mhurhangee/ep-ind-claims huggingface dataset:
A method for recovering a called service of a user terminal performed by an IP multimedia subsystem, IMS, comprising: when a called request of the user terminal is received at a Serving Call Session Control Function, S-CSCF, entity, querying, by the S-CSCF, an initial proxy-call session control function, P-CSCF, entity with which the user terminal currently registers; and if it is detected, by the S-CSCF, that the initial P-CSCF is faulty, selecting an available P-CSCF and sending a notification message to the available P-CSCF to trigger the user terminal to re-initiate IP multimedia system, IMS, registration, wherein the sending of the notification message to the available P-CSCF comprises sending the called request of the user terminal to the available P-CSCF, and when the available P-CSCF determines that no registration data of a called user is stored, the available P-CSCF sends, to a policy and charging rules function, PCRF, entity, a request for triggering the user terminal to re-initiate IMS registration; when a registration complete message sent by a new P-CSCF with which the user terminal re-registers is received at the S-CSCF, delivering, by the S-CSCF, the called request to the new P-CSCF to bear a called service of the user terminal. when a called request of the user terminal is received at a Serving Call Session Control Function, S-CSCF, entity, querying, by the S-CSCF, an initial proxy-call session control function, P-CSCF, entity with which the user terminal currently registers; and if it is detected, by the S-CSCF, that the initial P-CSCF is faulty, selecting an available P-CSCF and sending a notification message to the available P-CSCF to trigger the user terminal to re-initiate IP multimedia system, IMS, registration, wherein the sending of the notification message to the available P-CSCF comprises sending the called request of the user terminal to the available P-CSCF, and when the available P-CSCF determines that no registration data of a called user is stored, the available P-CSCF sends, to a policy and charging rules function, PCRF, entity, a request for triggering the user terminal to re-initiate IMS registration; when a registration complete message sent by a new P-CSCF with which the user terminal re-registers is received at the S-CSCF, delivering, by the S-CSCF, the called request to the new P-CSCF to bear a called service of the user terminal.
A refrigerant system, comprising: a compressor which compresses a refrigerant; a condenser (11,13) which condenses the refrigerant discharged from the compressor; an expanding unit (141,142) which expands the refrigerant passed through the condenser, an evaporator (13,11) which evaporates the refrigerant passed through the expanding unit; a main refrigerant pipe which forms a refrigerant cycle by connecting the compressor, the condenser, the expanding unit and the evaporator; an accumulator filtering a liquid refrigerant among refrigerants flowing into the compressor; a super cooler (153,191) in which a portion of the refrigerants is distributed to super cool the refrigerant of the main refrigerant pipe, the super cooler configured to guide to introduce the portion into the accumulator; a super cooling adjustment unit which adjusts a portion of refrigerant amount passed through the super cooler; and a control unit which controls the super cooling adjustment unit to increase or decrease the refrigerant amount stored in the accumulator according to an indoor conditioning load, characterized in that: the refrigerant system further comprises: a high pressure detection unit which detects high pressure of refrigerant in the discharge side of the compressor; and a super cooling degree detection unit which detects a refrigerant super cooling degree of a discharge side of the condenser, wherein the control unit controls the super cooling adjustment unit to adjust the refrigerant amount stored in the accumulator according to at least one of the high pressure of refrigerant and the refrigerant super cooling degree when the indoor conditioning load is decreased. a high pressure detection unit which detects high pressure of refrigerant in the discharge side of the compressor; and a super cooling degree detection unit which detects a refrigerant super cooling degree of a discharge side of the condenser,
Process for the hydrophobization of a fiber cement slab comprising the steps of: - providing a fiber cement slab; - applying an acrylic-siloxane resin-based composition onto said fiber cement slab; - drying said acrylic-siloxane resin-based composition, so as to form an hydrophobic coating on said fiber cement slab; - applying a first (meth)acrylic polyurethane resin-based composition onto said hydrophobic coating of the fiber cement slab; - drying said first composition obtaining a first finishing layer on said hydrophobic coating layer of the fiber cement slab. - providing a fiber cement slab; - applying an acrylic-siloxane resin-based composition onto said fiber cement slab; - drying said acrylic-siloxane resin-based composition, so as to form an hydrophobic coating on said fiber cement slab; - applying a first (meth)acrylic polyurethane resin-based composition onto said hydrophobic coating of the fiber cement slab; - drying said first composition obtaining a first finishing layer on said hydrophobic coating layer of the fiber cement slab.
