mhurhangee/ep-ind-claims huggingface dataset:
A channel state information, CSI feedback method, comprising: receiving a CSI feedback configuration group indicated by a network device for a CSI feedback; determining a CSI feedback approach corresponding to the CSI feedback configuration group; and performing a CSI measurement and the CSI feedback based on the determined CSI feedback approach, wherein the CSI feedback approach comprises a first feedback approach and a second feedback approach; the first feedback approach comprises: feeding back CSI obtained through a measurement based on each CSI feedback configuration in the CSI feedback configuration group; and the second feedback approach comprises: selecting an optimum CSI feedback configuration from the CSI feedback configuration group, and feeding back CSI obtained through a measurement based on the optimum CSI feedback configuration in the CSI feedback configuration group and location information of the optimum CSI feedback configuration in the CSI feedback configuration group; characterized in that the step of selecting the optimum CSI feedback configuration from the CSI feedback configuration group comprises: performing a CSI measurement on each CSI feedback configuration in the CSI feedback configuration group, obtaining a transport block size, TBsize, corresponding to each CSI feedback configuration based on a result of the CSI measurement, and selecting a CSI feedback configuration corresponding to a largest TBsize in one or a plurality of obtained TBsizes as the optimum CSI feedback configuration in the CSI feedback configuration group. receiving a CSI feedback configuration group indicated by a network device for a CSI feedback; determining a CSI feedback approach corresponding to the CSI feedback configuration group; and performing a CSI measurement and the CSI feedback based on the determined CSI feedback approach, wherein the CSI feedback approach comprises a first feedback approach and a second feedback approach; the first feedback approach comprises: feeding back CSI obtained through a measurement based on each CSI feedback configuration in the CSI feedback configuration group; and the second feedback approach comprises: selecting an optimum CSI feedback configuration from the CSI feedback configuration group, and feeding back CSI obtained through a measurement based on the optimum CSI feedback configuration in the CSI feedback configuration group and location information of the optimum CSI feedback configuration in the CSI feedback configuration group; characterized in that the step of selecting the optimum CSI feedback configuration from the CSI feedback configuration group comprises: performing a CSI measurement on each CSI feedback configuration in the CSI feedback configuration group, obtaining a transport block size, TBsize, corresponding to each CSI feedback configuration based on a result of the CSI measurement, and selecting a CSI feedback configuration corresponding to a largest TBsize in one or a plurality of obtained TBsizes as the optimum CSI feedback configuration in the CSI feedback configuration group.
Process for preparing a pulverulent aromatic composition having a melting point Tm, comprising: i) the introduction into a mixer, whose chamber has been heated beforehand to a temperature T below Tm, of at least two pulverulent elementary solids with organoleptic properties, said solids being introduced separately into said mixer, ii) the mixing in said mixer, in the absence of any external liquid phase, of said solids at a temperature T below the temperature Tm, at least one of said pulverulent elementary solids being introduced into said mixer at a temperature Ti such that the mixing takes place under isothermal conditions at a temperature set at said temperature T, and iii) the recovery of said pulverulent aromatic composition. i) the introduction into a mixer, whose chamber has been heated beforehand to a temperature T below Tm, of at least two pulverulent elementary solids with organoleptic properties, said solids being introduced separately into said mixer, ii) the mixing in said mixer, in the absence of any external liquid phase, of said solids at a temperature T below the temperature Tm, at least one of said pulverulent elementary solids being introduced into said mixer at a temperature Ti such that the mixing takes place under isothermal conditions at a temperature set at said temperature T, and iii) the recovery of said pulverulent aromatic composition.
A method of predicting the likelihood of long-term survival of a node-negative, ER positive, ductal breast cancer patient without the recurrence of cancer, comprising determining the expression level of the RNA transcript of CDC20, or its expression product, in a breast cancer cell or tissue sample obtained from the patient, normalized against the expression level of a reference set of RNA transcripts, or their expression products, comparing the normalized expression level of CDC20 from the patient to a normalized expression level of CDC20 in a breast cancer tissue reference set comprising patients who were (a) alive without local, regional, or distant breast cancer recurrence, (b) alive with contralateral breast cancer recurrence, (c) alive with non-breast second primary cancer, or (d) died prior to breast cancer recurrence, wherein an increased normalized expression level of CDC20 from the patient indicates a decreased likelihood of long-term survival without cancer recurrence.
A torque shaft comprising a hollow tube provided with an end fitting (24, 26; 224, 226) at each end of the tube, wherein the tube is made of a thermoplastic polymer matrix with reinforcing fibres embedded in the matrix, the end fittings (24, 26) are connected to the tube by mutually complementarily shaped plug and socket type connections that are interference fitted by thermoplastically and/or mechanically deforming the ends of the tube into contact with the end fittings (24, 26), and wherein the ends of the tube are deformed such that the cross-sectional shape of the deformed ends is an undulated annulus with peaks and troughs following a generally sinusoidal wave form.
