mhurhangee/ep-ind-claims huggingface dataset:
A refrigerant pipe for a refrigerant circuit of a refrigeration apparatus, the refrigerant pipe comprising: a first pipe; and a second pipe, wherein the first pipe includes a first pipe body including stainless steel and a first connection provided at an end of the first pipe body in a pipe axial direction and including a material different from stainless steel, the second pipe includes a second pipe body including stainless steel and a second connection provided at an end of the second pipe body in the pipe axial direction and including a material whose main component is same as a main component of the material of the first connection, and the first connection and the second connection are connected to each other; the end of the first pipe body and the end of the second pipe body are disposed to overlap each other in a pipe radial direction. a first pipe; and a second pipe, wherein the first pipe includes a first pipe body including stainless steel and a first connection provided at an end of the first pipe body in a pipe axial direction and including a material different from stainless steel, the second pipe includes a second pipe body including stainless steel and a second connection provided at an end of the second pipe body in the pipe axial direction and including a material whose main component is same as a main component of the material of the first connection, and the first connection and the second connection are connected to each other; the end of the first pipe body and the end of the second pipe body are disposed to overlap each other in a pipe radial direction.
Two-component polyurethane composition consisting of a polyol component K1 and a polyisocyanate component K2; wherein the polyol component K1 comprises at least one reaction product of castor oil with ketone resins with an OH number of 110 to 200 mg KOH/g A1, and at least one aliphatic triol A2, and wherein the polyisocyanate component K2 comprises at least one aromatic polyisocyanate B1, wherein the weight percent ratio (A1/A2) is 4-50 and wherein the ratio of all the NCO groups of the aromatic polyisocyanates B1 to all the OH groups in the sum of (A1+A2) = 1.15:1-0.85:1, wherein the aliphatic triol A2 is - 1,2,3-propanetriol and/or - 1,1,1-trimethylolpropane and/or - polyether polyols based on 1,1,1-trimethylolpropane with a molecular weight of 170-500 g/mol and an OH number of 400-1100 mg KOH/g, and wherein the total of all the OH groups of (A1+A2) is ≥ 90% of the total of all the OH groups of the two-component polyurethane composition. comprises at least one reaction product of castor oil with ketone resins with an OH number of 110 to 200 mg KOH/g A1, and at least one aliphatic triol A2, and wherein the polyisocyanate component K2 comprises at least one aromatic polyisocyanate B1, - 1,2,3-propanetriol and/or - 1,1,1-trimethylolpropane and/or - polyether polyols based on 1,1,1-trimethylolpropane with a molecular weight of 170-500 g/mol and an OH number of 400-1100 mg KOH/g,
A nozzle cleaning module for a heat-melting type three-dimensional printer, comprising: a base housing; a main carrier, the main carrier being accommodated in the base housing, a wiper protruding upwardly being arranged on the main carrier, the main carrier including a sub-slope; a sub-carrier, the sub-carrier being accommodated in the main carrier, a cover protruding upwardly being arranged on the sub-carrier, at least a portion of the sub-carrier being in contact with the sub-slope; a driving assembly, the driving assembly being connected to the main carrier and obliquely lifting or lowering the main carrier with respect to the base housing to lift or lower the wiper, the movement of the main carrier moves the sub-carrier at the same time; characterized by an interference structure arranged corresponding to the sub-carrier, wherein when the interference structure is in contact with the sub-carrier while the sub-carrier is moving, the interference structure pushes the sub-carrier to move along the sub-slope with respect to the main carrier, and the cover thereby ascends. a base housing; a main carrier, the main carrier being accommodated in the base housing, a wiper protruding upwardly being arranged on the main carrier, the main carrier including a sub-slope; a sub-carrier, the sub-carrier being accommodated in the main carrier, a cover protruding upwardly being arranged on the sub-carrier, at least a portion of the sub-carrier being in contact with the sub-slope; a driving assembly, the driving assembly being connected to the main carrier and obliquely lifting or lowering the main carrier with respect to the base housing to lift or lower the wiper, the movement of the main carrier moves the sub-carrier at the same time; characterized by an interference structure arranged corresponding to the sub-carrier, wherein when the interference structure is in contact with the sub-carrier while the sub-carrier is moving, the interference structure pushes the sub-carrier to move along the sub-slope with respect to the main carrier, and the cover thereby ascends.
