mhurhangee/patent-ind-claim-en huggingface dataset:
Method of positioning an internet of things, IoT, device with augmented reality, AR, glasses, comprising: acquiring (S01) an indoor map ; determining (S02) an AR-position of the AR glasses on the indoor map and a viewing direction of the AR glasses based on initial information of the AR glasses; characterized in that , determining (S041) a first viewing direction of the AR glasses from a first AR-position to an IoT device with a to be calculated position; determining (S042) at least a second viewing direction of the AR glasses from a second AR-position to the IoT device with the to be calculated position; and determining (S043), at least from the first AR-position, the first viewing direction, the second AR-position, and the second viewing direction, an IoT-position of the IoT device with the to be calculated position on the indoor map. acquiring (S01) an indoor map ; determining (S02) an AR-position of the AR glasses on the indoor map and a viewing direction of the AR glasses based on initial information of the AR glasses; characterized in that , determining (S041) a first viewing direction of the AR glasses from a first AR-position to an IoT device with a to be calculated position; determining (S042) at least a second viewing direction of the AR glasses from a second AR-position to the IoT device with the to be calculated position; and determining (S043), at least from the first AR-position, the first viewing direction, the second AR-position, and the second viewing direction, an IoT-position of the IoT device with the to be calculated position on the indoor map.
A method for joining a filler material to a substrate material , the method comprising: melting the filler material within a melting chamber of a crucible such that the filler material is molten, the crucible having an outlet fluidly connected to the melting chamber ; holding the filler material within the melting chamber of the crucible by applying a first pressure differential across the outlet of the crucible ; and releasing the filler material from the melting chamber of the crucible by applying a second pressure differential across the outlet of the crucible to deliver the filler material to a target site of the substrate material , wherein the second pressure differential has a different value than the first pressure differential, characterized in that the filler material is released through an outlet , comprising a nozzle , the nozzle including a base and a tip , wherein the first pressure differential is chosen in a way that filler material that is already within the outlet is drawn at least partially upstream within the outlet . melting the filler material within a melting chamber of a crucible such that the filler material is molten, the crucible having an outlet fluidly connected to the melting chamber ; holding the filler material within the melting chamber of the crucible by applying a first pressure differential across the outlet of the crucible ; and releasing the filler material from the melting chamber of the crucible by applying a second pressure differential across the outlet of the crucible to deliver the filler material to a target site of the substrate material , wherein the second pressure differential has a different value than the first pressure differential, characterized in that the filler material is released through an outlet , comprising a nozzle , the nozzle including a base and a tip , wherein the first pressure differential is chosen in a way that filler material that is already within the outlet is drawn at least partially upstream within the outlet .
A light-emitting device comprising: a reflective layer ; a first electrode provided on the reflective layer; a second electrode facing the first electrode; a first emission layer provided between the first electrode and the second electrode; a second emission layer provided between the first emission layer and the second electrode, a first partial transmission mirror provided between the first emission layer and the second emission layer so that a first or higher order resonance mode is formed between the reflective layer and the first partial transmission mirror, and a second or higher order resonance mode is formed between the reflective layer and the second electrode; characterized in that the light-emitting device further comprises a phase correction layer provided between the first emission layer and the second emission layer ; and a further partial transmission mirror , wherein the first partial transmission mirror is disposed between the phase correction layer and the first emission layer, and wherein the further partial transmission mirror is disposed between the phase correction layer and the second emission layer. a reflective layer ; a first electrode provided on the reflective layer; a second electrode facing the first electrode; a first emission layer provided between the first electrode and the second electrode; a second emission layer provided between the first emission layer and the second electrode, a first partial transmission mirror provided between the first emission layer and the second emission layer so that a first or higher order resonance mode is formed between the reflective layer and the first partial transmission mirror, and a second or higher order resonance mode is formed between the reflective layer and the second electrode; characterized in that the light-emitting device further comprises a phase correction layer provided between the first emission layer and the second emission layer ; and a further partial transmission mirror , wherein the first partial transmission mirror is disposed between the phase correction layer and the first emission layer, and wherein the further partial transmission mirror is disposed between the phase correction layer and the second emission layer.
