mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining the probability of the risk of chromosomal and genetic disorders from free DNA of fetal origin comprising the following steps: - extracting said free DNA of fetal origin from a sample of maternal plasma previously collected; - sequencing said free DNA of fetal origin extracted; - obtaining the sequencing data in FASTQ format comprising the biological sequences and the quality scores of said biological sequences; said method being characterized in that it comprises the following steps: - converting said sequencing from said FASTQ format to the SAM format, in which said biological sequences are aligned with a reference genome; - converting said sequencing from the SAM format to the BAM format, in which the data contained in said SAM format are compressed by conversion into binary code; - counting and categorizing the READ sequenced from said SAM format, in which each READ is categorized as mapped on each chromosome or mapped on all autosomes; - defining a predetermined reference sample; - calculating the z-score on a chromosome of interest with respect to said predetermined reference sample; determining the probability of anomaly risk on said chromosome of interest if said z-score is higher than a predetermined value. - extracting said free DNA of fetal origin from a sample of maternal plasma previously collected; - sequencing said free DNA of fetal origin extracted; - obtaining the sequencing data in FASTQ format comprising the biological sequences and the quality scores of said biological sequences; said method being characterized in that it comprises the following steps: - converting said sequencing from said FASTQ format to the SAM format, in which said biological sequences are aligned with a reference genome; - converting said sequencing from the SAM format to the BAM format, in which the data contained in said SAM format are compressed by conversion into binary code; - counting and categorizing the READ sequenced from said SAM format, in which each READ is categorized as mapped on each chromosome or mapped on all autosomes; - defining a predetermined reference sample; - calculating the z-score on a chromosome of interest with respect to said predetermined reference sample; - converting said sequencing from said FASTQ format to the SAM format, in which said biological sequences are aligned with a reference genome; - converting said sequencing from the SAM format to the BAM format, in which the data contained in said SAM format are compressed by conversion into binary code; - counting and categorizing the READ sequenced from said SAM format, in which each READ is categorized as mapped on each chromosome or mapped on all autosomes; - defining a predetermined reference sample; - calculating the z-score on a chromosome of interest with respect to said predetermined reference sample; determining the probability of anomaly risk on said chromosome of interest if said z-score is higher than a predetermined value.
An Advanced Driver Assistance System (ADAS) for a vehicle comprising: a driver monitoring module to monitor a driver state of a driver in the vehicle; an exterior monitoring module to monitor at least one of an external environment of the vehicle and a driving pattern of the driver, and adjust region of interest of view of the external environment, wherein the region of interest is adjusted based on data associated with path of travel of the vehicle, wherein the data associated with path of travel is at least one of an indicator initiation, a steering wheel angle change, a pre-fed route, a Global Positioning System input, and wherein a shape of the region of interest is adjusted to adapt to changes in external environment data received from the exterior monitoring module; a processor, coupled to the driver monitoring module and the exterior monitoring module, to: receive driver state data from the driver monitoring module and external environment data from the exterior monitoring module; and detect an event based on at least one of the external environment data and the driver state data; and a warning generating module, coupled to the processor, to generate a warning for the driver in response to the event, wherein the intensity of the warning is based on at least one of the external environment data and the driver state data. a driver monitoring module to monitor a driver state of a driver in the vehicle; an exterior monitoring module to monitor at least one of an external environment of the vehicle and a driving pattern of the driver, and adjust region of interest of view of the external environment, wherein the region of interest is adjusted based on data associated with path of travel of the vehicle, wherein the data associated with path of travel is at least one of an indicator initiation, a steering wheel angle change, a pre-fed route, a Global Positioning System input, and wherein a shape of the region of interest is adjusted to adapt to changes in external environment data received from the exterior monitoring module; a processor, coupled to the driver monitoring module and the exterior monitoring module, to: receive driver state data from the driver monitoring module and external environment data from the exterior monitoring module; and detect an event based on at least one of the external environment data and the driver state data; and receive driver state data from the driver monitoring module and external environment data from the exterior monitoring module; and detect an event based on at least one of the external environment data and the driver state data; and a warning generating module, coupled to the processor, to generate a warning for the driver in response to the event, wherein the intensity of the warning is based on at least one of the external environment data and the driver state data.
