mhurhangee/patent-ind-claim-en huggingface dataset:
An image amplifying method, comprising steps of: obtaining, by an image amplifying device, high-frequency components and low-frequency components of a source image through a wavelet packet decomposition scheme for performing decomposition in N layers, wherein a value of n to which the minimum M corresponds is calculated as the value of N, where M x n = ∑ k log x n 2 is a cost function and x n is a wavelet coefficient; performing, by the image amplifying device, pixel interpolation on the low-frequency components of the source image through a first interpolation algorithm, to obtain low-frequency sub-images; performing, by the image amplifying device, pixel interpolation on the high-frequency components of the source image through a second interpolation algorithm, to obtain high-frequency sub-images; merging, by the image amplifying device, the obtained low-frequency sub-images and the obtained high-frequency sub-images through a wavelet packet inverse transform, to obtain a merged image, wherein the first interpolation algorithm and the second interpolation algorithm adopt different algorithms. obtaining, by an image amplifying device, high-frequency components and low-frequency components of a source image through a wavelet packet decomposition scheme for performing decomposition in N layers, wherein a value of n to which the minimum M corresponds is calculated as the value of N, where M x n = ∑ k log x n 2 is a cost function and x n is a wavelet coefficient; performing, by the image amplifying device, pixel interpolation on the low-frequency components of the source image through a first interpolation algorithm, to obtain low-frequency sub-images; performing, by the image amplifying device, pixel interpolation on the high-frequency components of the source image through a second interpolation algorithm, to obtain high-frequency sub-images; merging, by the image amplifying device, the obtained low-frequency sub-images and the obtained high-frequency sub-images through a wavelet packet inverse transform, to obtain a merged image, wherein the first interpolation algorithm and the second interpolation algorithm adopt different algorithms.
A composite material comprising: peptide amphiphile nanofibers, biocompatible polymer microparticles, and optionally one or more growth factors, characterized in that said biocompatible polymer microparticles comprise collagen derived from an absorbable collagen sponge. peptide amphiphile nanofibers, biocompatible polymer microparticles, and optionally one or more growth factors, characterized in that said biocompatible polymer microparticles comprise collagen derived from an absorbable collagen sponge.
A compound, or a pharmaceutically acceptable salt thereof, wherein the compound is selected from the group consisting of:
A system for identifying biological material comprising: (a) a coherent light source for irradiating the biological material; (b) a device for collecting light waves reflected from the biological material and transforming said light waves to nanoplasmonic waves; and (c) a processing module for extracting phase and amplitude information from said nanoplasmonic waves to provide a plasmonic signature of the biological material, and for identifying the biological material by comparing said phase and amplitude information to a database of plasmonic signatures; wherein the biological material is selected from the group consisting of tissues, cells, subcellular structures and plaques; and wherein said device comprises at least one nanoantenna coupled with at least one plasmonic waveguide . (a) a coherent light source for irradiating the biological material; (b) a device for collecting light waves reflected from the biological material and transforming said light waves to nanoplasmonic waves; and (c) a processing module for extracting phase and amplitude information from said nanoplasmonic waves to provide a plasmonic signature of the biological material, and for identifying the biological material by comparing said phase and amplitude information to a database of plasmonic signatures; wherein the biological material is selected from the group consisting of tissues, cells, subcellular structures and plaques; and wherein said device comprises at least one nanoantenna coupled with at least one plasmonic waveguide .
An automotive lamp extension molding, comprising a resin composition comprising 50 to 95 mass% of a polyphenylene ether (A), and having a specific gravity, which is measured using an electronic specific gravimeter SD-200L manufactured by AlfaMirage Co., Ltd., in the range of 1.00 to 1.12, wherein the resin composition further comprises 0.01 to 5 mass% of a heat stabilizer component (C), and the component (C) is a hindered phenol-based heat stabilizer having a melting point of 180 °C or higher or a phosphorus-based heat stabilizer having a melting point of 180 °C or higher.
A display device comprising: a substrate (SUB); a first active layer (ACT1) of a first transistor (T1) and a second active layer (ACT2) of a second transistor (T2) which are disposed on the substrate (SUB); a first gate insulating layer disposed on the first active layer (ACT1); an oxide layer (OXL) disposed on the first gate insulating layer and including a first oxide semiconductor; a first gate electrode (G1) disposed on the oxide layer (OXL); a second gate insulating layer disposed on the first gate electrode (G1) and the second active layer (ACT2); and a second gate electrode (G2) which overlaps the second active layer (ACT2) in a thickness direction of the substrate (SUB) and is disposed on the second gate insulating layer , wherein the oxide layer (OXL) overlaps the first active layer (ACT1) and does not overlap the second active layer (ACT2) in the thickness direction, and wherein the first active layer (ACT1) includes a second oxide semiconductor. a substrate (SUB); a first active layer (ACT1) of a first transistor (T1) and a second active layer (ACT2) of a second transistor (T2) which are disposed on the substrate (SUB); a first gate insulating layer disposed on the first active layer (ACT1); an oxide layer (OXL) disposed on the first gate insulating layer and including a first oxide semiconductor; a first gate electrode (G1) disposed on the oxide layer (OXL); a second gate insulating layer disposed on the first gate electrode (G1) and the second active layer (ACT2); and a second gate electrode (G2) which overlaps the second active layer (ACT2) in a thickness direction of the substrate (SUB) and is disposed on the second gate insulating layer , wherein the oxide layer (OXL) overlaps the first active layer (ACT1) and does not overlap the second active layer (ACT2) in the thickness direction, and wherein the first active layer (ACT1) includes a second oxide semiconductor.
