mhurhangee/patent-ind-claim-en huggingface dataset:
A trusted data transmission method performed by a proxy service provider device, comprising: obtaining a data use request of a data requestor, wherein the data use request comprises a data type of needed data; obtaining authorization information of a data owner; generating a data authorization use claim based on the authorization information, wherein the data authorization use claim is used for indicating that the data owner authorizes the data requestor to use the data; sending the data authorization use claim to a trusted application, TAPP, in the proxy service provider device, wherein the TAPP corresponds to the data type of the needed data; obtaining initial data collected by the TAPP from a data acquisition address in the data authorization use claim, wherein the TAPP runs in a trusted execution environment, TEE, and is configured to collect the initial data; verifying the initial data to obtain target data that passes the verification, wherein the target data comprises a data validity claim, and the data validity claim is used for indicating the validity of the target data; and sending the target data to the data requestor. obtaining a data use request of a data requestor, wherein the data use request comprises a data type of needed data; obtaining authorization information of a data owner; generating a data authorization use claim based on the authorization information, wherein the data authorization use claim is used for indicating that the data owner authorizes the data requestor to use the data; sending the data authorization use claim to a trusted application, TAPP, in the proxy service provider device, wherein the TAPP corresponds to the data type of the needed data; obtaining initial data collected by the TAPP from a data acquisition address in the data authorization use claim, wherein the TAPP runs in a trusted execution environment, TEE, and is configured to collect the initial data; verifying the initial data to obtain target data that passes the verification, wherein the target data comprises a data validity claim, and the data validity claim is used for indicating the validity of the target data; and sending the target data to the data requestor.
A transport device for transporting a fluid, the transport device (400, ...) comprising... (a) a housing (410, ...), wherein the housing has a fluid inlet (411, 413, ...) and a fluid outlet (413, 411, ...); (b) an actuator (430, ...) comprising a magnetic shape-memory alloy, wherein the actuator (430, ...) is arranged at least in sections in the housing (410, ...); (c) a drive (450, ...) by which the actuator (430, ...) can be deformed in such a way that two cavities (635, 635', ...) for the fluid are formed in the actuator (430, ...), which cavities can be moved by the drive (450, ...) in order to transport the fluid in the cavities (635, 635', ...) from the fluid inlet (411, 413, ...) to the fluid outlet (413, 411, ...); (d) a sealing element (470, ...), wherein the sealing element (470, ...) has at least one recess (471, 472, 473, 474, ...), and wherein the sealing element (470, ...) is arranged in the housing (410, ...) in such a way that the cavities (635, 635', ...) are at least temporarily in fluid communication via the recess (471, 472, 473, 474, ...) during the transport of the fluid from the fluid inlet (411, 413, ...) to the fluid outlet (413, 411, ...). (a) a housing (410, ...), wherein the housing has a fluid inlet (411, 413, ...) and a fluid outlet (413, 411, ...); (b) an actuator (430, ...) comprising a magnetic shape-memory alloy, wherein the actuator (430, ...) is arranged at least in sections in the housing (410, ...); (c) a drive (450, ...) by which the actuator (430, ...) can be deformed in such a way that two cavities (635, 635', ...) for the fluid are formed in the actuator (430, ...), which cavities can be moved by the drive (450, ...) in order to transport the fluid in the cavities (635, 635', ...) from the fluid inlet (411, 413, ...) to the fluid outlet (413, 411, ...); (d) a sealing element (470, ...), wherein the sealing element (470, ...) has at least one recess (471, 472, 473, 474, ...), and wherein the sealing element (470, ...) is arranged in the housing (410, ...) in such a way that the cavities (635, 635', ...) are at least temporarily in fluid communication via the recess (471, 472, 473, 474, ...) during the transport of the fluid from the fluid inlet (411, 413, ...) to the fluid outlet (413, 411, ...).
A method performed by a remote unit, the method comprising: receiving an indication to handover from a first radio access network to a second radio access network; determining , after receiving the indication, that at least one data connection of the remote unit is unable to be transferred to the second radio access network; determining that the at least one data connection of the remote unit is able to be transferred to a third radio access network within a first time duration; and transmitting , within the first time duration, a data connection request to reestablish the at least one data connection over the third radio access network; wherein determining that the at least one data connection of the remote unit is unable to be transferred to the second radio access network comprises receiving information indicating that the at least one data connection does not have a data connection identifier for the second radio access network. receiving an indication to handover from a first radio access network to a second radio access network; determining , after receiving the indication, that at least one data connection of the remote unit is unable to be transferred to the second radio access network; determining that the at least one data connection of the remote unit is able to be transferred to a third radio access network within a first time duration; and transmitting , within the first time duration, a data connection request to reestablish the at least one data connection over the third radio access network; wherein determining that the at least one data connection of the remote unit is unable to be transferred to the second radio access network comprises receiving information indicating that the at least one data connection does not have a data connection identifier for the second radio access network.
