mhurhangee/patent-ind-claim-en huggingface dataset:
Sensor device (SE) for a computer system (CS), comprising a transceiver unit (SUE) and a data processing device (DV) that is connected to the transceiver unit (SUE), wherein the data processing device (DV) is configured - to specify for the transceiver unit (SUE) the emission of signals (US) at measuring intervals (MI), - to detect, by means of received, reflected signals, signal ranges (S1, S2) that can be associated with objects (O1, O2); - to determine, for detected signal ranges (S1, S2) that belong together, a deviation in the intensities (INT) of the received signal ranges (S1, S2) over a number of measuring intervals (MI) and - to decide with the aid of the deviation determined whether a change has taken place in the object that is associated with the respectively detected signal range (S1, S2), characterised in that the deviation is a variance (VAR) and the data processing device (DV) is further configured to evaluate the determined deviation by means of an integration method, in order to determine a magnitude or reflection surface of an object (O1, O2). - to specify for the transceiver unit (SUE) the emission of signals (US) at measuring intervals (MI), - to detect, by means of received, reflected signals, signal ranges (S1, S2) that can be associated with objects (O1, O2); - to determine, for detected signal ranges (S1, S2) that belong together, a deviation in the intensities (INT) of the received signal ranges (S1, S2) over a number of measuring intervals (MI) and - to decide with the aid of the deviation determined whether a change has taken place in the object that is associated with the respectively detected signal range (S1, S2),
An airfoil (500; 600; 700; 1000; 1010; 1020) for a gas turbine extending along a radial direction and having a leading edge (502; 602) and a trailing edge, the airfoil comprising: an airfoil wall ; having an inner surface and an outer surface , the airfoil wall forming an airfoil chamber at least partially enclosed within the airfoil wall ; and a plurality of airfoil passages (504; 604) formed in the airfoil wall at the leading edge , each of the plurality of airfoil passages (504; 604) comprising: a first opening (512; 708; 1008) in the outer surface , a second opening (514; 708; 1009) in the outer surface , and a channel (518; 702; 1002) extending from at least one of the first opening (512; 708; 1008) and the second opening (514; 708; 1009) within the airfoil wall to a third opening (516; 706; 1004) in the inner surface , the third opening (516; 708; 1004) providing fluid communication between the channel and the airfoil chamber ; wherein each channel (518; 702;1002) is a wave-like channel comprising a first portion at a first angle with respect to the radial direction, a second portion at a second angle with respect to the radial direction and a rounded transitional portion which connects the first portion and the second portion ; the first angle and the second angle being different from each other; or wherein each channel comprises a plurality of channels having different angles that intersect and form sharp-edged corners where they intersect, characterised in that for each of the plurality of airfoil passages , the channel tapers in at least one of a radial direction and an axial direction.
A method of communication between two or more devices in a body sensor network (BSN) having a hierarchical security managed by a processor or setup server which has: a generated L-level hierarchical relational deployment model (HRDM) including a tree structure of nodes representing respective devices in the BSN, wherein the nodes use body coupled communication (BCC) for communication with each other; including: nodes groups into subgroups; and the subgroups assigned to levels in the HRDM a generated multi-level hierarchical key pre-distribution scheme (HKPS) and an assignment of unique keying material to each of a plurality of levels in the HKPS, a unique KPS being generated for each subgroup in the HRDM ; and a security domain for each KPS linked to a its respective subgroup; the keying material being pre-distributed to the devices in respective levels of the HKPS; and the devices being deployed in the BSN; the method comprising: exchanging device identification information between said two or more devices in the BSN; identifying a deepest common node in the HRDM from which the two or more device's nodes depend; and establishing a communication link between the two or more devices using the keying material associated with the security domain of the deepest common node's subgroup. a generated L-level hierarchical relational deployment model (HRDM) including a tree structure of nodes representing respective devices in the BSN, wherein the nodes use body coupled communication (BCC) for communication with each other; including: nodes groups into subgroups; and the subgroups assigned to levels in the HRDM nodes groups into subgroups; and the subgroups assigned to levels in the HRDM a generated multi-level hierarchical key pre-distribution scheme (HKPS) and an assignment of unique keying material to each of a plurality of levels in the HKPS, a unique KPS being generated for each subgroup in the HRDM ; and a security domain for each KPS linked to a its respective subgroup; the keying material being pre-distributed to the devices in respective levels of the HKPS; and the devices being deployed in the BSN; exchanging device identification information between said two or more devices in the BSN; identifying a deepest common node in the HRDM from which the two or more device's nodes depend; and establishing a communication link between the two or more devices using the keying material associated with the security domain of the deepest common node's subgroup.
