mhurhangee/patent-ind-claim-en huggingface dataset:
An insulated structure for a household appliance , said insulated structure comprising: a first panel ; a second panel coupled to the first panel to define a structural enclosure ; an evacuation port defined by the second panel ; a connector coupled to the second panel and disposed over the port ; a servicing tube coupled to the connector and extending along the second panel ; and a sensor coupled to the connector , characterised in that the servicing tube includes an attachment end , a maintenance portion and a stepped portion therebetween. a first panel ; a second panel coupled to the first panel to define a structural enclosure ; an evacuation port defined by the second panel ; a connector coupled to the second panel and disposed over the port ; a servicing tube coupled to the connector and extending along the second panel ; and a sensor coupled to the connector , characterised in that the servicing tube includes an attachment end , a maintenance portion and a stepped portion therebetween.
A method for determining an allocation of radio resources to a first user equipment, UE, device in a communication system such that radio resources assigned to the first UE device are non-orthogonal to radio resources assigned to a second UE device wherein, after such assignment, signals from the first and second UE devices may be received at a base station using the same radio resources, characterized in that the base station determines a suitability for assigning the non-orthogonal radio resources to the first UE device using a timing advance value measured from a random access message sent to the base station by said first UE device.
Pipe comprising at least one flexible duct having an axis (A22), an inner face (F22) directed toward the axis (A22), an outer face (F22') opposite to the inner face (F22), first and second ends (22.1, 22.2), a lower generatrix (G22), and a length corresponding to a distance separating the first and second ends (22.1, 22.2), wherein the pipe comprises at least one stiffening band , which is pressed against the duct over at least some of its length, extends along a longitudinal direction substantially parallel to the axis (A22) of the duct and has, at least in one state, considerable rigidity along the longitudinal direction, and wherein the stiffening band is metallic, the pipe being characterized in that the stiffening band is configured to deform elastically between a rolled-up state, when the cross sections of the stiffening band are rectilinear, and an elongate and rigid state, when the cross sections of the stiffening band are curved, the stiffening band having a first surface (F24) which is intended to be pressed against the duct and is curved and concave in the elongated and rigid state.
A method for regulating user data traffic in a wireless network comprising a wireless communication device, WCD, , the method performed by the WCD comprises: receiving admittance information, AI, indicating a threshold value to regulate the uplink traffic representing at least one condition of: a maximum number of small data transmissions or packets or messages per unit of time, under which the WCD is admitted to transmit user data to a base station of a radio access network, RAN; initiating the uplink, UL, transmission of user data via the wireless network; performing admission control for regulating said UL transmission of user data based on the received AI. receiving admittance information, AI, indicating a threshold value to regulate the uplink traffic representing at least one condition of: a maximum number of small data transmissions or packets or messages per unit of time, under which the WCD is admitted to transmit user data to a base station of a radio access network, RAN; initiating the uplink, UL, transmission of user data via the wireless network; performing admission control for regulating said UL transmission of user data based on the received AI.
A method of controlling a programmable ophthalmic lens device comprising a programmable ophthalmic lens and an optical function controller, the programmable ophthalmic lens having an optical function and extending between at least one eye of the wearer and the real world scene when the device is used by the wearer, and the optical function controller being arranged to control the optical function of the programmable ophthalmic lens, the method comprising: - an activity data receiving step (S3) during which activity data relating to the activity of the wearer are received by the optical function controller and stored over time, the activity data being determined using sensors on the programmable lens device, - an optical function data determining step during which optical function data are determined based on the evolution over time of the activity data, the optical function data comprising at least dioptric function data relating to a dioptric function based at least on the ophthalmic correction adapted to the wearer, the dioptric function relating to the progressive multifocal optical design most adapted for the wearer, - an optical function data receiving step (S4) during which optical function data relating to the optical function of the programmable ophthalmic lens is received by the optical function controller, - an optical function modifying step (S5) during which the optical function of the programmable electronic ophthalmic lens device is modified by the optical function controller based on the optical function data. - an activity data receiving step (S3) during which activity data relating to the activity of the wearer are received by the optical function controller and stored over time, the activity data being determined using sensors on the programmable lens device, - an optical function data determining step during which optical function data are determined based on the evolution over time of the activity data, the optical function data comprising at least dioptric function data relating to a dioptric function based at least on the ophthalmic correction adapted to the wearer, the dioptric function relating to the progressive multifocal optical design most adapted for the wearer, - an optical function data receiving step (S4) during which optical function data relating to the optical function of the programmable ophthalmic lens is received by the optical function controller, - an optical function modifying step (S5) during which the optical function of the programmable electronic ophthalmic lens device is modified by the optical function controller based on the optical function data.
