mhurhangee/patent-ind-claim-en huggingface dataset:
A system for suppressing transient noise, the system comprising: a plurality of input sensors adapted to input audio signals captured from one or more sources, wherein the audio signals contain voice data and transient noise captured by the input sensors; a reference sensor adapted to input a reference signal containing data about the transient noise, wherein the reference sensor is located separately from the input sensors; and a plurality of filters adapted to selectively filter the transient noise from the audio signals to extract the voice data based on the data contained in the reference signal, and output an enhanced audio signal containing the extracted voice data, wherein each of the filters is a broadband finite impulse response filter. a plurality of input sensors adapted to input audio signals captured from one or more sources, wherein the audio signals contain voice data and transient noise captured by the input sensors; a reference sensor adapted to input a reference signal containing data about the transient noise, wherein the reference sensor is located separately from the input sensors; and a plurality of filters adapted to selectively filter the transient noise from the audio signals to extract the voice data based on the data contained in the reference signal, and output an enhanced audio signal containing the extracted voice data, wherein each of the filters is a broadband finite impulse response filter.
. A solid detergent composition comprising: a) from 25 to 88 wt. % free acid equivalent of non-crystalline chiral aminopolycarboxylate; and b) from 10 to 60 wt. % free acid equivalent of non-crystalline organic acid different from aminopolycarboxylate; and c) from 0.01 to 20 wt. % of surfactant; and d) from 0.7 to 25 wt. % of water; wherein the organic acid has an average molecular mass of at most 500 Dalton, the molecular mass being based on the free acid equivalent; and wherein the ingredients a), b) c) and d) are molecularly distributed throughout the solid. a) from 25 to 88 wt. % free acid equivalent of non-crystalline chiral aminopolycarboxylate; and b) from 10 to 60 wt. % free acid equivalent of non-crystalline organic acid different from aminopolycarboxylate; and c) from 0.01 to 20 wt. % of surfactant; and d) from 0.7 to 25 wt. % of water; wherein the organic acid has an average molecular mass of at most 500 Dalton, the molecular mass being based on the free acid equivalent; and wherein the ingredients a), b) c) and d) are molecularly distributed throughout the solid.
A nonwoven fabric, comprising: (i) a first spunbond layer comprising a first plurality of crimped continuous fibers, wherein the first plurality of crimped continuous fibers comprise a first plurality of monocomponent fibers; (ii) a second spunbond layer comprising a second plurality of crimped continuous fibers; and (iii) a third spunbond layer comprising a third plurality of crimped continuous fibers, wherein the second spunbond layer is located directly between the first spunbond layer and the third spunbond layer; wherein the nonwoven fabric has a thickness of at least 0.3 mm at 0.2kPa, such as from 0.3 mm to 3 mm at 0.2kPa, and hydrostatic head of at least 15 mbar, such as at least any of the following: 15, 16, 18, 20, 22, and 25 mbar, and/or at most any of the following: 30, 28, 26, 25 mbar; wherein the thickness at 0.2kPa is measured in accordance FZ/T 60004-91 and wherein the hydrostatic head is measured in accordance with AATCC 127. (i) a first spunbond layer comprising a first plurality of crimped continuous fibers, wherein the first plurality of crimped continuous fibers comprise a first plurality of monocomponent fibers; (ii) a second spunbond layer comprising a second plurality of crimped continuous fibers; and (iii) a third spunbond layer comprising a third plurality of crimped continuous fibers, wherein the second spunbond layer is located directly between the first spunbond layer and the third spunbond layer; wherein the nonwoven fabric has a thickness of at least 0.3 mm at 0.2kPa, such as from 0.3 mm to 3 mm at 0.2kPa, and hydrostatic head of at least 15 mbar, such as at least any of the following: 15, 16, 18, 20, 22, and 25 mbar, and/or at most any of the following: 30, 28, 26, 25 mbar; wherein the thickness at 0.2kPa is measured in accordance FZ/T 60004-91 and wherein the hydrostatic head is measured in accordance with AATCC 127.