A computer implemented method for monitoring a bioprocess comprising a cell culture in a bioreactor, the method including the steps of: obtaining measurements of the amount of biomass and the amount of one or more metabolites in the bioreactor as a function of bioprocess maturity; determining one or more metabolic condition variables selected from: the specific transport rates between the cells and a culture medium in the bioreactor for some or all of the one or more metabolites as a function of bioprocess maturity, the internal concentration of one or more metabolites as a function of bioprocess maturity, and reaction rates for one or more metabolic reactions that form part of the cell's metabolism as a function of bioprocess maturity; using a pre-trained multivariate model to determine the value of one or more latent variables as a function of bioprocess maturity, wherein the multivariate model is a linear model that uses process variables including the metabolic condition variables as predictor variables; comparing the value(s) of the one or more latent variables to one or more predetermined values as a function of maturity; and determining on the basis of the comparison whether the bioprocess is operating normally. obtaining measurements of the amount of biomass and the amount of one or more metabolites in the bioreactor as a function of bioprocess maturity; determining one or more metabolic condition variables selected from: the specific transport rates between the cells and a culture medium in the bioreactor for some or all of the one or more metabolites as a function of bioprocess maturity, the internal concentration of one or more metabolites as a function of bioprocess maturity, and reaction rates for one or more metabolic reactions that form part of the cell's metabolism as a function of bioprocess maturity; using a pre-trained multivariate model to determine the value of one or more latent variables as a function of bioprocess maturity, wherein the multivariate model is a linear model that uses process variables including the metabolic condition variables as predictor variables; comparing the value(s) of the one or more latent variables to one or more predetermined values as a function of maturity; and determining on the basis of the comparison whether the bioprocess is operating normally.
A polyimide film, which is manufactured by reacting a diamine with an acid dianhydride thus obtaining a polyamic acid and then imidizing the polyamic acid, and which has a peak top residing in a temperature range from 280°C to 380°C in a tanδ curve obtained by dividing a loss modulus by a storage modulus and an average transmittance of 85% or more at 400 ∼ 740 nm measured using a UV spectrophotometer at a film thickness of 50 ∼ 100 μm, wherein the diamine comprises 2,2'-bis(trifluoromethyl)-4,4'-diaminobiphenyl, wherein the acid dianhydride comprises 2,2-bis(3,4-dicarboxyphenyl)hexafluoropropane dianhydride, and one or more selected from the group consisting of pyromellitic dianhydride, biphenyltetracarboxylic dianhydride, and oxydiphthalic dianhydride, wherein when obtaining the polyamic acid, 2,2-bis(3,4-dicarboxyphenyl)hexafluoropropane dianhydride is added after the remaining acid dianhydride, wherein the tanδ curve has a second peak residing in a temperature range from 200°C to 300° C.
Textile machine that produces take-up packages, comprising: - at least one workstation having a winding device for winding the take-up packages; and - a depository for wound take-up packages, characterised by a determining element for determining the mass of each take-up package to be deposited onto the depository, by a summer for summing the determined masses of the take-up packages to be deposited onto the depository, and by an output element for outputting an output signal if the sum of the determined masses of the take-up packages exceeds a predefined threshold value.
A method of operating a portable device for performing adaptive data communication control, the method comprising: determining whether a display unit of the portable device is in an on or off state; setting a first period of time if the display unit is in the on state; setting a second period of time relatively shorter than the first period of time if the display unit is in the off state; and causing data communication with a specific service provider network to enter a dormant state when the first or second period of time expires. determining whether a display unit of the portable device is in an on or off state; setting a first period of time if the display unit is in the on state; setting a second period of time relatively shorter than the first period of time if the display unit is in the off state; and causing data communication with a specific service provider network to enter a dormant state when the first or second period of time expires.
