mhurhangee/ep-ind-claims huggingface dataset:
A method of protecting an iterative calculation concerning an algorithm for securing data against attacks aiming at discovering quantities manipulated by the calculation performed on a first number (M; P), representative of information representative of a number which is desired to be ciphered, and a second number (e; d), representative of information representative of a cipher key, the calculation being executed by an electronic circuit, wherein: the second number (e; d) is broken down into an algebraic sum of at least three third numbers (X1, X2, X3); and the calculation is performed bit by bit (X1 i, X2 i, X3 i) for each rank (i) of the third numbers (X1, X2, X3), all the bits (X1 i, X2 i, X3 i) of the third numbers (X1, X2, X3) being processed by successive increasing bit ranks (i) and said processing comprising: scanning all the bits (X1 i, X2 i, X3 i) of a same rank (i) in a random order; and performing, depending on the value of each bit (X1 i, X2 i, X3 i), operations on the contents of a first register and of a second register. the second number (e; d) is broken down into an algebraic sum of at least three third numbers (X1, X2, X3); and the calculation is performed bit by bit (X1 i, X2 i, X3 i) for each rank (i) of the third numbers (X1, X2, X3), all the bits (X1 i, X2 i, X3 i) of the third numbers (X1, X2, X3) being processed by successive increasing bit ranks (i) and said processing comprising: scanning all the bits (X1 i, X2 i, X3 i) of a same rank (i) in a random order; and performing, depending on the value of each bit (X1 i, X2 i, X3 i), operations on the contents of a first register and of a second register. scanning all the bits (X1 i, X2 i, X3 i) of a same rank (i) in a random order; and performing, depending on the value of each bit (X1 i, X2 i, X3 i), operations on the contents of a first register and of a second register.
A centrifugal compressor configured to compress a fluid utilizing a centrifugal force, comprising: a housing having a shroud thereinside; a wheel rotatably provided in the housing; a diffuser formed outside in a radial direction of an outlet side of the wheel in the housing; and a scroll formed on an outlet side of the diffuser in the housing, wherein a shroud-side wall surface and a hub-side wall surface of the diffuser extend in the radial direction, respectively, characterized in that a plurality of annular steps are integrally formed on the shroud-side wall surface of the diffuser so as to expand a flow passage width of the diffuser along a flow direction of a main flow, and a step amount (δ) of the steps is set to be 5 to 30% of a flow passage width (α) of an outlet of the diffuser. a housing having a shroud thereinside; a wheel rotatably provided in the housing; a diffuser formed outside in a radial direction of an outlet side of the wheel in the housing; and a scroll formed on an outlet side of the diffuser in the housing, wherein a shroud-side wall surface and a hub-side wall surface of the diffuser extend in the radial direction, respectively, characterized in that a plurality of annular steps are integrally formed on the shroud-side wall surface of the diffuser so as to expand a flow passage width of the diffuser along a flow direction of a main flow, and a step amount (δ) of the steps is set to be 5 to 30% of a flow passage width (α) of an outlet of the diffuser.
An image scanning apparatus comprising: a feeder on which a printable medium is stacked; a pick-up roller to pick up the printable medium from the feeder and guide the printable medium into a main body of the image scanning apparatus; a scanning unit to scan an image on the printable medium; a reversal tray on which the printable medium is stacked; characterised by further comprising a discharge tray located below the feeder, wherein the reversal tray is located between the feeder and the discharge tray and a path conversion unit to guide the printable medium to the reversal tray or the discharge tray according to whether the one or both sides of the printable medium are to be scanned. a feeder on which a printable medium is stacked; a pick-up roller to pick up the printable medium from the feeder and guide the printable medium into a main body of the image scanning apparatus; a scanning unit to scan an image on the printable medium; a reversal tray on which the printable medium is stacked; characterised by further comprising a discharge tray located below the feeder, wherein the reversal tray is located between the feeder and the discharge tray and a path conversion unit to guide the printable medium to the reversal tray or the discharge tray according to whether the one or both sides of the printable medium are to be scanned.
An immunochromatographic detection process of a protein derived from raw pork using a polyclonal antibody as a detection antibody, wherein the polyclonal antibody is obtained by immunizing a goat with porcine immunoglobulin G and said antibody specifically recognizes immunoglobulin G contained in raw pork.
