mhurhangee/ep-ind-claims huggingface dataset:
An assembly for splicing and/or repairing an umbilical, said assembly comprises two terminal bend restrictors and two strain terminators, each terminal bend restrictor comprises at least two interconnected modules, a connecting end, and a free end, and the strain terminators comprise a strain receiving end and a strain providing end, each of said strain receiving ends is connected to one of the connecting ends of the terminal bend restrictors, characterized in that the assembly comprises an intermediate bend restrictor comprising at least two interconnected modules and two connecting ends, and that the two strain terminators are connected at their strain providing ends to separate connecting ends of the intermediate bend restrictor, and the intermediate bend restrictor is dimensioned to withstand tensile strain from the connected strain terminators.
A method comprising: obtaining keys of an authentication process of a first network during an initial access of a user equipment towards a second network and/or during a handover process of a user equipment from the first network to the second network, wherein the keys of the authentication process of the first network are produced based on a random value used in the authentication process of the first network; and producing a set of associated keys for an authentication process to be performed in the second network based on the keys of the authentication process of the first network and identities of network entities of the second network. obtaining keys of an authentication process of a first network during an initial access of a user equipment towards a second network and/or during a handover process of a user equipment from the first network to the second network, wherein the keys of the authentication process of the first network are produced based on a random value used in the authentication process of the first network; and producing a set of associated keys for an authentication process to be performed in the second network based on the keys of the authentication process of the first network and identities of network entities of the second network.
An epoxy group-containing organosiloxane compound represented by the following general formula,, or: wherein R 11 is a hydrogen atom or a methyl group; R 12 is a hydrogen atom, a methyl group or a phenyl group; R 13 is a hydrogen atom or a methyl group; R 19 and R 15 are independently a substituted or unsubstituted monovalent hydrocarbon group having 1 to 10 carbon atoms; R 16 and R 17 are independently a substituted or unsubstituted monovalent hydrocarbon group having 1 to 10 carbon atoms or a monovalent hydrocarbon group represented by the following general formula; R 18 is a hydrogen atom, a methyl group, an ethyl group or a phenyl group; n and q are each an integer of one or more; p is an integer of 0 or more; and m is an integer of 3 to 6: where R 11 is a hydrogen atom or a methyl group; R 12 is a hydrogen atom, a methyl group, or a phenyl group; R 13 is a hydrogen atom or a methyl group; and * represents a bond.
A four channel gas delivery system comprising: an inlet channel: four outlet channels; four control valves, each valve being arranged so as to control the flow from the inlet channel through a corresponding one of the outlet channels; a flow ratio control system configured so as to control the flow from the inlet channel through the corresponding outlet channels so that the following flow ratios are controlled: (a) a first ratio of flows between the outlet channels of a first pair; (b) a second ratio of flows between the outlet channels of a second pair; and (c) a third ratio of flows between the first pair of outlet channels relative to the second pair of outlet channels; wherein the third ratio is controlled by generating at least one bias signal respectively applied to at least one pair of valves, the bias signal being a function of a predetermined set point of the third ratio and measured values of the third ratio. an inlet channel: four outlet channels; four control valves, each valve being arranged so as to control the flow from the inlet channel through a corresponding one of the outlet channels; a flow ratio control system configured so as to control the flow from the inlet channel through the corresponding outlet channels so that the following flow ratios are controlled: (a) a first ratio of flows between the outlet channels of a first pair; (b) a second ratio of flows between the outlet channels of a second pair; and (c) a third ratio of flows between the first pair of outlet channels relative to the second pair of outlet channels; wherein the third ratio is controlled by generating at least one bias signal respectively applied to at least one pair of valves, the bias signal being a function of a predetermined set point of the third ratio and measured values of the third ratio. four outlet channels; four control valves, each valve being arranged so as to control the flow from the inlet channel through a corresponding one of the outlet channels; a flow ratio control system configured so as to control the flow from the inlet channel through the corresponding outlet channels so that the following flow ratios are controlled: (a) a first ratio of flows between the outlet channels of a first pair; (b) a second ratio of flows between the outlet channels of a second pair; and (c) a third ratio of flows between the first pair of outlet channels relative to the second pair of outlet channels; (a) a first ratio of flows between the outlet channels of a first pair; (b) a second ratio of flows between the outlet channels of a second pair; and (c) a third ratio of flows between the first pair of outlet channels relative to the second pair of outlet channels; wherein the third ratio is controlled by generating at least one bias signal respectively applied to at least one pair of valves, the bias signal being a function of a predetermined set point of the third ratio and measured values of the third ratio.
