mhurhangee/patent-ind-claim-en huggingface dataset:
A magnetic detection device comprising: a magnetoimpedance sensor element including a magnetic sensitive body that is configured to cause a magnetization change corresponding to a strength of a magnetic field (B ACT ) when an excitation current is supplied, and a detection coil that is wound around the magnetic sensitive body and is configured to output an induced voltage caused by the magnetization change of the magnetic sensitive body ; a main operational amplifier (OP_M) having an inverting input terminal and a non-inverting input terminal, one of which is connected to a first end of the detection coil , and an other of which is connected to a second end of the detection coil opposite to the first end ; a first feedback circuit that is connected between an output terminal of the main operational amplifier (OP_M) and the first end of the detection coil and is configured to generate a first feedback voltage (V FB1 ) for causing a feedback current (I FB ) in the detection coil ; and a second feedback circuit that is connected between the output terminal of the main operational amplifier (OP_M) and the second end of the detection coil and is configured to generate a second feedback voltage (V FB2 ) with a polarity that inverts a polarity of the first feedback voltage (V FB1 ) with respect to a predetermined reference voltage (VB) as a baseline for causing the feedback current (I FB ) in the detection coil . a magnetoimpedance sensor element including a magnetic sensitive body that is configured to cause a magnetization change corresponding to a strength of a magnetic field (B ACT ) when an excitation current is supplied, and a detection coil that is wound around the magnetic sensitive body and is configured to output an induced voltage caused by the magnetization change of the magnetic sensitive body ; a main operational amplifier (OP_M) having an inverting input terminal and a non-inverting input terminal, one of which is connected to a first end of the detection coil , and an other of which is connected to a second end of the detection coil opposite to the first end ; a first feedback circuit that is connected between an output terminal of the main operational amplifier (OP_M) and the first end of the detection coil and is configured to generate a first feedback voltage (V FB1 ) for causing a feedback current (I FB ) in the detection coil ; and a second feedback circuit that is connected between the output terminal of the main operational amplifier (OP_M) and the second end of the detection coil and is configured to generate a second feedback voltage (V FB2 ) with a polarity that inverts a polarity of the first feedback voltage (V FB1 ) with respect to a predetermined reference voltage (VB) as a baseline for causing the feedback current (I FB ) in the detection coil .
A method for producing an artificial graphite electrode by kneading binder pitch with needle coke, and performing extrusion molding and then performing baking and graphitization process on the same, wherein a process for kneading the binder pitch with needle coke includes at least two separate kneading stages, wherein addition of pitch binder is carried out in two or more stages, and the amount of binder pitch added and kneading time thereof in these kneading stages satisfy a kneading index as represented by formula below within a range of 0.1 to 0.7: Kneading index = a 1 / A × t 1 / T where, A indicates a total amount of binder pitch used in the kneading process, a1 indicates the amount of binder pitch used in the first kneading stage, T indicates a total kneading time of the kneading process and t1 indicates the kneading time of the first kneading stage. a process for kneading the binder pitch with needle coke includes at least two separate kneading stages, wherein addition of pitch binder is carried out in two or more stages, and the amount of binder pitch added and kneading time thereof in these kneading stages satisfy a kneading index as represented by formula below within a range of 0.1 to 0.7: Kneading index = a 1 / A × t 1 / T where, A indicates a total amount of binder pitch used in the kneading process, a1 indicates the amount of binder pitch used in the first kneading stage, T indicates a total kneading time of the kneading process and t1 indicates the kneading time of the first kneading stage.
A method of controlling a cooking process of a food, the method comprising steps of: - detecting (S101) a weight change of the food due to evaporation of a first vaporizable component in the food over a first period of time; - determining (S102) an initial status of the food at least partially based on the detected weight change of the food; and - controlling (S103) the cooking process at least partially based on the determined initial status of the food. - detecting (S101) a weight change of the food due to evaporation of a first vaporizable component in the food over a first period of time; - determining (S102) an initial status of the food at least partially based on the detected weight change of the food; and - controlling (S103) the cooking process at least partially based on the determined initial status of the food.
