mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated circuit package comprising a transceiver radio-frequency integrated circuit, RFIC, ; at least one antenna array formed in a redistribution metal layer, RDL, of the integrated circuit package, and arranged in a fan-out area of the integrated circuit package, and comprising at least one crossed dipole antenna , each crossed dipole antenna comprising a first dipole comprising two first legs , a second dipole comprising two second legs , and two leg pairs , each leg pair comprising one first leg of the first dipole and one second leg of the second dipole; the integrated circuit package further comprising at least one pair of feed lines formed in the RDL, wherein each feed line of each pair of feed lines is coupled between a respective leg pair of a respective crossed dipole antenna and the RFIC, and wherein each pair of feed lines is extending from a center of the respective crossed dipole antenna towards the RFIC between a neighboring first leg and a neighboring second leg of the two leg pairs of the respective crossed dipole antenna, wherein the neighboring first leg and the neighboring second leg belong to different leg pairs of the two leg pairs. a transceiver radio-frequency integrated circuit, RFIC, ; at least one antenna array formed in a redistribution metal layer, RDL, of the integrated circuit package, and arranged in a fan-out area of the integrated circuit package, and comprising at least one crossed dipole antenna , each crossed dipole antenna comprising a first dipole comprising two first legs , a second dipole comprising two second legs , and two leg pairs , each leg pair comprising one first leg of the first dipole and one second leg of the second dipole; a first dipole comprising two first legs , a second dipole comprising two second legs , and two leg pairs , each leg pair comprising one first leg of the first dipole and one second leg of the second dipole; the integrated circuit package further comprising at least one pair of feed lines formed in the RDL, wherein each feed line of each pair of feed lines is coupled between a respective leg pair of a respective crossed dipole antenna and the RFIC, and wherein each pair of feed lines is extending from a center of the respective crossed dipole antenna towards the RFIC between a neighboring first leg and a neighboring second leg of the two leg pairs of the respective crossed dipole antenna, wherein the neighboring first leg and the neighboring second leg belong to different leg pairs of the two leg pairs.
A detecting device configured to detect an elastic wave propagating through air, the detecting device comprising: a first electrode that is a plate having a cantilever structure with a fixed end (FX) and a free end (FR) and that vibrates by being bent by the elastic wave; and a second electrode that is a plate, that is opposed to the first electrode, and that has a predetermined distance from the first electrode, wherein the detecting device is further configured to detect the elastic wave on the basis of a change in capacitance between the first electrode and the second electrode, characterised in that an end of the second electrode in a direction from the fixed end to the free end is closer to the fixed end than the free end. a first electrode that is a plate having a cantilever structure with a fixed end (FX) and a free end (FR) and that vibrates by being bent by the elastic wave; and a second electrode that is a plate, that is opposed to the first electrode, and that has a predetermined distance from the first electrode, wherein the detecting device is further configured to detect the elastic wave on the basis of a change in capacitance between the first electrode and the second electrode, characterised in that an end of the second electrode in a direction from the fixed end to the free end is closer to the fixed end than the free end.
A laminated structure appropriate for use in constructing walls, floors, ceilings or doors, said laminated structure comprising: two external layers of one or more materials each having an interior surface, wherein each external layer of a material comprises a material selected from the group consisting of gypsum, ceramic, wood, magnesium oxide (MgO), cement, concrete and ceramic mixtures employing phosphates; at least one internal constraining layer covering an area that is less than the area of the interior surfaces; and two or more internal layer(s) of a viscoelastic glue applied to the interior surface of the external layers and separated by the at least one internal constraining layer , wherein each of said layers of viscoelastic glue is patterned to cover an area less than the area of the interior surfaces, and wherein at least a portion of the area of the interior surfaces is not covered by any of the internal layers of viscoelastic glue and the internal constraining layer ; thereby allowing moisture to pass through said structure. two external layers of one or more materials each having an interior surface, wherein each external layer of a material comprises a material selected from the group consisting of gypsum, ceramic, wood, magnesium oxide (MgO), cement, concrete and ceramic mixtures employing phosphates; at least one internal constraining layer covering an area that is less than the area of the interior surfaces; and two or more internal layer(s) of a viscoelastic glue applied to the interior surface of the external layers and separated by the at least one internal constraining layer , wherein each of said layers of viscoelastic glue is patterned to cover an area less than the area of the interior surfaces, and wherein at least a portion of the area of the interior surfaces is not covered by any of the internal layers of viscoelastic glue and the internal constraining layer ; thereby allowing moisture to pass through said structure.
