mhurhangee/ep-ind-claims huggingface dataset:
A pulp moulded cup lid, the cup lid having smooth, non-reticulated inner and outer surfaces, comprising: a lid body having smooth, non-reticulated inner and outer surfaces; a sealing skirt axially extending downward the lid body; and a plurality of buckling projections disposed evenly and circumferentially on an inner surface of a lower portion of the sealing skirt; a dispensing window; a convex platform set along the circumferential direction on the outer periphery of the lid body; characterized in that the dispensing window is set on the convex platform and the cup lid has a paper density of 0.77-0.8 g/cm 3. a lid body having smooth, non-reticulated inner and outer surfaces; a sealing skirt axially extending downward the lid body; and a plurality of buckling projections disposed evenly and circumferentially on an inner surface of a lower portion of the sealing skirt; a dispensing window; a convex platform set along the circumferential direction on the outer periphery of the lid body; characterized in that the dispensing window is set on the convex platform and the cup lid has a paper density of 0.77-0.8 g/cm 3.
A process of splitting a tape of a uniaxially oriented material into a plurality of strips interconnected by fibrils, wherein the tape is passed in a process direction over a splitting profile having a row of parallel teeth with a cutting edge extending in the process direction, wherein the splitting profile is static.
A method for audio processing, comprising: obtaining an audio signal of a target object; extracting a voiceprint feature of the target object according to a frequency spectrum of the audio signal; inputting the voiceprint feature into a predetermined pitch extraction network model to obtain a pitch feature of the target object; determining an audio mixing feature of the target object according to the voiceprint feature and the pitch feature, wherein the audio mixing feature at least comprises: the voiceprint feature and the pitch feature of the target object; and performing voice separation by inputting a mixed audio and the audio mixing feature into a separation network model, to obtain a target audio matching with the target object in the mixed audio. obtaining an audio signal of a target object; extracting a voiceprint feature of the target object according to a frequency spectrum of the audio signal; inputting the voiceprint feature into a predetermined pitch extraction network model to obtain a pitch feature of the target object; determining an audio mixing feature of the target object according to the voiceprint feature and the pitch feature, wherein the audio mixing feature at least comprises: the voiceprint feature and the pitch feature of the target object; and performing voice separation by inputting a mixed audio and the audio mixing feature into a separation network model, to obtain a target audio matching with the target object in the mixed audio.
An Unmanned Autonomous Vehicle, UAV, comprising: an H-frame having a wing spar secured to two or more boom carriers, wherein the wing spar includes two or more mounting locations, wherein each of the two or more mounting locations of the wing spar is configured to secure a horizontal propulsion unit, and wherein the boom carriers include a plurality of mounting locations, wherein each of the plurality of mounting locations of the boom carriers is configured to secure a vertical propulsion unit; characterised by: a pre-formed wing shell attached to the H-frame; and a pre-formed boom shell attached to a boom carrier. a pre-formed wing shell attached to the H-frame; and a pre-formed boom shell attached to a boom carrier.
A terminal, comprising an antenna structure and a radio frequency module, wherein the antenna structure comprises: a metal plate, wherein the metal plate is provided with a first surface and a second surface that are disposed oppositely, a plurality of accommodating grooves in the metal plate and adjacent to the first surface; and a plurality of spiral radiators, wherein each 2. spiral radiator is mounted in a corresponding accommodating groove and insulated from the metal plate, and each spiral radiator is provided with a feed end used to be connected to a feed source; wherein the radio frequency module is located on the second surface of the metal plate, and the radio frequency module is electrically connected to or coupled with the feed ends of the spiral radiators; wherein the radio frequency module comprises a first ground layer, a second ground layer, and an insulating medium layer, the insulating medium layer is located between the first ground layer and the second ground layer; wherein a plurality of insulating components are disposed at an interval on the first ground layer, each of the spiral radiators is fixed on a corresponding insulating component, and each of the insulating components is embedded in the corresponding accommodating groove in the metal frame and penetrating the metal plate. a metal plate, wherein the metal plate is provided with a first surface and a second surface that are disposed oppositely, a plurality of accommodating grooves in the metal plate and adjacent to the first surface; and a plurality of spiral radiators, wherein each 2. spiral radiator is mounted in a corresponding accommodating groove and insulated from the metal plate, and each spiral radiator is provided with a feed end used to be connected to a feed source; wherein the radio frequency module is located on the second surface of the metal plate, and the radio frequency module is electrically connected to or coupled with the feed ends of the spiral radiators; wherein the radio frequency module comprises a first ground layer, a second ground layer, and an insulating medium layer, the insulating medium layer is located between the first ground layer and the second ground layer; wherein a plurality of insulating components are disposed at an interval on the first ground layer, each of the spiral radiators is fixed on a corresponding insulating component, and each of the insulating components is embedded in the corresponding accommodating groove in the metal frame and penetrating the metal plate.
