mhurhangee/patent-ind-claim-en huggingface dataset:
A wing for an airplane having a spanwise wing length (b) from a base body of said airplane towards an outer wing end and at least three winglets (8-10) on said outer wing end connected to said wing , an upstream first one of said winglets preceding a more downstream second one of said winglets, and said second one preceding an even more downstream third one of said winglets in a flight direction of said airplane , said first winglet being arranged to produce a winglet tip vortex airflow additionally to a wing tip vortex airflow produced by said wing , such that said winglet tip vortex airflow and said wing tip vortex airflow are superposed to a combined vortex airflow in a plane between said first and second winglets and perpendicular to said flight direction, said first winglet being arranged to broaden a region of said vortex airflow by means of said superposition, wherein said second winglet is adapted to produce an aerodynamic lift having a positive thrust component (F xn ), in said vortex airflow, and wherein said second winglet has a spanwise length (b2) of between 105 % and 180 % of a spanwise length (b1) of said first winglet and said third winglet has a spanwise length of between 60 % and 100 % of said second winglet which is upstream of said third winglet . a spanwise wing length (b) from a base body of said airplane towards an outer wing end and at least three winglets (8-10) on said outer wing end connected to said wing , an upstream first one of said winglets preceding a more downstream second one of said winglets, and said second one preceding an even more downstream third one of said winglets in a flight direction of said airplane , said first winglet being arranged to produce a winglet tip vortex airflow additionally to a wing tip vortex airflow produced by said wing , such that said winglet tip vortex airflow and said wing tip vortex airflow are superposed to a combined vortex airflow in a plane between said first and second winglets and perpendicular to said flight direction, said first winglet being arranged to broaden a region of said vortex airflow by means of said superposition, wherein said second winglet is adapted to produce an aerodynamic lift having a positive thrust component (F xn ), in said vortex airflow, and wherein said second winglet has a spanwise length (b2) of between 105 % and 180 % of a spanwise length (b1) of said first winglet and said third winglet has a spanwise length of between 60 % and 100 % of said second winglet which is upstream of said third winglet .
An electric heater for a machine for preparing hot beverages, comprising - a metal body ; - at least one electric heating element , in particular adapted to generate heat when it is crossed by an electric current, arranged in the metal body ; - a tube for the passage of a liquid to be heated, arranged in the metal body ; characterized in that an inner surface of said tube has surface roughness (Ra), or arithmetical mean roughness, greater than 0.8 μm. - a metal body ; - at least one electric heating element , in particular adapted to generate heat when it is crossed by an electric current, arranged in the metal body ; - a tube for the passage of a liquid to be heated, arranged in the metal body ; characterized in that an inner surface of said tube has surface roughness (Ra), or arithmetical mean roughness, greater than 0.8 μm.
A smart device control method performed by a control device, the method comprising: finding one or more smart devices connected to the control device; sending identifications of the smart devices connected to the control device to an instruction sending device; receiving a control instruction sent by the instruction sending device and including a set of working mode information, wherein the set of working mode information is formed by combining working mode information corresponding to the types of the smart devices connected to the control device by the instruction sending device; detecting if the control device has an authorization to set the working mode of a target smart device; and setting the working mode of the target smart device connected to the control device via a local area network, LAN, based on the set of working mode information, when it is detected that the control device has the authorization to set the working mode of the target smart device. finding one or more smart devices connected to the control device; sending identifications of the smart devices connected to the control device to an instruction sending device; receiving a control instruction sent by the instruction sending device and including a set of working mode information, wherein the set of working mode information is formed by combining working mode information corresponding to the types of the smart devices connected to the control device by the instruction sending device; detecting if the control device has an authorization to set the working mode of a target smart device; and setting the working mode of the target smart device connected to the control device via a local area network, LAN, based on the set of working mode information, when it is detected that the control device has the authorization to set the working mode of the target smart device.