A method for detecting a server fault, comprising: collecting (S1) sample monitoring data of a plurality of servers, the sample monitoring data signifying operating states of the plurality of servers; analyzing the sample monitoring data to obtain a standard operating fault which is an operating fault reflected by the sample monitoring data; performing training (S3), using a machine learning method based on the sample monitoring data, the standard operating fault and an initial detection mode, to obtain a fault detection model for the plurality of servers, wherein the initial detection model includes an initialized neural network, and the neurons in the initialized neural network have initial parameter values; and collecting (S5) current monitoring data of a target server, and inputting the current monitoring data into the fault detection model to determine an operating fault corresponding to the current monitoring data. collecting (S1) sample monitoring data of a plurality of servers, the sample monitoring data signifying operating states of the plurality of servers; analyzing the sample monitoring data to obtain a standard operating fault which is an operating fault reflected by the sample monitoring data; performing training (S3), using a machine learning method based on the sample monitoring data, the standard operating fault and an initial detection mode, to obtain a fault detection model for the plurality of servers, wherein the initial detection model includes an initialized neural network, and the neurons in the initialized neural network have initial parameter values; and collecting (S5) current monitoring data of a target server, and inputting the current monitoring data into the fault detection model to determine an operating fault corresponding to the current monitoring data.
Method for manufacturing and painting characters press formed on license plates, which method comprises: - at least one step of press forming said identifying characters on an aluminum plate which is a starting material provided on the front face thereof with a reflective film , including the simultaneous press forming of a perimetral edge or not, by means of using a hand- or motor-operated press forming machine or device; and - at least one step of thermal stamping which paints the upper part of the embossed characters press formed on the plate , and where applicable, of the perimetral edge , by means of the application of thermal-transfer ink impregnated in a thermal-transfer film placed on the already press formed plate and with a thermal stamping machine provided with rollers applying pressure and heat in a controlled manner to said assembly of press formed plate and film with thermal-transfer ink, characterized in that the step of thermal stamping for painting the upper part of the embossed characters , and where applicable, of the perimetral edge , comprises the following phases: - introducing the plate in a tubular film constituting said thermal-transfer film, - closing the open end or ends of said tubular film , - introducing the assembly , i.e., the tubular film and the plate arranged therein, in the thermal stamping machine , and - removing the finished plate from inside the tubular film . - at least one step of press forming said identifying characters on an aluminum plate which is a starting material provided on the front face thereof with a reflective film , including the simultaneous press forming of a perimetral edge or not, by means of using a hand- or motor-operated press forming machine or device; and - at least one step of thermal stamping which paints the upper part of the embossed characters press formed on the plate , and where applicable, of the perimetral edge , by means of the application of thermal-transfer ink impregnated in a thermal-transfer film placed on the already press formed plate and with a thermal stamping machine provided with rollers applying pressure and heat in a controlled manner to said assembly of press formed plate and film with thermal-transfer ink, characterized in that the step of thermal stamping for painting the upper part of the embossed characters , and where applicable, of the perimetral edge , comprises the following phases: - introducing the plate in a tubular film constituting said thermal-transfer film, - closing the open end or ends of said tubular film , - introducing the assembly , i.e., the tubular film and the plate arranged therein, in the thermal stamping machine , and - removing the finished plate from inside the tubular film . - introducing the plate in a tubular film constituting said thermal-transfer film, - closing the open end or ends of said tubular film , - introducing the assembly , i.e., the tubular film and the plate arranged therein, in the thermal stamping machine , and - removing the finished plate from inside the tubular film .
