mhurhangee/patent-ind-claim-en huggingface dataset:
An absorbent core for an absorbent article, said core comprising a substrate layer, said substrate layer comprising a first surface and a second surface, said absorbent core further comprising a layer of absorbent polymer material, said layer of absorbent polymer material comprising a first surface and a second surface, said absorbent core further comprising a layer of adhesive, said layer of adhesive comprising a first surface and a second surface, wherein said layer of absorbent polymer material is comprised between said layer of adhesive and said substrate layer; said second surface of said layer of absorbent polymer material is in contact with said first surface of said substrate layer; and said first surface of said layer of absorbent polymer material is in contact with said second surface of said layer of adhesive, characterized in that said layer of absorbent polymer material comprises porous absorbent polymer particles having a bulk density (measured according to the method "Apparent density" in the Test Methods section of the description) of from 0.01 g/cm 3 to 0.4 g/cm 3 .
A method for facilitating the transition of a wireless communication device, WCD, from a CELL_FACH state to a CELL_DCH state, the method comprising: determining that the WCD should transition from the CELL_FACH to the CELL_DCH cell state; and in response to determining that the WCD should transition from the CELL_FACH to the CELL_DCH cell state: i) sending to the WCD a first configuration message for moving the WCD from the CELL_FACH state to the CELL_DCH state, ii) sending to the WCD a second configuration message for forcing the WCD to obtain a common E-DCH resource, wherein the second configuration message is a message for requesting the WCD to move a reception window, wherein the second configuration message comprises a Move Receiving Window, MRW, super-field, SUFI, wherein the second configuration message contains outdated information about the reception window, and iii) triggering a transmission of an acknowledgement, ACK, acknowledging a reception of the second configuration message without impacting any protocol variables, and which transmission allowing the WCD to acquire a common E-DCH resource without impacting any ongoing radio link control, RLC, procedures. determining that the WCD should transition from the CELL_FACH to the CELL_DCH cell state; and in response to determining that the WCD should transition from the CELL_FACH to the CELL_DCH cell state: i) sending to the WCD a first configuration message for moving the WCD from the CELL_FACH state to the CELL_DCH state, ii) sending to the WCD a second configuration message for forcing the WCD to obtain a common E-DCH resource, wherein the second configuration message is a message for requesting the WCD to move a reception window, wherein the second configuration message comprises a Move Receiving Window, MRW, super-field, SUFI, wherein the second configuration message contains outdated information about the reception window, and iii) triggering a transmission of an acknowledgement, ACK, acknowledging a reception of the second configuration message without impacting any protocol variables, and which transmission allowing the WCD to acquire a common E-DCH resource without impacting any ongoing radio link control, RLC, procedures. i) sending to the WCD a first configuration message for moving the WCD from the CELL_FACH state to the CELL_DCH state, ii) sending to the WCD a second configuration message for forcing the WCD to obtain a common E-DCH resource, wherein the second configuration message is a message for requesting the WCD to move a reception window, wherein the second configuration message comprises a Move Receiving Window, MRW, super-field, SUFI, wherein the second configuration message contains outdated information about the reception window, and iii) triggering a transmission of an acknowledgement, ACK, acknowledging a reception of the second configuration message without impacting any protocol variables, and which transmission allowing the WCD to acquire a common E-DCH resource without impacting any ongoing radio link control, RLC, procedures.
A platinum alloy catalyst PtX for use in a fuel cell wherein X is ruthenium, wherein the atomic percent of platinum in the bulk alloy when measured by wet chemical analysis digestion of the sample followed by inductively coupled plasma (ICP) emission spectroscopy is from 5 to 35 at%, the remainder being X, characterised in that the atomic percent of platinum at the surface of the alloy when measured by high sensitivity low energy ion scattering (HS-LEIS) is from 20 to 60 at%, the remainder being X, provided that the at% of platinum at the surface of the alloy is at least 25% greater than the at% of platinum in the bulk alloy, wherein the PtX alloy is dispersed on a conductive carbon support, and wherein the amount of the PtX alloy is 5-90wt% based on the total weight of the supported catalyst.
An aerosol generating substrate comprising an aerosol generating material comprising an aerosol-generating amorphous solid comprising an active ingredient, wherein when a sheet of the aerosol-generating amorphous solid having an area of 43.1 mm 2 and area density of 90 g/m 2 is heated to 230 °C for a period of 3 seconds under a 1.1 L/min airflow, at least 50wt% of the active ingredient is aerosolised; and wherein the aerosol generating substrate additionally comprises a carrier on which the amorphous solid is provided.