An electromagnet opening device for a safe deposit box or safe box, comprising: a housing, a fixed iron core, a movable iron core, an electromagnetic coil, a paddle and a closed spring disposed in the housing, the movable iron core having a bottom end engaging with the fixed iron core, a shaft sleeve configured to sleeve a top end of the movable iron core and extending outside of the housing through a through hole in the housing, characterized in that a vibration sensing mechanism disposed in the housing comprising a sensing block and a balance spring, the sensing block having a stopping end and a balancing end located on two sides of the movable iron core respectively, the balance spring disposed between the balancing end and the housing, wherein a bottom of the stopping end is rotationally connected onto the housing through a rotation shaft, and wherein, when the sensing block compresses the balance spring through a rotation of the rotation shaft, the stopping end is driven to abut against a bottom surface of the shaft sleeve.
An oxygen container for a passenger transport vehicle, the container comprising: a compartment configured to hold at least one oxygen mask; a moving mount coupled to the compartment and configured to move the compartment from a stowed position to a release position triggered in case of an emergency or pressure drop; and a bottom lid hinged to the compartment and configured to move from a closed position, where the bottom lid closes a bottom opening in the compartment, to an open position, where the bottom lid releases the at least one oxygen mask, while the compartment moves from the stowed position to the release position. a compartment configured to hold at least one oxygen mask; a moving mount coupled to the compartment and configured to move the compartment from a stowed position to a release position triggered in case of an emergency or pressure drop; and a bottom lid hinged to the compartment and configured to move from a closed position, where the bottom lid closes a bottom opening in the compartment, to an open position, where the bottom lid releases the at least one oxygen mask, while the compartment moves from the stowed position to the release position.
An evaporator, comprising a heating tube; electric heating coils for vaporizing material located inside the heating tube; a heat exchanger for cooling the heating tube, comprising: at least two cooling pipes, characterised in that the at least two cooling pipes are arranged such that each of the at least two cooling pipes is in thermal contact with the heating tube; and a means for generating an aerosol being configured to provide the aerosol in the at least two cooling pipes. a heating tube; electric heating coils for vaporizing material located inside the heating tube; a heat exchanger for cooling the heating tube, comprising: at least two cooling pipes, characterised in that the at least two cooling pipes are arranged such that each of the at least two cooling pipes is in thermal contact with the heating tube; and a means for generating an aerosol being configured to provide the aerosol in the at least two cooling pipes. at least two cooling pipes, characterised in that the at least two cooling pipes are arranged such that each of the at least two cooling pipes is in thermal contact with the heating tube; and a means for generating an aerosol being configured to provide the aerosol in the at least two cooling pipes.
A protein which is an isolated heterodimeric protein or a single chain protein, wherein either a first peptide and a second peptide chain of the heterodimeric protein; or the single chain protein; have an overall sequence identity of at least 70 % with the combined sequences of SEQ ID NO: 3 and SEQ ID NO: 4,.
A method for classifying microwave link data of a microwave system comprising a point-to-point wireless microwave link (110, 110a, 110b), the method being performed by a controller entity, the method comprising: obtaining, in time windows, microwave link data in terms of signal quality measurement values and received power values for the point-to-point wireless microwave link (110, 110a, 110b); and classifying, per time window, the microwave link data per time window to operating conditions in a set of operating conditions by, from the signal quality measurement values and received power values per time window, estimating probability values ({p k}) for each of the operating conditions according to a mapping ({m jk}), as learned through training, between pieces of microwave link data and operating conditions. obtaining, in time windows, microwave link data in terms of signal quality measurement values and received power values for the point-to-point wireless microwave link (110, 110a, 110b); and classifying, per time window, the microwave link data per time window to operating conditions in a set of operating conditions by, from the signal quality measurement values and received power values per time window, estimating probability values ({p k}) for each of the operating conditions according to a mapping ({m jk}), as learned through training, between pieces of microwave link data and operating conditions.
