mhurhangee/ep-ind-claims huggingface dataset:
A cutting tool comprising a coating on a substrate, wherein the coating comprises a first layer element, wherein the first layer element has an overall composition comprising the metal or metalloid elements aluminum, chromium, titanium, and silicon, wherein the metal or metalloid elements aluminum, chromium, titanium, and silicon define at least 99 at% of a total of the metal and metalloid elements in the first layer element wherein the first layer element comprises a number N lay of first layer element layers, wherein N lay is at least 2, wherein each of the first layer element layers is a nitride layer of the metal or metalloid elements aluminum, chromium, titanium and silicon, wherein the N lay first layer element layers comprise at least two different types of layers (22, 23), wherein the different types of layer (22, 23) at least differ in a silicon content, wherein a first type of the layers (22, 23) has a highest silicon content C Si,H expressed in at.%, relative to a total of the metal and metalloid elements, and wherein a second type of the layers (22, 23) has a lowest silicon content C Si,L expressed in at%, relative to a total of the metal and metalloid elements, wherein a ratio of the lowest silicon content C Si,L to the highest silicon content C Si,H is selected from the range of 0.25≤C Si,L /C Si,H ≤0.9; wherein a thickness of the first layer element is selected from the range of 1-12 μm; wherein in the first layer element, relative to a total of the metal and the metalloid elements - aluminum is available in the range of 72-77 at.%, - titanium is available in the range of 5-11 at.%, - chromium is available in the range of 13-20 at.%, and - silicon is available in the range of 0.7-1.7 at.%. - aluminum is available in the range of 72-77 at.%, - titanium is available in the range of 5-11 at.%, - chromium is available in the range of 13-20 at.%, and - silicon is available in the range of 0.7-1.7 at.%.
A device for defining a generic movement sequence (Tx) on a generic model (m1-m3), which comprises: - means for acquiring (40, 45) the position (Pr) of a reference element moving over a surface; said reference element being configured to perform an actual movement sequence (Tr); - means for recording (41, 46) said sequence of actual movements (Tr); - means for acquiring a three-dimensional representation (Re) of said surface; - means for adapting said generic model (m1-m3) to said three-dimensional representation (Re) of said surface; and - means for defining (42,47) a generic movement sequence (Tx) on said generic model (m1-m3) by applying, to said real movement sequence (Tr), said adaptation between said generic model (m1-m3) and said three-dimensional representation (Re) of said surface. - means for acquiring (40, 45) the position (Pr) of a reference element moving over a surface; said reference element being configured to perform an actual movement sequence (Tr); - means for recording (41, 46) said sequence of actual movements (Tr); - means for acquiring a three-dimensional representation (Re) of said surface; - means for adapting said generic model (m1-m3) to said three-dimensional representation (Re) of said surface; and - means for defining (42,47) a generic movement sequence (Tx) on said generic model (m1-m3) by applying, to said real movement sequence (Tr), said adaptation between said generic model (m1-m3) and said three-dimensional representation (Re) of said surface.
A method for preparing a specimen for MALDI mass spectrometry for quantitative analysis of a polymer, using an electrospray apparatus comprising a main nozzle for electrospray of a polymer sample which is a mixed solution of a polymer compound, a matrix and a solvent, and a sample plate on which the specimen is placed by electrospray of the polymer sample, the method comprising the steps of: mounting a mask on the sample plate; performing electrospray of the polymer sample from the main nozzle onto the sample plate provided with the mask; and obtaining the specimen of the polymer compound on the sample plate, wherein the mask comprises a hole through which the polymer sample to be electrosprayed from the main nozzle can be passed to the sample plate and only the center of the jetting region of the sample electrosprayed through the mask is selected so that a thickness deviation in the specimen is 30% or less, and wherein the step of electrospraying the polymer sample from the main nozzle onto the sample plate further comprises (i) spraying the solvent from an auxiliary nozzle surrounding the main nozzle and coaxial with the main nozzle, so as to prevent the matrix from being deposited in the vicinity of the main nozzle, and (ii) jetting a sheath gas through a sheath gas supply pipe so that the sheath gas guides the polymer sample to be sprayed onto the predetermined position of the sample plate. mounting a mask on the sample plate; performing electrospray of the polymer sample from the main nozzle onto the sample plate provided with the mask; and obtaining the specimen of the polymer compound on the sample plate, wherein the mask comprises a hole through which the polymer sample to be electrosprayed from the main nozzle can be passed to the sample plate and only the center of the jetting region of the sample electrosprayed through the mask is selected so that a thickness deviation in the specimen is 30% or less, and wherein the step of electrospraying the polymer sample from the main nozzle onto the sample plate further comprises (i) spraying the solvent from an auxiliary nozzle surrounding the main nozzle and coaxial with the main nozzle, so as to prevent the matrix from being deposited in the vicinity of the main nozzle, and (ii) jetting a sheath gas through a sheath gas supply pipe so that the sheath gas guides the polymer sample to be sprayed onto the predetermined position of the sample plate.
