mhurhangee/ep-ind-claims huggingface dataset:
A powered device for receiving power via a communication link (150 1,..., 150 n), said powered device comprising: - a classification information providing unit that is configured to provide a classification information to said communication link (150 1,..., 150 n) during a classification phase of said powered device; a sensor unit for detecting sensor information, - a sensor information providing unit (310, 410, 510a, 510b) that is configured to provide a sensor information (311, 411) to said classification information providing unit; - wherein said classification information providing unit is configured to provide said classification information based on said sensor information (311, 411) to communicate the detected sensor information via the communication link. - a classification information providing unit that is configured to provide a classification information to said communication link (150 1,..., 150 n) during a classification phase of said powered device; a sensor unit for detecting sensor information, - a sensor information providing unit (310, 410, 510a, 510b) that is configured to provide a sensor information (311, 411) to said classification information providing unit; - wherein said classification information providing unit is configured to provide said classification information based on said sensor information (311, 411) to communicate the detected sensor information via the communication link.
A method for manufacturing a wind turbine blade, comprising the steps of: a) arranging a fibre lay-up on a mandrel tool, the mandrel tool comprising a frame and, as seen in cross-section, at least two mandrel portions (13, 14, 15, 16) connected to the frame, and wherein at least a portion of the fibre lay-up is supported by an outer surface of the at least two mandrel portions (13, 14, 15, 16), b) reducing a cross-section size of the mandrel tool by retracting at least one of the mandrel portions (13, 14, 15, 16) towards the frame, c) arranging (S6, S7) the mandrel tool inside adjacent blade sections (8, 9), d) increasing the cross-section size of the mandrel tool by extending at least one of the mandrel portions (13, 14, 15, 16) away from the frame, and e) infusing at least a portion of the fibre lay-up with a resin and curing the resin to obtain a cured joining portion joining the blade sections (8, 9) inside. a) arranging a fibre lay-up on a mandrel tool, the mandrel tool comprising a frame and, as seen in cross-section, at least two mandrel portions (13, 14, 15, 16) connected to the frame, and wherein at least a portion of the fibre lay-up is supported by an outer surface of the at least two mandrel portions (13, 14, 15, 16), b) reducing a cross-section size of the mandrel tool by retracting at least one of the mandrel portions (13, 14, 15, 16) towards the frame, c) arranging (S6, S7) the mandrel tool inside adjacent blade sections (8, 9), d) increasing the cross-section size of the mandrel tool by extending at least one of the mandrel portions (13, 14, 15, 16) away from the frame, and e) infusing at least a portion of the fibre lay-up with a resin and curing the resin to obtain a cured joining portion joining the blade sections (8, 9) inside.
An apparatus, comprising: a surgical instrument manipulator assembly (240, 440) comprising a housing, a motor pack (446, 1541), an insertion assembly (431, and a preload assembly (480, 780); the motor pack (446, 1541) being movably mounted in the housing; the insertion assembly being coupled to the surgical instrument manipulator assembly (240, 440) and comprising a preload track; and the preload assembly (480, 780) comprising an arm, a cam follower assembly, and a preload reset assembly, the arm comprising a first end rotatably coupled to the cam follower assembly, the arm comprising a second end coupled to the motor pack (446, 1541), the cam follower assembly being configured to ride on the preload track, the preload reset assembly being configured to position the preload assembly (480, 780) at a first location on the preload track, and on a condition that the preload assembly (480, 780) is at the first location, the preload assembly (480, 780) applies a force on the motor pack (446, 1541). a surgical instrument manipulator assembly (240, 440) comprising a housing, a motor pack (446, 1541), an insertion assembly (431, and a preload assembly (480, 780); the motor pack (446, 1541) being movably mounted in the housing; the insertion assembly being coupled to the surgical instrument manipulator assembly (240, 440) and comprising a preload track; and the preload assembly (480, 780) comprising an arm, a cam follower assembly, and a preload reset assembly, the arm comprising a first end rotatably coupled to the cam follower assembly, the arm comprising a second end coupled to the motor pack (446, 1541), the cam follower assembly being configured to ride on the preload track, the preload reset assembly being configured to position the preload assembly (480, 780) at a first location on the preload track, and on a condition that the preload assembly (480, 780) is at the first location, the preload assembly (480, 780) applies a force on the motor pack (446, 1541). the arm comprising a first end rotatably coupled to the cam follower assembly, the arm comprising a second end coupled to the motor pack (446, 1541), the cam follower assembly being configured to ride on the preload track, the preload reset assembly being configured to position the preload assembly (480, 780) at a first location on the preload track, and on a condition that the preload assembly (480, 780) is at the first location, the preload assembly (480, 780) applies a force on the motor pack (446, 1541).
