mhurhangee/patent-ind-claim-en huggingface dataset:
Load carrier coupling for mounting a load carrier on a trailer coupling of a vehicle, said trailer coupling comprising a neck , a coupling body , preferably a ball head, supported by said neck , and at least one support protrusion , preferably a cylindrical pin , provided on said neck , said load carrier coupling comprising a housing , a receiving portion configured to at least partially receive said coupling body , and wherein said receiving portion is arranged in said housing pivotably movable between an engaging state in which said receiving portion contacts an inserted coupling body from below, and an open state which is taken by the receiving portion when no coupling body is inserted, characterized by a supporting portion configured to contact an upper portion of said at least one support protrusion when the load carrier coupling is inserted on the trailer coupling, wherein said load carrier coupling is configured such that it is lockable on said trailer coupling by an interaction of said receiving portion with said coupling body in said engaging state and said supporting portion contacting said upper portion of said at least one support protrusion . a housing , a receiving portion configured to at least partially receive said coupling body , and wherein said receiving portion is arranged in said housing pivotably movable between an engaging state in which said receiving portion contacts an inserted coupling body from below, and an open state which is taken by the receiving portion when no coupling body is inserted, characterized by a supporting portion configured to contact an upper portion of said at least one support protrusion when the load carrier coupling is inserted on the trailer coupling, wherein said load carrier coupling is configured such that it is lockable on said trailer coupling by an interaction of said receiving portion with said coupling body in said engaging state and said supporting portion contacting said upper portion of said at least one support protrusion .
Object with a substrate and a scale which is applied to the substrate using a printing medium comprising magnetizable and/or magnetic particles, has regions comprising the printing medium and regions free of the printing medium, which are arranged between the regions comprising the printing medium, and is designed to identify positions by means of the regions comprising the printing medium and the regions free of the printing medium, wherein the magnetic properties of the substrate are such that, when an external magnetic field is applied to the object or when the magnetic field of the magnetic particles from the printing medium is read, a stronger magnetic field than that of the substrate is generated, wherein the scale has a plurality of scale graduations of different lengths, wherein, at predetermined positions of the scale , scale graduations of a predetermined length (l 3 ) together with an inscription respectively define absolute positions of the scale and, at other predetermined positions, scale graduations of a different predetermined length (l 1 , l 2 ) respectively define relative positions between the absolute positions, wherein the inscription is applied to the substrate using the printing medium.
An electronic device comprising: a detection unit configured to detect the approach or presence of a detection target; an electronic component that is electrically connected to the detection unit ; a case member configured to accommodate the detection unit and the electronic component therein; and a sealing resin that is formed in the case member , wherein the sealing resin comprises: a thermosetting resin portion that is formed in the case member so as to seal the detection unit ; characterised by a thermoplastic resin portion that is formed in a portion other than the thermosetting resin portion in the case member so as to seal the electronic component, the thermoplastic resin portion having a Shore D hardness of 60 or less. a detection unit configured to detect the approach or presence of a detection target; an electronic component that is electrically connected to the detection unit ; a case member configured to accommodate the detection unit and the electronic component therein; and a sealing resin that is formed in the case member , wherein the sealing resin comprises: a thermosetting resin portion that is formed in the case member so as to seal the detection unit ; characterised by a thermoplastic resin portion that is formed in a portion other than the thermosetting resin portion in the case member so as to seal the electronic component, the thermoplastic resin portion having a Shore D hardness of 60 or less. a thermosetting resin portion that is formed in the case member so as to seal the detection unit ; characterised by a thermoplastic resin portion that is formed in a portion other than the thermosetting resin portion in the case member so as to seal the electronic component, the thermoplastic resin portion having a Shore D hardness of 60 or less.
A system for determining fractional flow reserve, the system comprising: a first pressure sensing medical device for measuring a first pressure; a second pressure sensing medical device for measuring a second pressure; a processor coupled to the first pressure sensing medical device and coupled to the second pressure sensing medical device ; and wherein the processor is configured to: generate a plot of the magnitude of the second pressure over time, identify one or more time intervals of the plot that have a slope less than zero, determine a mean of the second pressure, and calculate the ratio of the first pressure to the second pressure when (a) the second pressure is less than or equal to the mean of the second pressure and (b) during the one or more time intervals when the slope of the plot is less than zero. a first pressure sensing medical device for measuring a first pressure; a second pressure sensing medical device for measuring a second pressure; a processor coupled to the first pressure sensing medical device and coupled to the second pressure sensing medical device ; and wherein the processor is configured to: generate a plot of the magnitude of the second pressure over time, identify one or more time intervals of the plot that have a slope less than zero, determine a mean of the second pressure, and calculate the ratio of the first pressure to the second pressure when (a) the second pressure is less than or equal to the mean of the second pressure and (b) during the one or more time intervals when the slope of the plot is less than zero. generate a plot of the magnitude of the second pressure over time, identify one or more time intervals of the plot that have a slope less than zero, determine a mean of the second pressure, and calculate the ratio of the first pressure to the second pressure when (a) the second pressure is less than or equal to the mean of the second pressure and (b) during the one or more time intervals when the slope of the plot is less than zero.
