mhurhangee/ep-ind-claims huggingface dataset:
A release sheet-equipped insulating heat dissipation sheet comprising: an insulating heat dissipation sheet comprising an inorganic filler and a thermosetting resin; and a release sheet layered on the insulating heat dissipation sheet, the insulating heat dissipation sheet comprising one adhesive surface configured to be adhered to a first adherend and another adhesive surface configured to be adhered to a second adherend, the release sheet comprising a transfer sheet having a front surface in contact with the one adhesive surface, a positioning sheet adhered to a back surface of the transfer sheet, and an adhesive used for adhesion between the transfer sheet and the positioning sheet, the insulating heat dissipation sheet and the transfer sheet respectively having outer edges matching in shape with each other, the transfer sheet having a surface roughness transferred to the insulating heat dissipation sheet, the positioning sheet having an area larger than either of the insulating heat dissipation sheet and the transfer sheet, and being configured for use in positioning the insulating heat dissipation sheet relative to the second adherend when the insulating heat dissipation sheet is adhered to the second adherend. an insulating heat dissipation sheet comprising an inorganic filler and a thermosetting resin; and a release sheet layered on the insulating heat dissipation sheet, the insulating heat dissipation sheet comprising one adhesive surface configured to be adhered to a first adherend and another adhesive surface configured to be adhered to a second adherend, the release sheet comprising a transfer sheet having a front surface in contact with the one adhesive surface, a positioning sheet adhered to a back surface of the transfer sheet, and an adhesive used for adhesion between the transfer sheet and the positioning sheet, the insulating heat dissipation sheet and the transfer sheet respectively having outer edges matching in shape with each other, the transfer sheet having a surface roughness transferred to the insulating heat dissipation sheet, the positioning sheet having an area larger than either of the insulating heat dissipation sheet and the transfer sheet, and being configured for use in positioning the insulating heat dissipation sheet relative to the second adherend when the insulating heat dissipation sheet is adhered to the second adherend.
A wave power generating system with a support structure for installation on a sea bed, the wave power generating system being configured to produce electric power by converting a wave motion of a body of water of the sea to electric energy and comprising: a floating body adapted to float on the body of water, a transmission shaft (2, 2a, 2b), wherein a first end of the transmission shaft is coupled to the floating body, a second end of the transmission shaft is in communication with a motion translation device comprising an electric generator for producing electric current when the transmission shaft is moved up and down by the wave motion of the body of water acting upon the floating body, wherein the transmission shaft is constrained by the support structure to move linearly up and down above the floating body, and characterised in that the transmission shaft is coupled to the floating body below the central point of displacement of the floating body by use of a hinge. a floating body adapted to float on the body of water, a transmission shaft (2, 2a, 2b), wherein a first end of the transmission shaft is coupled to the floating body, a second end of the transmission shaft is in communication with a motion translation device comprising an electric generator for producing electric current when the transmission shaft is moved up and down by the wave motion of the body of water acting upon the floating body,
A flow assay device for detecting a presence of an analyte in a sample, the flow assay device comprising: at least one hydrophilic porous layer having a proximal end through which the sample can be introduced, a distal end spaced from the proximal end, a first side spaced from a second side, and a gap located between the proximal end and the distal end and located between the first side and the second side; at least one first hydrophobic layer disposed adjacent to the first side of the at least one hydrophilic porous layer to partially define the gap; at least one second hydrophobic layer disposed adjacent to the second side of the at least one hydrophilic porous layer to partially define the gap; a first electrode electrically coupled to the at least one first hydrophobic layer and separated from the at least one hydrophilic porous layer by the at least one first hydrophobic layer; a second electrode electrically coupled to the at least one second hydrophobic layer and separated from the at least one hydrophilic porous layer by the at least one second hydrophobic layer; and a power source electrically coupled to the first and second electrodes, the power source configured to generate a voltage between the first electrode and the second electrode to enable at least the analyte to flow across the gap of the at least one hydrophilic porous layer. at least one hydrophilic porous layer having a proximal end through which the sample can be introduced, a distal end spaced from the proximal end, a first side spaced from a second side, and a gap located between the proximal end and the distal end and located between the first side and the second side; at least one first hydrophobic layer disposed adjacent to the first side of the at least one hydrophilic porous layer to partially define the gap; at least one second hydrophobic layer disposed adjacent to the second side of the at least one hydrophilic porous layer to partially define the gap; a first electrode electrically coupled to the at least one first hydrophobic layer and separated from the at least one hydrophilic porous layer by the at least one first hydrophobic layer; a second electrode electrically coupled to the at least one second hydrophobic layer and separated from the at least one hydrophilic porous layer by the at least one second hydrophobic layer; and a power source electrically coupled to the first and second electrodes, the power source configured to generate a voltage between the first electrode and the second electrode to enable at least the analyte to flow across the gap of the at least one hydrophilic porous layer.