An interconnecting container system comprising: a plurality of containers, wherein each container has a rounded rectangular parallelepiped body with four symmetrical rounded rectangular sidewalls (107, 108), a rounded square base and a rounded square top; a neck being centrally provided on said top, said neck extending from said top, said neck having a surrounding rim, said neck having an opening thereon; an elongated sidewall slot (119, 120), said sidewall slot having an open end and an adjoining closed end wherein said adjoining closed end is centrally disposed along a transversal axis transversal to a longitudinal axis of said rectangular sidewall; characterized in that an elongated sidewall slot is provided on each of said four sidewalls, said elongated sidewall slot having a surrounding lip thereby creating an internal edge recess; an elongated base slot is provided on said base, said elongated base slot having a surrounding lip thereby creating an internal edge recess, said base slot having an open end and an adjoining closed end, said elongated base slot extends along a transversal axis of said square base, and wherein said adjoining closed end is centrally disposed on said square base; said rim of said neck and said internal recess of said base slot and said sidewall slot being dimensioned and shaped for sliding and interconnecting engagement, whereby at least one of said sidewall slots and said base slots of a first one of said containers can be interlocked with a neck of at least one second one of said containers. a plurality of containers, wherein each container has a rounded rectangular parallelepiped body with four symmetrical rounded rectangular sidewalls (107, 108), a rounded square base and a rounded square top; a neck being centrally provided on said top, said neck extending from said top, said neck having a surrounding rim, said neck having an opening thereon; an elongated sidewall slot (119, 120), said sidewall slot having an open end and an adjoining closed end wherein said adjoining closed end is centrally disposed along a transversal axis transversal to a longitudinal axis of said rectangular sidewall; characterized in that an elongated sidewall slot is provided on each of said four sidewalls, said elongated sidewall slot having a surrounding lip thereby creating an internal edge recess; an elongated base slot is provided on said base, said elongated base slot having a surrounding lip thereby creating an internal edge recess, said base slot having an open end and an adjoining closed end, said elongated base slot extends along a transversal axis of said square base, and wherein said adjoining closed end is centrally disposed on said square base; said rim of said neck and said internal recess of said base slot and said sidewall slot being dimensioned and shaped for sliding and interconnecting engagement, whereby at least one of said sidewall slots and said base slots of a first one of said containers can be interlocked with a neck of at least one second one of said containers.
A weighing and pricing scale adapted to enable a customer queuing system, comprising: - a weigh station for receiving items to be weighed, an operator interface for displaying information associated with scale operations, a customer facing interface for displaying information to customers and a controller operatively coupled to the operator interface to effect display of information thereon and to the customer interface to effect display of information thereon, characterized in that the controller is configured with an enablable customer queuing mode, where the enablable customer queuing mode includes both a master queuing sub-mode and slave queuing sub-mode and the master queuing sub-mode and the slave queuing sub-mode are mutually exclusive, wherein: - in the master queuing sub-mode the controller operates to (i) maintain a running list of queue numbers that have been provided to customers, (ii) assign queue numbers from the running list to one or more devices upon receipt of a queue number request from each of the one or more devices and (iii) assign queue numbers from the running list to itself according to queue number requests made via the operator interface and effect display of its currently assigned queue number on the customer interface; - in the slave queuing sub-mode the controller operates to request queue numbers from another device and display its currently assigned queue number on the customer interface. - a weigh station for receiving items to be weighed, an operator interface for displaying information associated with scale operations, a customer facing interface for displaying information to customers and a controller operatively coupled to the operator interface to effect display of information thereon and to the customer interface to effect display of information thereon, - in the master queuing sub-mode the controller operates to (i) maintain a running list of queue numbers that have been provided to customers, (ii) assign queue numbers from the running list to one or more devices upon receipt of a queue number request from each of the one or more devices and (iii) assign queue numbers from the running list to itself according to queue number requests made via the operator interface and effect display of its currently assigned queue number on the customer interface; - in the slave queuing sub-mode the controller operates to request queue numbers from another device and display its currently assigned queue number on the customer interface.
An electrical circuit comprising: a plurality of switching amplifier stages, each switching amplifier stage receiving at least one of a plurality of driving controls and producing one of a plurality of shaping signals; and a summing node that connects outputs of the plurality of switching amplifier stages and produces a summing signal, wherein the plurality of driving controls determine a spectral content shape of the summing signal; and a modulator that receives transmission data and produces a modulation sequence comprising the plurality of driving controls, wherein the modulator comprises: an I/Q mapper that generates in-phase band (I-band) and quadrature-phase band (Q-band) signals based on the received transmission data; at least one filter that receives the I-band or the Q-band signals and produces an I-band filtered signal or a Q-band filtered signal; and an I/Q modulator (321, 323, 325) that combines the I-band and Q-band filtered signals to produce a modulated transmission signal. a plurality of switching amplifier stages, each switching amplifier stage receiving at least one of a plurality of driving controls and producing one of a plurality of shaping signals; and a summing node that connects outputs of the plurality of switching amplifier stages and produces a summing signal, wherein the plurality of driving controls determine a spectral content shape of the summing signal; and a modulator that receives transmission data and produces a modulation sequence comprising the plurality of driving controls, wherein the modulator comprises: an I/Q mapper that generates in-phase band (I-band) and quadrature-phase band (Q-band) signals based on the received transmission data; at least one filter that receives the I-band or the Q-band signals and produces an I-band filtered signal or a Q-band filtered signal; and an I/Q modulator (321, 323, 325) that combines the I-band and Q-band filtered signals to produce a modulated transmission signal. an I/Q mapper that generates in-phase band (I-band) and quadrature-phase band (Q-band) signals based on the received transmission data; at least one filter that receives the I-band or the Q-band signals and produces an I-band filtered signal or a Q-band filtered signal; and an I/Q modulator (321, 323, 325) that combines the I-band and Q-band filtered signals to produce a modulated transmission signal.