Surgical microscope comprising an optical system for imaging an object region into an image plane of an image capturing system by way of an optical beam path , comprising a first optical assembly through which the optical beam path passes; and comprising a second optical assembly that is disposed in the optical beam path on the side of the first optical assembly that faces away from the object region , wherein the second optical assembly is embodied as a system that at least partly compensates a longitudinal chromatic aberration of the first optical assembly that occurs in the wavelength range of the light between 625 nm ≤ λ ≤ 850 nm, characterized in that the first optical assembly is an achromatic system, which is corrected for light at a first wavelength and at a second wavelength, wherein the first wavelength lies in the wavelength region of λ ≈ 486 nm and the second wavelength lies in the wavelength region of λ ≈ 656 nm and only normal glasses are used for achromatization, the chromatic aberration of the light in said normal glasses being approximately 5-times as large in the near infrared and in the infrared than in the visible spectral range, wherein the sign of the chromatic aberrations in the near infrared and in the infrared is opposite to the sign of the chromatic aberrations in the visible spectral range and the second optical assembly is an apochromat or semi-apochromat that is corrected for light at the first wavelength, which lies in the wavelength region of λ ≈ 486 nm, and for light at the second wavelength, which lies in the wavelength region of λ ≈ 656 nm, and for light at a third wavelength, which lies in the wavelength region of λ ≈ 588 nm.
A composite nonwoven mat comprising: a nonwoven base layer formed from a plurality of fibers held together by a binder, the nonwoven base layer having a first surface and a second surface; and a coating layer adhered to the first surface, wherein the coating layer comprises a coating composition, the coating composition comprising polymer particles in a carrier composition, wherein the polymer particles comprise one or more of a polyolefin, a polyester, a polyamide, a polyimide, and a polyurethane, wherein the coating layer extends partially into the nonwoven base layer, and wherein the composite nonwoven mat has an average Gurley porosity of at least 500 seconds. a nonwoven base layer formed from a plurality of fibers held together by a binder, the nonwoven base layer having a first surface and a second surface; and a coating layer adhered to the first surface, wherein the coating layer comprises a coating composition, the coating composition comprising polymer particles in a carrier composition, wherein the polymer particles comprise one or more of a polyolefin, a polyester, a polyamide, a polyimide, and a polyurethane, wherein the coating layer extends partially into the nonwoven base layer, and wherein the composite nonwoven mat has an average Gurley porosity of at least 500 seconds.
A beam shaping system comprising an array of beam shaping units arranged in a general plane, each beam shaping unit comprising: a central area (A) for providing a beam passing function by refracting light from a light source beneath the central area; an intermediate area (B) for providing a beam shaping function via total internal reflection (TIR) of light from the light source beneath the central area; an outer area (C) for providing a beam shaping function via total internal reflection (TIR) of light from the light source beneath the central area and also providing total internal reflection of light from a light source beneath the central area of an adjacent beam shaping unit, and each beam shaping unit having a contoured surface for facing an array of light sources , wherein the contoured surface in the intermediate area (B) and the outer area (C) comprises a set of light deflecting prismatic elements , each having a first face for facing towards the light source and a second face for facing away from the light source, wherein the first face extends from the general plane at a first angle α and the second face extends from the general plane at a second angle β, wherein for the set of light deflecting prismatic elements in the intermediate area α < 85°, β > 50°, |α - β| > 5°, wherein for the set of light deflecting prismatic elements in the outer area 50° < α, β < 60° and |α - β| < 5°. a central area (A) for providing a beam passing function by refracting light from a light source beneath the central area; an intermediate area (B) for providing a beam shaping function via total internal reflection (TIR) of light from the light source beneath the central area; an outer area (C) for providing a beam shaping function via total internal reflection (TIR) of light from the light source beneath the central area and also providing total internal reflection of light from a light source beneath the central area of an adjacent beam shaping unit, and each beam shaping unit having a contoured surface for facing an array of light sources , wherein the contoured surface in the intermediate area (B) and the outer area (C) comprises a set of light deflecting prismatic elements , each having a first face for facing towards the light source and a second face for facing away from the light source, wherein the first face extends from the general plane at a first angle α and the second face extends from the general plane at a second angle β, wherein for the set of light deflecting prismatic elements in the intermediate area α < 85°, β > 50°, |α - β| > 5°, wherein for the set of light deflecting prismatic elements in the outer area 50° < α, β < 60° and |α - β| < 5°.