A system for monitoring the levels of at least one substance in skin based on the substance's optical properties, comprising: a device including: a memory; a processor; a camera integral to said device coupled to said processor; a light source integral to said device coupled to said processor; and a software module stored in the memory, said software module configured to run on said processor configured to control the light emitted by the light source, control the camera, and analyze at least one measurement of an amount of light from the camera to calculate concentrations of the at least one substance using an algorithm; and an ancillary module configured to couple to said device such that when the ancillary module is coupled to said device and placed on the skin the ancillary module creates a light-tight housing for the camera of said device. wherein the ancillary module comprises one or more filters configured to control wavelengths of light transmitted by said light source or received by said camera, and wherein the ancillary module includes at least one first light pathway configured to direct light from said light source to the skin and at least one second light pathway configured to direct light reflected from the skin to said camera. a memory; a processor; a camera integral to said device coupled to said processor; a light source integral to said device coupled to said processor; and a software module stored in the memory, said software module configured to run on said processor configured to control the light emitted by the light source, control the camera, and analyze at least one measurement of an amount of light from the camera to calculate concentrations of the at least one substance using an algorithm; and an ancillary module configured to couple to said device such that when the ancillary module is coupled to said device and placed on the skin the ancillary module creates a light-tight housing for the camera of said device. wherein the ancillary module comprises one or more filters configured to control wavelengths of light transmitted by said light source or received by said camera, and wherein the ancillary module includes at least one first light pathway configured to direct light from said light source to the skin and at least one second light pathway configured to direct light reflected from the skin to said camera.
A method for wireless communication by a user equipment, UE , comprising: transmitting , to one or more base stations , a request to participate in a UE positioning procedure, wherein the request indicates one or more parameters to be used for transmission of positioning reference signals, PRS, as part of the UE positioning procedure; and receiving , from the one or more base stations, PRS transmitted in accordance with the one or more parameters indicated in the request; wherein the one or more parameters indicate a quasi-colocation, QCL/beam-direction to use for the UE positioning procedure. transmitting , to one or more base stations , a request to participate in a UE positioning procedure, wherein the request indicates one or more parameters to be used for transmission of positioning reference signals, PRS, as part of the UE positioning procedure; and receiving , from the one or more base stations, PRS transmitted in accordance with the one or more parameters indicated in the request; wherein the one or more parameters indicate a quasi-colocation, QCL/beam-direction to use for the UE positioning procedure.
A method for characterization of a subsurface formation, the method comprising: measuring in-air mass of a fluid-saturated sample of the subsurface formation, wherein the in-air mass comprises mass of the sample , mass of a fluid surrounding the sample , and mass of the fluid inside the sample , the in-air mass of the fluid-saturated sample , m s , given by the formula: m s = V m ρ m + V φ + V sur ρ l where ρ m is a density of the matrix of the subsurface formation, ρ l is a density of the fluid inside and surrounding the sample , V m is a volume of the matrix, V φ is a volume of the fluid inside the sample , and V sur is a volume of the fluid surrounding the sample ; determining volume of the fluid inside the sample , V φ , and volume of the fluid surrounding the sample , V sur , using nuclear magnetic resonance (NMR); placing the sample in a predetermined volume of a weighing fluid ; measuring the mass of the fluid-saturated sample in the weighing fluid , the mass of the sample in the weighing fluid , m f , given by the formula: m f = V m ρ m + V φ ρ l − V c ρ f where ρ f is the density of the weighing fluid ; and determining a volume of the sample , V c , using the formula: V c = m s − m f − V sur ρ l / ρ f . measuring in-air mass of a fluid-saturated sample of the subsurface formation, wherein the in-air mass comprises mass of the sample , mass of a fluid surrounding the sample , and mass of the fluid inside the sample , the in-air mass of the fluid-saturated sample , m s , given by the formula: m s = V m ρ m + V φ + V sur ρ l where ρ m is a density of the matrix of the subsurface formation, ρ l is a density of the fluid inside and surrounding the sample , V m is a volume of the matrix, V φ is a volume of the fluid inside the sample , and V sur is a volume of the fluid surrounding the sample ; determining volume of the fluid inside the sample , V φ , and volume of the fluid surrounding the sample , V sur , using nuclear magnetic resonance (NMR); placing the sample in a predetermined volume of a weighing fluid ; measuring the mass of the fluid-saturated sample in the weighing fluid , the mass of the sample in the weighing fluid , m f , given by the formula: m f = V m ρ m + V φ ρ l − V c ρ f where ρ f is the density of the weighing fluid ; and determining a volume of the sample , V c , using the formula: V c = m s − m f − V sur ρ l / ρ f .
