mhurhangee/patent-ind-claim-en huggingface dataset:
A hydride secondary battery comprising: a pressure vessel ; a positive electrode disposed in the pressure vessel ; a negative electrode disposed in the pressure vessel ; and characterized in that the hydride secondary battery comprises hydrogen gas with which the pressure vessel is filled, wherein the negative electrode contains a hydrogen-absorbing alloy, and in a pressure-composition-temperature diagram, a desorption curve at 25°C of the hydrogen-absorbing alloy has a plateau pressure of 0.15 MPa or more and 10 MPa or less, and wherein the hydrogen gas has a pressure equal to or higher than the plateau pressure at 25°C of the hydrogen-absorbing alloy, wherein the pressure-composition-temperature diagram is measured according to JIS H 7201 with a Sievert's instrument manufactured by Suzuki Shokan Co., Ltd, and wherein the hydrogen-absorbing alloy is at least one selected from the group consisting of a AB 5 type alloy expressed by MmNi 5-x1 B x1 , provided that Mm represents a mischmetal, B represents at least one selected from the group consisting of Fe, Cr, Mn, and Al, and x1 is 0 or more and 0.6 or less, a AB 5 type alloy expressed by MmNi 5-x2 Co x2 , provided that Mm represents a mischmetal and x2 is more than 0 and is equal to or less than 1.0, and LaNi 5 . a pressure vessel ; a positive electrode disposed in the pressure vessel ; a negative electrode disposed in the pressure vessel ; and characterized in that the hydride secondary battery comprises hydrogen gas with which the pressure vessel is filled, wherein the negative electrode contains a hydrogen-absorbing alloy, and in a pressure-composition-temperature diagram, a desorption curve at 25°C of the hydrogen-absorbing alloy has a plateau pressure of 0.15 MPa or more and 10 MPa or less, and wherein the hydrogen gas has a pressure equal to or higher than the plateau pressure at 25°C of the hydrogen-absorbing alloy, wherein the pressure-composition-temperature diagram is measured according to JIS H 7201 with a Sievert's instrument manufactured by Suzuki Shokan Co., Ltd, and wherein the hydrogen-absorbing alloy is at least one selected from the group consisting of a AB 5 type alloy expressed by MmNi 5-x1 B x1 , provided that Mm represents a mischmetal, B represents at least one selected from the group consisting of Fe, Cr, Mn, and Al, and x1 is 0 or more and 0.6 or less, a AB 5 type alloy expressed by MmNi 5-x2 Co x2 , provided that Mm represents a mischmetal and x2 is more than 0 and is equal to or less than 1.0, and LaNi 5 .
An aircraft debris monitoring sensor assembly , comprising: an aircraft conduit defining a hollow core passage extending axially from an inlet opening to an outlet opening ; a sensor arrangement that detects debris carried by a fluid within the hollow core passage ; a gas turbine engine that moves the aircraft conduit to move air through the hollow core passage of the aircraft conduit ; and characterised in that the assembly further comprises: a support that spaces the conduit from an outwardly facing surface of the gas turbine engine , and configured to allow the conduit to stick out into the jet stream relative to the gas turbine engine ; and in that the hollow core passage is separate and distinct from any flow passage of the gas turbine engine . an aircraft conduit defining a hollow core passage extending axially from an inlet opening to an outlet opening ; a sensor arrangement that detects debris carried by a fluid within the hollow core passage ; a gas turbine engine that moves the aircraft conduit to move air through the hollow core passage of the aircraft conduit ; and characterised in that the assembly further comprises: a support that spaces the conduit from an outwardly facing surface of the gas turbine engine , and configured to allow the conduit to stick out into the jet stream relative to the gas turbine engine ; and in that the hollow core passage is separate and distinct from any flow passage of the gas turbine engine . a support that spaces the conduit from an outwardly facing surface of the gas turbine engine , and configured to allow the conduit to stick out into the jet stream relative to the gas turbine engine ; and in that the hollow core passage is separate and distinct from any flow passage of the gas turbine engine .
A transmission electron microscopy support for receiving a biological sample, the support comprising at least one support member, and comprising graphene attached to said at least one support member, wherein said graphene is partially hydrogenated graphene, and characterised in that said graphene is 1% to 10% hydrogenated graphene.
A coupling arrangement for a gearbox , comprising a coupling sleeve , which is axially displaceable between a first and second position, a first and second rotatable element , which are connectable and disconnectable to each other by means of the coupling sleeve , an electrical machine connected to one of the first and second rotatable element , and a position indicator device for detecting the angular position of a rotor of the electrical machine , characterized in that the position indicator device also is arranged to detect the axial position of the coupling sleeve and in that the position indicator device is a resolver comprising a primary and a secondary resolver rotor arranged on the coupling sleeve .
