mhurhangee/ep-ind-claims huggingface dataset:
A composite material substrate for LED light emitting elements, formed by infiltrating, with an aluminum alloy or pure aluminum at an infiltrating pressure of at least 30 MPa, a plurality of porous bodies stacked in a stacking block that is heated at a temperature of 600 to 800°C, said porous bodies having a porosity of 10 to 50 vol% and consisting of one or more materials chosen from among silicon carbide, aluminum nitride, silicon nitride, diamond, graphite, yttrium oxide and magnesium oxide, working to a composite material having a thickness of 0.05 to 0.5 mm and a surface roughness (Ra) of 0.01 to 0.5 μm, then forming, on a surface, a metal layer comprising one or more metals chosen from among Ni, Co, Pd, Cu, Ag, Pt and Sn to a thickness of 0.5 to 15 μm.
A method of transmitting data in a multi-carrier communication system, the method comprising: converting serial data symbols of a first group to parallel data symbols; spreading one or more data symbols of a second group using different codes; combining the spread data symbols of the second group with the parallel data symbols of the first group; mapping at least one of the combined data symbols to at least one subcarrier, wherein the subcarriers carrying the at least one of the combined data symbols are mutually exclusive; transforming the combined data symbols mapped to the subcarriers by an inverse discrete Fourier transform,IDFT, module; and transmitting the transformed data symbols to a receiving end. converting serial data symbols of a first group to parallel data symbols; spreading one or more data symbols of a second group using different codes; combining the spread data symbols of the second group with the parallel data symbols of the first group; mapping at least one of the combined data symbols to at least one subcarrier, wherein the subcarriers carrying the at least one of the combined data symbols are mutually exclusive; transforming the combined data symbols mapped to the subcarriers by an inverse discrete Fourier transform,IDFT, module; and transmitting the transformed data symbols to a receiving end.
A follow-up run control device (1, 201, 301, 401, 501) controlling a running state of a vehicle (M 0) in a state where peripheral vehicles (M 1, M 2, M 3) running before or behind the vehicle exist, comprising: deviation acquiring means for acquiring information regarding a deviation (D 1, D 2, D 3) between a relative positional relation (L 1, L 2, L 3) and a target relative positional relation (L tgt_1, L tgt_2, L tgt_3) of the vehicle and the peripheral vehicles with respect to preceding vehicles running just before the vehicle or the peripheral vehicles respectively; and follow-up control amount calculating means for calculating a follow-up control amount of the vehicle to control the running state of the vehicle on the basis of the information regarding the deviations of a plurality of vehicles acquired by the deviation acquiring means, wherein when m (where m =2, 3,...) peripheral vehicles exist, the follow-up control amount u of the vehicle calculated by the follow-up control amount calculating means is expressed by the following expression, u = k 1 D 1 + c 1 D 1 ′ + k 2 D 1 + D 2 + c 2 D 1 ′ + D 2 ′ +... + k m D 1 + D 2 +... + D m + c m D 1 ′ + D 2 ′ +... + D m ′ where D 1 represents the deviation between the relative positional relation and the target relative positional relation of the vehicle with respect to the preceding vehicle thereof, D 1 ' represents the temporal differentiation of the deviation D 1, D n represents the deviation between the relative positional relation and the target relative positional relation of the (n-1)-th peripheral vehicle before the vehicle with respect to the preceding vehicle thereof, D n ' represents the temporal differentiation of the deviation D n, and k 1 to k m and c 1 to c m are constants. deviation acquiring means for acquiring information regarding a deviation (D 1, D 2, D 3) between a relative positional relation (L 1, L 2, L 3) and a target relative positional relation (L tgt_1, L tgt_2, L tgt_3) of the vehicle and the peripheral vehicles with respect to preceding vehicles running just before the vehicle or the peripheral vehicles respectively; and follow-up control amount calculating means for calculating a follow-up control amount of the vehicle to control the running state of the vehicle on the basis of the information regarding the deviations of a plurality of vehicles acquired by the deviation acquiring means, wherein when m (where m =2, 3,...) peripheral vehicles exist, the follow-up control amount u of the vehicle calculated by the follow-up control amount calculating means is expressed by the following expression, u = k 1 D 1 + c 1 D 1 ′ + k 2 D 1 + D 2 + c 2 D 1 ′ + D 2 ′ +... + k m D 1 + D 2 +... + D m + c m D 1 ′ + D 2 ′ +... + D m ′
