mhurhangee/ep-ind-claims huggingface dataset:
A helical toothed rope comprising: a first rope including a coating of first thermoplastic resin; and a second rope including a coating of second thermoplastic resin, wherein the second rope is helically wound around the outer surface of the first rope, characterized in that the second thermoplastic resin is fusion-bonded to the first thermoplastic resin, characterised in that the second thermoplastic resin is softer than the first thermoplastic resin in an ordinary temperature and has a higher viscosity than a viscosity of the first thermoplastic resin in a molten state. a first rope including a coating of first thermoplastic resin; and a second rope including a coating of second thermoplastic resin, wherein the second rope is helically wound around the outer surface of the first rope, characterized in that the second thermoplastic resin is fusion-bonded to the first thermoplastic resin, characterised in that the second thermoplastic resin is softer than the first thermoplastic resin in an ordinary temperature and has a higher viscosity than a viscosity of the first thermoplastic resin in a molten state.
A concrete cutting assembly comprising: a motor supported on a support and configured to be driven by a power source and having an output drive; a drive assembly supported relative to motor and having a drive input coupled to the output drive and an assembly drive output; an interface on the drive assembly configured to support a cutting blade so as to be driven by the assembly drive output and configured to support a chain saw cutting assembly from the same interface when the cutting blade is removed and the chain saw cutting assembly driven by the same assembly drive output, characterized by a movable arm supported on the motor and having an arm drive element coupled to the output drive and wherein the arm includes a circular saw cutting assembly removably mounted to the arm and coupled to the output drive for driving the circular saw, and configured so that when the circular saw cutting assembly is removed from the arm the chain saw cutting assembly can be mounted to the arm and coupled to the output drive for driving the chain of the chain saw cutting assembly. a motor supported on a support and configured to be driven by a power source and having an output drive; a drive assembly supported relative to motor and having a drive input coupled to the output drive and an assembly drive output; an interface on the drive assembly configured to support a cutting blade so as to be driven by the assembly drive output and configured to support a chain saw cutting assembly from the same interface when the cutting blade is removed and the chain saw cutting assembly driven by the same assembly drive output, characterized by a movable arm supported on the motor and having an arm drive element coupled to the output drive and wherein the arm includes a circular saw cutting assembly removably mounted to the arm and coupled to the output drive for driving the circular saw, and configured so that when the circular saw cutting assembly is removed from the arm the chain saw cutting assembly can be mounted to the arm and coupled to the output drive for driving the chain of the chain saw cutting assembly.
A method, comprising: receiving (S2-13) a data request from a first application that operates in a first environment of a mobile device, wherein the data request contains data identifying the first application or an entity associated with the first application, the data request received by a second application that operates in a second environment in parallel to the first environment of the mobile device, wherein the second application is a trusted application that operates in a secure environment; processing (S2-15), by the second application, identity verification of the user; establishing, by the second application and subsequent to verification of the user's identity, a secure transmission path with a server over a data network via second application/server interfaces (17a, 17b); retrieving (S2-23), by the second application, a subset of user data elements from a database of the server based on the identifying data; and communicating (S2-35) the retrieved user data elements from the second application to the first application. receiving (S2-13) a data request from a first application that operates in a first environment of a mobile device, wherein the data request contains data identifying the first application or an entity associated with the first application, the data request received by a second application that operates in a second environment in parallel to the first environment of the mobile device, wherein the second application is a trusted application that operates in a secure environment; processing (S2-15), by the second application, identity verification of the user; establishing, by the second application and subsequent to verification of the user's identity, a secure transmission path with a server over a data network via second application/server interfaces (17a, 17b); retrieving (S2-23), by the second application, a subset of user data elements from a database of the server based on the identifying data; and communicating (S2-35) the retrieved user data elements from the second application to the first application.
