mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for an electronic device , said apparatus comprising: a linear discrete-time oscillator configured to receive three input parameters and configured to form a discrete-valued oscillating output signal according to the three input parameters, values of the three input parameters being correspondingly determinative of gain, phase, and frequency characteristics of the discrete-valued oscillating output signal, wherein the linear discrete-time oscillator comprises a self-resetting mechanism configured to reset the oscillator at a desired rate or periodic interval, wherein resetting occurs at a cycle boundary; and a single multiplier stage configured to receive the discrete-valued oscillating signal formed by said linear discrete-time oscillator and configured to receive an input signal and to form an output signal comprised of a complex product of the input signal and the discrete-valued oscillating signal. a linear discrete-time oscillator configured to receive three input parameters and configured to form a discrete-valued oscillating output signal according to the three input parameters, values of the three input parameters being correspondingly determinative of gain, phase, and frequency characteristics of the discrete-valued oscillating output signal, wherein the linear discrete-time oscillator comprises a self-resetting mechanism configured to reset the oscillator at a desired rate or periodic interval, wherein resetting occurs at a cycle boundary; and a single multiplier stage configured to receive the discrete-valued oscillating signal formed by said linear discrete-time oscillator and configured to receive an input signal and to form an output signal comprised of a complex product of the input signal and the discrete-valued oscillating signal.
A system, comprising: an aircraft having a seat, the seat having a seat back defining a surface ; a pocket member having a top portion , a bottom portion , an exterior side , and an interior side ; and two spring members , each of the two spring members being positioned vertically between the surface and the interior side of the pocket member, each of the two spring members having a spring top portion and a spring bottom portion , each of the spring top portions being attached to the top portion of the pocket member, each of the spring bottom portions being attached to the surface at a location corresponding to a vertical position of the bottom portion of the pocket member; wherein each of the spring top portions are not attached to the surface, wherein each of the spring bottom portions are not attached to the bottom portion of the pocket member; wherein the surface, the pocket member, and the two spring members form a pocket configured to, at a given time, be one of: open at the top portion of the pocket member, open at the bottom portion of the pocket member, or closed; wherein the two spring members are configured to maintain the pocket as closed when an external force is not acting on the pocket member . an aircraft having a seat, the seat having a seat back defining a surface ; a pocket member having a top portion , a bottom portion , an exterior side , and an interior side ; and two spring members , each of the two spring members being positioned vertically between the surface and the interior side of the pocket member, each of the two spring members having a spring top portion and a spring bottom portion , each of the spring top portions being attached to the top portion of the pocket member, each of the spring bottom portions being attached to the surface at a location corresponding to a vertical position of the bottom portion of the pocket member; wherein each of the spring top portions are not attached to the surface, wherein each of the spring bottom portions are not attached to the bottom portion of the pocket member; wherein the surface, the pocket member, and the two spring members form a pocket configured to, at a given time, be one of: open at the top portion of the pocket member, open at the bottom portion of the pocket member, or closed; wherein the two spring members are configured to maintain the pocket as closed when an external force is not acting on the pocket member .
Ultrasound flow meter capsule comprising a housing and an insert , the housing comprises an aperture forming an open end to an internal cavity with a cavity surface extending towards a closed end , and the insert comprises an outer surface and an inner surface forming a measuring channel having a measuring channel inlet and a measuring channel outlet , wherein the measuring channel is configured with a measuring channel axis extending from the measuring channel inlet to the measuring channel outlet , wherein the insert is arranged in the internal cavity with the measuring channel inlet arranged towards the cavity closed end , the cavity surface of the housing and the outer surface of the insert are arranged to form an outer flow channel with a channel inlet at the cavity open end and to form a turning section at the cavity closed end , wherein the internal cavity and the insert are configured to provide an intended flow direction from the channel inlet , via the outer flow channel , via the turning section , and via the measuring channel , to the measuring channel outlet , characterized in that the insert further comprises two ribs arranged on its outer surface , separated by a rib distance and extending along the outer flow channel between the outer surface of the insert and the cavity surface , thereby providing a flow path extending between the channel inlet and the turning section and where the rib distance gradually narrows down in the intended flow direction such that the rib distance closest to the measuring channel outlet is larger than the rib distance closest to the measuring channel inlet .