A battery module comprising a module case having a bottom plate ; a plurality of battery cells ; and a resin layer, wherein at least two convex portions for guiding the battery cells are formed on the bottom plate, wherein the plurality of battery cells are mounted between said convex portions, wherein the battery module further comprises a cooling plate and cooling fins , wherein the cooling plate is positioned between the surface of the bottom plate , formed between the convex portions, and the battery cells , wherein the cooling fins are mounted so as to cover the upper surface of the convex portions, wherein the battery cells are mounted between the cooling fins , wherein the resin layer has a thermal conductivity, as measured according to ASTM D5470 standard, of 2 W/m·K or more, is in contact with said cooling fins and said convex portions, and is between said cooling fins and said convex portions of the bottom plate , and wherein the resin layer covers the entire area of the bottom plate . a module case having a bottom plate ; a plurality of battery cells ; and a resin layer, wherein at least two convex portions for guiding the battery cells are formed on the bottom plate, wherein the plurality of battery cells are mounted between said convex portions, wherein the battery module further comprises a cooling plate and cooling fins , wherein the cooling plate is positioned between the surface of the bottom plate , formed between the convex portions, and the battery cells , wherein the cooling fins are mounted so as to cover the upper surface of the convex portions, wherein the battery cells are mounted between the cooling fins , wherein the resin layer has a thermal conductivity, as measured according to ASTM D5470 standard, of 2 W/m·K or more, is in contact with said cooling fins and said convex portions, and is between said cooling fins and said convex portions of the bottom plate , and wherein the resin layer covers the entire area of the bottom plate .
A composition comprising: (i) a monoclonal antibody comprising amino acid sequences encoded by a light chain DNA sequence shown in SEQ ID NO: 1 and a heavy chain DNA sequence shown in SEQ ID NO: 2; or (ii) a single chain scFv antibody comprising amino acid sequences encoded by a light chain DNA sequence shown in SEQ ID NO: 5 and a heavy chain DNA sequence shown in SEQ ID NO: 6; wherein the antibody specifically binds the α-1,6 mannose backbone of fungal mannan. (i) a monoclonal antibody comprising amino acid sequences encoded by a light chain DNA sequence shown in SEQ ID NO: 1 and a heavy chain DNA sequence shown in SEQ ID NO: 2; or (ii) a single chain scFv antibody comprising amino acid sequences encoded by a light chain DNA sequence shown in SEQ ID NO: 5 and a heavy chain DNA sequence shown in SEQ ID NO: 6;
Transport system consisting of at least one, preferably several, autonomous and self-propelled transport vehicles and furthermore a plurality of route modules that can be coupled to one another on a transport level (T1, T2), each of the route modules consists of a body which extends essentially two-dimensionally within a transport level (T1, T2) and has a support surface (AF) and a working surface (AO), wherein the working surface (AO) has at least one pair of cross-sectionally three-dimensionally shaped travel lanes , which are arranged in one or both of perpendicularly aligned directions of travel (X, Y), wherein the route modules are designed as square or rectangular plates or frames that form one or more pairs of travel lanes in one direction or in two directions (X, Y) oriented at right angles to one another parallel to the side edges of the plates or frames, wherein the route modules are connected form-fit and/or force-fit to one another in the X and/or Y direction, wherein the transport vehicles are connected to the route modules by contacting at least some of the travel lanes , and wherein each route module contains an identification element with a coding that can be assigned to each of the transport vehicles , characterized in that : the travel lanes are in the form of notches with a trapezoidal cross section, wherein one route module is only being able to be driven on by a single transport vehicle .
