mhurhangee/patent-ind-claim-en huggingface dataset:
Steering shaft for a motor vehicle, having - an inner shaft ; - an outer shaft ; - a profiled sleeve which is arranged on the inner shaft and is fixed thereon, in such a way that the inner shaft can be moved together with the profiled sleeve in the axial direction with respect to the outer shaft , the inner shaft and the outer shaft being coupled in a torque-transmitting manner with the profiled sleeve connected in between, the profiled sleeve comprising an aperture , into which a projection which is arranged on an outer face of the inner shaft engages in a manner which secures the profiled sleeve in its position on the inner shaft at least in the axial direction, characterized in that the projection and the inner shaft are configured as a single-piece integral component. - an inner shaft ; - an outer shaft ; - a profiled sleeve which is arranged on the inner shaft and is fixed thereon, in such a way that the inner shaft can be moved together with the profiled sleeve in the axial direction with respect to the outer shaft , the inner shaft and the outer shaft being coupled in a torque-transmitting manner with the profiled sleeve connected in between, the profiled sleeve comprising an aperture , into which a projection which is arranged on an outer face of the inner shaft engages in a manner which secures the profiled sleeve in its position on the inner shaft at least in the axial direction, characterized in that the projection and the inner shaft are configured as a single-piece integral component.
A gas turbine engine comprising: a compressor , combustor , and turbine in flow series; and an electronic engine control system configured to generate a real-time estimate of compressor stall margin from an engine model , and command engine actuators to correct for a difference between the real time estimate of compressor stall margin and a required stall margin; characterised in that : the electronic engine control system generates the real-time estimate of compressor stall margin by estimating a plurality of stall line influences and a compressor operating point from the engine model , and calculating a pressure ratio distance separating the compressor operating point from a stall line estimated based on the stall line influences, and the stall line influences comprise heat transfer rates between gas and casing material of the compressor. a compressor , combustor , and turbine in flow series; and an electronic engine control system configured to generate a real-time estimate of compressor stall margin from an engine model , and command engine actuators to correct for a difference between the real time estimate of compressor stall margin and a required stall margin; characterised in that : the electronic engine control system generates the real-time estimate of compressor stall margin by estimating a plurality of stall line influences and a compressor operating point from the engine model , and calculating a pressure ratio distance separating the compressor operating point from a stall line estimated based on the stall line influences, and the stall line influences comprise heat transfer rates between gas and casing material of the compressor.
Adhesive mixture containing - resorcinol and/or resorcinol ester of formula (I) wherein all radicals R 1 are identical or different and represent hydrogen, a straight-chain or branched C 1 -C 18 -alkyl radical or a phenyl radical, preferably methyl or stearyl, and - at least one melamine formaldehyde ether of formula (II) wherein all radicals R 2 are identical or different and represent hydrogen or a straight-chain or branched C 1 -C 4 -alkyl radical or a phenyl radical, wherein however not more than 5 radicals R 2 represent hydrogen, and/or polymers of melamine formaldehyde ethers of formula (II), - at least one sulfenamide of formula (III) where x = 0 and z = 2, wherein the sum of z and x = 2 and y = 1, - at least one silica-based filler. - resorcinol and/or resorcinol ester of formula (I) wherein all radicals R 1 are identical or different and represent hydrogen, a straight-chain or branched C 1 -C 18 -alkyl radical or a phenyl radical, preferably methyl or stearyl, and - at least one melamine formaldehyde ether of formula (II) wherein all radicals R 2 are identical or different and represent hydrogen or a straight-chain or branched C 1 -C 4 -alkyl radical or a phenyl radical, wherein however not more than 5 radicals R 2 represent hydrogen, and/or polymers of melamine formaldehyde ethers of formula (II), all radicals R 2 are identical or different and represent hydrogen or a straight-chain or branched C 1 -C 4 -alkyl radical or a phenyl radical, wherein however not more than 5 radicals R 2 represent hydrogen, and/or polymers of melamine formaldehyde ethers of formula (II), - at least one sulfenamide of formula (III) where x = 0 and z = 2, wherein the sum of z and x = 2 and y = 1, - at least one silica-based filler.