A method of locating a user equipment, UE, at a location server in a wireless network, the method comprising: sending, to the UE, a first message comprising a request for a first set of location measurements for determining a location of the UE, wherein the location server does not have information identifying which one of a plurality of different Radio Access Technologies, RATs, is a serving RAT serving the UE, wherein: the first set of location measurements comprises measurements of signals belonging to the plurality of different RATs, the plurality of different RATs includes the serving RAT serving the UE; receiving a second message from the UE, the second message comprising a second set of location measurements for determining the location of the UE, wherein: the second set of location measurements comprises a subset of the first set of location measurements, and the second set of location measurements includes measurements of signals belonging to the serving RAT; and determining the location of the UE based on the second set of location measurements. sending, to the UE, a first message comprising a request for a first set of location measurements for determining a location of the UE, wherein the location server does not have information identifying which one of a plurality of different Radio Access Technologies, RATs, is a serving RAT serving the UE, wherein: the first set of location measurements comprises measurements of signals belonging to the plurality of different RATs, the plurality of different RATs includes the serving RAT serving the UE; the first set of location measurements comprises measurements of signals belonging to the plurality of different RATs, the plurality of different RATs includes the serving RAT serving the UE; receiving a second message from the UE, the second message comprising a second set of location measurements for determining the location of the UE, wherein: the second set of location measurements comprises a subset of the first set of location measurements, and the second set of location measurements includes measurements of signals belonging to the serving RAT; and determining the location of the UE based on the second set of location measurements. the second set of location measurements comprises a subset of the first set of location measurements, and the second set of location measurements includes measurements of signals belonging to the serving RAT; and determining the location of the UE based on the second set of location measurements.
An antiviral compound for use in inhibiting of one or more replication phases of high risk Human Papilloma Virus, wherein the compound is selected from the group consisting of
An optical heart rate sensor configured to detect a certain target wavelength, the sensor comprising: a first light detector and a second light detector configured to concurrently detect light reflected from skin/tissue of a user, and an optical blocking filter configured to block the target wavelength, wherein the first light detector is configured to detect all wavelengths of the light that enters the sensor to produce a first detected signal, the optical blocking filter is configured to filter the light that enters the sensor to produce filtered light, and the second light detector is configured to detect the filtered light to detect all other wavelengths of the light that enters the sensor except the target wavelength to produce a second detected signal, the sensor further comprising a subtraction element configured to subtract the second detected signal from the first detected signal to produce a subtracted signal, wherein the subtracted signal is a sensor signal usable for producing the heart rate as physiological measurement result. a first light detector and a second light detector configured to concurrently detect light reflected from skin/tissue of a user, and an optical blocking filter configured to block the target wavelength, wherein the first light detector is configured to detect all wavelengths of the light that enters the sensor to produce a first detected signal, the optical blocking filter is configured to filter the light that enters the sensor to produce filtered light, and the second light detector is configured to detect the filtered light to detect all other wavelengths of the light that enters the sensor except the target wavelength to produce a second detected signal, the sensor further comprising a subtraction element configured to subtract the second detected signal from the first detected signal to produce a subtracted signal, wherein the subtracted signal is a sensor signal usable for producing the heart rate as physiological measurement result.
An austenitic stainless steel having a chemical composition consisting of, in mass %, C: up to 0.10 %; Si: up to 1.0 %; Mn: not less than 3.0 % and less than 7.0 %; Cr: 15 to 30 %; Ni: not less than 12.0 % and less than 17.0 %; Al: up to 0.10 %; N: 0.10 to 0.50 %; P: up to 0.050 %; S: up to 0.050 %; at least one of V: 0.01 to 1.0 % and Nb: 0.01 to 0.50 %; Mo: 0 to 3.0 %; W: 0 to 6.0 %; Ti: 0 to 0.5 %; Zr: 0 to 0.5 %; Hf: 0 to 0.3 %; Ta: 0 to 0.6 %; B: 0 to 0.020 %; Cu: 0 to 5.0 %; Co: 0 to 10.0 %; Mg: 0 to 0.0050 %; Ca: 0 to 0.0050 %; La: 0 to 0.20 %; Ce: 0 to 0.20 %; Y: 0 to 0.40 %; Sm: 0 to 0.40 %; Pr: 0 to 0.40 %; Nd: 0 to 0.50 %; and the balance being Fe and impurities, the steel having an austenite crystal grain with a ratio of a minor axis to a major axis that is greater than 0.1, the austenite crystal grain having a crystal grain size number in accordance with ASTM E 112 that is not lower than 8.0, the steel having a tensile strength that is not less than 1000 MPa and up to 1500 MPa.
An inducible Cell Co-Stimulator (ICOS) antibody with agonistic properties for use in the treatment of cancer in a subject, wherein the treatment comprises the steps of: (i) administering electroporation and a chemotherapeutic agent to a tumour in the subject; and (ii) administering the ICOS antibody with agonistic properties to the subject; wherein step (i) and (ii) may be performed in either order. (i) administering electroporation and a chemotherapeutic agent to a tumour in the subject; and (ii) administering the ICOS antibody with agonistic properties to the subject; wherein step (i) and (ii) may be performed in either order.
