mhurhangee/ep-ind-claims huggingface dataset:
An X-ray radiation generating apparatus comprising: an envelope having a first window for transmitting X-ray radiation; and an X-ray radiation tube being held within the envelope, and having an anode including an X-ray shielding member with a second window for transmitting the X-ray radiation at a position in opposition to the first window; wherein the X-ray radiation tube has, at an inside thereof, an electron source and a target for generating the X-ray radiation in response to an irradiation with electrons emitted from the electron source; wherein the X-ray shielding member has a protruding portion which protrudes toward the first window; and wherein the target is provided with a positive electric potential, the electron source is provided with a negative potential, and the envelope is provided with a ground potential; the apparatus further comprising an insulating liquid filling between the envelope and the radiation tube around said radiation tube, with the insulating liquid being present between the first and the second window; and wherein a solid-state insulating member is placed between the first window and the second window, and the solid insulating member and the insulating liquid are located between the first window and the protruding portion of the shielding member (FIG.1,2) so as to suppress electric discharge between the X-ray radiation tube and the envelope; characterised by the target being a transmitting type target which is placed on a surface, at a side of the electron source, of the second window. an envelope having a first window for transmitting X-ray radiation; and an X-ray radiation tube being held within the envelope, and having an anode including an X-ray shielding member with a second window for transmitting the X-ray radiation at a position in opposition to the first window; wherein the X-ray radiation tube has, at an inside thereof, an electron source and a target for generating the X-ray radiation in response to an irradiation with electrons emitted from the electron source; wherein the X-ray shielding member has a protruding portion which protrudes toward the first window; and wherein the target is provided with a positive electric potential, the electron source is provided with a negative potential, and the envelope is provided with a ground potential; the apparatus further comprising an insulating liquid filling between the envelope and the radiation tube around said radiation tube, with the insulating liquid being present between the first and the second window; and wherein a solid-state insulating member is placed between the first window and the second window, and the solid insulating member and the insulating liquid are located between the first window and the protruding portion of the shielding member (FIG.1,2) so as to suppress electric discharge between the X-ray radiation tube and the envelope; characterised by the target being a transmitting type target which is placed on a surface, at a side of the electron source, of the second window.
A method for manufacturing optical sheet having a plurality of layers in which at least one layer is an optical functional sheet layer comprising: light-transmissive portions configured to be arranged in a row along the surface of a base material layer; and light-absorbing portions arranged between the light-transmissive portions, the method comprising the steps of: forming the light-transmissive portions on one side of the base material layer; forming the light-absorbing portions having recess portions in gaps between the light-transmissive portions by, at least once, filling a binder made of a resin in which light-absorbing particles are dispersed in the gaps between the light-transmissive portions and curing the binder; and then, filling a transparent resin in the recess portion formed in the gap between the light-transmissive portions and curing the transparent resin. forming the light-transmissive portions on one side of the base material layer; forming the light-absorbing portions having recess portions in gaps between the light-transmissive portions by, at least once, filling a binder made of a resin in which light-absorbing particles are dispersed in the gaps between the light-transmissive portions and curing the binder; and then, filling a transparent resin in the recess portion formed in the gap between the light-transmissive portions and curing the transparent resin.
A method of reducing an occurrence of hydraulic pressurization loss during the transition from gas-powered engine operation to electric motor operation in a hybrid electric vehicle, the method comprising: initiating an auxiliary pump with a battery-powered electric motor while the gas-powered engine is running and providing hydraulic pressurization; initiating a master timer; characterized by further comprising: once the auxiliary pump exceeds a minimum speed threshold, determining a delay time period during which operation of the auxiliary pump is tested; and if the auxiliary pump does not stall during the delay time period and the master timer has not yet expired, allowing the gas-powered engine to shut-off. initiating an auxiliary pump with a battery-powered electric motor while the gas-powered engine is running and providing hydraulic pressurization; initiating a master timer; characterized by further comprising: once the auxiliary pump exceeds a minimum speed threshold, determining a delay time period during which operation of the auxiliary pump is tested; and if the auxiliary pump does not stall during the delay time period and the master timer has not yet expired, allowing the gas-powered engine to shut-off. once the auxiliary pump exceeds a minimum speed threshold, determining a delay time period during which operation of the auxiliary pump is tested; and if the auxiliary pump does not stall during the delay time period and the master timer has not yet expired, allowing the gas-powered engine to shut-off.
