mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasound system , comprising: a user input unit configured to receive input information for setting a region of interest on a brightness mode image; and a processing unit configured to form the brightness mode image based on first ultrasound data corresponding to a target object and form vector information of the target object based on second ultrasound data corresponding to the target object, the processing unit being further configured to form a motion mode image including a brightness motion mode image and a color motion mode image based on the first ultrasound data and the vector information corresponding to the region of interest, wherein the processing unit is further configured to: extract first ultrasound data and vector information corresponding to the region of interest from the first ultrasound data and the vector information; form the brightness motion mode image based on the extracted first ultrasound data; form the color motion mode image based on the extracted vector information; and form the color motion mode image for representing a velocity and a direction of the target object as colors or color vectors including colors and arrows based on the extracted vector information. a user input unit configured to receive input information for setting a region of interest on a brightness mode image; and a processing unit configured to form the brightness mode image based on first ultrasound data corresponding to a target object and form vector information of the target object based on second ultrasound data corresponding to the target object, the processing unit being further configured to form a motion mode image including a brightness motion mode image and a color motion mode image based on the first ultrasound data and the vector information corresponding to the region of interest, wherein the processing unit is further configured to: extract first ultrasound data and vector information corresponding to the region of interest from the first ultrasound data and the vector information; form the brightness motion mode image based on the extracted first ultrasound data; form the color motion mode image based on the extracted vector information; and form the color motion mode image for representing a velocity and a direction of the target object as colors or color vectors including colors and arrows based on the extracted vector information. extract first ultrasound data and vector information corresponding to the region of interest from the first ultrasound data and the vector information; form the brightness motion mode image based on the extracted first ultrasound data; form the color motion mode image based on the extracted vector information; and form the color motion mode image for representing a velocity and a direction of the target object as colors or color vectors including colors and arrows based on the extracted vector information.
An axle mounting for a vehicle axle, having an axle guide , a preferably tubular axle body crossing the axle guide at its lower or upper side (2A or 2B), an axle plate between the axle body and the axle guide , and pulling elements for pulling the axle body and the axle guide towards one another with the axle plate being interposed, wherein the axle plate - has a contour facing the axle body , which contour corresponds at least in areas to the outer contour of the axle body opposite the contour, - has an abutment area facing the lower or upper side (2A or 2B) of the axle guide and consisting of surface portions which make contact with the lower or upper side (2A or 2B) and between which there is an opening , characterized in that the width of the opening is equal to or greater than the width of the lower or upper side (2A or 2B) of the axle guide in the abutment area . - has a contour facing the axle body , which contour corresponds at least in areas to the outer contour of the axle body opposite the contour, - has an abutment area facing the lower or upper side (2A or 2B) of the axle guide and consisting of surface portions which make contact with the lower or upper side (2A or 2B) and between which there is an opening ,
A textile flat material for application to a human or animal body and for accommodating electrical and/or electronic components for medical measuring and/or control purposes, comprising: a longitudinal direction , a transverse direction running transversely to the longitudinal direction , an extension plane , a thickness direction orthogonal to the extension plane , at least one carrier portion extending in the longitudinal direction with a carrier layer , at least one pocket portion extending in the longitudinal direction and adjoining the carrier portion in the longitudinal direction with at least one pocket for accommodating the electrical and/or electronic components , wherein the at least one pocket comprises a first pocket layer facing the body and a second pocket layer facing away from the body, which define a pocket space between them, wherein the at least one pocket has at least one pocket opening accessible in the transverse direction , wherein the textile flat material comprises warp threads arranged in the longitudinal direction and weft threads arranged in the transverse direction , which form the carrier layer , the first pocket layer and the second pocket layer , wherein, in the thickness direction between the first pocket layer and the second pocket layer , at least one flexible electrical conductor extending in the longitudinal direction and arranged at in a floating manner at least in portions is provided, and wherein the electrical conductor arranged in a floating manner has a floating distance of at least 5 mm. a longitudinal direction , a transverse direction running transversely to the longitudinal direction , an extension plane , a thickness direction orthogonal to the extension plane , at least one carrier portion extending in the longitudinal direction with a carrier layer , at least one pocket portion extending in the longitudinal direction and adjoining the carrier portion in the longitudinal direction with at least one pocket for accommodating the electrical and/or electronic components , wherein the at least one pocket comprises a first pocket layer facing the body and a second pocket layer facing away from the body, which define a pocket space between them, wherein the at least one pocket has at least one pocket opening accessible in the transverse direction , wherein the textile flat material comprises warp threads arranged in the longitudinal direction and weft threads arranged in the transverse direction , which form the carrier layer , the first pocket layer and the second pocket layer , wherein, in the thickness direction between the first pocket layer and the second pocket layer , at least one flexible electrical conductor extending in the longitudinal direction and arranged at in a floating manner at least in portions is provided, and wherein the electrical conductor arranged in a floating manner has a floating distance of at least 5 mm.
