mhurhangee/patent-ind-claim-en huggingface dataset:
An exhalation valve that comprises: (a) a valve seat that has an orifice and that has a noncircular seal surface surrounding the orifice; and (b) a flexible flap that is secured to the valve seat at a centroid of the orifice and that has a variable stiffness structure , characterized in that the flexible flap is a noncircular flap, the variable stiffness structure includes a plurality of ribs that extend radially from the centroid of the flexible flap , at least some of the ribs have different lengths, and the longer ribs are configured to be stiffer than the shorter ribs . (a) a valve seat that has an orifice and that has a noncircular seal surface surrounding the orifice; and (b) a flexible flap that is secured to the valve seat at a centroid of the orifice and that has a variable stiffness structure ,
Apparatus comprising a body, a plurality of microphones symmetrically arranged in a predetermined geometry relative to the body such that the apparatus is configured to capture a sound field substantially from all directions around the body based on the predetermined geometry, wherein the plurality of microphones in the predetermined geometry relative to the body are arranged such that the sound field from any direction around the body is configured to be captured via at least four microphones of the plurality of microphones without significant acoustic shadowing by the body and captured via other microphones of the plurality of microphones with acoustic shadowing by the body; and electronics for processing signals from the plurality of microphones, where the electronics is configured to determine ambience information of the sound field based, at least partially, upon the signals received from the plurality of microphones and direction information of at least one sound source within said sound field around the body based, at least partially, upon the signals received from the at least four microphones of the plurality of microphones without significant acoustic shadowing. a body, a plurality of microphones symmetrically arranged in a predetermined geometry relative to the body such that the apparatus is configured to capture a sound field substantially from all directions around the body based on the predetermined geometry, wherein the plurality of microphones in the predetermined geometry relative to the body are arranged such that the sound field from any direction around the body is configured to be captured via at least four microphones of the plurality of microphones without significant acoustic shadowing by the body and captured via other microphones of the plurality of microphones with acoustic shadowing by the body; and electronics for processing signals from the plurality of microphones, where the electronics is configured to determine ambience information of the sound field based, at least partially, upon the signals received from the plurality of microphones and direction information of at least one sound source within said sound field around the body based, at least partially, upon the signals received from the at least four microphones of the plurality of microphones without significant acoustic shadowing.
Method for the fusion of 3D ultrasound images with a pre-acquired 3D image , comprising the following steps: a) acquisition of a first 3D ultrasound image in real-time; b) identification of at least one known reference pattern or object within the pre-acquired 3D image and the first 3D ultrasound image; c) registration of the first 3D ultrasound image acquired in real-time with the pre-acquired 3D image by using the reference pattern or object; d) fusion of 3D ultrasound images of a sequence of 3D ultrasound images acquired in real-time with the pre-acquired 3D image by using data of a registration between said 3D ultrasound images and the pre-acquired 3D image; e) display of fusion tomographic images, each fusion image comprising a corresponding 3D ultrasound image acquired in real-time and the pre-acquired 3D image, characterized in that the registration between the 3D ultrasound images acquired in real-time and the pre-acquired 3D image is performed in a continuous manner by a background processing, comprising continuing to acquire the real-time 3D ultrasound images and to register said real-time 3D ultrasound images with the pre-acquired 3D image by using said reference pattern or patterns or said object or objects, the said background processing comprising the steps of performing registration for each real -time 3D ultrasound image of the sequence of 3D ultrasound images, and omitting display for each real time 3D ultrasound image. a) acquisition of a first 3D ultrasound image in real-time; b) identification of at least one known reference pattern or object within the pre-acquired 3D image and the first 3D ultrasound image; c) registration of the first 3D ultrasound image acquired in real-time with the pre-acquired 3D image by using the reference pattern or object; d) fusion of 3D ultrasound images of a sequence of 3D ultrasound images acquired in real-time with the pre-acquired 3D image by using data of a registration between said 3D ultrasound images and the pre-acquired 3D image; e) display of fusion tomographic images, each fusion image comprising a corresponding 3D ultrasound image acquired in real-time and the pre-acquired 3D image,
A coating composition comprising at least one condensed tannin and water, and having a pH greater than 7, characterised in that it further comprises at least one polymerisation agent chosen from phosphate derivatives.
