mhurhangee/patent-ind-claim-en huggingface dataset:
A carbon fiber composite material comprising: a plurality of cell structures with an elastomer surrounded by a first carbon nanofiber and an interface phase thereof; a plurality of cell structure assemblies as assemblies of more than one of the cell structures; and a plurality of tie structures that joins the cell structure assemblies to each other, wherein the tie structures are formed by one or more first carbon nanofibers, one or more second carbon nanofibers, and an elastomer interface phase formed around the one or more first carbon nanofibers and the one or more second carbon nanofibers; wherein the elastomer is fluororubber or nitrile rubber; wherein the first carbon nanofibers and the second carbon nanofibers are selected from carbon nanofibers with an average diameter of 0.5 nm to 6 nm, 9 nm to 40 nm, and 60 nm to 500 nm; wherein the average diameter of the first carbon nanofiber is different from the average diameter of the second carbon nanofiber; and wherein the average diameter of the first carbon nanofibers and the second carbon nanofibers is obtained as the arithmetic mean value of diameters measured at at least 200 points using an electron micrograph with the magnification appropriately varied according to the size of the carbon nanofibers. a plurality of cell structures with an elastomer surrounded by a first carbon nanofiber and an interface phase thereof; a plurality of cell structure assemblies as assemblies of more than one of the cell structures; and a plurality of tie structures that joins the cell structure assemblies to each other, wherein the tie structures are formed by one or more first carbon nanofibers, one or more second carbon nanofibers, and an elastomer interface phase formed around the one or more first carbon nanofibers and the one or more second carbon nanofibers; wherein the elastomer is fluororubber or nitrile rubber; wherein the first carbon nanofibers and the second carbon nanofibers are selected from carbon nanofibers with an average diameter of 0.5 nm to 6 nm, 9 nm to 40 nm, and 60 nm to 500 nm; wherein the average diameter of the first carbon nanofiber is different from the average diameter of the second carbon nanofiber; and wherein the average diameter of the first carbon nanofibers and the second carbon nanofibers is obtained as the arithmetic mean value of diameters measured at at least 200 points using an electron micrograph with the magnification appropriately varied according to the size of the carbon nanofibers.
A machine for processing a web material having: An unwinding roller from which the web material is pulled off; a winding roller on which the web material is wound, or a punch that divides the web material into web sections; at least one apparatus, arranged between the unwinding roller and winding roller or punch, for processing (3.1 to 3.4) the web material passing from the unwinding roller to the winding roller or punch, wherein before the winding roller or punch, there is an arrangement consisting of a roller and a counter roller rolling on the circumference of the roller, wherein the roller has at least one outer layer consisting of electrically conductive material that is connected to ground, the counter roller has an outer layer consisting of semiconductor material, there is an apparatus for transmitting an electrical charge to the outer layer of the counter roller , an electrical high voltage source with a positive polarity is connected to the apparatus for transmitting an electrical charge in order to supply the positive charge to the outer layer of the counter roller and to dissipate a negative charge of the web material before being wound on the winding roller or cut up into web sections, characterized in that the arrangement consisting of the roller and counter roller is arranged between the last apparatus in the throughput direction of the web material for processing the web material and the winding roller or punch.
A back pack for an underwater breathing gas tank comprising: a tank mounting structure having a front surface facing away from an underwater breathing gas tank when an underwater breathing gas tank is operably mounted to the tank mounting structure , the tank mounting structure defining a recess , the front surface defining an opening of the recess , the tank mounting structure defining a bottom surface of the recess opposite the opening in the front surface ; a strap ; a buckle having a latched state for securing the strap in a fixed position for securing a underwater breathing gas tank to the tank mounting structure , the buckle , when in a latched state, positioned at least partially within the recess , characterized in that the tank mounting structure includes a first mounting plate defining, at least in part, the recess and a second mounting plate defining at least in part, the bottom of the recess opposite the opening in the front surface. a tank mounting structure having a front surface facing away from an underwater breathing gas tank when an underwater breathing gas tank is operably mounted to the tank mounting structure , the tank mounting structure defining a recess , the front surface defining an opening of the recess , the tank mounting structure defining a bottom surface of the recess opposite the opening in the front surface ; a strap ; a buckle having a latched state for securing the strap in a fixed position for securing a underwater breathing gas tank to the tank mounting structure , the buckle , when in a latched state, positioned at least partially within the recess ,
A composite tube comprising: a first layer including electrically conductive material; a stranded wire; a second layer including electrically conductive material, wherein a portion of the stranded wire is embedded between a portion of the first layer and a portion of the second layer, and wherein the electrically conductive material comprises a woven fiber or fabric tape. a first layer including electrically conductive material; a stranded wire; a second layer including electrically conductive material, wherein a portion of the stranded wire is embedded between a portion of the first layer and a portion of the second layer, and wherein the electrically conductive material comprises a woven fiber or fabric tape.