An optical security component with plasmon resonance intended for being observed in transmission in a visible observation spectral band, comprising: - at least a first set of metal nano-blades , oblique or almost oblique, parallel, tilted by a tilting angle (α) of 30° and 80° relative to the plane of the component, arranged periodically in a direction with a subwavelength period (Λ); - at least one first layer and one second layer made of a dielectric material , transparent in the observation spectral band, with said first set of nano-blades being encapsulated between the first layer and the second layer of dielectric material; and wherein: - the first set of metal nano-blades forms a first plasmon coupling area allowing the coupling of incident waves, in a first range of wavelengths, with angles of incidence comprised within a first angular range of incidence, with plasmon modes supported by said metal nano-blades, so as to form, during the observation in transmission of the component, a first coloured pattern according to said first angular range of incidence and a colour-neutral pattern according to a second angular range of incidence, with the first and second angular ranges of incidence being located on either side of the normal to the plane of the component. - at least a first set of metal nano-blades , oblique or almost oblique, parallel, tilted by a tilting angle (α) of 30° and 80° relative to the plane of the component, arranged periodically in a direction with a subwavelength period (Λ); - at least one first layer and one second layer made of a dielectric material , transparent in the observation spectral band, with said first set of nano-blades being encapsulated between the first layer and the second layer of dielectric material; - the first set of metal nano-blades forms a first plasmon coupling area allowing the coupling of incident waves, in a first range of wavelengths, with angles of incidence comprised within a first angular range of incidence, with plasmon modes supported by said metal nano-blades, so as to form, during the observation in transmission of the component, a first coloured pattern according to said first angular range of incidence and a colour-neutral pattern according to a second angular range of incidence, with the first and second angular ranges of incidence being located on either side of the normal to the plane of the component.
Process for the manufacture of a copper containing small-pore zeolite, having a maximum pore size of 8 tetrahedral atoms, said small-pore zeolite being selected from CHA, ANA, ABW, PHI and a mixture of CHA and GME, which comprises • preparing an aqueous reaction mixture comprising a zeolite of the faujasite framework type, Cu-tetraethylenepentamine (Cu-TEPA) and at least one compound M(OH) x , wherein x is 1 and M is selected from the group consisting of lithium, sodium, potassium, rubidium and cesium, and which does not comprise the tetraethylammonium cation and wherein tetraethylenepentamine is the only organic molecule in the reaction mixture, and • heating the reaction mixture to form a copper containing small-pore zeolite. • preparing an aqueous reaction mixture comprising a zeolite of the faujasite framework type, Cu-tetraethylenepentamine (Cu-TEPA) and at least one compound M(OH) x , wherein x is 1 and M is selected from the group consisting of lithium, sodium, potassium, rubidium and cesium, and which does not comprise the tetraethylammonium cation and wherein tetraethylenepentamine is the only organic molecule in the reaction mixture, and • heating the reaction mixture to form a copper containing small-pore zeolite.
An antimicrobial traditional Chinese medicine composition, which is made from materials consisting of Perillae Fructus, Pogostemonis Herba and Usnea by the following method: mixing Perillae Fructus, Pogostemonis Herba and Usnea, and performing ethanol percolation extraction to obtain the antimicrobial traditional Chinese medicine composition; wherein in parts by weight, the materials consist of 60-80 parts of Perillae Fructus, 10-20 parts of Pogostemonis Herba and A parts of Usnea, 0<A≤20. mixing Perillae Fructus, Pogostemonis Herba and Usnea, and performing ethanol percolation extraction to obtain the antimicrobial traditional Chinese medicine composition; wherein in parts by weight, the materials consist of 60-80 parts of Perillae Fructus, 10-20 parts of Pogostemonis Herba and A parts of Usnea, 0<A≤20.
A Controller Area Network, CAN, transceiver comprising: a security module connected between a CAN bus interface of the CAN transceiver and a microcontroller communications interface of the CAN transceiver , wherein the security module is configured to perform a security function on data traffic received from the CAN bus interface or from a Serial Peripheral Interface, SPI, interface of the microcontroller communications interface ; a shield device connected between the CAN bus interface and the microcontroller communications interface , wherein the shield device is configured to block CAN Flexible Data-rate, FD, traffic received from the CAN bus interface from reaching the microcontroller communications interface ; and an FD protocol controller configured to direct CAN Flexible Data-rate, FD, traffic received from the CAN bus interface to the security module . a security module connected between a CAN bus interface of the CAN transceiver and a microcontroller communications interface of the CAN transceiver , wherein the security module is configured to perform a security function on data traffic received from the CAN bus interface or from a Serial Peripheral Interface, SPI, interface of the microcontroller communications interface ; a shield device connected between the CAN bus interface and the microcontroller communications interface , wherein the shield device is configured to block CAN Flexible Data-rate, FD, traffic received from the CAN bus interface from reaching the microcontroller communications interface ; and an FD protocol controller configured to direct CAN Flexible Data-rate, FD, traffic received from the CAN bus interface to the security module .