A process for synthesis of glycidyl ester from butene oligomers, comprising: (a) oligomerizing butenes or precursors of butene in presence of a catalyst characterized in that the olefin has a weight fraction of isobutene of at least 50 weight% on total alkene fraction of the mixture feed and that the subsequently mixture of neononanoic acid (C9 acids) derivative obtained by such a process is providing a mixture where the sum of the concentration of the blocked and of the highly branched isomers is at least 50%, preferably above 60%, most preferably above 75%, or that the olefin has a weight fraction of n-butene isomers of at least 50 weight% on total alkene fraction of the mixture feed, and the subsequently mixture of neononanoic acid (C9 acids) derivatives will provide a mixture where the sum of the concentration of the blocked and highly branched isomers is maximum 55%, preferably below 40% and most preferably below 30%, (b) converting butene oligomers of step (a) to carboxylic acids which are longer by one carbon atom, and (c) converting the carboxylic acids to the corresponding glycidyl esters. (a) oligomerizing butenes or precursors of butene in presence of a catalyst characterized in that the olefin has a weight fraction of isobutene of at least 50 weight% on total alkene fraction of the mixture feed and that the subsequently mixture of neononanoic acid (C9 acids) derivative obtained by such a process is providing a mixture where the sum of the concentration of the blocked and of the highly branched isomers is at least 50%, preferably above 60%, most preferably above 75%, or that the olefin has a weight fraction of n-butene isomers of at least 50 weight% on total alkene fraction of the mixture feed, and the subsequently mixture of neononanoic acid (C9 acids) derivatives will provide a mixture where the sum of the concentration of the blocked and highly branched isomers is maximum 55%, preferably below 40% and most preferably below 30%, (b) converting butene oligomers of step (a) to carboxylic acids which are longer by one carbon atom, and (c) converting the carboxylic acids to the corresponding glycidyl esters.
A carboxylate detergent prepared by the process comprising (a) alkylating a hydroxyaromatic compound with at least one normal alpha olefin having from 12 to 30 carbon atoms per molecule that has been isomerized to obtain an isomerized alpha olefin having 15-98 wt% branching and a residual alpha olefin content of between from 0.1 to 30 wt%, thereby producing an alkylated hydroxyaromatic compound, wherein the branching and residual alpha olefin content are determined by infrared spectrometry as set out in the description; (b) neutralizing the resulting alkylated hydroxyaromatic compound with an alkali metal base to provide an alkali metal salt of the alkylated hydroxyaromatic compound; (c) carbonating the alkali metal salt from step (b) with carbon dioxide thereby producing an alkylated hydroxyaromatic carboxylic acid alkali metal salt; (d) acidifying the salt produced in step (c) with acid to produce the alkylated hydroxyaromatic carboxylic acid; and (e) overbasing the alkylated hydroxyaromatic carboxylic acid with lime in the presence of carbon dioxide thereby producing an overbased alkylated hydroxyaromatic carboxylate detergent. (a) alkylating a hydroxyaromatic compound with at least one normal alpha olefin having from 12 to 30 carbon atoms per molecule that has been isomerized to obtain an isomerized alpha olefin having 15-98 wt% branching and a residual alpha olefin content of between from 0.1 to 30 wt%, thereby producing an alkylated hydroxyaromatic compound, wherein the branching and residual alpha olefin content are determined by infrared spectrometry as set out in the description; (b) neutralizing the resulting alkylated hydroxyaromatic compound with an alkali metal base to provide an alkali metal salt of the alkylated hydroxyaromatic compound; (c) carbonating the alkali metal salt from step (b) with carbon dioxide thereby producing an alkylated hydroxyaromatic carboxylic acid alkali metal salt; (d) acidifying the salt produced in step (c) with acid to produce the alkylated hydroxyaromatic carboxylic acid; and (e) overbasing the alkylated hydroxyaromatic carboxylic acid with lime in the presence of carbon dioxide thereby producing an overbased alkylated hydroxyaromatic carboxylate detergent.