A stripping vessel for removing hydrocarbons from catalyst, the stripping vessel comprising: an inlet (22, 36) configured to receive a stream of spent catalyst particles, at least some of the spent catalyst particles comprise entrained hydrocarbons; a first stripping section, the first stripping section including at least one grid, each grid comprising grating, each grid including at least one opening (106, 206) to allow catalyst to pass there through; a second stripping section, the second stripping section including a structured packing comprised of a plurality of ribbons (42a, 42b), each ribbon (42a, 42b) comprising bands configured in undulating peaks and valleys, each band includes a face that obstructs passage of fluid and catalyst, the at least one grid in the first stripping section being spaced from the structured packing of the second stripping section; and, an outlet configured to pass catalyst particles from the stripping vessel. an inlet (22, 36) configured to receive a stream of spent catalyst particles, at least some of the spent catalyst particles comprise entrained hydrocarbons; a first stripping section, the first stripping section including at least one grid, each grid comprising grating, each grid including at least one opening (106, 206) to allow catalyst to pass there through; a second stripping section, the second stripping section including a structured packing comprised of a plurality of ribbons (42a, 42b), each ribbon (42a, 42b) comprising bands configured in undulating peaks and valleys, each band includes a face that obstructs passage of fluid and catalyst, the at least one grid in the first stripping section being spaced from the structured packing of the second stripping section; and, an outlet configured to pass catalyst particles from the stripping vessel.
An electronic device comprising: a schedule information detecting unit configured to detect a schedule according to which a user moves from a first geographical area to a second geographical area outside the first geographical area by accessing schedule information of the user; an information acquisition unit configured to acquire position dependent information in the second geographical area from a first server apparatus (4, 5) connected through a network before a timing of the schedule according to which the user moves to the second geographical area; a position dependent information storing unit (52, 53) configured to store the position dependent information acquired; a positioning unit configured to measure a position of the electronic device; an output information control unit configured to retrieve the position dependent information corresponding to the position of the electronic device in the second geographical area measured by the positioning unit from the position dependent information storing unit (52, 53) to output through an output unit; an information quantity storing unit configured to store information quantity data which indicates information quantity of the information retrieved from the position dependent information storing unit (52, 53); and an information quantity transmitting unit configured to transmit the information quantity data which indicates information quantity and is stored in the information quantity storing unit to a second server apparatus connected through the network, when the electronic device is located outside the second geographical area. a schedule information detecting unit configured to detect a schedule according to which a user moves from a first geographical area to a second geographical area outside the first geographical area by accessing schedule information of the user; an information acquisition unit configured to acquire position dependent information in the second geographical area from a first server apparatus (4, 5) connected through a network before a timing of the schedule according to which the user moves to the second geographical area; a position dependent information storing unit (52, 53) configured to store the position dependent information acquired; a positioning unit configured to measure a position of the electronic device; an output information control unit configured to retrieve the position dependent information corresponding to the position of the electronic device in the second geographical area measured by the positioning unit from the position dependent information storing unit (52, 53) to output through an output unit; an information quantity storing unit configured to store information quantity data which indicates information quantity of the information retrieved from the position dependent information storing unit (52, 53); and an information quantity transmitting unit configured to transmit the information quantity data which indicates information quantity and is stored in the information quantity storing unit to a second server apparatus connected through the network, when the electronic device is located outside the second geographical area.
A blood condition analyzing device comprising: an extraction unit configured to use temporal change data of an electrical characteristic of blood at an arbitrary frequency to extract a feature of the data; and a blood condition evaluation unit configured to evaluate a condition change of blood from a feature extracted in the extraction unit; characterized by that the blood condition analyzing device further comprises a reliability evaluation unit configured to evaluate reliability of the temporal change data of the electrical characteristic. an extraction unit configured to use temporal change data of an electrical characteristic of blood at an arbitrary frequency to extract a feature of the data; and a blood condition evaluation unit configured to evaluate a condition change of blood from a feature extracted in the extraction unit; characterized by that the blood condition analyzing device further comprises a reliability evaluation unit configured to evaluate reliability of the temporal change data of the electrical characteristic.