A method comprising: receiving, at a server, a registration request for registering and associating a plurality of phone numbers for at least one service on a particular device, the registration request comprising information related to a phone authentication certificate, PAC, that was generated for the particular device, the PAC authenticating that each of the plurality of phone numbers is associated with the particular device; performing, by the server, an authentication of a plurality of user identifiers associated with the particular device based at least on the PAC, the plurality of user identifiers comprising the plurality of phone numbers; performing, by the server, a registration of the at least one service for the particular device using the authenticated plurality of user identifiers; and transmitting, from the server, to the particular device, information for accessing the at least one service via each respective user identifier of the plurality of user identifiers including the plurality of phone numbers. receiving, at a server, a registration request for registering and associating a plurality of phone numbers for at least one service on a particular device, the registration request comprising information related to a phone authentication certificate, PAC, that was generated for the particular device, the PAC authenticating that each of the plurality of phone numbers is associated with the particular device; performing, by the server, an authentication of a plurality of user identifiers associated with the particular device based at least on the PAC, the plurality of user identifiers comprising the plurality of phone numbers; performing, by the server, a registration of the at least one service for the particular device using the authenticated plurality of user identifiers; and transmitting, from the server, to the particular device, information for accessing the at least one service via each respective user identifier of the plurality of user identifiers including the plurality of phone numbers.
Visor arrangement, in particular for a safety helmet, comprising a) at least one protective panel element for at least partially protecting a face of a wearer, and b) at least one additional protective grid element which can be secured locally to the at least one protective panel element in order to protect the at least one protective panel element , i) wherein the at least one additional protective grid element comprises at least one securing device for locally securing the at least one additional protective grid element to the at least one protective panel element , ii) wherein the at least one securing device has at least one surrounding receiving member for partially engaging around the at least one protective panel element , characterized in that c) the at least one additional protective grid element comprises at least one magnet securing device for locally magnetically securing the at least one additional protective grid element to the at least one protective panel element . a) at least one protective panel element for at least partially protecting a face of a wearer, and b) at least one additional protective grid element which can be secured locally to the at least one protective panel element in order to protect the at least one protective panel element , i) wherein the at least one additional protective grid element comprises at least one securing device for locally securing the at least one additional protective grid element to the at least one protective panel element , ii) wherein the at least one securing device has at least one surrounding receiving member for partially engaging around the at least one protective panel element , i) wherein the at least one additional protective grid element comprises at least one securing device for locally securing the at least one additional protective grid element to the at least one protective panel element , ii) wherein the at least one securing device has at least one surrounding receiving member for partially engaging around the at least one protective panel element , c) the at least one additional protective grid element comprises at least one magnet securing device for locally magnetically securing the at least one additional protective grid element to the at least one protective panel element .
A dispensing device for use with a beneficial agent , comprising: a dispensing package, comprising: an elongate, at least partially flexible member forming a tubular wall and comprising a sealed tubular compartment and at least one separable barrier enclosing one end of said tubular compartment; and one of a beneficial agent or a constituent of a beneficial agent contained in said tubular compartment; a dispenser disposed on a dispensing end portion of said package; and an actuator movably disposed within at least a portion of said package between a pre-dispensing state and a dispensing state, wherein the actuator is configured to rupture said separable barrier when moved to the dispensing state; wherein said separable barrier is formed along said tubular wall by pinching said one end of said tubular compartment and thereafter heat sealing across said one end. a dispensing package, comprising: an elongate, at least partially flexible member forming a tubular wall and comprising a sealed tubular compartment and at least one separable barrier enclosing one end of said tubular compartment; and one of a beneficial agent or a constituent of a beneficial agent contained in said tubular compartment; an elongate, at least partially flexible member forming a tubular wall and comprising a sealed tubular compartment and at least one separable barrier enclosing one end of said tubular compartment; and one of a beneficial agent or a constituent of a beneficial agent contained in said tubular compartment; a dispenser disposed on a dispensing end portion of said package; and an actuator movably disposed within at least a portion of said package between a pre-dispensing state and a dispensing state, wherein the actuator is configured to rupture said separable barrier when moved to the dispensing state; wherein said separable barrier is formed along said tubular wall by pinching said one end of said tubular compartment and thereafter heat sealing across said one end.