A demonstration model comprising: a substrate, preferably selected from the group consisting of molded polymer articles, polymer films, polymer tapes, silica, quartz, and glasses.; and a simulated dental enamel layer disposed over the substrate, the simulated dental enamel layer comprising a mineral selected from the group consisting of hydroxyapatite, fluoridated hydroxyapatite, fluorapatite, chlorapatite, and combinations thereof, preferably a substantially homogeneous layer of hydroxyapatite; and an amorphous calcium phosphate layer interposed between the substrate and the simulated dental enamel layer; and wherein the amorphous calcium phosphate layer comprises a gradated structure comprising a plurality of colored layers. a substrate, preferably selected from the group consisting of molded polymer articles, polymer films, polymer tapes, silica, quartz, and glasses.; and a simulated dental enamel layer disposed over the substrate, the simulated dental enamel layer comprising a mineral selected from the group consisting of hydroxyapatite, fluoridated hydroxyapatite, fluorapatite, chlorapatite, and combinations thereof, preferably a substantially homogeneous layer of hydroxyapatite; and an amorphous calcium phosphate layer interposed between the substrate and the simulated dental enamel layer; and wherein the amorphous calcium phosphate layer comprises a gradated structure comprising a plurality of colored layers.
A movable bed comprising: a fixed portion; and a moving portion that is separably joined to the fixed portion, the fixed portion and the moving portion being formed into a mat portion on which a person lies, wherein the moving portion is constructed as a wheel chair having a scat or resting) portion and an armrest portion placed on one side of the resting portion characterised in that the armrest portion is pivotable between an upright posture state and a sideway lying posture state; wherein in a state where the moving portion is joined to the fixed portion, the armrest portion of the moving portion is pivoted to the sideway lying posture state so that an upper surface of the resting portion and an inner surface of the armrest portion are formed into a mat surface of the mat portion; and in a state where the moving portion is separated from the fixed portion, the armrest portion of the moving portion is pivoted to the upright posture state so that the armrest portion forms an armrest of the wheel chair. a fixed portion; and a moving portion that is separably joined to the fixed portion, the fixed portion and the moving portion being formed into a mat portion on which a person lies, wherein the moving portion is constructed as a wheel chair having a scat or resting) portion and an armrest portion placed on one side of the resting portion characterised in that the armrest portion is pivotable between an upright posture state and a sideway lying posture state; wherein in a state where the moving portion is joined to the fixed portion, the armrest portion of the moving portion is pivoted to the sideway lying posture state so that an upper surface of the resting portion and an inner surface of the armrest portion are formed into a mat surface of the mat portion; and in a state where the moving portion is separated from the fixed portion, the armrest portion of the moving portion is pivoted to the upright posture state so that the armrest portion forms an armrest of the wheel chair.