A data processing method, wherein the method is applied to a switching device in a data center network, and the method comprises: receiving routing information that is corresponding to a specified calculation task and that is sent by a controller, wherein the routing information is used to indicate data forwarding paths between a plurality of computing nodes which are configured to execute the specified calculation task and a target switching device determined by the controller from switching devices configured to connect to the plurality of computing nodes; receiving a combining type that is corresponding to the specified calculation task and that is sent by the controller; combining data reported by the plurality of computing nodes based on the combining type; and sending combined data based on the routing information. receiving routing information that is corresponding to a specified calculation task and that is sent by a controller, wherein the routing information is used to indicate data forwarding paths between a plurality of computing nodes which are configured to execute the specified calculation task and a target switching device determined by the controller from switching devices configured to connect to the plurality of computing nodes; receiving a combining type that is corresponding to the specified calculation task and that is sent by the controller; combining data reported by the plurality of computing nodes based on the combining type; and sending combined data based on the routing information.
A method performed by a terminal which communicates with a base station , the method comprising: receiving a RRC Connection Setup Request message from the base station , the RRC Connection Setup Request message including first identification information indicating an initial cyclic prefix length of a cyclic prefix part to be inserted into a plurality of blocks which constitutes a subframe; determining the initial cyclic prefix length of the cyclic prefix part to be inserted into the plurality of blocks based on the first identification information, and setting the determined initial cyclic prefix length as a cyclic prefix length that is currently set in the terminal; receiving DCI, Downlink Control Information, in data parts of a desired number of blocks from the top of the subframe from the base station after receiving the RRC Connection Setup Request message, the DCI including second identification information identifying a difference between a cyclic prefix length of the cyclic prefix part to be inserted into the plurality of blocks which constitutes the subframe and the cyclic prefix length that is currently set in the terminal; and determining the cyclic prefix length of the cyclic prefix part to be inserted into the plurality of blocks based on the first identification information and the second identification information, wherein each of the blocks includes the cyclic prefix part and a data part being inserted either before or after the cyclic prefix part. receiving a RRC Connection Setup Request message from the base station , the RRC Connection Setup Request message including first identification information indicating an initial cyclic prefix length of a cyclic prefix part to be inserted into a plurality of blocks which constitutes a subframe; determining the initial cyclic prefix length of the cyclic prefix part to be inserted into the plurality of blocks based on the first identification information, and setting the determined initial cyclic prefix length as a cyclic prefix length that is currently set in the terminal; receiving DCI, Downlink Control Information, in data parts of a desired number of blocks from the top of the subframe from the base station after receiving the RRC Connection Setup Request message, the DCI including second identification information identifying a difference between a cyclic prefix length of the cyclic prefix part to be inserted into the plurality of blocks which constitutes the subframe and the cyclic prefix length that is currently set in the terminal; and determining the cyclic prefix length of the cyclic prefix part to be inserted into the plurality of blocks based on the first identification information and the second identification information, wherein each of the blocks includes the cyclic prefix part and a data part being inserted either before or after the cyclic prefix part.
A method for reliable computation of a program P, wherein an output of said program P is computed by a computing unit on the basis of at least one input from at least one provider, wherein a verifier generates a public verification key vk p and a public evaluation key ek p , both on the basis of said program P, wherein the verifier provides a number N at random and sends it to the at least one provider, wherein the at least one provider produces at least one output S i concatenated with the number N and produces a signature Σ i over a corresponding input into the at least one provider and/or a corresponding data within the at least one provider, both the input and/or the data signed under a secret key sk i , so that a pair of output and signature (S i , Σ i ) is transmitted to the computing unit, wherein the computing unit computes program P over S i resulting in y = P(S 1 ,..., S n ), provides a cryptographic argument under use of the public evaluation key ek p stating that - every input into the at least one provider and/or data within the at least one provider is authenticated by the provider with a valid signature Σ i and - y is computed by evaluating the program P on the values S 1 ,..., S n , that is y = P(S 1 ,..., S n ), and sends y and provides and sends a proof π y of the correctness of y to the verifier and wherein the verifier verifies the proof π y using the public verification key vk p and rejects y, if the proof verification fails. - every input into the at least one provider and/or data within the at least one provider is authenticated by the provider with a valid signature Σ i and - y is computed by evaluating the program P on the values S 1 ,..., S n , that is y = P(S 1 ,..., S n ),
A computer-implemented method for visualizing tube current modulations in a patient scan, the method comprising: accessing one or more x-ray tube current values for a portion of the patient scan, the one or more x-ray tube current values corresponding to x-ray tubes used to perform the portion of the patient scan; mapping the accessed one or more x-ray tube current values to an area of a scout scan associated with the patient scan; and applying a transformation function to the area of the scout scan to yield a transformed scout scan, the transformation function based on the accessed tube current values; wherein the area of the transformed scout scan contrasts adjacent other areas of the scout scan when displayed to a user. mapping the accessed one or more x-ray tube current values to an area of a scout scan associated with the patient scan; and applying a transformation function to the area of the scout scan to yield a transformed scout scan, the transformation function based on the accessed tube current values; wherein the area of the transformed scout scan contrasts adjacent other areas of the scout scan when displayed to a user.
