mhurhangee/ep-ind-claims huggingface dataset:
An exhaust sensor comprising a sensing electrode and a reference electrode each in physical contact with an electrolyte portion; wherein at least one of the sensing electrode and the reference electrode are formed by depositing an electrode precursor material configured as a pattern on an electrolyte portion precursor material and sintering the combination at a sufficient temperature for a sufficient time to achieve densification of the electrolyte portion, wherein the electrode precursor material comprises an alkali salt, wherein the sensing electrode and the reference electrode are disposed on opposite sides of, and in ionic contact with, the electrolyte portion, characterised in that the perimeter of at least one of the sensing electrode and the reference electrode is greater than the perimeter of the smallest rectangle that can be defined to completely enclose the pattern of said sensing electrode or said reference electrode by an amount sufficient to produce an exhaust sensor impedance after sintering less than 200 ohms at an exhaust sensor temperature at or below 450 degrees C.
A combustion control method for a regenerative-combustion heating furnace in which a heating furnace is provided with at least a pair of regenerative burners (20a, 20b) each including a burner portion equipped with a fuel injection nozzle and a regenerator accomodating a heat storage material (22a, 22b) therein and in which the paired regenerative burners (20a, 20b) are switched to alternate between operations in a manner such that one regenerative burner of the pair performs a combusting operation by introducing a combustion air to the burner portion via the regenerator and injecting a fuel gas from the fuel injection nozzle of this burner portion while the other regenerative burner performs an operation of introducing a combustion exhaust gas into the regenerator and allowing the heat storage material to store heat from the combustion exhaust gas before discharging the combustion exhaust gas through an exhaust gas discharge pipe, wherein in conjunction with stopping the combusting and heat storing operations in the paired regenerative burners, combustion air is temporarily supplied to the regenerative burner which is performing, at the time of operation stop, the operation of introducing the combustion exhaust gas into the regenerator and allowing the heat storage material to store the heat from the combustion exhaust gas before discharging the combustion exhaust gas, whereby exhaust gas remaining in the regenerator is discharged into the furnace, characterized in that combustion air is introduced, at the time of operation stop, to said exhaust gas discharge pipe whereby exhaust gas remaining in the discharge pipe is discharged to the outside of the furnace.
A mobile power supply terminal, comprising a power supply source, a control circuit, a power supply interface, and a trigger circuit, wherein the power supply source is separately connected to the power supply interface and the control circuit; one end of the power supply interface is separately connected to the trigger circuit and the control circuit, and the other end is configured to be connected to a charging interface of a to-be-charged device, wherein the to-be-charged device can be connected to the mobile power supply terminal by using the power supply interface; and wherein the mobile power supply terminal is configured to perform the following, if there is a connection between the to-be-charged device and the mobile power supply terminal: one end of the power supply interface generates a level signal, the trigger circuit generates a trigger signal according to the level signal, and sends the trigger signal to the control circuit, and the control circuit controls, according to the trigger signal, the mobile power supply terminal to enter a power supply mode, and controls the power supply source to supply power to the to-be-charged device by using the power supply interface, wherein the control circuit in the power supply mode is configured only to control the power supply source to supply power to the to-be-charged device.
A method performed by an electronic device, the method comprising: sending a shared secret to be sent to a contact to initiate a key exchange to protect messages exchanged in an instant messaging conversation, the shared secret being sent out-of-band using a communication medium other than instant messaging; after the shared secret has been sent, displaying a pending protected instant messaging conversation user interface prior to receiving a confirmation associated with receipt of the shared secret by the contact, the pending protected instant messaging conversation user interface comprising an option to resend the shared secret; further comprising displaying at least one notification in the pending protected instant messaging conversation user interface, the at least one notification comprising a status associated with the confirmation of the shared secret; and further comprising displaying available contact types for selection from a plurality of out-of-band communication channels to send or resend the shared secret. sending a shared secret to be sent to a contact to initiate a key exchange to protect messages exchanged in an instant messaging conversation, the shared secret being sent out-of-band using a communication medium other than instant messaging; after the shared secret has been sent, displaying a pending protected instant messaging conversation user interface prior to receiving a confirmation associated with receipt of the shared secret by the contact, the pending protected instant messaging conversation user interface comprising an option to resend the shared secret; further comprising displaying at least one notification in the pending protected instant messaging conversation user interface, the at least one notification comprising a status associated with the confirmation of the shared secret; and further comprising displaying available contact types for selection from a plurality of out-of-band communication channels to send or resend the shared secret.