Method for applying an adhesive layer to a sensor device, comprising the steps: a) Placing a stencil on the sensor device, wherein the stencil has a stencil opening and the stencil opening is arranged on a surface of the sensor device; b) Filling the stencil opening with a gel-like compound in order to cover the surface of the sensor device within the stencil opening; c) Allowing the compound to harden in order to form the adhesive layer, characterised in that in step b) the sensor device and the stencil are arranged such that said surface faces upwards and is horizontal, and wherein, before and/or during hardening of the compound, a uniform height of the compound is formed, under the influence of gravity, in the stencil opening on a free upper side of the compound. a) Placing a stencil on the sensor device, wherein the stencil has a stencil opening and the stencil opening is arranged on a surface of the sensor device; b) Filling the stencil opening with a gel-like compound in order to cover the surface of the sensor device within the stencil opening; c) Allowing the compound to harden in order to form the adhesive layer,
RF multi connector system comprising a multi plug connector and a multi socket connector, the multi plug connector comprises a plug connector housing, the plug connector housing further comprising a connector support protrusion having a plurality of connector recesses, the plurality of connector recesses each holding a first coaxial RF connector, each first RF connector comprising an center conductor and an outer conductor; the multi socket connector comprises a socket connector housing, the socket connector housing further comprising a connector support recess, the connector support recess holding a plurality of second coaxial RF connectors, wherein the multi plug connector matches to the multi socket connector such that the connector support protrusion fits into the connector support recess, and the plurality of first coaxial RF connectors matches to the plurality of second coaxial RF connectors, each second RF connector comprising an center conductor and an outer conductor; at least one housing seal is provided between the plug connector housing and the socket connector housing; characterized in, that at least one of the plurality of first coaxial RF connectors comprises a first sealing between a shaft of the at least one of the plurality of first coaxial RF connectors and the plug connector housing, at least one of the plurality of second coaxial RF connectors comprises a second sealing between a shaft of the at least one of the plurality of second coaxial RF connectors and the socket connector housing. the multi plug connector comprises a plug connector housing, the plug connector housing further comprising a connector support protrusion having a plurality of connector recesses, the plurality of connector recesses each holding a first coaxial RF connector, each first RF connector comprising an center conductor and an outer conductor; the multi socket connector comprises a socket connector housing, the socket connector housing further comprising a connector support recess, the connector support recess holding a plurality of second coaxial RF connectors, wherein the multi plug connector matches to the multi socket connector such that the connector support protrusion fits into the connector support recess, and the plurality of first coaxial RF connectors matches to the plurality of second coaxial RF connectors, each second RF connector comprising an center conductor and an outer conductor; at least one housing seal is provided between the plug connector housing and the socket connector housing; characterized in, that at least one of the plurality of first coaxial RF connectors comprises a first sealing between a shaft of the at least one of the plurality of first coaxial RF connectors and the plug connector housing, at least one of the plurality of second coaxial RF connectors comprises a second sealing between a shaft of the at least one of the plurality of second coaxial RF connectors and the socket connector housing.
A method for producing material panels, such as chipboard, particle board, fibreboard or similar wood-based panels and plastic panels, using a press, from scattered material, wherein a compressed material mat made of the scattered material is scattered by means of a scattering device on an endlessly revolving shaping belt and the compressed material mat, during the course of the transport to the press, is compacted on its narrow sides in the direction of the longitudinal central axis of the compressed material mat by means of a compaction device by a displacement of the narrow sides transversely to the production direction, and wherein the narrow sides are trimmed using a trimming device before the compaction device in the production direction.