Arrangement of a sensor comprising a sensor active surface (2.1) on or behind a vehicle outer add-on part having - a sensor guide with which the sensor is pivotally connected to a first structure element of the vehicle and is held in a usage position, and - a restoring element which is configured to displace the sensor from a position which is displaced with regard to the usage position back into the usage position, characterised in that - the sensor is connected by means of the pivot guide pivotally in vehicle longitudinal direction (x Richtung), - a spacer means specifies a maximum spacing (a) of the sensor in the usage position from a second structure element , offset with regard to the structure element in the direction of the vehicle interior, such that the movement of the sensor in vehicle longitudinal direction (x Richtung) out of a position displaced in the direction of the vehicle interior back into the usage position is limited to the maximum spacing (a) from the second structure element , and - the restoring element is a spring element which is designed to displace the sensor , which has been displaced in the rearwards direction as a result of an external exertion of force (F1, F2) generated by a collision in a low speed range, back into the usage position. - a sensor guide with which the sensor is pivotally connected to a first structure element of the vehicle and is held in a usage position, and - a restoring element which is configured to displace the sensor from a position which is displaced with regard to the usage position back into the usage position, characterised in that - the sensor is connected by means of the pivot guide pivotally in vehicle longitudinal direction (x Richtung), - a spacer means specifies a maximum spacing (a) of the sensor in the usage position from a second structure element , offset with regard to the structure element in the direction of the vehicle interior, such that the movement of the sensor in vehicle longitudinal direction (x Richtung) out of a position displaced in the direction of the vehicle interior back into the usage position is limited to the maximum spacing (a) from the second structure element , and - the restoring element is a spring element which is designed to displace the sensor , which has been displaced in the rearwards direction as a result of an external exertion of force (F1, F2) generated by a collision in a low speed range, back into the usage position.
Setting comprising a ring carrying elements for setting a decorative element , said setting being arranged to be placed radially inside a hollow provided in a substrate of an item to be decorated , said setting comprising a circular slot arranged to receive a ring-like element made of a shape memory alloy able to undergo a reversible transformation, characterized in that said ring-like element can move from a retracted position, in which it rests in said slot , to an open position in which said ring-like element at least partially protrudes from said slot to hold the setting in the substrate .
An information sending method, wherein the method comprises: enabling, by a network device, a physical broadcast channel, PBCH and a demodulation reference signal, DMRS, sequence of the PBCH to respectively indicate part of bits of a synchronization signal, SS, block time index, the SS block time index being represented by M bits, wherein Q bits of the M bits are carried in the PBCH, and (M-Q) bits of the M bits are implicitly carried by a demodulation reference signal, DMRS, sequence of the PBCH, M is an integer greater than 1, Q is an integer greater than 0 and Q is less than M; and sending the PBCH to a terminal device. enabling, by a network device, a physical broadcast channel, PBCH and a demodulation reference signal, DMRS, sequence of the PBCH to respectively indicate part of bits of a synchronization signal, SS, block time index, the SS block time index being represented by M bits, wherein Q bits of the M bits are carried in the PBCH, and (M-Q) bits of the M bits are implicitly carried by a demodulation reference signal, DMRS, sequence of the PBCH, M is an integer greater than 1, Q is an integer greater than 0 and Q is less than M; and sending the PBCH to a terminal device.
Method for generating 3D images of a collection of samples by means of a microscope, characterized in that the microscope comprises an image acquisition means facing the collection of samples according to a detection direction, and a lighting means configured for emitting a plane sheet of light towards the collection of samples according to a direction perpendicular to the detection direction, where the collection of samples comprises various samples located one on top of another along the detection direction, the method comprising the following steps: - causing a relative movement according to the detection direction between the sheet of light and the sample while maintaining a constant angle of acquisition; - obtaining, for said angle of acquisition, a single 2D projection image formed by a representative parameter for each pixel; - modifying the angle of acquisition by means of a relative rotation between the sheet of light and the sample , combined with a relative vertical translation between the sheet of light and the sample along the detection direction, and repeating the previous steps; and - generating a 3D image of each of the samples from the set of 2D projection images that are produced, wherein the relative rotation between the sample and the light sheet is around an axis which is perpendicular to both the detection direction and the emission direction of the illumination light. - causing a relative movement according to the detection direction between the sheet of light and the sample while maintaining a constant angle of acquisition; - obtaining, for said angle of acquisition, a single 2D projection image formed by a representative parameter for each pixel; - modifying the angle of acquisition by means of a relative rotation between the sheet of light and the sample , combined with a relative vertical translation between the sheet of light and the sample along the detection direction, and repeating the previous steps; and - generating a 3D image of each of the samples from the set of 2D projection images that are produced, wherein the relative rotation between the sample and the light sheet is around an axis which is perpendicular to both the detection direction and the emission direction of the illumination light.
