaning member and the lint collecting member are both arranged on the front support mechanism , and the annular filter member is arranged to be capable of rotating together with the drying drum ; and during the rotation of the annular filter member , the lint cleaning member can clean up the lint on the annular filter member , and the lint collecting member can collect the cleaned up lint, characterized in that the front support mechanism comprises a first support member and a second support member that are connected, at least one of the first support member and the second support member is arranged on the front panel , and the lint cleaning member and the lint collecting member are both arranged on the second support member ; and wherein the first support member and the second support member together form an annular cavity that communicates an air duct of the clothing drying apparatus with the interior of the drying drum ; the annular filter member is connected with the drying drum , and at least a part of the annular filter member is arranged inside the annular cavity . the filter device comprises an annular filter member , a lint cleaning member and a lint collecting member; the annular filter member is arranged between the front support mechanism and the drying drum , the lint cleaning member and the lint collecting member are both arranged on the front support mechanism , and the annular filter member is arranged to be capable of rotating together with the drying drum ; and during the rotation of the annular filter member , the lint cleaning member can clean up the lint on the annular filter member , and the lint collecting member can collect the cleaned up lint, characterized in that the front support mechanism comprises a first support member and a second support member that are connected, at least one of the first support member and the second support member is arranged on the front panel , and the lint cleaning member and the lint collecting member are both arranged on the second support member ; and wherein the first support member and the second support member together form an annular cavity that communicates an air duct of the clothing drying apparatus with the interior of the drying drum ; the annular filter member is connected with the drying drum , and at least a part of the annular filter member is arranged inside the annular cavity .
An electronic device comprising a heat dissipation coating composition; wherein the heat dissipation coating composition comprises a transparent coating layer deposited on a surface of the electronic device, wherein the coating layer comprises: a heat absorber selected from the group consisting of silica aerogel, carbon nanotube aerogel, graphene aerogel, and combinations thereof, a transparent resin selected from the group consisting of a polyacrylic resin, a polycarbonate resin, a cyclic olefin resin, an epoxy resin, a urethane resin, a silicone resin, a cyanoacrylate resin, a polyester resin, and combinations thereof, and a solvent; and a heat spreader layer deposited at least partially on top of the transparent coating layer or deposited on the surface of the electronic device adjacent to the transparent coating layer, wherein the heat spreader layer comprises: metallic or non-metallic particles selected from the group consisting of copper, aluminum, graphite, carbon nanotube, graphene on a metal, graphene, and combinations thereof; wherein the heat spreader layer is deposited to coat 50% or less of the top of the transparent coating layer; or wherein the heat spreader layer is deposited on the surface of the electronic device adjacent to the transparent coating layer spreader layer to coat 50% or less of the surface of the electronic device. a heat absorber selected from the group consisting of silica aerogel, carbon nanotube aerogel, graphene aerogel, and combinations thereof, a transparent resin selected from the group consisting of a polyacrylic resin, a polycarbonate resin, a cyclic olefin resin, an epoxy resin, a urethane resin, a silicone resin, a cyanoacrylate resin, a polyester resin, and combinations thereof, and a solvent; and a heat spreader layer deposited at least partially on top of the transparent coating layer or deposited on the surface of the electronic device adjacent to the transparent coating layer, wherein the heat spreader layer comprises: metallic or non-metallic particles selected from the group consisting of copper, aluminum, graphite, carbon nanotube, graphene on a metal, graphene, and combinations thereof; wherein the heat spreader layer is deposited to coat 50% or less of the top of the transparent coating layer; or wherein the heat spreader layer is deposited on the surface of the electronic device adjacent to the transparent coating layer spreader layer to coat 50% or less of the surface of the electronic device. metallic or non-metallic particles selected from the group consisting of copper, aluminum, graphite, carbon nanotube, graphene on a metal, graphene, and combinations thereof; wherein the heat spreader layer is deposited to coat 50% or less of the top of the transparent coating layer; or wherein the heat spreader layer is deposited on the surface of the electronic device adjacent to the transparent coating layer spreader layer to coat 50% or less of the surface of the electronic device.