A system for implementing an automobile electronic control function, wherein the system comprises a first vehicle integration unit, VIU, an automobile control unit, and a plurality of automobile parts , and the automobile control unit comprises a first domain controller, DC or a central computing platform, CCP ; the automobile control unit is configured to send first control information to the first VIU; and the first VIU is configured to control the plurality of automobile parts based on the first control information; wherein the system comprises a plurality of VIUs , the plurality of VIUs comprise the first VIU, and the plurality of VIUs form a ring communications network, or any two different VIUs in the plurality of VIUs have a communication connection; wherein the plurality of automobile parts are a first automobile part set, the system further comprises a second automobile part set, the plurality of VIUs further comprise a second VIU, the first VIU is configured to control the first automobile part set, and the second VIU is configured to control the second automobile part set; and the first VIU is further configured to: receive control information of the second automobile part set if the second VIU fails; and control an automobile part in the second automobile part set based on the control information of the second automobile part set. the automobile control unit is configured to send first control information to the first VIU; and the first VIU is configured to control the plurality of automobile parts based on the first control information; wherein the system comprises a plurality of VIUs , the plurality of VIUs comprise the first VIU, and the plurality of VIUs form a ring communications network, or any two different VIUs in the plurality of VIUs have a communication connection; wherein the plurality of automobile parts are a first automobile part set, the system further comprises a second automobile part set, the plurality of VIUs further comprise a second VIU, the first VIU is configured to control the first automobile part set, and the second VIU is configured to control the second automobile part set; and the first VIU is further configured to: receive control information of the second automobile part set if the second VIU fails; and control an automobile part in the second automobile part set based on the control information of the second automobile part set. receive control information of the second automobile part set if the second VIU fails; and control an automobile part in the second automobile part set based on the control information of the second automobile part set.
User equipment , comprising a processor , a memory , and a bus , wherein the processor and the memory are connected to each other by using the bus , wherein the processor is configured to establish a first substream to a communication peer end , wherein the first substream is a substream established by the user equipment to the communication peer end by using a first Internet Protocol, IP, address, the first IP address is an IP address allocated by a first gateway to the user equipment, and the first gateway is connected to the user equipment through a first base station ; the processor is further configured to obtain a second IP address, wherein the second IP address is an IP address allocated by a second gateway to the user equipment , and the second gateway is connected to the user equipment through a second base station ; the processor is further configured to establish a second substream to the communication peer end , wherein the second substream is a substream established by the user equipment to the communication peer end by using the second IP address; and the processor is further configured to cancel the first substream after the second substream is established, wherein the processor is further configured to transmit data of the first substream to the first base station, the first base station using a data forwarding tunnel, wherein the data forwarding tunnel is a data forwarding channel between the first base station and the second base station , wherein the processor is further configured to: after canceling the first substream, release the first IP address, and generate an indication message for instructing the first gateway to release the first IP address; and the user equipment further comprises a transmitter , configured to send, to the first gateway , the indication message for instructing the first gateway to release the first IP address.
Secondary part for attachment to and/or in a dental implant and suitable for receiving an auxiliary or tertiary part, comprising a secondary part body with a recess in the inside, further comprising a secondary part screw receivable or received in the recess , the secondary part body having a screw-in mechanism in the form of a contour for receiving a screw-in tool, the contour being formed by the secondary part body, for screwing in the dental implant connected to the secondary part into a jaw bone, wherein the secondary part screw has a self-retaining structure for the screwing-in tool, the self-retaining structure is arranged on a screw head of the secondary part screw , characterized in that the self-retaining structure is formed by at least one slit and wherein further the self-retaining structure is formed as a resilient head.