Process for preparing a diesel fuel composition comprising the steps of: (i) blending a Fischer-Tropsch derived gasoil with a petroleum derived gasoil to form a blended gasoil which is compliant with the EN590 specification, wherein the Fischer-Tropsch derived gasoil has a density of 0.8 g/cm 3 or less at 15°C and wherein the petroleum derived gasoil is derived from naphthenic high density petroleum crude oil and has a density of 0.84 g/cm 3 or greater at 15°C and a naphthenics content of 40 wt% or greater; and (ii) mixing the blended gasoil produced in step (i) with a diesel base fuel to form a diesel fuel composition, wherein the diesel base fuel is an EN590 diesel base fuel, wherein the diesel fuel composition has a density at 15°C in the range from 0.820 g/cm 3 to 0.845 g/cm 3 and wherein the diesel fuel composition meets the diesel specification EN590. (i) blending a Fischer-Tropsch derived gasoil with a petroleum derived gasoil to form a blended gasoil which is compliant with the EN590 specification, wherein the Fischer-Tropsch derived gasoil has a density of 0.8 g/cm 3 or less at 15°C and wherein the petroleum derived gasoil is derived from naphthenic high density petroleum crude oil and has a density of 0.84 g/cm 3 or greater at 15°C and a naphthenics content of 40 wt% or greater; and (ii) mixing the blended gasoil produced in step (i) with a diesel base fuel to form a diesel fuel composition, wherein the diesel base fuel is an EN590 diesel base fuel, wherein the diesel fuel composition has a density at 15°C in the range from 0.820 g/cm 3 to 0.845 g/cm 3 and wherein the diesel fuel composition meets the diesel specification EN590.
A device for gripping a load comprising: - a frame comprising first and second frame portions (P1, P2) defining a load support area (S); - translation means (M) configured to actuate means for moving (MD1, MD2) the frame along a path of travel (V); - a first and a second gripping arm (B1, B2) mounted respectively on the first and the second frame portions and configured to move a load from or to said support area; and - width-adjustment means, configured to adapt a width of the first and second gripping arms; characterised in that said width-adjustment means comprise: - first means for locking/unlocking (MV1) the first frame portion relative to the path of travel; - second means for locking/unlocking (MV2) the second frame portion relative to the first frame portion; and - said translation means, so that, for an adjustment of width between the first and second gripping arms (B1, B2) the first locking/unlocking means (MV1) lock the first frame portion relative to the path of travel, the second locking/unlocking means (MV2) unlock the second frame portion (P2) relative to the first frame portion (P1), and said translation means (M) actuate the movement means (MD2) for a displacement of the second frame portion (P2) along the path of travel. - a frame comprising first and second frame portions (P1, P2) defining a load support area (S); - translation means (M) configured to actuate means for moving (MD1, MD2) the frame along a path of travel (V); - a first and a second gripping arm (B1, B2) mounted respectively on the first and the second frame portions and configured to move a load from or to said support area; and - width-adjustment means, configured to adapt a width of the first and second gripping arms; - first means for locking/unlocking (MV1) the first frame portion relative to the path of travel; - second means for locking/unlocking (MV2) the second frame portion relative to the first frame portion; and - said translation means,
A securing assembly (1; 1'; 1") for securing a support tower to a wind turbine tower , the securing assembly comprises a base part and a fastening module for securing the support tower to the wind turbine tower, wherein the fastening module comprises a rope for surrounding the wind turbine tower, and an arm comprising an inner portion attached to the base part and an outer portion provided with a rope sliding element arranged to slidably hold the rope , characterized in that each end of the rope is provided with an eye end , and the arm is provided with a plurality of knobs arranged spaced apart along the arm for receiving the eye ends of the rope and for supporting the rope.
