mhurhangee/patent-ind-claim-en huggingface dataset:
A thermal module for use with an electronic device comprising: a first heatsink defining a first airflow exit, the first heatsink including a first set of fins having a first height ; and a second heatsink defining a second airflow exit, the second heatsink spaced from the first heatsink to form a gap therebetween, the second heatsink thermally coupled to the first heatsink via a first heat pipe , characterized in that : the first heatsink includes a second set of fins having a second height, the second height being less than the first height , the second set of fins being adjacent to the first airflow exit, wherein the first heatsink is configured such that a first airflow across the first heatsink flows through a first outlet and a second outlet , and the second heatsink is configured such that a second airflow across the second heatsink flows through a third outlet , wherein the first outlet is non-parallel relative to the second outlet , and wherein the third outlet is non-perpendicular relative to the second outlet . a first heatsink defining a first airflow exit, the first heatsink including a first set of fins having a first height ; and a second heatsink defining a second airflow exit, the second heatsink spaced from the first heatsink to form a gap therebetween, the second heatsink thermally coupled to the first heatsink via a first heat pipe , characterized in that : the first heatsink includes a second set of fins having a second height, the second height being less than the first height , the second set of fins being adjacent to the first airflow exit, wherein the first heatsink is configured such that a first airflow across the first heatsink flows through a first outlet and a second outlet , and the second heatsink is configured such that a second airflow across the second heatsink flows through a third outlet , wherein the first outlet is non-parallel relative to the second outlet , and wherein the third outlet is non-perpendicular relative to the second outlet . the first heatsink includes a second set of fins having a second height, the second height being less than the first height , the second set of fins being adjacent to the first airflow exit, wherein the first heatsink is configured such that a first airflow across the first heatsink flows through a first outlet and a second outlet , and the second heatsink is configured such that a second airflow across the second heatsink flows through a third outlet , wherein the first outlet is non-parallel relative to the second outlet , and wherein the third outlet is non-perpendicular relative to the second outlet .
A key management device that is connected to at least one local quantum key distribution (QKD) device connected to at least one remote QKD device via a quantum communication channel, the key management device comprising: an acquiring unit configured to acquire identity verification data of a remote QKD key generated by the remote QKD device , and remote QKD device identification information identifying the remote QKD device , from another key management device via a classical communication channel; and a processing unit configured to: collect a local QKD key generated by the local QKD device , and local QKD device identification information identifying the local QKD device ; generate identity verification data of the local QKD key; and map, when the identity verification data of the remote QKD key matches the identity verification data of the local QKD key, the remote QKD device identification information to the local QKD device identification information. an acquiring unit configured to acquire identity verification data of a remote QKD key generated by the remote QKD device , and remote QKD device identification information identifying the remote QKD device , from another key management device via a classical communication channel; and a processing unit configured to: collect a local QKD key generated by the local QKD device , and local QKD device identification information identifying the local QKD device ; generate identity verification data of the local QKD key; and map, when the identity verification data of the remote QKD key matches the identity verification data of the local QKD key, the remote QKD device identification information to the local QKD device identification information.
A composite element, in particular for floors, comprising a hollow profile which has an at least predominantly closed cavity , an insert which is arranged or can be arranged in the cavity in such a way that the insert is supported on at least two opposite walls of the hollow profile , characterised in that the insert is formed from an open-pored material which has a delayed recovery after deformation, the insert being formed from a material which is at least partially impregnated and/or coated with an impregnation of binder and filler, the duration of the delayed recovery being longer than the recovery which an insert has without the impregnation with a binder and/or a filler.