Process for the preparation of a hybrid gel with three-dimensional network structure formed by inorganic components and naturally derived organic components, said gel containing one or more medical and/or cosmetic compounds, comprising the following steps: a) in a first container, forming an aqueous or hydroalcoholic suspension containing between 1 and 4% by weight of at least one polysaccharide and between 0.5 and 1.5 by weight of at least one regulator of rheological properties; b) in a second container, suspending in water an alkoxide or an alkylalkoxide of silicon, titanium or mixtures thereof, and optionally precursors of oxides of one or more metals selected from zirconium, aluminum, and zinc, in a total amount of between 50 and 80% by weight, and adding to the suspension thus obtained a hydrolysis catalyst in a molar ratio ranging from 0.001 to 0.01 with respect to the total moles of alkoxide or alkylalkoxide, obtaining a solution; c) adding one or more medical and/or cosmetic compounds to the suspension obtained in step a) if said one or more compounds are lipophilic and/or to the solution obtained in step b) if said one or more compounds are hydrophilic, in an amount such that said medical and/or cosmetic compounds are from 0.2 to 5% by weight of the total weight of said suspension and solution; d) combining the suspensions and solutions obtained in steps a), b) and c), and maintaining the resulting suspension under stirring for a time varying between 10 minutes and 1 hour, obtaining a gel; e) allowing the gel obtained in step d) to rest in a closed container for a time of at least 10 days and bringing the pH of the same to a value between 4.3 and 5.5. a) in a first container, forming an aqueous or hydroalcoholic suspension containing between 1 and 4% by weight of at least one polysaccharide and between 0.5 and 1.5 by weight of at least one regulator of rheological properties; b) in a second container, suspending in water an alkoxide or an alkylalkoxide of silicon, titanium or mixtures thereof, and optionally precursors of oxides of one or more metals selected from zirconium, aluminum, and zinc, in a total amount of between 50 and 80% by weight, and adding to the suspension thus obtained a hydrolysis catalyst in a molar ratio ranging from 0.001 to 0.01 with respect to the total moles of alkoxide or alkylalkoxide, obtaining a solution; c) adding one or more medical and/or cosmetic compounds to the suspension obtained in step a) if said one or more compounds are lipophilic and/or to the solution obtained in step b) if said one or more compounds are hydrophilic, in an amount such that said medical and/or cosmetic compounds are from 0.2 to 5% by weight of the total weight of said suspension and solution; d) combining the suspensions and solutions obtained in steps a), b) and c), and maintaining the resulting suspension under stirring for a time varying between 10 minutes and 1 hour, obtaining a gel; e) allowing the gel obtained in step d) to rest in a closed container for a time of at least 10 days and bringing the pH of the same to a value between 4.3 and 5.5.
A method , performed by a node, for message transmission, comprising: receiving (S202) Bit Indexed Explicit Replication, BIER, information which is sent by other nodes except a first node in a distance-vector routing protocol, Babel, network in a Babel protocol extension manner, wherein the BIER information is used for acquiring a BIER forwarding entry; acquiring (S204) the BIER forwarding entry according to the BIER information; and sending (S206) a message encapsulated in a BIER manner to said other nodes according to the BIER forwarding entry. receiving (S202) Bit Indexed Explicit Replication, BIER, information which is sent by other nodes except a first node in a distance-vector routing protocol, Babel, network in a Babel protocol extension manner, wherein the BIER information is used for acquiring a BIER forwarding entry; acquiring (S204) the BIER forwarding entry according to the BIER information; and sending (S206) a message encapsulated in a BIER manner to said other nodes according to the BIER forwarding entry.
A method for enabling context aware actions among heterogeneous Internet of Things, ,IoT, devices, comprising: receiving , at an IoT device (510; 520; 530), data representing a context of each of a first set of IoT devices in an IoT network; receiving , at the IoT device (510; 520; 530), data representing a current state of each of a second set of IoT devices in the IoT network; and determining , by the IoT device (510; 520; 530), an action to perform at a target IoT device based on the received data representing the context of each of the first set of IoT devices and the received data representing the current state of each of the second set of IoT devices . receiving , at an IoT device (510; 520; 530), data representing a context of each of a first set of IoT devices in an IoT network; receiving , at the IoT device (510; 520; 530), data representing a current state of each of a second set of IoT devices in the IoT network; and determining , by the IoT device (510; 520; 530), an action to perform at a target IoT device based on the received data representing the context of each of the first set of IoT devices and the received data representing the current state of each of the second set of IoT devices .