A compressor for use in a gas turbine engine comprising: a compressor rotor including blades and a disc , with a bore defined radially inwardly of said disc , there being a radially outer housing surrounding an outer diameter of said blades ; a lower pressure tap and a higher pressure tap for tapping air from two distinct locations within said compressor ; characterised in that : said air is tapped radially outwardly through said outer housing ; and by further comprising: a valve for selectively delivering at least one of said lower pressure tap and said higher pressure tap to said bore of said disc ; and a control for said valve being programmed to move said valve to a position delivering said higher pressure tap at a point prior to take- off when the compressor is mounted in a gas turbine engine on an aircraft. a compressor rotor including blades and a disc , with a bore defined radially inwardly of said disc , there being a radially outer housing surrounding an outer diameter of said blades ; a lower pressure tap and a higher pressure tap for tapping air from two distinct locations within said compressor ; characterised in that : said air is tapped radially outwardly through said outer housing ; and by further comprising: a valve for selectively delivering at least one of said lower pressure tap and said higher pressure tap to said bore of said disc ; and a control for said valve being programmed to move said valve to a position delivering said higher pressure tap at a point prior to take- off when the compressor is mounted in a gas turbine engine on an aircraft. said air is tapped radially outwardly through said outer housing ; and by further comprising: a valve for selectively delivering at least one of said lower pressure tap and said higher pressure tap to said bore of said disc ; and a control for said valve being programmed to move said valve to a position delivering said higher pressure tap at a point prior to take- off when the compressor is mounted in a gas turbine engine on an aircraft. a valve for selectively delivering at least one of said lower pressure tap and said higher pressure tap to said bore of said disc ; and a control for said valve being programmed to move said valve to a position delivering said higher pressure tap at a point prior to take- off when the compressor is mounted in a gas turbine engine on an aircraft.
Adapter (1; 2; 3; 4; 5; 6; 7;) for attaching a support device for a string instrument, in particular for a violin or a viola, comprising: a first component (11; 21; 31; 41; 51; 61; 71), a second component (12; 23; 32; 42; 52; 62; 72), a connection device for the support device ; and a connecting device, wherein the first component (11; 21; 31; 41; 51; 61; 71) and/or the second component (12; 23; 32; 42; 52; 62; 72) conmprises a central section with a recess for the tailpiece button of the string instrument, characterized in that the first component (11; 21; 31; 41; 51; 61: 71) and the second component (12; 23; 32; 42; 52; 62; 72) are arranged and connected by the connecting device in such a way that the tailpiece button is received without contact in the recess as a result of the connection of the first component (11; 21; 31; 41; 51; 61: 71) with the second component (12; 23; 32; 42; 52; 62; 72) is received in the recess without contact, and the first component (11; 21; 31; 41; 51; 61; 71) and the second component (12; 23; 32; 42; 52; 62; 72) are configured to be arranged at the bottom and the top of the string instrument. a first component (11; 21; 31; 41; 51; 61; 71), a second component (12; 23; 32; 42; 52; 62; 72), a connection device for the support device ; and a connecting device, wherein the first component (11; 21; 31; 41; 51; 61; 71) and/or the second component (12; 23; 32; 42; 52; 62; 72) conmprises a central section with a recess for the tailpiece button of the string instrument, characterized in that the first component (11; 21; 31; 41; 51; 61: 71) and the second component (12; 23; 32; 42; 52; 62; 72) are arranged and connected by the connecting device in such a way that the tailpiece button is received without contact in the recess as a result of the connection of the first component (11; 21; 31; 41; 51; 61: 71) with the second component (12; 23; 32; 42; 52; 62; 72) is received in the recess without contact, and the first component (11; 21; 31; 41; 51; 61; 71) and the second component (12; 23; 32; 42; 52; 62; 72) are configured to be arranged at the bottom and the top of the string instrument.