mhurhangee/patent-ind-claim-en huggingface dataset:
A power module substrate comprising: a ceramic substrate ; a circuit layer that is formed on one surface of the ceramic substrate ; and a metal layer that is formed on the other surface of the ceramic substrate , wherein the metal layer includes: a first aluminum layer that is bonded to the other surface of the ceramic substrate , a first copper layer that is bonded to the first aluminum layer by solid-phase diffusion bonding, and a first intermetallic compound layer that is formed at a first bonding interface between the first aluminum layer and the first copper layer and that includes plural intermetallic compounds composed of Cu and Al, wherein the plural intermetallic compounds of the first intermetallic compound layer are formed in a layered state and are laminated along the first bonding interface, characterized in that the plural intermetallic compounds in the first intermetallic compound layer have a structure in which a θ phase, an η2 phase, and at least one phase selected from the group consisting of a ζ2 phase, a δ phase, and a γ2 phase are sequentially laminated from the first aluminum layer toward the first copper layer . a ceramic substrate ; a circuit layer that is formed on one surface of the ceramic substrate ; and a metal layer that is formed on the other surface of the ceramic substrate , wherein the metal layer includes: a first aluminum layer that is bonded to the other surface of the ceramic substrate , a first copper layer that is bonded to the first aluminum layer by solid-phase diffusion bonding, and a first intermetallic compound layer that is formed at a first bonding interface between the first aluminum layer and the first copper layer and that includes plural intermetallic compounds composed of Cu and Al, a first aluminum layer that is bonded to the other surface of the ceramic substrate , a first copper layer that is bonded to the first aluminum layer by solid-phase diffusion bonding, and a first intermetallic compound layer that is formed at a first bonding interface between the first aluminum layer and the first copper layer and that includes plural intermetallic compounds composed of Cu and Al, wherein the plural intermetallic compounds of the first intermetallic compound layer are formed in a layered state and are laminated along the first bonding interface, characterized in that the plural intermetallic compounds in the first intermetallic compound layer have a structure in which a θ phase, an η2 phase, and at least one phase selected from the group consisting of a ζ2 phase, a δ phase, and a γ2 phase are sequentially laminated from the first aluminum layer toward the first copper layer .
Electronic device comprising a semiconducting layer comprising a borate complex comprising a metal, and at least one borate ligand, wherein the borate ligand comprises at least one heterocyclic group, characterized in that the metal is Sr.
A method at a server computer, the method comprising: receiving a request from a first device for instructions to process a plurality of media content items, the request including a unique identifier for each of the plurality of media content items; determining , using the unique identifier for each of the plurality of media content items, a subset of the plurality of media content items to be processed by the first device; generating instructions for the first device to process the subset of the plurality of media content items; sending the instructions to the first device; receiving a request from the first device to share the plurality of media content items with a second device, the request including the unique identifier for each of the plurality of media content items to be shared and processed media content items for the subset of the plurality of media content items, said processed media content items having been processed by the first device in accordance with the instructions; generating a message including the processed media content items for the plurality of media content items that are to be shared; and sending the generated message to the second device. receiving a request from a first device for instructions to process a plurality of media content items, the request including a unique identifier for each of the plurality of media content items; determining , using the unique identifier for each of the plurality of media content items, a subset of the plurality of media content items to be processed by the first device; generating instructions for the first device to process the subset of the plurality of media content items; sending the instructions to the first device; receiving a request from the first device to share the plurality of media content items with a second device, the request including the unique identifier for each of the plurality of media content items to be shared and processed media content items for the subset of the plurality of media content items, said processed media content items having been processed by the first device in accordance with the instructions; generating a message including the processed media content items for the plurality of media content items that are to be shared; and sending the generated message to the second device.
A method for controlling a wearable robot having at least one leg unit , the method comprising: (a) obtaining at least one input signal from at least one encoder tracking a hip joint angle versus time, the at least one encoder attached to the wearable robot and corresponding to the at least one leg unit; (b) windowing the at least one input signal within a window size based on time versus the hip joint angle; (c) decomposing the at least one input signal with a Discrete Wavelet Transform (DWT); (d) identifying at least one gait event in a gait cycle by using the DWT; (e) computing temporal gait parameters based on the at least one gait event; (f) generating an assistive force in the at least one leg unit in response to the temporal gait parameters. (a) obtaining at least one input signal from at least one encoder tracking a hip joint angle versus time, the at least one encoder attached to the wearable robot and corresponding to the at least one leg unit; (b) windowing the at least one input signal within a window size based on time versus the hip joint angle; (c) decomposing the at least one input signal with a Discrete Wavelet Transform (DWT); (d) identifying at least one gait event in a gait cycle by using the DWT; (e) computing temporal gait parameters based on the at least one gait event; (f) generating an assistive force in the at least one leg unit in response to the temporal gait parameters.