An indexable cutting insert comprising two opposing end surfaces with a peripheral side surface and a central axis (C) extending therebetween, wherein a central bore extends between and opens out to the two opposing end surfaces , the cutting insert having four cutting portions , four spaced apart abutment zones , and mirror symmetry about mutually perpendicular first and second planes (P1, P2) containing the central axis (C), each of the four cutting portions having a cutting edge formed by the intersection of a rake surface and a relief surface , the four rake surfaces and the four relief surfaces located on the peripheral side surface ; and each of the four abutment zones representing a distinct region of the peripheral side surface capable of making clamping contact with a corresponding region of a mating component in at least one index position of the cutting insert , wherein: the peripheral side surface includes two pairs of opposing side surfaces , a first pair of opposing side surfaces mirror symmetrical about the first plane (P1), and a second pair of opposing side surfaces mirror symmetrical about the second plane (P2), the four cutting edges are formed at the intersections between the two pairs of opposing side surfaces , the second pair of opposing side surfaces includes the four rake surfaces and the four abutment zones , and characterized in that each of the four abutment zones is planar, and in that each of the four abutment zones forms an internal abutment angle (α2) of less than 180° with another one of the four abutment zones . each of the four cutting portions having a cutting edge formed by the intersection of a rake surface and a relief surface , the four rake surfaces and the four relief surfaces located on the peripheral side surface ; and each of the four abutment zones representing a distinct region of the peripheral side surface capable of making clamping contact with a corresponding region of a mating component in at least one index position of the cutting insert , wherein:
A measurement and control system for monitoring a position of a rotor relative to a stator of a generator while drawing or inserting the rotor in the generator, the system comprising: a plurality of range-finding probes , some of the range-finding probes being providable on a side wall of the rotor at intervals close to a first axial end of the rotor , some of the range-finding probes being providable on an inner wall of the stator at intervals close to the axial exciter end of the generator, that is located on the axially opposite side to the first axial end of the rotor when the rotor is inserted or removed from the generator, wherein each of the range-finding probes is used for obtaining a gap between a region of the rotor and a region of the stator ; an inclination sensor , providable in a slide plate positioned in the stator and bearing the rotor during the insertion or removal of the rotor, the inclination sensor being used for measuring a levelness of the slide plate ; a control module , connected with the range-finding probes and capable of receiving first information sent by the range-finding probes, the first information being the gap between the rotor and the stator ; the control module being also connected with the inclination sensor and capable of receiving second information sent by the inclination sensor , the second information being the levelness of the slide plate ; and a display screen , connected with the control module and capable of displaying the first information and the second information. a plurality of range-finding probes , some of the range-finding probes being providable on a side wall of the rotor at intervals close to a first axial end of the rotor , some of the range-finding probes being providable on an inner wall of the stator at intervals close to the axial exciter end of the generator, that is located on the axially opposite side to the first axial end of the rotor when the rotor is inserted or removed from the generator, wherein each of the range-finding probes is used for obtaining a gap between a region of the rotor and a region of the stator ; an inclination sensor , providable in a slide plate positioned in the stator and bearing the rotor during the insertion or removal of the rotor, the inclination sensor being used for measuring a levelness of the slide plate ; a control module , connected with the range-finding probes and capable of receiving first information sent by the range-finding probes, the first information being the gap between the rotor and the stator ; the control module being also connected with the inclination sensor and capable of receiving second information sent by the inclination sensor , the second information being the levelness of the slide plate ; and a display screen , connected with the control module and capable of displaying the first information and the second information.