Method for operating a wind turbine , wherein for system start of the wind turbine on request at least one measured value is observed over a predetermined monitoring period and the system start is effected only when the at least one measured value in the monitoring period corresponds to defined specifications, characterized in that - the at least one measured value is stored continuously in a data storage , wherein the storage period in the data storage corresponds at least to the predetermined monitoring period; and - upon a request for a system start, it is checked, on the basis of the data storage , whether the at least one measured value in the period corresponding to the monitoring period before the request corresponds to the defined specifications . - the at least one measured value is stored continuously in a data storage , wherein the storage period in the data storage corresponds at least to the predetermined monitoring period; and - upon a request for a system start, it is checked, on the basis of the data storage , whether the at least one measured value in the period corresponding to the monitoring period before the request corresponds to the defined specifications .
Computer-implemented method for determining a blood pressure value, the method comprising the steps of: providing a single pulsatility signal of a user (S1), the pulsatility signal comprising a plurality of pulses; identifying a plurality of consecutive pulses of said single pulsatility signal and selecting only one pulse of the identified plurality of consecutive pulses; for said only one pulse of the single pulsatility signal: determining a first feature and a second feature; calculating a blood pressure value on the basis of a blood pressure function depending on the first feature, the second feature and function parameters (S6); wherein the first feature is a time-related feature comprising a time duration within said only one pulse of the single pulsatility signal, and the second feature is a normalized amplitude-related feature; wherein the normalized amplitude-related feature is an amplitude-related feature normalized by another amplitude-related feature; and wherein the blood pressure function depends linearly on the time-related feature and the normalized amplitude-related feature. providing a single pulsatility signal of a user (S1), the pulsatility signal comprising a plurality of pulses; identifying a plurality of consecutive pulses of said single pulsatility signal and selecting only one pulse of the identified plurality of consecutive pulses; for said only one pulse of the single pulsatility signal: determining a first feature and a second feature; calculating a blood pressure value on the basis of a blood pressure function depending on the first feature, the second feature and function parameters (S6); wherein the first feature is a time-related feature comprising a time duration within said only one pulse of the single pulsatility signal, and the second feature is a normalized amplitude-related feature; wherein the normalized amplitude-related feature is an amplitude-related feature normalized by another amplitude-related feature; and wherein the blood pressure function depends linearly on the time-related feature and the normalized amplitude-related feature. determining a first feature and a second feature; calculating a blood pressure value on the basis of a blood pressure function depending on the first feature, the second feature and function parameters (S6); wherein the first feature is a time-related feature comprising a time duration within said only one pulse of the single pulsatility signal, and the second feature is a normalized amplitude-related feature; wherein the normalized amplitude-related feature is an amplitude-related feature normalized by another amplitude-related feature; and wherein the blood pressure function depends linearly on the time-related feature and the normalized amplitude-related feature.
Filter assembly comprising at least a first busbar and a second busbar as well as a carrier element on which at least one electrical filter component is arranged, which is electrically connected to at least one of the busbars , the at least one electrical filter component being electrically connected to at least one of these busbars by mechanically clamping the carrier element between the first and second busbars , the electrical connection between the busbar and a conductive region located on the carrier element being established via a contact portion (8', 8") having at least one spring-like contact region (8.1), wherein the carrier element arranged between the busbars is secured by bracing the busbars against one another and the electrical contact between the busbars and the filter component is established by compressing contact portions (8', 8") while this mechanical bracing takes place, a first filter component coupling the first busbar to a component , which is at an electrical reference potential, and a second filter component coupling the second busbar to a component , which is at an electrical reference potential.
A data acquisition method, performed by a service provider network function entity, comprising: receiving a service request message initiated by a service consumer for acquiring a resource attribute of a resource, wherein the service request message carries query information configured to indicate the resource attribute; and sending data of the resource attribute to the service consumer through a service response message; wherein the data of the resource is configured with a corresponding code according to the resource attribute, and the query information is a code of the resource attribute; characterized in that in the case that there are at least two resource attributes, the service request message carries a set of codes of the resource attributes; a multi-level code of the resource attribute comprises at least a first-level subcode and a second-level subcode, wherein the multi-level code is configured to represent the resource attribute of a sub-resource contained in the resource, and the first-level subcode identifies a resource data type of the sub-resource and the second-level subcode indicates the resource attribute of the sub-resource identified by the first-level subcode. receiving a service request message initiated by a service consumer for acquiring a resource attribute of a resource, wherein the service request message carries query information configured to indicate the resource attribute; and sending data of the resource attribute to the service consumer through a service response message; wherein the data of the resource is configured with a corresponding code according to the resource attribute, and the query information is a code of the resource attribute; characterized in that in the case that there are at least two resource attributes, the service request message carries a set of codes of the resource attributes; a multi-level code of the resource attribute comprises at least a first-level subcode and a second-level subcode, wherein the multi-level code is configured to represent the resource attribute of a sub-resource contained in the resource, and the first-level subcode identifies a resource data type of the sub-resource and the second-level subcode indicates the resource attribute of the sub-resource identified by the first-level subcode.
