mhurhangee/ep-ind-claims huggingface dataset:
A composition for selectively colouring the curd fraction of milk, while leaving the whey fraction uncoloured, the composition comprising: a combination of an oil phase comprising an effective amount of paprika, an effective amount of a carotenoid, and a fat, and an aqueous phase comprising a caseinate. a combination of an oil phase comprising an effective amount of paprika, an effective amount of a carotenoid, and a fat, and an aqueous phase comprising a caseinate.
Apparatus for determining a layer thickness (t1, t2, t3) of a plurality of layers (1, 2, 3) arranged on a body, wherein said apparatus comprises a first measuring device (110; 110a) configured to determine a layer thickness (t1, t2, t3) of at least one of said plurality of layers (1, 2, 3) arranged on said body by performing one or more measurements using Terahertz, THz, radiation, wherein said apparatus further comprises a second measuring device (120; 120a) configured to determine a layer thickness of at least one of said plurality of layers of said body by performing one or more measurements based on an optical signal, wherein said apparatus is configured to determine, by means of said second measuring device (120; 120a), a layer thickness of a top layer of said plurality of layers (1, 2, 3), and to determine, by means of said first measuring device (110; 110a), a layer thickness (t1, t2) of at least one of the further layers of said plurality of layers (1, 2, 3) depending on said layer thickness of a top layer.
A housing for containing and supporting a filter cartridge (10, 110, 200, 202) including a filter element (14, 204) housed in a bag (12, 202, 210), an inlet fitting (66, 268) projecting from the bag (12, 202, 210) for receiving inlet fluid to be filtered by the filter element (14, 204), the housing comprising: a support housing portion (18, 212, 414) having an open end (22, 216, 418); and a lid portion (221, 214, 402, 404) configured to selectively close the open end of the support housing (18, 212, 414); an inlet aperture (222, 246, 250) in the lid portion 214, 404) configured to receive and maintain in position the inlet fitting (66, 268) of the filter cartridge (10, 110, 200); characterized in that the lid portion includes a split lid (214, 404) including at least two portions (226, 228; 406, 408), the two portions being dividable and being configured to be placed in an assembled configuration; wherein in the assembled configuration the two portions together define the inlet aperture (222, 246, 250) at their juncture. a support housing portion (18, 212, 414) having an open end (22, 216, 418); and a lid portion (221, 214, 402, 404) configured to selectively close the open end of the support housing (18, 212, 414); an inlet aperture (222, 246, 250) in the lid portion 214, 404) configured to receive and maintain in position the inlet fitting (66, 268) of the filter cartridge (10, 110, 200); characterized in that the lid portion includes a split lid (214, 404) including at least two portions (226, 228; 406, 408), the two portions being dividable and being configured to be placed in an assembled configuration; wherein in the assembled configuration the two portions together define the inlet aperture (222, 246, 250) at their juncture.
Threaded spindle module comprising a threaded spindle which extends along a longitudinal axis A and has an external thread at an output-side end, and, offset with respect to the external thread, a drive-side end with a peg for rotationally fixed coupling to an actuator interface, and with a threaded nut which is screwed onto the external thread, and wherein a joint-like curved support point, with sphere radius r, of the threaded nut serves as a pivot joint of the threaded spindle module with a pivot joint center relative to an associated receiver, including a support plane AE, such as for example a transport display, storage tray TR or brake piston, and wherein the threaded spindle module has a center of gravity SP, characterized in that the threaded spindle module is designed as a convex three-dimensional body with a homogeneous, uniform density distribution, such that the threaded spindle module automatically and autonomously assumes a monostable equilibrium position under force of gravity or as a controlled response to a disturbance variable or intervention or deflection, and wherein the monostable equilibrium position is furthermore characterized in that the drive-side end of the threaded spindle module is placed vertically at the top and the output-side end of the threaded spindle module is placed vertically at the bottom, perpendicularly one above the other and aligned with the longitudinal axis A, and oriented orthogonally to the horizontally arranged support plane AE, and in that the center of gravity SP of the threaded spindle module is arranged offset on the output side, in that a distance between the center of gravity SP and the support point is designed to be approximately the same as or shorter than a distance between the pivot joint center and the support point, so that the threaded spindle module centers itself in an inherently stable, automatic and autonomous fashion relative to its receiver, and aligns with the assigned actuator interface.