Structural element, at least partly made from wood, such as a pile or plank , which element may be placed in the ground or in water and then partly protrudes above the ground or above the water, wherein the aforementioned element comprises at least two wooden components connected to each other via finger joints , characterized in that the aforementioned components are made from the same main group of wood, i.e., hardwood or softwood, wherein the one component is an untreated type of wood from the aforementioned main group of wood and the other component is a treated type of wood from the aforementioned main group of wood, wherein the aforementioned treated type of wood is a chemically modified type of wood.
A nasal mucus suction device, which includes an air pump and a head structure , wherein the air pump includes an intake tube and an outlet tube ; the head structure is coupled to the intake tube and the outlet tube of the air pump , wherein the head structure has a nasal mucus suction inlet , a gas outlet and a channel defined between the nasal mucus suction inlet and the gas outlet , wherein the channel has a first channel section in communication with the nasal mucus suction inlet and a second channel section in communication with the gas outlet , wherein the first channel section has at least one mucus storage cavity and the second channel section is in communication with the intake tube and the outlet tube of the air pump , wherein the first channel section has an air channel and a nasal mucus channel and the second channel section is extended from the air channel to the gas outlet , wherein the second channel section has a noise reduction space being in communication with the outlet tube of the air pump ; the nasal mucus suction device is characterized in that : the outer cup comprises a lower ring wall extended from a bottom of an inner side thereof, and the inner cup comprises an upper ring wall extended from a bottom of an outer side thereof and surrounding a lower ring wall of the outer cup , wherein the upper ring wall and the lower ring wall form a plurality of curved paths of the first channel section inside the second mucus storage cavity ; the noise reduction space and the gas outlet are spaced by two partition plates, each of which forms a small groove thereon, so that noise goes into the noise reduction space with air through the small grooves and is circulated therein. the outer cup comprises a lower ring wall extended from a bottom of an inner side thereof, and the inner cup comprises an upper ring wall extended from a bottom of an outer side thereof and surrounding a lower ring wall of the outer cup , wherein the upper ring wall and the lower ring wall form a plurality of curved paths of the first channel section inside the second mucus storage cavity ; the noise reduction space and the gas outlet are spaced by two partition plates, each of which forms a small groove thereon, so that noise goes into the noise reduction space with air through the small grooves and is circulated therein.
A lamp assembly , comprising: a heat sink ; a LED assembly in thermal communication with said heat sink to dissipate heat away from said LED assembly , said LED assembly including at least one LED operable to emit a light in response to a flow of a LED current (I LED ) through said at least one LED , and a LED driver circuit in electrical communication with said LED assembly to control the flow of the LED current (I LED ) through said at least one LED , wherein said heat sink defines a circuit housing area and said LED driver circuit is disposed within said circuit housing area characterized in that said LED assembly is attached to said heat sink via thermal conductors ; and said LED driver circuit comprises a controller mounted on a circuit board which is supported by a mounting board attached to said heat sink via said thermal conductors . a heat sink ; a LED assembly in thermal communication with said heat sink to dissipate heat away from said LED assembly , said LED assembly including at least one LED operable to emit a light in response to a flow of a LED current (I LED ) through said at least one LED , and a LED driver circuit in electrical communication with said LED assembly to control the flow of the LED current (I LED ) through said at least one LED , wherein said heat sink defines a circuit housing area and said LED driver circuit is disposed within said circuit housing area characterized in that said LED assembly is attached to said heat sink via thermal conductors ; and said LED driver circuit comprises a controller mounted on a circuit board which is supported by a mounting board attached to said heat sink via said thermal conductors .
