mhurhangee/patent-ind-claim-en huggingface dataset:
A dish washing machine comprising: a washing tub for washing dishes; an injection unit configured to inject washing water into the washing tub ; and a deflection unit configured to move inside the washing tub to deflect the washing water injected from the injection unit toward the dishes, wherein the deflection unit comprises a first vane configured to be linearly movable and a second vane disposed in parallel with the first vane in a moving direction of the first vane , characterized in that the injection unit comprises an injection nozzle , the first vane is disposed on one side of the injection nozzle , and the second vane is disposed on another side of the injection nozzle opposite to the one side. a washing tub for washing dishes; an injection unit configured to inject washing water into the washing tub ; and a deflection unit configured to move inside the washing tub to deflect the washing water injected from the injection unit toward the dishes, wherein the deflection unit comprises a first vane configured to be linearly movable and a second vane disposed in parallel with the first vane in a moving direction of the first vane , characterized in that the injection unit comprises an injection nozzle , the first vane is disposed on one side of the injection nozzle , and the second vane is disposed on another side of the injection nozzle opposite to the one side.
Process for the desulfurization of a petroleum cut containing olefins, sulfur-comprising compounds and optionally molecules belonging to the C3 and C4 cuts, comprising at least - a first stage A of bringing said petroleum cut into contact over an acid resin making possible the reaction between the olefins and the sulfur-comprising compounds of said petroleum cut, and producing heavy sulfur-comprising compounds, - a second stage B of fractionation of the mixture resulting from the first stage which makes it possible to produce a light fraction, the sulfur content of which is decreased with respect to the feed stock, and a heavy fraction which concentrates the sulfur-comprising compounds, in which the resin used in Stage A comprises a copolymer of styrene and of divinylbenzene to which sulfonic acid groups are grafted, the amount of sulfur originating from the sulfonic groups present in the resin is of between 18% by weight and 22% by weight, said resin exhibits an acid capacity of greater than 5 equivalents per kg, a specific surface of between 25 m 2 /g and 50 m 2 /g, a pore volume of between 0.16 ml/g and 0.25 ml/g and a mean pore diameter of between 20 nm and 28 nm, and in which Stage A is carried out at an operating temperature of between 50°C and 150°C, at an operating pressure of greater than 0.5 MPa and with an HSV of between 0.2 h -1 and 5 h -1 . - a first stage A of bringing said petroleum cut into contact over an acid resin making possible the reaction between the olefins and the sulfur-comprising compounds of said petroleum cut, and producing heavy sulfur-comprising compounds, - a second stage B of fractionation of the mixture resulting from the first stage which makes it possible to produce a light fraction, the sulfur content of which is decreased with respect to the feed stock, and a heavy fraction which concentrates the sulfur-comprising compounds,
A method for turning an atomizing burner from an ON state to an OFF state, the burner having independently controllable flows of atomizing air, combustion air, and fuel flow, the burner in the ON state having flow values of burner parameters including flow of atomizing air, flow of combustion air, and fuel flow, the method comprising: changing, in response to an OFF instruction, flow of at least one of the flow of atomizing air, combustion air and/or fuel to a lower non-zero value; first discontinuing, after a first period of time since the changing, flow of fuel and flow of atomizing air; increasing, after a second period of time since the changing, flow of combustion air; maintaining, for a third period of time since the increasing, flow of combustion air; second discontinuing, after the maintaining, flow of combustion air; wherein the maintaining prevents buildup of excess heat inside the burner during the transition to the OFF state. changing, in response to an OFF instruction, flow of at least one of the flow of atomizing air, combustion air and/or fuel to a lower non-zero value; first discontinuing, after a first period of time since the changing, flow of fuel and flow of atomizing air; increasing, after a second period of time since the changing, flow of combustion air; maintaining, for a third period of time since the increasing, flow of combustion air; second discontinuing, after the maintaining, flow of combustion air; wherein the maintaining prevents buildup of excess heat inside the burner during the transition to the OFF state.