An electronic board comprising: a board including an upper surface ground on an upper surface ; at least one first land formed on the upper surface and connected to a first signal line ; at least one second land formed on the upper surface and connected to a second signal line ; at least one third land disposed on the upper surface between the at least one first land and the at least one second land and connected to the upper surface ground ; and at least one fourth land disposed on the upper surface on a side opposite to the at least one third land and connected to the upper surface ground , the at least one first land being interposed between the at least one third land and the at least one fourth land , characterized in that the electronic board further comprises a shielding conductor for electromagnetically shielding the at least one first land and the first signal line , wherein the shielding conductor is made of a box-shaped conductor, in which at least a bottom is opened, and is formed so as to cover the at least one first land and the first signal line wherein two contact portions are provided connecting the third land and the shielding conductor and connecting the fourth land and the shielding conductor , wherein magnetic field loops that rotate in the same direction are generated around each of said two contact portions . a board including an upper surface ground on an upper surface ; at least one first land formed on the upper surface and connected to a first signal line ; at least one second land formed on the upper surface and connected to a second signal line ; at least one third land disposed on the upper surface between the at least one first land and the at least one second land and connected to the upper surface ground ; and at least one fourth land disposed on the upper surface on a side opposite to the at least one third land and connected to the upper surface ground , the at least one first land being interposed between the at least one third land and the at least one fourth land , characterized in that the electronic board further comprises a shielding conductor for electromagnetically shielding the at least one first land and the first signal line , wherein the shielding conductor is made of a box-shaped conductor, in which at least a bottom is opened, and is formed so as to cover the at least one first land and the first signal line wherein two contact portions are provided connecting the third land and the shielding conductor and connecting the fourth land and the shielding conductor , wherein magnetic field loops that rotate in the same direction are generated around each of said two contact portions .
A method comprising: acquiring ultrasound channel data; generating a predictive error filter with an autoregressive moving average model; estimating , with the predictive error filter, noise in the ultrasound channel data; and subtracting the noise from the ultrasound channel data to obtain clean channel data, wherein the generating step, estimating step and subtracting step are performed in a time-space domain. acquiring ultrasound channel data; generating a predictive error filter with an autoregressive moving average model; estimating , with the predictive error filter, noise in the ultrasound channel data; and subtracting the noise from the ultrasound channel data to obtain clean channel data, wherein the generating step, estimating step and subtracting step are performed in a time-space domain.
Surroundings sensing system (1; 2) for transmitting and/or receiving ultrasonic signals, having an ultrasonic transducer (11; 21), which has at least one transducer element (112; 212) and at least one resonant body (111, 113; 211, 213) with a front body (111; 211) and a rear body (113; 213), and a diaphragm (12; 22) for transmitting sound, which diaphragm (12; 22) is coupled to an end side (1111; 2111) of the front body (111; 211), wherein the front body (111; 211), the transducer element (112; 212) and the rear body (113; 213) are detachably connected to one another, and the front body (111; 211) is attached to the diaphragm (12; 22), characterized in that the front body (111; 211) is attached to the diaphragm (12; 22) by a securing means (1112; 61), wherein the ultrasonic transducer (11; 21) forms a λ/2 oscillator together with the rear body (113; 213), the front body (111; 211) and the diaphragm (12; 22), and the securing means (1112; 61) is arranged in the centre of the λ/2 oscillator at λ/4.
A conveyor belt (20; 66; 102) comprising: a top surface and an opposite bottom surface and a first side and an opposite second side defining the width of the conveyor belt; an elongated slot extending across a portion of the width of the belt and having a top opening at the top surface and a bottom opening at the bottom surface ; a carrier (44; 80) including: a platform (47; 84); a first cam follower (46; 82) below the bottom surface ; a neck (48; 86) extending through the elongated slot to connect to the platform (47; 84) and to the first cam follower (46; 82); wherein the neck (48; 86) is long enough to allow the carrier (44; 80) to move between a raised position in which the platform (47; 84) protrudes above the top surface and a lowered position in which the platform (47; 84) does not protrude above the top surface , characterised in that the top opening is wider than the bottom opening to form a ledge recessed inward of the top surface and in that the platform is seatable on the ledge . a top surface and an opposite bottom surface and a first side and an opposite second side defining the width of the conveyor belt; an elongated slot extending across a portion of the width of the belt and having a top opening at the top surface and a bottom opening at the bottom surface ; a carrier (44; 80) including: a platform (47; 84); a first cam follower (46; 82) below the bottom surface ; a neck (48; 86) extending through the elongated slot to connect to the platform (47; 84) and to the first cam follower (46; 82); wherein the neck (48; 86) is long enough to allow the carrier (44; 80) to move between a raised position in which the platform (47; 84) protrudes above the top surface and a lowered position in which the platform (47; 84) does not protrude above the top surface , characterised in that the top opening is wider than the bottom opening to form a ledge recessed inward of the top surface and in that the platform is seatable on the ledge . a platform (47; 84); a first cam follower (46; 82) below the bottom surface ; a neck (48; 86) extending through the elongated slot to connect to the platform (47; 84) and to the first cam follower (46; 82); wherein the neck (48; 86) is long enough to allow the carrier (44; 80) to move between a raised position in which the platform (47; 84) protrudes above the top surface and a lowered position in which the platform (47; 84) does not protrude above the top surface , characterised in that the top opening is wider than the bottom opening to form a ledge recessed inward of the top surface and in that the platform is seatable on the ledge .
