mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator control method, the refrigerator comprising a refrigerating compartment , a door closing the refrigerating compartment, and a camera movably disposed in the refrigerating compartment for capturing images of an interior of the refrigerating compartment and the door ; characterized in that the method comprises the method steps of: upon acquiring a signal indicating that a person approaches and wants to open the door of the refrigerator, controlling the camera to move from an initial position to a first position; upon acquiring a signal indicating that the door switches to an open status from a closed status, controlling the camera to gradually move from the first position to a second position; upon acquiring an opening angle of the door, comparing the opening angle of the door with a threshold angle, and controlling the camera to capture an image of an interior of the door when the opening angle of the door is less than the threshold angle; upon acquiring a signal indicating that the door switches to the closed status from the open status or upon acquiring a signal indicating that the opening angle of the door is gradually decreased, controlling the camera to gradually move to the first position and capture an image of an interior of the door; and upon acquiring a signal indicating that the door is closed, controlling the camera to return to the initial position and capture an image of an interior of the refrigerating compartment. upon acquiring a signal indicating that a person approaches and wants to open the door of the refrigerator, controlling the camera to move from an initial position to a first position; upon acquiring a signal indicating that the door switches to an open status from a closed status, controlling the camera to gradually move from the first position to a second position; upon acquiring an opening angle of the door, comparing the opening angle of the door with a threshold angle, and controlling the camera to capture an image of an interior of the door when the opening angle of the door is less than the threshold angle; upon acquiring a signal indicating that the door switches to the closed status from the open status or upon acquiring a signal indicating that the opening angle of the door is gradually decreased, controlling the camera to gradually move to the first position and capture an image of an interior of the door; and upon acquiring a signal indicating that the door is closed, controlling the camera to return to the initial position and capture an image of an interior of the refrigerating compartment.
A circuit , comprising: a scan chain of cascaded flip-flops , the flip-flops in the chain being configured to selectively (M, TE) couple a functional input node (D) and a test input node (TI) to logic circuitry (CL) said flip-flops being triggered by a clock edge at a clock edge time (t setup , t hold ), clock circuitry (Clock) configured to distribute at least one clock signal to the flip-flops in the chain , wherein the flip-flops in the chain have active clock edges (CK) applied thereto at respective clock edge times, the circuit is characterised in that the flip-flops in the chain comprise a set of flip-flops configured to receive an edge inversion signal (TM) and to selectively invert said active clock edges (CKT) in response to said edge inversion signal (TM) being asserted. a scan chain of cascaded flip-flops , the flip-flops in the chain being configured to selectively (M, TE) couple a functional input node (D) and a test input node (TI) to logic circuitry (CL) said flip-flops being triggered by a clock edge at a clock edge time (t setup , t hold ), clock circuitry (Clock) configured to distribute at least one clock signal to the flip-flops in the chain , wherein the flip-flops in the chain have active clock edges (CK) applied thereto at respective clock edge times, the circuit is characterised in that the flip-flops in the chain comprise a set of flip-flops configured to receive an edge inversion signal (TM) and to selectively invert said active clock edges (CKT) in response to said edge inversion signal (TM) being asserted.
A device for determining a focus position (F) of a laser beam in a laser machining system , comprising: at least two surfaces of at least one optical element , each configured to reflect a portion of the laser beam for outcoupling a sub-beam , the at least two sub-beams including a first sub-beam and a second sub-beam being superimposed substantially coaxially; a spatially-resolving sensor for detecting an intensity distribution of the superimposed sub-beams ; and an evaluation unit configured to determine diameters of the superimposed sub-beams based on the intensity distribution of the superimposed sub-beams detected by the spatially-resolving sensor and to determine a focus position (F) of the laser beam based on the diameters of the sub-beams . at least two surfaces of at least one optical element , each configured to reflect a portion of the laser beam for outcoupling a sub-beam , the at least two sub-beams including a first sub-beam and a second sub-beam being superimposed substantially coaxially; a spatially-resolving sensor for detecting an intensity distribution of the superimposed sub-beams ; and an evaluation unit configured to determine diameters of the superimposed sub-beams based on the intensity distribution of the superimposed sub-beams detected by the spatially-resolving sensor and to determine a focus position (F) of the laser beam based on the diameters of the sub-beams .