A method for paging at least one client node (300a, 300b, 300c, 300d, 300e) in a group communications system (100, 1100a, 1100b, 1100c), the method being performed by a control node of the group communications system (100, 1100a, 1100b, 1100c), the method comprising: obtaining a need for paging the at least one client node (300a, 300b, 300c, 300d, 300e) in the group communications system (100, 1100a, 1100b, 1100c); and transmitting a paging message for the at least one client node (300a, 300b, 300c, 300d, 300e) on an MBMS bearer to the at least one client node (300a, 300b, 300c, 300d, 300e), wherein the paging message indicates that the at least one packet is to be transmitted to the at least one client node (300a, 300b, 300c, 300d, 300e) over a unicast bearer. obtaining a need for paging the at least one client node (300a, 300b, 300c, 300d, 300e) in the group communications system (100, 1100a, 1100b, 1100c); and transmitting a paging message for the at least one client node (300a, 300b, 300c, 300d, 300e) on an MBMS bearer to the at least one client node (300a, 300b, 300c, 300d, 300e), wherein the paging message indicates that the at least one packet is to be transmitted to the at least one client node (300a, 300b, 300c, 300d, 300e) over a unicast bearer.
A method of noise reduction in data regarding parameter values comprising the steps of: making a series of measurements of parameter values at times separated by predetermined time intervals; forming the series of measurements of parameter values into a series of arrays of measurements of parameter values, each comprising plural successive measurements of parameter values, where one or more final measurements of parameter values in each array of measurements of parameter values are duplicated as the one or more beginning measurements of parameter values in the next successive array of measurements of parameter values; and for each array of measurements of parameter values; performing a plurality n of successive wavelet transforms on the array of measurements of parameter values to produce an array of coefficients; comparing the values of the array of coefficients to a first threshold value and, selectively changing the values of said coefficients based on their relationship to the threshold, to produce an array of filtered coefficients; performing n successive inverse wavelet transforms on the array of filtered coefficients to produce an array of filtered measurements. making a series of measurements of parameter values at times separated by predetermined time intervals; forming the series of measurements of parameter values into a series of arrays of measurements of parameter values, each comprising plural successive measurements of parameter values, where one or more final measurements of parameter values in each array of measurements of parameter values are duplicated as the one or more beginning measurements of parameter values in the next successive array of measurements of parameter values; and for each array of measurements of parameter values; performing a plurality n of successive wavelet transforms on the array of measurements of parameter values to produce an array of coefficients; comparing the values of the array of coefficients to a first threshold value and, selectively changing the values of said coefficients based on their relationship to the threshold, to produce an array of filtered coefficients; performing n successive inverse wavelet transforms on the array of filtered coefficients to produce an array of filtered measurements.
System for managing sensitive personal data (DD_A), including: - a first computer subsystem including: - means (41, 42, 43) for generating a shared key (IDC_A) from identification data (ID_A) of an individual; - a private database that associates said shared key (IDC_A) with said identification data (ID_A); and - a second computer subsystem including: - means for acquiring said shared key (IDC_A); - means for generating a random number from said shared key (IDC_A); - means for receiving a registration message including at least one sensitive personal item of data (DD_A) of said individual and said random number; and - means (31, 32, 33) for storing said sensitive personal item of data (DD_A) in association with said random number and said shared key (IDC_A) in a second database. - a first computer subsystem including: - means (41, 42, 43) for generating a shared key (IDC_A) from identification data (ID_A) of an individual; - a private database that associates said shared key (IDC_A) with said identification data (ID_A); and - means (41, 42, 43) for generating a shared key (IDC_A) from identification data (ID_A) of an individual; - a private database that associates said shared key (IDC_A) with said identification data (ID_A); and - a second computer subsystem including: - means for acquiring said shared key (IDC_A); - means for generating a random number from said shared key (IDC_A); - means for receiving a registration message including at least one sensitive personal item of data (DD_A) of said individual and said random number; and - means (31, 32, 33) for storing said sensitive personal item of data (DD_A) in association with said random number and said shared key (IDC_A) in a second database. - means for acquiring said shared key (IDC_A); - means for generating a random number from said shared key (IDC_A); - means for receiving a registration message including at least one sensitive personal item of data (DD_A) of said individual and said random number; and - means (31, 32, 33) for storing said sensitive personal item of data (DD_A) in association with said random number and said shared key (IDC_A) in a second database.