A light guide plate, LPG, positioning structure, comprising: a plurality of positioning members arranged between a first surface of a LGP and a back plate , wherein the first surface of the light guide plate is adjacent to a light incident surface of the LGP for light from a light source , wherein a first direction (X) being a direction extending from a first end of the first surface near the light incident surface of the LGP toward a second end of the first surface opposite to the first end and away from the light incident surface of the LGP , characterized in that a surface reflectivity of each positioning member at a side of the light guide plate near the incident surface is lower than a surface reflectivity of any other positioning members at the same side of the light guide plate away from the light incident surface.
An optical device comprising: first and second outer substrates ; a liquid crystal element positioned between the first and second outer substrates and having a structure in which a first base layer , a liquid crystal layer and a second base layer are sequentially laminated; and an adhesive film positioned between the first outer substrate and the liquid crystal element and between the second outer substrate and the liquid crystal element , characterized in that the first base layer and the second base layer each have a flexural rigidity (D) of 2.2 ∗ 10 -4 N·m to 1 ∗ 10 -2 Nm, as represented by Equation 1 below. D = Eh e 3 12 1 − υ 2 wherein, D is the flexural rigidity of the base layer, E is the Young's modulus of the base layer, h e is the thickness of the base layer, and υ is the Poisson's ratio of the base layer. first and second outer substrates ; a liquid crystal element positioned between the first and second outer substrates and having a structure in which a first base layer , a liquid crystal layer and a second base layer are sequentially laminated; and an adhesive film positioned between the first outer substrate and the liquid crystal element and between the second outer substrate and the liquid crystal element ,
A device for automatically fastening a grinding wheel on a carrier wheel of a grinding machine ; the device includes: a support for receiving a stack of grinding wheels; a frame , which is arranged essentially parallel to the support , so that the stack of grinding wheels is located between the support and the frame , wherein the frame only partially overlaps the outer edge of the uppermost grinding wheel of the stack, characterized by a mechanical pre-tensioning unit , which is coupled to the frame so that a defined force (F P ) is exerted by the frame on the stack of grinding wheels. a support for receiving a stack of grinding wheels; a frame , which is arranged essentially parallel to the support , so that the stack of grinding wheels is located between the support and the frame , wherein the frame only partially overlaps the outer edge of the uppermost grinding wheel of the stack, characterized by a mechanical pre-tensioning unit , which is coupled to the frame so that a defined force (F P ) is exerted by the frame on the stack of grinding wheels.
A system comprising: a first wireless base station configured to support a first wireless connection using a first network access technology, the first wireless connection including an uplink connection for providing an uplink data transfer from a user device and a first downlink connection for providing a first downlink data transfer to the user device; a second wireless base station configured to support a second wireless connection using a second network access technology that is different from the first network access technology, the second wireless connection maintained concurrently with the first wireless connection, the second wireless connection including a second downlink connection for providing a second downlink data transfer to the user device ; a communication interface between the first wireless base station and the second wireless base station ; and a first scheduler , coupled to the first wireless base station , configured to schedule uplink timeslots such that the user device can use a single radio to communicate the uplink data transfer concurrently with at least the first downlink data transfer or the second downlink data transfer by using the uplink connection as a single uplink connection for the uplink data transfer, and by using multiple downlink connections that include the first downlink connection with the first wireless base station and the second downlink connection with the second wireless base station , the uplink data transfer to the first wireless base station including uplink data for the second wireless base station . a first wireless base station configured to support a first wireless connection using a first network access technology, the first wireless connection including an uplink connection for providing an uplink data transfer from a user device and a first downlink connection for providing a first downlink data transfer to the user device; a second wireless base station configured to support a second wireless connection using a second network access technology that is different from the first network access technology, the second wireless connection maintained concurrently with the first wireless connection, the second wireless connection including a second downlink connection for providing a second downlink data transfer to the user device ; a communication interface between the first wireless base station and the second wireless base station ; and a first scheduler , coupled to the first wireless base station , configured to schedule uplink timeslots such that the user device can use a single radio to communicate the uplink data transfer concurrently with at least the first downlink data transfer or the second downlink data transfer by using the uplink connection as a single uplink connection for the uplink data transfer, and by using multiple downlink connections that include the first downlink connection with the first wireless base station and the second downlink connection with the second wireless base station , the uplink data transfer to the first wireless base station including uplink data for the second wireless base station .