Method for the production of proteins comprising the following steps: (a) providing a fermentation medium comprising from 0.01 to 30 wt.-% cellulose; (b) degermination of the fermentation medium; (c) adding at least one filamentous fungus cell to the medium; (d) adding from 0.01 to 35 wt.-% of glucose and/or saccharose over a period of at least 1 hour; (e) adding from 0.1 to 10000 FPU cellulase per kg fermentation medium to the medium wherein the at least one filamentous fungus cell is a recombinant cell and wherein the at least one filamentous fungus cell is a cell wherein the expression level of one or more cellulases has been reduced and/or one or more cellulase encoding genes have been knocked out. (a) providing a fermentation medium comprising from 0.01 to 30 wt.-% cellulose; (b) degermination of the fermentation medium; (c) adding at least one filamentous fungus cell to the medium; (d) adding from 0.01 to 35 wt.-% of glucose and/or saccharose over a period of at least 1 hour; (e) adding from 0.1 to 10000 FPU cellulase per kg fermentation medium to the medium
A method for manufacturing of one or more 3D products by additive manufacturing using a layer-by-layer technique using a 3D printing device , said 3D printing device comprising at least one layer applying unit for depositing a plurality of material layers, a support arranged to receive said material layers, and a layer bonding unit for binding selected portions of said material layers together such that said one or more 3D products are formed, said method comprising the steps of; - depositing said material layers forming a bulk material volume (51, 51', 51"); whereby said material used in said material layers is evaluated to establish the angle of repose of said material, said at least one layer applying unit applies said material layers parallel to said support , said plurality of material layers being deposited such that at least one side of the bulk material volume (51, 51', 51") has an angle (α) with respect to said support that is equal to, or lower, than the angle of repose for the material used for said plurality of material layers and said material layers being applied such that said bulk material volume (51, 51', 51") comprises a base portion and a top portion , and whereby said bulk material volume (51, 51', 51") is formed such that said top portion is smaller than said base portion . said method comprising the steps of; - depositing said material layers forming a bulk material volume (51, 51', 51"); - depositing said material layers forming a bulk material volume (51, 51', 51"); whereby said material used in said material layers is evaluated to establish the angle of repose of said material, said at least one layer applying unit applies said material layers parallel to said support , said plurality of material layers being deposited such that at least one side of the bulk material volume (51, 51', 51") has an angle (α) with respect to said support that is equal to, or lower, than the angle of repose for the material used for said plurality of material layers and said material layers being applied such that said bulk material volume (51, 51', 51") comprises a base portion and a top portion , and whereby said bulk material volume (51, 51', 51") is formed such that said top portion is smaller than said base portion .
A method of manufacturing a thermoplastic polyurethane (TPU) infused material for use in construction of a shoe , the method comprising: applying TPU in a liquid form to at least one surface of a flexible mesh material, by submersion of the material in a liquid PTU, to form a TPU infused material ; curing the TPU infused material ; cutting the TPU infused material into a pattern useable in construction of the shoe ; and heat molding the pattern of TPU infused material to form a molded portion .