Device comprising: a housing with a housing opening defining a fluid connection between a fluid channel in the device and ambient air, a sensor coupled to the fluid channel and disposed in the housing , configured to sense at least one component of the ambient air, a micro fluid actuator arranged downstream of the sensor and disposed in the housing , configured, in the suction stroke, to suck in fluid through the fluid channel and to transport the same towards the sensor , and, in the pressure stroke, to transport the sucked-in fluid through said fluid channel back towards the housing opening , the sensor being arranged spaced apart from the housing opening , and the volume of the fluid channel between the sensor and the housing opening being equal to or smaller than the stroke volume which the micro fluid actuator may convey with a single suction stroke, characterized in that the stroke volume of the micro fluid actuator is at least 2.5 times larger than the volume of a fluid channel portion between the sensor and the housing opening , and in that the micro fluid actuator is a membrane actuator having a carrier and a deflectable membrane arranged at the same, and the membrane is mechanically biased so that the membrane is spaced apart from the carrier in an unoperated idle position and, upon operation, moves towards the carrier . a housing with a housing opening defining a fluid connection between a fluid channel in the device and ambient air, a sensor coupled to the fluid channel and disposed in the housing , configured to sense at least one component of the ambient air, a micro fluid actuator arranged downstream of the sensor and disposed in the housing , configured, in the suction stroke, to suck in fluid through the fluid channel and to transport the same towards the sensor , and, in the pressure stroke, to transport the sucked-in fluid through said fluid channel back towards the housing opening , the sensor being arranged spaced apart from the housing opening , and the volume of the fluid channel between the sensor and the housing opening being equal to or smaller than the stroke volume which the micro fluid actuator may convey with a single suction stroke, characterized in that the stroke volume of the micro fluid actuator is at least 2.5 times larger than the volume of a fluid channel portion between the sensor and the housing opening , and in that the micro fluid actuator is a membrane actuator having a carrier and a deflectable membrane arranged at the same, and the membrane is mechanically biased so that the membrane is spaced apart from the carrier in an unoperated idle position and, upon operation, moves towards the carrier .
A check valve arrangement for a blood cassette or a blood tubing set, comprising an inlet and an outlet for medical fluids, with a valve body , wherein, in an initial state, the check valve arrangement permits a flow of a working fluid and/or of a sterilisation fluid through the check valve arrangement in both flow directions, i.e. from the inlet to the outlet and vice versa, and wherein, in an operating state, the check valve arrangement permits only one direction of flow of the working fluid, characterized in that the check valve arrangement comprises a pin-pin-reception connection comprising a pin-reception portion for receiving a pin and the pin movably arranged in the pin-reception portion, wherein the check valve arrangement can be transferred from the initial state into the operating state by force application on the pin-pin-reception connection, and/or by an impression of path on the pin-pin-reception connection, each in longitudinal direction of the pin and the pin-reception.
Household steam treatment appliance (D), having a steam generator , wherein the steam generator has - a water tank for receiving water to be evaporated, - at least one heating element arranged on the floor outside of the water tank , by means of which water present in the water tank can be heated for steam generation, and - a heating element temperature sensor which is thermally coupled to the at least one heating element , wherein the household steam treatment appliance (D) - has a data processing facility , which is coupled to the at least one heating element temperature sensor , - the data processing facility is designed to establish a degree of calcification of the water tank using a heating element temperature (HZT-1, HZT-2, T1, T2) measured by the at least one heating element temperature sensor and - the at least one heating element is covered on its side facing away from the water tank by a metallic cover and - the heating element temperature sensor is attached to the metallic cover , so that it is indirectly thermally coupled to the at least one heating element via the cover . wherein the steam generator has - a water tank for receiving water to be evaporated, - at least one heating element arranged on the floor outside of the water tank , by means of which water present in the water tank can be heated for steam generation, and - a heating element temperature sensor which is thermally coupled to the at least one heating element , - a water tank for receiving water to be evaporated, - at least one heating element arranged on the floor outside of the water tank , by means of which water present in the water tank can be heated for steam generation, and - a heating element temperature sensor which is thermally coupled to the at least one heating element , wherein the household steam treatment appliance (D) - has a data processing facility , which is coupled to the at least one heating element temperature sensor , - the data processing facility is designed to establish a degree of calcification of the water tank using a heating element temperature (HZT-1, HZT-2, T1, T2) measured by the at least one heating element temperature sensor and - the at least one heating element is covered on its side facing away from the water tank by a metallic cover and - the heating element temperature sensor is attached to the metallic cover , so that it is indirectly thermally coupled to the at least one heating element via the cover . - has a data processing facility , which is coupled to the at least one heating element temperature sensor , - the data processing facility is designed to establish a degree of calcification of the water tank using a heating element temperature (HZT-1, HZT-2, T1, T2) measured by the at least one heating element temperature sensor and - the at least one heating element is covered on its side facing away from the water tank by a metallic cover and - the heating element temperature sensor is attached to the metallic cover , so that it is indirectly thermally coupled to the at least one heating element via the cover .