Device for damping vibrations, comprising: - a hollow damper tube , - a piston rod with a piston fastened thereto, - at least one spring plate , and - at least one securing element , - wherein the piston is arranged within the damper tube , - wherein the spring plate is arranged outside the damper tube , - wherein the spring plate is connected to the damper tube both frictionally and in a form-fitting manner, and - wherein the spring plate is connected to the damper tube in a form-fitting manner by the securing element , characterized in that the spring plate is connected to the damper tube frictionally by a press connection and the damper tube comprises a groove for receiving the securing element . - a hollow damper tube , - a piston rod with a piston fastened thereto, - at least one spring plate , and - at least one securing element , - wherein the piston is arranged within the damper tube , - wherein the spring plate is arranged outside the damper tube , - wherein the spring plate is connected to the damper tube both frictionally and in a form-fitting manner, and - wherein the spring plate is connected to the damper tube in a form-fitting manner by the securing element ,
A method for measuring suspended solids in wastewater effluent from a centrifuge of a dewatering process for wastewater treatment, comprising: introducing an aqueous sample coming from the wastewater into a measurement system, comprising three lengths of tubing connected by couplers allowing for alternating directions of flow of the aqueous sample within the lengths of tubing; controlling a flow of the aqueous sample within the measurement system; pumping , using a pump, the aqueous sample through the three lengths of tubing; and measuring , using at least one optical sensor connected to the measurement system, a quantity of suspended solids in the aqueous sample, wherein at least one optical sensor is coupled to the lengths of tubing in a position to measure the quantity of suspended solids while the aqueous sample is located in the three lengths of tubing; comparing measured quantities of suspended solids to a set of predetermined parameters for levels of suspended solids programmed in the measurement system; altering flow control of the aqueous sample if the measured amount of suspended solids in the aqueous sample falls outside of the predetermined parameters. introducing an aqueous sample coming from the wastewater into a measurement system, comprising three lengths of tubing connected by couplers allowing for alternating directions of flow of the aqueous sample within the lengths of tubing; controlling a flow of the aqueous sample within the measurement system; pumping , using a pump, the aqueous sample through the three lengths of tubing; and measuring , using at least one optical sensor connected to the measurement system, a quantity of suspended solids in the aqueous sample, wherein at least one optical sensor is coupled to the lengths of tubing in a position to measure the quantity of suspended solids while the aqueous sample is located in the three lengths of tubing; comparing measured quantities of suspended solids to a set of predetermined parameters for levels of suspended solids programmed in the measurement system; altering flow control of the aqueous sample if the measured amount of suspended solids in the aqueous sample falls outside of the predetermined parameters.
A planar contact arrangement, formed for generating a dielectric barrier plasma on an application side of the contact arrangement, having a planar electrode arrangement , which is embedded in a planar dielectric material , can be supplied with high-voltage signals, and is shielded on all sides against an unobstructed current flow, wherein the contact arrangement extends with a width in a longitudinal direction (L) and wherein the length of the contact arrangement is resizable in this longitudinal direction (L), characterized in that the contact arrangement comprises multiple identically constructed sections in the longitudinal direction (L) each having a dielectric section in the width of the contact arrangement and each having at least one electrode section, wherein the electrode sections of the sections adjoin one another in the longitudinal direction (L) and form an electrode arrangement extending over the entire length, in that at least one section is separable at an intended separation line extending transversely to the longitudinal direction (L) from an adjacent section to reduce the size of the application area in the longitudinal direction (L), and in that an insulating component is provided to cover the intended separation line on the remaining section .
A method of estimating a biological component, comprising: obtaining a calibration spectrum based on a first light returning from an object; generating a signal of a biological component using a biological component measurement value that corresponds to the calibration spectrum, a unit biological component spectrum, and a light transmission path, wherein the biological component comprises at least one of blood glucose, cholesterol, neural fat, proteins, and uric acid, and wherein the unit biological component spectrum and the light transmission path are input in advance; removing the signal of the biological component from the calibration spectrum to obtain a background spectrum; measuring (810; 1030) a biological component estimation spectrum to estimate the biological component based on a second light returning from the object in response to a command for measuring the biological component; and estimating a value of the biological component based on the background spectrum and the biological component estimation spectrum. obtaining a calibration spectrum based on a first light returning from an object; generating a signal of a biological component using a biological component measurement value that corresponds to the calibration spectrum, a unit biological component spectrum, and a light transmission path, wherein the biological component comprises at least one of blood glucose, cholesterol, neural fat, proteins, and uric acid, and wherein the unit biological component spectrum and the light transmission path are input in advance; removing the signal of the biological component from the calibration spectrum to obtain a background spectrum; measuring (810; 1030) a biological component estimation spectrum to estimate the biological component based on a second light returning from the object in response to a command for measuring the biological component; and estimating a value of the biological component based on the background spectrum and the biological component estimation spectrum.