A probes arrangement , configured to be attached to a receiving unit of a device under charge positioned onto or within a close or half close conductive charging structure or in near field environment having a transmitting unit for transmitting RF energy, characterized in that said probes arrangement comprises at least two probes (102, 104; 202, 204; 302, 304) configured to create closed electromagnetic field lines between them so as to allow high coupling between said transmitting unit and said receiving unit regardless of the position and/or the orientation of the device under charge relative to the conductive charging structure or the near field environment, wherein said at least two probes (102, 104; 202, 204; 302, 304) are disposed to create a two dimensional or a three dimensional structure over axis X-Y-Z and wherein, lines of the electromagnetic field are arranged between them, said closed electromagnetic field lines create a microenvironment between said at least two probes, to minimize changes in the electromagnetic field occurring as a result of changes in the position and/or orientation of the device under charge.
An expansible scoring cage adapted to be carried over a balloon of a balloon angioplasty catheter, said cage comprising: an assembly having a plurality of scoring elements arranged according to helical winding, said helical scoring elements, wherein the assembly is adapted to assume a radially collapsed configuration and adapted to expand to a radially expanded configuration, wherein the assembly is adapted to return to its radially collapsed configuration; wherein the scoring cage has a distal end, a proximal end and wherein the plurality of helical scoring elements longitudinally extend from the distal end to the proximal end; characterized in that the plurality of helical scoring elements are coupled via a plurality of struts comprising two bends in opposite directions, which struts connect two adjacent helical scoring elements at locations offset and spaced along the longitudinal axis of the expansible scoring cage to accommodate the radially expanded and the radially collapsed configurations, preventing any of the plurality of helical scoring elements or plurality of struts to detach or stray away from a profile of the expansible scoring cage upon axial and rotational reaction forces exerted to the expansible scoring cage during use. an assembly having a plurality of scoring elements arranged according to helical winding, said helical scoring elements, wherein the assembly is adapted to assume a radially collapsed configuration and adapted to expand to a radially expanded configuration, wherein the assembly is adapted to return to its radially collapsed configuration; wherein the scoring cage has a distal end, a proximal end and wherein the plurality of helical scoring elements longitudinally extend from the distal end to the proximal end; characterized in that the plurality of helical scoring elements are coupled via a plurality of struts comprising two bends in opposite directions, which struts connect two adjacent helical scoring elements at locations offset and spaced along the longitudinal axis of the expansible scoring cage to accommodate the radially expanded and the radially collapsed configurations, preventing any of the plurality of helical scoring elements or plurality of struts to detach or stray away from a profile of the expansible scoring cage upon axial and rotational reaction forces exerted to the expansible scoring cage during use.
A cleaning system comprising: - a first guiding configured to be coupled to an object , - a second guiding configured to be coupled to the object such that the second guiding is arranged at a distance from the first guiding , - a third guiding configured to be coupled to the object such that the third guiding is arranged at a distance from the first guiding and the second guiding , - a first part movably coupled to the first guiding , - a second part movably coupled to the second guiding , - a third part coupled to the second part , wherein the second part and the third part are coupled to each other via a second joint . - a fourth part movably coupled to the third guiding , - wherein the first part is movable relative to the second part and the third part is movable relative to the fourth part , and wherein cleaning elements are coupled to each of the first part , the second part , the third part and the fourth part , and wherein the system further comprises a drive system configured to simultaneously move the first part , the second part , the third part and the fourth part along the first guiding , the second guiding and the third guiding , and wherein the parts of the cleaning system are configured to simultaneously move over a curved window surface. - a first guiding configured to be coupled to an object , - a second guiding configured to be coupled to the object such that the second guiding is arranged at a distance from the first guiding , - a third guiding configured to be coupled to the object such that the third guiding is arranged at a distance from the first guiding and the second guiding , - a first part movably coupled to the first guiding , - a second part movably coupled to the second guiding , - a third part coupled to the second part , wherein the second part and the third part are coupled to each other via a second joint . - a fourth part movably coupled to the third guiding , - wherein the first part is movable relative to the second part and the third part is movable relative to the fourth part , and wherein cleaning elements are coupled to each of the first part , the second part , the third part and the fourth part ,
Oven for household or industrial application, comprising a muffle and at least one oven illumination for illuminating the interior of the muffle of the oven, comprising at least one light source and a lens , preferably made from glass, arranged downstream the at least one light source , wherein the oven comprises a heat sink for removing heat from the at least one oven illumination coupled thereto; characterised in that a cavity is provided with the lens body at least reducing heat conduction towards the at least one light source , the lens comprising said cavity represents a single optical element, wherein said heat sink is based on active cooling elements, namely Peltier elements and/or fans or chillers utilizing gaseous or fluid cooling media.