Multilayer structure comprising a photoelectric substrate , at least one transparent conductive oxide layer (20a-b) and at least one conductive metal layer (25a-b) dedicated to forming an electrode, said structure also having at least one interface layer (30a-b) in contact with said transparent conductive oxide layer and said conductive metal layer, said interface layer being a self-assembled molecular monolayer, known as SAM, with said SAM layer present at the interface and in contact with the transparent conductive oxide layer and the conductive metal layer, being in contact with the whole of the upper face of the transparent conductive oxide layer (28a-b), characterized in that said SAM layer is formed from a silane of general formula (II) below: R-Si(X) 3 (II) in which: - R is an aliphatic, aromatic, linear or branched hydrocarbon chain in particular having at least three carbon atoms, - X is a halogen atom, in particular chlorine, or a C1 to C2 ether or thioether radical, and said conductive metal material being deposited in the form of at least one wire. in which: - R is an aliphatic, aromatic, linear or branched hydrocarbon chain in particular having at least three carbon atoms, - X is a halogen atom, in particular chlorine, or a C1 to C2 ether or thioether radical, and - R is an aliphatic, aromatic, linear or branched hydrocarbon chain in particular having at least three carbon atoms, - X is a halogen atom, in particular chlorine, or a C1 to C2 ether or thioether radical, and said conductive metal material being deposited in the form of at least one wire.
A method of producing a hot forged product using a brass, comprising heat-treating a raw material to be subjected to forging work using a brass having a composition consisting of - at least 59.2 to 63.0% by mass of Cu, - 1.00 to 2.00% by mass of Sn, - 0.05 to 0.25% by mass of Pb, - optionally 0.05 to 0.29% by mass of Sb, - optionally 0.05 to 0.20% by mass of P, - optionally 0.15% by mass or less of Fe, - optionally 0.15% by mass or less of Ni, and containing the residue composed of Zn and inevitable impurities at a heating rate of 5.2 °C/s or more from 350°C until reaching the forging temperature. - at least 59.2 to 63.0% by mass of Cu, - 1.00 to 2.00% by mass of Sn, - 0.05 to 0.25% by mass of Pb, - optionally 0.05 to 0.29% by mass of Sb, - optionally 0.05 to 0.20% by mass of P, - optionally 0.15% by mass or less of Fe, - optionally 0.15% by mass or less of Ni,
Household refrigeration appliance, having a thermally insulated inner container , which has two opposite side walls , a bottom wall and a top wall , as well as a rear wall , which delimit a storage compartment for refrigerated goods, which is accessible via a door leaf that is mounted such that it can be moved in relation to the inner container , as well as having at least one shelf , which is arranged in the storage compartment between the two opposite side walls and which forms a placement area for the refrigerated goods, and a refrigerated goods drawer , which is mounted such that it can be displaced in the storage compartment between a closed position and an open position and which has a drawer compartment that is delimited by at least one drawer wall, wherein the refrigerated goods drawer is embodied, in its closed position, to seal with a lower side of the shelf , in order to close off the drawer compartment in a moisture-proof manner, and the refrigerated goods drawer has two opposite lateral drawer walls and a rear drawer wall opposite the drawer front and at least one side wall insert is provided, which is separate from the refrigerated goods drawer and which is fastened to an upper edge of the lateral drawer walls and/or to an upper edge of the rear drawer wall , wherein the at least one separate side wall insert is embodied such that the upper edge of the separate side wall insert forms a substantially straight-running new upper edge, which compensates for the immediate upper edge of the refrigerated goods drawer .
A method comprising: a) determining, by a data processor, that a malicious computer uses a machine learning model with a boundary function for classification of input data in order to determine outcomes; b) generating, by the data processor, normal data, wherein the normal data includes typical input data corresponding to the type of machine learning model; c) providing, by the data processor, the normal data to the malicious computer; d) obtaining, by the data processor, classification data from the malicious computer, wherein the malicious computer uses the machine learning model to generate the classification data based on the normal data; e) determining, by the data processor, based on the classification data, characteristics of the machine learning model of the malicious computer; f) generating, by the data processor, based on the characteristics of the machine learning model of the malicious computer, transition data to be used as an input to the machine learning model and intended to shift the boundary function; g) providing, by the data processor to the malicious computer, the transition data; and h) repeating, by the data processor, steps f) and g), thereby causing the boundary function to shift over time. a) determining, by a data processor, that a malicious computer uses a machine learning model with a boundary function for classification of input data in order to determine outcomes; b) generating, by the data processor, normal data, wherein the normal data includes typical input data corresponding to the type of machine learning model; c) providing, by the data processor, the normal data to the malicious computer; d) obtaining, by the data processor, classification data from the malicious computer, wherein the malicious computer uses the machine learning model to generate the classification data based on the normal data; e) determining, by the data processor, based on the classification data, characteristics of the machine learning model of the malicious computer; f) generating, by the data processor, based on the characteristics of the machine learning model of the malicious computer, transition data to be used as an input to the machine learning model and intended to shift the boundary function; g) providing, by the data processor to the malicious computer, the transition data; and h) repeating, by the data processor, steps f) and g), thereby causing the boundary function to shift over time.