A consumable chip, comprising a first consumable MCU unit and a verification cryptographic operation unit ; wherein said consumable chip also comprising a second consumable MCU unit ; when the first consumable MCU unit is incompatible with a printer, the first consumable MCU unit activating the second consumable MCU unit to execute a second consumable chip core processing flow; the second consumable MCU unit executing a verification cryptographic algorithm function program of the verification cryptographic operation unit , and storing a calculated new verification password in the verification cryptographic operation unit ; after the first consumable MCU unit inquires that the second consumable MCU unit has completed the second consumable chip core processing flow, the first consumable MCU unit reading a new verification password of the verification cryptographic operation unit and sending to the printer; the new verification password being received by the printer to make the first consumable MCU unit compatible with the printer. when the first consumable MCU unit is incompatible with a printer, the first consumable MCU unit activating the second consumable MCU unit to execute a second consumable chip core processing flow; the second consumable MCU unit executing a verification cryptographic algorithm function program of the verification cryptographic operation unit , and storing a calculated new verification password in the verification cryptographic operation unit ; after the first consumable MCU unit inquires that the second consumable MCU unit has completed the second consumable chip core processing flow, the first consumable MCU unit reading a new verification password of the verification cryptographic operation unit and sending to the printer; the new verification password being received by the printer to make the first consumable MCU unit compatible with the printer.
A decorative product comprising: a transparent member formed from an acrylic resin; and a decorative layer arranged on a first surface of the transparent member , characterized in that a processed layer is located between the transparent member and the decorative layer , wherein the processed layer is formed by performing a plasma treatment on the first surface of the transparent member , the decorative layer is a metal layer formed on the processed layer by performing sputtering, the decorative layer is visually recognized through the transparent member and the processed layer , and the processed layer has a thickness of less than or equal to 260 nm, and the processed layer is a layer having a structure of diamond-like carbon. a transparent member formed from an acrylic resin; and a decorative layer arranged on a first surface of the transparent member , characterized in that a processed layer is located between the transparent member and the decorative layer , wherein the processed layer is formed by performing a plasma treatment on the first surface of the transparent member , the decorative layer is a metal layer formed on the processed layer by performing sputtering, the decorative layer is visually recognized through the transparent member and the processed layer , and the processed layer has a thickness of less than or equal to 260 nm, and the processed layer is a layer having a structure of diamond-like carbon.
A biopsy gun , comprising: - a biopsy tool handle , to which a biopsy needle comprising a first needle , at least one another needle movable in relation to the first needle , and a biopsy cavity , has been attached, the biopsy tool handle comprising or attached to a firing part , which is configured to cause a relative movement of the first needle and of the at least one another needle in such a way that their relative movement causes a biopsy sample to be captured in the biopsy cavity ; wherein the biopsy gun further comprises at least one resilient contact , such as at least one contact spring, for creating a galvanic contact with a respective biopsy needle electrode , and connected to a connector or to a measurement cable; and wherein the biopsy gun has been configured to: i) galvanically connect the least one electrode to the connector or to the measurement cable when the firing part is loaded, and/or ii) to disconnect the galvanic connection between the at least one electrode and the connector or the measurement cable when the firing part is fired. - a biopsy tool handle , to which a biopsy needle comprising a first needle , at least one another needle movable in relation to the first needle , and a biopsy cavity , has been attached, the biopsy tool handle comprising or attached to a firing part , which is configured to cause a relative movement of the first needle and of the at least one another needle in such a way that their relative movement causes a biopsy sample to be captured in the biopsy cavity ; wherein the biopsy gun further comprises at least one resilient contact , such as at least one contact spring, for creating a galvanic contact with a respective biopsy needle electrode , and connected to a connector or to a measurement cable; and wherein the biopsy gun has been configured to: i) galvanically connect the least one electrode to the connector or to the measurement cable when the firing part is loaded, and/or ii) to disconnect the galvanic connection between the at least one electrode and the connector or the measurement cable when the firing part is fired. i) galvanically connect the least one electrode to the connector or to the measurement cable when the firing part is loaded, and/or ii) to disconnect the galvanic connection between the at least one electrode and the connector or the measurement cable when the firing part is fired.
Hydrostatic radial piston unit of the cam-lobe type of construction comprising a non-rotary shaft defining a rotational axis of the hydrostatic radial piston unit and extending with a front end region from a non-rotary, stationary rear casing to a rotary front casing , within the front casing a cylinder block is housed and fixed in a torque-proof connection to the front end region of the shaft , in the cylinder block radially reciprocating working pistons are disposed in radially oriented cylinder bores to and from which cylinder bores hydraulic fluid can be conducted by means of a distributor arranged rotationally fixed with respect to the front casing and rotationally free relative to the shaft , wherein a circumferential cam-lobe surface with which the working pistons can interact, is formed integrally with the front casing on its radial inner side.