Knitting tool bar having at least one body that has a longitudinal direction, and a knitting tool receptacle which has a multiplicity of grooves that run transversely to the longitudinal direction, knitting tools being releasably disposed in said grooves, wherein the knitting tool receptacle is disposed on a knitting tool support which is releasably fastened to the body , characterized in that the knitting tool support is fastened to the body by way of a fastening arrangement , the tensioning force of the latter being directed so as to be parallel with the grooves.
A sensor, comprising: - a sensor element with two opposite sides and a lateral side; - an interconnect comprising an electrically insulating flexible carrier configured for electrical conduction , wherein the carrier comprises two terminal segments at two opposite sides of a central segment, wherein the first of the two terminal segments is folded over the first side of the two opposite sides of the sensor element, wherein the central segment of the carrier is located adjacent to the lateral side of the sensor element and the second of the two terminal segments is folded over the second side of the two opposite sides of the sensor element, wherein the carrier is configured to transmit an electrical signal from a first electrode comprised on the first side of the sensor element to the second side of the sensor element to provide an electrical connection of the first electrode from the second side of the sensor element. - a sensor element with two opposite sides and a lateral side; - an interconnect comprising an electrically insulating flexible carrier configured for electrical conduction , wherein the carrier comprises two terminal segments at two opposite sides of a central segment, wherein the first of the two terminal segments is folded over the first side of the two opposite sides of the sensor element, wherein the central segment of the carrier is located adjacent to the lateral side of the sensor element and the second of the two terminal segments is folded over the second side of the two opposite sides of the sensor element,
A layered delivery system for a skin care composition, the system comprising: a. Flexible cover layer forming an upper surface of the delivery system removably attached to a coupling layer , the coupling layer having an upper surface in facing relation to the flexible cover layer, an opposite lower surface , an outer perimeter, and defining an interior void volume substantially closed by the flexible cover layer; b. A first adhesive layer disposed on a lower surface of the delivery system and protected by a removable release liner ; and c. A reservoir associated with the flexible cover layer, disposed in fluid communication with the interior void volume, and carrying the skin care composition, wherein the reservoir is attached to a lower surface of the flexible cover layer and extends therefrom into the interior void volume. a. Flexible cover layer forming an upper surface of the delivery system removably attached to a coupling layer , the coupling layer having an upper surface in facing relation to the flexible cover layer, an opposite lower surface , an outer perimeter, and defining an interior void volume substantially closed by the flexible cover layer; b. A first adhesive layer disposed on a lower surface of the delivery system and protected by a removable release liner ; and c. A reservoir associated with the flexible cover layer, disposed in fluid communication with the interior void volume, and carrying the skin care composition, wherein the reservoir is attached to a lower surface of the flexible cover layer and extends therefrom into the interior void volume.
Portable object comprising a control stem , the actuation of which in rotation can control at least one electronic or mechanical function of the portable object, a magnetized ring being driven in rotation by the control stem , two inductive sensors being arranged to detect the rotation of the control stem and the position of the latter, the two inductive sensors being arranged to be sensitive to a variation in magnetic induction produced by rotation of the magnetized ring in only two directions in space, which are parallel to each other, the portable object being characterized in that it includes a frame arranged to serve as a cradle for the control stem , the inductive sensors being disposed inside at least one housing arranged in the frame inside which said sensors are held by elastic means.