A method comprising, by one or more computing systems: determining for a plurality of geographic areas connected by a communication network, based on application data collected from the one or more geographic areas, one or more quality of experience metrics and one or more root-cause metrics; determining a percentile value for each quality of experience metric of each geographic area of the plurality of geographic areas; determining that one or more of the plurality of geographic areas have low quality of experience based on the one or more quality of experience metrics and a first set of criteria, wherein the first set of criteria comprises one or more first percentile thresholds for each of the one or more quality of experience metric percentile values; determining a percentile value for each root-cause metric of each geographic area having low quality of experience; determining one or more causes for the low quality of experience in each associated geographic area based on the one or more root-cause metrics and a second set of criteria, wherein the second set of criteria comprises one or more second percentile thresholds for each of the one or more root-cause metric percentile values, and wherein the one or more second percentile thresholds are looser than the one or more first percentile thresholds; and determining a solution recommendation for the low quality of experience of each associated geographic area based on the one or more causes of the low quality of experience of that geographic area. determining for a plurality of geographic areas connected by a communication network, based on application data collected from the one or more geographic areas, one or more quality of experience metrics and one or more root-cause metrics; determining a percentile value for each quality of experience metric of each geographic area of the plurality of geographic areas; determining that one or more of the plurality of geographic areas have low quality of experience based on the one or more quality of experience metrics and a first set of criteria, wherein the first set of criteria comprises one or more first percentile thresholds for each of the one or more quality of experience metric percentile values; determining a percentile value for each root-cause metric of each geographic area having low quality of experience; determining one or more causes for the low quality of experience in each associated geographic area based on the one or more root-cause metrics and a second set of criteria, wherein the second set of criteria comprises one or more second percentile thresholds for each of the one or more root-cause metric percentile values, and wherein the one or more second percentile thresholds are looser than the one or more first percentile thresholds; and determining a solution recommendation for the low quality of experience of each associated geographic area based on the one or more causes of the low quality of experience of that geographic area.
A method for preparing an electrode for a lithium secondary battery comprising: forming a primer layer including a conductor on a current collector; forming a patterned primer layer by forming a concave pattern through irradiating an ion beam over the whole primer layer surface; and forming an electrode layer including an electrode active material on the patterned primer layer. forming a primer layer including a conductor on a current collector; forming a patterned primer layer by forming a concave pattern through irradiating an ion beam over the whole primer layer surface; and forming an electrode layer including an electrode active material on the patterned primer layer.
A dental appliance, comprising an outer perimeter ; a line of symmetry ; a symmetric, arch-shaped bite line extending through the line of symmetry ; characterised in that at least one pocket contains a fluid located between the bite line and the outer perimeter ; and the outer perimeter is defined by a first front flap and a second front flap , said front flaps being separated by a forward cusp , and a first side flap and a second side flap , and a first side cusp separating said first front flap from said first side flap and a second side cusp separating said second front flap from said second side flap ; and wherein the line of symmetry extends through said forward cusp and wherein the fluid is a shear thickening fluid comprising a suspension of nanoparticles inside a polymer matrix. an outer perimeter ; forward cusp and wherein the shear thickening fluid comprises a suspension of nanoparticles inside a polymer matrix.
A method for discontinuous reception, DRX, wherein: when a transmission parameter for performing data transmission used by a terminal device is changed, adjusting , by the terminal device, a DRX parameter; monitoring , by the terminal device, a Physical Downlink Control Channel, PDCCH, based on the adjusted DRX parameter; the method characterised by the transmission parameter comprises a transmission bandwidth part, BWP; or a BWP and a numerology, wherein the numerology comprises a subcarrier spacing; and the DRX parameter comprises a DRX on duration timer and/or a DRX slot offset. when a transmission parameter for performing data transmission used by a terminal device is changed, adjusting , by the terminal device, a DRX parameter; monitoring , by the terminal device, a Physical Downlink Control Channel, PDCCH, based on the adjusted DRX parameter; the method characterised by the transmission parameter comprises a transmission bandwidth part, BWP; or a BWP and a numerology, wherein the numerology comprises a subcarrier spacing; and the DRX parameter comprises a DRX on duration timer and/or a DRX slot offset.