Lidar system for detecting surroundings , comprising • a laser light source for emitting a laser light, • a receiving apparatus for receiving a laser light reflected from the surroundings , and • a control apparatus for controlling the laser light source , characterized in that • the control apparatus is configured to control the laser light source to emit a continuous beam of light and to continuously modulate the emitted beam of light , as a result of which the beam of light comprises a multiplicity of successive codes , in such a way that time association of the beam of light is facilitated. • a laser light source for emitting a laser light, • a receiving apparatus for receiving a laser light reflected from the surroundings , and • a control apparatus for controlling the laser light source , • the control apparatus is configured to control the laser light source to emit a continuous beam of light and to continuously modulate the emitted beam of light , as a result of which the beam of light comprises a multiplicity of successive codes , in such a way that time association of the beam of light is facilitated.
An Infra Red-reflective architectural paint composition comprising i. red iron oxide pigment ii. phthalocyanine blue pigment iii. titanium dioxide and optionally yellow iron oxide wherein the composition is free of Infra Red-absorptive black pigments, Infra Red-transparent black pigments and Infra Red -reflective black pigments, has a lightness value, L*, when dry, of from 38 to 88 and the weight ratio of i:ii is from 3:1 to 15:1, i. red iron oxide pigment ii. phthalocyanine blue pigment iii. titanium dioxide and optionally yellow iron oxide
An outdoor unit of an air-conditioning apparatus, the outdoor unit comprising: a casing ; a compressor disposed on a bottom of the casing ; a box-shaped noise isolation unit disposed to cover the compressor , the noise isolation unit reducing or eliminating outward propagation of noise generated during operation of the compressor ; an anti-vibration cushion interposed between the compressor and an inner surface of the noise isolation unit , the anti-vibration cushion preventing vibration of the compressor during transportation of the outdoor unit ; and an attention-attracting section giving removal instructions for removing the anti-vibration cushion , characterized in that the noise isolation unit includes a shell facing part of a side face of the compressor and having an opening at an upper end thereof, and an upper plate covering the opening; and in that the attention-attracting section is sandwiched between the upper plate and the shell in such a manner that a portion on which the removal instructions are given is positioned outside the noise isolation unit . a casing ; a compressor disposed on a bottom of the casing ; a box-shaped noise isolation unit disposed to cover the compressor , the noise isolation unit reducing or eliminating outward propagation of noise generated during operation of the compressor ; an anti-vibration cushion interposed between the compressor and an inner surface of the noise isolation unit , the anti-vibration cushion preventing vibration of the compressor during transportation of the outdoor unit ; and an attention-attracting section giving removal instructions for removing the anti-vibration cushion , characterized in that the noise isolation unit includes a shell facing part of a side face of the compressor and having an opening at an upper end thereof, and an upper plate covering the opening; and in that the attention-attracting section is sandwiched between the upper plate and the shell in such a manner that a portion on which the removal instructions are given is positioned outside the noise isolation unit .
A method, comprising: forming a lithium metal film on a current collector, wherein the current collector comprises copper and/or stainless steel; and forming a protective film stack on the lithium metal film, comprising: forming a first protective film on the lithium metal film, wherein the first protective film is selected from a tin chalcogenide film, a gallium chalcogenide film, a germanium chalcogenide film, an indium chalcogenide film, a silver chalcogenide film, a dielectric film, or a combination thereof; and forming a second protective film on the first protective film, the second protective film selected from a lithium fluoride (LiF) film, a metallic film, a carbon-containing film, or a combination thereof. forming a lithium metal film on a current collector, wherein the current collector comprises copper and/or stainless steel; and forming a protective film stack on the lithium metal film, comprising: forming a first protective film on the lithium metal film, wherein the first protective film is selected from a tin chalcogenide film, a gallium chalcogenide film, a germanium chalcogenide film, an indium chalcogenide film, a silver chalcogenide film, a dielectric film, or a combination thereof; and forming a second protective film on the first protective film, the second protective film selected from a lithium fluoride (LiF) film, a metallic film, a carbon-containing film, or a combination thereof. forming a first protective film on the lithium metal film, wherein the first protective film is selected from a tin chalcogenide film, a gallium chalcogenide film, a germanium chalcogenide film, an indium chalcogenide film, a silver chalcogenide film, a dielectric film, or a combination thereof; and forming a second protective film on the first protective film, the second protective film selected from a lithium fluoride (LiF) film, a metallic film, a carbon-containing film, or a combination thereof.