A layered body comprising: a skin layer made from a skin material; a cushioning layer made from a cushioning material; an adhesive layer made from an adhesive and provided between the skin layer and the cushioning layer ; wherein the cushioning layer comprises a concave portion , wherein the concave portion of the cushioning layer comprises a pair of valleys , wherein a portion of the skin layer located between the valleys and corresponding to a bottom portion of the concave portion has positive curvature in the side view, wherein the pair of valleys are separated by a distance (D, D1) set to have a predetermined length of equal or more than 5 mm, and wherein the bottom portion of the concave portion between the valleys in a surface of the cushioning layer on which the adhesive layer is provided has negative curvature or is flat in the side view. a skin layer made from a skin material; a cushioning layer made from a cushioning material; an adhesive layer made from an adhesive and provided between the skin layer and the cushioning layer ; wherein the cushioning layer comprises a concave portion , wherein the concave portion of the cushioning layer comprises a pair of valleys , wherein a portion of the skin layer located between the valleys and corresponding to a bottom portion of the concave portion has positive curvature in the side view, wherein the pair of valleys are separated by a distance (D, D1) set to have a predetermined length of equal or more than 5 mm, and wherein the bottom portion of the concave portion between the valleys in a surface of the cushioning layer on which the adhesive layer is provided has negative curvature or is flat in the side view.
A color filter material, comprising: a curable resin; a coupling agent; a solvent; a quantum dot for producing color; and a functional material comprising an inorganic powder whose surface has a modified layer, wherein the inorganic powder comprises any one or more of aluminum oxide, magnesium oxide, zinc oxide, zirconium oxide, silicon dioxide, titanium dioxide, boron oxide, diiron trioxide, calcium oxide, potassium oxide, sodium oxide and lithium oxide; and the modified layer is generated by a reaction of a dianhydride and a diamine. a curable resin; a coupling agent; a solvent; a quantum dot for producing color; and a functional material comprising an inorganic powder whose surface has a modified layer, wherein the inorganic powder comprises any one or more of aluminum oxide, magnesium oxide, zinc oxide, zirconium oxide, silicon dioxide, titanium dioxide, boron oxide, diiron trioxide, calcium oxide, potassium oxide, sodium oxide and lithium oxide; and the modified layer is generated by a reaction of a dianhydride and a diamine.
A method for controlling an uplink signal transmit power at a user equipment UE, the method comprising: receiving , by the UE, a downlink reference signal transmit power associated with a first resource indicator, a downlink reference signal transmit beamforming gain associated with a second resource indicator, an uplink signal receive beamforming gain associated with a third resource indicator, and an uplink signal target receive power associated with a fourth resource indicator; and transmitting , by the UE, an uplink signal associated with a fifth resource indicator to a transmission point TRP with a transmit power calculated based on a combination of power and gain information signaled to the UE by the TRP, wherein the downlink reference signal transmit power associated with the first resource indicator and the downlink reference signal transmit beamforming gain associated with the second resource indicator are signaled together as a single metric associated with a sixth resource indicator. receiving , by the UE, a downlink reference signal transmit power associated with a first resource indicator, a downlink reference signal transmit beamforming gain associated with a second resource indicator, an uplink signal receive beamforming gain associated with a third resource indicator, and an uplink signal target receive power associated with a fourth resource indicator; and transmitting , by the UE, an uplink signal associated with a fifth resource indicator to a transmission point TRP with a transmit power calculated based on a combination of power and gain information signaled to the UE by the TRP, wherein the downlink reference signal transmit power associated with the first resource indicator and the downlink reference signal transmit beamforming gain associated with the second resource indicator are signaled together as a single metric associated with a sixth resource indicator.
Balance spring including a first hairspring , the curve of which extends in a first plane and the inner coil of which includes a collet , a second hairspring , the curve of which extends in a second plane parallel to the first plane, an attachment member securing the outer coil of the first hairspring to the outer coil of the second hairspring so as to form a dual balance spring in series, characterised in that the curve of the first hairspring and the curve of the second hairspring each have a continuously variable pitch and are symmetrical relative to a straight line (A) parallel to the first and second planes and passing through the median plane of projection (P) of the attachment member , each curve being such that the moment of the balance spring of order n defined by the following relation is substantially zero: P → n = n + 1 L n + 1 ∫ 0 L ds ⋅ s n ⋅ x → s where: - n is an integer greater than or equal to zero; - P ( n ) is the moment of the balance spring of order n; - L is the length of the balance spring; - s n represents the curvilinear abscissa along the balance spring to the power of n ; - x ( s ) is the parameterisation of the balance spring by the curvilinear abscissa thereof. so as to reduce the displacements of the centre of mass thereof during contraction and expansion and in that each hairspring further includes at least two counterweights so as to compensate for the unbalance formed by the mass of the attachment member and personalise the anisochronism slope of the balance spring , said at least two counterweights being symmetrical along said same straight line (A) as the curves, two counterweights being located beside the attachment member and two other counterweights being located on the side opposite the attachment member so as to minimise the unbalance. - n is an integer greater than or equal to zero; - P ( n ) is the moment of the balance spring of order n; - L is the length of the balance spring; - s n represents the curvilinear abscissa along the balance spring to the power of n ; - x ( s ) is the parameterisation of the balance spring by the curvilinear abscissa thereof.