A method of maneuvering a movable object (5, 602), comprising: setting a destination point; calculating a thrust value in real time which minimizes or maximizes, over a specified period of time from the present time to a future time, a performance index which is a function associated with thrust required for a movable object (5, 602) to reach the destination point; moving the movable object (5, 602) based on the calculated thrust value; and characterised by setting one or more transit points on one planned route (101, 604) for the movable object; wherein the movable object (5, 602) is moved based on the thrust value calculated in the real time in such a manner that one or more transit points are sequentially set as the destination point, wherein the performance index is represented by an equation and is a performance index for optimizing over a time period T from a time t to a future time t + T, in each time t, for a state equation for the movable object represented by an equation: x ̇ t = f x t, u t, p t where x(t) is a vector of state variables, u(t) is a vector of manipulated variables, and p(t) is a given time variant parameter, J = Φ x t + T, x ref t + T, p t + T, S t + T + ∫ t t + T L x τ, x ref τ, u τ, p τ, Q τ, R τ dτ where x ref is a target state, S is a weight for a terminal state, Q is a weight for state variables and R is a weight for manipulated variables. setting a destination point; calculating a thrust value in real time which minimizes or maximizes, over a specified period of time from the present time to a future time, a performance index which is a function associated with thrust required for a movable object (5, 602) to reach the destination point; moving the movable object (5, 602) based on the calculated thrust value; and
A method to compensate by a server a clock deviation of a card i by maintaining a time base Tbase ( i) synchronized with card i, the method comprising the steps of: - receiving at a time TS a dynamic card verification dCVV code value generated by card i; - providing a set of at least two dCVV code corresponding to two successive dCVV time periods determined using the time base maintained by the server for the card and such that time TS falls within one of these time periods, a time period being defined as a duration and two time boundaries, the dCVV code associated to this period being called reference dCVV code; - if the dCVV code received from card i corresponds to one of the dCVV codes of the provided set but is different from the reference dCVV code, determine (303, 304, 305) the minimum possible timing drift Min_td between the time base maintained by the server for the card and the time base Tbase ( i) of the card, said minimum possible timing drift Min_td being deducted from the time difference between the closest time boundary of the period of time identified of the provided set corresponding to the dCVV received from the card and time TS; - updating time base Tbase ( i) by addition of a time drift correction equal to the minimum possible time drift Min_td. - receiving at a time TS a dynamic card verification dCVV code value generated by card i; - providing a set of at least two dCVV code corresponding to two successive dCVV time periods determined using the time base maintained by the server for the card and such that time TS falls within one of these time periods, a time period being defined as a duration and two time boundaries, the dCVV code associated to this period being called reference dCVV code; - if the dCVV code received from card i corresponds to one of the dCVV codes of the provided set but is different from the reference dCVV code, determine (303, 304, 305) the minimum possible timing drift Min_td between the time base maintained by the server for the card and the time base Tbase ( i) of the card, said minimum possible timing drift Min_td being deducted from the time difference between the closest time boundary of the period of time identified of the provided set corresponding to the dCVV received from the card and time TS; - updating time base Tbase ( i) by addition of a time drift correction equal to the minimum possible time drift Min_td.