A method for accessing triple play services provided through a server over a network to a portable device, the method comprising: determining a location for the portable device; characterized in that the method further comprises: receiving a signal from a user defining respective preference levels for the triple play services; determining which of the triple play services are available at the location; composing a list of available services at the location, the available services in the list being ordered in accordance with the respective preference levels; and, displaying the list on a display screen of the portable device, whereby the user may access the available services by selecting from the list. determining a location for the portable device; characterized in that the method further comprises: receiving a signal from a user defining respective preference levels for the triple play services; determining which of the triple play services are available at the location; composing a list of available services at the location, the available services in the list being ordered in accordance with the respective preference levels; and, displaying the list on a display screen of the portable device, whereby the user may access the available services by selecting from the list. receiving a signal from a user defining respective preference levels for the triple play services; determining which of the triple play services are available at the location; composing a list of available services at the location, the available services in the list being ordered in accordance with the respective preference levels; and, displaying the list on a display screen of the portable device, whereby the user may access the available services by selecting from the list.
An air treatment apparatus (102,202) comprising: a heat exchanger configured to exchange heat between a fluid flowing through a first flow path and air flowing through a second flow path; and a first collection member that is disposed upstream of the heat exchanger in a flow of the air flowing through the second flow path and is configured to collect a substance contained in the air flowing to the heat exchanger, a third flow path for supplying water at a predetermined temperature to the first collection member wherein the first collection member has a surface over which water flows or a surface on which water is retained,wherein the air treatment apparatus is configured to promote an inactivation of a substance collected by the first collection member and to adjust a temperature of the air that passes through the first collection member to a target space whose temperature is to be at least adjusted, by supplying water at the predetermined temperature to the first collection member. a heat exchanger configured to exchange heat between a fluid flowing through a first flow path and air flowing through a second flow path; and a first collection member that is disposed upstream of the heat exchanger in a flow of the air flowing through the second flow path and is configured to collect a substance contained in the air flowing to the heat exchanger, a third flow path for supplying water at a predetermined temperature to the first collection member wherein the first collection member has a surface over which water flows or a surface on which water is retained,wherein the air treatment apparatus is configured to promote an inactivation of a substance collected by the first collection member and to adjust a temperature of the air that passes through the first collection member to a target space whose temperature is to be at least adjusted, by supplying water at the predetermined temperature to the first collection member.
An aqueous finishing composition, in particular for paintable cloth, characterized in that it comprises: - at least one polyglycerol, - at least one organic polycarboxylic acid containing at least three carboxyl groups, - at least one esterification catalyst, - at least one plasticizer, and - at least one thickener chosen from cellulose derivatives, succinoglycans and xanthans. - at least one polyglycerol, - at least one organic polycarboxylic acid containing at least three carboxyl groups, - at least one esterification catalyst, - at least one plasticizer, and - at least one thickener chosen from cellulose derivatives, succinoglycans and xanthans.
A method for changing a material from a feed material to a subsequent material in an extrusion device having a control unit for the production of extrusion products, wherein the control unit is designed to carry out the following method steps: - Detection of a material change request, - carrying out at least one preparation step for changing the material, - carrying out the material change after completion of the at least one preparation step, wherein the detection of a material change request takes place by means of a monitoring of a formula quantity and a pre-calculation of an extrusion quantity still to be carried out, wherein a cleaning of the extrusion device or of parts of the extrusion device of the feed material is carried out as a preparation step, characterized in that one of the following is carried out as the cleaning step: - Activation of at least one knocking unit for loosening residues of the feed material, - activation of a blow-out system, - reversing the direction of rotation of a metering screw, - generating an air vortex, or - generating a pressure wave or a negative pressure wave, wherein after the preparation step a securing step is carried out, which has the following step: - querying the installation of all necessary containers. - Detection of a material change request, - carrying out at least one preparation step for changing the material, - carrying out the material change after completion of the at least one preparation step, - Activation of at least one knocking unit for loosening residues of the feed material, - activation of a blow-out system, - reversing the direction of rotation of a metering screw, - generating an air vortex, or - generating a pressure wave or a negative pressure wave, - querying the installation of all necessary containers.
An aqueous printing ink composition comprising pigment, starch having a number average molecular weight of at least 100,000, and water soluble acrylic polymer.
