mhurhangee/patent-ind-claim-en huggingface dataset:
A test apparatus for testing a sample accommodated in a reaction unit , the test apparatus comprising: at least one light emitter configured to emit light to a plurality of reagent chambers included in the reaction unit , each of the reagent chambers being configured to include a portion of the sample; a light receiver configured to receive light passed through the plurality of reagent chambers while the light receiver is scanning the plurality of reagent chambers of the reaction unit ; and a processor configured to determine a position or an area of a reagent chamber among the plurality of reagent chambers in which light is passed through, based on a map including coordinate information based on light receiving positions of the light receiver , and respective intensities of the received light, the coordinate information comprising respective pixel numbers of the light receiving elements and the respective light receiving positions, and configured to measure an optical density of light passed through the determined position or the determined area of the reagent chamber . at least one light emitter configured to emit light to a plurality of reagent chambers included in the reaction unit , each of the reagent chambers being configured to include a portion of the sample; a light receiver configured to receive light passed through the plurality of reagent chambers while the light receiver is scanning the plurality of reagent chambers of the reaction unit ; and a processor configured to determine a position or an area of a reagent chamber among the plurality of reagent chambers in which light is passed through, based on a map including coordinate information based on light receiving positions of the light receiver , and respective intensities of the received light, the coordinate information comprising respective pixel numbers of the light receiving elements and the respective light receiving positions, and configured to measure an optical density of light passed through the determined position or the determined area of the reagent chamber .
A shock tube for propagating an initiating signal to an explosive charge, the shock tube including a body that is connectable to a blasting machine and at least first and second elongate flexible conductors on or in the body which enable two-way communication between the explosive charge and the blasting machine, the shock tube further comprising an energy propagating core and a first and a second layer of material that surround said energy propagating core, characterised in that each conductor is printed on said respective first and second layers of material that surround said energy propagating core .
A valve arrangement having: - a housing ; - a moveable member displaceable inside the housing ; - at least one valve head positioned on the moveable member and displaceable between a closed position when said at least one valve head is bearing against at least one valve seat positioned within the housing , and an open position when said at least one valve head is axially cleared from said at least one valve seat ; - a double seated valve arrangement comprising two valve heads and two valve seats , wherein the two valve heads are arranged and configured to be positioned in the closed position simultaneously, wherein the valve heads are connected via a flexible member , characterized in that the valve arrangement further has an elastic member , at least partially, bearing against the housing and biasable by said at least one valve seat in the closed position, wherein said elastic member establishes a secure contact between said at least one valve seat and said at least one valve head in the closed position, and in that the flexible member is configured to axially align the valve heads with the valve seats in the closed position. - a housing ; - a moveable member displaceable inside the housing ; - at least one valve head positioned on the moveable member and displaceable between a closed position when said at least one valve head is bearing against at least one valve seat positioned within the housing , and an open position when said at least one valve head is axially cleared from said at least one valve seat ; - a double seated valve arrangement comprising two valve heads and two valve seats , wherein the two valve heads are arranged and configured to be positioned in the closed position simultaneously, wherein the valve heads are connected via a flexible member ,
Door drive for a security door such as, for example, a fire or smoke control door, which comprises: an electric drive unit , in particular an electric motor, for electrically driving a movable door wing of the security door , a control unit , which can be connected to the electric drive unit , for outputting electric current to the electric drive unit , a mechanical energy store , for storing potential energy, in particular a spring arrangement, which can be coupled to the door wing in such a way that, upon an opening movement of the door wing , energy is loaded into the energy store and a closing movement of the door wing is supported with emission of energy of the energy store , characterized by a fault reporting device , which is designed, in the presence of a fault criterion, in particular in the event of a fire, to trip an electrical isolation of the drive unit from the control unit in order to suppress electrical driving of the door wing and, when the door wing is not closed, to bring about closing of the door wing by means of the mechanical energy store , and by a drive activation module , which is capable of temporarily bypassing an isolation of the drive unit from the control unit tripped by the fault reporting device in order to electrically open the door wing . an electric drive unit , in particular an electric motor, for electrically driving a movable door wing of the security door , a control unit , which can be connected to the electric drive unit , for outputting electric current to the electric drive unit , a mechanical energy store , for storing potential energy, in particular a spring arrangement, which can be coupled to the door wing in such a way that, upon an opening movement of the door wing , energy is loaded into the energy store and a closing movement of the door wing is supported with emission of energy of the energy store , characterized by a fault reporting device , which is designed, in the presence of a fault criterion, in particular in the event of a fire, to trip an electrical isolation of the drive unit from the control unit in order to suppress electrical driving of the door wing and, when the door wing is not closed, to bring about closing of the door wing by means of the mechanical energy store , and by a drive activation module , which is capable of temporarily bypassing an isolation of the drive unit from the control unit tripped by the fault reporting device in order to electrically open the door wing .