A connector member comprising: a terminal made of a conductive material connected to one end of an electrical wire at a base end part; a housing (20, 30) made of an insulating material in which a slot into which a tip end part of the terminal is inserted and a recess facing the base end part of the terminal are formed; and a retainer fitted into the recess of the housing (20, 30) and swingably connected to the housing (20, 30) at one end part close to the base end part of the terminal by a hinge part, wherein the housing (20, 30) is provided with wall bodies that are positioned on the opposite sides of the retainer characterized in that the wall bodies are continuous in the direction of insertion of the housing (20, 30) into a mating connector, and in that the height of the wall bodies from the housing (20, 30) gradually increases from the side facing the mating connector toward the retainer and is equal to or greater than the height of the retainer in the vicinity of the retainer.
A computer-implemented method for identity authentication, the method comprising: obtaining a first image and a second image collected by a terminal; recognizing biometric information for authentication in a first preset region of the first image and in a first preset region of the second image, the biometric information for authentication including facial feature information for authentication; recognizing identity information in a second preset region of the first image and in a second preset region of the second image, the identity information being an identity card number, recognizing that a relative position between the first preset region and the second preset region of the first image is different from a relative position between the first preset region and the second preset region of the second image; obtaining prestored biometric information corresponding to the identity information, the prestored biometric information including prestored facial feature information; determining whether the biometric information for authentication matches the prestored biometric information; and determining that the identity authentication is successful, if the biometric information for authentication matches the prestored biometric information, or that the identity authentication is not successful otherwise. obtaining a first image and a second image collected by a terminal; recognizing biometric information for authentication in a first preset region of the first image and in a first preset region of the second image, the biometric information for authentication including facial feature information for authentication; recognizing identity information in a second preset region of the first image and in a second preset region of the second image, the identity information being an identity card number, recognizing that a relative position between the first preset region and the second preset region of the first image is different from a relative position between the first preset region and the second preset region of the second image; obtaining prestored biometric information corresponding to the identity information, the prestored biometric information including prestored facial feature information; determining whether the biometric information for authentication matches the prestored biometric information; and determining that the identity authentication is successful, if the biometric information for authentication matches the prestored biometric information, or that the identity authentication is not successful otherwise.
A paver with an image generation apparatus mounted thereon for generating an output image based on input images captured by multiple imaging units (2, 2L, 2R, 2F) mounted on the paver, the paver including a hopper, a tractor, and a screed, wherein the output image includes a hopper image representing a downward view of the hopper, a left-side surrounding image representing a downward view of a surrounding area on a left side in a movement direction of the paver, a right-side surrounding image representing a downward view of a surrounding area on a right side in the moving direction of the paver, characterized in that the output image further includes an illustration image of the tractor; wherein the image generation apparatus is configured to arrange the hopper image, the left-side surrounding image, the right-side surrounding image, and the illustration image such that the output image represents a downward view of the paver; and wherein each of a combination of the hopper image and the left-side surrounding image and a combination of the hopper image and the right-side surrounding image is a pair of discrete images that include image parts corresponding to a same area in a three-dimensional space, and the image generation apparatus generates the output image such that both of the image parts corresponding to the same area are included in the output image.
A two-component type epoxy resin composition for a fiber reinforced composite material, comprising components to as below, wherein a content of the component is 6 to 25 mass parts relative to 100 mass parts of the component wherein: component is an epoxy resin, component is an acid anhydride, and component is a quaternary phosphonium halide. component is an epoxy resin, component is an acid anhydride, and component is a quaternary phosphonium halide.