A transport refrigeration system comprising: a natural gas engine ; a compressed natural gas storage tank , characterized by further comprising: an artificial aspiration device providing decompressed natural gas and compressed air to the natural gas engine, the artificial aspiration device comprising: a turbine assembly comprising a turbine housing , at least one turbine enclosed within the turbine housing, a compressed natural gas inlet in the turbine housing and a decompressed natural gas outlet in the turbine housing; a compressor assembly comprising a compressor housing , at least one compressor enclosed within the compressor housing, an air inlet in the compressor housing and a hot compressed air outlet in the compressor housing; and a drive system mechanically connecting the at least one turbine to the at least one compressor; an electric generation device powered by the natural gas engine and providing an electric output; and a refrigeration unit electrically powered by the electric output of the electric generation device. a natural gas engine ; a compressed natural gas storage tank , characterized by further comprising: an artificial aspiration device providing decompressed natural gas and compressed air to the natural gas engine, the artificial aspiration device comprising: a turbine assembly comprising a turbine housing , at least one turbine enclosed within the turbine housing, a compressed natural gas inlet in the turbine housing and a decompressed natural gas outlet in the turbine housing; a compressor assembly comprising a compressor housing , at least one compressor enclosed within the compressor housing, an air inlet in the compressor housing and a hot compressed air outlet in the compressor housing; and a drive system mechanically connecting the at least one turbine to the at least one compressor; a turbine assembly comprising a turbine housing , at least one turbine enclosed within the turbine housing, a compressed natural gas inlet in the turbine housing and a decompressed natural gas outlet in the turbine housing; a compressor assembly comprising a compressor housing , at least one compressor enclosed within the compressor housing, an air inlet in the compressor housing and a hot compressed air outlet in the compressor housing; and a drive system mechanically connecting the at least one turbine to the at least one compressor; an electric generation device powered by the natural gas engine and providing an electric output; and a refrigeration unit electrically powered by the electric output of the electric generation device.
Robotic cleaning device comprising: a main body ; at least one driving wheel arranged to move the robotic cleaning device across a surface to be cleaned; driving means arranged to control the at least one driving wheel to rotate in order to move the robotic cleaning device across the surface to be cleaned; control means arranged to control the driving means to move the robotic cleaning device across the surface to be cleaned in accordance with navigation information; and a cleaning member arranged at a bottom side of the main body for removing debris from the surface to be cleaned characterized in that the cleaning member being arranged in a front end portion of the main body and in that the main body comprises at the front end portion , a horizontally protruding member on which a brush is arranged. a main body ; at least one driving wheel arranged to move the robotic cleaning device across a surface to be cleaned; driving means arranged to control the at least one driving wheel to rotate in order to move the robotic cleaning device across the surface to be cleaned; control means arranged to control the driving means to move the robotic cleaning device across the surface to be cleaned in accordance with navigation information; and a cleaning member arranged at a bottom side of the main body for removing debris from the surface to be cleaned characterized in that the cleaning member being arranged in a front end portion of the main body and in that the main body comprises at the front end portion , a horizontally protruding member on which a brush is arranged.
Imaging system for generating a measure of authenticity of an object , the imaging system comprising: one or more image sensors, the one or more image sensors being hereinafter referred to as "image sensor arrangement" ; and one or more optical elements, the one or more optical elements being hereinafter referred to as "dispersive imaging arrangement" , wherein the dispersive imaging arrangement is so that, when electromagnetic radiation from the object illuminates the dispersive imaging arrangement , at least part of the electromagnetic radiation is dispersed; and positioned relative to the image sensor arrangement in such a manner as to allow the image sensor arrangement to image said dispersed electromagnetic radiation ; the imaging system being configured for, after the image sensor arrangement has, in at least one imaging period, imaged the dispersed electromagnetic radiation, generating a measure of authenticity of the object depending at least on a relation between the imaged dispersed electromagnetic radiation and reference spectral information, characterised in that a synthetic non-dispersed image computed using the imaged dispersed electromagnetic radiation and the reference spectral information is used in the generating of the measure of authenticity of the object. one or more image sensors, the one or more image sensors being hereinafter referred to as "image sensor arrangement" ; and one or more optical elements, the one or more optical elements being hereinafter referred to as "dispersive imaging arrangement" , wherein the dispersive imaging arrangement is so that, when electromagnetic radiation from the object illuminates the dispersive imaging arrangement , at least part of the electromagnetic radiation is dispersed; and positioned relative to the image sensor arrangement in such a manner as to allow the image sensor arrangement to image said dispersed electromagnetic radiation ; so that, when electromagnetic radiation from the object illuminates the dispersive imaging arrangement , at least part of the electromagnetic radiation is dispersed; and positioned relative to the image sensor arrangement in such a manner as to allow the image sensor arrangement to image said dispersed electromagnetic radiation ; the imaging system being configured for, after the image sensor arrangement has, in at least one imaging period, imaged the dispersed electromagnetic radiation, generating a measure of authenticity of the object depending at least on a relation between the imaged dispersed electromagnetic radiation and reference spectral information, characterised in that a synthetic non-dispersed image computed using the imaged dispersed electromagnetic radiation and the reference spectral information is used in the generating of the measure of authenticity of the object.