Method for checking the integrity of encrypted user data by means of a processor (200, 300, 400), in particular an FPGA, which comprises the following method steps: - calculating a first check value over the encrypted user data during a security-protected operating mode; - storing the first check value in a security-protected memory module of the processor (200, 300, 400) during the security-protected operating mode; wherein a secret is additionally stored in the security-protected memory module during the security-protected operating mode, wherein the secret is a cryptographic key for decrypting the encrypted user data; - calculating a second check value over the encrypted user data during a runtime mode; - comparing the first check value with the second check value by means of the processor (200, 300, 400) during the runtime mode; - providing control information by means of the processor (200, 300, 400) during the runtime mode, wherein the control information comprises a result of the comparison; wherein, if a sufficient match is established in the comparison of the first check value and the second check value, the secret is additionally provided during the provisioning; wherein the security-protected operating mode and the runtime mode is an operating mode of the processor (200, 300, 400) and/or of a device that comprises the processor (200, 300, 400); wherein the runtime mode and the security-protected operating mode are mutually exclusive. - calculating a first check value over the encrypted user data during a security-protected operating mode; - storing the first check value in a security-protected memory module of the processor (200, 300, 400) during the security-protected operating mode; wherein a secret is additionally stored in the security-protected memory module during the security-protected operating mode, wherein the secret is a cryptographic key for decrypting the encrypted user data; - calculating a second check value over the encrypted user data during a runtime mode; - comparing the first check value with the second check value by means of the processor (200, 300, 400) during the runtime mode; - providing control information by means of the processor (200, 300, 400) during the runtime mode, wherein the control information comprises a result of the comparison; wherein, if a sufficient match is established in the comparison of the first check value and the second check value, the secret is additionally provided during the provisioning; wherein the security-protected operating mode and the runtime mode is an operating mode of the processor (200, 300, 400) and/or of a device that comprises the processor (200, 300, 400); wherein the runtime mode and the security-protected operating mode are mutually exclusive.
A method of authenticating a user for access to a device, service, application, function or system, implemented with a user interface comprising: using a processor of an authentication system for creating an authentication key in the form of a user formula selected by the user from a set of variables and operations provided by the authentication system and storing the user formula in the authentication system; utilizing a display to present the user with an arrangement of variables generated by the authentication system, including the variables of the user formula, each assigned a value; applying the assigned values to matching variables in the user formula and calculating a first result; and conveying the first result through the user interface to the authentication system, wherein the authentication system authenticates the user if the first result matches a second result of a separate and independent calculation of the user formula calculated by the authentication system. using a processor of an authentication system for creating an authentication key in the form of a user formula selected by the user from a set of variables and operations provided by the authentication system and storing the user formula in the authentication system; utilizing a display to present the user with an arrangement of variables generated by the authentication system, including the variables of the user formula, each assigned a value; applying the assigned values to matching variables in the user formula and calculating a first result; and conveying the first result through the user interface to the authentication system, wherein the authentication system authenticates the user if the first result matches a second result of a separate and independent calculation of the user formula calculated by the authentication system.
A rotor blade for a gas turbine engine, comprising: an attachment; an airfoil extending from the attachment to a tip; and a tip shelf located in a surface of the tip proximate to a pressure side of the airfoil, wherein the tip shelf has a ledge portion extending from the pressure side to a wall portion extending upwardly from the ledge portion to the tip and wherein the wall portion is configured to have a convex portion with respect to a top view of the pressure side of the airfoil as it extends from a leading edge to a trailing edge of the airfoil; characterised in that the convex portion of the wall portion comprises at least 50% of the wall portion that extends from the leading edge to the trailing edge of the airfoil. an attachment; an airfoil extending from the attachment to a tip; and a tip shelf located in a surface of the tip proximate to a pressure side of the airfoil, wherein the tip shelf has a ledge portion extending from the pressure side to a wall portion extending upwardly from the ledge portion to the tip and wherein the wall portion is configured to have a convex portion with respect to a top view of the pressure side of the airfoil as it extends from a leading edge to a trailing edge of the airfoil; characterised in that the convex portion of the wall portion comprises at least 50% of the wall portion that extends from the leading edge to the trailing edge of the airfoil.
A biological oil composition comprising 20-100 % by weight of wax esters, preferably 70-100% by weight of wax esters and wherein the composition comprises 5-20 % by weight of stearidonic acid for use as a medicament for the prevention or treatment of a cardiovascular disease.
A method for receiving system information, comprising: sending, by a terminal, an uplink signal, wherein the uplink signal is used to trigger a base station to send first system information, and the first system information comprises cell reselection configuration information, wherein the cell reselection configuration information comprises at least one of the following information: a reselection threshold, a cell reselection priority, intra-frequency cell reselection configuration information, and inter- frequency cell reselection configuration information; receiving, by the terminal on a beam in which the terminal is located, the first system information from the base station. sending, by a terminal, an uplink signal, wherein the uplink signal is used to trigger a base station to send first system information, and the first system information comprises cell reselection configuration information, wherein the cell reselection configuration information comprises at least one of the following information: a reselection threshold, a cell reselection priority, intra-frequency cell reselection configuration information, and inter- frequency cell reselection configuration information; receiving, by the terminal on a beam in which the terminal is located, the first system information from the base station.