mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a cold mixed beverage of milk and an acidic component, wherein the method comprises the following steps in this order: • a denaturing step of the milk, wherein the milk is heated to a denaturing temperature T DENAT which is in a range of 72°C to 155°C prior to mixing with the acidic component and the milk is maintained at the denaturing temperature T DENAT for a denaturing period t DENAT , which is in a range of 30 sec to 1 h. • subsequently mixing the denatured milk with the acidic component to a mixture, • heat treating the mixture to increase shelf life, wherein the mixture is heated to a temperature T HALT which is in a range of 63 °Cto 155 °C, and maintaining the mixture at the temperature T HALT for a heat treatment period t HALT , • homogenizing the heat-treated mixture at a homogenizing pressure p HOM which is in a range of 75 bar to 275 bar, and • cooling the mixture to a temperature that is in a range of 4°C to 25°C, wherein the milk and the acidic component are mixed in such a mixing ratio that the mixture, after homogenization and cooling, has a pH value which is in a range of 5,8 to 7,0. • a denaturing step of the milk, wherein the milk is heated to a denaturing temperature T DENAT which is in a range of 72°C to 155°C prior to mixing with the acidic component and the milk is maintained at the denaturing temperature T DENAT for a denaturing period t DENAT , which is in a range of 30 sec to 1 h. • subsequently mixing the denatured milk with the acidic component to a mixture, • heat treating the mixture to increase shelf life, wherein the mixture is heated to a temperature T HALT which is in a range of 63 °Cto 155 °C, and maintaining the mixture at the temperature T HALT for a heat treatment period t HALT , • homogenizing the heat-treated mixture at a homogenizing pressure p HOM which is in a range of 75 bar to 275 bar, and • cooling the mixture to a temperature that is in a range of 4°C to 25°C,
A computer-implemented index generating method comprising: an image input step (s104) of inputting an image obtained by imaging a linear subject; a intensity profile acquiring step (s108) of acquiring, from the input image, a plurality of intensity profiles along a travelling direction orthogonal to a width direction of the linear subject, which are intensity profiles in the width direction of the linear subject and around the linear subject; a center estimating step (s110) of estimating a center in a width direction of an intensity profile for each of the plurality of intensity profiles, the center corresponding to a peak of a curve to which the intensity profile has been approximated; an aligning step (s112) of aligning the centers by moving the plurality of intensity profiles in the width direction based on the estimated center; a function calculating step (s116) of calculating a function corresponding to the acquired plurality of intensity profiles having the aligned centers; an integrating step of integrating the calculated function after subtraction therefrom of a parameter indicating a brightness around the linear subject; and an index generating step (s118) of generating an index indicating a width of the subject based on the calculated function, wherein the index is generated based on a result of the integration. an image input step (s104) of inputting an image obtained by imaging a linear subject; a intensity profile acquiring step (s108) of acquiring, from the input image, a plurality of intensity profiles along a travelling direction orthogonal to a width direction of the linear subject, which are intensity profiles in the width direction of the linear subject and around the linear subject; a center estimating step (s110) of estimating a center in a width direction of an intensity profile for each of the plurality of intensity profiles, the center corresponding to a peak of a curve to which the intensity profile has been approximated; an aligning step (s112) of aligning the centers by moving the plurality of intensity profiles in the width direction based on the estimated center; a function calculating step (s116) of calculating a function corresponding to the acquired plurality of intensity profiles having the aligned centers; an integrating step of integrating the calculated function after subtraction therefrom of a parameter indicating a brightness around the linear subject; and an index generating step (s118) of generating an index indicating a width of the subject based on the calculated function, wherein the index is generated based on a result of the integration.
A method for implementing a convergence system of a plurality of radio access networks, RANs, comprising: establishing , by a user equipment, UE, a first connection between an anchor RAN and the UE; receiving , by the UE, a message for configuring parameters of a link of the UE at an auxiliary RAN from the anchor RAN, wherein the message is received by the anchor RAN from the auxiliary RAN; establishing, by the UE, a second connection between the auxiliary RAN and the UE according to the parameters; keeping, by the UE, the first connection between the anchor RAN and the UE after establishing the second connection between the auxiliary RAN and the UE; transmitting , by the UE, a link establishment response message of the UE at the auxiliary RAN to the auxiliary RAN, wherein transmitting , by the UE, a link establishment response message of the UE at the auxiliary RAN to the auxiliary RAN comprises: transmitting the link establishment response message of the UE at the auxiliary RAN via the anchor RAN. establishing , by a user equipment, UE, a first connection between an anchor RAN and the UE; receiving , by the UE, a message for configuring parameters of a link of the UE at an auxiliary RAN from the anchor RAN, wherein the message is received by the anchor RAN from the auxiliary RAN; establishing, by the UE, a second connection between the auxiliary RAN and the UE according to the parameters; keeping, by the UE, the first connection between the anchor RAN and the UE after establishing the second connection between the auxiliary RAN and the UE; transmitting , by the UE, a link establishment response message of the UE at the auxiliary RAN to the auxiliary RAN, wherein transmitting , by the UE, a link establishment response message of the UE at the auxiliary RAN to the auxiliary RAN comprises: transmitting the link establishment response message of the UE at the auxiliary RAN via the anchor RAN.