A failure recovery method, applied to a Software Defined Network, SDN, comprising: receiving (S202) network failure information transmitted by a forwarder, wherein the forwarder comprises a flow table component, a fault detection component, a forwarding component and a protocol adaptation component; acquiring (S204), according to the network failure information, failure recovery information corresponding to the network failure information and pre-stored in a controller, wherein the failure recovery information is configured to perform recovery on a network failure corresponding to the network failure information; and transmitting (S206) the failure recovery information to each forwarder corresponding to the failure recovery information, wherein after receiving the network failure information transmitted by the forwarder, the failure recovery method further comprises: creating (S402) a reserved traffic path corresponding to a newly-added traffic path when the newly-added traffic path is detected, wherein the newly-added traffic path is a reserved traffic path of an original traffic path affected by the network failure; and pre-storing (S404), in the controller, the failure recovery information which includes a forwarding table entry of each forwarder corresponding to the created reserved traffic path. receiving (S202) network failure information transmitted by a forwarder, wherein the forwarder comprises a flow table component, a fault detection component, a forwarding component and a protocol adaptation component; acquiring (S204), according to the network failure information, failure recovery information corresponding to the network failure information and pre-stored in a controller, wherein the failure recovery information is configured to perform recovery on a network failure corresponding to the network failure information; and transmitting (S206) the failure recovery information to each forwarder corresponding to the failure recovery information, wherein after receiving the network failure information transmitted by the forwarder, the failure recovery method further comprises: creating (S402) a reserved traffic path corresponding to a newly-added traffic path when the newly-added traffic path is detected, wherein the newly-added traffic path is a reserved traffic path of an original traffic path affected by the network failure; and pre-storing (S404), in the controller, the failure recovery information which includes a forwarding table entry of each forwarder corresponding to the created reserved traffic path. creating (S402) a reserved traffic path corresponding to a newly-added traffic path when the newly-added traffic path is detected, wherein the newly-added traffic path is a reserved traffic path of an original traffic path affected by the network failure; and pre-storing (S404), in the controller, the failure recovery information which includes a forwarding table entry of each forwarder corresponding to the created reserved traffic path.
A virtual storage area network fault tolerance apparatus (601;602), comprising: one or more hardware processors; and one or more memory units storing instructions which when executed cause the one or more hardware processors to perform acts comprising: identifying a fault associated with a hard drive included in a first disk array that includes one or more parity drives; determining that one or more parity drives included in the first disk array are already in use; receiving an indication that one or more parity drives included in a second disk array are available for providing fault tolerance for the first disk array ; and transferring data associated with the hard drive included in the first disk array for storage in the one or more parity drives included in the second disk array . one or more hardware processors; and one or more memory units storing instructions which when executed cause the one or more hardware processors to perform acts comprising: identifying a fault associated with a hard drive included in a first disk array that includes one or more parity drives; determining that one or more parity drives included in the first disk array are already in use; receiving an indication that one or more parity drives included in a second disk array are available for providing fault tolerance for the first disk array ; and transferring data associated with the hard drive included in the first disk array for storage in the one or more parity drives included in the second disk array . identifying a fault associated with a hard drive included in a first disk array that includes one or more parity drives; determining that one or more parity drives included in the first disk array are already in use; receiving an indication that one or more parity drives included in a second disk array are available for providing fault tolerance for the first disk array ; and transferring data associated with the hard drive included in the first disk array for storage in the one or more parity drives included in the second disk array .
A method of calibrating a positioner , the method comprising: determining a pressure value corresponding to a particular state of an actuator , wherein the actuator is controlled by the positioner , and wherein the particular state of the actuator is an end-point corresponding to an end-position of the actuator; controlling, with the positioner , a pressure within the actuator according to a set point pressure, wherein the set point pressure is based on the pressure value such that the particular state of the actuator is maintained; receiving an actual pressure value measured within the actuator ; and determining a bias of the positioner based on the measured pressure value and the set point pressure, wherein the bias of the positioner is determined by controlling the pressure within the actuator at constant volume during end-point pressure control. determining a pressure value corresponding to a particular state of an actuator , wherein the actuator is controlled by the positioner , and wherein the particular state of the actuator is an end-point corresponding to an end-position of the actuator; controlling, with the positioner , a pressure within the actuator according to a set point pressure, wherein the set point pressure is based on the pressure value such that the particular state of the actuator is maintained; receiving an actual pressure value measured within the actuator ; and determining a bias of the positioner based on the measured pressure value and the set point pressure, wherein the bias of the positioner is determined by controlling the pressure within the actuator at constant volume during end-point pressure control.