Method of probabilistic symmetric encryption of a plaintext message element (x) with the aid of a secret key that can be represented in the form of a matrix of dimension (k, n), comprising the following steps: - a step of encoding the plaintext message element (x) as a code word (C(x)) with the aid of an error correcting code having a given correction capacity (t); - a step of encrypting the code word (C(x)), during which the result of a product of the secret matrix and of a random vector (a) of dimension k is added to the code word (C(x)), - a computation step during which a noise vector (ε) is added to the encrypted code word ( C ( x)⊕ a·M) so as to obtain an encrypted message element ( y = C ( x)⊕ a·M ⊕ ε) coupled to the random vector (a), said method being characterized in that it comprises a test step for verifying whether the Hamming weight of the noise vector (ε) generated is less than or equal to the correction capacity (t) and, if the test is negative, a new noise vector is generated. - a step of encoding the plaintext message element (x) as a code word (C(x)) with the aid of an error correcting code having a given correction capacity (t); - a step of encrypting the code word (C(x)), during which the result of a product of the secret matrix and of a random vector (a) of dimension k is added to the code word (C(x)), - a computation step during which a noise vector (ε) is added to the encrypted code word ( C ( x)⊕ a·M) so as to obtain an encrypted message element ( y = C ( x)⊕ a·M ⊕ ε) coupled to the random vector (a), said method being characterized in that it comprises a test step for verifying whether the Hamming weight of the noise vector (ε) generated is less than or equal to the correction capacity (t) and, if the test is negative, a new noise vector is generated.
A method of tracking proximity relationships between portions of at least one bio-molecule comprising a long nucleic acid molecule having a higher order nucleic acid structure, the method comprising: contacting a solution comprising the at least one bio-molecule with a body comprising at least two capture probes, wherein each capture probe comprises a barcode and a capture domain, and wherein the at least two capture probes are releasable via at least one cleavable linker, such that the at least two capture probes bind to their respective portions of the at least one bio-molecule via their respective capture domains, and releasing the at least two capture probes by cleaving the at least one cleavable linker, wherein the at least two capture probes remain bound to their respective portions of the at least one bio-molecule subsequent to release such that the presence of the at least two capture probes on their respective portions of the at least one biomolecule indicates a proximity relationship between the portions of the at least one bio-molecule.
An information processing device for processing detection information obtained by detection of an object at a periphery of a mobile body to construct an occupied map as a map indicating an occupation probability at a periphery of a movement path of the mobile body, comprising: a detection section configured to acquire, by emitting beams to the periphery of the mobile body, a presence or absence of the object as the detection information on each beam; a control section configured to control the detection section; and a map construction section configured to construct the occupied map, wherein the map construction section includes a storage configured to store, in chronological order, the detection information acquired by the detection section, a map producer configured to produce a temporal map of the periphery of the mobile body based on the detection information stored in the storage, a normal line acquirer configured to acquire, by setting multiple determination points (Pj) on each beam in the detection information, a normal line to each determination point (Pj) based on the presence or absence of the object at a periphery of each determination point (Pj) on the temporal map produced by the map producer, and a validity determinator configured to determine a validity of the detection information on each determination point (Pj) based on a size of an incident angle as an angle between each beam and the normal line at each determination point (Pj), and the map producer constructs the occupied map by means of the detection information on which the validity of each determination point (Pj) is reflected. a detection section configured to acquire, by emitting beams to the periphery of the mobile body, a presence or absence of the object as the detection information on each beam; a control section configured to control the detection section; and a map construction section configured to construct the occupied map, wherein the map construction section includes a storage configured to store, in chronological order, the detection information acquired by the detection section, a map producer configured to produce a temporal map of the periphery of the mobile body based on the detection information stored in the storage, a normal line acquirer configured to acquire, by setting multiple determination points (Pj) on each beam in the detection information, a normal line to each determination point (Pj) based on the presence or absence of the object at a periphery of each determination point (Pj) on the temporal map produced by the map producer, and a validity determinator configured to determine a validity of the detection information on each determination point (Pj) based on a size of an incident angle as an angle between each beam and the normal line at each determination point (Pj), and the map producer constructs the occupied map by means of the detection information on which the validity of each determination point (Pj) is reflected.
A positive electrode active material for all-solid-state lithium secondary battery, comprising: a positive electrode active substance and a sodium thiosulfate coating layer coating a surface of the positive electrode active substance, wherein a mass percentage of the sodium thiosulfate coating layer in the positive electrode active material is 1% to 30%, wherein the sodium thiosulfate coating layer is a continuous amorphous membrane layer on the surface of the positive electrode active substance, wherein the continuous amorphous membrane layer is obtainable by planetary ball milling, and wherein the positive electrode active substance layer further comprises a solid-state electrolyte.
