mhurhangee/patent-ind-claim-en huggingface dataset:
Multi-ply electrically heatable media line having a media-resistant inner layer , a thermal layer provided with at least two conductors or heating conductors , and an outer layer , wherein the layers of the media line are single- or multi-ply, characterised in that the conductors or heating conductors , wound in the longitudinal direction of the media line , are embedded within the thermal layer in a radially predetermined position, wherein the conductors or heating conductors are coated but not provided with a surrounding insulating layer, and the single- or multi-ply inner layer , or at least one ply of the inner layer , is in the form of a barrier layer, and/or at least one adhesion promoter layer and/or barrier layer is provided between the inner layer and the thermal layer .
Method for storing key data in an electronic component (BE) that is embodied as a programmable integrated circuit, in particular as a field programmable gate array or FPGA, and has a basic structure consisting of base elements (B1, ..., Bn), wherein a respective current programming of the electronic component (BE) involves configuration data (CON) being loaded into the respective base elements (B1, ..., Bn) and stored in volatile fashion, characterized in that : - the key data (K) are divided into key data subblocks (K1, ..., K6) and a base element position in the basic structure of the electronic component (BE) is selected for each key data subblock (K1, ..., K6), wherein the base element positions selected for the respective key data subblocks (K1, ..., K6) are filed in a lockout data element (CF); - the creation of the configuration data (CON) for the respective current programming of the electronic component (BE) takes into consideration the base element positions selected for the key data subblocks (K1, ..., K6) such that the selected base element positions from the lockout data element (CF) are incorporated into the configuration data for the respective current programming by means of what is known as a constraint file; - the loading of the configuration data (CON) for the respective current programming into the electronic component (BE) involves the key data subblocks (K1, ..., K6) being filed in those base elements that are stipulated by the selected base element positions filed in the lockout data element (CF); - and after the electronic component (BE) has been programmed the key data subblocks (K1, ..., K6) are ascertained from the respective base elements (B1, ..., Nn) stipulated by the selected base element positions and are assembled to form the key data (K). - the key data (K) are divided into key data subblocks (K1, ..., K6) and a base element position in the basic structure of the electronic component (BE) is selected for each key data subblock (K1, ..., K6), wherein the base element positions selected for the respective key data subblocks (K1, ..., K6) are filed in a lockout data element (CF); - the creation of the configuration data (CON) for the respective current programming of the electronic component (BE) takes into consideration the base element positions selected for the key data subblocks (K1, ..., K6) such that the selected base element positions from the lockout data element (CF) are incorporated into the configuration data for the respective current programming by means of what is known as a constraint file; - the loading of the configuration data (CON) for the respective current programming into the electronic component (BE) involves the key data subblocks (K1, ..., K6) being filed in those base elements that are stipulated by the selected base element positions filed in the lockout data element (CF); - and after the electronic component (BE) has been programmed the key data subblocks (K1, ..., K6) are ascertained from the respective base elements (B1, ..., Nn) stipulated by the selected base element positions and are assembled to form the key data (K).
A removable and interchangeable container for windshield washer fluid, configured to be mounted in a support for fixing to a vehicle, comprising identification means configured to be detected by reading means carried by the support, the identification means comprising at least one cavity intended to cooperate with reading means preferably of switch type carried by the support, characterized in that the identification means comprise two cavities of different sizes each intended to cooperate with reading means preferably of switch type carried by the support.
A negative electrode plate , comprising: a negative current collector ; a negative active material layer , disposed on at least one surface of the negative current collector , said negative active material layer comprises opposite first surface and second surface , wherein said first surface disposed away from the negative current collector ; and an inorganic dielectric layer , disposed on the first surface of the negative active material layer , said inorganic dielectric layer consisting of an inorganic dielectric material, wherein said inorganic dielectric layer comprises a first dielectric layer on an outer surface of the negative active material layer , and the first dielectric layer has a thickness of from 30 nm to 1000 nm and has a crack extending through the thickness of the first dielectric layer ; and wherein the crack has a width of 0.05 μm to 6 μm, and a length-width ratio of 50 or more. a negative current collector ; a negative active material layer , disposed on at least one surface of the negative current collector , said negative active material layer comprises opposite first surface and second surface , wherein said first surface disposed away from the negative current collector ; and an inorganic dielectric layer , disposed on the first surface of the negative active material layer , said inorganic dielectric layer consisting of an inorganic dielectric material, wherein said inorganic dielectric layer comprises a first dielectric layer on an outer surface of the negative active material layer , and the first dielectric layer has a thickness of from 30 nm to 1000 nm and has a crack extending through the thickness of the first dielectric layer ; and wherein the crack has a width of 0.05 μm to 6 μm, and a length-width ratio of 50 or more.