Undercarriage of a rail vehicle, comprising two head pieces which can be supported on wheels, and a central beam connecting the two head pieces , wherein each head piece and the central beam can be connected detachably to one another via respectively a connecting flange formed from a first flange plate assigned to the central beam and a second flange plate assigned to the headpiece, wherein first and second flange plates form in connected state a vertical contact plane (E), characterised in that the first flange plate forms a horizontal standing surface which protrudes beyond the contact plane (E) and the second flange plate forms a horizontal support surface set back from the contact plane (E), wherein the support surface is designed to support the standing surface in vertical direction. characterised in that the first flange plate forms a horizontal standing surface which protrudes beyond the contact plane (E) and the second flange plate forms a horizontal support surface set back from the contact plane (E), wherein the support surface is designed to support the standing surface in vertical direction.
Fibronectin, or a functional variant thereof, as well as salts or solvates thereof, for use in the treatment or prevention of Chronic Myeloid Leukemia (CML).
A coin detection system, comprising: an excitation coil , a radial magnetic gradiometer and an axial magnetic gradiometer ; wherein the excitation coil is configured for providing an axial excitation magnetic field for a to-be-detected coin , in which the excitation magnetic field induces eddy currents inside the to-be-detected coin, and the eddy currents generate an induced magnetic field ; the radial magnetic gradiometer comprises at least two radial magnetoresistive sensors and the axial magnetic gradiometer comprises at least two axial magnetoresistive sensors , the radial magnetoresistive sensors and the axial magnetoresistive sensors being symmetrically distributed relative to a central plane or a central point of the excitation coil respectively; the radial magnetic gradiometer is configured for detecting a difference of magnetic field components of the induced magnetic field on two corresponding sides of the excitation coil and along a radial direction of the to-be-detected coin, and the axial magnetic gradiometer is configured for detecting a difference of magnetic field components of the induced magnetic field on two corresponding sides of the excitation coil and along an axial direction of the to-be-detected coin, the two corresponding sides being two opposite sides along an axial direction of the excitation coil; and the excitation coil is positioned such that a surface of the to-be-detected coin is parallel to the central plane of the excitation coil, and a distance between the surface of the to-be-detected coin and the central plane is at least half of the height (H) of the excitation coil. an excitation coil , a radial magnetic gradiometer and an axial magnetic gradiometer ;
A system for obscuring DIAMETER node information in a communication network, the system comprising: a DIAMETER agent platform , comprising: a network interface for receiving a message from a first mobility management entity, MME, ; a DIAMETER information hiding module for modifying, in the first message, DIAMETER information for the first MME so as to obscure the identity of the first MME , wherein the modification of the DIAMETER information comprises replacing, in the message, the DIAMETER information identifying the first MME with virtual DIAMETER identification information, wherein a plurality of MMEs in the same network of the first MME are associated with the same virtual DIAMETER identification information; and a routing module for routing the modified message to a second DIAMETER node ; and a store of the unmodified DIAMETER information associated with identification information of a subscriber. a network interface for receiving a message from a first mobility management entity, MME, ; a DIAMETER information hiding module for modifying, in the first message, DIAMETER information for the first MME so as to obscure the identity of the first MME , wherein the modification of the DIAMETER information comprises replacing, in the message, the DIAMETER information identifying the first MME with virtual DIAMETER identification information, wherein a plurality of MMEs in the same network of the first MME are associated with the same virtual DIAMETER identification information; and a routing module for routing the modified message to a second DIAMETER node ; and a store of the unmodified DIAMETER information associated with identification information of a subscriber.