A body armor manufactured by laminating 10 to 50 sheets of bulletproof fabric, wherein the fabric includes: an aramid fabric 10 including wholly aromatic polyamide multifilaments as warps and wefts; a primary water-repellent coating layer 20 formed on the aramid fabric 10; and a secondary water-repellent coating layer 30 formed on the primary water-repellent coating layer 20, wherein an aramid composite pad 40 is inserted in a pocket provided at a part of the body armor, and wherein the aramid composite pad 40 has a structure in which a first aramid prepreg X is heat-pressed with a second aramid prepreg Y to form an integrated laminate, wherein the first aramid prepreg X includes wholly aromatic polyamide multifilaments having an overall fineness of the warps and wefts in a range of 500 to 1,000 denier and a resin C impregnated therein while the second aramid prepreg Y includes wholly aromatic polyamide multifilaments having an overall fineness of the warps and wefts in a range of 840 to 3,000 denier and a resin C impregnated therein, wherein the wholly aromatic polyamide multifilaments having an overall fineness of the warps and wefts in a range of 500 to 1,000 denier and the wholly aromatic polyamide multifilaments having an overall fineness of the warps and wefts in a range of 840 to 3,000 denier have been subjected to dipping in a water-repellent agent solution, followed by padding using a mangle, drying and/or heating, and wherein the water-repellent agent solution is a water-soluble solution including hydroxylated perfluoroalkylethyl acrylate copolymer.
A transmitter with three transmit antennas for a communication system using a space-time-frequency block coding scheme, comprising: a pre-coder for pre-coding a symbol vector of an input symbol sequence by multiplying the symbol vector by e jθ, θ being a phase rotation angle; and a space-time-frequency block code (STFBC) mapper for selecting an STFBC based on feedback channel quality indicators (CQIs) received from a receiver, mapping the pre-coded symbols to the transmit antennas according to the selected STFBC, and transmitting the mapped symbols through the transmit antennas, wherein the STFBC mapper selects the STFBC based on the feedback CQIs by if CQI_ant1 = select max(CQI_ant1, CQI_ant2, CQI_ant3) use Matrix B if CQI_ant2 = select max(CQI_ant1, CQI_ant2, CQI_ant3) use Matrix A if CQI_ant3 = select max(CQI_ant1, CQI_ant2, CQI_ant3) use Matrix C where CQI_ant1, CQI_ant2, and CQI_ant3 represent CQIs for first, second and third transmit antennas, respectively, select max(CQI_ant1, CQI_ant2, CQI_ant3) represents maximum value among CQI_ant1, CQI_ant2 and CQI_ant3, and the matrices A, B and C are given as A = s 1 - s 2 * 0 0 s 2 s 1 * s 3 - s 4 * 0 0 s 4 s 3 * B = s 1 - s 2 * s 3 - s 4 * s 2 s 1 * 0 0 0 0 s 4 s 3 * C = s 1 - s 2 * 0 0 0 0 s 3 - s 4 * s 2 s 1 * s 4 s 3 * where a row represents symbols for a corresponding antenna and the columns are grouped sequentially in pairs, i.e., the first and second columns are mapped to a first subcarrier, the third and fourth columns to a second subcarrier, and wherein the first and second symbols in each column pair represent first and second symbol times respectively. a pre-coder for pre-coding a symbol vector of an input symbol sequence by multiplying the symbol vector by e jθ, θ being a phase rotation angle; and a space-time-frequency block code (STFBC) mapper for selecting an STFBC based on feedback channel quality indicators (CQIs) received from a receiver, mapping the pre-coded symbols to the transmit antennas according to the selected STFBC, and transmitting the mapped symbols through the transmit antennas, wherein the STFBC mapper selects the STFBC based on the feedback CQIs by if CQI_ant1 = select max(CQI_ant1, CQI_ant2, CQI_ant3) use Matrix B if CQI_ant2 = select max(CQI_ant1, CQI_ant2, CQI_ant3) use Matrix A if CQI_ant3 = select max(CQI_ant1, CQI_ant2, CQI_ant3) use Matrix C where CQI_ant1, CQI_ant2, and CQI_ant3 represent CQIs for first, second and third transmit antennas, respectively, select max(CQI_ant1, CQI_ant2, CQI_ant3) represents maximum value among CQI_ant1, CQI_ant2 and CQI_ant3, and the matrices A, B and C are given as A = s 1 - s 2 * 0 0 s 2 s 1 * s 3 - s 4 * 0 0 s 4 s 3 * B = s 1 - s 2 * s 3 - s 4 * s 2 s 1 * 0 0 0 0 s 4 s 3 * C = s 1 - s 2 * 0 0 0 0 s 3 - s 4 * s 2 s 1 * s 4 s 3 * where a row represents symbols for a corresponding antenna and the columns are grouped sequentially in pairs, i.e., the first and second columns are mapped to a first subcarrier, the third and fourth columns to a second subcarrier, and wherein the first and second symbols in each column pair represent first and second symbol times respectively.