An encoder for encoding input data to generate corresponding encoded data, wherein the encoder is configured to: (a) analyse the input data to identify at least one mode symbol therein; (b) generate data values of at least a first type and a second type from the input data, wherein the generated data values of the first type include distinct non-mode symbols as occurring in the input data, and the generated data values of the second type include runs of the at least one mode symbol, wherein the at least one mode symbol is a symbol that occurs most often in the input data and the distinct non-mode symbols are symbols other than the at least one mode symbol, wherein the runs of the at least one mode symbol are indicative of frequency of occurrences of the at least one mode symbol before or after the distinct non-mode symbols within the input data; and (c) generate information that is indicative of a count of the distinct non-mode symbols in the input data and information that is indicative of the at least one mode symbol; (d) assemble the information that is indicative of the at least one mode symbol, the information that is indicative of the count of the distinct non-mode symbols, the data values of the first type including the non-mode symbols and the data values of the second type including the runs of the at least one mode symbol, to generate the encoded data; and (e) to recursively process a given data stream including the distinct non-mode symbols pursuant to (a) to (d), wherein at least one of the data values in the given stream including non-mode symbols distinctly stands out as a mode symbol. (a) analyse the input data to identify at least one mode symbol therein; (b) generate data values of at least a first type and a second type from the input data, wherein the generated data values of the first type include distinct non-mode symbols as occurring in the input data, and the generated data values of the second type include runs of the at least one mode symbol, wherein the at least one mode symbol is a symbol that occurs most often in the input data and the distinct non-mode symbols are symbols other than the at least one mode symbol, wherein the runs of the at least one mode symbol are indicative of frequency of occurrences of the at least one mode symbol before or after the distinct non-mode symbols within the input data; and (c) generate information that is indicative of a count of the distinct non-mode symbols in the input data and information that is indicative of the at least one mode symbol; (d) assemble the information that is indicative of the at least one mode symbol, the information that is indicative of the count of the distinct non-mode symbols, the data values of the first type including the non-mode symbols and the data values of the second type including the runs of the at least one mode symbol, to generate the encoded data; and (e) to recursively process a given data stream including the distinct non-mode symbols pursuant to (a) to (d), wherein at least one of the data values in the given stream including non-mode symbols distinctly stands out as a mode symbol.
A round indexable cutting insert, having insert central axis, the cutting insert comprising: opposing insert upper and lower surfaces (30, 32) and an insert peripheral surface extending therebetween, the insert peripheral surface extending about the insert central axis; and upper and lower cutting edges (40, 42) formed at the intersection of the insert peripheral surface and the insert upper and lower surfaces (30, 32), respectively, wherein: the insert peripheral surface comprises a plurality of angularly spaced apart indexing latches protruding therefrom and a plurality of insert side abutment surfaces that circumferentially alternate with the plurality of indexing latches; and the plurality of insert side abutment surfaces lie on an external cylindrical surface of an imaginary insert cylinder that is co-axial with the cutting insert; characterized in that: the plurality of indexing latches extends beyond the upper and lower cutting edge (40, 42) in the radially outward direction. opposing insert upper and lower surfaces (30, 32) and an insert peripheral surface extending therebetween, the insert peripheral surface extending about the insert central axis; and upper and lower cutting edges (40, 42) formed at the intersection of the insert peripheral surface and the insert upper and lower surfaces (30, 32), respectively, wherein: the insert peripheral surface comprises a plurality of angularly spaced apart indexing latches protruding therefrom and a plurality of insert side abutment surfaces that circumferentially alternate with the plurality of indexing latches; and the plurality of insert side abutment surfaces lie on an external cylindrical surface of an imaginary insert cylinder that is co-axial with the cutting insert; the insert peripheral surface comprises a plurality of angularly spaced apart indexing latches protruding therefrom and a plurality of insert side abutment surfaces that circumferentially alternate with the plurality of indexing latches; and the plurality of insert side abutment surfaces lie on an external cylindrical surface of an imaginary insert cylinder that is co-axial with the cutting insert; characterized in that: the plurality of indexing latches extends beyond the upper and lower cutting edge (40, 42) in the radially outward direction.