A method for producing a bearing ring of a rolling bearing, comprising the steps of: preparing a formed body constituted of hypereutectoid steel; forming an annular heated region heated to a temperature of at least an A 1 point on said formed body by relatively rotating an induction heating member arranged to face part of an annular region for becoming a rolling contact surface of said bearing ring in said formed body to induction-heat said formed body along the circumferential direction of said annular region; simultaneously cooling the whole of said heated region to a temperature of not more than an M s point; and a step of retaining the formed body in a state where the heating is stopped after completion of the step of forming an annular heated region and before the step of cooling the whole of said heated region, wherein said hypereutectoid steel is JIS-defined high carbon-chromium bearing steel. preparing a formed body constituted of hypereutectoid steel; forming an annular heated region heated to a temperature of at least an A 1 point on said formed body by relatively rotating an induction heating member arranged to face part of an annular region for becoming a rolling contact surface of said bearing ring in said formed body to induction-heat said formed body along the circumferential direction of said annular region; simultaneously cooling the whole of said heated region to a temperature of not more than an M s point; and a step of retaining the formed body in a state where the heating is stopped after completion of the step of forming an annular heated region and before the step of cooling the whole of said heated region, wherein said hypereutectoid steel is JIS-defined high carbon-chromium bearing steel.
An integrated upgrading process for upgrading a heavy oil , the process comprising the steps of: introducing the heavy oil to a visbreaker unit ; processing the heavy oil in the visbreaker unit to produce a visbreaker product stream ; feeding the visbreaker product stream to a fractionator ; separating the visbreaker product stream in the fractionator to produce a bottoms stream , a gas oil stream , a naphtha stream , and a gas product stream ; feeding the bottoms stream to a supercritical water unit ; and processing the bottoms stream in the supercritical water unit to produce an upgraded bottoms stream . introducing the heavy oil to a visbreaker unit ; processing the heavy oil in the visbreaker unit to produce a visbreaker product stream ; feeding the visbreaker product stream to a fractionator ; separating the visbreaker product stream in the fractionator to produce a bottoms stream , a gas oil stream , a naphtha stream , and a gas product stream ; feeding the bottoms stream to a supercritical water unit ; and processing the bottoms stream in the supercritical water unit to produce an upgraded bottoms stream .
A method of operating an apparatus for analyzing biological samples, the apparatus comprising: - a receptacle for receiving a replaceable sensor module , the sensor module comprising one or more sensors and a writable memory ; - a measurement unit configured to bring a biological sample into operational interaction with at least a first sensor of the one or more sensors of a sensor module received by said receptacle , to obtain a measurement result responsive to the interaction between at least the first sensor and the biological sample and to output the obtained measurement result; - a control unit configured to control operation of the measurement unit ; - a data exchange interface configured to receive data from the writable memory and to forward data to the sensor module for storage in the writable memory; and - a communications interface for communicating with a remote host system ; wherein the method comprises performing the following steps by the control unit: a) receiving, from the remote host system via said communications interface , one or more operational parameters associated with the sensor module ; b) causing writing, via said data exchange interface , the received one or more operational parameters to the writable memory ; and c) controlling operation of the measurement unit in accordance with the received one or more operational parameters. - a receptacle for receiving a replaceable sensor module , the sensor module comprising one or more sensors and a writable memory ; - a measurement unit configured to bring a biological sample into operational interaction with at least a first sensor of the one or more sensors of a sensor module received by said receptacle , to obtain a measurement result responsive to the interaction between at least the first sensor and the biological sample and to output the obtained measurement result; - a control unit configured to control operation of the measurement unit ; - a data exchange interface configured to receive data from the writable memory and to forward data to the sensor module for storage in the writable memory; and - a communications interface for communicating with a remote host system ; a) receiving, from the remote host system via said communications interface , one or more operational parameters associated with the sensor module ; b) causing writing, via said data exchange interface , the received one or more operational parameters to the writable memory ; and c) controlling operation of the measurement unit in accordance with the received one or more operational parameters.
A dynamic headset apparatus comprising: a head cradle configured to receive a head of a subject and having a bottom surface configured to face a platform on which the dynamic headset apparatus is placed; a device comprising an instrument configured to be adjacent to the head of the subject when the head of the subject is in the head cradle , the instrument comprising a transducer configured to transmit or receive energy waves with respect to the head of the subject; a mount under the head cradle , the mount having a convex bottom surface configured to face the platform on which the dynamic headset apparatus is placed; and a base having a cavity configured to receive the convex bottom surface of the mount , wherein the cavity of the base has a larger area than that of the convex bottom surface of the mount such that the cavity defines a rotational path of movement and a sliding path of movement of the mount within the cavity. a head cradle configured to receive a head of a subject and having a bottom surface configured to face a platform on which the dynamic headset apparatus is placed; a device comprising an instrument configured to be adjacent to the head of the subject when the head of the subject is in the head cradle , the instrument comprising a transducer configured to transmit or receive energy waves with respect to the head of the subject; a mount under the head cradle , the mount having a convex bottom surface configured to face the platform on which the dynamic headset apparatus is placed; and a base having a cavity configured to receive the convex bottom surface of the mount , wherein the cavity of the base has a larger area than that of the convex bottom surface of the mount such that the cavity defines a rotational path of movement and a sliding path of movement of the mount within the cavity.