A method for reducing coupling sensitivity deviation, comprising following steps: collecting sensitivities of different radio frequency, RF, channels to obtain sensitivity deviations between adjacent RF channels when a sample smart terminal is at a first predetermined position; wherein the first predetermined position is a position where a maximum signal strength is acquired by an antenna of the sample smart terminal; determining whether one of the sensitivity deviations is greater than a predetermined deviation threshold; determining whether a cause of the sensitivity deviation comprises a signal scattering effect and/or a signal radiation effect when one of the sensitivity deviations is greater than the predetermined deviation threshold; and producing a flexible circuit board of a smart terminal according to determination of the cause. collecting sensitivities of different radio frequency, RF, channels to obtain sensitivity deviations between adjacent RF channels when a sample smart terminal is at a first predetermined position; wherein the first predetermined position is a position where a maximum signal strength is acquired by an antenna of the sample smart terminal; determining whether one of the sensitivity deviations is greater than a predetermined deviation threshold; determining whether a cause of the sensitivity deviation comprises a signal scattering effect and/or a signal radiation effect when one of the sensitivity deviations is greater than the predetermined deviation threshold; and producing a flexible circuit board of a smart terminal according to determination of the cause.
A beverage maker for preparing hot beverages, including a) a connector for an external power supply system having a first maximum electrical power, wherein the connector is a single phase power system with a maximum power rating of 3 kW; b) at least one rechargeable storage unit for electrical energy (1, 1', 1"); c) a transformer that is electrically connected to the connector for an external power supply system and to the rechargeable storage unit for electrical energy (1, 1', 1"); and d) at least one high-performance electrical consumer for heating water, wherein the at least one high-performance electrical consumer has an electrical connection to the rechargeable storage unit for electrical energy (1, 1', 1") and is supplied with electrical energy by it, characterized in that the at least one high-performance electrical consumer for heating water has a minimum electrical power consumption that is higher than the first maximum electrical power, wherein the at least one rechargeable storage unit for electrical energy (1, 1', 1") has a second maximum electrical power that is higher than the first maximum electrical power, and is suitable to provide an electrical power of at least 6 kW, wherein the at least one high-performance electrical consumer for heating water is not supplied with heat energy by a hot water container to heat water, and wherein the connector for the electrical power supply system is connected to the electrical power supply system , wherein the at least one high-performance electrical consumer for heating water comprises or consists of a continuous-flow water heater. a) a connector for an external power supply system having a first maximum electrical power, wherein the connector is a single phase power system with a maximum power rating of 3 kW; b) at least one rechargeable storage unit for electrical energy (1, 1', 1"); c) a transformer that is electrically connected to the connector for an external power supply system and to the rechargeable storage unit for electrical energy (1, 1', 1"); and d) at least one high-performance electrical consumer for heating water, wherein the at least one high-performance electrical consumer has an electrical connection to the rechargeable storage unit for electrical energy (1, 1', 1") and is supplied with electrical energy by it, the at least one high-performance electrical consumer for heating water has a minimum electrical power consumption that is higher than the first maximum electrical power, wherein the at least one rechargeable storage unit for electrical energy (1, 1', 1") has a second maximum electrical power that is higher than the first maximum electrical power, and is suitable to provide an electrical power of at least 6 kW, wherein the at least one high-performance electrical consumer for heating water is not supplied with heat energy by a hot water container to heat water, and wherein the connector for the electrical power supply system is connected to the electrical power supply system , wherein the at least one high-performance electrical consumer for heating water comprises or consists of a continuous-flow water heater.
An electric dust collection device comprising: a charging part ; and a dust collecting part provided downstream of the charging part, wherein the dust collecting part comprises a plurality of bent portions formed by continuously bending an insulating sheet , wherein each of the plurality of bent portions comprises: two planes bent to face each other at a predetermined gap; and a connecting wall connecting respective one ends of the two planes in a vertical direction and provided with an opening ; characterized in that a positive electrode is formed in one of the two planes and a negative electrode is formed in another plane. a charging part ; and a dust collecting part provided downstream of the charging part, wherein the dust collecting part comprises a plurality of bent portions formed by continuously bending an insulating sheet , wherein each of the plurality of bent portions comprises: two planes bent to face each other at a predetermined gap; and a connecting wall connecting respective one ends of the two planes in a vertical direction and provided with an opening ; characterized in that a positive electrode is formed in one of the two planes and a negative electrode is formed in another plane. two planes bent to face each other at a predetermined gap; and a connecting wall connecting respective one ends of the two planes in a vertical direction and provided with an opening ; characterized in that a positive electrode is formed in one of the two planes and a negative electrode is formed in another plane.