An active encasement for a mattress or foundation comprising: a rectangular top panel defining an exterior surface and an interior surface; a rectangular bottom panel defining an exterior surface and an interior surface , said interior surface of said bottom panel formed as a slick surface; an inflatable volume formed on an exterior surface of said bottom panel ; a fixed side panel connecting one side of said top panel to one end of said bottom panel ; three side panels , each of said three side panels defining an upper portion and a lower portion , said upper portions connected to said top panel and said lower portions connected to said bottom panel , a zipper being provided for connecting said upper portions to said lower portions ; and an air supply for providing air to said inflatable volume . a rectangular top panel defining an exterior surface and an interior surface; a rectangular bottom panel defining an exterior surface and an interior surface , said interior surface of said bottom panel formed as a slick surface; an inflatable volume formed on an exterior surface of said bottom panel ; a fixed side panel connecting one side of said top panel to one end of said bottom panel ; three side panels , each of said three side panels defining an upper portion and a lower portion , said upper portions connected to said top panel and said lower portions connected to said bottom panel , a zipper being provided for connecting said upper portions to said lower portions ; and an air supply for providing air to said inflatable volume .
A method for producing a paper sheet with a papermaking machine, the method comprising: determining a square point for the paper sheet from a plurality of measurements of one or more speed parameters for the papermaking machine and a plurality of measurements of one or more fiber distribution parameters for the paper sheet, wherein the plurality of measurements for the one or more speed parameters and the plurality of measurements for the one or more fiber distribution parameters are taken during operation of the papermaking machine; and setting one or more speed parameters for the papermaking machine to produce the paper sheet based on the determined square point. determining a square point for the paper sheet from a plurality of measurements of one or more speed parameters for the papermaking machine and a plurality of measurements of one or more fiber distribution parameters for the paper sheet, wherein the plurality of measurements for the one or more speed parameters and the plurality of measurements for the one or more fiber distribution parameters are taken during operation of the papermaking machine; and setting one or more speed parameters for the papermaking machine to produce the paper sheet based on the determined square point.
A method, comprising: receiving, by a mobile device , radio frequency, RF, signals from a plurality of RF sources ; determining information associated with the plurality of RF sources ; comparing the determined information with a priori information associated with a set of indoor-only RF sources; determining if the determined information associated with the plurality of RF sources includes all, or parts of, the information associated with at least one of the set of indoor-only RF sources; if the determined information associated with the plurality of RF sources includes all, or parts of, the information associated with at least one of the set of indoor-only RF sources, using an indoor positioning algorithm to determine a location of the mobile device ; and if the determined information associated with the plurality of RF sources does not include any of information associated with at least one of the set of indoor-only RF sources, using an outdoor positioning algorithm to determine the location of the mobile device ; characterized by disable outdoor positioning logic and reduce the power used by the outdoor positioning logic , if the determined information associated with the plurality of RF sources includes at least one of the set of indoor-only RF sources; and disable indoor positioning logic and reduce the power used by the indoor positioning logic , if the determined information associated with the plurality of RF sources does not include at least one of the set of indoor-only RF sources. receiving, by a mobile device , radio frequency, RF, signals from a plurality of RF sources ; determining information associated with the plurality of RF sources ; comparing the determined information with a priori information associated with a set of indoor-only RF sources; determining if the determined information associated with the plurality of RF sources includes all, or parts of, the information associated with at least one of the set of indoor-only RF sources; if the determined information associated with the plurality of RF sources includes all, or parts of, the information associated with at least one of the set of indoor-only RF sources, using an indoor positioning algorithm to determine a location of the mobile device ; and if the determined information associated with the plurality of RF sources does not include any of information associated with at least one of the set of indoor-only RF sources, using an outdoor positioning algorithm to determine the location of the mobile device ; characterized by disable outdoor positioning logic and reduce the power used by the outdoor positioning logic , if the determined information associated with the plurality of RF sources includes at least one of the set of indoor-only RF sources; and disable indoor positioning logic and reduce the power used by the indoor positioning logic , if the determined information associated with the plurality of RF sources does not include at least one of the set of indoor-only RF sources.
A battery pack , comprising: a plurality of battery cells ; a housing which has a first case part and a second case part located below the first case part and which accommodates the plurality of battery cells ; and a latch part provided on the first case part , wherein the latch part has a manipulation part to be manipulated by an operator, a biasing part which biases the manipulation part to an outside of the housing, and a first abutting part which one end side of the biasing part abuts, the manipulation part moves in a horizontal direction on an inside of an upper wall of the housing, and a portion of the manipulation part is exposed to the outside from a through hole formed in the housing, and a support part which regulates the movement of the latch part in the horizontal direction is provided on the second case part side, wherein the support part supports the latch part from below, the support part is provided on any one of a member that holds the battery cells , a circuit board disposed above the battery cells , and the second case part , the support part is a protrusion formed to protrude upward from any one of the member , the circuit board and the second case part , and an upper surface of the protrusion serves as a sliding surface with a lower surface of the manipulation part . a plurality of battery cells ; a housing which has a first case part and a second case part located below the first case part and which accommodates the plurality of battery cells ; and a latch part provided on the first case part , wherein the latch part has a manipulation part to be manipulated by an operator, a biasing part which biases the manipulation part to an outside of the housing, and a first abutting part which one end side of the biasing part abuts, the manipulation part moves in a horizontal direction on an inside of an upper wall of the housing, and a portion of the manipulation part is exposed to the outside from a through hole formed in the housing, and a support part which regulates the movement of the latch part in the horizontal direction is provided on the second case part side, wherein the support part supports the latch part from below, the support part is provided on any one of a member that holds the battery cells , a circuit board disposed above the battery cells , and the second case part , the support part is a protrusion formed to protrude upward from any one of the member , the circuit board and the second case part , and an upper surface of the protrusion serves as a sliding surface with a lower surface of the manipulation part .