A waste-less cut-less composed wooden panel for a wooden timber building construction, the panel having side walls and layers, the layers being composed from cross-laminated wooden planks, where contact walls of the planks form the contact walls of the layers, by which the individual layers of the panel fit closely, where the planks of a second layer are laid in respect of the planks of a first layer at an angle ranging from 45° to 135°, wherein the side walls of the planks are arranged in orthogonal projection onto the contact wall of closely fitted layers of the panel to create projection patterns having a shape of quadrangles, characterized in that the panel has at least one opening and/or at least one depression and contains a static core with buckling resistance of at least 45 kN in three meters of height and one meter of width, where the static core is composed from three closely fitted layers of planks with thickness of the planks ranging from 19 to 35 mm and width of the planks ranging from 80 to 400 mm, where the planks of an external layer of the static core are placed vertically in the panel and the side walls of the planks of the external layers of the static core fit closely, wherein the planks placed in the same layer have the same thickness and the layers of the planks are screwed together by steel wood screws placed in at least two pieces in each projection pattern.
Method for electronically controlling a bicycle gearshift, comprising the steps of: a) detecting (110, 120) a first actual command value (H A; K A) of an actuator (14, 15) to position a motion transmission chain in engagement with a first of at least three coaxial toothed wheels (11, 12), and a second actual command value (H B; K B) of the actuator (14, 15) to position the chain in engagement with a second of said toothed wheels (11, 12), b) for each toothed wheel (11, 12), determining a nominal command value (Q i; S i) of the actuator (14, 15) theoretically to position the chain in engagement with said toothed wheel (11, 12), and c) computing an actual command value (H i; K i) of said actuator (14, 15) at least for each of said toothed wheels (11, 12) other than the first and second toothed wheel, based on said nominal command values (Q i; S i) and on said first and second actual command value (H B, H A; K B, K A). a) detecting (110, 120) a first actual command value (H A; K A) of an actuator (14, 15) to position a motion transmission chain in engagement with a first of at least three coaxial toothed wheels (11, 12), and a second actual command value (H B; K B) of the actuator (14, 15) to position the chain in engagement with a second of said toothed wheels (11, 12), b) for each toothed wheel (11, 12), determining a nominal command value (Q i; S i) of the actuator (14, 15) theoretically to position the chain in engagement with said toothed wheel (11, 12), and c) computing an actual command value (H i; K i) of said actuator (14, 15) at least for each of said toothed wheels (11, 12) other than the first and second toothed wheel, based on said nominal command values (Q i; S i) and on said first and second actual command value (H B, H A; K B, K A).
A polarity correction circuit for a system (100a, 100b) of Power over Ethernet (PoE), comprising: a detection module, configured to detect a polarity of a DC voltage transmitted from a Power of Sourcing Equipment to a powered device and generate one or more control signals based on the polarity of the DC voltage, wherein a predetermined polarity of the DC voltage is related to a connection of a single pair of lines connecting the PSE and the powered device, and whether the PSE and the powered device are connected correctly is indicated by whether the polarity of the DC voltage is accordant with the predetermined polarity of the DC voltage; and a switching module, configured to: receive the one or more control signals and a data signal, the data signal being transmitted from the powered device; and adapt a polarity of the data signal based on the one or more control signals such that the polarity of the data signal is accordant with the polarity of the DC voltage, before the data signal being transmitted to the PSE. a detection module, configured to detect a polarity of a DC voltage transmitted from a Power of Sourcing Equipment to a powered device and generate one or more control signals based on the polarity of the DC voltage, wherein a predetermined polarity of the DC voltage is related to a connection of a single pair of lines connecting the PSE and the powered device, and whether the PSE and the powered device are connected correctly is indicated by whether the polarity of the DC voltage is accordant with the predetermined polarity of the DC voltage; and a switching module, configured to: receive the one or more control signals and a data signal, the data signal being transmitted from the powered device; and adapt a polarity of the data signal based on the one or more control signals such that the polarity of the data signal is accordant with the polarity of the DC voltage, before the data signal being transmitted to the PSE. receive the one or more control signals and a data signal, the data signal being transmitted from the powered device; and adapt a polarity of the data signal based on the one or more control signals such that the polarity of the data signal is accordant with the polarity of the DC voltage, before the data signal being transmitted to the PSE.