A thermoelectric device comprising: a first metal support ; a first resin layer disposed on the first metal support; a plurality of first electrodes disposed on the first resin layer; at least one dummy electrode disposed on the first resin layer; thermoelectric legs disposed on the plurality of first electrodes; a plurality of second electrodes disposed on the thermoelectric legs; a second resin layer disposed on the plurality of second electrodes; and a second metal support disposed on the second resin layer, wherein the at least one dummy electrode is disposed on at least one side of an outermost row and an outermost column of the plurality of first electrodes, and wherein the thermoelectric legs are not disposed on the at least one dummy electrode.. a first metal support ; a first resin layer disposed on the first metal support; a plurality of first electrodes disposed on the first resin layer; at least one dummy electrode disposed on the first resin layer; thermoelectric legs disposed on the plurality of first electrodes; a plurality of second electrodes disposed on the thermoelectric legs; a second resin layer disposed on the plurality of second electrodes; and a second metal support disposed on the second resin layer, wherein the at least one dummy electrode is disposed on at least one side of an outermost row and an outermost column of the plurality of first electrodes, and wherein the thermoelectric legs are not disposed on the at least one dummy electrode..
A guard-locking device, with - an actuating part with two receivers which oppose one another, - and a guard-locking part with two bolt elements which are displaceable in each case along a common axis of movement (A) at least between an inner retracted position in which the bolt elements are located outside the receivers and an outer closed position in which the bolt elements are received in at least one of the receivers , - wherein at least one spring element is provided in order to act on the bolt elements in the direction of the closed position, - and wherein at least one locking element is movable at least between a released position in which the bolt elements are movable between the closed position and the retracted position, and a locked position in which the bolt elements are locked in the closed position, wherein - the locking element is a threaded element which is movable by rotation between the released position and the locked position. - an actuating part with two receivers which oppose one another, - and a guard-locking part with two bolt elements which are displaceable in each case along a common axis of movement (A) at least between an inner retracted position in which the bolt elements are located outside the receivers and an outer closed position in which the bolt elements are received in at least one of the receivers , - wherein at least one spring element is provided in order to act on the bolt elements in the direction of the closed position, - and wherein at least one locking element is movable at least between a released position in which the bolt elements are movable between the closed position and the retracted position, and a locked position in which the bolt elements are locked in the closed position, wherein - the locking element is a threaded element which is movable by rotation between the released position and the locked position.
Process for manufacturing polyethylene or an ethylene copolymer, comprising a step of radical polymerization or copolymerization of ethylene in the presence: - of a first peroxide polymerization initiator chosen from the diperketal peroxide compounds of formula: in which the R 1 , R 2 , R 3 , R 6 , R 7 and R 8 groups consist of substituted or unsubstituted, linear, branched or cyclic C1-C10 alkyl groups, - of a second initiator, other than said first initiator, also consisting of a diperketal peroxide of formula (I). - of a first peroxide polymerization initiator chosen from the diperketal peroxide compounds of formula: in which the R 1 , R 2 , R 3 , R 6 , R 7 and R 8 groups consist of substituted or unsubstituted, linear, branched or cyclic C1-C10 alkyl groups, - of a second initiator, other than said first initiator, also consisting of a diperketal peroxide of formula (I).
A body member for a slide cassette comprising a first duct and a second duct , wherein each duct is suitable for forming an inner linear portion of a respective bearing ball track ; and a first concave channel and a second concave channel , wherein each concave channel is suitable for forming an inside edge of an outer linear portion of a respective bearing ball track ; wherein the body member is formed from extruded material; characterised in that the first duct comprises at least one groove . a first duct and a second duct , wherein each duct is suitable for forming an inner linear portion of a respective bearing ball track ; and a first concave channel and a second concave channel , wherein each concave channel is suitable for forming an inside edge of an outer linear portion of a respective bearing ball track ; wherein the body member is formed from extruded material; characterised in that the first duct comprises at least one groove .
A method of removing/decolorizing metal stains from a surface, the method comprising: (a) contacting the surface with a solution comprising: an acidic composition, the concentrate composition comprising: (i) From about 0.01 to about 40% by weight of an organic or inorganic acid; and (ii) From about 0.01% to about 10% of a reducing agent, wherein the reducing agent is catechol; and (b) rinsing the surface. (a) contacting the surface with a solution comprising: an acidic composition, the concentrate composition comprising: (i) From about 0.01 to about 40% by weight of an organic or inorganic acid; and (ii) From about 0.01% to about 10% of a reducing agent, wherein the reducing agent is catechol; and (i) From about 0.01 to about 40% by weight of an organic or inorganic acid; and (ii) From about 0.01% to about 10% of a reducing agent, wherein the reducing agent is catechol; and (b) rinsing the surface.