An anti-static spectacle plastic lens, comprising: a base of the spectacle plastic lens; a carbon nanotube deposition layer stacked on both front and back surfaces of the base of the spectacle plastic lens providing anti-static properties; and an optical multilayer film stacked on the carbon nanotube deposition layer directly or with an intermediate layer interposed therebetween, wherein the intermediate layer is a hard coat layer, and the optical multilayer film is an antireflection film. a base of the spectacle plastic lens; a carbon nanotube deposition layer stacked on both front and back surfaces of the base of the spectacle plastic lens providing anti-static properties; and an optical multilayer film stacked on the carbon nanotube deposition layer directly or with an intermediate layer interposed therebetween, wherein the intermediate layer is a hard coat layer, and the optical multilayer film is an antireflection film.
An oxidation furnace for the oxidative treatment of fibers, in particular for the production of carbon fibers, the oxidation furnace having a) a housing which is gas tight, except for passage regions for the fibers ; b) a process chamber which is located in the interior of the housing ; c) an atmosphere installation , by means of which a hot operating atmosphere can be generated and can be blown into the process chamber , wherein the hot operating atmosphere perfuses the process chamber under process conditions in a main flow direction; d) deflection rollers which guide the fibers lying beside one another as a fiber carpet in a serpentine manner through the process chamber , wherein the fiber carpet respectively defines a plane between opposing deflection rollers , characterized in that e) a flow measurement system is present, by means of which a flow profile of the operating atmosphere can be established under process conditions and which comprises at least one sensor installation for determining the flow velocity, which is arranged in a sensor region between two adjacent fiber carpets . a) a housing which is gas tight, except for passage regions for the fibers ; b) a process chamber which is located in the interior of the housing ; c) an atmosphere installation , by means of which a hot operating atmosphere can be generated and can be blown into the process chamber , wherein the hot operating atmosphere perfuses the process chamber under process conditions in a main flow direction; d) deflection rollers which guide the fibers lying beside one another as a fiber carpet in a serpentine manner through the process chamber , wherein the fiber carpet respectively defines a plane between opposing deflection rollers , characterized in that e) a flow measurement system is present, by means of which a flow profile of the operating atmosphere can be established under process conditions and which comprises at least one sensor installation for determining the flow velocity, which is arranged in a sensor region between two adjacent fiber carpets .
A head restraint assembly for a seat , the head restraint assembly comprising: a linear and rotational locking mechanism with a shaft and a slide , said slide being selectively slidably and rotatably mounted on said shaft , said slide having a locked state which linearly and rotationally fixes said slide on, and with respect to, said shaft by the linear and rotational locking mechanism acting on the shaft , said slide having a release state where said slide is linearly and rotatably movable on said shaft , said slide being fixable in a plurality of linear and rotational positions on said shaft in said locked state; an attachment device on said slide of said locking mechanism , said attachment device being adapted to mount to a portion of the seat ; a head restraint portion mounted on said shaft of said locking mechanism , said head restraint portion , said shaft , said slide , and said attachment device being arranged to position said head restraint portion in a head area of an occupant of the seat , said locking mechanism fixing said head restraint portion into a plurality of linear and rotational positions with respect to the seat in the head area of the occupant, wherein, said slide is fixable in a continuous plurality of linear and rotational positions on said shaft in said locked state; said locking mechanism fixing said head restraint portion into a continuous plurality of linear and rotational positions with respect to the seat in the head area of the occupant. a linear and rotational locking mechanism with a shaft and a slide , said slide being selectively slidably and rotatably mounted on said shaft , said slide having a locked state which linearly and rotationally fixes said slide on, and with respect to, said shaft by the linear and rotational locking mechanism acting on the shaft , said slide having a release state where said slide is linearly and rotatably movable on said shaft , said slide being fixable in a plurality of linear and rotational positions on said shaft in said locked state; an attachment device on said slide of said locking mechanism , said attachment device being adapted to mount to a portion of the seat ; a head restraint portion mounted on said shaft of said locking mechanism , said head restraint portion , said shaft , said slide , and said attachment device being arranged to position said head restraint portion in a head area of an occupant of the seat , said locking mechanism fixing said head restraint portion into a plurality of linear and rotational positions with respect to the seat in the head area of the occupant, wherein, said slide is fixable in a continuous plurality of linear and rotational positions on said shaft in said locked state; said locking mechanism fixing said head restraint portion into a continuous plurality of linear and rotational positions with respect to the seat in the head area of the occupant.