A device assembly for securing a catheter to the skin of a patient, the device comprising a clamp configured to be attached to the skin of a patient directly adjacent to an insertion site of a catheter and to retain a catheter tube therein in a fixed position with respect to the skin of the patient, a passive retainer configured to retain a catheter tube therein preventing movement of the catheter tube in a lateral and transverse direction and attachable on the skin of a patient distal to the insertion site, and spaced-apart from the clamp, wherein the clamp is separate from the passive retainer. a clamp configured to be attached to the skin of a patient directly adjacent to an insertion site of a catheter and to retain a catheter tube therein in a fixed position with respect to the skin of the patient, a passive retainer configured to retain a catheter tube therein preventing movement of the catheter tube in a lateral and transverse direction and attachable on the skin of a patient distal to the insertion site, and spaced-apart from the clamp, wherein the clamp is separate from the passive retainer.
A method for wireless communication performed by a user equipment, UE, the method comprising: receiving , from a base station, configuration information that enables resource grants for multiple transport blocks, wherein cancellation of repetitions based on implicit acknowledgment of transport blocks is disabled based on the configuration information that enables resource grants for multiple transport blocks, and wherein cancellation of repetitions based on implicit acknowledgment of transport blocks is enabled based on configuration information that disables resource grants for multiple transport blocks; transmitting , to the base station, one or more repetitions of a first uplink communication based at least in part on a first resource grant received from the base station; receiving , from the base station, a second resource grant for a second uplink communication that at least partially overlaps with resources for one or more repetitions of the first uplink communication; and determining to cancel or to transmit one or more remaining repetitions of the first uplink communication based at least in part on the second resource grant providing an implicit acknowledgment of successful receipt of at least one transport block of the first uplink communication and based at least in part on whether one or more of the first resource grant or the second resource grant schedules multiple transport blocks. receiving , from a base station, configuration information that enables resource grants for multiple transport blocks, wherein cancellation of repetitions based on implicit acknowledgment of transport blocks is disabled based on the configuration information that enables resource grants for multiple transport blocks, and wherein cancellation of repetitions based on implicit acknowledgment of transport blocks is enabled based on configuration information that disables resource grants for multiple transport blocks; transmitting , to the base station, one or more repetitions of a first uplink communication based at least in part on a first resource grant received from the base station; receiving , from the base station, a second resource grant for a second uplink communication that at least partially overlaps with resources for one or more repetitions of the first uplink communication; and determining to cancel or to transmit one or more remaining repetitions of the first uplink communication based at least in part on the second resource grant providing an implicit acknowledgment of successful receipt of at least one transport block of the first uplink communication and based at least in part on whether one or more of the first resource grant or the second resource grant schedules multiple transport blocks.
A device for repairing a nerve, comprising: a flexible carrier layer, wherein the flexible carrier layer is a biologic material; and a metallic support member comprising a plurality of elongate strips and a plurality of micro-protrusions, the micro-protrusions extending from the elongate strips, wherein: the metallic support member is at least partially integrated with the flexible carrier layer, the flexible carrier layer is configured to cover at least a portion of the nerve, the micro-protrusions are configured to attach to a superficial tissue of the nerve, and the elongate strips are free floating within the flexible carrier layer and not interconnected with one another within the flexible carrier layer. a flexible carrier layer, wherein the flexible carrier layer is a biologic material; and a metallic support member comprising a plurality of elongate strips and a plurality of micro-protrusions, the micro-protrusions extending from the elongate strips, wherein: the metallic support member is at least partially integrated with the flexible carrier layer, the flexible carrier layer is configured to cover at least a portion of the nerve, the micro-protrusions are configured to attach to a superficial tissue of the nerve, and the elongate strips are free floating within the flexible carrier layer and not interconnected with one another within the flexible carrier layer. the metallic support member is at least partially integrated with the flexible carrier layer, the flexible carrier layer is configured to cover at least a portion of the nerve, the micro-protrusions are configured to attach to a superficial tissue of the nerve, and the elongate strips are free floating within the flexible carrier layer and not interconnected with one another within the flexible carrier layer.