A selective catalytic reduction zeolite catalyst containing at least one transition metal and coated on a substrate monolith for converting nitrogen oxides in a gas to nitrogen by contacting the nitrogen oxides with a nitrogenous reducing agent in the presence of the SCR zeolite catalyst, which SCR zeolite catalyst is a small pore zeolite containing a maximum ring size of eight tetrahedral atoms and having the AEI Framework Type Code, wherein the total at least one transition metal present in the SCR zeolite catalyst is from 0.01 to 20 weight percent, based on the total weight of the SCR zeolite catalyst, wherein the at least one transition metal is copper and iron.
A reactor for the synthesis of a liquid hydrocarbon, preferably a methanol-containing hydrocarbon, using a starting material, which contains a gas having a carbon share and a hydrogen share, wherein the reactor comprises a plurality of reactor elements (15.m) connected in parallel to one another and wherein each of the reactor elements (15.m) has a gas inlet at a first pipe end (22.1) and a product outlet at a second pipe end (22.2), wherein - each of the reactor elements (15.m) comprises at least one first reactor pipe (20.1) and one second reactor pipe (20.n) arranged in the opposite direction, - each of the reactor elements (15.m) comprises at least one redirection element (30.k), which is seated between the first reactor pipe (20.1) and the second reactor pipe (20.2) and connects them with respect to flow, - each of the reactor elements (15.m) comprises at least one filling opening (24.1, 24.2) for introducing a catalyst for the synthesis of the liquid hydrocarbon, wherein the connection in parallel of the reactor elements (15.m) is ensured in that the gas inlets of a plurality of reactor elements (15.m) can be charged with the starting material by a shared starting material feed (12.1, 12.2), and the product outlets of a plurality of reactor elements (15.m) are connectable with respect to flow to a downstream plant region, characterized in that the redirection element (30.k) is at least partially filled or equipped with an inert material. - each of the reactor elements (15.m) comprises at least one first reactor pipe (20.1) and one second reactor pipe (20.n) arranged in the opposite direction, - each of the reactor elements (15.m) comprises at least one redirection element (30.k), which is seated between the first reactor pipe (20.1) and the second reactor pipe (20.2) and connects them with respect to flow, - each of the reactor elements (15.m) comprises at least one filling opening (24.1, 24.2) for introducing a catalyst for the synthesis of the liquid hydrocarbon,
An optical system comprising a solid-state light source module for generating a first light beam, an optical module, a reflective phosphor element, a light relay module and a light modulator which are disposed sequentially in a light path, wherein, the optical module is used for relaying the first light beam to be incident on the reflective phosphor element, and a light spot of the first light beam incident on the reflective phosphor element has a predetermined area so that the reflective phosphor element emits a second light beam in an emitting area; characterized in that, the emitting area is larger than the predetermined area of the light spot due to a thickness of the reflective phosphor element, and the light relay module is used for receiving the second light beam inside a receiving range of the light relay module corresponding to a solid angle ( θ 1), and an Etendue (E p) defined by the solid angle ( θ 1) and the emitting area is substantially identical to an Etendue (E m) of the light modulator.
Peroxide mixture comprising (i) at least one peroxyester of the formula R 1 OO-C(=O)-R 2 wherein R 1 and R 2 each independently represents an alkyl radical, and (ii) at least one further peroxide other than (i), which is selected from monoperoxycarbonates, cyclic peroxides or/and perketals. (i) at least one peroxyester of the formula R 1 OO-C(=O)-R 2 wherein R 1 and R 2 each independently represents an alkyl radical, and (ii) at least one further peroxide other than (i), which is selected from monoperoxycarbonates, cyclic peroxides or/and perketals.