A method of manufacturing a separator for a lithium secondary battery, the method comprising: preparing a gas mixture by mixing N 2 gas or O 2 gas or a mixture thereof with F 2 gas; and bringing the gas mixture into contact with a porous resin to form a polar functional group on a surface of the porous resin; characterized in that the pressure ratio of the F 2 gas to the N 2 gas or the O 2 gas or the mixture thereof in the preparing step is in the range from 7.5:2.5 to 9.4:0.6. preparing a gas mixture by mixing N 2 gas or O 2 gas or a mixture thereof with F 2 gas; and bringing the gas mixture into contact with a porous resin to form a polar functional group on a surface of the porous resin; characterized in that the pressure ratio of the F 2 gas to the N 2 gas or the O 2 gas or the mixture thereof in the preparing step is in the range from 7.5:2.5 to 9.4:0.6.
A method comprising: depositing a slurry on a surface of an infiltrated ceramic matrix composite (CMC) , wherein the slurry comprises a carrier material , a binder , a plasticizer , and solid particles , wherein the solid particles comprise a plurality of fine ceramic particles defining a fine particle average size less than about5 micrometers, drying the slurry to form an article having an outer surface layer comprising the solid particles on the infiltrated CMC ; machining at least a portion of the outer surface layer of the article ; and infiltrating the article with a molten infiltrant to form a composite article, wherein the machining of the surface layer is prior to melt infiltration, characterised in that the slurry comprises about 0.1 percent by weight (wt.%) to about 12 wt.% of the plasticizer . depositing a slurry on a surface of an infiltrated ceramic matrix composite (CMC) , wherein the slurry comprises a carrier material , a binder , a plasticizer , and solid particles , wherein the solid particles comprise a plurality of fine ceramic particles defining a fine particle average size less than about5 micrometers, drying the slurry to form an article having an outer surface layer comprising the solid particles on the infiltrated CMC ; machining at least a portion of the outer surface layer of the article ; and infiltrating the article with a molten infiltrant to form a composite article, wherein the machining of the surface layer is prior to melt infiltration, characterised in that the slurry comprises about 0.1 percent by weight (wt.%) to about 12 wt.% of the plasticizer .
A method of operating an electronic device , the method comprising: obtaining a path, wherein the path includes a path between a departure point and a destination point; obtaining video content related to the path; after obtaining the video content related to the path, determining intersection points between photographing paths of the video content; extracting intersection points between the photographing paths of the video content located on the path and extracting parts of the video content corresponding to the photographing paths between the extracted intersection points; and generating video content of the path by stitching the extracted parts of the video content together, wherein the determining of the intersection points between photographing paths of the video content comprises: obtaining photographing paths of the video content; and determining the intersection points by overlaying the photographing paths of the video content, and wherein the obtaining of the photographing paths of the video content comprises: extracting visual descriptors from the video content; calculating a motion of a camera by using the visual descriptors; and obtaining the photographing paths based on the motion of the camera. obtaining a path, wherein the path includes a path between a departure point and a destination point; obtaining video content related to the path; after obtaining the video content related to the path, determining intersection points between photographing paths of the video content; extracting intersection points between the photographing paths of the video content located on the path and extracting parts of the video content corresponding to the photographing paths between the extracted intersection points; and generating video content of the path by stitching the extracted parts of the video content together, wherein the determining of the intersection points between photographing paths of the video content comprises: obtaining photographing paths of the video content; and determining the intersection points by overlaying the photographing paths of the video content, and wherein the obtaining of the photographing paths of the video content comprises: extracting visual descriptors from the video content; calculating a motion of a camera by using the visual descriptors; and obtaining the photographing paths based on the motion of the camera. obtaining photographing paths of the video content; and determining the intersection points by overlaying the photographing paths of the video content, and wherein the obtaining of the photographing paths of the video content comprises: extracting visual descriptors from the video content; calculating a motion of a camera by using the visual descriptors; and obtaining the photographing paths based on the motion of the camera. extracting visual descriptors from the video content; calculating a motion of a camera by using the visual descriptors; and obtaining the photographing paths based on the motion of the camera.
