mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: a first processor core of a plurality of processor cores performing work in a system management mode, wherein one or more of the plurality of processor cores apart from the first processor core are operational outside of the system management mode; and the first processor core responds to an inter-processor interrupt while in the system management mode characterized in that the first processor core enters the system management mode responsive to receipt of a first broadcast system management interrupt in the plurality of processor cores that causes the plurality of processor cores to enter into the system management mode, and wherein responsive to receipt of a second broadcast system management interrupt in the plurality of processor cores that alerts the plurality of processor cores to exit the system management mode if not busy in the system management mode, the processor cores apart from the first processor core exit the system management mode. a first processor core of a plurality of processor cores performing work in a system management mode, wherein one or more of the plurality of processor cores apart from the first processor core are operational outside of the system management mode; and the first processor core responds to an inter-processor interrupt while in the system management mode
A bowl for an induction motor intended to be housed in the hollow body of a substantially longitudinal actuator for the rolling/unrolling of canvases, screens, blinds or roller shutters, characterized in that the bowl comprises an outer skirt and an inner skirt, the outer skirt and the inner skirt delimiting therebetween a space intended to receive a leading-out wire of a stator of the induction motor, and in that the inner skirt is adapted to be deformed so as to restrict the space between the inner skirt and the outer skirt in order to allow inserting, inside the inner skirt, means for supporting a rotor assembly.
An image search device comprising: a shooting unit configured when the image search device is in a shooting mode to continuously photographically shoot a subject to generate a shooting status presenting image as a moving image, and responsive to a user input to generate and store a photo image of the subject; a display unit for displaying the shooting status presenting image; a control unit configured to display, at the time of the shooting mode, a search key for image search on said display unit; a specifying unit which is used for specifying said search key displayed on said display unit; and a searching unit configured to search, in the event of said search key being specified via said specifying unit, an image based on said search key thus specified; wherein said control unit displays, in the event of said image being searched by said searching unit, this search result on said display unit. a shooting unit configured when the image search device is in a shooting mode to continuously photographically shoot a subject to generate a shooting status presenting image as a moving image, and responsive to a user input to generate and store a photo image of the subject; a display unit for displaying the shooting status presenting image; a control unit configured to display, at the time of the shooting mode, a search key for image search on said display unit; a specifying unit which is used for specifying said search key displayed on said display unit; and a searching unit configured to search, in the event of said search key being specified via said specifying unit, an image based on said search key thus specified; wherein said control unit displays, in the event of said image being searched by said searching unit, this search result on said display unit.
A control method for a test system including a smear imaging unit configured to image a smear of a specimen, the control method comprising: preparing a plurality of the smears; sequentially storing, in a storing container capable of storing therein a plurality of the smears, the smears having been prepared; and characterized in that the method further comprises the step of transporting, when information about a standby situation for imaging processing by the smear imaging unit satisfies a predetermined condition, the storing container that stores therein the smears to the smear imaging unit regardless of the number of the smears stored in the storing container. preparing a plurality of the smears; sequentially storing, in a storing container capable of storing therein a plurality of the smears, the smears having been prepared; and characterized in that the method further comprises the step of transporting, when information about a standby situation for imaging processing by the smear imaging unit satisfies a predetermined condition, the storing container that stores therein the smears to the smear imaging unit regardless of the number of the smears stored in the storing container.