A locking pin (6, 106, 206, 306) for a closure of a drive rod fitting of a window, a French window or the like, having a base part (11, 111, 211, 311) provided for fastening in a drive rod of the drive rod fitting, having a head part (12, 112, 212, 312) provided for engagement in a striking plate of the closure and having a fixing element (21, 121, 221, 321) arranged between the head part (12, 112, 212, 312) and the base part (11, 111, 211, 311), characterized in that the fixing element (21, 121, 221, 321) is held in an axially arranged guide (22, 222, 322) between head part (12, 112, 212, 312) and base part (11, 111, 211, 311) and is designed for the non-positive holding of the axial position of the head part (12, 112, 212, 312) relative to the base part (11, 111, 211, 311).
An undercarriage for a working machine, the undercarriage comprising: a chassis comprising a first axle mount; and a first axle assembly mounted to the first axle mount, the first axle assembly comprising a first axle having first and second ends (22, 24) for pivotably mounting first and second wheels thereon, wherein the first axle mount comprises first and second arms (34, 36) extending from the chassis to define a channel therebetween for receiving the first axle therein, and wherein the undercarriage comprises a linkage member configured to restrict movement of the first and second arms (34, 36); and characterised in that: the first arm is provided at or near a first end of the chassis and comprises an auxiliary mounting arrangement for mounting a dozer blade or stabiliser arms to the chassis. a first axle assembly mounted to the first axle mount, the first axle assembly comprising a first axle having first and second ends (22, 24) for pivotably mounting first and second wheels thereon, wherein the first axle mount comprises first and second arms (34, 36) extending from the chassis to define a channel therebetween for receiving the first axle therein, and wherein the undercarriage comprises a linkage member configured to restrict movement of the first and second arms (34, 36); and characterised in that: the first arm is provided at or near a first end of the chassis and comprises an auxiliary mounting arrangement for mounting a dozer blade or stabiliser arms to the chassis.
A power data transmission method, the method is characterized by comprising: upon initial transmission of data, a data transmission terminal acquiring the type and construction information of the data, and encoding the type and construction information and the data for transmission to a data reception terminal, and the data reception terminal decoding the received type and construction information and the data; and upon subsequent transmission of data, the data transmission terminal encoding only the data for transmission to the data reception terminal, and the data reception terminal decoding the received data according to the type and construction information received through the initial transmission. upon initial transmission of data, a data transmission terminal acquiring the type and construction information of the data, and encoding the type and construction information and the data for transmission to a data reception terminal, and the data reception terminal decoding the received type and construction information and the data; and upon subsequent transmission of data, the data transmission terminal encoding only the data for transmission to the data reception terminal, and the data reception terminal decoding the received data according to the type and construction information received through the initial transmission.
A silicone-free hair conditioning composition comprising: a polymer or oligomer comprising: at least one hydrophilic block comprising an alkoxylated diol or amine-terminated derivative thereof; and at least one hydrophobic block comprising a condensation reaction product of (i) a dicarboxylic acid or dicarboxylic acid equivalent selected from the group consisting of an anhydride, an acid chloride, or a methyl ester of a dicarboxylic acid, and (ii) a diamine, amino alcohol, diol, or combination thereof, wherein the hydrophilic block and the hydrophobic block are bonded together through an amide or ester linkage and the polymer or oligomer comprises at least one amide moiety. at least one hydrophilic block comprising an alkoxylated diol or amine-terminated derivative thereof; and at least one hydrophobic block comprising a condensation reaction product of (i) a dicarboxylic acid or dicarboxylic acid equivalent selected from the group consisting of an anhydride, an acid chloride, or a methyl ester of a dicarboxylic acid, and (ii) a diamine, amino alcohol, diol, or combination thereof,
A method for breaking an integrally molded connecting rod into a rod portion and a cap portion in a large end in which a large end hole is formed, wherein, on each side of the large end a bolt hole is formed, into which a bolt for fastening the rod portion and the cap portion, which are to be divided by breaking, is to be inserted, the method comprising: forming a notch in an inner circumference of each bolt hole such that the notch extends continuously along the inner circumference, the method being characterized by: inserting a split mold (11, 30) into each bolt hole; and applying a load to the split mold to press the notch in a radial direction thereby breaking the connecting rod into the rod portion and the cap portion by radially propagating progress of breakage from the notch as a starting point. forming a notch in an inner circumference of each bolt hole such that the notch extends continuously along the inner circumference, the method being characterized by: inserting a split mold (11, 30) into each bolt hole; and applying a load to the split mold to press the notch in a radial direction thereby breaking the connecting rod into the rod portion and the cap portion by radially propagating progress of breakage from the notch as a starting point. inserting a split mold (11, 30) into each bolt hole; and applying a load to the split mold to press the notch in a radial direction thereby breaking the connecting rod into the rod portion and the cap portion by radially propagating progress of breakage from the notch as a starting point.