An active noise cancellation system for cancelling environment noise perceived by a driver or passenger seated in a seat mounted in a cabin of a vehicle, in combination with said seat, the seat comprising a seat cushion, a seat back coupled to the seat cushion at a bottom end and extending upwards to a seat shoulder, and a headrest coupled to the seat back, extending upwardly from the seat shoulder, the active noise cancellation system comprising an adaptive noise cancellation circuit, a plurality of microphones mounted in the headrest and connected electrically to the ANC circuit, a plurality of speakers mounted in the seat and connected electrically to the ANC circuit, said plurality of microphones comprising at least one first microphone mounted on a right side of the headrest and at least one second microphone mounted on a left side of the headrest, the system further comprising one or more external vibration or noise transducers mounted on the chassis, shell structure, or fuselage of the vehicle and connected to the ANC circuit for detecting noise or vibrations generated outside of the vehicle cabin, and wherein the plurality of speakers comprise at least one first speaker mounted in the seat shoulder on a left side and at least one second speaker mounted in the seat shoulder on a right side, the right speaker configured to generate a noise cancellation sound from a noise signal picked up by the right microphone processed by the ANC circuit and from the noise detected from the one or more external vibration or noise transducers, and the left speaker configured to generate a noise cancellation sound from a noise signal picked up by the left microphone processed by the ANC circuit and from the noise detected from the one or more external vibration or noise transducers, the plurality of first microphones on said right side form a first microphone array generating a first virtual microphone on a right side of the seat intended for measuring noise at an estimated position of a seated person's right ear and wherein the plurality of second microphones on said left side form a second microphone array generating a second virtual microphone on a left side of the seat intended for measuring noise at an estimated position of a seated person's left ear.
An electronic circuit (10, 10A) for an electronic pen, the electronic circuit (10, 10A) comprising: an integrated circuit (100, 100A); and a resonant circuit that is formed of a parallel circuit of a coil and a first capacitor and is externally connected to the integrated circuit (100, 100A), wherein the integrated circuit (100, 100A) includes a variable-capacitance circuit which, in operation, adjusts a frequency of the resonant circuit, and has a connection pin connecting the variable-capacitance circuit to outside of the integrated circuit (100, 100A), wherein a first end of the parallel circuit is grounded and a second end of the parallel circuit is connected to a first end of a second capacitor (13, 13A) externally connected to the integrated circuit (100, 100A), characterized in that a second end of the second capacitor (13, 13A) is connected to the connection pin of the integrated circuit (100, 100A) and is connected to a diode (14, 101) which, in operation, clamps a potential of the second end of the second capacitor (13, 13A) to a predetermined value. an integrated circuit (100, 100A); and a resonant circuit that is formed of a parallel circuit of a coil and a first capacitor and is externally connected to the integrated circuit (100, 100A), wherein the integrated circuit (100, 100A) includes a variable-capacitance circuit which, in operation, adjusts a frequency of the resonant circuit, and has a connection pin connecting the variable-capacitance circuit to outside of the integrated circuit (100, 100A), wherein a first end of the parallel circuit is grounded and a second end of the parallel circuit is connected to a first end of a second capacitor (13, 13A) externally connected to the integrated circuit (100, 100A), characterized in that a second end of the second capacitor (13, 13A) is connected to the connection pin of the integrated circuit (100, 100A) and is connected to a diode (14, 101) which, in operation, clamps a potential of the second end of the second capacitor (13, 13A) to a predetermined value.
A method, comprising: receiving, by a device and from a network device in near-real time, a packet of data associated with network traffic of a network, wherein the packet includes privacy-related data and network-related data; reading, by the device, the privacy-related data from the packet; generating, by the device, anonymous data based on the privacy-related data of the packet, wherein the anonymous data obscures the privacy-related data; generating, by the device, a mapping between the anonymous data and the privacy-related data; combining, by the device, the anonymous data and the network-related data of the packet to generate a masked packet; providing, by the device, the masked packet to a server device; receiving, by the device and from the server device, data identifying a recommendation that is generated by processing the masked packet with an artificial intelligence model; correlating the data identifying the recommendation with data identifying the network device based on the mapping between the anonymous data and the privacy-related data; and performing, by the device, one or more actions based on the data identifying the recommendation, the one or more actions comprising: providing the data identifying the recommendation to a network management system associated with the network device, based on correlating the data identifying the recommendation with the data identifying the network device, to permit the network management system to implement the recommendation for the network device or the network. receiving, by a device and from a network device in near-real time, a packet of data associated with network traffic of a network, wherein the packet includes privacy-related data and network-related data; reading, by the device, the privacy-related data from the packet; generating, by the device, anonymous data based on the privacy-related data of the packet, wherein the anonymous data obscures the privacy-related data; generating, by the device, a mapping between the anonymous data and the privacy-related data; combining, by the device, the anonymous data and the network-related data of the packet to generate a masked packet; providing, by the device, the masked packet to a server device; receiving, by the device and from the server device, data identifying a recommendation that is generated by processing the masked packet with an artificial intelligence model; correlating the data identifying the recommendation with data identifying the network device based on the mapping between the anonymous data and the privacy-related data; and performing, by the device, one or more actions based on the data identifying the recommendation, the one or more actions comprising: providing the data identifying the recommendation to a network management system associated with the network device, based on correlating the data identifying the recommendation with the data identifying the network device, to permit the network management system to implement the recommendation for the network device or the network.