A method for encoding a sequence of segments of coefficients, the segments being subsequent to each other in time, the method comprising the steps of providing the sequence of segments of coefficients from an audio stream representing a sampled audio signal by using different transform lengths such that segments of coefficients for which different transform lengths are used, spectrally represent the sampled audio signal at different frequency resolutions and such that the segments are of 1024 and 128 spectral coefficients, respectively; deriving a coding context for a currently encoded coefficient of a current segment based on a previously encoded coefficient of a previous segment, the previous and current segments corresponding to different frequency resolutions and different transform lengths, respectively; and entropy encoding the current coefficient based on the coding context to obtain an encoded audio stream, wherein the providing and the deriving are performed based on a down-sampling of spectral coefficients of the previous segment, when the previous segment displays a finer spectral resolution than the current segment. providing the sequence of segments of coefficients from an audio stream representing a sampled audio signal by using different transform lengths such that segments of coefficients for which different transform lengths are used, spectrally represent the sampled audio signal at different frequency resolutions and such that the segments are of 1024 and 128 spectral coefficients, respectively; deriving a coding context for a currently encoded coefficient of a current segment based on a previously encoded coefficient of a previous segment, the previous and current segments corresponding to different frequency resolutions and different transform lengths, respectively; and entropy encoding the current coefficient based on the coding context to obtain an encoded audio stream, wherein the providing and the deriving are performed based on a down-sampling of spectral coefficients of the previous segment, when the previous segment displays a finer spectral resolution than the current segment.
A method , at a base station having a cell covering a user equipment, UE , comprising: encrypting a user identity identifying the UE for physical downlink layer control channels in different transmission subframes, using for each transmission subframe: at least one of a control channel type, a radio resource aggregation level of the control channel or a radio resource index of the control channel; and a subcarrier frequency of the control channel associated with the respective transmission subframe; and transmitting the encrypted user identity to the UE. encrypting a user identity identifying the UE for physical downlink layer control channels in different transmission subframes, using for each transmission subframe: at least one of a control channel type, a radio resource aggregation level of the control channel or a radio resource index of the control channel; and a subcarrier frequency of the control channel associated with the respective transmission subframe; and transmitting the encrypted user identity to the UE.
An analytical method using surface waves on a flowing liquid system for determining a property of a test substance, the analytical method comprising: contacting the surface of the flowing liquid system with the test substance thereby to generate a surface wave on the flowing liquid system; determining a parameter of the surface wave; and determining the property of the test substance based on a parameter of the surface wave. contacting the surface of the flowing liquid system with the test substance thereby to generate a surface wave on the flowing liquid system; determining a parameter of the surface wave; and determining the property of the test substance based on a parameter of the surface wave.
A method for producing a High Internal Phase Emulsion foam comprising the steps of: forming a High Internal Phase Emulsion from an oil phase comprising monomer, cross-linking agent, emulsifier, and an aqueous phase; providing an extrusion device , providing a belt comprising a cross directional width; providing nip rollers and a vacuum box , wherein the vacuum box comprises a nip insert and wherein the nip insert raises the vacuum box in contact with the belt by 0.25mm to 6.35mm; extruding the High Internal Phase Emulsion on the belt ; polymerizing the monomer component in the oil phase of the High Internal Phase Emulsion; and passing the High Internal Phase Emulsion through the nip rollers and said raised vacuum box to remove a saturated aqueous phase. forming a High Internal Phase Emulsion from an oil phase comprising monomer, cross-linking agent, emulsifier, and an aqueous phase; providing an extrusion device , providing a belt comprising a cross directional width; providing nip rollers and a vacuum box , wherein the vacuum box comprises a nip insert and wherein the nip insert raises the vacuum box in contact with the belt by 0.25mm to 6.35mm; extruding the High Internal Phase Emulsion on the belt ; polymerizing the monomer component in the oil phase of the High Internal Phase Emulsion; and passing the High Internal Phase Emulsion through the nip rollers and said raised vacuum box to remove a saturated aqueous phase.
Sound transducer for receiving waterborne sound waves, which has an acoustic transducer element and a cover plate , the cover plate having a recess and at least one parameter, the parameter being a thickness and/or a material and/or a geometric arrangement of the cover plate, and the acoustic transducer element being associated with the cover plate in such a way that a waterborne sound wave strikes both the cover plate and the acoustic transducer element, wherein the at least one parameter of the cover plate is set such that, in the case of an incident waterborne sound wave, an angular dependence of a sound reflection is set such that an angle-dependent sensitivity of the sound transducer is increased, characterised in that - the acoustic transducer element is located below the recess or in the recess; or - the cover plate has a sound characteristic impedance which is greater than the sound characteristic impedance of water by a factor of at least 25. - the acoustic transducer element is located below the recess or in the recess; or - the cover plate has a sound characteristic impedance which is greater than the sound characteristic impedance of water by a factor of at least 25.