A process for producing a reconstituted wheat gluten protein-based flour (WGPF) containing less than or equal to 1200mg of Fermentable Oligosaccharides, Disaccharides, Monosaccharides And Polyols (FODMAPS) per 100g on a dry solids basis, suitable for use in a food product for a wheat intolerant consumer, said process including the steps of: dispersing a source wheat flour in an aqueous solution at a temperature at which starch particles in said source flour are not hydrated or dissolved; recovering the wheat gluten protein from said dispersion: washing said wheat gluten protein whereby the FODMAPS content thereof is depleted sufficiently for use in said WGPF; combining said wheat gluten protein with one or more, insoluble suspended materials and one or more soluble materials which have been recovered either from wheat flour or other non-wheat source and have been depleted of FODMAPS sufficiently for use in said WGPF; wherein said one or more insoluble suspended materials includes a washed low-FODMAPS starch, and wherein said one or more soluble materials includes a low-FODMAPS Wheat Albumin Concentrate containing soluble wheat protein in a range of about 40% to 90% on a N% x 6.25 dry solids basis, or wheat gluten protein modified by proteolytic enzymes and constituted predominantly by gluten-derived peptides containing 30 - 90% soluble wheat protein and peptides. dispersing a source wheat flour in an aqueous solution at a temperature at which starch particles in said source flour are not hydrated or dissolved; recovering the wheat gluten protein from said dispersion: washing said wheat gluten protein whereby the FODMAPS content thereof is depleted sufficiently for use in said WGPF; combining said wheat gluten protein with one or more, insoluble suspended materials and one or more soluble materials which have been recovered either from wheat flour or other non-wheat source and have been depleted of FODMAPS sufficiently for use in said WGPF; wherein said one or more insoluble suspended materials includes a washed low-FODMAPS starch, and wherein said one or more soluble materials includes a low-FODMAPS Wheat Albumin Concentrate containing soluble wheat protein in a range of about 40% to 90% on a N% x 6.25 dry solids basis, or wheat gluten protein modified by proteolytic enzymes and constituted predominantly by gluten-derived peptides containing 30 - 90% soluble wheat protein and peptides.
Lead-through system for a terminal of a dry transformer with external earthed shielding , comprising a substantially circular-cylindrical post insulator having a led-through inner conductor for leading through the shielding , wherein the lead-through system comprises a disc-shaped shielding ring , which is produced from an insulating material and surrounds the post insulator in a flush manner, characterized in that the shielding ring is arranged on a tapering section of the post insulator , and is fixed in a form-fitting manner by means of a press part screwed to a terminal area of the post insulator .
A suitcase of hard shell material, preferably a pilot suitcase, consisting of a lower suitcase portion which is open at the top, with a front panel , a rear panel and two side end panels , and with a bottom panel , and a lid for closing the lower suitcase portion , wherein a telescopic handle which is secured inside the suitcase and can be pulled out in an upward direction is arranged on the rear panel of the lower suitcase portion for pulling or pushing the suitcase , characterized in that the lid has a narrow stationary lid element which extends along the entire width of the lower suitcase portion along the rear panel and has an opening in the middle of the width, through which opening the telescopic handle can be pulled out, and next to the opening for the telescopic handle , the lid has a hinge which connects the stationary lid element to a hinged wide lid element , wherein a limiter means limits the maximum folding angle of the hinged lid element such that the lid element does not protrude beyond the rear panel when in the open state, so that the lid can be transitioned to a stable open position, wherein the lid can hold itself in the open position due to gravity alone.
Battery pack , which has a plurality of battery modules , having the following features: a. it comprises a spacer which is arranged between the battery modules , and b. the spacer comprises a first cooling element composed of a first thermally conductive material, which first cooling element is in surface-to-surface contact with a first of the battery modules , and c. the spacer comprises a second cooling element composed of a second thermally conductive material, which second cooling element is in surface-to-surface contact with a second of the battery modules , and d. the spacer comprises an intermediate space between the cooling elements , which intermediate space is at least partially filled with an insulating material, and e. the insulating material has a lower thermal conductivity than the first and than the second thermally conductive material, so that heating of the first battery module does not result in heating of the second battery module or does so only with a delay, and f. the insulating material is arranged in the intermediate space in the form of a supporting element to which the first and the second cooling element are fixed. a. it comprises a spacer which is arranged between the battery modules , and b. the spacer comprises a first cooling element composed of a first thermally conductive material, which first cooling element is in surface-to-surface contact with a first of the battery modules , and c. the spacer comprises a second cooling element composed of a second thermally conductive material, which second cooling element is in surface-to-surface contact with a second of the battery modules , and d. the spacer comprises an intermediate space between the cooling elements , which intermediate space is at least partially filled with an insulating material, and e. the insulating material has a lower thermal conductivity than the first and than the second thermally conductive material, so that heating of the first battery module does not result in heating of the second battery module or does so only with a delay, and f. the insulating material is arranged in the intermediate space in the form of a supporting element to which the first and the second cooling element are fixed.