A wearable article comprising: a first limb section; a first resilient member (130B, 132B) spanning a length of the first limb section and configured to generate a first resistance force; a first cord lock slideably engaging the first resilient member, wherein the slideable engagement of the first cord lock with the first resilient member is configured to adjust the first resistance force provided by the first resilient member; a first electronic strain gauge (302A, 302B, 304A, 304B) configured to measure the first resistance force provided by the first resilient member, wherein the first electronic strain gauge is coupled to a first end of the first resilient member and the first cord lock is proximate a second end of the first resilient member; and a communication interface communicatively coupled to the first electronic strain gauge, the communication interface configured to: receive first information representative of the first resistance force from the first electronic strain gauge; and transmit the first information to a remote device via a wireless communication link; wherein the first resilient member comprises a plurality of visual indicators (230, 232, 234), each visual indicator of the plurality of visual indicators corresponding to a particular amount of resistance force, and wherein the plurality of visual indicators identify locations for slideably engaging the first cord lock with the first resilient member to provide a particular amount of resistance force. a first limb section; a first resilient member (130B, 132B) spanning a length of the first limb section and configured to generate a first resistance force; a first cord lock slideably engaging the first resilient member, wherein the slideable engagement of the first cord lock with the first resilient member is configured to adjust the first resistance force provided by the first resilient member; a first electronic strain gauge (302A, 302B, 304A, 304B) configured to measure the first resistance force provided by the first resilient member, wherein the first electronic strain gauge is coupled to a first end of the first resilient member and the first cord lock is proximate a second end of the first resilient member; and a communication interface communicatively coupled to the first electronic strain gauge, the communication interface configured to: receive first information representative of the first resistance force from the first electronic strain gauge; and transmit the first information to a remote device via a wireless communication link; wherein the first resilient member comprises a plurality of visual indicators (230, 232, 234), each visual indicator of the plurality of visual indicators corresponding to a particular amount of resistance force, and wherein the plurality of visual indicators identify locations for slideably engaging the first cord lock with the first resilient member to provide a particular amount of resistance force.
A stereoscopic lighting device for emitting light having a perceptional perspective effect, comprising: a base substrate; a light source on the base substrate; a reflective layer disposed on one surface of the base substrate; a light guide layer burying the light source and the reflective layer; a first half mirror layer disposed on the light guide layer; and a second half mirror layer facing the first half mirror layer and disposed inside of the light guide layer, characterized in that, light transmittance of the second half mirror layer is higher than that of the first half mirror layer, wherein reflectance of the second half mirror layer is lower than that of the first half mirror layer. a base substrate; a light source on the base substrate; a reflective layer disposed on one surface of the base substrate; a light guide layer burying the light source and the reflective layer; a first half mirror layer disposed on the light guide layer; and a second half mirror layer facing the first half mirror layer and disposed inside of the light guide layer, characterized in that, light transmittance of the second half mirror layer is higher than that of the first half mirror layer, wherein reflectance of the second half mirror layer is lower than that of the first half mirror layer.
A composition for use in tissue healing and/or repair by modulating the expression of genes responsible for the functionality and maintenance of keratinous materials, wherein said composition comprises a raw material diluted in mineral oil, and a pharmaceutically and/or cosmetically acceptable carrier, wherein the raw material is a plant lipid and the plant lipid is acai oil.
A method for inspecting an area of a nuclear reactor part, the method comprising the following steps: - placing an optical sensor in front of the part to be inspected using a carrier; - acquiring at least a first image of at least a reference portion of the part using the optical sensor, the or each first image being taken with a first magnification; - acquiring at least a second image of an area to be inspected using the optical sensor, the or each second image of the area to be inspected being taken with a second magnification higher than the first magnification; characterized in that the method further comprises the following steps: - reconstituting a three-dimensional model of said reference portion of the part using the or each first acquired image; - calculating the position of the area to be inspected relative to the optical sensor using the three-dimensional model. - placing an optical sensor in front of the part to be inspected using a carrier; - acquiring at least a first image of at least a reference portion of the part using the optical sensor, the or each first image being taken with a first magnification; - acquiring at least a second image of an area to be inspected using the optical sensor, the or each second image of the area to be inspected being taken with a second magnification higher than the first magnification; - reconstituting a three-dimensional model of said reference portion of the part using the or each first acquired image; - calculating the position of the area to be inspected relative to the optical sensor using the three-dimensional model.