An article comprising (a) a wood substrate having at least one major surface; (b) an anti grain puffing coating directly applied on the major surface of the wood substrate, formed from an aqueous dispersion of siloxane; and (c) one or more coatings applied on the anti grain puffing coating, formed from an aqueous coating composition, wherein the siloxane contains one or more hydrophobic group and one or more hydrophilic group chemically bonded to its molecule skeleton; wherein the siloxane has the following structure 1: in which R represents independently, at each occurrence, optionally substituted C1-C20 alkyl or C6-C10 aryl; X represents independently, at each occurrence, a hydrophilic group; m is an integer of greater than or equal to 1 and less than 50, n is an integer of greater than or equal to 1 and less than 50, and wherein the siloxane has a particle size in the range of 5 to 100 nm. (a) a wood substrate having at least one major surface; (b) an anti grain puffing coating directly applied on the major surface of the wood substrate, formed from an aqueous dispersion of siloxane; and (c) one or more coatings applied on the anti grain puffing coating, formed from an aqueous coating composition, wherein the siloxane contains one or more hydrophobic group and one or more hydrophilic group chemically bonded to its molecule skeleton; wherein the siloxane has the following structure 1: in which R represents independently, at each occurrence, optionally substituted C1-C20 alkyl or C6-C10 aryl; X represents independently, at each occurrence, a hydrophilic group; m is an integer of greater than or equal to 1 and less than 50, n is an integer of greater than or equal to 1 and less than 50, and wherein the siloxane has a particle size in the range of 5 to 100 nm.
Centrifugal pump having a pump impeller which is arranged in a casing , at least one cutting unit with a cutting face and a rotating cutting body being arranged in front of the inflow of the medium into an impeller wheel , the cutting face and the cutting body being braced against one another by way of a pressing force (F) axially in the direction of the rotational axis of the cutting body and the cutting face having openings , through which the medium flows, characterized in that the pressing force (F) is generated as a result of the rotation of the pump impeller .
A pressure vessel mounting system (200; 300; 700; 800) for mounting a pressure vessel (302; 330, 332, 334) to a vehicle chassis , the system comprising: a first end frame including a first end frame element ; a second end frame spaced a distance from the first end frame , the distance being sufficient to receive a pressure vessel between the first end frame and the second end frame ; a first side frame extending between the first end frame and the second end frame , the first side frame coupled to a first chassis rail of the vehicle chassis via the first end frame element ; a second side frame extending between the first end frame and the second end frame ; and a first impact dissipator ; characterized in that the first impact dissipator is disposed between the first end frame element and the first side frame . a first end frame including a first end frame element ; a second end frame spaced a distance from the first end frame , the distance being sufficient to receive a pressure vessel between the first end frame and the second end frame ; a first side frame extending between the first end frame and the second end frame , the first side frame coupled to a first chassis rail of the vehicle chassis via the first end frame element ; a second side frame extending between the first end frame and the second end frame ; and a first impact dissipator ; characterized in that the first impact dissipator is disposed between the first end frame element and the first side frame .
A method of barcoding target polynucleotides in a plurality of partitions with a set of combinatorial barcodes, wherein said method comprises: introducing a number of component barcodes in each of the plurality of partitions, wherein the component barcodes are selected from a set of component barcodes, wherein at least one of two or more component barcodes is immobilized on a solid support, wherein the component barcode immobilized on the solid support comprises a cellular label, wherein the cellular label is identical for all component barcodes immobilized on a given solid support, but is different for different solid supports, wherein a partition of the plurality of partitions comprises a single cell and a single solid support, wherein the partition is a droplet or a microwell; connecting two or more component barcodes in each of the plurality of partitions to each other to form a combinatorial barcode in the presence of a target polynucleotide from a sample by extending and/or amplifying the two or more component barcodes and target polynucleotide to generate a transcript and/or amplicon that comprises the sequences of the two or more component barcodes, wherein the two or more component barcodes each comprises a barcode subunit sequence, and wherein the combinatorial barcode comprises a first component barcode comprising a cellular label, selected from a first set of barcode subunit sequences, and a second component barcode comprising a unique molecular label, selected from a second set of barcode subunit sequences. introducing a number of component barcodes in each of the plurality of partitions, wherein the component barcodes are selected from a set of component barcodes, wherein at least one of two or more component barcodes is immobilized on a solid support, wherein the component barcode immobilized on the solid support comprises a cellular label, wherein the cellular label is identical for all component barcodes immobilized on a given solid support, but is different for different solid supports, wherein a partition of the plurality of partitions comprises a single cell and a single solid support, wherein the partition is a droplet or a microwell; connecting two or more component barcodes in each of the plurality of partitions to each other to form a combinatorial barcode in the presence of a target polynucleotide from a sample by extending and/or amplifying the two or more component barcodes and target polynucleotide to generate a transcript and/or amplicon that comprises the sequences of the two or more component barcodes, wherein the two or more component barcodes each comprises a barcode subunit sequence, and wherein the combinatorial barcode comprises a first component barcode comprising a cellular label, selected from a first set of barcode subunit sequences, and a second component barcode comprising a unique molecular label, selected from a second set of barcode subunit sequences.