An antenna device comprising: a rectangular waveguide having first and second opening ends each to receive or output an electromagnetic wave; a septum phase plate disposed inside the rectangular waveguide in such a way as to partition the first opening end into two parts (2a1, 2a2) along a first direction perpendicular to a waveguide axial direction of the rectangular waveguide , a width of the septum phase plate in a second direction perpendicular to both the waveguide axial direction of the rectangular waveguide and the first direction becoming narrower stepwise with advancing from the first opening end toward the second opening end ; and two first projecting portions disposed on two respective first inner walls parallel to the septum phase plate , out of four inner walls of the rectangular waveguide , in such a way as to project toward an inside of the rectangular waveguide , wherein each of the two first projecting portions is disposed not to overlap with the septum phase plate in the first direction of the rectangular waveguide , characterized in that a disposed position of each of the first projecting portions with respect to the corresponding first inner wall is a central position of the corresponding first inner wall in the second direction; and wherein the first projecting portions are spaced apart from the edges of the first inner wall in the second direction. a rectangular waveguide having first and second opening ends each to receive or output an electromagnetic wave; a septum phase plate disposed inside the rectangular waveguide in such a way as to partition the first opening end into two parts (2a1, 2a2) along a first direction perpendicular to a waveguide axial direction of the rectangular waveguide , a width of the septum phase plate in a second direction perpendicular to both the waveguide axial direction of the rectangular waveguide and the first direction becoming narrower stepwise with advancing from the first opening end toward the second opening end ; and two first projecting portions disposed on two respective first inner walls parallel to the septum phase plate , out of four inner walls of the rectangular waveguide , in such a way as to project toward an inside of the rectangular waveguide , wherein each of the two first projecting portions is disposed not to overlap with the septum phase plate in the first direction of the rectangular waveguide , characterized in that a disposed position of each of the first projecting portions with respect to the corresponding first inner wall is a central position of the corresponding first inner wall in the second direction; and wherein the first projecting portions are spaced apart from the edges of the first inner wall in the second direction.
A sever system, comprising: a non-volatile storage device comprising a plurality of loadable configuration data ; and a configurable sever logic circuit characterised in that it is configured responsive to a transfer of the loadable configuration data to perform a plurality of operations comprising: mapping a plurality of module-level sever logic inputs to a plurality of module-specific sever logic functions as defined in the loadable configuration data; monitoring the module-level sever logic inputs by the configurable sever logic circuit based on the module-specific sever logic functions for a sever condition; and triggering at least one sever command to disconnect one or more outputs of a plurality of modules based on the module-specific sever logic functions and the module-level sever logic inputs. a non-volatile storage device comprising a plurality of loadable configuration data ; and a configurable sever logic circuit characterised in that it is configured responsive to a transfer of the loadable configuration data to perform a plurality of operations comprising: mapping a plurality of module-level sever logic inputs to a plurality of module-specific sever logic functions as defined in the loadable configuration data; monitoring the module-level sever logic inputs by the configurable sever logic circuit based on the module-specific sever logic functions for a sever condition; and triggering at least one sever command to disconnect one or more outputs of a plurality of modules based on the module-specific sever logic functions and the module-level sever logic inputs. mapping a plurality of module-level sever logic inputs to a plurality of module-specific sever logic functions as defined in the loadable configuration data; monitoring the module-level sever logic inputs by the configurable sever logic circuit based on the module-specific sever logic functions for a sever condition; and triggering at least one sever command to disconnect one or more outputs of a plurality of modules based on the module-specific sever logic functions and the module-level sever logic inputs.
A linear fibrous formation with a coating of polymeric nanofibers enveloping a supporting linear formation constituting a core , characterized in that the coating of polymeric nanofibers is created from a hollow electrically neutral nanofibrous plume in which nanofibers formed in the vicinity of the front face of a spinning electrode during spinning by AC high voltage are electrically neutral and are arranged in an irregular grid structure in which the individual nanofibers in short sections change their direction, in that the hollow electrically neutral nanofibrous plume is after forming a flat stripe wrapped around the core into a helical form, and in that the nanofibers of the coating are even after wrapping around the core arranged in an irregular grid structure in which the individual nanofibers in short sections change their direction.
Coffee machine , having a container for receiving coffee beans , having a grinder for grinding the coffee beans received in the container , wherein an opening is present in the container by means of which the coffee beans can be supplied from the container to the grinder , and wherein the coffee machine comprises a closure device having at least one sealing element for sealing the container against the grinder in the closed position of the closure device , by means of which the opening can be closed gas-tight, characterised in that at least one CO 2 sensor is present in the container , by means of which the CO 2 content in the container can be determined.