A wireless terminal for communicating a power headroom report of a Physical Uplink Shared Channel, PUSCH, or of a Physical Uplink Control Channel, PUCCH, including a power headroom to a base station in a RAN, Radio Access Network, the wireless terminal comprising a processor configured to determine whether a transmission power field containing information about the transmission power of an uplink serving cell (Pcmax,c) associated with the power headroom is to be sent together with the power headroom; and to control setting an indicator to a specific value to indicate that the transmission power field is included, when it is determined that the transmission power field is to be sent.
A system comprising; a cochlear implant configured to be implanted within a patient and comprising: an integrated circuit configured to generate electrical stimulation for application to a cochlea of the patient, the integrated circuit including a driver coupled to a power supply node and to a ground node , the driver configured to generate at an output of the driver a back telemetry signal encoded with information to be transmitted over a wireless communication link to a sound processor located external to the patient; characterized by a filter network comprising an input node serially coupled to the output of the driver, an output node , and a first plurality of impedance components including a damping resistor connected between the input node of the filter network and an internal node of the filter network, a first impedance component connected between the internal node of the filter network and the output node of the filter network, and a second impedance component connected between the output node of the filter network and the ground node. an integrated circuit configured to generate electrical stimulation for application to a cochlea of the patient, the integrated circuit including a driver coupled to a power supply node and to a ground node , the driver configured to generate at an output of the driver a back telemetry signal encoded with information to be transmitted over a wireless communication link to a sound processor located external to the patient; characterized by a filter network comprising an input node serially coupled to the output of the driver, an output node , and a first plurality of impedance components including a damping resistor connected between the input node of the filter network and an internal node of the filter network, a first impedance component connected between the internal node of the filter network and the output node of the filter network, and a second impedance component connected between the output node of the filter network and the ground node.
A nanoscale magnetic resonance imaging system for determining a spatial configuration of multiple nuclei , the system comprising: a substrate containing an electron-spin probe near a surface of the substrate; a first signal generator to generate a first signal; and a readout module to determine the phase of the electron-spin probe ; characterised in that the electron-spin probe is configured to generate a spatially varying magnetic field such that each of the multiple nuclei is resonant at a respective resonance frequency defined by the magnetic field at a location of that nucleus; the first signal generator is configured to generate the first signal at a first signal frequency such that, as a result of dipole-dipole interaction between the electron-spin probe and a subset of the multiple nuclei that are resonant at the first signal frequency, a phase of the electron-spin probe is indicative of a number of nuclei that are resonant at the first signal frequency; the first frequency is between an upper frequency set by the value of the interaction at the surface of the substrate, immediately below the multiple nuclei , and a lower frequency that is no greater than the minimal coupling experienced by the uppermost nuclei; the imaging system further comprises a second signal generator to generate a second signal that decouples the multiple nuclei from each other to reduce interaction between the nuclei; and the readout module is configured to determine the spatial configuration of the multiple nuclei based on the phase of the electron-spin probe . a substrate containing an electron-spin probe near a surface of the substrate; a first signal generator to generate a first signal; and a readout module to determine the phase of the electron-spin probe ; characterised in that the electron-spin probe is configured to generate a spatially varying magnetic field such that each of the multiple nuclei is resonant at a respective resonance frequency defined by the magnetic field at a location of that nucleus; the first signal generator is configured to generate the first signal at a first signal frequency such that, as a result of dipole-dipole interaction between the electron-spin probe and a subset of the multiple nuclei that are resonant at the first signal frequency, a phase of the electron-spin probe is indicative of a number of nuclei that are resonant at the first signal frequency; the first frequency is between an upper frequency set by the value of the interaction at the surface of the substrate, immediately below the multiple nuclei , and a lower frequency that is no greater than the minimal coupling experienced by the uppermost nuclei; the imaging system further comprises a second signal generator to generate a second signal that decouples the multiple nuclei from each other to reduce interaction between the nuclei; and the readout module is configured to determine the spatial configuration of the multiple nuclei based on the phase of the electron-spin probe .