An axle for a commercial vehicle, having an axle tube and at least one axle link , which is connected to the axle tube by at least one force-transmitting means , characterised in that the force-transmitting means is connected to the axle tube by an positive locking connection for transmitting a torque and by a clamping connection for transmitting a normal force, wherein the positive locking connection and the clamping connection are spaced from each other in the longitudinal direction of the axle tube .
An apparatus comprising a processor that is configured to: obtain a plurality of phase differences, wherein each phase difference represents a difference in phase between a spectral component in a first sound signal, which is captured by a first microphone , and a corresponding spectral component in a second sound signal, which is captured by a second microphone , wherein each spectral component is part of a signal spectrum for its respective sound signal, each signal spectrum representing its respective sound signal as a plurality of spectral components that are each comprised in a respective frequency band of a plurality of frequency bands of that sound signal; estimate an aliasing frequency, wherein phase differences obtained from spectral components that are comprised in frequency bands above the aliasing frequency are expected to be wrapped and wherein the processor is configured to estimate the aliasing frequency in dependence on phase differences obtained from spectral components in more than three of the plurality of frequency bands that are comprised in the first and second sound signals; and unwrap the plurality of phase differences in dependence on the estimated aliasing frequency, wherein a phase difference obtained from spectral components that are comprised in one frequency band is unwrapped independently of any phase difference obtained from spectral components that are comprised in another frequency band. obtain a plurality of phase differences, wherein each phase difference represents a difference in phase between a spectral component in a first sound signal, which is captured by a first microphone , and a corresponding spectral component in a second sound signal, which is captured by a second microphone , wherein each spectral component is part of a signal spectrum for its respective sound signal, each signal spectrum representing its respective sound signal as a plurality of spectral components that are each comprised in a respective frequency band of a plurality of frequency bands of that sound signal; estimate an aliasing frequency, wherein phase differences obtained from spectral components that are comprised in frequency bands above the aliasing frequency are expected to be wrapped and wherein the processor is configured to estimate the aliasing frequency in dependence on phase differences obtained from spectral components in more than three of the plurality of frequency bands that are comprised in the first and second sound signals; and unwrap the plurality of phase differences in dependence on the estimated aliasing frequency, wherein a phase difference obtained from spectral components that are comprised in one frequency band is unwrapped independently of any phase difference obtained from spectral components that are comprised in another frequency band.
A method for determining if an ER+ breast cancer of a subject is expected to respond to endocrine therapy or chemotherapy, the method comprising: (i) determining if a cell in a sample of the ER+ breast cancer expresses granular SPAG5 protein; or (ii) determining if cells in a sample of the ER+ breast cancer overexpress a SPAG5 gene; wherein if the sample does not comprise a cell that expresses granular SPAG5 protein and/or if cells in the sample do not overexpress SPAG5 transcript, the subject has a cancer that is expected to respond to endocrine therapy, and wherein if the sample comprises a cell that expresses granular SPAG5 protein and/or if cells in the sample overexpress the SPAG5 transcript, the subject has a cancer that is expected to respond to chemotherapy, wherein the chemotherapy is one or more selected from the group consisting of: cisplatinum, taxane, cyclophosphamide, methotrexate, 5-fluorouracil, an anthracycline, epirubicin, doxorubicin and anthracycline-based combination chemotherapy, wherein the endocrine therapy is tamoxifen and/or an aromatase inhibitor. (i) determining if a cell in a sample of the ER+ breast cancer expresses granular SPAG5 protein; or (ii) determining if cells in a sample of the ER+ breast cancer overexpress a SPAG5 gene; wherein if the sample does not comprise a cell that expresses granular SPAG5 protein and/or if cells in the sample do not overexpress SPAG5 transcript, the subject has a cancer that is expected to respond to endocrine therapy, and wherein if the sample comprises a cell that expresses granular SPAG5 protein and/or if cells in the sample overexpress the SPAG5 transcript, the subject has a cancer that is expected to respond to chemotherapy, wherein the chemotherapy is one or more selected from the group consisting of: cisplatinum, taxane, cyclophosphamide, methotrexate, 5-fluorouracil, an anthracycline, epirubicin, doxorubicin and anthracycline-based combination chemotherapy, wherein the endocrine therapy is tamoxifen and/or an aromatase inhibitor. wherein if the sample does not comprise a cell that expresses granular SPAG5 protein and/or if cells in the sample do not overexpress SPAG5 transcript, the subject has a cancer that is expected to respond to endocrine therapy, and wherein if the sample comprises a cell that expresses granular SPAG5 protein and/or if cells in the sample overexpress the SPAG5 transcript, the subject has a cancer that is expected to respond to chemotherapy, wherein the chemotherapy is one or more selected from the group consisting of: cisplatinum, taxane, cyclophosphamide, methotrexate, 5-fluorouracil, an anthracycline, epirubicin, doxorubicin and anthracycline-based combination chemotherapy, wherein the endocrine therapy is tamoxifen and/or an aromatase inhibitor.