A speech input method, comprising: detecting (S11) whether a user's face is in proximity to a speech input device including at least two microphones ; obtaining audio signals through sound collection by the at least two microphones of single directivity obtained by performing a process of adjusting directivity of the at least two microphones by adjusting a phase of each of the obtained signals; and performing correction processing (S12) by the speech input device on the obtained audio signal when it is detected that the user's face is in proximity to the speech input device , wherein the obtained audio signals are obtained through sound collection by each of the at least two microphones , characterized in that the correction processing includes a process of converting single directivity of the at least two microphones into omni-directional directivity by not performing the process of adjusting directivity of the at least two microphones by adjusting a phase of each of the obtained audio signals. detecting (S11) whether a user's face is in proximity to a speech input device including at least two microphones ; obtaining audio signals through sound collection by the at least two microphones of single directivity obtained by performing a process of adjusting directivity of the at least two microphones by adjusting a phase of each of the obtained signals; and performing correction processing (S12) by the speech input device on the obtained audio signal when it is detected that the user's face is in proximity to the speech input device , wherein the obtained audio signals are obtained through sound collection by each of the at least two microphones , characterized in that the correction processing includes a process of converting single directivity of the at least two microphones into omni-directional directivity by not performing the process of adjusting directivity of the at least two microphones by adjusting a phase of each of the obtained audio signals.
A Raman spectrum inspection apparatus , comprising: an exciting light source configured to emit an exciting light to a sample to be inspected; an optical device configured to collect an optical signal from a position, which is irradiated by the exciting light , of the sample to be inspected; and a spectrometer configured to generate a Raman spectrum of the sample to be inspected from a received optical signal , wherein an excitation optical path in which the exciting light passes from the exciting light source to the sample to be inspected and a detection optical path in which the optical signal received by the spectrometer passes from the sample to be inspected to the spectrometer are separated from each other, wherein the optical device comprises a first lens configured to collect the optical signal from the position, which is irradiated by the exciting light , of the sample to be inspected, and wherein a reflective component is provided in the excitation optical path , and the reflective component has a reflective region for reflecting the exciting light towards the first lens , characterized in that the reflective component has a light transmission hole allowing a part of the optical signal from the position, which is irradiated by the exciting light , of the sample to be inspected to pass through. an exciting light source configured to emit an exciting light to a sample to be inspected; an optical device configured to collect an optical signal from a position, which is irradiated by the exciting light , of the sample to be inspected; and a spectrometer configured to generate a Raman spectrum of the sample to be inspected from a received optical signal , wherein an excitation optical path in which the exciting light passes from the exciting light source to the sample to be inspected and a detection optical path in which the optical signal received by the spectrometer passes from the sample to be inspected to the spectrometer are separated from each other, wherein the optical device comprises a first lens configured to collect the optical signal from the position, which is irradiated by the exciting light , of the sample to be inspected, and wherein a reflective component is provided in the excitation optical path , and the reflective component has a reflective region for reflecting the exciting light towards the first lens , characterized in that the reflective component has a light transmission hole allowing a part of the optical signal from the position, which is irradiated by the exciting light , of the sample to be inspected to pass through.
A method of manufacturing a panel transducer scale package, the method comprising the steps of: securing one or more acoustic components at predetermined locations on a first carrier substrate , a first surface of the one or more acoustic components positioned adjacent to the first carrier substrate; securing one or more application-specific integrated circuits, ASIC, components at predetermined locations on the first carrier substrate, a first surface of the one or more ASIC components positioned adjacent to the first carrier substrate; applying a photoresist resin over the one or more acoustic components and the one or more ASIC components such that the one or more acoustic components and the one or more ASIC components are embedded within the photoresist resin and a second surface of the one or more acoustic components is left exposed from the photoresist resin; removing the first carrier substrate to expose the first surface of the one or more acoustic components and the first surface of the one or more ASIC components; forming a buildup layer over the one or more acoustic components, the one or more ASIC components, and the photoresist resin, the buildup layer including electrical pathways between the first surface of each of the one or more acoustic components and the first surface of at least one of the one or more ASIC components; and removing the photoresist resin. securing one or more acoustic components at predetermined locations on a first carrier substrate , a first surface of the one or more acoustic components positioned adjacent to the first carrier substrate; securing one or more application-specific integrated circuits, ASIC, components at predetermined locations on the first carrier substrate, a first surface of the one or more ASIC components positioned adjacent to the first carrier substrate; applying a photoresist resin over the one or more acoustic components and the one or more ASIC components such that the one or more acoustic components and the one or more ASIC components are embedded within the photoresist resin and a second surface of the one or more acoustic components is left exposed from the photoresist resin; removing the first carrier substrate to expose the first surface of the one or more acoustic components and the first surface of the one or more ASIC components; forming a buildup layer over the one or more acoustic components, the one or more ASIC components, and the photoresist resin, the buildup layer including electrical pathways between the first surface of each of the one or more acoustic components and the first surface of at least one of the one or more ASIC components; and removing the photoresist resin.