A control arrangement for controlling a superheat of a vapour compression system, the vapour compression system comprising a compressor, a condenser, an expansion device and an evaporator arranged along a refrigerant path, the control arrangement comprising: - a first sensor arranged to measure a first control parameter of refrigerant flowing in the refrigerant path, - a second sensor arranged to measure a second control parameter of refrigerant flowing in the refrigerant path, wherein the superheat value of the vapour compression system can be derived by means of the first control parameter and the second control parameter, - a low pass filter arranged to receive a signal from the first sensor, said low pass filter being designed in accordance with the dynamic behaviour of the evaporator and/or of the first sensor, - a first controller arranged to receive a signal directly from the first sensor, said first controller comprising a proportional differential element, - a subtraction element arranged to receive input from the second sensor and from the low pass filter, said subtraction element being arranged to derive a superheat value, based on the received input, - a second controller arranged to receive the superheat value derived by the subtraction element, and to supply a control signal, based on the derived superheat value, and in accordance with a reference superheat value, - a summation element arranged to receive input from the first controller and from the second controller, said summation element being arranged to supply a control signal for controlling opening degree of the expansion device on the basis of the received input. - a first sensor arranged to measure a first control parameter of refrigerant flowing in the refrigerant path, - a second sensor arranged to measure a second control parameter of refrigerant flowing in the refrigerant path, wherein the superheat value of the vapour compression system can be derived by means of the first control parameter and the second control parameter, - a low pass filter arranged to receive a signal from the first sensor, said low pass filter being designed in accordance with the dynamic behaviour of the evaporator and/or of the first sensor, - a first controller arranged to receive a signal directly from the first sensor, said first controller comprising a proportional differential element, - a subtraction element arranged to receive input from the second sensor and from the low pass filter, said subtraction element being arranged to derive a superheat value, based on the received input, - a second controller arranged to receive the superheat value derived by the subtraction element, and to supply a control signal, based on the derived superheat value, and in accordance with a reference superheat value, - a summation element arranged to receive input from the first controller and from the second controller, said summation element being arranged to supply a control signal for controlling opening degree of the expansion device on the basis of the received input.
Tool device for changing a bearing component, characterised in that the tool device comprises a tool with a carrier table for taking the bearing component to be changed and a spindle with a connection means to be connected to the bearing component, while the spindle is moveable axially by manual or motor driven operation for axially moving the bearing component from or into its mounting position.
A fluorescence microscope apparatus comprising: a first illumination optics that includes a first light source for exciting fluorescence in a specimen, a spatial light modulation element, and a first illumination optical member for uniformly illuminating the spatial light modulation element; wherein the first illumination optical member comprises at least one fly's eye lens; a second illumination optics that includes a second illumination optical member for forming an image of a light beam from the spatial light modulation element on a specimen surface; and an imaging optics that includes an imaging optical member and an imaging element, the imaging optical member being adapted to capture an image of the specimen surface. a first illumination optics that includes a first light source for exciting fluorescence in a specimen, a spatial light modulation element, and a first illumination optical member for uniformly illuminating the spatial light modulation element; wherein the first illumination optical member comprises at least one fly's eye lens; a second illumination optics that includes a second illumination optical member for forming an image of a light beam from the spatial light modulation element on a specimen surface; and an imaging optics that includes an imaging optical member and an imaging element, the imaging optical member being adapted to capture an image of the specimen surface.
A solution comprising: a) a heteropolyacid with the general formula H 3 PM 12 O 40, wherein M is tungsten or molybdenum, b) a lanthanide salt with the general formula Ln A x *nH 2 O, wherein Ln is an element selected from ytterbium, europium, terbium and gadolinium, A is a halide anion, x is a whole number greater than or equal to 1, and n is a whole number greater than or equal to 0; c) an aqueous or hydroalcoholic solvent containing up to 70% (v/v) alcohol; a) a heteropolyacid with the general formula H 3 PM 12 O 40, wherein M is tungsten or molybdenum, b) a lanthanide salt with the general formula Ln A x *nH 2 O, wherein Ln is an element selected from ytterbium, europium, terbium and gadolinium, A is a halide anion, x is a whole number greater than or equal to 1, and n is a whole number greater than or equal to 0; c) an aqueous or hydroalcoholic solvent containing up to 70% (v/v) alcohol;
A method of using a controller to control switches in a network, the method comprising: with the controller, gathering network topology information from the switches; with the controller, receiving a network packet that is sent from a first end host and forwarded to the controller by a given one of the switches; with the controller, identifying whether the network packet that is sent from the first end host and forwarded to the controller by the given one of the switches is an Address Resolution Protocol request packet requesting a hardware address of a second end host; and in response to identifying that the network packet is requesting the hardware address of the second end host, processing the network packet with the controller using the gathered network topology information, wherein processing the network packet comprises: identifying whether the hardware address of the second end host is known, and characterized by the controller in response to identifying that the hardware address of the second end host is unknown, directing the switches to forward the network packet from switch ports on an edge of the network. with the controller, gathering network topology information from the switches; with the controller, receiving a network packet that is sent from a first end host and forwarded to the controller by a given one of the switches; with the controller, identifying whether the network packet that is sent from the first end host and forwarded to the controller by the given one of the switches is an Address Resolution Protocol request packet requesting a hardware address of a second end host; and in response to identifying that the network packet is requesting the hardware address of the second end host, processing the network packet with the controller using the gathered network topology information, wherein processing the network packet comprises: identifying whether the hardware address of the second end host is known, and characterized by the controller in response to identifying that the hardware address of the second end host is unknown, directing the switches to forward the network packet from switch ports on an edge of the network. identifying whether the hardware address of the second end host is known, and characterized by the controller in response to identifying that the hardware address of the second end host is unknown, directing the switches to forward the network packet from switch ports on an edge of the network.