A machining control device comprising: acquisition means for acquiring a unique identifier of a workpiece-attachable and - detachable holder ; generating means for generating material data for a workpiece attached to the holder ; and recording means for recording, on a storage medium, the unique identifier acquired by the acquisition means and the material data generated by the generating means with the unique identifiers and the material data being correlated to each other, characterized in that the material data includes segment data in which an area within a contour of the workpiece on a plane view of the workpiece is divided into a machined area and an un-machined area, and the machined area and the un-machined area are distinguishable, and the material data further includes an identifier, material type data, thickness data, and color data. acquisition means for acquiring a unique identifier of a workpiece-attachable and - detachable holder ; generating means for generating material data for a workpiece attached to the holder ; and recording means for recording, on a storage medium, the unique identifier acquired by the acquisition means and the material data generated by the generating means with the unique identifiers and the material data being correlated to each other, characterized in that the material data includes segment data in which an area within a contour of the workpiece on a plane view of the workpiece is divided into a machined area and an un-machined area, and the machined area and the un-machined area are distinguishable, and the material data further includes an identifier, material type data, thickness data, and color data.
A method for correcting the phase shift of an optical transmission channel, the method comprising: - providing a plurality of signal samples at successive time instances; wherein each signal sample comprises a signal phase, the signal phase comprises a data phase and a residual phase, characterized by for each successive signal sample of a successive time instance: - determining a slowly-varying noise phase, and - shifting the signal sample by the slowly-varying noise phase, in order to generate an intermediate signal sample having a shifted signal phase, for each successive intermediate signal sample of a successive time instance: - determining a rapidly varying noise phase, wherein the rapidly varying noise phase has a variation time different from a variation time of the slowly-varying noise phase, - shifting the intermediate signal sample by the rapidly varying noise phase, in order to generate a phase-corrected signal sample. - providing a plurality of signal samples at successive time instances; wherein each signal sample comprises a signal phase, the signal phase comprises a data phase and a residual phase, - determining a slowly-varying noise phase, and - shifting the signal sample by the slowly-varying noise phase, in order to generate an intermediate signal sample having a shifted signal phase, - determining a rapidly varying noise phase, wherein the rapidly varying noise phase has a variation time different from a variation time of the slowly-varying noise phase, - shifting the intermediate signal sample by the rapidly varying noise phase, in order to generate a phase-corrected signal sample.
An automotive light comprising a substantially basin-shaped, rear body which is structured so as to be fixed on the vehicle body; a front lenticular half-shell which is arranged to close the mouth of the rear body and is provided with at least one transparent or semi-transparent portion; and at least one lighting assembly which emits light on command and is located inside the rear body so as to backlight the transparent or semi-transparent portion of the front lenticular half-shell ; wherein said at least one lighting assembly comprises: an OLED-type planar light source which is capable of emitting light from its own front face, is located within the rear body with the front face turned towards the inner surface of the front lenticular half-shell so as to direct the emitted light towards the front lenticular half-shell , and is provided with a through hole or transparent portion (12, 32 present in a limited portion of said planar light source , defining a light passageway; a LED-type concentrated light source which is arranged spaced apart behind the planar light source ; and a light-guide rod made of photoconductive material, which has its distal end arranged close to the light passageway of said planar light source , and its proximal end arranged close to the concentrated light source , so that the light rays emitted by the concentrated light source can penetrate into the light-guide rod through the proximal end , travel into the light-guide rod up to the distal end and there exit from the light-guide rod directed towards the light passageway of said planar light source .