An optically detectable marker comprising a matrix material, which is doped with a plurality of individual luminescent dopants and comprising at least a first luminescent dopant and a second luminescent dopant, wherein the first luminescent dopant comprises a first unique absorption band such that the first luminescent dopant may be excited by illumination of a first wavelength, and wherein the first luminescent dopant is distributed in the matrix material so as to form a first spatial pattern in the matrix material, which first spatial pattern may be optically detected by illuminating the optically detectable marker by a light source illuminating light of the first wavelength, and the second luminescent dopant comprises a second unique absorption band such that the second luminescent dopant may be excited by illumination of a second wavelength, different from the first wavelength, and wherein the second luminescent dopant is distributed in the matrix material so as to form a second spatial pattern in the matrix material, which second spatial pattern may be optically detected by illuminating the optically detectable marker by a light source illuminating light of the second wavelength; characterised in that the spatial patterns in the marker are divided into pixels, each pixel being adapted for encoding four different values of information using combinations of the two different luminescent dopants, and wherein the individual luminescent dopants are randomly distributed in the matrix material, thereby providing a physically unclonable function device encoding a unique digital identifier. the first luminescent dopant comprises a first unique absorption band such that the first luminescent dopant may be excited by illumination of a first wavelength, and wherein the first luminescent dopant is distributed in the matrix material so as to form a first spatial pattern in the matrix material, which first spatial pattern may be optically detected by illuminating the optically detectable marker by a light source illuminating light of the first wavelength, and the second luminescent dopant comprises a second unique absorption band such that the second luminescent dopant may be excited by illumination of a second wavelength, different from the first wavelength, and wherein the second luminescent dopant is distributed in the matrix material so as to form a second spatial pattern in the matrix material, which second spatial pattern may be optically detected by illuminating the optically detectable marker by a light source illuminating light of the second wavelength; characterised in that the spatial patterns in the marker are divided into pixels, each pixel being adapted for encoding four different values of information using combinations of the two different luminescent dopants, and wherein the individual luminescent dopants are randomly distributed in the matrix material, thereby providing a physically unclonable function device encoding a unique digital identifier.
A gas turbine engine component comprising: a substrate ; a preformed sheet having a first side and a second side opposite the first side , wherein the preformed sheet is coupled to the substrate at said first side ; at least one feature formed in said preformed sheet , the at least one feature comprising at least one rounded edge proximate said first side and at least one sharp corner distal from said rounded edge at said second side, said gas turbine engine component comprising a thermally insulating topcoat , said at least one feature configured to create at least one fault and at least one segmented portion in said topcoat . a substrate ; a preformed sheet having a first side and a second side opposite the first side , wherein the preformed sheet is coupled to the substrate at said first side ; at least one feature formed in said preformed sheet , the at least one feature comprising at least one rounded edge proximate said first side and at least one sharp corner distal from said rounded edge at said second side, said gas turbine engine component comprising a thermally insulating topcoat , said at least one feature configured to create at least one fault and at least one segmented portion in said topcoat .
A lining for items of clothing, footwear and accessories, comprising a fabric with a plurality of channels which are alternated with ribs , wherein the fabric comprises: a region with a high density of channels , a region with a medium density of channels , a region with a low density of channels , said channels at least partly having differentiated widths characterized in that the fabric is a three-dimensional fabric.