Method for cutting an ink sticker in a multilayer structure comprising an ink layer between a protective layer and an ink carrier layer , characterized by the following steps of: - positioning the multilayer structure to be cut in front of a femtosecond pulsed laser device with the protective layer facing said femtosecond pulsed laser device ; and - kiss cutting the ink layer through the protective layer by laser irradiation generated by the femtosecond pulsed laser device in order to produce an ink sticker between the protective layer and the uncut ink carrier layer , wherein laser parameters of the femtosecond pulsed laser device are chosen depending on ablation thresholds of the protective layer and the ink layer , the ablation threshold of the ink layer being less than the ablation threshold of the protective layer , such that the protective layer remains uncut. - positioning the multilayer structure to be cut in front of a femtosecond pulsed laser device with the protective layer facing said femtosecond pulsed laser device ; and - kiss cutting the ink layer through the protective layer by laser irradiation generated by the femtosecond pulsed laser device in order to produce an ink sticker between the protective layer and the uncut ink carrier layer ,
Coil, comprising a winding, surrounded at least in some regions by an epoxy resin, where a ratio of a compressive strength of the epoxy resin to the tensile strength thereof at room temperature is between 2 and 5, where the modulus of elasticity of the epoxy resin at room temperature is at least 5000 MPa, and where, at a glass transition temperature of the epoxy resin, the modulus of elasticity and the tensile strength assume values which are at least 30% of the values at room temperature. comprising a winding, surrounded at least in some regions by an epoxy resin, where a ratio of a compressive strength of the epoxy resin to the tensile strength thereof at room temperature is between 2 and 5, where the modulus of elasticity of the epoxy resin at room temperature is at least 5000 MPa, and where, at a glass transition temperature of the epoxy resin, the modulus of elasticity and the tensile strength assume values which are at least 30% of the values at room temperature.
A wave rotor comprising a rotor drum mounted for rotation about a central axis of the wave rotor, the rotor drum formed to include a plurality of rotor passages that extend along the central axis, a first end plate aligned axially with the rotor drum and formed to include a port aperture extending axially through the first end plate along an arc around the central axis and aligned radially with the rotor passages , and a first canceling resonator including a body and a neck that cooperate to define a cavity , wherein the neck is narrower than the body and is formed to include a mouth positioned adjacent to the port aperture ; wherein the first end plate includes a leading edge wall and a trailing edge wall spaced apart circumferentially from the leading edge wall to form portions of the port aperture , the rotor passages are configured to rotate in a direction from the leading edge wall to the trailing edge wall, the mouth is positioned adjacent to the leading edge wall, and the first canceling resonator extends circumferentially away from the port aperture ; or wherein the first end plate includes a leading edge wall, a trailing edge wall spaced apart circumferentially from the leading edge wall, a radial outer wall interconnecting the leading edge wall and the trailing edge wall, and a radial inner wall radially spaced apart from the radial outer wall and interconnecting the leading edge wall and the trailing edge wall to form the port aperture, the mouth is positioned adjacent to one of the radial outer wall and the radial inner wall, and the first canceling resonator extends radially away from the port aperture.