A method for configurating a split denture , wherein the denture is a try-in denture, the method comprising: providing a digital 3D model of a denture , the denture comprising a plurality of teeth , splitting the digital 3D model of the denture into a digital 3D model of a base part and a digital 3D model of a teeth part , the base part comprising a first artificial gingiva portion , the base part further being configured to support the teeth part , the teeth part comprising the plurality of teeth of the denture and a second gingiva portion , the teeth part being configured to be mounted on the base part , providing the digital 3D model of the split denture for generating the base part and the teeth part , generating the base part using the 3D model of the base part and the teeth part using the 3D model of the teeth part , wherein for generating the base part a different first material or different first combination of materials with a different first degree of hardness is used compared to a second material or second combination of materials with a second degree of hardness used for generating the teeth part , wherein the first material or first combination of materials used for generating the base part is harder with the first degree of hardness being higher than the second degree of hardness of the second material or second combination of materials used for generating the teeth part , the lower second degree of hardness allowing for adjustments by a dentist. providing a digital 3D model of a denture , the denture comprising a plurality of teeth , splitting the digital 3D model of the denture into a digital 3D model of a base part and a digital 3D model of a teeth part , the base part comprising a first artificial gingiva portion , the base part further being configured to support the teeth part , the teeth part comprising the plurality of teeth of the denture and a second gingiva portion , the teeth part being configured to be mounted on the base part , the base part comprising a first artificial gingiva portion , the base part further being configured to support the teeth part , the teeth part comprising the plurality of teeth of the denture and a second gingiva portion , the teeth part being configured to be mounted on the base part , providing the digital 3D model of the split denture for generating the base part and the teeth part , generating the base part using the 3D model of the base part and the teeth part using the 3D model of the teeth part , wherein for generating the base part a different first material or different first combination of materials with a different first degree of hardness is used compared to a second material or second combination of materials with a second degree of hardness used for generating the teeth part , wherein the first material or first combination of materials used for generating the base part is harder with the first degree of hardness being higher than the second degree of hardness of the second material or second combination of materials used for generating the teeth part , the lower second degree of hardness allowing for adjustments by a dentist.
A turbine section of a gas turbine engine, the turbine section comprising: a turbine case that extends around a central reference axis; a plurality of gas path components including a turbine vane made from ceramic matrix composite materials and forward and aft seal rings ; and a vane mount unit that couples the plurality of gas path components to the turbine case , the vane mount unit including (i) a spar made of metallic materials that is configured to received loads from the turbine vane during use of the turbine section in the gas turbine engine and (ii) a carrier made from metallic materials that is coupled to the spar and engages the turbine case at least two axially spaced apart locations to carry loads from the spar to the turbine case and anchor the plurality of gas path components relative to the case; wherein, the carrier includes a forward hanger engaged with the turbine case and extending circumferentially at least half way along an overall circumferential length of the carrier; the forward hanger engages with the turbine case at the location axially forward of the turbine vane ; and the carrier further includes an aft hanger engaged with the turbine case at a location axially aft of the turbine vane extending circumferentially at least half way along an overall circumferential length of the carrier. a turbine case that extends around a central reference axis; a plurality of gas path components including a turbine vane made from ceramic matrix composite materials and forward and aft seal rings ; and a vane mount unit that couples the plurality of gas path components to the turbine case , the vane mount unit including (i) a spar made of metallic materials that is configured to received loads from the turbine vane during use of the turbine section in the gas turbine engine and (ii) a carrier made from metallic materials that is coupled to the spar and engages the turbine case at least two axially spaced apart locations to carry loads from the spar to the turbine case and anchor the plurality of gas path components relative to the case; wherein, the carrier includes a forward hanger engaged with the turbine case and extending circumferentially at least half way along an overall circumferential length of the carrier; the forward hanger engages with the turbine case at the location axially forward of the turbine vane ; and the carrier further includes an aft hanger engaged with the turbine case at a location axially aft of the turbine vane extending circumferentially at least half way along an overall circumferential length of the carrier.
A method for the quantification of hydrophilic properties of a porous material, the method comprising - performing a first ellipsometric porosimetry measurement on said porous material using a first adsorptive having a first wetting angle which is substantially equal to zero, thereby obtaining values of a first Kelvin equation ln P P 0 a 1 = − γ a 1 V La 1 RT ∗ 2 r - performing a second ellipsometric porosimetry measurement on said porous material using a second adsorptive having a second wetting angle which is 90° or higher and which comprises polar molecules, thereby obtaining values of a second Kelvin equation ln P P 0 a 2 = − cos ⁢ θ ∗ γ a 2 V La 2 RT ∗ 2 r , and - quantifying the hydrophilic properties of the porous material from a combination of the at least first and second measurement by combining equation and , thereby calculating the effective contact angle of the second adsorptive as being equal to θ = arccos ln P P 0 a 2 / ln P P 0 a 1 ⋅ γ a 1 . V La 1 γ a 2 . V La 2 Wherein P is the vapor pressure, P 0 is the equilibrium vapor pressure, the subscripts a1 and a2 respectively stand for the first adsorptive and the second adsorptive, and r , γ and V L respectively are the average radius of the pores present in the porous material, the surface tension and the molar volume of the adsorptive. - performing a first ellipsometric porosimetry measurement on said porous material using a first adsorptive having a first wetting angle which is substantially equal to zero, thereby obtaining values of a first Kelvin equation ln P P 0 a 1 = − γ a 1 V La 1 RT ∗ 2 r - performing a second ellipsometric porosimetry measurement on said porous material using a second adsorptive having a second wetting angle which is 90° or higher and which comprises polar molecules, thereby obtaining values of a second Kelvin equation ln P P 0 a 2 = − cos ⁢ θ ∗ γ a 2 V La 2 RT ∗ 2 r , and - quantifying the hydrophilic properties of the porous material from a combination of the at least first and second measurement by combining equation and , thereby calculating the effective contact angle of the second adsorptive as being equal to θ = arccos ln P P 0 a 2 / ln P P 0 a 1 ⋅ γ a 1 . V La 1 γ a 2 . V La 2 Wherein P is the vapor pressure, P 0 is the equilibrium vapor pressure, the subscripts a1 and a2 respectively stand for the first adsorptive and the second adsorptive, and r , γ and V L respectively are the average radius of the pores present in the porous material, the surface tension and the molar volume of the adsorptive.