An inkjet recording device, comprising: a conveyance belt tensioned on a plurality of rollers (10, 11) for conveying a recording medium while rolling, said conveyance belt being charged to hold the recording medium thereon for conveyance; a recording unit configured to eject ink onto the recording medium on the conveyance belt; a guide unit arranged on the inner side of the conveyance belt facing the recording unit between two of the rollers (10, 11); and delivering rollers (24, 25) arranged to carry the recording medium conveyed by the conveyance belt after recording so as to further convey the recording medium, characterized in that a height where said delivering rollers (24, 25) carry the recording medium being lower than the height of an upper face of said guide unit in contact with the conveyance belt. a conveyance belt tensioned on a plurality of rollers (10, 11) for conveying a recording medium while rolling, said conveyance belt being charged to hold the recording medium thereon for conveyance; a recording unit configured to eject ink onto the recording medium on the conveyance belt; a guide unit arranged on the inner side of the conveyance belt facing the recording unit between two of the rollers (10, 11); and delivering rollers (24, 25) arranged to carry the recording medium conveyed by the conveyance belt after recording so as to further convey the recording medium, characterized in that a height where said delivering rollers (24, 25) carry the recording medium being lower than the height of an upper face of said guide unit in contact with the conveyance belt.
A cosmetic composition comprising, in a physiologically acceptable medium: - from 30 to 90% by weight of at least one vegetable butter, - at least one anionic surfactant selected from the salts of amino acids N-acylated with a C 6 -C 20 fatty acid, - at least one wax, - at least one oil, - from 0 to 5% by weight of water, and - at least one gas, the above percentages being expressed in relation to the total weight of the composition, the composition having a density between 0.40 and 0.75 g/cm 3. - from 30 to 90% by weight of at least one vegetable butter, - at least one anionic surfactant selected from the salts of amino acids N-acylated with a C 6 -C 20 fatty acid, - at least one wax, - at least one oil, - from 0 to 5% by weight of water, and - at least one gas,
A system comprising: a piece of equipment comprising a component configured to come into direct contact with a conductor of electricity or come into proximity of a conductor of electricity, and a control system which is in operative communication with the component and which is configured to control operation of the component; and an electric field detector (120a-n) on the equipment, the electric field detector comprising field detection circuitry configured to detect a voltage in an electric field in the environment which meets or exceeds a voltage threshold, the field detection circuitry being in communication with the control system of the piece of equipment, wherein when an overvoltage is detected by the electric field detector, the control system of the equipment is configured to act by performing one of 1) activating a warning module on the equipment and 2) causing the component of the equipment to act, characterized in that a plurality of the electric field detectors are on the equipment, the electric field detectors being in communication with each other and with the control system and that when one of the plurality of the electric field detectors detect an overvoltage, the electric field detector that detects the overvoltage is configured to send a warning notification to the other field detectors. a piece of equipment comprising a component configured to come into direct contact with a conductor of electricity or come into proximity of a conductor of electricity, and a control system which is in operative communication with the component and which is configured to control operation of the component; and an electric field detector (120a-n) on the equipment, the electric field detector comprising field detection circuitry configured to detect a voltage in an electric field in the environment which meets or exceeds a voltage threshold, the field detection circuitry being in communication with the control system of the piece of equipment, wherein when an overvoltage is detected by the electric field detector, the control system of the equipment is configured to act by performing one of 1) activating a warning module on the equipment and 2) causing the component of the equipment to act, characterized in that a plurality of the electric field detectors are on the equipment, the electric field detectors being in communication with each other and with the control system and that when one of the plurality of the electric field detectors detect an overvoltage, the electric field detector that detects the overvoltage is configured to send a warning notification to the other field detectors.