A method for railway obstacle identification, the method comprising: receiving infrared (IR) images from an IR sensor installed on an engine of a train, the IR sensor facing the direction of travel and adapted to acquire IR images representing the view in front of the engine; obtaining a vibration profile; filtering effects of vibrations from the IR images based on the vibration profile; detecting rails in the IR images based on temperature differences between the rails and their background, and temperature variance along the rails, wherein the variance of temperature of pixels representing rails in the IR images is less than 2 centigrade degrees along one kilometer of the rails and the difference of temperature between pixels representing rails and pixels of the background around the rails is no less than 15 degrees; deciding, based on pre-prepared rules and parameters, whether the IR images contain image of an obstacle and whether that obstacle forms a threat on the train's travel; and providing an alarm signal if the IR images contain an image of an obstacle. receiving infrared (IR) images from an IR sensor installed on an engine of a train, the IR sensor facing the direction of travel and adapted to acquire IR images representing the view in front of the engine; obtaining a vibration profile; filtering effects of vibrations from the IR images based on the vibration profile; detecting rails in the IR images based on temperature differences between the rails and their background, and temperature variance along the rails, wherein the variance of temperature of pixels representing rails in the IR images is less than 2 centigrade degrees along one kilometer of the rails and the difference of temperature between pixels representing rails and pixels of the background around the rails is no less than 15 degrees; deciding, based on pre-prepared rules and parameters, whether the IR images contain image of an obstacle and whether that obstacle forms a threat on the train's travel; and providing an alarm signal if the IR images contain an image of an obstacle.
A mechanical seal comprising a pair of sliding parts respectively constituting a rotating sealing ring and a stationary sealing ring of the mechanical seal and having sealing faces (S) that relatively slide on each other, wherein at least one of said sliding parts is an annular body and has a plurality of dimples formed in the sealing face (S), the plurality of dimples having planar shapes as shown in figure 2 and including dimples arranged tc communicate with an inner peripheral side of the sliding part , characterized in that the dimples have opening diameters as shown in figure 2 and are distributed as shown in figure 2.
A method for automatically analyzing and understanding activities and interactions in any one or more of: sports analytics, crowd monitoring, surveillance, or traffic monitoring and analysis, the method comprising: receiving at least location information for one or more individual objects in a scene at a given time; receiving visual information about the scene and at least one individual object in the scene; applying at least one first shared machine learning or artificial intelligence technique, shared among the one or more individual objects in the scene, to automatically learn an informative representation of spatio-temporal dynamics of location trajectory data for each of the one or more individual objects in the scene; applying at least one second shared machine learning or artificial intelligence technique, shared among the one or more individual objects in the scene, to automatically learn an informative representation of visual appearance data; combining the informative representations of spatio-temporal dynamics of location trajectory data and visual appearance data by concatenating the outputs of the first shared machine learning or artificial intelligence technique and the outputs of the second shared machine learning or artificial intelligence technique to form a fused feature representation, and passing the fused feature representation to a fully connected layer; identifying and analyzing individual and group activities in the scene based on the combined trajectory and visual data; and providing at least one individual or group activity as an output. receiving at least location information for one or more individual objects in a scene at a given time; receiving visual information about the scene and at least one individual object in the scene; applying at least one first shared machine learning or artificial intelligence technique, shared among the one or more individual objects in the scene, to automatically learn an informative representation of spatio-temporal dynamics of location trajectory data for each of the one or more individual objects in the scene; applying at least one second shared machine learning or artificial intelligence technique, shared among the one or more individual objects in the scene, to automatically learn an informative representation of visual appearance data; combining the informative representations of spatio-temporal dynamics of location trajectory data and visual appearance data by concatenating the outputs of the first shared machine learning or artificial intelligence technique and the outputs of the second shared machine learning or artificial intelligence technique to form a fused feature representation, and passing the fused feature representation to a fully connected layer; identifying and analyzing individual and group activities in the scene based on the combined trajectory and visual data; and providing at least one individual or group activity as an output.