A workstation, comprising: a display ; an ablation probe comprising one or more temperature sensors ; a processor ; and memory coupled to the processor, the workstation being configured to receive temperature information from the one or more temperature sensors measured during an ablation process, wherein the memory is configured to store and execute, with the processor, a module to using the temperature information, compute a transformation to the shape and size of an ablation volume achieved with the ablation probe and display the shape on a display relative to an image of the target volume. a display ; an ablation probe comprising one or more temperature sensors ; a processor ; and memory coupled to the processor, the workstation being configured to receive temperature information from the one or more temperature sensors measured during an ablation process, wherein the memory is configured to store and execute, with the processor, a module to using the temperature information, compute a transformation to the shape and size of an ablation volume achieved with the ablation probe and display the shape on a display relative to an image of the target volume.
An axial air gap rotating electric machine comprising a stator in which a plurality of core members including an iron core made of a pillar body shape having an end surface in a substantially trapezoid shape, a coil wound in an outer periphery direction of the iron core , and a bobbin disposed between the iron core and the coil are arranged in an annular shape around a rotation axis (A), and a rotator facing an end surface of the iron core with a predetermined air gap interposed in a rotation axis diameter direction, characterised in that the bobbin includes: a tube portion facing an outer periphery side surface of the iron core and being shorter than a length of the iron core ; flange portions provided around both end portions of the tube portion and extending a predetermined length to an external side of a direction perpendicular to an outer periphery of the tube portion ; and a protruding portion provided on a surface of an external side of at least one of the flange portions and at the innermost periphery of the bobbin close to an inner edge of the tube portion so as to be adapted to receive the load of a wire winding jig used for winding the coil , and having an inner periphery surface facing an end portion outer periphery side surface of the inserted iron core and further protruding in a drawing direction of the tube portion . a tube portion facing an outer periphery side surface of the iron core and being shorter than a length of the iron core ; flange portions provided around both end portions of the tube portion and extending a predetermined length to an external side of a direction perpendicular to an outer periphery of the tube portion ; and a protruding portion provided on a surface of an external side of at least one of the flange portions and at the innermost periphery of the bobbin close to an inner edge of the tube portion so as to be adapted to receive the load of a wire winding jig used for winding the coil , and having an inner periphery surface facing an end portion outer periphery side surface of the inserted iron core and further protruding in a drawing direction of the tube portion .
A method, comprising: exposing an image sensor to a scene; measuring , as analog signals, intensities of light from the scene by a plurality of pixels of the image sensor; converting the analog signals to digital signals; determining residue analog signals from the conversion of the analog signals to the digital signals; determining a total residue analog signal by summing the residue analog signals; determining a total residue digital signal by digitizing the total residue analog signal; and determining a total intensity of light of the scene by summing the digital signals and the total residue digital signal. exposing an image sensor to a scene; measuring , as analog signals, intensities of light from the scene by a plurality of pixels of the image sensor; converting the analog signals to digital signals; determining residue analog signals from the conversion of the analog signals to the digital signals; determining a total residue analog signal by summing the residue analog signals; determining a total residue digital signal by digitizing the total residue analog signal; and determining a total intensity of light of the scene by summing the digital signals and the total residue digital signal.
An imaging system configured to display an image onto a display unit, the imaging system comprising: a light source for emitting visible light (VL) and infrared light (NIR); a camera head unit configured to capture visible light image data so as to generate a visible light image frame and configured to capture infrared image data so as to generate an infrared image frame ; and a camera control unit configured to extract a structural data from the visible light image frame and apply the structural data to the infrared image frame so as to enhance the infrared image frame with the structural data , characterized in that the camera control unit is further configured to convert the visible light image frame into a grayscale image frame prior to extracting the structural data and configured to extract the structural data by separating the structural data from the grayscale image frame using an edge-preserving low pass bilateral filter. a light source for emitting visible light (VL) and infrared light (NIR); a camera head unit configured to capture visible light image data so as to generate a visible light image frame and configured to capture infrared image data so as to generate an infrared image frame ; and a camera control unit configured to extract a structural data from the visible light image frame and apply the structural data to the infrared image frame so as to enhance the infrared image frame with the structural data , characterized in that the camera control unit is further configured to convert the visible light image frame into a grayscale image frame prior to extracting the structural data and configured to extract the structural data by separating the structural data from the grayscale image frame using an edge-preserving low pass bilateral filter.