A method of monitoring an optical network unit, the method comprising: collecting information indicative of energy consumption of the optical network unit over a period of time, wherein the optical network unit has a plurality of different operating states and the step of collecting information indicative of energy consumption at the optical network unit comprises recording a time spent by the optical network unit in at least one of the operating states. collecting information indicative of energy consumption of the optical network unit over a period of time, wherein the optical network unit has a plurality of different operating states and the step of collecting information indicative of energy consumption at the optical network unit comprises recording a time spent by the optical network unit in at least one of the operating states.
A method of manufacturing a data page for a book-like document, in particular a document of value and/or a security document, which comprises a data carrier and, fastened thereto, a tab made of a textile tape material, - in which said textile tape material used for forming the tab, which is different from the data carrier, is positioned along a longitudinal side of the data carrier in a manner so as to form an overlap region, with an area being formed which protrudes from the data carrier, and - in which the textile tape material and the data carrier are joined together in said overlap region, characterised in that - the data carrier has a base size in which opposing front edges are spaced apart a greater distance than the distance between cutting lines for forming lateral edges (35, 36) of the data carrier in its final format, and in that this data carrier is brought together with the tab, - before the tab is brought together with the data carrier, the tab is cut to a length, forming end faces (37, 38), which is shorter than a distance between the cutting lines for forming the lateral edges (35, 36) of the data carrier in its final format, - at least the end faces (37, 38) of the tab are sealed or a tab having a sealed tape material is provided, and - the tab is positioned with respect to the data carrier, and joined thereto, in such a manner that an overlap region is formed, each end face (37, 38) being oriented so as to be recessed inwardly with respect to the cutting line. - in which said textile tape material used for forming the tab, which is different from the data carrier, is positioned along a longitudinal side of the data carrier in a manner so as to form an overlap region, with an area being formed which protrudes from the data carrier, and - in which the textile tape material and the data carrier are joined together in said overlap region, characterised in that - the data carrier has a base size in which opposing front edges are spaced apart a greater distance than the distance between cutting lines for forming lateral edges (35, 36) of the data carrier in its final format, and in that this data carrier is brought together with the tab, - before the tab is brought together with the data carrier, the tab is cut to a length, forming end faces (37, 38), which is shorter than a distance between the cutting lines for forming the lateral edges (35, 36) of the data carrier in its final format, - at least the end faces (37, 38) of the tab are sealed or a tab having a sealed tape material is provided, and - the tab is positioned with respect to the data carrier, and joined thereto, in such a manner that an overlap region is formed, each end face (37, 38) being oriented so as to be recessed inwardly with respect to the cutting line.
Method for manufacturing a dishwasher, especially a household dishwasher, with at least one component (2, 6, 7, 9), which is provided with at least one bitumen mat (11a-f), especially a prefabricated bitumen mat (11a to 11f), for noise deadening and/or sound insulation of the component (2, 6, 7, 9), wherein the component is a plastic component (2, 6, 7, 9) made of polypropylene and wherein the bitumen mat (11a to 11f) is glued to the plastic component (2, 6, 7, 9) made of polypropylene, characterised in that a usable, flowable and reactively-hardenable bituminous mixture is applied to the plastic component (2, 6, 7, 9) made of polypropylene and/or to the bitumen mat (11a to 11f) such that at least one adhesive bead (23a to 23d) is produced, which is partly surrounded by at least one area (25, GA) to which the reactively-hardenable bituminous mixture has not been applied, and in that, before the reactively-hardenable bituminous mixture hardens, the plastic component (2, 6, 7, 9) made of polypropylene and the bitumen mat (11a to 11f) are pressed together.