An Air Data Test System (ADTS) comprising: at least one pneumatic pump configured to produce an air pressure; at least two pairs of impact and static ADTS ports , one pair of ADTS ports configured to supply air pressure to a first pitot-static system and the other pair of ADTS ports configured to supply air pressure to a second pitot-static system ; a manifold system in fluid communication with the at least one pneumatic pump and each pair of impact and static ADTS ports , wherein the manifold system includes a channel (CP1, CS1, CP2, CS2) for each of the ports and further comprises a plurality of pressure sensors (210a -210d) for controlling the pressure in each channel (CP1, CS1, CP2, CS2) and a plurality of zeroing valves (220a - 220d) interposing each channel (CP1, CS1, CP2, CS2), the zeroing valves (220a - 220d) being interconnected and openable to a non-atmospheric threshold pressure prior to commencing a data test for the purpose of eliminating drift in the pressure sensors (210a -210d); a signal processor operatively coupled to the at least one pneumatic pump and the manifold system and configured to issue control signals thereto to test each of the first and second pitot-static systems ; and a plurality of drop-off valves (230a- 230d) interposing each channel (CP1, CS1, CP2, CS2) and disposed immediately upstream of the static and pitot ports and downstream of the zeroing valves (230a- 230d) to allow for manual pressure reduction of the applied pressure by sequentially opening in the event of a system failure when power is removed to the ADTS. at least one pneumatic pump configured to produce an air pressure; at least two pairs of impact and static ADTS ports , one pair of ADTS ports configured to supply air pressure to a first pitot-static system and the other pair of ADTS ports configured to supply air pressure to a second pitot-static system ; a manifold system in fluid communication with the at least one pneumatic pump and each pair of impact and static ADTS ports , wherein the manifold system includes a channel (CP1, CS1, CP2, CS2) for each of the ports and further comprises a plurality of pressure sensors (210a -210d) for controlling the pressure in each channel (CP1, CS1, CP2, CS2) and a plurality of zeroing valves (220a - 220d) interposing each channel (CP1, CS1, CP2, CS2), the zeroing valves (220a - 220d) being interconnected and openable to a non-atmospheric threshold pressure prior to commencing a data test for the purpose of eliminating drift in the pressure sensors (210a -210d); a signal processor operatively coupled to the at least one pneumatic pump and the manifold system and configured to issue control signals thereto to test each of the first and second pitot-static systems ; and a plurality of drop-off valves (230a- 230d) interposing each channel (CP1, CS1, CP2, CS2) and disposed immediately upstream of the static and pitot ports and downstream of the zeroing valves (230a- 230d) to allow for manual pressure reduction of the applied pressure by sequentially opening in the event of a system failure when power is removed to the ADTS.
Adhesive tape, in particular wrapping tape for sheathing cables in automobiles, with a textile carrier and at least one adhesive layer applied to one or both sides of the carrier, wherein the carrier is coloured by a dye, and wherein inorganic mineral pigments make up some or all of the dye, characterized in that the dye is created as a mixture of yellow inorganic mineral pigments and red organic pigments, wherein the red organic pigments are those from the class of perylenes.
A suction nozzle comprising a base plate (BP) shaped so as to have a base plate channel (CH) open towards a surface to be vacuumed, a suction channel in fluid communication with the base plate channel (CH) and a covering body connected to at least one of said base plate channel (BP) and said covering body , characterized by the suction nozzle further comprising an accessory configured to be removably coupled with the suction nozzle in the region of the base plate (BP), wherein said accessory comprises a flattened main body with an upper face configured to be coupled with the suction nozzle, a lower face facing the surface to be vacuumed, and an elongate slot , wherein said accessory also comprises a first strip of a sliding material arranged substantially along the entire front edge of the elongate slot and a second strip of a sliding material arranged substantially along the entire rear edge of the elongate slot , wherein the sliding material comprises a fibrous material selected from the group comprising: felt, fabric, mop-type fabric or velvet, wherein the suction nozzle further comprises coupling devices for releasably connecting the accessory to the suction nozzle. characterized by the suction nozzle further comprising an accessory configured to be removably coupled with the suction nozzle in the region of the base plate (BP), wherein said accessory comprises a flattened main body with an upper face configured to be coupled with the suction nozzle, a lower face facing the surface to be vacuumed, and an elongate slot , wherein said accessory also comprises a first strip of a sliding material arranged substantially along the entire front edge of the elongate slot and a second strip of a sliding material arranged substantially along the entire rear edge of the elongate slot , wherein the sliding material comprises a fibrous material selected from the group comprising: felt, fabric, mop-type fabric or velvet, wherein the suction nozzle further comprises coupling devices for releasably connecting the accessory to the suction nozzle.
A method of manufacturing an intraocular lens, the method comprising: filling an annular mask-forming feature in a lens mold with an opaque mask material , the annular mask-forming feature comprising a trough provided in a portion of the lens mold; adding optically transmissive optic material over the opaque mask material ; and, fully curing the opaque mask material and the optically transmissive optic material to form a mask and an optic , the mask being sufficient to prevent transmission of at least 90% of incident visible light. filling an annular mask-forming feature in a lens mold with an opaque mask material , the annular mask-forming feature comprising a trough provided in a portion of the lens mold; adding optically transmissive optic material over the opaque mask material ; and, fully curing the opaque mask material and the optically transmissive optic material to form a mask and an optic , the mask being sufficient to prevent transmission of at least 90% of incident visible light.