Measuring arrangement comprising a) a support element (14, 21, 32, 41) with a longitudinal axis on which a sensor (1, 22, 33) is arranged to determine a process variable of a gaseous or liquid fluid, and b) the sensor (1, 22, 33) wherein the sensor (1, 22, 33) has a fluid channel, which extends inside the sensor (1, 22, 33), and wherein the support element (14, 21, 32, 41) has at least one connection element (6, 7, 23, 35, 42) for connecting the fluid channel of the support element (14, 21, 32, 41) with the fluid channel of the sensor (1, 22, 33), said connection element projecting out of the support element (14, 21, 32, 41) in a manner perpendicular to the longitudinal axis and projecting into the fluid channel of the sensor (1, 22, 33), characterized in that the connection element is connected in one piece to the support element and in that the sensor is connected to the support element by an adhesive system or a solder connection. a) a support element (14, 21, 32, 41) with a longitudinal axis on which a sensor (1, 22, 33) is arranged to determine a process variable of a gaseous or liquid fluid, and b) the sensor (1, 22, 33)
A population of HPV-specific T-cells prepared according to a method comprising: (a) dividing an HPV-positive tumor sample into multiple fragments; (b) culturing the multiple fragments in the presence of at least one cytokine; (c) obtaining T-cells from the cultured fragments; (d) expanding the number of T-cells to produce an expanded population of HPV-specific T-cells using one or both of (i) irradiated allogenic feeder cells and (ii) irradiated autologous feeder cells; and one or both of (iii) OKT3 antibody and (iv) interleukin-2, wherein the T-cells have not been depleted of CD4 + cells; (e) optionally, adding a second culturing step following (c); for use in treating or preventing cancer in a mammal, wherein the population of HPV-specific T-cells is administered to the mammal in an amount effective to treat or prevent the cancer in the mammal. (a) dividing an HPV-positive tumor sample into multiple fragments; (b) culturing the multiple fragments in the presence of at least one cytokine; (c) obtaining T-cells from the cultured fragments; (d) expanding the number of T-cells to produce an expanded population of HPV-specific T-cells using one or both of (i) irradiated allogenic feeder cells and (ii) irradiated autologous feeder cells; and one or both of (iii) OKT3 antibody and (iv) interleukin-2, wherein the T-cells have not been depleted of CD4 + cells; one or both of (i) irradiated allogenic feeder cells and (ii) irradiated autologous feeder cells; and one or both of (iii) OKT3 antibody and (iv) interleukin-2, (e) optionally, adding a second culturing step following (c);
Method for producing a construction made of reinforced concrete, comprising the following steps: - providing one or more spacers; - providing a reinforcement cage, a concrete mesh or a lattice girder; - positioning the reinforcement cage by means of the one or more spacers; - pouring concrete over the reinforcement cage, the concrete mesh or the lattice girder, on the one hand, and the one or more spacers, on the other hand; - allowing the concrete to set; wherein the one or more spacers comprise a plastic having elastomeric properties, which is a plastic having a modulus of elasticity of at least 1.00 GPa selected from a thermoplast chosen from polyvinyl chloride or polypropylene and/or polyethylene and the spacers preferably comprising 10.0 to 80.0 wt%, more preferably 20.0 to 80.0 wt% of said plastic having elastomeric properties; wherein the one or more spacers further comprise 5.0 to 60.0 wt% of polyvinyl butyral; and wherein the one or more spacers are porous. - providing one or more spacers; - providing a reinforcement cage, a concrete mesh or a lattice girder; - positioning the reinforcement cage by means of the one or more spacers; - pouring concrete over the reinforcement cage, the concrete mesh or the lattice girder, on the one hand, and the one or more spacers, on the other hand; - allowing the concrete to set; wherein the one or more spacers comprise a plastic having elastomeric properties, which is a plastic having a modulus of elasticity of at least 1.00 GPa selected from a thermoplast chosen from polyvinyl chloride or polypropylene and/or polyethylene and the spacers preferably comprising 10.0 to 80.0 wt%, more preferably 20.0 to 80.0 wt% of said plastic having elastomeric properties; wherein the one or more spacers further comprise 5.0 to 60.0 wt% of polyvinyl butyral; and wherein the one or more spacers are porous.