Soluble human Fc gamma receptor for use in a method of treatment of autoimmune bullous diseases in a subject, wherein the receptor consists of the amino acid sequence shown in SEQ ID No: 1 or 11.
A catheter (100, 300) comprising: a distal tip; a polymeric flexible distal end tube (102, 302) comprising a substantially linear state and an irregularly coiled state, said polymeric flexible distal tube comprising a lumen, an inner surface defining said lumen and an outer surface, wherein the inner surface is eccentric to the outer surface; an inner mandrel removably received in said lumen and configured to provide column strength to the polymeric flexible distal end tube in said substantially linear state; and an actuating mechanism configured to transfer the polymeric flexible distal end tube from said substantially linear state to said irregularly coiled state. a distal tip; a polymeric flexible distal end tube (102, 302) comprising a substantially linear state and an irregularly coiled state, said polymeric flexible distal tube comprising a lumen, an inner surface defining said lumen and an outer surface, wherein the inner surface is eccentric to the outer surface; an inner mandrel removably received in said lumen and configured to provide column strength to the polymeric flexible distal end tube in said substantially linear state; and an actuating mechanism configured to transfer the polymeric flexible distal end tube from said substantially linear state to said irregularly coiled state.
A method for receiving data over a communication channel, the method comprising: accessing a first set of vectors of values, wherein each vector of the first set is generated on the basis of the demodulation of a carrier signal into a plurality of sub-carrier signals, the carrier signal having been received over a communication channel over a contiguous time period; accessing a second set of vectors of values, wherein each vector in the second set is generated on the basis of a channel frequency response of the communication channel over the contiguous time period; and evaluating an inference model based on machine learning techniques on the basis of the first and second sets of vectors whereby to determine an output vector of values, each value of the output vector estimating a data value transmitted by the carrier signal over the contiguous time period, characterised in that the method further comprises: determining an interference condition of the communication channel, wherein the interference condition comprises one of self-interference and co-channel interference; and selecting the inference model from a set of inference models on the basis of the interference condition. accessing a first set of vectors of values, wherein each vector of the first set is generated on the basis of the demodulation of a carrier signal into a plurality of sub-carrier signals, the carrier signal having been received over a communication channel over a contiguous time period; accessing a second set of vectors of values, wherein each vector in the second set is generated on the basis of a channel frequency response of the communication channel over the contiguous time period; and evaluating an inference model based on machine learning techniques on the basis of the first and second sets of vectors whereby to determine an output vector of values, each value of the output vector estimating a data value transmitted by the carrier signal over the contiguous time period, characterised in that the method further comprises: determining an interference condition of the communication channel, wherein the interference condition comprises one of self-interference and co-channel interference; and selecting the inference model from a set of inference models on the basis of the interference condition. determining an interference condition of the communication channel, wherein the interference condition comprises one of self-interference and co-channel interference; and selecting the inference model from a set of inference models on the basis of the interference condition.
A computer implemented method of analysing packet traffic within a data communication network, the method comprising: identifying a plurality of time stamped packet records originating from a data source within the data communication network, the plurality of time stamped packet records being ordered according to the order in which the packet traffic is transmitted by the data source; at least a first time stamped packet record being within a first time period having a first duration and a second time stamped packet record being within a second different time period having a second duration and differences between successive packet timestamps being the same as they were at the data source; within each of the first time period and the second time period computing a volume of data carried by the plurality of time stamped packet records defined wholly within that time period, the volume of data carried by the plurality of time stamped packet records being identical to the volume of corresponding data originating from the data source; computing a lower bound on the source transmission rate by evaluating a ratio of the volume of data within a time duration defined for each of the first time period and the second time period and a defining a peak transmission rate as the greater of the first ratio and the second ratio. identifying a plurality of time stamped packet records originating from a data source within the data communication network, the plurality of time stamped packet records being ordered according to the order in which the packet traffic is transmitted by the data source; at least a first time stamped packet record being within a first time period having a first duration and a second time stamped packet record being within a second different time period having a second duration and differences between successive packet timestamps being the same as they were at the data source; within each of the first time period and the second time period computing a volume of data carried by the plurality of time stamped packet records defined wholly within that time period, the volume of data carried by the plurality of time stamped packet records being identical to the volume of corresponding data originating from the data source; computing a lower bound on the source transmission rate by evaluating a ratio of the volume of data within a time duration defined for each of the first time period and the second time period and a defining a peak transmission rate as the greater of the first ratio and the second ratio.