Drawer wall element for a drawer , wherein the drawer wall element forms a side wall , a rear wall , a front wall or an inner wall of the assembled drawer , wherein a surface region of the drawer wall element is formed from a composite part composed of at least two layer elements (21-23), wherein a first layer element is composed of a transparent or translucent material and a second layer element is composed of a material which differs from the material of the first layer element and wherein the second layer element areally covers one side of the first layer element and is connected thereto, wherein the second layer element comprises illuminants, in particular light-emitting diodes, wherein the second layer element is a thin-layer component based on inorganic light-emitting diodes or based on an organic semiconducting material, wherein the composite part is formed from three layer elements (21-23), wherein two layer elements are composed of a glass material and wherein the second layer element is present between two layer elements composed of a glass material, wherein the second layer element is a comparatively thin flexible film, whereby a thin but solid design element can be provided, the design of which is determined by the individually designed film, wherein the second layer element is composed of a flexible carrier film which is visually designed and is designed with a respective desired design or a visible surface on one or both sides.
A near-eye display, comprising: a waveguide; a holographic element comprising a plurality of holographic components in different positions along the waveguide; a light field projector configured to project a first light field into the waveguide via an optical coupler for propagation to the holographic components ; and a controller coupled to the light field projector , wherein the controller is configured to determine the first light field and to cause the light field projector to project the first light field into the waveguide as a plurality of propagating modes, wherein each of the holographic components redirects a different one of the propagating modes of the first light field from the different positions along the waveguide to form a second light field directed into an eyebox, and wherein the second light field is perceptible within the eyebox by a viewer's eye as a virtual image at a distance from the eye and the holographic element . a waveguide; a holographic element comprising a plurality of holographic components in different positions along the waveguide; a light field projector configured to project a first light field into the waveguide via an optical coupler for propagation to the holographic components ; and a controller coupled to the light field projector , wherein the controller is configured to determine the first light field and to cause the light field projector to project the first light field into the waveguide as a plurality of propagating modes, wherein each of the holographic components redirects a different one of the propagating modes of the first light field from the different positions along the waveguide to form a second light field directed into an eyebox, and wherein the second light field is perceptible within the eyebox by a viewer's eye as a virtual image at a distance from the eye and the holographic element .
A method for signal processing performed by an apparatus, comprising: receiving transmission configuration indication, TCI, state configuration information of a channel state information-reference signal, CSI-RS, the TCI state configuration information containing indication information of a synchronization signal block, SSB, quasi co-located with the CSI-RS; and determining (S402) transmit power of the CSI-RS according to a cell to which the SSB belongs; wherein, the determining (S402) the transmit power of the CSI-RS according to the cell to which the SSB belongs comprises: determining transmit power of the SSB from serving-cell configuration information when the SSB is an SSB of a serving cell, or determining transmit power of the SSB according to neighboring-cell SSB configuration information when the SSB is an SSB of a neighboring cell; and determining (S502) the transmit power of the CSI-RS according to the transmit power of the SSB and a power offset between the CSI-RS and the SSB. receiving transmission configuration indication, TCI, state configuration information of a channel state information-reference signal, CSI-RS, the TCI state configuration information containing indication information of a synchronization signal block, SSB, quasi co-located with the CSI-RS; and determining (S402) transmit power of the CSI-RS according to a cell to which the SSB belongs; wherein, the determining (S402) the transmit power of the CSI-RS according to the cell to which the SSB belongs comprises: determining transmit power of the SSB from serving-cell configuration information when the SSB is an SSB of a serving cell, or determining transmit power of the SSB according to neighboring-cell SSB configuration information when the SSB is an SSB of a neighboring cell; and determining (S502) the transmit power of the CSI-RS according to the transmit power of the SSB and a power offset between the CSI-RS and the SSB. determining transmit power of the SSB from serving-cell configuration information when the SSB is an SSB of a serving cell, or determining transmit power of the SSB according to neighboring-cell SSB configuration information when the SSB is an SSB of a neighboring cell; and determining (S502) the transmit power of the CSI-RS according to the transmit power of the SSB and a power offset between the CSI-RS and the SSB.