A method for managing an automatic scaling function of virtualized network function, characterized by comprising one of: determining by an element management system, EMS, that an automatic scaling function of virtualized network function, VNF, on a virtualized network function manager, VNFM, is to be managed, and transmitting a first management instruction to the VNFM by the EMS to instruct the VNFM to initiate or stop the automatic scaling function of the VNF on the VNFM, such that the VNFM initiates or stops scaling the VNF instance automatically; and determining by the EMS that the automatic scaling function of the VNF on a VNF instance is to be managed, and transmitting a second management instruction to the VNFM or the VNF instance by the EMS to instruct the VNFM or the VNF instance to initiate or stop the automatic scaling function of the VNF on the VNF instance, such that the VNF instance initiates or stops scaling the VNF instance automatically. determining by an element management system, EMS, that an automatic scaling function of virtualized network function, VNF, on a virtualized network function manager, VNFM, is to be managed, and transmitting a first management instruction to the VNFM by the EMS to instruct the VNFM to initiate or stop the automatic scaling function of the VNF on the VNFM, such that the VNFM initiates or stops scaling the VNF instance automatically; and determining by the EMS that the automatic scaling function of the VNF on a VNF instance is to be managed, and transmitting a second management instruction to the VNFM or the VNF instance by the EMS to instruct the VNFM or the VNF instance to initiate or stop the automatic scaling function of the VNF on the VNF instance, such that the VNF instance initiates or stops scaling the VNF instance automatically.
A method performed by a policy control function, PCF, entity in a communication system, the method comprising: receiving, from an application function, AF, entity, a first message including information for selecting a user plane function, UPF, entity for traffic routing of a terminal and information on a spatial condition associated with a location of the terminal; transmitting, to a session management function, SMF, entity, a second message to subscribe to receive information associated with the location of the terminal indicating that the terminal entered or left at least one specific area, the at least one specific area being determined by the PCF entity based on the spatial condition, wherein the second message comprises information on a list of the at least one specific area; receiving, from the SMF entity, a third message including the information associated with the location of the terminal; and transmitting, to the SMF entity, a fourth message based on the information associated with the location of the terminal included in the third message, the fourth message including the information for selecting the UPF entity for traffic routing of the terminal. receiving, from an application function, AF, entity, a first message including information for selecting a user plane function, UPF, entity for traffic routing of a terminal and information on a spatial condition associated with a location of the terminal; transmitting, to a session management function, SMF, entity, a second message to subscribe to receive information associated with the location of the terminal indicating that the terminal entered or left at least one specific area, the at least one specific area being determined by the PCF entity based on the spatial condition, wherein the second message comprises information on a list of the at least one specific area; receiving, from the SMF entity, a third message including the information associated with the location of the terminal; and transmitting, to the SMF entity, a fourth message based on the information associated with the location of the terminal included in the third message, the fourth message including the information for selecting the UPF entity for traffic routing of the terminal.
A method of correlating images taken at different times, comprising: segmenting, in a first image of a plurality of rigid elements taken at a first time and in a second image of the plurality of rigid elements taken at a second time after the first time, each rigid element of the plurality of rigid elements; calculating a homography for each rigid element of the plurality of rigid elements to yield a set of homographies, each homography correlating the rigid element as depicted in the first image to the rigid element as depicted in the second image; arranging the set of homographies into homography clusters for identifying those homographies that are most similar, which correspond to rigid elements that have not moved from the first time to the second time, but whose change in pose in the second image relative to the first image can be attributed entirely to a change in camera pose; selecting a most coherent homography cluster; and projecting each of the plurality of rigid elements as depicted in the second image onto the first image using a mean of the selected homography cluster to yield a projection image. segmenting, in a first image of a plurality of rigid elements taken at a first time and in a second image of the plurality of rigid elements taken at a second time after the first time, each rigid element of the plurality of rigid elements; calculating a homography for each rigid element of the plurality of rigid elements to yield a set of homographies, each homography correlating the rigid element as depicted in the first image to the rigid element as depicted in the second image; arranging the set of homographies into homography clusters for identifying those homographies that are most similar, which correspond to rigid elements that have not moved from the first time to the second time, but whose change in pose in the second image relative to the first image can be attributed entirely to a change in camera pose; selecting a most coherent homography cluster; and projecting each of the plurality of rigid elements as depicted in the second image onto the first image using a mean of the selected homography cluster to yield a projection image.