Organic light-emitting device, in particular an organic light-emitting diode, with: - a light-emitting element (1; 2) and - an illuminated surface (1f; 2f), comprising the light-emitting element (1; 2), and which is formed by means of an electrode (1a; 2a), a counter-electrode (1d; 2d) and an organic layer arrangement (1e; 2e), which is arranged between the electrode (1a; 2a) and the counter-electrode (1d; 2d), and is in electrical contact with the electrode (1a; 2a) and the counter-electrode (1d; 2d), wherein sections of the organic layer arrangement (1e; 2e), which are arranged in the region of the illuminated surface (1f; 2f), and which emit light when an electrical voltage is applied to the electrode (1a; 2a) and the counter-electrode (1d; 2d), have a uniform organic material structure, and are formed on a plurality of electrically parallel-connected sub-electrodes (1b; 2b) of the electrode (1a; 2a), which at one side are electrically connected to one another, and on the opposite side are not electrically connected, characterised in that the plurality of electrically parallel-connected sub-electrodes (1b; 2b) are formed as strip electrodes, which extend along a singly or multiply curved line, or a zigzag line, and a lateral distance between adjacent members of the plurality of electrically parallel-connected sub-electrodes (1b; 2b) is less than half the width of the adjacent sub-electrodes (1b; 2b). - a light-emitting element (1; 2) and - an illuminated surface (1f; 2f), comprising the light-emitting element (1; 2), and which is formed by means of an electrode (1a; 2a), a counter-electrode (1d; 2d) and an organic layer arrangement (1e; 2e), which is arranged between the electrode (1a; 2a) and the counter-electrode (1d; 2d), and is in electrical contact with the electrode (1a; 2a) and the counter-electrode (1d; 2d),
A load leveling system comprising: a fuel cell inverter configured to receive direct current power generated by a fuel cell assembly; a DC load bank, configured to be connected to the fuel cell assembly in parallel with the fuel cell inverter; and a controller in communication with the fuel cell inverter and the DC load bank, wherein the controller is configured to: identify a reduction in a load being drawn by the fuel cell inverter; responsive to the identification of the reduction of the load, divert the DC power generated by the fuel cell assembly from the fuel cell inverter to the DC load bank to prevent load cycling of the fuel cell assembly; monitor a load condition of the fuel cell inverter after diverting the DC power from the fuel cell inverter to the DC load bank; determine that the fuel cell inverter is again operational based on the monitored load condition; and based on the determination that the fuel cell inverter is again operational, divert the DC power from the DC load bank back to the fuel cell inverter. a fuel cell inverter configured to receive direct current power generated by a fuel cell assembly; a DC load bank, configured to be connected to the fuel cell assembly in parallel with the fuel cell inverter; and a controller in communication with the fuel cell inverter and the DC load bank, wherein the controller is configured to: identify a reduction in a load being drawn by the fuel cell inverter; responsive to the identification of the reduction of the load, divert the DC power generated by the fuel cell assembly from the fuel cell inverter to the DC load bank to prevent load cycling of the fuel cell assembly; monitor a load condition of the fuel cell inverter after diverting the DC power from the fuel cell inverter to the DC load bank; determine that the fuel cell inverter is again operational based on the monitored load condition; and based on the determination that the fuel cell inverter is again operational, divert the DC power from the DC load bank back to the fuel cell inverter. identify a reduction in a load being drawn by the fuel cell inverter; responsive to the identification of the reduction of the load, divert the DC power generated by the fuel cell assembly from the fuel cell inverter to the DC load bank to prevent load cycling of the fuel cell assembly; monitor a load condition of the fuel cell inverter after diverting the DC power from the fuel cell inverter to the DC load bank; determine that the fuel cell inverter is again operational based on the monitored load condition; and based on the determination that the fuel cell inverter is again operational, divert the DC power from the DC load bank back to the fuel cell inverter.