Cooking device having at least one heating unit, one control unit and at least one sensor unit, wherein the control unit is provided to identify an imminent cooking state of a food heated by the heating unit from a temporal course of a signal ( a 1 (t)) measured by the sensor unit, characterised in that the control unit is provided to execute a prediction relating to a cooking state to be expected in the future and to trigger a reduction in a heat output of the heating unit in order to counteract a transition to the expected cooking state.
A method for regenerating a catalyzed diesel particulate filter via active N02-based regeneration with enhanced effective NO2 supply, comprising: introducing a NOx containing gas into the DPF; and controlling a temperature of at least one of the DPF, the NOx containing gas, and soot in the DPF while controlling NOx levels at an inlet of the DPF so that the NOx containing gas reacts with the catalyst to form NO2 molecules that thereafter react with soot particles to form CO, CO2, and NO molecules and a NO2 efficiency is greater than 0.52 gC/gN02 and so that less than two thirds of the soot mass that is removed from the DPF is oxidized by 02 molecules in the gas to form CO and CO2 molecules. introducing a NOx containing gas into the DPF; and controlling a temperature of at least one of the DPF, the NOx containing gas, and soot in the DPF while controlling NOx levels at an inlet of the DPF so that the NOx containing gas reacts with the catalyst to form NO2 molecules that thereafter react with soot particles to form CO, CO2, and NO molecules and a NO2 efficiency is greater than 0.52 gC/gN02 and so that less than two thirds of the soot mass that is removed from the DPF is oxidized by 02 molecules in the gas to form CO and CO2 molecules.
A method of interactively determining coiling parameters for filling a lumen with at least one coil, comprising the steps of a) determining the volume of the lumen, wherein the volume of the lumen is determined based on angiography using an automated process for volume estimation, and b) interactively determining with a coiling parameterization tool at least one coil parameter, being a number of coils, a coil thickness or a coil length, in relation to a required packing, wherein a processor is configured to interactively determine the at least one coil parameter, and wherein packing is the ratio of a coil volume to the volume of the lumen; and wherein a required packing is predetermined. a) determining the volume of the lumen, wherein the volume of the lumen is determined based on angiography using an automated process for volume estimation, and b) interactively determining with a coiling parameterization tool at least one coil parameter, being a number of coils, a coil thickness or a coil length, in relation to a required packing,
A common mode choke (63; 63a; 64; 66) comprising: • a magnetic core; • a first winding (W ab) of insulated wire having a number of turns wound on said magnetic core; and • a second winding (W cd) of insulated wire having the same number of turns as the first winding wound on said magnetic core, wherein • the turns of each winding (W ab; W cd) are numbered consecutively; and • the turns of each winding (W ab; W cd) are arranged in at least two layers, of which a first layer (L 1) of turns is wound directly on said magnetic core and a second layer (L 2) of turns is wound around a section of said first layer, characterized in that • the first and second layers of each winding (W ab; W cd) are arranged such that the difference between the highest number of a turn in the second layer (L 2) and the lowest number of a turn in the section of the first layer (L 1) on which the second layer (L 2) is wound is less than or equal to 50 % of the number of turns in the first layer (L 1) of that winding; • the first layer (L 1) consists of turns having consecutive numbers from turn number one to the number of turns (N 1) in the first layer (L 1); • the second layer (L 2) consists of turns having consecutive numbers higher than the number of turns (N 1) in the first layer (L 1); and • the section of the first layer (L 1) on which the second layer (L 2) is wound comprises the highest numbered turns of the first layer (L 1). • a magnetic core; • a first winding (W ab) of insulated wire having a number of turns wound on said magnetic core; and • a second winding (W cd) of insulated wire having the same number of turns as the first winding wound on said magnetic core, wherein • the turns of each winding (W ab; W cd) are numbered consecutively; and • the turns of each winding (W ab; W cd) are arranged in at least two layers, of which a first layer (L 1) of turns is wound directly on said magnetic core and a second layer (L 2) of turns is wound around a section of said first layer, characterized in that • the first and second layers of each winding (W ab; W cd) are arranged such that the difference between the highest number of a turn in the second layer (L 2) and the lowest number of a turn in the section of the first layer (L 1) on which the second layer (L 2) is wound is less than or equal to 50 % of the number of turns in the first layer (L 1) of that winding; • the first layer (L 1) consists of turns having consecutive numbers from turn number one to the number of turns (N 1) in the first layer (L 1); • the second layer (L 2) consists of turns having consecutive numbers higher than the number of turns (N 1) in the first layer (L 1); and • the section of the first layer (L 1) on which the second layer (L 2) is wound comprises the highest numbered turns of the first layer (L 1).