A coupling means equipped with a first member suitable for being fixed to a first rotary element and a second member suitable for being fixed to a second rotary element, the first member being provided with a first diaphragm and the second member being provided with a second diaphragm which is joined to the first diaphragm to allow an axial and/or angular and/or lateral offset between the said rotary elements (2, 3), the coupling means including a backup device for transmitting torque for connecting the first rotary element to the second rotary element in the event of at least one diaphragm or at least one connection between the diaphragms rupturing, characterised in that the said backup device comprises at least one bayonet system including a protuberance which is joined to a member, which cooperates with an elbowed channel joined to the other member, and which is inserted in the elbowed channel by a push-and-rotate movement (F1, F2), in the absence of the said rupture the said coupling means comprising an axial compressive play and an axial tractional play (70") and a circumferential play between each protuberance and walls (63, 64, 66) delimiting the corresponding elbowed channel.
A refrigerator comprising: a cabinet having an inner case in which a storage chamber is formed; a partition member dividing the storage chamber into a first space and a second space which have different storage chamber temperatures ranges; a cooler configured to cool the storage chamber; a heater configured to heat the storage chamber; a first fan configured to circulate air in the storage chamber; and a controller configured to operate at least one of the cooler, the heater, or the first fan to manage a temperature in the storage chamber, wherein the controller is configured to operate the first fan when the heater is operated, wherein the controller is configured to lengthen an on time of the first fan and shorten an off time of the first fan when a difference between a temperature of the first space and a temperature of the second space is large, wherein large is defined as 9 deg. C or more, and/or wherein the controller is configured to lengthen an on time of the first fan and shorten an off time of the first fan when a difference between a target temperature of the first space and a target temperature of the second space is large, wherein large is defined as 9 deg. C or more. a cabinet having an inner case in which a storage chamber is formed; a partition member dividing the storage chamber into a first space and a second space which have different storage chamber temperatures ranges; a cooler configured to cool the storage chamber; a heater configured to heat the storage chamber; a first fan configured to circulate air in the storage chamber; and a controller configured to operate at least one of the cooler, the heater, or the first fan to manage a temperature in the storage chamber, wherein the controller is configured to operate the first fan when the heater is operated, wherein the controller is configured to lengthen an on time of the first fan and shorten an off time of the first fan when a difference between a temperature of the first space and a temperature of the second space is large, wherein large is defined as 9 deg. C or more, and/or wherein the controller is configured to lengthen an on time of the first fan and shorten an off time of the first fan when a difference between a target temperature of the first space and a target temperature of the second space is large, wherein large is defined as 9 deg. C or more.
Method for simulating a surface roughness type on a surface of at least an aircraft part, the method comprising the following steps: a) selecting the surface roughness type that is going to be simulated, b) providing parameters associated to the selected surface roughness type, said parameters at least comprising the maximum roughness and density of said surface roughness type, c) obtaining a pattern according to the parameters provided on step b), d) providing at least an aircraft part having a surface thickness higher than the maximum roughness parameter, e) forming the pattern on at least a portion of the surface of the provided aircraft part by means of a laser, and f) obtaining the aircraft part with the selected roughness type simulated; wherein the pattern is a projection lattice comprising a plurality of longitudinal projections and a plurality of transverse projections being perpendicular to the longitudinal projections, both pluralities of projections (4, 5) having a height corresponding to the maximum roughness of selected surface roughness type, so that where each two consecutive longitudinal projections intersect with two consecutive transverse projections a recess is formed. a) selecting the surface roughness type that is going to be simulated, b) providing parameters associated to the selected surface roughness type, said parameters at least comprising the maximum roughness and density of said surface roughness type, c) obtaining a pattern according to the parameters provided on step b), d) providing at least an aircraft part having a surface thickness higher than the maximum roughness parameter, e) forming the pattern on at least a portion of the surface of the provided aircraft part by means of a laser, and f) obtaining the aircraft part with the selected roughness type simulated;
A human Arginase I or Arginase II protein for use in a method of treating a human patient having cancer, particularly an arginine auxotrophic cancer, comprising administering to the patient a formulation comprising said protein, said human Arginase I or Arginase II protein having a metal binding site and comprising at least one amino acid substitution at the metal binding site, wherein the protein displays an increase in the hydrolysis of Arginine that results in a k cat /K m of at least two fold greater than that of a native human Arginase I having an amino acid sequence encoded by SEQ ID NO:1 or a native human Arginase II having an amino acid sequence encoded by SEQ ID NO:2, wherein said human Arginase I or Arginase II protein comprises a non-native metal cofactor, and wherein said non-native metal cofactor is cobalt.