A handheld X-ray fluorescence (XRF) spectrum analyzer comprising: a radiation source assembly comprising a first centerline axis and configured to emit an X-ray beam to impinge on a sample to be tested; a radiation detector assembly comprising a second centerline axis configured to sense X-ray fluorescence (XRF) emitted from the sample in response to the X-ray beam ; a proximity sensor configured to continuously measure a distance between said XRF analyzer and said sample to be tested, the distance being displayable on a display to a user; and a processor configured to: generate X-ray fluorescence spectrum data using the emitted XRF from the sample; and determine an elemental composition of the sample using the generated X-ray fluorescence spectrum data and the measured distance between said XRF spectrum analyzer and said sample to be tested. a radiation source assembly comprising a first centerline axis and configured to emit an X-ray beam to impinge on a sample to be tested; a radiation detector assembly comprising a second centerline axis configured to sense X-ray fluorescence (XRF) emitted from the sample in response to the X-ray beam ; a proximity sensor configured to continuously measure a distance between said XRF analyzer and said sample to be tested, the distance being displayable on a display to a user; and a processor configured to: generate X-ray fluorescence spectrum data using the emitted XRF from the sample; and determine an elemental composition of the sample using the generated X-ray fluorescence spectrum data and the measured distance between said XRF spectrum analyzer and said sample to be tested. generate X-ray fluorescence spectrum data using the emitted XRF from the sample; and determine an elemental composition of the sample using the generated X-ray fluorescence spectrum data and the measured distance between said XRF spectrum analyzer and said sample to be tested.
Device for measuring an operating variable to be fitted onto a tyre (P), comprising: - an electronic circuit distributed over a first face (20.1) of an electronic board and which comprises a sensor ; - a protective housing covering at least partially the electronic circuit; and - at least one first antenna wire (40.1, 40.2) having one end galvanically connected to the electronic circuit; wherein the housing comprises a lateral portion (12.1, 12.2) which projects substantially tangentially to a proximal end portion (41.1) of the first wire in accordance with a generatrix of said first wire; and characterized in that the first antenna wire integrally extends so as to project laterally from the housing. - an electronic circuit distributed over a first face (20.1) of an electronic board and which comprises a sensor ; - a protective housing covering at least partially the electronic circuit; and - at least one first antenna wire (40.1, 40.2) having one end galvanically connected to the electronic circuit;
Method of operating a crane having a luffable crane boom and having a trolley arranged travelable at the crane boom , wherein the crane can be operated in a luffing mode, on the one hand, and in a trolley mode, on the other hand, characterized in that a change of the hoist rope reeving takes place on a single hoist rope for a mode change. characterized in that a change of the hoist rope reeving takes place on a single hoist rope for a mode change.
A topical composition comprising an oil in water nanoemulsion wherein said nanoemulsion comprises a quaternary ammonium salt surfactant having at least one linear alkyl chain of at least 20 carbon atoms, an oil phase including at least one emollient; and a water phase, wherein the emollient is selected from petrolatum, isopropyl palmitate, non-hydrogenated vegetable oils, hydrogenated vegetable oils, silicone oils, any liquid polymerized siloxane such as dimethicone, cyclomethicone, cyclopentasiloxane, dimethiconol and amodimethicone, mineral oil, waxes such as paraffin and paraffinum liquidum, aloe vera, fatty alcohols such as arachidyl alcohol, batyl alcohol, behenyl alcohol, Cl2-13 alcohols, cetearyl alcohol, cetyl alcohol, coconut alcohol, isocetyl alcohol, octyldodecanol and palm alcohol, fatty acids and esters of fatty acids such as batyl stearate, cetearyl behenate, cetearyl isononanoate, cetyl esters, coconut acid, ethyl linoleate, ethyl linolenate, ethyl olivate, ethylhexyl cocoate, ethylhexyl myristate, glyceryl caprylate, glyceryl laurate/oleate, glyceryl ricinoleate, isocetyl salicylate, isostearyl alcohol, linoleic acid, linolenic acid, oleic acid, palm kernel acid, palmitic acid and wheat germ acid, shea butter (Butyrospermum parkii butter), cocoa butter (Theobroma cacao butter), derivatives of glycerides such as capric/caprylic triglyceride, cocoglycerides, and palm glycerides, cholesterol, lanolin and derivatives, derivatives of PEGs, squalane, squalene, sucrose and derivatives, glycerol derivatives such as glycerol trioctanoate (also known as tricaprylin), glycerol tristearate (also known as tristearin) or mixtures thereof.