A display apparatus comprising: a display; a memory storing a fingerprint which is obtained based on a characteristic of a content, and information regarding the content corresponding to the fingerprint; a transceiver ; and at least one processor configured to: obtain (S1110) a fingerprint based on a characteristic of a screen of a content currently reproduced on the display, search (S1120) presence/absence of a stored fingerprint matching the obtained fingerprint in the memory , identify, based on a result (S1130) of the searching, whether to transmit (S1150) a query comprising the obtained fingerprint to a server through the transceiver to request information on the currently reproduced content, identify (S1220) a type of the currently reproduced content using a data recognition model that uses the obtained fingerprint, and change (S1230) a content recognition period based on the identified type of the currently reproduced content. a display; a memory storing a fingerprint which is obtained based on a characteristic of a content, and information regarding the content corresponding to the fingerprint; a transceiver ; and at least one processor configured to: obtain (S1110) a fingerprint based on a characteristic of a screen of a content currently reproduced on the display, search (S1120) presence/absence of a stored fingerprint matching the obtained fingerprint in the memory , identify, based on a result (S1130) of the searching, whether to transmit (S1150) a query comprising the obtained fingerprint to a server through the transceiver to request information on the currently reproduced content, identify (S1220) a type of the currently reproduced content using a data recognition model that uses the obtained fingerprint, and change (S1230) a content recognition period based on the identified type of the currently reproduced content. obtain (S1110) a fingerprint based on a characteristic of a screen of a content currently reproduced on the display, search (S1120) presence/absence of a stored fingerprint matching the obtained fingerprint in the memory , identify, based on a result (S1130) of the searching, whether to transmit (S1150) a query comprising the obtained fingerprint to a server through the transceiver to request information on the currently reproduced content, identify (S1220) a type of the currently reproduced content using a data recognition model that uses the obtained fingerprint, and change (S1230) a content recognition period based on the identified type of the currently reproduced content.
A solid-state germanium-68 source material comprising: a matrix material having a three-dimensional polyhedral crystal structure, the matrix material comprising: a first tetrahedra comprising a central atom, T, and oxygen, the central atom being selected from the group consisting of silicon, aluminum, zirconium and stable germanium, the first tetrahedra having a formula TO 4 ; and a second tetrahedra, the second tetrahedra being a germanium-68 tetrahedra comprising germanium-68 and oxygen and having a formula 68 GeO 4 , the first tetrahedra and germanium-68 tetrahedra being part of a three-dimensional polyhedral crystal structure. a first tetrahedra comprising a central atom, T, and oxygen, the central atom being selected from the group consisting of silicon, aluminum, zirconium and stable germanium, the first tetrahedra having a formula TO 4 ; and a second tetrahedra, the second tetrahedra being a germanium-68 tetrahedra comprising germanium-68 and oxygen and having a formula 68 GeO 4 , the first tetrahedra and germanium-68 tetrahedra being part of a three-dimensional polyhedral crystal structure.
A radiation sensor comprising: a photoconductor detector including in order a first electrode, a photoconductive layer, and a second electrode; pixel circuitry electrically connected to the first electrode and configured to measure an imaging signal indicative of electron-hole pairs generated in the photoconductive layer; a planarization layer disposed on the pixel circuitry between the first electrode and the pixel circuitry such that the first electrode is above a plane including the pixel circuitry; a surface of at least one of said first electrode and said second electrode at least partially overlapping the pixel circuitry and having a planar portion and a surface inflection above features of the pixel circuitry; and characterised in that : said second electrode is an ionizing radiation transmissive electrode, and said photoconductive layer is configured to generate electron-hole pairs upon interaction with ionizing radiation; and said surface inflection extends from said planar portion and has, from said planar portion, a radius of curvature greater than one half micron. a photoconductor detector including in order a first electrode, a photoconductive layer, and a second electrode; pixel circuitry electrically connected to the first electrode and configured to measure an imaging signal indicative of electron-hole pairs generated in the photoconductive layer; a planarization layer disposed on the pixel circuitry between the first electrode and the pixel circuitry such that the first electrode is above a plane including the pixel circuitry; a surface of at least one of said first electrode and said second electrode at least partially overlapping the pixel circuitry and having a planar portion and a surface inflection above features of the pixel circuitry; and characterised in that : said second electrode is an ionizing radiation transmissive electrode, and said photoconductive layer is configured to generate electron-hole pairs upon interaction with ionizing radiation; and said surface inflection extends from said planar portion and has, from said planar portion, a radius of curvature greater than one half micron. said second electrode is an ionizing radiation transmissive electrode, and said photoconductive layer is configured to generate electron-hole pairs upon interaction with ionizing radiation; and said surface inflection extends from said planar portion and has, from said planar portion, a radius of curvature greater than one half micron.