Process for producing an article in an additive manufacturing method with layers of different materials, comprising the steps of: I) providing a construction material heated at least partly to a temperature above its glass transition temperature on a carrier, such that a layer of the construction material is obtained, corresponding to a first selected cross section of the article; II) providing a construction material heated at least partly to a temperature above its glass transition temperature on a previously provided layer of the construction material, such that a further layer of the construction material is obtained, corresponding to a further selected cross section of the article and bonded to the previously provided layer; III) repeating step II) until the article is formed; wherein the construction material in each of the individual steps II) is selected from a first construction material or a second construction material different therefrom, where the first construction material is a polycarbonate, characterized in that the second construction material is a thermoplastic polyurethane polymer, and in that step II) is conducted at least once with the first construction material and step II) is conducted at least once with the second construction material. I) providing a construction material heated at least partly to a temperature above its glass transition temperature on a carrier, such that a layer of the construction material is obtained, corresponding to a first selected cross section of the article; II) providing a construction material heated at least partly to a temperature above its glass transition temperature on a previously provided layer of the construction material, such that a further layer of the construction material is obtained, corresponding to a further selected cross section of the article and bonded to the previously provided layer; III) repeating step II) until the article is formed;
Device for measuring the isolation of a tap-off of an electrical network with isolated neutral, wherein means are configured to inject an AC signal of a first frequency (f 1) and of a second frequency (f 2) into the electrical network, said device comprising: - means for measuring the fault current (I d) at the first frequency (f 1) and at the second frequency (f 2), to be positioned across the tap-off, comprising a detection torus designed to surround the power supply line of said tap-off; - means for measuring the fault voltage (U d) at the first frequency (f 1) and at the second frequency (f 2), positioned across the tap-off; - a system for determining the fault impedance (Z d) of the tap-off characterized in that: - the means include means for servo-controlling the injected voltage in such a way as to have a constant injection amplitude at the first and at the second frequency (f1, f2), independently of the capacity of the electrical network, and - the system for determining the fault impedance includes means for evaluating the resistive or capacitive nature of the fault impedance (Z d) of the tap-off, by comparing the ratio of the first and second injection frequencies (f1/f2) and the ratio between the amplitudes of the fault current I d at the first and at the second frequency (f 1, f 2) measured across said tap-off. - means for measuring the fault current (I d) at the first frequency (f 1) and at the second frequency (f 2), to be positioned across the tap-off, comprising a detection torus designed to surround the power supply line of said tap-off; - means for measuring the fault voltage (U d) at the first frequency (f 1) and at the second frequency (f 2), positioned across the tap-off; - a system for determining the fault impedance (Z d) of the tap-off - the means include means for servo-controlling the injected voltage in such a way as to have a constant injection amplitude at the first and at the second frequency (f1, f2), independently of the capacity of the electrical network, and - the system for determining the fault impedance includes means for evaluating the resistive or capacitive nature of the fault impedance (Z d) of the tap-off, by comparing the ratio of the first and second injection frequencies (f1/f2) and the ratio between the amplitudes of the fault current I d at the first and at the second frequency (f 1, f 2) measured across said tap-off.
A method for controlling dual connectivity in a communication system, comprising determining information on at least one secondary radio link failure in relation to a communication device connected to a master access point and a source secondary access point, wherein the at least one secondary radio link failure is caused by one of too early handover to a target secondary access point and handover to a wrong target secondary access point, and causing communication of the determined information to the source secondary access point for use in modifying mobility control parameters of the source secondary access point.
A process for obtaining a carbon black composition, comprising or consisting of the following steps: subjecting a hydrocarbon raw material into a high temperature combustion gas stream in order to achieve thermochemical decomposition, cooling the reaction gases and recovering of the carbon black thus obtained, wherein said combustion gas stream consists of at least one oxidant and at least one fuel component, (i) at least a part of said oxidant and/or said fuel component is subjected to an electrical pre-heating step before it is introduced into the pre-combustion chamber to form a high temperature combustion gas stream; (ii) said high-temperature combustion gas stream of step (i) is transferred into a choke area for combustion; and (iii) and the combustion products obtained in step (ii) are transferred into a reaction tunnel including a terminating zone to form carbon black particles to be recovered, and wherein the process is conducted in the furnace reactor according to Claim 11. subjecting a hydrocarbon raw material into a high temperature combustion gas stream in order to achieve thermochemical decomposition, cooling the reaction gases and recovering of the carbon black thus obtained, said combustion gas stream consists of at least one oxidant and at least one fuel component, (i) at least a part of said oxidant and/or said fuel component is subjected to an electrical pre-heating step before it is introduced into the pre-combustion chamber to form a high temperature combustion gas stream; (ii) said high-temperature combustion gas stream of step (i) is transferred into a choke area for combustion; and (iii) and the combustion products obtained in step (ii) are transferred into a reaction tunnel including a terminating zone to form carbon black particles to be recovered, (i) at least a part of said oxidant and/or said fuel component is subjected to an electrical pre-heating step before it is introduced into the pre-combustion chamber to form a high temperature combustion gas stream; (ii) said high-temperature combustion gas stream of step (i) is transferred into a choke area for combustion; and (iii) and the combustion products obtained in step (ii) are transferred into a reaction tunnel including a terminating zone to form carbon black particles to be recovered, and wherein the process is conducted in the furnace reactor according to Claim 11.