An optical fiber grating demodulator, comprising: a working chamber (107, 207) for housing an optical device (102, 103, 104, 112; 212, 219, 220), comprising a hole on a sidewall, through which the optical device (102, 103, 104, 112; 212, 219, 220) is connectable by an optical fiber (105, 205) to an optical fiber grating sensor external to the optical fiber grating demodulator; a heat insulation layer (110, 210) enclosing the working chamber (107, 207) for insulating the optical device (102, 103, 104, 112; 212, 219, 220) from an external of the working chamber (107, 207) with respect to heat exchange; and a temperature control system (101, 113, 114; 201, 214, 217, 218) coupled to the working chamber (107, 207) to adjust a temperature within the working chamber (107, 207) such that the temperature within the working chamber (107, 207) meets a temperature threshold. a working chamber (107, 207) for housing an optical device (102, 103, 104, 112; 212, 219, 220), comprising a hole on a sidewall, through which the optical device (102, 103, 104, 112; 212, 219, 220) is connectable by an optical fiber (105, 205) to an optical fiber grating sensor external to the optical fiber grating demodulator; a heat insulation layer (110, 210) enclosing the working chamber (107, 207) for insulating the optical device (102, 103, 104, 112; 212, 219, 220) from an external of the working chamber (107, 207) with respect to heat exchange; and a temperature control system (101, 113, 114; 201, 214, 217, 218) coupled to the working chamber (107, 207) to adjust a temperature within the working chamber (107, 207) such that the temperature within the working chamber (107, 207) meets a temperature threshold.
A method for intermittently varying a speed of a portion of an advancing substrate, the method comprising the steps of: continuously advancing a substrate in a machine direction at a first speed, the substrate having a first surface disposed opposite of a second surface; engaging the substrate with a first guide member, wherein the first surface of the substrate is disposed on an outer radial surface of the first guide member; advancing the substrate from the first guide member to a second guide member, the second guide member being connected with a support member; engaging the substrate with the second guide member such that the first surface of the substrate is disposed on an outer radial surface of the second guide member; rotating the support member such that the second guide member orbits around a center axis as the support member rotates; advancing the substrate from the second guide member to a third guide member; engaging the substrate with the third guide member, wherein the first surface of the substrate is disposed on an outer radial surface of the third guide member; and advancing the substrate from the third guide member at a second speed, wherein the second speed is variable. continuously advancing a substrate in a machine direction at a first speed, the substrate having a first surface disposed opposite of a second surface; engaging the substrate with a first guide member, wherein the first surface of the substrate is disposed on an outer radial surface of the first guide member; advancing the substrate from the first guide member to a second guide member, the second guide member being connected with a support member; engaging the substrate with the second guide member such that the first surface of the substrate is disposed on an outer radial surface of the second guide member; rotating the support member such that the second guide member orbits around a center axis as the support member rotates; advancing the substrate from the second guide member to a third guide member; engaging the substrate with the third guide member, wherein the first surface of the substrate is disposed on an outer radial surface of the third guide member; and advancing the substrate from the third guide member at a second speed, wherein the second speed is variable.
A localization system, comprising: a localization processor configured to receive as input a localization signal from at least one localization element (17, 52, 54, 56) and to resolve the localization signal into an in-phase component reflective of a position of the at least one localization element (17, 52, 54, 56) and a quadrature component; a localization element/sheath state change detection processor configured to receive as input the quadrature component and detect when the at least one localization element (17, 52, 54, 56) emerges from and/or is withdrawn into another device based on the quadrature component. a localization processor configured to receive as input a localization signal from at least one localization element (17, 52, 54, 56) and to resolve the localization signal into an in-phase component reflective of a position of the at least one localization element (17, 52, 54, 56) and a quadrature component; a localization element/sheath state change detection processor configured to receive as input the quadrature component and detect when the at least one localization element (17, 52, 54, 56) emerges from and/or is withdrawn into another device based on the quadrature component.