Valve device for a high-pressure cleaning appliance for controlling the flow of a cleaning liquid, in particular for dispensing a cleaning liquid in a controlled manner, having a valve housing that comprises a through-channel extending from a valve inlet to a valve outlet , in which a valve seat element that forms a valve seat is arranged and in which a closing body is arranged that is applied with a closing force in the direction of the valve seat by a closing spring and abuts against the valve seat in a closing position and is movable into an open position at a distance from the valve seat by displacing a valve plunger , characterized in that the valve seat element consists, at least in a valve seat region forming the valve seat , of an aluminum oxide ceramic with a degree of purity of at least 99.8% or of a dispersion ceramic on the basis of aluminum oxide with dispersed zirconium oxide, and in that the valve seat element has a conical sealing surface that forms the valve seat , as well as a flow-guiding surface which is arranged directly upstream of the sealing surface in the flow direction of the cleaning liquid and tapers in the flow direction of the cleaning liquid.
An antibody, or antigen-binding fragment thereof, that comprises: a heavy chain variable region having an amino acid sequence set forth as SEQ ID NO: 89, and a light chain variable region having an amino acid sequence set forth as SEQ ID NO: 93, 94, 95, or 96; a heavy chain variable region having an amino acid sequence set forth as SEQ ID NO: 90, and a light chain variable region having an amino acid sequence set forth as SEQ ID NO: 93 or 94; or a heavy chain variable region having an amino acid sequence set forth as SEQ ID NO: 91, and a light chain variable region having an amino acid sequence set forth as SEQ ID NO: 93 or 94.
A method comprising: analyzing a gas turbomachine component to detect at least one of a void or a porosity of the gas turbomachine component while maintaining a structural integrity of the gas turbomachine component during the analyzing (PI), wherein analyzing includes performing a computed tomography (CT) scan of the gas turbomachine component and microfocus analysis of the gas turbomachine component ; providing instructions to perform a hot isostatic pressing (HIP) process on the gas turbomachine component in response to at least one of detecting the void or detecting that the porosity exceeds a threshold (P2); analyzing the gas turbomachine component after the HIP process (P3) and determining an effectiveness of the HIP process by comparing the analyzing of the gas turbomachine component to detect at least one of a void or porosity with the analyzing of the gas turbomachine component after the HIP process (P4). analyzing a gas turbomachine component to detect at least one of a void or a porosity of the gas turbomachine component while maintaining a structural integrity of the gas turbomachine component during the analyzing (PI), wherein analyzing includes performing a computed tomography (CT) scan of the gas turbomachine component and microfocus analysis of the gas turbomachine component ; providing instructions to perform a hot isostatic pressing (HIP) process on the gas turbomachine component in response to at least one of detecting the void or detecting that the porosity exceeds a threshold (P2); analyzing the gas turbomachine component after the HIP process (P3) and determining an effectiveness of the HIP process by comparing the analyzing of the gas turbomachine component to detect at least one of a void or porosity with the analyzing of the gas turbomachine component after the HIP process (P4).
Method for performing shifts in a dog clutch element of a transmission system in a hybrid vehicle , having 1.1 an input shaft which is connected to a crankshaft of an internal combustion engine of the hybrid vehicle ; 1.2 an output shaft which is connected at least indirectly to driven wheels of the hybrid vehicle ; 1.3 an electric machine which is in engagement with the input shaft ; 1.4 an automatic transmission or a transmission which is shiftable in an automated manner between the input shaft and the output shaft , which transmission 1.4.1 has at least one dog clutch element for the releasable coupling of two transmission elements, wherein 1.5 during a desired shifting of the dog clutch element , the torque of the input shaft is adapted via the electric machine , and therefore 1.6 a reduced load prevails in the region of the dog clutch element and the latter can be disengaged, after which 1.7 the internal combustion engine is braked or accelerated to the desired target rotational speed via the electric machine , characterized in that after this 1.8 the dog clutch element is engaged when or shortly before the target rotational speed is reached. 1.1 an input shaft which is connected to a crankshaft of an internal combustion engine of the hybrid vehicle ; 1.2 an output shaft which is connected at least indirectly to driven wheels of the hybrid vehicle ; 1.3 an electric machine which is in engagement with the input shaft ; 1.4 an automatic transmission or a transmission which is shiftable in an automated manner between the input shaft and the output shaft , which transmission 1.4.1 has at least one dog clutch element for the releasable coupling of two transmission elements, 1.5 during a desired shifting of the dog clutch element , the torque of the input shaft is adapted via the electric machine , and therefore 1.6 a reduced load prevails in the region of the dog clutch element and the latter can be disengaged, after which 1.7 the internal combustion engine is braked or accelerated to the desired target rotational speed via the electric machine , characterized in that after this 1.8 the dog clutch element is engaged when or shortly before the target rotational speed is reached.