Method for determining the protein Ca-cofactor activity of protein S in a human or animal body fluid sample, wherein a. the sample is mixed, in a first reaction volume, with i. activated protein C or a substance for activating protein C and ii. factor Va or a substance for directly or indirectly activating factor V b. and wherein the coagulation reaction is measured in the reaction volume, characterized in that the sample is mixed, in a second reaction volume, with an inhibitor which inhibits the protein Ca-cofactor activity of protein S, in addition to the same components which are used for providing the first reaction volume, and the coagulation reaction is measured in the reaction volume, and then the protein Ca-cofactor activity of protein S is determined by calculating the quotient of the coagulation reaction measured in the first reaction volume and the coagulation reaction measured in the second reaction volume. a. the sample is mixed, in a first reaction volume, with i. activated protein C or a substance for activating protein C and ii. factor Va or a substance for directly or indirectly activating factor V i. activated protein C or a substance for activating protein C and ii. factor Va or a substance for directly or indirectly activating factor V b. and wherein the coagulation reaction is measured in the reaction volume,
A mobile hand-held device comprising: an air conduction microphone that is configured to convert acoustic waves into an electric microphone signal, at least one of a first alternative sensor and a second alternative sensor, said first alternative sensor other than the air conduction microphone being configured to provide a first electric alternative sensor signal indicative of speech, said second alternative sensor other than the air conduction microphone being configured to provide a second alternative sensor signal, and a processor that is configured to use the microphone signal and the first and/or second alternative sensor signal to estimate a clean speech value, wherein the first alternative sensor and the second alternative sensor comprise bone conduction sensors, the mobile hand-held device includes a speaker which is configured to be positioned near a user's left or right ear, the speaker and the first and the second alternative sensor face into the same direction, and when the device is positioned near the user's left or right ear and the speaker faces the respective ear, the first or the second bone conduction sensor is configured to contact the user's skull or ear and to produce the alternative sensor signal. an air conduction microphone that is configured to convert acoustic waves into an electric microphone signal, at least one of a first alternative sensor and a second alternative sensor, said first alternative sensor other than the air conduction microphone being configured to provide a first electric alternative sensor signal indicative of speech, said second alternative sensor other than the air conduction microphone being configured to provide a second alternative sensor signal, and a processor that is configured to use the microphone signal and the first and/or second alternative sensor signal to estimate a clean speech value, wherein the first alternative sensor and the second alternative sensor comprise bone conduction sensors, the mobile hand-held device includes a speaker which is configured to be positioned near a user's left or right ear, the speaker and the first and the second alternative sensor face into the same direction, and when the device is positioned near the user's left or right ear and the speaker faces the respective ear, the first or the second bone conduction sensor is configured to contact the user's skull or ear and to produce the alternative sensor signal.
An isoxazoline parasiticide ophthalmic composition for use in treating an ocular Demodex infestation in a human patient, wherein the isoxazoline parasiticide ophthalmic composition is in eye drop form, wherein the isoxazoline parasiticide ophthalmic composition comprises a pharmaceutically acceptable vehicle, and wherein the ophthalmic composition is to be topically delivered to one or more of the eye, eyelids, or eyelashes of the patient. wherein the isoxazoline parasiticide ophthalmic composition is in eye drop form, wherein the isoxazoline parasiticide ophthalmic composition comprises a pharmaceutically acceptable vehicle, and wherein the ophthalmic composition is to be topically delivered to one or more of the eye, eyelids, or eyelashes of the patient.