A vapor generator comprising: a circuit (106, 108) to carry a DC current from an energy device; a wire mesh heating element to receive the DC current; and a sprayer to direct a fine spray of a liquid at the wire mesh heating element to vaporize the liquid, wherein a ratio of a resistance of the wire mesh heating element to a radiative black body area of the wire mesh heating element is less than 2 ohms/m 2. a circuit (106, 108) to carry a DC current from an energy device; a wire mesh heating element to receive the DC current; and a sprayer to direct a fine spray of a liquid at the wire mesh heating element to vaporize the liquid, wherein a ratio of a resistance of the wire mesh heating element to a radiative black body area of the wire mesh heating element is less than 2 ohms/m 2.
A saddle-straddling type motor vehicle comprising: a body frame; a mud receiving member mounted to a rear portion of the body frame; a license lamp unit mounted to the mud receiving member and having a light emitting surface that emits light; and a cover mounted to the mud receiving member to cover at least a part of the license lamp unit except for the light emitting surface, wherein the license lamp unit and the cover are mounted to the mud receiving member by a common mount member (BL, 94), and wherein the license lamp unit includes a casing configured to open in a downward direction, a transmission portion configured to close an opening of the casing and to transmit light, transmission portion having the light emitting surface, characterized in that the license lamp unit further includes a circuit board arranged in the casing and having a mount surface facing the transmission portion, light emitting devices mounted to the mount surface of the circuit board, and projections that are integrally formed with the casing and for fixing the circuit board in the casing, a liquid-tight storage space in which the circuit board is stored is formed by the casing and the transmission portion. a body frame; a mud receiving member mounted to a rear portion of the body frame; a license lamp unit mounted to the mud receiving member and having a light emitting surface that emits light; and a cover mounted to the mud receiving member to cover at least a part of the license lamp unit except for the light emitting surface, wherein the license lamp unit and the cover are mounted to the mud receiving member by a common mount member (BL, 94), and wherein the license lamp unit includes a casing configured to open in a downward direction, a transmission portion configured to close an opening of the casing and to transmit light, transmission portion having the light emitting surface, characterized in that the license lamp unit further includes a circuit board arranged in the casing and having a mount surface facing the transmission portion, light emitting devices mounted to the mount surface of the circuit board, and projections that are integrally formed with the casing and for fixing the circuit board in the casing, a casing configured to open in a downward direction, a transmission portion configured to close an opening of the casing and to transmit light, transmission portion having the light emitting surface, a liquid-tight storage space in which the circuit board is stored is formed by the casing and the transmission portion.
A method of performing communication, by a network exposure function, NEF, in a wireless communication system, the method comprising: receiving a message for connection request including information regarding non-internet protocol data delivery, NIDD, configuration for a user equipment, UE, from a session management function, SMF, the method characterized by in case that no NIDD configuration procedure for the UE between the NEF and an application function, AF,) is previously performed, transmitting a message for triggering the NIDD configuration for the UE to the AF, based on the information regarding the NIDD configuration for the UE included in the message for the connection request; receiving a message for requesting the NIDD configuration for the UE from the AF, as a response to the message for triggering the NIDD configuration for the UE; creating NEF PDU session context based on the received message for requesting the NIDD configuration for the UE; and transmitting a message for connection response to the SMF based on the received message for requesting the NIDD configuration for the UE, as a response to the message for the connection request. receiving a message for connection request including information regarding non-internet protocol data delivery, NIDD, configuration for a user equipment, UE, from a session management function, SMF, the method characterized by in case that no NIDD configuration procedure for the UE between the NEF and an application function, AF,) is previously performed, transmitting a message for triggering the NIDD configuration for the UE to the AF, based on the information regarding the NIDD configuration for the UE included in the message for the connection request; receiving a message for requesting the NIDD configuration for the UE from the AF, as a response to the message for triggering the NIDD configuration for the UE; creating NEF PDU session context based on the received message for requesting the NIDD configuration for the UE; and transmitting a message for connection response to the SMF based on the received message for requesting the NIDD configuration for the UE, as a response to the message for the connection request.