A single use package with a contact lens therein, wherein the package has an internal depth that is less than an overall sagittal depth of the contact lens in its equilibrated form, wherein the package comprises: a) two sheets of material sealed together; and characterised by b) at least one corner that is not sealed so as to serve as an easy-open corner; wherein the contact lens therein is held in an at least partially flattened state while the package is sealed and returns to its natural state when the package is opened. a) two sheets of material sealed together; and characterised by b) at least one corner that is not sealed so as to serve as an easy-open corner;
A chuck device comprising: a chuck body having a tapered hole at a front end thereof; a collet capable of being reduced in diameter and inserted into the tapered hole for holding a tool; a nut capable of being screwed to the chuck body to fasten the collet, and a non-alignment prevention member provided between the nut and the chuck body for suppressing relative movement by bringing the nut into radial contact with the chuck body even in time of rotation, wherein the non-alignment prevention member includes a first nut rear end side tapered surface formed in an inner circumferential surface or an outer circumferential surface of the nut at a farther rear end side than a screw portion (21; 40), and a chuck body side tapered surface formed in the chuck body for coming into contact with the first nut rear end side tapered surface when the nut is screwed up, characterised in that a fitting portion (23; 42) provided between the nut and the chuck body to allow the nut to relatively rotatably fit to the chuck body at a farther front end side than the screw portion (21; 40). a chuck body having a tapered hole at a front end thereof; a collet capable of being reduced in diameter and inserted into the tapered hole for holding a tool; a nut capable of being screwed to the chuck body to fasten the collet, and a non-alignment prevention member provided between the nut and the chuck body for suppressing relative movement by bringing the nut into radial contact with the chuck body even in time of rotation, wherein the non-alignment prevention member includes a first nut rear end side tapered surface formed in an inner circumferential surface or an outer circumferential surface of the nut at a farther rear end side than a screw portion (21; 40), and a chuck body side tapered surface formed in the chuck body for coming into contact with the first nut rear end side tapered surface when the nut is screwed up, characterised in that a fitting portion (23; 42) provided between the nut and the chuck body to allow the nut to relatively rotatably fit to the chuck body at a farther front end side than the screw portion (21; 40).
A method of receiving a paging message at a user equipment in a wireless communication system, the user equipment being capable of receiving a paging message through a secondary common control channel, S-CCPCH, while the user equipment is in an idle state, the method comprising: transmitting a radio resource control, RRC, connection request message to a network to establish a RRC connection with the network, the RRC connection request message including capability indication information which indicates that the user equipment supports an ability to receive a paging message on a high speed downlink physical shared channel, HS-PDSCH, in CELL_PCH and URA_PCH states, wherein a high speed downlink channel, HS-DSCH, is mapped to the HS-PDSCH; receiving a RRC connection setup message from the network; receiving paging indication information from the network through a paging indication channel, PICH; receiving control information through a high speed shared control channel, HS-SCCH, from the network, the control information including a HS-DSCH radio network identifier, H-RNTI, of the user equipment; and receiving the paging message transmitted from the network using the received control information through the HS-PDSCH. transmitting a radio resource control, RRC, connection request message to a network to establish a RRC connection with the network, the RRC connection request message including capability indication information which indicates that the user equipment supports an ability to receive a paging message on a high speed downlink physical shared channel, HS-PDSCH, in CELL_PCH and URA_PCH states, wherein a high speed downlink channel, HS-DSCH, is mapped to the HS-PDSCH; receiving a RRC connection setup message from the network; receiving paging indication information from the network through a paging indication channel, PICH; receiving control information through a high speed shared control channel, HS-SCCH, from the network, the control information including a HS-DSCH radio network identifier, H-RNTI, of the user equipment; and receiving the paging message transmitted from the network using the received control information through the HS-PDSCH.