An actuation gear for raising and lowering a lift and slide element , such as a lift and slide door or a lift and slide window, which is displaceable along a guide rail and which can be transferred from a lowered position, in which the lift and slide element is non-displaceable, into a raised position in which the lift and slide element is displaceable, wherein the actuation gear comprises an input shaft which is rotatably supported in a gear housing and which is rotatable by means of an actuation lever about an axis between a locked position corresponding to the lowered position of the lift and slide element and an unlocked position corresponding to the raised position of the lift and slide element , wherein the input shaft is drive-effectively coupled via a connecting rod to a lifting element for raising and lowering the lift and slide element; wherein the actuation gear further comprises a spring catch which is arranged in the gear housing and by which the input shaft is secured in its locked position , characterized in that the spring catch comprises a fixed-position first spring seat and a second spring seat which is movable in a translatory manner with respect to the first spring seat , with a spring of the spring catch being tensioned between the two spring seats , by which spring the second spring seat is preloaded against the input shaft ; and in that the spring catch has an engagement element which engages in a form-fitting manner into a recess of the input shaft in the locked position of the input shaft , with the engagement element being located at the movable second spring seat . wherein the actuation gear comprises an input shaft which is rotatably supported in a gear housing and which is rotatable by means of an actuation lever about an axis between a locked position corresponding to the lowered position of the lift and slide element and an unlocked position corresponding to the raised position of the lift and slide element , wherein the input shaft is drive-effectively coupled via a connecting rod to a lifting element for raising and lowering the lift and slide element; wherein the actuation gear further comprises a spring catch which is arranged in the gear housing and by which the input shaft is secured in its locked position , characterized in that the spring catch comprises a fixed-position first spring seat and a second spring seat which is movable in a translatory manner with respect to the first spring seat , with a spring of the spring catch being tensioned between the two spring seats , by which spring the second spring seat is preloaded against the input shaft ; and in that the spring catch has an engagement element which engages in a form-fitting manner into a recess of the input shaft in the locked position of the input shaft , with the engagement element being located at the movable second spring seat .
A gas booster for increasing a pressure of a gas comprises: a first gas cylinder comprising: a first chamber , and a first piston actuatable within the first gas cylinder, wherein the first piston is configured to draw the gas into the first chamber through a first inlet at a first pressure and to push the gas out of the first chamber through a first outlet at a second pressure that is higher than the first pressure; and a drive comprising an electric motor configured to convert electric energy to linear motion, wherein the electric motor is coupled to the first piston of the first gas cylinder by a first mechanical connection to actuate the first piston, characterized in that the first gas cylinder comprises an adapter at a first end portion of the first gas cylinder and an end cap at a second end portion of the first gas cylinder, the end cap comprising a first inlet check valve , a first outlet check valve , a first conduit , and a second conduit , an end of the first conduit being coupled to the first inlet check valve and another end of the first conduit being coupled to the first outlet check valve, the second conduit being coupled to the first conduit and having an outlet to the first chamber, and wherein the end cap is attached to the adapter by a plurality of tie rods that maintain the position of the end cap relative to the adapter. a first gas cylinder comprising: a first chamber , and a first piston actuatable within the first gas cylinder, wherein the first piston is configured to draw the gas into the first chamber through a first inlet at a first pressure and to push the gas out of the first chamber through a first outlet at a second pressure that is higher than the first pressure; and a first chamber , and a first piston actuatable within the first gas cylinder, wherein the first piston is configured to draw the gas into the first chamber through a first inlet at a first pressure and to push the gas out of the first chamber through a first outlet at a second pressure that is higher than the first pressure; and a drive comprising an electric motor configured to convert electric energy to linear motion, wherein the electric motor is coupled to the first piston of the first gas cylinder by a first mechanical connection to actuate the first piston, characterized in that the first gas cylinder comprises an adapter at a first end portion of the first gas cylinder and an end cap at a second end portion of the first gas cylinder, the end cap comprising a first inlet check valve , a first outlet check valve , a first conduit , and a second conduit , an end of the first conduit being coupled to the first inlet check valve and another end of the first conduit being coupled to the first outlet check valve, the second conduit being coupled to the first conduit and having an outlet to the first chamber, and wherein the end cap is attached to the adapter by a plurality of tie rods that maintain the position of the end cap relative to the adapter.
An energy gathering cap for a gas cooktop, comprising an inner ring and an outer ring , wherein the outer ring is disposed around the inner ring , and the outer ring and the inner ring are separated from each other to form a space (S), characterized in that , the inner ring is provided with a plurality of first holes , the outer ring is provided with a plurality of second holes , and a projection of the second hole on the inner ring along a horizontal direction does not overlap with the first hole , and the first hole and the second hole allows airflow to pass through to supply sufficient secondary air for burning of gas from a burner located at an inner side of the energy gathering cap , and wherein a projection of the second hole on the inner ring along a radial direction of the outer ring does not overlap with the first hole .