A competitive assay for determining the concentration of a cyclic nucleotide phosphate in a sample, comprising: combining, in a reaction chamber provided with a capture antibody, a conjugate of said cyclic nucleotide phosphate and alkaline phosphatase, a primary antibody which is bound by said capture antibody and binds, when so bound, said cyclic nucleotide phosphate, and said sample and incubating the same to permit binding of said primary antibody and said conjugate, washing said incubated reaction mixture to remove to any unbound conjugate or antibody, adding to said washed reaction mixture an alkaline phosphatase-triggered 1,2-dioxetane which, when contacted with alkaline phosphatase in said conjugate, is caused to decompose and release light, and detecting any chemiluminescent signal emitted by said reaction mixture, wherein the 1,2 dioxetane is CSPD. combining, in a reaction chamber provided with a capture antibody, a conjugate of said cyclic nucleotide phosphate and alkaline phosphatase, a primary antibody which is bound by said capture antibody and binds, when so bound, said cyclic nucleotide phosphate, and said sample and incubating the same to permit binding of said primary antibody and said conjugate, washing said incubated reaction mixture to remove to any unbound conjugate or antibody, adding to said washed reaction mixture an alkaline phosphatase-triggered 1,2-dioxetane which, when contacted with alkaline phosphatase in said conjugate, is caused to decompose and release light, and detecting any chemiluminescent signal emitted by said reaction mixture, wherein the 1,2 dioxetane is CSPD.
Motor vehicle comprising a passenger compartment, in the roof of which there is formed an opening, and also an opening roof device designed to close or open said opening, said opening roof device comprising: - a shutter having a plurality of slats (1000A, 1000B, 1000C, 1000D, 1000E) that are disposed next to one another, parallel to a rolling axle (801; 901) of the shutter, and - actuating means for unrolling and rolling up the shutter about its rolling axle (801; 901), between an unrolled configuration in which it is deployed so as to close said opening in the roof of the passenger compartment, and a rolled-up configuration, in which it is rolled-up around its rolling axle (801; 901) so as to open this opening, characterized in that said shutter comprises at least one inclinable slat (1000B, 1000C, 1000D, 1000E) that is pivotable, in the unrolled configuration of the shutter, between: - a sealing position, in which it is contiguous with the other slats of the roof shutter and extends in an unrolling plane of the shutter, and - a ventilating position, in which it is inclined with respect to said unrolling plane of the shutter. - a shutter having a plurality of slats (1000A, 1000B, 1000C, 1000D, 1000E) that are disposed next to one another, parallel to a rolling axle (801; 901) of the shutter, and - actuating means for unrolling and rolling up the shutter about its rolling axle (801; 901), between an unrolled configuration in which it is deployed so as to close said opening in the roof of the passenger compartment, and a rolled-up configuration, in which it is rolled-up around its rolling axle (801; 901) so as to open this opening, - a sealing position, in which it is contiguous with the other slats of the roof shutter and extends in an unrolling plane of the shutter, and - a ventilating position, in which it is inclined with respect to said unrolling plane of the shutter.
Sensor mount for a sensor for object detection, having a housing for the sensor, a holder on which the housing is held in a pivotable manner, an adjusting device for angular orientation of the housing, and an angular gear mechanism for controlling the adjusting device, wherein the angular gear mechanism has a drive wheel and an output drive wheel, wherein the drive wheel is connected to an engagement contour for transmitting torque to the drive wheel, characterized in that a gear mechanism housing of the angular gear mechanism is designed to permit mounting of the drive wheel on different sides of the angular gear mechanism.
A method of controlling a smart shoe (1, 500), the smart shoe (1, 500) including an actuator (133a, 133b, 1230) and at least one sensor (133c, 133d, 1210) comprising a foot pressure sensor (133c, 133d, 1210) configured to measure a foot pressure of a user wearing the smart shoe (1, 500) to generate foot pressure information and a motion sensor configured to measure a motion size to generate motion information, the method comprising: estimating a posture (510, 520, 530) of the user based on sensor data output from the sensor (133c, 133d, 1210) to generate an estimated posture, wherein the estimating the posture (510, 520, 530) comprises estimating the posture (510, 520, 530) of the user based on the foot pressure information and the motion information to generate the estimated posture; controlling the actuator (133a, 133b, 1230) based on the estimated posture of the user; and determining whether the posture (510, 520, 530) of the user is a sitting posture or not, wherein the posture (510, 520, 530) is determined as the sitting posture in response to the foot pressure being less than or equal to a first threshold value and the motion size being less than or equal to a second threshold value, and selectively stopping an operation of the actuator (133a, 133b, 1230) in response to the estimated posture of the user being the sitting posture or maintaining the operation of the actuator (133a, 133b, 1230) in response to the estimated posture of the user not being the sitting posture. estimating a posture (510, 520, 530) of the user based on sensor data output from the sensor (133c, 133d, 1210) to generate an estimated posture, wherein the estimating the posture (510, 520, 530) comprises estimating the posture (510, 520, 530) of the user based on the foot pressure information and the motion information to generate the estimated posture; controlling the actuator (133a, 133b, 1230) based on the estimated posture of the user; and determining whether the posture (510, 520, 530) of the user is a sitting posture or not, wherein the posture (510, 520, 530) is determined as the sitting posture in response to the foot pressure being less than or equal to a first threshold value and the motion size being less than or equal to a second threshold value, and selectively stopping an operation of the actuator (133a, 133b, 1230) in response to the estimated posture of the user being the sitting posture or maintaining the operation of the actuator (133a, 133b, 1230) in response to the estimated posture of the user not being the sitting posture.