A communication control device in communication with multiple nodes (10, 20, 30), being configured to transmit and receive a frame having a data field to which data partitions of specified capacities for the respective multiple nodes (10, 20, 30) are assigned, the communication control device comprising: a frame configuration section configured to reconfigure the frame by changing a ratio of each of the data partitions in the data field based on a communication state of a network including the multiple nodes (10, 20, 30); and a process command section configured to instruct the multiple nodes (10, 20, 30) to execute a configuration process such that the multiple nodes (10, 20, 30) are enabled to transmit and receive the reconfigured frame characterized in that: the frame configuration section reconfigures the frame by using a partial region or the entire region of the data field as a target field, and reallocating the target field for each of the multiple nodes (10, 20, 30) to thereby change the ratio of each of the data partitions. a frame configuration section configured to reconfigure the frame by changing a ratio of each of the data partitions in the data field based on a communication state of a network including the multiple nodes (10, 20, 30); and a process command section configured to instruct the multiple nodes (10, 20, 30) to execute a configuration process such that the multiple nodes (10, 20, 30) are enabled to transmit and receive the reconfigured frame characterized in that: the frame configuration section reconfigures the frame by using a partial region or the entire region of the data field as a target field, and reallocating the target field for each of the multiple nodes (10, 20, 30) to thereby change the ratio of each of the data partitions.
A method of removing a potentially harmful script element from a web service response to protect a user's system, the method comprising the acts of: detecting a user action corresponding to a request to obtain information from a web service by a user agent; sending a command corresponding to the user action from a parent HTML page in the user agent hosted in a first domain to a sandbox service operating in an inline frame of the parent HTML page, the sandbox service hosted in a second domain; making a call from the sandbox service to the web service in a third domain based on the command; receiving a response from the web service containing a script element at the sandbox service; parsing the response by the sandbox service to obtain web service data without script elements; sending the web service data without script elements to the user agent; and rendering the web service data without script elements in the user agent. detecting a user action corresponding to a request to obtain information from a web service by a user agent; sending a command corresponding to the user action from a parent HTML page in the user agent hosted in a first domain to a sandbox service operating in an inline frame of the parent HTML page, the sandbox service hosted in a second domain; making a call from the sandbox service to the web service in a third domain based on the command; receiving a response from the web service containing a script element at the sandbox service; parsing the response by the sandbox service to obtain web service data without script elements; sending the web service data without script elements to the user agent; and rendering the web service data without script elements in the user agent.
A method of encapsulating particles in polymer, comprising: mixing particles of one or more materials with one or more initial radical polymerizable monomers and one or more initial charge-generating components to form a first suspension of monomer-wetted particles (260/265/270), wherein such mixing is performed in combination with shearing; mixing the first suspension with an aqueous dispersant medium to form a second suspension; adding one or more initial reaction initiators to at least one of the first suspension and the second suspension; subjecting the second suspension to homogenization sufficient to form a stable submicron emulsion having an aqueous continuous phase; and reacting available radical polymerizable monomers of the emulsion to encapsulate the particles in one or more layers of polymer (280, 382, 384) and to incorporate ionic species from available charge-generating components. mixing particles of one or more materials with one or more initial radical polymerizable monomers and one or more initial charge-generating components to form a first suspension of monomer-wetted particles (260/265/270), wherein such mixing is performed in combination with shearing; mixing the first suspension with an aqueous dispersant medium to form a second suspension; adding one or more initial reaction initiators to at least one of the first suspension and the second suspension; subjecting the second suspension to homogenization sufficient to form a stable submicron emulsion having an aqueous continuous phase; and reacting available radical polymerizable monomers of the emulsion to encapsulate the particles in one or more layers of polymer (280, 382, 384) and to incorporate ionic species from available charge-generating components.
A device for the sampling and extraction of at least one granular solid in a pack of granular solids, said device comprising a sampling probe, a sample collector connected to said sampling probe, and a control means, said sampling probe comprising a sampling tube which is capable of extracting said granular solid from said pack, said sampling tube being connected to at least one transfer tube which is capable of transferring said extracted granular solid via said sampling tube to the sample collector, said sampling tube and said transfer tube each comprising at least one central conduit and at least two lateral conduits, said central conduit and said lateral conduits (7a, 8a) of said sampling tube being respectively connected to the central conduit and to the lateral conduits (7a, 7b) of said transfer tube, said central conduit of said sampling tube additionally being connected to the lateral conduits (7a, 8a) of said sampling tube; characterized in that said central conduit of said sampling tube comprises a collection chamber comprising a system for retaining said granular solid, and in that said lateral conduits (7a, 7b) of said sampling tube and transfer tube are connected to a source of gaseous fluid which is capable of extracting said granular solid retained in the collection chamber via the lateral conduits (8a, 8b) of said sampling tube and transfer tube, and characterized in that said system for retaining the sampling tube is in the form of a system with two flaps (11a, 11b) disposed either side of the collection chamber.