A method implemented by a transmitter, comprising: encoding digital in-phase and quadrature-phase, IQ, data of a plurality of analog signals according to a first multi-level modulation format to produce a modulated IQ signal; encoding control information associated with the plurality of analog signals according to a second multi-level modulation format that is different from the first multi-level modulation format to produce a modulated control signal; aggregating the modulated IQ signal and the modulated control signal via time-division multiplexing, TDM, to produce an aggregated TDM signal; and transmitting the aggregated TDM signal over a wireless fronthaul communication channel. encoding digital in-phase and quadrature-phase, IQ, data of a plurality of analog signals according to a first multi-level modulation format to produce a modulated IQ signal; encoding control information associated with the plurality of analog signals according to a second multi-level modulation format that is different from the first multi-level modulation format to produce a modulated control signal; aggregating the modulated IQ signal and the modulated control signal via time-division multiplexing, TDM, to produce an aggregated TDM signal; and transmitting the aggregated TDM signal over a wireless fronthaul communication channel.
A liquid treatment device, characterized in that the liquid treatment device comprises: a housing having a housing body and a cover body , wherein the housing body is open at one end in a length direction and is close at the other end, the cover body is matched with the one end of the housing body for sealing the one end, and the cover body is provided with an inlet for a liquid to flow into the cover body ; a reverse osmosis membrane unit located in an accommodation space enclosed by the housing body and the cover body , the reverse osmosis membrane unit comprising a reverse osmosis membrane for performing reverse osmosis treatment on the liquid, a collector tube collects a purified liquid obtained by the reverse osmosis treatment, and a support rod supporting the reverse osmosis membrane , wherein the reverse osmosis membrane comprises a liquid inlet at one end in the length direction; and a filter arranged in the cover body and located between the liquid inlet and the inlet and is used to filter the liquid entering the cover body via the inlet , the filtered liquid entering the reverse osmosis membrane via the liquid inlet, and a sealing member arranged between an outer circumference of the reverse osmosis membrane and an inner wall of the housing , said liquid treatment device being characterized in that the other end of the housing is provided with a recess for accommodating the liquid collector tube and a sealing ring provided between an outer wall of the collector tube and an inner wall of the housing . a housing having a housing body and a cover body , wherein the housing body is open at one end in a length direction and is close at the other end, the cover body is matched with the one end of the housing body for sealing the one end, and the cover body is provided with an inlet for a liquid to flow into the cover body ; a reverse osmosis membrane unit located in an accommodation space enclosed by the housing body and the cover body , the reverse osmosis membrane unit comprising a reverse osmosis membrane for performing reverse osmosis treatment on the liquid, a collector tube collects a purified liquid obtained by the reverse osmosis treatment, and a support rod supporting the reverse osmosis membrane , wherein the reverse osmosis membrane comprises a liquid inlet at one end in the length direction; and a filter arranged in the cover body and located between the liquid inlet and the inlet and is used to filter the liquid entering the cover body via the inlet , the filtered liquid entering the reverse osmosis membrane via the liquid inlet, and a sealing member arranged between an outer circumference of the reverse osmosis membrane and an inner wall of the housing , said liquid treatment device being characterized in that the other end of the housing is provided with a recess for accommodating the liquid collector tube and a sealing ring provided between an outer wall of the collector tube and an inner wall of the housing .
A method, performed at a first edge device connected in uplink to a network node of a communication network for detection of an object based on sensor data, comprising: obtaining (S610, S710) first sensor data; processing (S620, S720) the first sensor data for object detection to obtain a first estimation score based on said first sensor data, using a first estimation model; transmitting, through a lateral connection in a local network to a second edge device, either: said first sensor data (S630), or a request for a second estimation score (S740); receiving a second estimation score computed in the second edge device using a second estimation model for object detection based on either: - said first sensor data (S640) when the first sensor data is transmitted through the lateral connection, or - second sensor data (S740) when the request for a second estimation score is transmitted through the lateral connection, and wherein the second sensor data is obtained in the second edge device and pertains to a common environment as the first sensor data; and dependent on the first estimation score and the received second estimation score, determining (S650, S750) estimation output data. obtaining (S610, S710) first sensor data; processing (S620, S720) the first sensor data for object detection to obtain a first estimation score based on said first sensor data, using a first estimation model; transmitting, through a lateral connection in a local network to a second edge device, either: said first sensor data (S630), or a request for a second estimation score (S740); said first sensor data (S630), or a request for a second estimation score (S740); receiving a second estimation score computed in the second edge device using a second estimation model for object detection based on either: - said first sensor data (S640) when the first sensor data is transmitted through the lateral connection, or - second sensor data (S740) when the request for a second estimation score is transmitted through the lateral connection, and wherein the second sensor data is obtained in the second edge device and pertains to a common environment as the first sensor data; and - said first sensor data (S640) when the first sensor data is transmitted through the lateral connection, or - second sensor data (S740) when the request for a second estimation score is transmitted through the lateral connection, and wherein the second sensor data is obtained in the second edge device and pertains to a common environment as the first sensor data; and dependent on the first estimation score and the received second estimation score, determining (S650, S750) estimation output data.