A circuit suitable for capacitive sensing, comprising: carrier generation circuitry to generate a carrier signal at a carrier frequency; reference circuitry to generate a reference signal ; carrier/drive signal path circuitry to drive a carrier/drive signal out through an output node (A), the carrier/drive signal useable for capacitive sensing, including: modulation circuitry to modulate the reference signal with the carrier signal to generate the carrier/drive signal at the carrier frequency; and drive circuitry to drive the carrier/drive signal out through the output node (A); and sense signal path circuitry to receive at an input node (B) an up-modulated sense capacitance signal corresponding to measured capacitance from capacitive sensing, wherein the sense capacitance signal is up-modulated to the carrier frequency based on the carrier/drive signal , including: amplifier circuitry to generate an amplified up-modulated sense capacitance signal ; and demodulation circuitry to demodulate the amplified up-modulated sense capacitance signal based on the carrier signal, generating a demodulated sense capacitance signal ; characterised in that the amplifier circuitry is a transimpedance amplifier including a feedback resistor coupled to the amplifier inverting input, which is coupled to receive the up-modulated sense capacitance signal, with the carrier/drive signal path circuitry further including an integrator to integrate the carrier/drive signal . carrier generation circuitry to generate a carrier signal at a carrier frequency; reference circuitry to generate a reference signal ; carrier/drive signal path circuitry to drive a carrier/drive signal out through an output node (A), the carrier/drive signal useable for capacitive sensing, including: modulation circuitry to modulate the reference signal with the carrier signal to generate the carrier/drive signal at the carrier frequency; and drive circuitry to drive the carrier/drive signal out through the output node (A); and sense signal path circuitry to receive at an input node (B) an up-modulated sense capacitance signal corresponding to measured capacitance from capacitive sensing, wherein the sense capacitance signal is up-modulated to the carrier frequency based on the carrier/drive signal , including: amplifier circuitry to generate an amplified up-modulated sense capacitance signal ; and demodulation circuitry to demodulate the amplified up-modulated sense capacitance signal based on the carrier signal, generating a demodulated sense capacitance signal ; characterised in that the amplifier circuitry is a transimpedance amplifier including a feedback resistor coupled to the amplifier inverting input, which is coupled to receive the up-modulated sense capacitance signal, with the carrier/drive signal path circuitry further including an integrator to integrate the carrier/drive signal .
A composition comprising: a microcapsule comprising a core portion and a shell portion, wherein the core portion comprises an active pharmaceutical ingredient in an amorphous distribution in an hydrophilic excipient, wherein the hydrophilic excipient is polyethylene glycol; wherein the shell portion comprises a hydrophobic matrix, wherein the hydrophobic matrix is a lipid, and from 1% to 25% by weight of a pH-responsive material based on the total weight of the shell portion, wherein the pH-responsive material is insoluble at a pH of greater than 5.0 or is otherwise insoluble in saliva and is soluble at a pH of less than 5.0 and comprises butylated methacrylate copolymer; and wherein the shell portion encapsulates the core portion. a microcapsule comprising a core portion and a shell portion, wherein the core portion comprises an active pharmaceutical ingredient in an amorphous distribution in an hydrophilic excipient, wherein the hydrophilic excipient is polyethylene glycol; wherein the shell portion comprises a hydrophobic matrix, wherein the hydrophobic matrix is a lipid, and from 1% to 25% by weight of a pH-responsive material based on the total weight of the shell portion, wherein the pH-responsive material is insoluble at a pH of greater than 5.0 or is otherwise insoluble in saliva and is soluble at a pH of less than 5.0 and comprises butylated methacrylate copolymer; and wherein the shell portion encapsulates the core portion.