An exterior light control system for controlling exterior lights of a controlled vehicle, comprising: an imaging system configured to image a scene external and forward of the controlled vehicle and to generate image data corresponding to the acquired images; and a controller configured to: determine if the controlled vehicle is traveling on a motorway, receive and analyze the image data in order to detect headlamps of an oncoming vehicle, and generate an exterior light control signal that is used to control the exterior lights in response to analysis of the image data and in response to a selected mode of operation, wherein, if said controller detects that the controlled vehicle is traveling on a motorway and detects headlamps of one or more oncoming vehicle, said controller is configured to generate an exterior light control signal for reducing the brightness of the exterior lights , to determine a location within the acquired images of a headlamp closest to a central feature of the acquired images, and to set a dynamic delay based on the determined location, such that the delay is greater when the headlamp is detected closer to the central feature of the image and is lesser when the headlamp is detected closer to the side of the image, and wherein, upon determining that oncoming headlamps are no longer present in the acquired images that require the exterior lights to remain in a reduced brightness state, said controller is configured to nevertheless continue to analyze acquired images for the set dynamic delay before generating an exterior light control signal for increasing the brightness of the exterior lights . an imaging system configured to image a scene external and forward of the controlled vehicle and to generate image data corresponding to the acquired images; and a controller configured to: determine if the controlled vehicle is traveling on a motorway, receive and analyze the image data in order to detect headlamps of an oncoming vehicle, and generate an exterior light control signal that is used to control the exterior lights in response to analysis of the image data and in response to a selected mode of operation, wherein, if said controller detects that the controlled vehicle is traveling on a motorway and detects headlamps of one or more oncoming vehicle, said controller is configured to generate an exterior light control signal for reducing the brightness of the exterior lights , to determine a location within the acquired images of a headlamp closest to a central feature of the acquired images, and to set a dynamic delay based on the determined location, such that the delay is greater when the headlamp is detected closer to the central feature of the image and is lesser when the headlamp is detected closer to the side of the image, and wherein, upon determining that oncoming headlamps are no longer present in the acquired images that require the exterior lights to remain in a reduced brightness state, said controller is configured to nevertheless continue to analyze acquired images for the set dynamic delay before generating an exterior light control signal for increasing the brightness of the exterior lights .
Network entity for supporting registration of an external network entity , and/or of a service provided by the external network entity , at another network entity , wherein the network entity is configured to: obtain a first registration information from the external network entity, wherein the first registration information includes a service profile, create a clone of the service based on the first registration information , wherein the clone of the service is a service interface towards the other network entity and also towards the external network entity , provide a second registration information to the another network entity , wherein the second registration information includes a clone service profile of the clone of the service, and wherein the clone service profile is based on the service profile included in the first registration information and/or on profile information of the network entity , obtain a first registration response from the another network entity , and provide a second registration response to the external network entity , wherein the network entity and the another network entity are comprised in a network, and the external network entity is external to the network. obtain a first registration information from the external network entity, wherein the first registration information includes a service profile, create a clone of the service based on the first registration information , wherein the clone of the service is a service interface towards the other network entity and also towards the external network entity , provide a second registration information to the another network entity , wherein the second registration information includes a clone service profile of the clone of the service, and wherein the clone service profile is based on the service profile included in the first registration information and/or on profile information of the network entity , obtain a first registration response from the another network entity , and provide a second registration response to the external network entity , wherein the network entity and the another network entity are comprised in a network, and the external network entity is external to the network.