A transmissive diffuser plate comprising a substrate including a light incident surface on which light is incident and a light emitting surface configured to emit the incident light after transmitting the light, the transmissive diffuser plate comprising: a microlens angle modulation distribution group provided on at least one of the light incident surface and the light emitting surface, wherein the microlens angle modulation distribution group comprises a plurality of microlenses and an angle modulation part having an angle modulation distribution for slightly angle-modulating a direction of main light emitted from each of the plurality of microlenses , when a ratio λ/P of a wavelength λ [μm] of the main light to an average arrangement period P [μm] of the microlenses is denoted by θ [rad], and when the direction of the main light emitted from each of the plurality of microlenses is modulated by a modulation angle α [rad], a ratio α/θ of the modulation angle α to the θ satisfies 0.1 < α/ θ <10.0, and the angle modulation part is a quadrangular pyramid or a quadrangular pyramid frustum, and the plurality of microlenses are supported by a plurality of respective pyramidal surfaces in the angle modulation part . a microlens angle modulation distribution group provided on at least one of the light incident surface and the light emitting surface, wherein the microlens angle modulation distribution group comprises a plurality of microlenses and an angle modulation part having an angle modulation distribution for slightly angle-modulating a direction of main light emitted from each of the plurality of microlenses , when a ratio λ/P of a wavelength λ [μm] of the main light to an average arrangement period P [μm] of the microlenses is denoted by θ [rad], and when the direction of the main light emitted from each of the plurality of microlenses is modulated by a modulation angle α [rad], a ratio α/θ of the modulation angle α to the θ satisfies 0.1 < α/ θ <10.0, and the angle modulation part is a quadrangular pyramid or a quadrangular pyramid frustum, and the plurality of microlenses are supported by a plurality of respective pyramidal surfaces in the angle modulation part .
A method performed by a user equipment communicating with a base station , the method comprising: negotiating , with the base station , a repeating time interval for potential receipt of a radio-resource control release message that includes a cell radio-network temporary-identifier; receiving (410; 502), from the base station , the radio-resource control release message that includes a cell radio-network temporary-identifier; entering (415; 504), responsive to receiving the radio-resource control release message, an enhanced radio-resource control idle mode having discontinuous uplink and downlink communications with the base station ; receiving (420; 506), while in the enhanced radio-resource control idle mode and from the base station , a message, the message received in accordance with the cell radio-network temporary-identifier and the negotiated repeating time interval; and presenting (430; 508), while in the enhanced radio-resource control idle mode, the received message. negotiating , with the base station , a repeating time interval for potential receipt of a radio-resource control release message that includes a cell radio-network temporary-identifier; receiving (410; 502), from the base station , the radio-resource control release message that includes a cell radio-network temporary-identifier; entering (415; 504), responsive to receiving the radio-resource control release message, an enhanced radio-resource control idle mode having discontinuous uplink and downlink communications with the base station ; receiving (420; 506), while in the enhanced radio-resource control idle mode and from the base station , a message, the message received in accordance with the cell radio-network temporary-identifier and the negotiated repeating time interval; and presenting (430; 508), while in the enhanced radio-resource control idle mode, the received message.
Nasal pillow mask comprising a mask body comprising a central opening and an outer surface , a flexible nasal cushion comprising a pair of hollow nasal prong , said nasal cushion being detachably coupled to the mask body , and a poka-yoke coupling system comprising at least : - a finger element arranged on the nasal cushion , said finger element comprising a free end with a hook structure , and - a lodging traversing the mask body and comprising an exit orifice , wherein the hook structure of the finger element cooperates with the outer surface of the mask body , when the finger element is inserted into the lodging , for retaining the nasal cushion integrally coupled to the mask body , characterized in that the nasal pillow mask further comprises a magnetic connecting system for detachably securing the flexible nasal cushion to the mask body . - a finger element arranged on the nasal cushion , said finger element comprising a free end with a hook structure , and - a lodging traversing the mask body and comprising an exit orifice , wherein the hook structure of the finger element cooperates with the outer surface of the mask body , when the finger element is inserted into the lodging , for retaining the nasal cushion integrally coupled to the mask body , characterized in that the nasal pillow mask further comprises a magnetic connecting system for detachably securing the flexible nasal cushion to the mask body .