A speaker unit adapted to be mounted to an opening section formed in a mounting part, comprising: a cabinet section adapted to be accommodated in the opening section; a speaker face provided on a bottom surface of said cabinet section; an engaged member mounted to said cabinet section for engagement with a fall-preventing engaging member (67, 68) extending from within the opening section; and a flexible handle member mounted to said cabinet section, wherein said engaged member and said handle member are fixed within an area of said cabinet section that is located upward of a first imaginary plane passing through a position of a center of gravity of said cabinet section generally in parallel to the bottom surface of said cabinet section and that is located to one side of a second imaginary plane passing through the position of the center of gravity of said cabinet section in intersecting relation to the first imaginary plane. a cabinet section adapted to be accommodated in the opening section; a speaker face provided on a bottom surface of said cabinet section; an engaged member mounted to said cabinet section for engagement with a fall-preventing engaging member (67, 68) extending from within the opening section; and a flexible handle member mounted to said cabinet section, wherein said engaged member and said handle member are fixed within an area of said cabinet section that is located upward of a first imaginary plane passing through a position of a center of gravity of said cabinet section generally in parallel to the bottom surface of said cabinet section and that is located to one side of a second imaginary plane passing through the position of the center of gravity of said cabinet section in intersecting relation to the first imaginary plane.
A process for obtaining a material comprising a substrate and at least one thin layer based on titanium oxide and deposited on a first face of said substrate, said process comprising the following steps: - said at least one thin layer based on titanium oxide is deposited, the layer based on titanium oxide is a layer made of titanium oxide optionally doped with a metal ion, - a carbon-based inorganic temporary protective layer is deposited on top of said thin layer based on titanium oxide, the temporary protective layer is deposited in direct contact with the layer based on titanium oxide, - the material is subjected to a heat treatment at a temperature above 350°C. - said at least one thin layer based on titanium oxide is deposited, the layer based on titanium oxide is a layer made of titanium oxide optionally doped with a metal ion, - a carbon-based inorganic temporary protective layer is deposited on top of said thin layer based on titanium oxide, the temporary protective layer is deposited in direct contact with the layer based on titanium oxide, - the material is subjected to a heat treatment at a temperature above 350°C.
A method for the defined deposition of a glass layer on an inner wall of a preform for an optical fiber and/or for setting a refractive index profile of a preform for a multi-mode fiber, wherein a deposition gas spreads at a flow speed v in a cavity of the preform formed by the inner wall, wherein a flow speed change Δ ⁢ v = 4 ⁢ Q π ⋅ 1 d i 2 − 1 d i + 1 2 with a volume flow Q, the first diameter d i and the second diameter d i+1 is formed due to the deposition, wherein the first diameter d i is an inner diameter before a glass layer is deposited and the second diameter d i+1 is an inner diameter after the deposition of the glass layer, free from any influence on the flow speed v, characterized in that the deposition is carried out at a reduced flow speed change a*Δv, where a < 0.95.
A method for fabricating a microstructure to generate surface plasmon waves, characterized by comprising the steps of Step S1: preparing a substrate; and Step S21: spreading a carrier material which is a volatile liquid and a plurality of metallic nanoparticles which are uniformly distributed in the carrier material carried by the carrier material on the substrate via a spin-coating method, a spraying method, a drip-coating method, or a soaking method; Step S22: letting the metallic nanoparticles move mutually in the carrier material to form a plurality of two dimensional hexagonal close packed (2D HCP) structures via self-assembly; and Step S23: undertaking a drying process to gradually volatilize the carrier material to make the 2D HCP structures be stacked on another to form a metallic particle stacking layer serving as a discontinuous surface of the microstructure; and Step S3: forming a first dielectric layer on one side of the metallic particle stacking layer far away from the substrate, and letting some of the metallic nanoparticles of the metallic particle stacking layer enter the first dielectric layer by absorption or diffusion to form a first particle suspension layer. Step S1: preparing a substrate; and Step S21: spreading a carrier material which is a volatile liquid and a plurality of metallic nanoparticles which are uniformly distributed in the carrier material carried by the carrier material on the substrate via a spin-coating method, a spraying method, a drip-coating method, or a soaking method; Step S22: letting the metallic nanoparticles move mutually in the carrier material to form a plurality of two dimensional hexagonal close packed (2D HCP) structures via self-assembly; and Step S23: undertaking a drying process to gradually volatilize the carrier material to make the 2D HCP structures be stacked on another to form a metallic particle stacking layer serving as a discontinuous surface of the microstructure; and Step S3: forming a first dielectric layer on one side of the metallic particle stacking layer far away from the substrate, and letting some of the metallic nanoparticles of the metallic particle stacking layer enter the first dielectric layer by absorption or diffusion to form a first particle suspension layer.