A microelectromechanical gyroscope comprising: a support structure ; at least one driving mass capacitively coupled to the support structure and movable relative to the support structure according to a driving axis (X); and an oscillating microelectromechanical loop , having a resonance frequency (f R ) and a loop gain (G LOOP ) and including the driving mass , a sensing interface , configured to sense a position of the driving mass with respect to the support structure , and a gain control stage (18; 118), configured to maintain a modulus (|G LOOP |) of the loop gain (G LOOP ) at a unitary value at the resonance frequency (f R ) ; characterized in that the gain control stage (18; 118) comprises a sampler (20; 120) and a transconductance operational amplifier in open-loop configuration; wherein the sampler (20; 120) is configured to acquire samples (V O *) of a sensing signal (V O ) from the sensing interface in a first operative condition and to transfer the samples (V O *) to the transconductance operational amplifier in a second operative condition; and wherein the sampler (20; 120) is configured to decouple the transconductance operational amplifier from the sensing interface in the first operative condition and in the second operative condition. a support structure ; at least one driving mass capacitively coupled to the support structure and movable relative to the support structure according to a driving axis (X); and an oscillating microelectromechanical loop , having a resonance frequency (f R ) and a loop gain (G LOOP ) and including the driving mass , a sensing interface , configured to sense a position of the driving mass with respect to the support structure , and a gain control stage (18; 118), configured to maintain a modulus (|G LOOP |) of the loop gain (G LOOP ) at a unitary value at the resonance frequency (f R ) ; characterized in that the gain control stage (18; 118) comprises a sampler (20; 120) and a transconductance operational amplifier in open-loop configuration; wherein the sampler (20; 120) is configured to acquire samples (V O *) of a sensing signal (V O ) from the sensing interface in a first operative condition and to transfer the samples (V O *) to the transconductance operational amplifier in a second operative condition; and wherein the sampler (20; 120) is configured to decouple the transconductance operational amplifier from the sensing interface in the first operative condition and in the second operative condition.
A curable resin composition comprising: (A) a cycloaliphatic epoxy resin containing two or more epoxide groups; and (B) a tri-functional benzoxazine compound represented by one of the following structures: or (A) a cycloaliphatic epoxy resin containing two or more epoxide groups; and (B) a tri-functional benzoxazine compound represented by one of the following structures: or
Device for clamping workpieces, having a clamping body at one end and a clamping body at the other end, and having clamping elements which are arranged so as to be distributed circumferentially and which are resiliently interconnected, the clamping bodies having contact surfaces for the clamping elements , and it being possible for the clamping bodies to be displaced on a longitudinal axis (X) relative to one another such that the clamping elements can be moved in the radial direction, at least one internal clamping body being arranged between the end clamping bodies , which internal clamping body can be displaced on the longitudinal axis (X) relative to the end clamping bodies , and the at least one internal clamping body having, at the ends thereof, contact surfaces for the clamping elements , the clamping elements between the mutually facing contact surfaces of adjacent clamping bodies being arranged so as to be distributed circumferentially in at least two different clamping planes, and the clamping elements having a polygonal cross section, characterised in that radial guide grooves are provided on the contact surfaces of the clamping bodies , which grooves are assigned to the clamping elements and have a rectangular cross section, a flat groove base and lateral flanks, and in which grooves the clamping elements are guided so as to be radially outwardly movable.
A slice allocating method executed by a first apparatus allocating an allocation target service using a virtual network generated on a network infrastructure to a slice that is the virtual network, wherein the first apparatus stores correspondence information that is information associating a service to which a slice is allocated in advance, the slice, and a connection destination indicating an apparatus executing the service, with each other, the slice allocating method comprising: a determination step of determining a slice satisfying a service requirement that is a requirement of a function in the allocation target service; and an allocation step of changing allocation from the slice associated with the allocation target service in advance based on the correspondence information to the slice satisfying the service requirement as determined in the determination step. a determination step of determining a slice satisfying a service requirement that is a requirement of a function in the allocation target service; and an allocation step of changing allocation from the slice associated with the allocation target service in advance based on the correspondence information to the slice satisfying the service requirement as determined in the determination step.
A wellbore system comprising: a work string , wherein the work string comprises coiled tubing; and a downhole device connected to a portion of the work string , the downhole device configured to deliver periodic energy pulses to a portion of a wellbore comprising at least one fracture in a formation; at least one sensor configured to measure energy pulses in the portion of the wellbore, wherein the at least one sensor is configured to determine at least one property of the wellbore based on the energy pulses detected by the at least one sensor , and wherein the at least one sensor is connected to the downhole device ; a first packing element , configured to be actuated between an actuated state and a non-actuated state, wherein the first packing element is positioned below the at least one fracture and the downhole device is positioned adjacent the at least one fracture ; wherein the downhole device comprises a fluid hammer tool that creates the periodic energy pulses in the form of oscillating pressure waves based on the Coandǎ effect; wherein a frequency of the oscillating pressure waves may be varied during operation of the fluid hammer tool ; and wherein a magnitude of the oscillating pressure waves may be varied during operation of the fluid hammer tool . a work string , wherein the work string comprises coiled tubing; and a downhole device connected to a portion of the work string , the downhole device configured to deliver periodic energy pulses to a portion of a wellbore comprising at least one fracture in a formation; at least one sensor configured to measure energy pulses in the portion of the wellbore, wherein the at least one sensor is configured to determine at least one property of the wellbore based on the energy pulses detected by the at least one sensor , and wherein the at least one sensor is connected to the downhole device ; a first packing element , configured to be actuated between an actuated state and a non-actuated state, wherein the first packing element is positioned below the at least one fracture and the downhole device is positioned adjacent the at least one fracture ; wherein the downhole device comprises a fluid hammer tool that creates the periodic energy pulses in the form of oscillating pressure waves based on the Coandǎ effect; wherein a frequency of the oscillating pressure waves may be varied during operation of the fluid hammer tool ; and wherein a magnitude of the oscillating pressure waves may be varied during operation of the fluid hammer tool .