A dual-pump fluid distribution system (100, 200, 300) capable of switching between single-pump mode and dual-pump mode depending on fluid flow demand, the dual-pump fluid distribution system comprising: a first pump (104, 204, 304) having an inlet (115, 229, 333) and an outlet (115, 230, 334), the first pump configured to supply a first flow of fluid; a second pump (106, 206, 306) having an inlet (141, 221, 321) and an outlet (142, 222, 323), the second pump configured to supply a second flow of fluid; a bypass flow valve (118, 235, 342) having a valve member (122, 238, 344), a biasing element (126, 240, 345), and a four-way hydraulic bridge (124, 242, 348), the bypass flow valve configured to initiate the switch between single-pump mode and dual-pump mode based on fluid flow demand; wherein the bypass flow valve is configured such that the position of the bypass flow valve member relative to the four-way hydraulic bridge operates a pump selector valve (134, 214, 358); and characterised in that the pump selector valve has a valve member (136, 216, 360), a biasing element (138, 218, 362), and a pressure switching port (140, 212, 364), the pump selector valve configured such that the position of the valve member determines whether the second flow of fluid is combined with the first flow of fluid. a first pump (104, 204, 304) having an inlet (115, 229, 333) and an outlet (115, 230, 334), the first pump configured to supply a first flow of fluid; a second pump (106, 206, 306) having an inlet (141, 221, 321) and an outlet (142, 222, 323), the second pump configured to supply a second flow of fluid; a bypass flow valve (118, 235, 342) having a valve member (122, 238, 344), a biasing element (126, 240, 345), and a four-way hydraulic bridge (124, 242, 348), the bypass flow valve configured to initiate the switch between single-pump mode and dual-pump mode based on fluid flow demand; wherein the bypass flow valve is configured such that the position of the bypass flow valve member relative to the four-way hydraulic bridge operates a pump selector valve (134, 214, 358); and characterised in that the pump selector valve has a valve member (136, 216, 360), a biasing element (138, 218, 362), and a pressure switching port (140, 212, 364), the pump selector valve configured such that the position of the valve member determines whether the second flow of fluid is combined with the first flow of fluid.
A multi-layer web comprising: a multi-layer web of film windable on a core and adapted to be slit to form scored lidding film for blister packages, the film being formed without a metal layer and including an inner seal layer and an outer layer of different thermoplastic polymer materials, the inner seal layer configured to form a thermal weld seal with a base substrate of a blister package, while the outer layer has a scored area configured to rupture and release a product contained in a recess of a base substrate without breaking the weld seal, the web being unwound from the core in a machine M direction transverse to a central longitudinal axis CL of the core on which the web is wound, the scored area being sized to cover a plurality of recesses in a base substrate of a blister package and comprising a plurality of individual scored formations spaced from one another, the scoring being uniformly distributed in the scored area, without the need for registering the scored formations with individual recesses in the machine M direction or a direction transverse thereto, and the scored area being formed by passing the web against a scoring roller to mechanically score partially through the outer layer without scoring the inner seal layer, wherein the scoring depth is between 30% and 70% of the outer layer thickness, the inner seal layer comprises 5% to 30% of the total film thickness and the outer layer comprises 70% to 95% of the total film thickness, the total film thickness being of the multi-layer web of film, and the multi-layer web of film is from 20 to 80 micron in thickness. a multi-layer web of film windable on a core and adapted to be slit to form scored lidding film for blister packages, the film being formed without a metal layer and including an inner seal layer and an outer layer of different thermoplastic polymer materials, the inner seal layer configured to form a thermal weld seal with a base substrate of a blister package, while the outer layer has a scored area configured to rupture and release a product contained in a recess of a base substrate without breaking the weld seal, the web being unwound from the core in a machine M direction transverse to a central longitudinal axis CL of the core on which the web is wound, the scored area being sized to cover a plurality of recesses in a base substrate of a blister package and comprising a plurality of individual scored formations spaced from one another, the scoring being uniformly distributed in the scored area, without the need for registering the scored formations with individual recesses in the machine M direction or a direction transverse thereto, and the scored area being formed by passing the web against a scoring roller to mechanically score partially through the outer layer without scoring the inner seal layer, wherein the scoring depth is between 30% and 70% of the outer layer thickness, the inner seal layer comprises 5% to 30% of the total film thickness and the outer layer comprises 70% to 95% of the total film thickness, the total film thickness being of the multi-layer web of film, and the multi-layer web of film is from 20 to 80 micron in thickness.