Tool apparatus (10; 28) for producing a composite material component part, said tool apparatus comprising a forming tool (12; 30) having a contact region for a workpiece , wherein the forming tool (12; 30) is made, in at least a portion thereof, of an electrically conductive material, and an induction heating apparatus (18; 110) having an inductive heating mat (20; 115), wherein the heating mat (20; 115) is positioned in spaced relation to the forming tool (12; 30), wherein a positioning of the workpiece is provided between the heating mat (20; 115) and the forming tool (12; 30), in contact with the forming tool (12; 30), and wherein heating of the forming tool (12; 30) is provided, in at least a portion thereof, by the induction heating apparatus (18; 110), characterized by a punch as a counter-element to the forming tool (12; 30), wherein the heating mat (20; 115) is integrated into the punch .
A floating structure comprising: a floating main structure ; a first tank disposed in the floating main structure and storing carbon dioxide having a gas phase and a liquid phase; a second tank disposed in the floating main structure and capable of storing a liquefied combustible gas whose temperature in a liquid state is lower than a temperature of the liquid phase of the carbon dioxide; a first heat exchanger that exchanges heat between the liquefied combustible gas and a refrigerant; a second heat exchanger that vaporizes the liquefied combustible gas by exchanging heat of the liquefied combustible gas which has passed through the first heat exchanger , with a heat medium; and a combustor that combusts the liquefied combustible gas vaporized by the second heat exchanger , characterized in that the floating structure further comprises a circulation line that circulates the refrigerant between an inside of the first tank and the first heat exchanger , wherein the circulation line passes through at least a gas phase of the first tank , and an expansion valve and a compressor to construct a refrigerating cycle in the circulation line . a floating main structure ; a first tank disposed in the floating main structure and storing carbon dioxide having a gas phase and a liquid phase; a second tank disposed in the floating main structure and capable of storing a liquefied combustible gas whose temperature in a liquid state is lower than a temperature of the liquid phase of the carbon dioxide; a first heat exchanger that exchanges heat between the liquefied combustible gas and a refrigerant; a second heat exchanger that vaporizes the liquefied combustible gas by exchanging heat of the liquefied combustible gas which has passed through the first heat exchanger , with a heat medium; and a combustor that combusts the liquefied combustible gas vaporized by the second heat exchanger , characterized in that the floating structure further comprises a circulation line that circulates the refrigerant between an inside of the first tank and the first heat exchanger , wherein the circulation line passes through at least a gas phase of the first tank , and an expansion valve and a compressor to construct a refrigerating cycle in the circulation line .
Method for coordinating a first actuator device and a second actuator device , wherein one of the actuator devices comprises a motor vehicle system and the other actuator device comprises an motor vehicle-external device that is arranged on a building ; and wherein the method is performed by an interface device that forms a data communication interface between the actuator devices , the method having the following: - detecting a current configuration of the first actuator device (14, 15, 16, 18, 20, S1), - depending on the detected configuration of the first actuator device : determining the second actuator device as an actuator device (14, 15, 16, 18, 20, S2) to be adapted to the detected configuration of the first actuator device , - based on the detected configuration of the first actuator device : determining settings data for configuring the second actuator device (14, 15, 16, 18, 20, S3), - generating a control signal describing the determined settings data (S5), and - transmitting the generated control signal to the second actuator device for configuring the second actuator device (14, 15, 16, 18, 20, S6); characterised in that control of the second actuator device comprises: - determining a parking position of the motor vehicle at the building (12, S4), and, based on the determined parking position: moving a partition device of the motor vehicle from a rest position, in which a wall element of the partition device is arranged at the motor vehicle or in the motor vehicle , to a shielding position (S7), in which the wall element extends between the motor vehicle and a wall of the building . - detecting a current configuration of the first actuator device (14, 15, 16, 18, 20, S1), - depending on the detected configuration of the first actuator device : determining the second actuator device as an actuator device (14, 15, 16, 18, 20, S2) to be adapted to the detected configuration of the first actuator device , - based on the detected configuration of the first actuator device : determining settings data for configuring the second actuator device (14, 15, 16, 18, 20, S3), - generating a control signal describing the determined settings data (S5), and - transmitting the generated control signal to the second actuator device for configuring the second actuator device (14, 15, 16, 18, 20, S6); characterised in that control of the second actuator device comprises: - determining a parking position of the motor vehicle at the building (12, S4), and, based on the determined parking position: moving a partition device of the motor vehicle from a rest position, in which a wall element of the partition device is arranged at the motor vehicle or in the motor vehicle , to a shielding position (S7), in which the wall element extends between the motor vehicle and a wall of the building .