Use of a photocurable composition in a photopolymerization 3D printing process, in particular vat photopolymerisation, or photopolymer jetting, wherein the photocurable composition, comprises a N-vinyloxazolidinone of formula wherein R 1, R 2, R 3 and R 4 are independently of each other a hydrogen atom or an organic group having not more than 10 carbon atoms, optionally one, or more second reactive diluents, one, or more oligomers, and a photoinitiator, wherein the amount of component is 5 to 70 % by weight based on the amount of components, and, wherein the reactive diluent is a component that contains at least one free radically reactive group that can co-react with components and. a N-vinyloxazolidinone of formula wherein R 1, R 2, R 3 and R 4 are independently of each other a hydrogen atom or an organic group having not more than 10 carbon atoms, optionally one, or more second reactive diluents, one, or more oligomers, and a photoinitiator, wherein the amount of component is 5 to 70 % by weight based on the amount of components, and, wherein the reactive diluent is a component that contains at least one free radically reactive group that can co-react with components and.
Glazing unit comprising a transparent substrate provided with a stack of thin layers comprising, in order starting from the substrate, a first dielectric coating, an infrared radiation reflecting functional layer, a barrier layer directly superposed on the functional layer and a second dielectric coating, and comprising one functional layer only, characterised in that (i) the first dielectric coating comprises a layer made from an oxide, in direct contact with the substrate, (ii) the barrier layer is based on zinc oxide or consists of an indium oxide possibly doped with tin and (iii) the second dielectric coating comprises, in order, a layer made from an oxide other than silicon oxide with a thickness greater than 5 nm and a layer made from a silicon nitride or a silicon oxide with a thickness of at least 14 nm.
A walkable floor arrangement for a gangway for arrangement between a first vehicle part and a second vehicle part adjoining in a longitudinal direction, in particular of a rail vehicle, comprising a first section (1.1) adjoining a higher-lying vehicle corridor of the first vehicle part and at least one second section (1.2) adjoining a lower vehicle floor of the second vehicle part, characterised in that the first section (1.1) and the at least one further section (1.2) comprise a continuous, uninterrupted structure which is formed in one piece in the longitudinal direction.
A method for performing an available bandwidth measurement in a wireless network, the method comprising: receiving, by one or more processors, information associated with a packet train transmitted between a user equipment device (118, 128) and a network device (116, 126) operating within the wireless network; determining, with said one or more processors, the number of bits in the packet train BPT based on said received information; and determining, with said one or more processors, an available bandwidth measurement throughput of the wireless network; characterized in that said available bandwidth measurement throughput ABMT is determined based on the equation: ABMT = BPT CTTI * TTI per second, wherein CTTI is ceiling of TTIs per packet train, and TTIs are transmission time intervals. receiving, by one or more processors, information associated with a packet train transmitted between a user equipment device (118, 128) and a network device (116, 126) operating within the wireless network; determining, with said one or more processors, the number of bits in the packet train BPT based on said received information; and determining, with said one or more processors, an available bandwidth measurement throughput of the wireless network; characterized in that said available bandwidth measurement throughput ABMT is determined based on the equation: ABMT = BPT CTTI * TTI per second, wherein CTTI is ceiling of TTIs per packet train, and TTIs are transmission time intervals.