Method for the production of a shoe, especially of a sport shoe, with a shoe upper and a midsole which is arranged at the shoe upper, wherein the shoe comprises an upper region and a bottom region during intended use, characterized in that the method comprises the steps: a) Production of the shoe upper of the shoe, wherein a receiving pocket is arranged at the bottom side of the shoe upper, which receiving pocket forms a receiving space for the material of the midsole which receiving space is at least substantially closed, wherein the receiving pocket consists of a thin, elastic material; b) Placement of the shoe upper including the receiving pocket in a moulding tool (6, 7, 8); c) Pouring or injecting of flowable plastic material into the receiving space of the receiving pocket to form the midsole, wherein the receiving pocket increases its volume balloon-like; d) Letting solidify of the poured or injected plastic material; e) Demoulding of the shoe upper including receiving pocket and poured or injected midsole from the moulding tool (6, 7, 8). a) Production of the shoe upper of the shoe, wherein a receiving pocket is arranged at the bottom side of the shoe upper, which receiving pocket forms a receiving space for the material of the midsole which receiving space is at least substantially closed, wherein the receiving pocket consists of a thin, elastic material; b) Placement of the shoe upper including the receiving pocket in a moulding tool (6, 7, 8); c) Pouring or injecting of flowable plastic material into the receiving space of the receiving pocket to form the midsole, wherein the receiving pocket increases its volume balloon-like; d) Letting solidify of the poured or injected plastic material; e) Demoulding of the shoe upper including receiving pocket and poured or injected midsole from the moulding tool (6, 7, 8).
A method for switching a working mode on a relay network, comprising: Sending, by a donor eNB, DeNB, an RN reconfiguration message to a relay node, RN, in frequency division duplex, FDD, mode, so that the RN switches from the FDD mode to a half-duplex frequency division duplex, H-FDD, mode; Receiving, by the DeNB, an acknowledgment message sent by the RN in FDD mode; and when the DeNB verifies, according to the RN reconfiguration message and the acknowledgement message, that the RN has already started to switch from the FDD mode to the H-FDD mode, switching, by the DeNB, from the FDD mode to the H-FDD mode. Sending, by a donor eNB, DeNB, an RN reconfiguration message to a relay node, RN, in frequency division duplex, FDD, mode, so that the RN switches from the FDD mode to a half-duplex frequency division duplex, H-FDD, mode; Receiving, by the DeNB, an acknowledgment message sent by the RN in FDD mode; and when the DeNB verifies, according to the RN reconfiguration message and the acknowledgement message, that the RN has already started to switch from the FDD mode to the H-FDD mode, switching, by the DeNB, from the FDD mode to the H-FDD mode.
Air purifying device for purifying air, comprising a housing, on which an air inlet and an air outlet are formed, which are fluidically interconnected via a flow path extending in the housing, wherein an air conveying device for conveying the air along the flow path and an air filter for filtering foreign particles out of the air are arranged in the flow path, wherein the air filter comprises at least one filter body of a motor vehicle particle filter made of a ceramic material having a lipophilic surface, characterized in that a heating device is provided fluidly between the air inlet and the air filter.
A session handling method, comprising: receiving, by a terminal, a terminal route selection policy, URSP, table from a network, wherein the URSP table comprises: a traffic filter, direct offload information, slice information, continuity types, a data network, DN, identifier, an access type, and a session type, wherein the traffic filter includes a first application, APP, and wherein the session type is an Ethernet type; initiating, by the terminal, the first APP, and determining based on a first correspondence comprised in the URSP table, a first session type corresponding to the first APP, wherein the first correspondence is a correspondence between the first APP and the first session type; and sending, by the terminal, a first message to an access and mobility management function, AMF, entity, wherein the first message comprises the first session type, and the first message request to establish a session of the first session type. receiving, by a terminal, a terminal route selection policy, URSP, table from a network, wherein the URSP table comprises: a traffic filter, direct offload information, slice information, continuity types, a data network, DN, identifier, an access type, and a session type, wherein the traffic filter includes a first application, APP, and wherein the session type is an Ethernet type; initiating, by the terminal, the first APP, and determining based on a first correspondence comprised in the URSP table, a first session type corresponding to the first APP, wherein the first correspondence is a correspondence between the first APP and the first session type; and sending, by the terminal, a first message to an access and mobility management function, AMF, entity, wherein the first message comprises the first session type, and the first message request to establish a session of the first session type.