A manufacturing method of porous glass base material for optical fiber by depositing glass fine particles on a starting material, comprising: a step of supplying an organic siloxane raw material supplied from a raw material tank is fed to a vaporizer; a step of mixing and vaporizing the raw material and carrier gas in the vaporizer; and a step of externally depositing SiO 2 fine particles through combustion reaction by supplying the mixed gas of raw the material and the carrier gas to the burner in the manufacturing apparatus of porous glass base material for optical fiber, wherein before starting to supply the raw material to a raw material gas supply pipe of the burner, the burner and the inside of a manufacturing apparatus of porous glass base material for optical fiber are pre-heated by flowing purge gas of 60°C or higher into the raw material gas supply pipe and supplying combustible gas and combustion supporting gas to the burner to form an oxyhydrogen flame at the burner outlet so that the outer surface temperature of the burner is 60°C or higher, and the purge gas flowing into the raw material gas supply pipe flows at a flow rate that satisfies Q/V >350[min -1 ] when the volume in the raw material gas supply pipe from a burner inlet of the raw material gas to the burner outlet in the burner is V[L] and the gas flow rate flowing into the raw material gas supply pipe in the burner before the start of raw material supply is Q[SLM]. a step of supplying an organic siloxane raw material supplied from a raw material tank is fed to a vaporizer; a step of mixing and vaporizing the raw material and carrier gas in the vaporizer; and a step of externally depositing SiO 2 fine particles through combustion reaction by supplying the mixed gas of raw the material and the carrier gas to the burner in the manufacturing apparatus of porous glass base material for optical fiber, wherein before starting to supply the raw material to a raw material gas supply pipe of the burner, the burner and the inside of a manufacturing apparatus of porous glass base material for optical fiber are pre-heated by flowing purge gas of 60°C or higher into the raw material gas supply pipe and supplying combustible gas and combustion supporting gas to the burner to form an oxyhydrogen flame at the burner outlet so that the outer surface temperature of the burner is 60°C or higher, and the purge gas flowing into the raw material gas supply pipe flows at a flow rate that satisfies Q/V >350[min -1 ] when the volume in the raw material gas supply pipe from a burner inlet of the raw material gas to the burner outlet in the burner is V[L] and the gas flow rate flowing into the raw material gas supply pipe in the burner before the start of raw material supply is Q[SLM].
Elevator safety supervising entity for an elevator comprising an elevator car displaceable within an elevator shaft and further comprising elevator safety components including car safety components provided on the elevator car and shaft safety components provided stationary in the elevator shaft , wherein the elevator safety supervising entity comprises: - a car safety supervising unit (SSU) controlling functions of the car safety components and comprising at least one car sensor for sensing car-related parameters; - a head SSU controlling functions of shaft safety components and comprising at least one shaft sensor for sensing shaft-related parameters; and - a data linkage for transmitting signal data between the car SSU and the head SSU ; characterised in that , both the car SSU and the head SSU are adapted to operate in each one of a normal operation mode and a failure operation mode; wherein both the car SSU and the head SSU are adapted to detect a failure in the other one of the car SSU and the head SSU and to detect a failure in signal data transmission via the data linkage and to switch from the normal operation mode to the failure operation mode upon detecting such failure; wherein, in the normal operation mode, the car SSU and the head SSU are adapted for exchanging signal data and the car SSU is adapted for generating control signals for controlling functions of the elevator safety components based on information derived from both the sensed car-related parameters and the sensed shaft-related parameters and the head SSU is adapted for controlling functions of the elevator safety components based on information derived from both the sensed car-related parameters and the sensed shaft-related parameters; and wherein, in the failure operation mode, the car SSU and the head SSU are adapted for operating autonomously and the car SSU is adapted for controlling at least the functions of the car safety components based on information derived from the sensed car-related parameters but excluding the shaft-related parameters sensed by the at least one shaft sensor of the head SSU and the head SSU is adapted for controlling at least the functions of the shaft safety components based on information derived from the sensed shaft related parameters but excluding the car-related parameters sensed by the at least one car sensor of the car SSU . - a car safety supervising unit (SSU) controlling functions of the car safety components and comprising at least one car sensor for sensing car-related parameters; - a head SSU controlling functions of shaft safety components and comprising at least one shaft sensor for sensing shaft-related parameters; and - a data linkage for transmitting signal data between the car SSU and the head SSU ;
A centrifugal separation container for separating a material from tissue and body fluids using a centrifugal force, comprising: a first container ; a second container ; a first piston positioned in the inside of the first container and configured to be movable up and down in the inside of the first container ; an elastic body positioned below the first piston in the inside of the first container and configured to elastically bias the first piston upward; a first connecting duct having one end connected to the first container and the other end connected to the second container ; and a first control valve operating by a centrifugal force and configured to open and close the first connecting duct , wherein the first control valve comprises a first valve configured as an initial close valve that is closed before a centrifugal force is applied and that is opened after a centrifugal force is applied. a first container ; a second container ; a first piston positioned in the inside of the first container and configured to be movable up and down in the inside of the first container ; an elastic body positioned below the first piston in the inside of the first container and configured to elastically bias the first piston upward; a first connecting duct having one end connected to the first container and the other end connected to the second container ; and a first control valve operating by a centrifugal force and configured to open and close the first connecting duct , wherein the first control valve comprises a first valve configured as an initial close valve that is closed before a centrifugal force is applied and that is opened after a centrifugal force is applied.