A network function virtualization, NFV, fault management apparatus, comprising: a first receiving unit, configured to receive a fault subscription message from at least one subscription node in an NFV system, wherein the fault subscription message comprises: a node identifier of the at least one subscription node and fault information to which a subscription is requested by the at least one subscription node; a second receiving unit, configured to receive a fault publish message from at least one fault publish node in the NFV system; a matching unit, configured to perform matching between the fault information to which the subscription is requested and the fault publish message, and generate a fault notification message; and a notification unit, configured to notify the fault notification message to a corresponding subscription node associated with the node identifier of the at least one subscription node. a first receiving unit, configured to receive a fault subscription message from at least one subscription node in an NFV system, wherein the fault subscription message comprises: a node identifier of the at least one subscription node and fault information to which a subscription is requested by the at least one subscription node; a second receiving unit, configured to receive a fault publish message from at least one fault publish node in the NFV system; a matching unit, configured to perform matching between the fault information to which the subscription is requested and the fault publish message, and generate a fault notification message; and a notification unit, configured to notify the fault notification message to a corresponding subscription node associated with the node identifier of the at least one subscription node.
A method for predicting the post-operative position of a replacement intraocular lens in an eye of a patient, characterised in that the method comprises the steps of: (i) determining the position of the existing crystalline lens in the pre-operative eye of the patient; (ii) determining the thickness of the crystalline lens in the pre-operative eye of the patient; and (iii) predicting the post-operative position of the intraocular lens relative to the position of the crystalline lens in the pre-operative eye of the patient, as a proportion of the thickness of the crystalline lens in the pre-operative eye of the patient, wherein the proportion is defined by a single numerical constant which is determined by the intraocular lens type. (i) determining the position of the existing crystalline lens in the pre-operative eye of the patient; (ii) determining the thickness of the crystalline lens in the pre-operative eye of the patient; and (iii) predicting the post-operative position of the intraocular lens relative to the position of the crystalline lens in the pre-operative eye of the patient, as a proportion of the thickness of the crystalline lens in the pre-operative eye of the patient,
Pneumatic brake booster having a booster housing, having at least one vacuum chamber and at least one working chamber which are provided in the booster housing and which are pneumatically separated from one another by an elastic diaphragm, wherein the diaphragm bears in regions against a substantially circular diaphragm plate which is axially displaceable in the booster housing between a zero position and a maximum stroke, wherein an axial spacing between the zero position and the maximum stroke defines a stroke range of the brake booster, wherein the diaphragm has a rolling fold which, during the displacement of the diaphragm plate, rolls on a rolling region on an inner wall of the booster housing, characterized in that the booster housing has, in the rolling region, a tapered, conical portion with a cone angle (α) ≥ 8° and an axial extent > 1/3 * stroke range.
A system configured to deliver energy to an airway in a lung, the system comprising: an energy delivery device having a temperature detecting element and an energy emission element; an energy generator configured to be coupled to the energy emission element and having an activation state and a standby state, wherein energy is delivered to the energy emission element in the activation state and not in the standby state; and a controller having a processor and a user interface with a first visual indicator and a second visual indicator, the processor being configured to activate the first visual indicator when a temperature measured by the temperature detecting element is not within a predetermined temperature range of 15 degrees C to 35 degrees C, and to activate the second visual indicator when an impedance of an energy emission circuit between the energy generator, the energy emission element, and a patient is not within a predetermined impedance range. an energy delivery device having a temperature detecting element and an energy emission element; an energy generator configured to be coupled to the energy emission element and having an activation state and a standby state, wherein energy is delivered to the energy emission element in the activation state and not in the standby state; and a controller having a processor and a user interface with a first visual indicator and a second visual indicator, the processor being configured to activate the first visual indicator when a temperature measured by the temperature detecting element is not within a predetermined temperature range of 15 degrees C to 35 degrees C, and to activate the second visual indicator when an impedance of an energy emission circuit between the energy generator, the energy emission element, and a patient is not within a predetermined impedance range.