A floating unit for energy production, comprising: - at least one hull, defining at least one hold closed on the upper part thereof by a main deck; characterised in that the floating unit comprises - at least one engine generator set for producing electric energy through fuel burning, - energy supply devices associated with the engine generator set and connectable to a distribution line on land of the electric energy produced on board of the floating unit; - means for feeding fuel to the engine generator set; and wherein said engine generator set is housed in the hold at a position underneath the main deck and connected to the external environment by at least one air-feeding duct, and preferably an exhaust duct emerging from the main deck. - at least one hull, defining at least one hold closed on the upper part thereof by a main deck; characterised in that the floating unit comprises - at least one engine generator set for producing electric energy through fuel burning, - energy supply devices associated with the engine generator set and connectable to a distribution line on land of the electric energy produced on board of the floating unit; - means for feeding fuel to the engine generator set; and
A method performed by a radar system, wherein the radar system is embedded within a smart device, the method comprising: transmitting a radar transmit signal using an antenna array of the radar system; receiving a radar receive signal using the antenna array, the radar receive signal including an interference artifact and a version of the radar transmit signal that is reflected by at least one object, wherein the smart device includes a first component positioned within an interior of the smart device, and wherein the interference artifact represents at least vibration of the at least one first component; generating a range-Doppler map based on the radar receive signal, the interference artifact contributing to amplitudes of both positive and negative Doppler bins of the range-Doppler map for at least one range bin; filtering the interference artifact within the range-Doppler map to attenuate the interference artifact and generate a filtered range-Doppler map, wherein the filtering of the interference artifact within the range-Doppler map comprises: producing a scaled range-Doppler map by: scaling amplitudes of the positive Doppler bins by amplitudes of corresponding negative Doppler bins for each range bin of the range-Doppler map, and scaling amplitudes of the negative Doppler bins by the amplitudes of the corresponding positive Doppler bins for each range bin of the range-Doppler map; and analyzing the filtered range-Doppler map to detect the at least one object. transmitting a radar transmit signal using an antenna array of the radar system; receiving a radar receive signal using the antenna array, the radar receive signal including an interference artifact and a version of the radar transmit signal that is reflected by at least one object, wherein the smart device includes a first component positioned within an interior of the smart device, and wherein the interference artifact represents at least vibration of the at least one first component; generating a range-Doppler map based on the radar receive signal, the interference artifact contributing to amplitudes of both positive and negative Doppler bins of the range-Doppler map for at least one range bin; filtering the interference artifact within the range-Doppler map to attenuate the interference artifact and generate a filtered range-Doppler map, wherein the filtering of the interference artifact within the range-Doppler map comprises: producing a scaled range-Doppler map by: scaling amplitudes of the positive Doppler bins by amplitudes of corresponding negative Doppler bins for each range bin of the range-Doppler map, and scaling amplitudes of the negative Doppler bins by the amplitudes of the corresponding positive Doppler bins for each range bin of the range-Doppler map; and scaling amplitudes of the positive Doppler bins by amplitudes of corresponding negative Doppler bins for each range bin of the range-Doppler map, and scaling amplitudes of the negative Doppler bins by the amplitudes of the corresponding positive Doppler bins for each range bin of the range-Doppler map; and analyzing the filtered range-Doppler map to detect the at least one object.
An in vitro assay method for determining the binding and functionality of an antibody or a ligand specifically binding to a target antigen comprising the following steps i) providing cells which a) express the target antigen on their surface, b) are covalently or noncovalently labelled with an energy donor compound and c) comprise a reporter gene under the control of a response element of the target antigen ii) adding the antibody or ligand to be tested iii) measuring the binding to the target antigen by determining the energy transfer, wherein the energy acceptor compound is covalently or noncovalently conjugated either to the antibody or ligand to be tested or to a secondary antibody binding to the first antibody or ligand; and iv) determining functionality of the antibody or ligand by correlating the level of the expression of the reporter gene with the level of target antigen activation or inhibition; wherein the binding to the target antigen and the functionality of the antibody or ligand are measured in the same vial, and wherein the functionality is a biological activity of the antibody or ligand. i) providing cells which a) express the target antigen on their surface, b) are covalently or noncovalently labelled with an energy donor compound and c) comprise a reporter gene under the control of a response element of the target antigen a) express the target antigen on their surface, b) are covalently or noncovalently labelled with an energy donor compound and c) comprise a reporter gene under the control of a response element of the target antigen ii) adding the antibody or ligand to be tested iii) measuring the binding to the target antigen by determining the energy transfer, wherein the energy acceptor compound is covalently or noncovalently conjugated either to the antibody or ligand to be tested or to a secondary antibody binding to the first antibody or ligand; and iv) determining functionality of the antibody or ligand by correlating the level of the expression of the reporter gene with the level of target antigen activation or inhibition;