An electronic device (100; 201) comprising: a communication module ; and a processor , wherein the communication module is configured to: transmit a data packet received from the processor to an external electronic device connected to the electronic device (100; 201) using Bluetooth communication; receive a response packet corresponding to the data packet from the external electronic device using Bluetooth communication; in response to receiving the response packet, acquire a received signal strength indication, 'RSSI', of the response packet; and transmit a first packet by adding information on the RSSI to the processor , and wherein the processor is configured to identify the RSSI of the response packet by using the first packet received from the communication module , wherein the first packet is related to a packet indicating a number of data packets completed to be transmitted from the electronic device to the external electronic device. a communication module ; and a processor , wherein the communication module is configured to: transmit a data packet received from the processor to an external electronic device connected to the electronic device (100; 201) using Bluetooth communication; receive a response packet corresponding to the data packet from the external electronic device using Bluetooth communication; in response to receiving the response packet, acquire a received signal strength indication, 'RSSI', of the response packet; and transmit a first packet by adding information on the RSSI to the processor , and transmit a data packet received from the processor to an external electronic device connected to the electronic device (100; 201) using Bluetooth communication; receive a response packet corresponding to the data packet from the external electronic device using Bluetooth communication; in response to receiving the response packet, acquire a received signal strength indication, 'RSSI', of the response packet; and transmit a first packet by adding information on the RSSI to the processor , and wherein the processor is configured to identify the RSSI of the response packet by using the first packet received from the communication module , wherein the first packet is related to a packet indicating a number of data packets completed to be transmitted from the electronic device to the external electronic device.
A method of measuring, by immunoassay, a tumor marker in a serum or plasma sample separated from a body, the method comprising a pretreatment step of mixing the sample separated from a body with a pretreatment liquid containing an anionic surfactant or an acidifier, wherein the tumor marker in the sample is released from auto-antibody and/or non-specific reactions by human anti-animal antibodies are inhibited, and wherein the immunoassay is a direct competitive immunoassay, indirect competitive immunoassay, or sandwich immunoassay.
A method for the generation of a binding protein derived from di-ubiquitin having the amino acid sequence of SEQ ID NO: 4, wherein said binding protein binds to a given target selected from a peptide, a protein or a domain of a protein with a dissociation constant (KD) of at least 1000 nM, said method comprising: a) subjecting nucleotide triplets of a nucleic acid molecule of di-ubiquitin (SEQ ID NO: 4) to mutagenesis in 12, 13, or 14 positions coding for amino acid positions R42, 144, H68, V70, R72, L73, R74, K82, L84, Q138, K139, E140, S141, and T142 of the linear polypeptide sequence of di-ubiquitin (SEQ ID NO: 4), resulting in one or more mutein nucleic acid molecule(s), b) expressing the one or more mutein nucleic acid molecule(s) obtained in (a) in a suitable expression system, c) enriching the one or more di-ubiquitin mutein(s) having a dissociation constant (KD) of at least 1000 nM for the given target by means of selection and/or isolation, and wherein said binding protein has between 85 % and 92 % sequence identity to di-ubiquitin (SEQ ID NO: 4), and wherein the affinity to the target is at least 10fold higher than for di-ubiquitin (SEQ ID NO: 4). a) subjecting nucleotide triplets of a nucleic acid molecule of di-ubiquitin (SEQ ID NO: 4) to mutagenesis in 12, 13, or 14 positions coding for amino acid positions R42, 144, H68, V70, R72, L73, R74, K82, L84, Q138, K139, E140, S141, and T142 of the linear polypeptide sequence of di-ubiquitin (SEQ ID NO: 4), resulting in one or more mutein nucleic acid molecule(s), b) expressing the one or more mutein nucleic acid molecule(s) obtained in (a) in a suitable expression system, c) enriching the one or more di-ubiquitin mutein(s) having a dissociation constant (KD) of at least 1000 nM for the given target by means of selection and/or isolation, and wherein said binding protein has between 85 % and 92 % sequence identity to di-ubiquitin (SEQ ID NO: 4), and wherein the affinity to the target is at least 10fold higher than for di-ubiquitin (SEQ ID NO: 4). wherein said binding protein has between 85 % and 92 % sequence identity to di-ubiquitin (SEQ ID NO: 4), and wherein the affinity to the target is at least 10fold higher than for di-ubiquitin (SEQ ID NO: 4).