An electrical fluid heater comprising • a fluid inlet and a fluid outlet ; • at least one heating element • a plurality of plates stacked to form a fluid flow path between the fluid inlet and the fluid outlet for the fluid to be heated by the at least one heating element, the at least one heating element being sandwiched between adjacent plates thereby defining fluid heating spaces from either sides of the at least one heating element to permit heat exchange between the fluid flowing through the fluid heating spaces and the at least one heating element , characterized in that each of the plates comprise at least one opening , in particular formed on a substantial portion thereof, such that the fluid flowing through the fluid heating spaces is in direct contact with the heating elements . • a fluid inlet and a fluid outlet ; • at least one heating element • a plurality of plates stacked to form a fluid flow path between the fluid inlet and the fluid outlet for the fluid to be heated by the at least one heating element, the at least one heating element being sandwiched between adjacent plates thereby defining fluid heating spaces from either sides of the at least one heating element to permit heat exchange between the fluid flowing through the fluid heating spaces and the at least one heating element , characterized in that each of the plates comprise at least one opening , in particular formed on a substantial portion thereof, such that the fluid flowing through the fluid heating spaces is in direct contact with the heating elements .
A system for the treatment of epistaxis comprising: - a shape memory compressible member having a compressed configuration, in which the compressible member is compressed and is configured to be introduced into a nasal cavity of a patient, and an expanded configuration, in which the compressible member is expanded and is configured to contact walls of the nasal cavity of the patient, - a sheath configured to envelop the compressible member , said sheath comprising a net or a film, and - a compression device of the compressible member within the sheath , said compression device being configured to bring the compressible member into its compressed or deployed configuration. - a shape memory compressible member having a compressed configuration, in which the compressible member is compressed and is configured to be introduced into a nasal cavity of a patient, and an expanded configuration, in which the compressible member is expanded and is configured to contact walls of the nasal cavity of the patient, - a sheath configured to envelop the compressible member , said sheath comprising a net or a film, and - a compression device of the compressible member within the sheath , said compression device being configured to bring the compressible member into its compressed or deployed configuration.
A platform including two industrial robots , wherein the platform is arranged to be carried by a vehicle to a working site where the two industrial robots are to perform a task in relation to the working site , the platform includes a platform body ; wherein the platform further includes a platform control unit and a connecting arrangement with a connecting device arranged to be connected to a vehicle arm of the vehicle such that the platform can be carried by the vehicle arm of the vehicle , and wherein the platform body has an elongated shape with at least one long side and two short sides, wherein the connecting device is arranged to one long side of the platform body , and characterized in that each of the short sides holds one of the two industrial robots , and in that the connecting arrangement further includes an actuator arranged to cause the platform to rotate around an axis X-X defined by the connecting device according to instructions from the platform control unit .
A device for determining room-optimized transfer functions (TF) for a listening room derived for the listening room and serving for room-optimized post-processing of audio signals in spatial reproduction, wherein the spatial reproduction of the audio signals is emulated by means of a binaural close-range sound transducer using known head-related transfer functions (HRTF) and using the room-optimized transfer functions (TF), wherein a room to be synthesized may be emulated based on the head-related transfer functions (HRTF), and wherein the listening room may be emulated based on the room-optimized transfer functions (TF), wherein the device is configured to analyze room acoustics of the listening room and to determine, starting from analyzing the room acoustics, the room-optimized transfer functions (TF) for the listening room where the spatial reproduction by means of the binaural close-range sound transducer is to take place, wherein the device comprises a storage in which may be deposited a plurality of room-optimized transfer function families (TF) for a plurality of listening rooms , characterized in that the room-optimized transfer functions (TF) include per room a plurality of transfer functions assigned to individual solid angles, wherein each solid angle represents a sound propagation direction in the room.
A power delivery apparatus comprising a power source device , a power sink device and a data transmission link , the power source device connected to one end of the data transmission link , the power sink device selectively connectable to another end of the data transmission link , the data transmission link configured to permit transmission of data between the power source device and the power sink device when the power sink device is connected to the data transmission link , wherein the power source device is configured to apply a periodic sensing voltage to the data transmission link , the power delivery apparatus further including a sensing device configured to detect, via the application of the periodic sensing voltage to the data transmission link , whether the power sink device is connected to the data transmission link , and the power source device is configured so that, in response to the power sink device being detected as connected to the data transmission link , the power source device applies a power supply voltage to the data transmission link to supply electric power to the power sink device via the data transmission link so as to enable a normal operation of the power sink device , characterized in that the periodic sensing voltage is lower than the power supply voltage.