A rotating piston engine comprising - a housing having a rotor chamber with a gas inlet opening and a gas outlet opening , - at least two rotors , each of which has a rotor shaft with two opposite axial ends and with at least two radially protruding rotor arms , wherein the rotor arms are arranged to be evenly distributed across the circumference of the rotor shaft , and the rotor arms of the rotors engage with each other and in doing so rest against each other in a gas-tight manner, - wherein the housing comprises two housing end walls with bearings for the axial ends of the rotor shaft and a housing circumferential wall therebetween surrounding the rotors , in which the gas inlet opening and the gas outlet opening are arranged, wherein the inside of the housing circumferential wall is cylindrically formed between the gas inlet opening and the gas outlet opening and on both sides of the gas inlet opening and the gas outlet opening , and wherein the rotor arms move along the inside of the housing circumferential wall in a gas-tight manner when the rotors are rotating, - a synchromesh gear arranged outside the rotor chamber for synchronous rotation of intermeshing rotors in opposite directions, - characterized by two fluid-cooled heat shields protecting the bearings of the rotor shafts in the housing end walls from heat of the gas, and arranged within the rotor chamber inside on the housing end walls . - a housing having a rotor chamber with a gas inlet opening and a gas outlet opening , - at least two rotors , each of which has a rotor shaft with two opposite axial ends and with at least two radially protruding rotor arms , wherein the rotor arms are arranged to be evenly distributed across the circumference of the rotor shaft , and the rotor arms of the rotors engage with each other and in doing so rest against each other in a gas-tight manner, - wherein the housing comprises two housing end walls with bearings for the axial ends of the rotor shaft and a housing circumferential wall therebetween surrounding the rotors , in which the gas inlet opening and the gas outlet opening are arranged, wherein the inside of the housing circumferential wall is cylindrically formed between the gas inlet opening and the gas outlet opening and on both sides of the gas inlet opening and the gas outlet opening , and wherein the rotor arms move along the inside of the housing circumferential wall in a gas-tight manner when the rotors are rotating, - a synchromesh gear arranged outside the rotor chamber for synchronous rotation of intermeshing rotors in opposite directions, - characterized by two fluid-cooled heat shields protecting the bearings of the rotor shafts in the housing end walls from heat of the gas, and arranged within the rotor chamber inside on the housing end walls .
Transmission mechanism with a handle for controlling of non-electric driving means, comprising a casing , which is attachable to each disposable control unit suitable for controlling of each particular non-electric driving means and in which said handle is mounted, which is pivotable around at least one geometric axis (X-X; Y-Y) from its first terminal position into its second terminal position and which is pivotally connected with at least one pair of control members of a control unit , which is suitable for controlling of each disposable non-electric driving means, characterized in that said handle , which is inside of said casing arranged pivotally around at least one geometric axis (X-X; Y-Y) and extends at least approximately perpendicularly with respect to said pivoting axis (X-X; Y-Y), is within said casing furnished with at least one pair of arms , which are simultaneously pivotable around said axis (X-X; Y-Y) and protrude apart from each other and perpendicularly with respect to said axis (X-X; Y-Y), and is with each belonging pair of said control members , which are suitable for controlling of each disposable non-electric driving means, connected by means of a pair of sufficiently buckling resistant transmission rods , which extend parallel with each other and are in a direction of said axis (X-X; Y-Y) of pivoting said handle spaced apart from each other and are by pivoting said handle movable in opposite directions, wherein each of them is on its first end portion pivotally connected with each belonging control member of said control unit and on its second end portion (51", 52") pivotally with each belonging arm of the handle .