A method for controlling an on-board aircraft network cell (2002-1, 2002-2, 2002-N) configured to be used in an on-board aircraft wireless communication network, wherein the network cell comprises at least one Wireless Module, WM, unit (2031 to 2035) and at least two Wireless Data Concentrator, WDC, units (2021, 2022), wherein the method comprises: establishing at least two independent wireless links each between the at least one WM unit and one of the at least two WDC units, wherein the method comprises dynamically scheduling channel access of the at least one WM unit and the at least two WDC units to one or more of the at least two wireless links by assigning the available at least two wireless links to the available resources in time, frequency and space by means of one or more of Time Division Multiple Access, TDMA, Frequency Division Multiple Access, FDMA, and Space Division Multiple Access, SDMA. establishing at least two independent wireless links each between the at least one WM unit and one of the at least two WDC units, wherein the method comprises dynamically scheduling channel access of the at least one WM unit and the at least two WDC units to one or more of the at least two wireless links by assigning the available at least two wireless links to the available resources in time, frequency and space by means of one or more of Time Division Multiple Access, TDMA, Frequency Division Multiple Access, FDMA, and Space Division Multiple Access, SDMA.
A membrane electrode assembly, comprising: a solid electrolyte layer; an anode layer provided on one side of the solid electrolyte layer; and a cathode layer provided on the other side of the solid electrolyte layer, the anode layer being stacked on the solid electrolyte layer to be pressed thereagainst, the anode layer including a porous anode member having electrical conductivity, wherein the solid electrolyte layer and the anode layer are not integrally fired, wherein the porous anode member is plastically deformed at least in vicinity of an interface in contact with the solid electrolyte layer. a solid electrolyte layer; an anode layer provided on one side of the solid electrolyte layer; and a cathode layer provided on the other side of the solid electrolyte layer, the anode layer being stacked on the solid electrolyte layer to be pressed thereagainst, the anode layer including a porous anode member having electrical conductivity, wherein the solid electrolyte layer and the anode layer are not integrally fired, wherein the porous anode member is plastically deformed at least in vicinity of an interface in contact with the solid electrolyte layer.
A medical data system comprising: a data unit for storing modules representing medical records of subjects, the medical data system being characterized in that: each module is represented as a vector including a plurality of vector elements each representing a dimension of said vector and a medically-relevant parameter of a subject, wherein each vector element is assigned a specific identifier in said vector and a numerical value corresponding to said medically-relevant parameter; and in that: further comprises an inference engine for comparing, based on identifiers of vector elements, values of at least a portion of said elements of a module of said subject to at least one model constructed from statistical characteristics of historical data of diagnosed subjects to thereby identify a drug prescription-related parameter not present in a medical file of said subject. each module is represented as a vector including a plurality of vector elements each representing a dimension of said vector and a medically-relevant parameter of a subject, wherein each vector element is assigned a specific identifier in said vector and a numerical value corresponding to said medically-relevant parameter; and in that: further comprises an inference engine for comparing, based on identifiers of vector elements, values of at least a portion of said elements of a module of said subject to at least one model constructed from statistical characteristics of historical data of diagnosed subjects to thereby identify a drug prescription-related parameter not present in a medical file of said subject.
A smoke composition effective in the visible and infrared ranges comprising at least one oxidant and at least one reducing agent as well as at least one smoke agent generating carbon particles, wherein this composition is characterised in that it comprises superchlorinated polyvinyl chloride (C-PVC) as the smoke agent, wherein the chlorine content of this smoke agent is between 57% and 70% of the weight of superchlorinated polyvinyl chloride, the composition comprising 49% to 90% by weight of superchlorinated polyvinyl chloride (C-PVC) relative to the total weight of the composition.
A user device (110, 310) configured to manage outside connections, the user device comprising: a processor configured to implement a connection manager, wherein the connection manager is configured to: receive an incoming connection alert associated with an incoming connection; determine when the incoming connection is answered at one of a set of one or more associated user devices, wherein each associated user device of the set of one or more associated user devices i) is capable of answering the incoming connection, and ii) is registered with a common user account at a network-accessible server; generate a silencing command based on the determination; and transmit the silencing command to the set of one or more associated user devices using a first mode of communication, the silencing command causing the set of one or more associated user devices to stop providing alerts for the incoming connection, wherein the connection manager is further configured to transmit the silencing command to the set of one or more associated user devices using a second mode of communication that is different from the first mode of communication. receive an incoming connection alert associated with an incoming connection; determine when the incoming connection is answered at one of a set of one or more associated user devices, wherein each associated user device of the set of one or more associated user devices i) is capable of answering the incoming connection, and ii) is registered with a common user account at a network-accessible server; generate a silencing command based on the determination; and transmit the silencing command to the set of one or more associated user devices using a first mode of communication, the silencing command causing the set of one or more associated user devices to stop providing alerts for the incoming connection, wherein the connection manager is further configured to transmit the silencing command to the set of one or more associated user devices using a second mode of communication that is different from the first mode of communication.