A portable electronic device comprising: an antenna ; a charge unit configured to be charged by a current induced electromagnetically in the antenna; a memory storing processing execution information for discontinuously executing a plurality of processings; and a first processor configured to operate by a current from the charge unit, sense a residual capacity, a voltage, or a current of the charge unit , and discontinuously execute a plurality of processings by providing a time interval based on the processing execution information, characterized in that the processing execution information includes at least a threshold, and progress information indicating progress of each processing, and the processing execution information includes the time interval of a plurality of processings determined by the residual capacity of the charge unit and a current value or a voltage value obtained by a non-contact power supply, and the threshold relates to the residual capacity, the voltage or the current of the charge unit . an antenna ; a charge unit configured to be charged by a current induced electromagnetically in the antenna; a memory storing processing execution information for discontinuously executing a plurality of processings; and a first processor configured to operate by a current from the charge unit, sense a residual capacity, a voltage, or a current of the charge unit , and discontinuously execute a plurality of processings by providing a time interval based on the processing execution information, characterized in that the processing execution information includes at least a threshold, and progress information indicating progress of each processing, and the processing execution information includes the time interval of a plurality of processings determined by the residual capacity of the charge unit and a current value or a voltage value obtained by a non-contact power supply, and the threshold relates to the residual capacity, the voltage or the current of the charge unit .
A compliance monitoring module for an inhaler comprising: a miniature barometric pressure sensor configured to measure barometric pressure, a sensor port of said sensor being configured to be pneumatically coupled to a flow channel of said inhaler through which a user can inhale, wherein the miniature barometric pressure sensor sa microelectromechanical system pressure sensor or a nanoelectromechanical system pressure sensor; a processor configured to: receive data from the miniature barometric pressure sensor; receive data from a mode sensor; determine, based on the data from the mode sensor, the orientation of the inhaler or whether the inhaler has been primed for use; and based on said data from said miniature barometric pressure sensor and said data from said mode sensor, compile a compliance report; and a transmitter configured to issue said compliance report. a miniature barometric pressure sensor configured to measure barometric pressure, a sensor port of said sensor being configured to be pneumatically coupled to a flow channel of said inhaler through which a user can inhale, wherein the miniature barometric pressure sensor sa microelectromechanical system pressure sensor or a nanoelectromechanical system pressure sensor; a processor configured to: receive data from the miniature barometric pressure sensor; receive data from a mode sensor; determine, based on the data from the mode sensor, the orientation of the inhaler or whether the inhaler has been primed for use; and based on said data from said miniature barometric pressure sensor and said data from said mode sensor, compile a compliance report; and a transmitter configured to issue said compliance report. receive data from the miniature barometric pressure sensor; receive data from a mode sensor; determine, based on the data from the mode sensor, the orientation of the inhaler or whether the inhaler has been primed for use; and based on said data from said miniature barometric pressure sensor and said data from said mode sensor, compile a compliance report; and a transmitter configured to issue said compliance report.
An on-road truck body lining for protecting an on-road truck body from wear, said on-road truck body lining comprising: - a plurality of main lining elements , and - a plurality of edge lining elements arranged to be fixated to the on-road truck body , each main lining element comprising: - a load-facing element having one or more transition sides , each transition side being adapted to meet a corresponding transition side of an adjacent edge lining element of the plurality of edge lining elements , and - a reinforcement plate having a main portion being fixedly attached to the load-facing element in a stacked configuration, and one or more end portions , each of the one or more end portions protruding out from a respective transition side of the load-facing element so as to form a respective flange, such that, in use of the on-road truck body lining , the one or more end portions of the reinforcement plate are each arranged to be covered by a respective adjacent edge lining element such that said respective adjacent edge lining element , upon being fixated, clamps the main lining element to the on-road truck body . - a plurality of main lining elements , and - a plurality of edge lining elements arranged to be fixated to the on-road truck body , - a load-facing element having one or more transition sides , each transition side being adapted to meet a corresponding transition side of an adjacent edge lining element of the plurality of edge lining elements , and - a reinforcement plate having a main portion being fixedly attached to the load-facing element in a stacked configuration, and one or more end portions , each of the one or more end portions protruding out from a respective transition side of the load-facing element so as to form a respective flange, such that, in use of the on-road truck body lining , the one or more end portions of the reinforcement plate are each arranged to be covered by a respective adjacent edge lining element such that said respective adjacent edge lining element , upon being fixated, clamps the main lining element to the on-road truck body .