An object receiving method, the object receiving method comprises: determining, by a terminal device, an association relationship between a target object and a source object, wherein the target object and the source object comprise a reference signal or a channel, and the association relationship comprises a quasi co-location, QCL, relationship or a receive beam relationship; characterized in that the determining an association relationship between a target object and a source object comprises: determining the association relationship based on a measurement parameter corresponding to the source object; wherein the measurement parameter corresponding to the source object is signal to interference plus noise ratio, SINR, and the association relationship is determined based on QCL information corresponding to the signal to interference plus noise ratio, SINR. determining, by a terminal device, an association relationship between a target object and a source object, wherein the target object and the source object comprise a reference signal or a channel, and the association relationship comprises a quasi co-location, QCL, relationship or a receive beam relationship; characterized in that the determining an association relationship between a target object and a source object comprises: determining the association relationship based on a measurement parameter corresponding to the source object; wherein the measurement parameter corresponding to the source object is signal to interference plus noise ratio, SINR, and the association relationship is determined based on QCL information corresponding to the signal to interference plus noise ratio, SINR. determining the association relationship based on a measurement parameter corresponding to the source object; wherein the measurement parameter corresponding to the source object is signal to interference plus noise ratio, SINR, and the association relationship is determined based on QCL information corresponding to the signal to interference plus noise ratio, SINR.
A laser hair removal device comprising a handheld head provided with one or more first light source, and a transparent member for being placed onto a skin region to be subjected to laser hair removal, and a camera objective directed towards the transparent member, wherein the first light source and the transparent member are configured to provide frustrated total internal reflection (FTIR) based image data of the skin region; and wherein the laser hair removal device is configured to be in optical, data and electrical communication with the handheld head, the handheld head further comprises a second light source configured to provide a series of different wavelength light beams to traverse the transparent member, the device is connected to a computer when in use, the device is configured - to obtain an FTIR-based digital image data for surface mapping and - to control a direction of said different wavelength light beams, and to obtain images related to said different wavelength light beams traversing the transparent member and penetrating into different penetration depths at a skin region in accordance with corresponding wavelength values of said light beams, and to calculate hair roots orientation data using k-nearest neighbor (kNN) and support vector machine algorithms, over the obtained images related to said different wavelength light beams traversing the transparent member and penetrating into different penetration depths at a skin region in accordance with corresponding wavelength values of said light beams. - to obtain an FTIR-based digital image data for surface mapping and - to control a direction of said different wavelength light beams, and to obtain images related to said different wavelength light beams traversing the transparent member and penetrating into different penetration depths at a skin region in accordance with corresponding wavelength values of said light beams, and to calculate hair roots orientation data using k-nearest neighbor (kNN) and support vector machine algorithms, over the obtained images related to said different wavelength light beams traversing the transparent member and penetrating into different penetration depths at a skin region in accordance with corresponding wavelength values of said light beams.
A method, comprising: determining, with a processor, that an indicia decoding algorithm loaded in a memory is an incorrect indicia decoding algorithm for decoding an indicia; unloading, with the processor, the incorrect indicia decoding algorithm from the memory; and loading, with the processor, a correct indicia decoding algorithm for decoding the indicia from a flash memory into the memory; wherein the memory, the flash memory, and the processor are on a processor die of an imaging module comprising an image sensor package coupled to the processor die and operative to scan the indicia. determining, with a processor, that an indicia decoding algorithm loaded in a memory is an incorrect indicia decoding algorithm for decoding an indicia; unloading, with the processor, the incorrect indicia decoding algorithm from the memory; and loading, with the processor, a correct indicia decoding algorithm for decoding the indicia from a flash memory into the memory; wherein the memory, the flash memory, and the processor are on a processor die of an imaging module comprising an image sensor package coupled to the processor die and operative to scan the indicia.
A surgical implant, comprising a porous structure with interconnected pores for ingrowth of bone into the porous structure, wherein the porous structure comprises an arrangement of fibres (13, 14) which are attached to one another, wherein the fibres are arranged in layers (151, 152, 153), the layers being stacked, wherein the porous structure comprises a surface, wherein the surface comprises different regions (112, 113) having different porosities, the different porosities being determined by the arrangement of fibres, wherein the porous structure is attached to a dense part, characterised in that the surface is located opposite the dense part.
A launching system comprising: an aircraft; a wing body; a launching apparatus comprising a flying object that is capable of being launched in air and is detachably mounted on the wing body, characterized in that said wing body comprises a wheel member (12a,12b) for running; and, in that said launching apparatus is towed by said aircraft via a cable so as to be run and taken off. an aircraft; a wing body; a launching apparatus comprising a flying object that is capable of being launched in air and is detachably mounted on the wing body, characterized in that said wing body comprises a wheel member (12a,12b) for running; and, in that said launching apparatus is towed by said aircraft via a cable so as to be run and taken off.