A coating material for the surfaces of panels, especially panels made of wood, wood-based material, plastic or a wood/plastic mixed material, comprised of a single resin-impregnated cellulose layer with a decor on one side, said layer being equipped with a transparent cover layer that covers the decor made of an acrylate lacquer which can be cured by radiation, characterised in that the impregnation with synthetic resin is 50 to 75% in relation to the weight of the cellulose layer.
Output device for a measuring device for measuring a measuring variable, wherein the output device is designed to generate at least one output signal based on at least one sensor signal of the sensor device of a measuring device and wherein the output device has at least two signal outlets for output of the at least one output signal, wherein the second signal outlet has at least one relay and wherein the two signal outlets are used for the output of output signals of different signal types, characterized in that the two different types of signals are analog signals and digital signals, wherein the first signal outlet is used for the output of analog signals and wherein the second signal outlet is used for the output of digital signals, wherein the analog signal is a current signal and wherein the digital signal is a digital signal with two values, i.e. a binary signal and that a coil of the relay is connected in series with the first signal outlet .
A clutch for a drive train of a motor vehicle having a torque-introducing part which is connectable for the transfer of torque to a torque-discharging part , wherein the torque-discharging part is connected to a torque-transmitting part for rotation therewith, wherein the torque-transmitting part has a centring collar that interacts with a centring seat on the torque-discharging part for centring the torque-discharging part relative to the torque-transmitting part , characterised in that the clutch is designed as a multiple disc clutch having a disc spring as a preloading element and the centring collar for contacting and centring the disc spring .
A nickel-based alloy comprising: 7.25-7.75 wt% Cr; 0.6-1.0 wt% Mo; 8.5-9.1 wt% W; 6.0-6.4 wt% Al; 0.6-1.0 wt% Ti; 0.06-0.10 wt% C; 0.01-0.02 wt% B; 0.4-0.6 wt% Hf; and one of: 8.6-9.6 wt% Co and 4.0-4.8 wt% Ta; or 8.6-9.4 wt% Co, 3.8-4.4 wt% Ta, and 0.4-0.6 wt% Re, with the balance consisting of Ni and trace impurities. 7.25-7.75 wt% Cr; 0.6-1.0 wt% Mo; 8.5-9.1 wt% W; 6.0-6.4 wt% Al; 0.6-1.0 wt% Ti; 0.06-0.10 wt% C; 0.01-0.02 wt% B; 0.4-0.6 wt% Hf; and 8.6-9.6 wt% Co and 4.0-4.8 wt% Ta; or 8.6-9.4 wt% Co, 3.8-4.4 wt% Ta, and 0.4-0.6 wt% Re,
A method of attaching a feedthrough to a titanium housing of an implantable medical device according to claims 13 to 21, the method comprising: applying a sinter paste onto a surface of the housing about a perimeter of an opening through the housing , the sinter paste including a biocompatible bonding material; placing an insulator of the feedthrough onto the sinter paste so as to cover the opening ; and heating the sinter paste to a temperature less than a beta-transus temperature of the titanium of the housing and to a temperature less than a melting point of the biocompatible bonding material for a desired duration to form, from the sinter paste , a sinter joint which bonds the feedthrough directly to the housing via the insulator and hermetically seals the opening . applying a sinter paste onto a surface of the housing about a perimeter of an opening through the housing , the sinter paste including a biocompatible bonding material; placing an insulator of the feedthrough onto the sinter paste so as to cover the opening ; and heating the sinter paste to a temperature less than a beta-transus temperature of the titanium of the housing and to a temperature less than a melting point of the biocompatible bonding material for a desired duration to form, from the sinter paste , a sinter joint which bonds the feedthrough directly to the housing via the insulator and hermetically seals the opening .
An ethylene-(meth)acrylic acid copolymer having a polydispersity index (PDI) calculated by a gel permeation chromatography (GPC)-light scattering (LS) detector in a range from 3.5 to 8.0, and having a melt flow index (MFI) measured at 190°C and 2.16 kg in a range from 350 g/lOmin to 1800 g/lOmin.