A card disposal apparatus that disposes of cards dealt on a game table from a dealing shoe, after use in a game, the card disposal apparatus comprising: a port that receives the cards to be disposed of; a counter that counts and stores the number of the cards received through the port; a disposal card stocker that receives the cards put in the port; and deck check means that determines whether all cards put in the port are complete in terms of a number equivalent to a predetermined number of decks, the disposal card stocker including multiple pockets that are partitioned by multiple partitions, each of the pockets having a structure capable of receiving cards that are dealt from the dealing shoe, that are used in the game and that are collected, and capable of receiving in use all cards that remain in the dealing shoe without being used, the deck check means totally counting the number of cards that are used in each game and that are counted by the counter and the number of the cards that remain in the dealing shoe without being used, and determining whether the disposed cards are complete in terms of the number equivalent to the predetermined number of decks, the multiple pockets of the disposal card stocker having structures capable of moving relative to a main body of the apparatus and capable of receiving different sets of cards, and further having structures of being detachable from a main body of the apparatus. a port that receives the cards to be disposed of; a counter that counts and stores the number of the cards received through the port; a disposal card stocker that receives the cards put in the port; and deck check means that determines whether all cards put in the port are complete in terms of a number equivalent to a predetermined number of decks, the disposal card stocker including multiple pockets that are partitioned by multiple partitions, each of the pockets having a structure capable of receiving cards that are dealt from the dealing shoe, that are used in the game and that are collected, and capable of receiving in use all cards that remain in the dealing shoe without being used, the deck check means totally counting the number of cards that are used in each game and that are counted by the counter and the number of the cards that remain in the dealing shoe without being used, and determining whether the disposed cards are complete in terms of the number equivalent to the predetermined number of decks, the multiple pockets of the disposal card stocker having structures capable of moving relative to a main body of the apparatus and capable of receiving different sets of cards, and further having structures of being detachable from a main body of the apparatus.
A method in a wireless communication device which includes a first wireless transceiver and a second wireless transceiver, the method comprising: communicating via the first wireless transceiver over a first wireless connection with a first device, where communications to and/or from the wireless device are addressed with a first universally administered hardware address assigned to the first wireless transceiver; and communicating via the first wireless transceiver over a second wireless connection with a second device, where communications to and/or from the wireless device are addressed with a second universally administered hardware address assigned to the second wireless transceiver, wherein the first wireless transceiver is configured to communicate in accordance with a first communications standard and the second wireless transceiver is configured to communicate in accordance with a second communications standard, wherein the first and second communications standards are different communications standards. communicating via the first wireless transceiver over a first wireless connection with a first device, where communications to and/or from the wireless device are addressed with a first universally administered hardware address assigned to the first wireless transceiver; and communicating via the first wireless transceiver over a second wireless connection with a second device, where communications to and/or from the wireless device are addressed with a second universally administered hardware address assigned to the second wireless transceiver, wherein the first wireless transceiver is configured to communicate in accordance with a first communications standard and the second wireless transceiver is configured to communicate in accordance with a second communications standard, wherein the first and second communications standards are different communications standards.
An antibody that specifically binds to CD38, the antibody comprising a heavy chain variable region that comprises the amino acid sequence of SEQ ID NO: 156 and a light chain variable region that comprises the amino acid sequence of SEQ ID NO: 185.
A method of instrumental assessment of the degree of oxidation or state of charge of a positive electrolyte solution containing a V +4 /V +5 redox ion couple of a working redox flow battery cell, comprising the steps of: a) procuring a undivided cell assembly comprising a stable electro catalytic metal electrode and a porous carbon counter-electrode similar to the porous carbon electrodes employed in the battery cell, immersed in the positive electrolyte circulating in a positive electrolyte solution flow compartment of the battery cell, the degree of oxidation of its redox couple or state of charge of which must be assessed; b) supplying the two electrodes of the test cell at a positive regulated DC voltage between said stable electro catalytic metal electrode and said porous carbon counter-electrode and measuring the current flowing through said undivided cell at one or several different regulated DC supply voltages in a range comprising the interval from 0.35V and 0.45V; c) producing an estimated value of the degree of oxidation or state of charge of the positive electrolyte solution from at least a pair of measured voltage and current values within the region on a Cartesian voltage-current plane defined by said voltage interval. a) procuring a undivided cell assembly comprising a stable electro catalytic metal electrode and a porous carbon counter-electrode similar to the porous carbon electrodes employed in the battery cell, immersed in the positive electrolyte circulating in a positive electrolyte solution flow compartment of the battery cell, the degree of oxidation of its redox couple or state of charge of which must be assessed; b) supplying the two electrodes of the test cell at a positive regulated DC voltage between said stable electro catalytic metal electrode and said porous carbon counter-electrode and measuring the current flowing through said undivided cell at one or several different regulated DC supply voltages in a range comprising the interval from 0.35V and 0.45V; c) producing an estimated value of the degree of oxidation or state of charge of the positive electrolyte solution from at least a pair of measured voltage and current values within the region on a Cartesian voltage-current plane defined by said voltage interval.