An aircraft assembly comprising: a first structural component comprising a body ; an insert in the body ; and a second structural component ; wherein the insert is arranged to be bored to form a fastener receiving hole during assembly of the first structural component with the second structural component ; and wherein the material hardness of the insert is less than the material hardness of the body , and wherein the second structural component abuts a first side of the body . a first structural component comprising a body ; an insert in the body ; and a second structural component ; wherein the insert is arranged to be bored to form a fastener receiving hole during assembly of the first structural component with the second structural component ; and wherein the material hardness of the insert is less than the material hardness of the body , and wherein the second structural component abuts a first side of the body .
A dressing material, comprising: a first layer comprising a first film of non-porous material having a plurality of openings ; a second layer adjacent to the first layer , the second layer comprising a manifold having a plurality of slits , wherein the manifold comprises a foam; and a third layer adjacent to the second layer and comprising a second film of non-porous material having raised features ; wherein at least some of the plurality of openings , some of the plurality of slits , and some of the raised features are aligned to define a tear line. a first layer comprising a first film of non-porous material having a plurality of openings ; a second layer adjacent to the first layer , the second layer comprising a manifold having a plurality of slits , wherein the manifold comprises a foam; and a third layer adjacent to the second layer and comprising a second film of non-porous material having raised features ; wherein at least some of the plurality of openings , some of the plurality of slits , and some of the raised features are aligned to define a tear line.
A method of mass spectrometry and/or ion mobility spectrometry comprising: providing an analyte by using a first device to generate aerosol, smoke or vapour from a target to be analysed; supplying a matrix compound to said aerosol, smoke or vapour such that: (i) said analyte is diluted by said matrix and forms first droplets of diluted analyte by supplying the matrix to the analyte whilst the analyte is provided in the form of droplets in said aerosol smoke or vapour ; or (ii) said analyte is dissolved in said matrix and forms first droplets of dissolved analyte; or (iii) said analyte forms first clusters with said matrix ; and colliding said first clusters or said first droplets of diluted or dissolved analyte with a collision surface located within a vacuum chamber of a mass and/or ion mobility spectrometer so as to generate a plurality of analyte ions . providing an analyte by using a first device to generate aerosol, smoke or vapour from a target to be analysed; supplying a matrix compound to said aerosol, smoke or vapour such that: (i) said analyte is diluted by said matrix and forms first droplets of diluted analyte by supplying the matrix to the analyte whilst the analyte is provided in the form of droplets in said aerosol smoke or vapour ; or (ii) said analyte is dissolved in said matrix and forms first droplets of dissolved analyte; or (iii) said analyte forms first clusters with said matrix ; and (i) said analyte is diluted by said matrix and forms first droplets of diluted analyte by supplying the matrix to the analyte whilst the analyte is provided in the form of droplets in said aerosol smoke or vapour ; or (ii) said analyte is dissolved in said matrix and forms first droplets of dissolved analyte; or (iii) said analyte forms first clusters with said matrix ; and colliding said first clusters or said first droplets of diluted or dissolved analyte with a collision surface located within a vacuum chamber of a mass and/or ion mobility spectrometer so as to generate a plurality of analyte ions .
Land vehicle for unmanned usage, comprising a dispenser comprising an inventory of suitably between 50 and 500 plantable devices for planting and growing a plant, a subsoiler , a plantable device installer and a controller programmed to activate the subsoiler at a pre-programmed planting position to prepare a planting pit, programmed to activate the plantable device installer to select a plantable device from the inventory and position the plantable device in the planting pit and programmed to move the vehicle from one pre-programmed planting position to another pre-programmed planting position after positioning a plantable device , characterised in that each plantable device comprises at a first end an elongated hollow shroud part which functions as a protective shield for the growing plant and at a second end a plug comprising one or more seeds and/or micro-propagated plant material , and each plantable device further comprises an anti-weed shield that can adopt a compacted configuration and an expanded configuration, wherein when the plantable device is comprised in the dispenser its anti-weed shield is in its compacted configuration. a dispenser comprising an inventory of suitably between 50 and 500 plantable devices for planting and growing a plant, a subsoiler , a plantable device installer and a controller programmed to activate the subsoiler at a pre-programmed planting position to prepare a planting pit, programmed to activate the plantable device installer to select a plantable device from the inventory and position the plantable device in the planting pit and programmed to move the vehicle from one pre-programmed planting position to another pre-programmed planting position after positioning a plantable device , characterised in that each plantable device comprises at a first end an elongated hollow shroud part which functions as a protective shield for the growing plant and at a second end a plug comprising one or more seeds and/or micro-propagated plant material , and each plantable device further comprises an anti-weed shield that can adopt a compacted configuration and an expanded configuration, wherein when the plantable device is comprised in the dispenser its anti-weed shield is in its compacted configuration.