A device control method, comprising: receiving account information, a device identifier and a device control instruction sent by a user terminal; acquiring a universal infrared controller identifier corresponding to the device identifier and infrared pulse parameters corresponding to the device control instruction; sending the infrared pulse parameters to a universal infrared controller corresponding to the universal infrared controller identifier through a home gateway corresponding to the account information, wherein the infrared pulse parameters are provided for the universal infrared controller to generate an infrared pulse instruction, and the infrared pulse instruction is used to control a device corresponding to the device identifier to execute a corresponding operation. receiving account information, a device identifier and a device control instruction sent by a user terminal; acquiring a universal infrared controller identifier corresponding to the device identifier and infrared pulse parameters corresponding to the device control instruction; sending the infrared pulse parameters to a universal infrared controller corresponding to the universal infrared controller identifier through a home gateway corresponding to the account information, wherein the infrared pulse parameters are provided for the universal infrared controller to generate an infrared pulse instruction, and the infrared pulse instruction is used to control a device corresponding to the device identifier to execute a corresponding operation.
A computer-implemented system for automated configuration of a computer system according to a security policy, the system comprising: an interface for communicative connection to at least one computer system; a policy application module configured to acquire, via the interface, configuration data of any computer system when said computer system is in communicative connection with the interface; an instruction forming module configured to generate at least one configuration change instruction based on the configuration data provided by the policy application module; a security policies database accessible by the policy application module; an applications database accessible by the instruction forming module, wherein: the instruction forming module is configured to generate at least one configuration change instruction and provides it to the policy application module; and the policy application module sends the configuration change instructions to the interface for execution by the computer system in communicative connection with the interface and for implementation of a change in the configuration of the computer system defined by the configuration change instruction. an interface for communicative connection to at least one computer system; a policy application module configured to acquire, via the interface, configuration data of any computer system when said computer system is in communicative connection with the interface; an instruction forming module configured to generate at least one configuration change instruction based on the configuration data provided by the policy application module; a security policies database accessible by the policy application module; an applications database accessible by the instruction forming module, wherein: the instruction forming module is configured to generate at least one configuration change instruction and provides it to the policy application module; and the policy application module sends the configuration change instructions to the interface for execution by the computer system in communicative connection with the interface and for implementation of a change in the configuration of the computer system defined by the configuration change instruction. the instruction forming module is configured to generate at least one configuration change instruction and provides it to the policy application module; and the policy application module sends the configuration change instructions to the interface for execution by the computer system in communicative connection with the interface and for implementation of a change in the configuration of the computer system defined by the configuration change instruction.
Lock for closing a door with respect to a frame, comprising a lock body and a striker, wherein the lock body is mounted on the door and the striker is mounted on the frame, or vice versa, wherein the lock body comprises: - a catch element mounted so as to rotate between a keep position K and a release position R of the striker; - elastic means suitable for driving the catch element from the striker keep position K to the striker release position R; - a lever suitable for moving between two positions, a closing position C in which it maintains the catch element in the striker keep position K and an opening position O in which it is disengaged from the catch element; - a service actuator suitable for applying a force f on the lever so as to bring it from the closing position C to the opening position O; wherein the lock body further comprises a shape memory alloy actuator suitable for applying a force F on the lever so as to bring it from the closing position C to the opening position O, wherein the shape memory alloy actuator is designed in such a manner that it can apply a force F higher than 100 N, characterized in that the shape memory alloy actuator comprises blocking means for allowing the force F to be applied on the lever only when the force F exceeds a predetermined threshold value as effect of a fracture or sudden deformation of said blocking means. - a catch element mounted so as to rotate between a keep position K and a release position R of the striker; - elastic means suitable for driving the catch element from the striker keep position K to the striker release position R; - a lever suitable for moving between two positions, a closing position C in which it maintains the catch element in the striker keep position K and an opening position O in which it is disengaged from the catch element; - a service actuator suitable for applying a force f on the lever so as to bring it from the closing position C to the opening position O;