A method of determining that a finger covers a sensor area of a fingerprint sensor, the method comprising: on a detection surface of the fingerprint sensor, receiving a finger having a fingerprint topography; by means of the fingerprint sensor, acquiring an image (n) of the fingerprint of the received finger; dividing a two-dimensional image area of the acquired image, corresponding to the sensor area of the fingerprint sensor, into a plurality of image regions (r), said regions partly overlapping each other, such that each of the image regions overlaps with neighbouring image regions in both dimensions of the two-dimensional image area, and covering the whole image area, wherein each of the plurality of image regions (r) has a size of at least 8x8 pixels of the acquired image (n); based on image analysis of each of the plurality of image regions, determining that the finger covers the whole sensor area, comprising comparing an average intensity value ( i mean) of the image area with at least one intensity value ( i r) of each of the image regions (r); and in response to the determining that the finger covers the whole sensor area, performing an action, e.g. a navigation action or an authentication action. on a detection surface of the fingerprint sensor, receiving a finger having a fingerprint topography; by means of the fingerprint sensor, acquiring an image (n) of the fingerprint of the received finger; dividing a two-dimensional image area of the acquired image, corresponding to the sensor area of the fingerprint sensor, into a plurality of image regions (r), said regions partly overlapping each other, such that each of the image regions overlaps with neighbouring image regions in both dimensions of the two-dimensional image area, and covering the whole image area, wherein each of the plurality of image regions (r) has a size of at least 8x8 pixels of the acquired image (n); based on image analysis of each of the plurality of image regions, determining that the finger covers the whole sensor area, comprising comparing an average intensity value ( i mean) of the image area with at least one intensity value ( i r) of each of the image regions (r); and in response to the determining that the finger covers the whole sensor area, performing an action, e.g. a navigation action or an authentication action.
A channel bandwidth configuration method, applied to a terminal device, wherein the method comprises: receiving a management frame, wherein the management frame comprises an extremely high throughput, EHT operation element, wherein the EHT operation element comprises a channel bandwidth field, a first channel center frequency field, and a second channel center frequency field, wherein a value of the channel bandwidth field is 4 and the channel bandwidth field indicates a channel bandwidth of a basic service set, BSS, is 320 MHz, wherein the first channel center frequency field and the second channel center frequency field indicate channel location information of the BSS, wherein the first channel center frequency field indicates channel center frequency information of a primary 160 MHz channel in the 320MHz channel bandwidth of the BSS, and the second channel center frequency field indicates channel center frequency information of the 320 MHz channel bandwidth of the BSS, wherein a difference between the channel center frequency information of the primary 160 MHz channel and the channel center frequency information of the 320 MHz channel bandwidth is equal to 16, wherein the 320 MHz channel bandwidth is in a plurality of channel bandwidths that can be supported by the terminal device; and obtaining bandwidth configuration information of the BSS based on the EHT operation element, wherein bandwidth configuration information of the BSS comprises the channel bandwidth information and the channel location information. receiving a management frame, wherein the management frame comprises an extremely high throughput, EHT operation element, wherein the EHT operation element comprises a channel bandwidth field, a first channel center frequency field, and a second channel center frequency field, wherein a value of the channel bandwidth field is 4 and the channel bandwidth field indicates a channel bandwidth of a basic service set, BSS, is 320 MHz, wherein the first channel center frequency field and the second channel center frequency field indicate channel location information of the BSS, wherein the first channel center frequency field indicates channel center frequency information of a primary 160 MHz channel in the 320MHz channel bandwidth of the BSS, and the second channel center frequency field indicates channel center frequency information of the 320 MHz channel bandwidth of the BSS, wherein a difference between the channel center frequency information of the primary 160 MHz channel and the channel center frequency information of the 320 MHz channel bandwidth is equal to 16, wherein the 320 MHz channel bandwidth is in a plurality of channel bandwidths that can be supported by the terminal device; and obtaining bandwidth configuration information of the BSS based on the EHT operation element, wherein bandwidth configuration information of the BSS comprises the channel bandwidth information and the channel location information.
A laminate comprising a substrate containing a first fluorinated polymer, a light reflection layer made of a non-curable resin composition containing a second fluorinated polymer and an aluminum pigment, and a protective layer obtained by curing a curable resin composition containing a third fluorinated polymer having a crosslinkable group and a curing agent for curing the third fluorinated polymer, wherein the light reflection layer is disposed between the substrate and the protective layer, the light reflection layer has a thickness of from 0.5 to 5 μm, and the protective layer has a thickness of from 0.3 to 2 μm.