A terminal comprising: a reception unit that receives repetitions of a control signal across a plurality of first subframes and a data signal allocated to a resource indicated by the control signal; a generation unit that performs repetition of a response signal for the data signal across a plurality of second subframes and generates a transmission signal by associating the response signals in the second subframes with a resource block which is associated with the first subframe of the plurality of first subframes; and a transmission unit that transmits the transmission signal. a reception unit that receives repetitions of a control signal across a plurality of first subframes and a data signal allocated to a resource indicated by the control signal; a generation unit that performs repetition of a response signal for the data signal across a plurality of second subframes and generates a transmission signal by associating the response signals in the second subframes with a resource block which is associated with the first subframe of the plurality of first subframes; and a transmission unit that transmits the transmission signal.
An overhead wire wear measurement method for finding a remaining diameter of an overhead wire by capturing an image of a lower surface of the overhead wire , which comes into contact with a pantograph, with a wear measurement camera disposed on a roof of a train and by performing image processing on the captured image of the lower surface of the overhead wire , characterized in that a remaining diameter of a horizontally worn overhead wire having only a horizontally worn part is calculated as a remaining-diameter-equivalent value for an unevenly worn overhead wire having a horizontally worn part and an obliquely worn part , the horizontally worn overhead wire having the same cross-sectional area as the unevenly worn overhead wire .
A system for measuring health data, comprising: a measurement device including: at least one measurement interface configured to receive a first fluid sample and a second fluid sample; a processor configured to measure a first characteristic of the first fluid sample and a second characteristic of the second fluid sample received by the at least one measurement interface ; and at least one memory device configured to store firmware, first algorithm data, and second algorithm data, wherein responsive to receiving a first user selection to measure the first characteristic of the first fluid sample, the processor executes the firmware with the first algorithm data to measure the first characteristic of the first fluid sample, and wherein responsive to receiving a second user selection to measure the second characteristic of the second fluid sample, the processor executes the firmware with the second algorithm data instead of the first algorithm data, thereby reconfiguring the measurement device to measure the second characteristic of the second fluid sample. a measurement device including: at least one measurement interface configured to receive a first fluid sample and a second fluid sample; a processor configured to measure a first characteristic of the first fluid sample and a second characteristic of the second fluid sample received by the at least one measurement interface ; and at least one memory device configured to store firmware, first algorithm data, and second algorithm data, at least one measurement interface configured to receive a first fluid sample and a second fluid sample; a processor configured to measure a first characteristic of the first fluid sample and a second characteristic of the second fluid sample received by the at least one measurement interface ; and at least one memory device configured to store firmware, first algorithm data, and second algorithm data, wherein responsive to receiving a first user selection to measure the first characteristic of the first fluid sample, the processor executes the firmware with the first algorithm data to measure the first characteristic of the first fluid sample, and wherein responsive to receiving a second user selection to measure the second characteristic of the second fluid sample, the processor executes the firmware with the second algorithm data instead of the first algorithm data, thereby reconfiguring the measurement device to measure the second characteristic of the second fluid sample.
Process for dyeing keratin fibers, in particular human keratin fibers such as the hair, involving the application to the fibers a) of a dye composition (A) comprising: - one or more oxidation dyes; - one or more scleroglucan gums in a total weight content of greater than or equal to 0.5% relative to the total weight of composition (A); - one or more alkaline agent(s); and b) of an oxidizing composition (B) comprising: - one or more chemical oxidizing agents; and - one or more scleroglucan gums; the oxidizing composition (B) being mixed with the dye composition (A) just before use (extemporaneously). a) of a dye composition (A) comprising: - one or more oxidation dyes; - one or more scleroglucan gums in a total weight content of greater than or equal to 0.5% relative to the total weight of composition (A); - one or more alkaline agent(s); and - one or more oxidation dyes; - one or more scleroglucan gums in a total weight content of greater than or equal to 0.5% relative to the total weight of composition (A); - one or more alkaline agent(s); and b) of an oxidizing composition (B) comprising: - one or more chemical oxidizing agents; and - one or more scleroglucan gums; the oxidizing composition (B) being mixed with the dye composition (A) just before use (extemporaneously). - one or more chemical oxidizing agents; and - one or more scleroglucan gums;