A method for decoding an encoded data stream representative of at least one image (I m ), said image being divided into blocks, said blocks being coded in a plurality of coded data, said pluralities of coded data constituting said stream, said coding comprising a generation of syntax elements and an entropy coding of said syntax elements, wherein said stream comprises a first portion (TB1) comprising, for each block of the image I m , a part of the binary symbols included in the plurality of data coded for this block and a second portion (TB2) comprising, for each block of the image I m , characteristic information (IC) of the sequence of binary symbols missing in the first portion of stream (TB1), the decoding method comprises, for a current block (B), a sequence test step (D1) comprising a predetermined non-zero number (N) of bits, said step comprising two at the power of the predetermined number (2 N ) of iterations of the following substeps: - obtaining (D11) a sequence (H(j)) comprising a number N of bits, distinct from the sequences already tested; - decoding and reconstructing (D13) a version of the current block from the bit sequence obtained (H(j)) and from coded data read in the first stream portion; - evaluating (D14) a likelihood measurement V(j) associated with the sequence obtained from the version of the reconstructed block; in that it further comprises the following steps, implemented for said current block (B):; - decoding (D3) a piece of information characteristic (IC(EB)) of a first sequence comprising the predetermined non-zero number of binary symbols from the second stream portion (TB2); - selecting (D4) the first sequence from the sequences tested, based on the likelihood measurements associated with the sequences tested and the decoded information; and - decoding and reconstructing (D9) the current block from the first sequence selected (H(j0)) and the first stream portion (TB1). - obtaining (D11) a sequence (H(j)) comprising a number N of bits, distinct from the sequences already tested; - decoding and reconstructing (D13) a version of the current block from the bit sequence obtained (H(j)) and from coded data read in the first stream portion; - evaluating (D14) a likelihood measurement V(j) associated with the sequence obtained from the version of the reconstructed block; - decoding (D3) a piece of information characteristic (IC(EB)) of a first sequence comprising the predetermined non-zero number of binary symbols from the second stream portion (TB2); - selecting (D4) the first sequence from the sequences tested, based on the likelihood measurements associated with the sequences tested and the decoded information; and - decoding and reconstructing (D9) the current block from the first sequence selected (H(j0)) and the first stream portion (TB1).
An apparatus for collecting ash from flue gases, the apparatus comprising at least: - a probe for collecting flue gas containing ash and other particles, - a filter configured to filter the flue gas flowing through the filter and to separate ash and other particles from the flue gas, - a first channel configured to convey flue gas from the probe to the filter , - a suction device configured to suck flue gas through said filter ; - a second channel configured to convey flue gas from the filter to the suction device; - a collecting chamber in which the filter is placed; the first and second channel being connected to the collecting chamber , and the collecting chamber and the first channel comprising a heating element ; - a pressure device configured to blow compressed gas into the apparatus and through the filter such that ash and other particles can be removed from the filter and can accumulate in the collecting chamber ; - a dissolving vessel , to which said ash and other particles brought by the flue gas flow to the filter and detached from the filter by means of said gas blow are conveyable for sampling. - a probe for collecting flue gas containing ash and other particles, - a filter configured to filter the flue gas flowing through the filter and to separate ash and other particles from the flue gas, - a first channel configured to convey flue gas from the probe to the filter , - a suction device configured to suck flue gas through said filter ; - a second channel configured to convey flue gas from the filter to the suction device; - a collecting chamber in which the filter is placed; the first and second channel being connected to the collecting chamber , and the collecting chamber and the first channel comprising a heating element ; - a pressure device configured to blow compressed gas into the apparatus and through the filter such that ash and other particles can be removed from the filter and can accumulate in the collecting chamber ; - a dissolving vessel , to which said ash and other particles brought by the flue gas flow to the filter and detached from the filter by means of said gas blow are conveyable for sampling.