Refrigeration appliance with at least one first and one second temperature zone , a refrigerant circuit, which comprises a compressor , a first evaporator for cooling the first temperature zone and a second evaporator for cooling the second temperature zone , wherein the first evaporator is serially connected downstream of the second evaporator in the refrigerant circuit and a first controllable throttle point in the refrigerant circuit is connected upstream of the first evaporator and downstream of the second evaporator , wherein a compressor regulator is designed to control the rotational speed of the compressor on the basis of the temperature of the first temperature zone , characterised in that at least one third evaporator to regulate the temperature of a third temperature zone is connected upstream of the second evaporator in the refrigerant circuit via a second controllable throttle point and that a second throttle regulator is provided to control the degree of opening of the second controllable throttle point on the basis of the temperature of the third temperature zone .
A flow meter monitoring system , comprising a communication interface configured to communicate with one or more flow meters and receive meter calibration values for a flow meter of the one or more flow meters, with the flow meter monitoring system being characterized by : a processing system in communication with the communication interface and configured to receive the meter calibration values from the communication interface , the meter calibration values comprising a Flow Calibration Factor (FCF), and to correlate the meter calibration values to known meter calibration values in order to determine the flow meter type.
A method for forming molten glass (G) comprising a supply step (S11) in which molten glass (G) having a temperature of at least the softening point is discharged in a strip shape in the form of a glass ribbon (GR), which is supplied on the surface (Ma) of molten metal (M), and a transport step (S 12) of transporting the glass ribbon (GR) supplied on the surface (Ma) of the molten metal (M), wherein said transport step (S 12) includes a cooling step (S12a) of cooling the glass ribbon (GR) being transported, in a region on the upstream side in the transport direction, so that the temperature of the glass ribbon (GR) becomes lower than the softening point in the entire width direction, wherein the temperature of the glass ribbon (GR) in the supply step is at least the softening point, wherein the temperature of the molten metal (M) at a location where the glass ribbon (GR) is supplied, is lower than the softening point of the molten glass (G) and higher than the annealing point of the molten glass (G), in the cooling step (S 12a), the glass ribbon (GR) is cooled by the molten metal (M), wherein in the supply step (S11), the glass ribbon (GR) is supplied on the surface (Ma) of the molten metal (M) by letting the glass ribbon (GR) be dropped vertically downward so that the thickness of the glass ribbon (GR) is adjusted by stretching the glass ribbon (GR) by its own weight, and wherein the glass ribbon (GR) is not stretched on the surface (Ma) of the molten metal (M). a supply step (S11) in which molten glass (G) having a temperature of at least the softening point is discharged in a strip shape in the form of a glass ribbon (GR), which is supplied on the surface (Ma) of molten metal (M), and a transport step (S 12) of transporting the glass ribbon (GR) supplied on the surface (Ma) of the molten metal (M), wherein said transport step (S 12) includes a cooling step (S12a) of cooling the glass ribbon (GR) being transported, in a region on the upstream side in the transport direction, so that the temperature of the glass ribbon (GR) becomes lower than the softening point in the entire width direction, wherein the temperature of the glass ribbon (GR) in the supply step is at least the softening point, wherein the temperature of the molten metal (M) at a location where the glass ribbon (GR) is supplied, is lower than the softening point of the molten glass (G) and higher than the annealing point of the molten glass (G), in the cooling step (S 12a), the glass ribbon (GR) is cooled by the molten metal (M), wherein in the supply step (S11), the glass ribbon (GR) is supplied on the surface (Ma) of the molten metal (M) by letting the glass ribbon (GR) be dropped vertically downward so that the thickness of the glass ribbon (GR) is adjusted by stretching the glass ribbon (GR) by its own weight, and wherein the glass ribbon (GR) is not stretched on the surface (Ma) of the molten metal (M).
A method of providing a notification by an electronic device , the method comprising: receiving, from a wearable device, first information related to a wearing state of the wearable device; based on detecting a notification event, presenting a first notification for the detected notification event on a touch screen of the electronic device , wherein the touch screen of the electronic device comprises a display unit and a touch panel; providing, to the wearable device, notification information for display of the detected notification event as a second notification, based on the wearable device being in a wearing state; receiving, from the wearable device, second information indicating that the second notification is checked at the wearable device; and based on the received second information, stopping the presenting of the first notification on the touch screen of the electronic device receiving, from a wearable device, first information related to a wearing state of the wearable device; based on detecting a notification event, presenting a first notification for the detected notification event on a touch screen of the electronic device , wherein the touch screen of the electronic device comprises a display unit and a touch panel; providing, to the wearable device, notification information for display of the detected notification event as a second notification, based on the wearable device being in a wearing state; receiving, from the wearable device, second information indicating that the second notification is checked at the wearable device; and based on the received second information, stopping the presenting of the first notification on the touch screen of the electronic device