An optical time-domain reflectometer (OTDR), the OTDR comprising: pulse generation unit , comprising a plurality of laser diodes and a plurality of photodiode passive optical power detectors, each photodiode passive optical power detector of the plurality of photodiode passive optical power detectors associated with one of the plurality of laser diodes; a multi-wavelength detector which comprises a plurality of detectors, each detector corresponding to a different wavelength of light; a coupler adapted to simultaneously couple the plurality of detectors of the multi-wavelength detector and the pulse generation unit to a fiber under test at a single optical port; and a controller adapted to control an operation of the pulse generation unit and the multi-wavelength detector based on a determination of whether light exists on the fiber using the plurality of photodiode passive optical power detectors which are adapted to detect a power level of light from the fiber. pulse generation unit , comprising a plurality of laser diodes and a plurality of photodiode passive optical power detectors, each photodiode passive optical power detector of the plurality of photodiode passive optical power detectors associated with one of the plurality of laser diodes; a multi-wavelength detector which comprises a plurality of detectors, each detector corresponding to a different wavelength of light; a coupler adapted to simultaneously couple the plurality of detectors of the multi-wavelength detector and the pulse generation unit to a fiber under test at a single optical port; and a controller adapted to control an operation of the pulse generation unit and the multi-wavelength detector based on a determination of whether light exists on the fiber using the plurality of photodiode passive optical power detectors which are adapted to detect a power level of light from the fiber.
An apparatus for additive manufacturing of an object , the apparatus comprising: a build plate having a build face ; a build unit facing the build face , the build unit comprising: a foil delivery unit, and a radiation emission directing device , wherein the build unit is configured to move foil from the foil delivery unit into contact with the build plate, or an object thereon, so that the foil may be irradiated and incorporated into the object ; and wherein the build unit is coupled to a positioning system ; and one or more detectors configured to inspect one or more of the foil , the object , and radiation emitted or received by the radiation emission directing device , characterized in that the positioning system is capable of providing independent movement of the build unit in at least three dimensions with respect to the build surface . a build plate having a build face ; a build unit facing the build face , the build unit comprising: a foil delivery unit, and a radiation emission directing device , wherein the build unit is configured to move foil from the foil delivery unit into contact with the build plate, or an object thereon, so that the foil may be irradiated and incorporated into the object ; and wherein the build unit is coupled to a positioning system ; and one or more detectors configured to inspect one or more of the foil , the object , and radiation emitted or received by the radiation emission directing device , characterized in that the positioning system is capable of providing independent movement of the build unit in at least three dimensions with respect to the build surface . a foil delivery unit, and a radiation emission directing device , wherein the build unit is coupled to a positioning system ; and one or more detectors configured to inspect one or more of the foil , the object , and radiation emitted or received by the radiation emission directing device ,
An apparatus for heating an aerosol generating material to generate an inhalable aerosol and/or gas, the apparatus comprising: a housing ; a receptacle within the housing , the receptacle comprising a plurality of cavities , each cavity for containing an aerosol generating material ; wherein the receptacle comprises a sheet or a flexible strip and each of the cavities is defined at least in part by the sheet or the flexible strip ; and a heating arrangement comprising a plurality of heater elements , wherein each heater element is arranged externally of a respective one of the plurality of cavities and is for heating aerosol generating material contained in that cavity to generate an inhalable aerosol and/or gas. a housing ; a receptacle within the housing , the receptacle comprising a plurality of cavities , each cavity for containing an aerosol generating material ; wherein the receptacle comprises a sheet or a flexible strip and each of the cavities is defined at least in part by the sheet or the flexible strip ; and a heating arrangement comprising a plurality of heater elements , wherein each heater element is arranged externally of a respective one of the plurality of cavities and is for heating aerosol generating material contained in that cavity to generate an inhalable aerosol and/or gas.
A catheter insertion device comprising: a handle having a proximal body portion and two cantilever arms each extending distally from said body portion; a needle cannula having a proximal end located within the handle proximal body portion, said needle cannula extending distally from the handle proximal body portion and defining a distal cantilever portion disposed partially between the two cantilever arms of the handle ; a catheter assembly removably coupled to the handle and configured to slide on the needle cannula , the catheter assembly comprising an elongated catheter , a catheter hub connected to a proximal end of the elongated catheter , and a catheter advancer base releasably connected to the catheter hub ; and a needle support having two parallel walls pivotally connected to the handle , said needle support pivoting between a first position and a second position, said needle support configured to support the needle cannula on the cantilever portion of said needle cannula when the needle support is in the first position and said needle cannula is disposed between said two parallel walls of the needle support, said needle support blocking distal advancement of the catheter assembly when said needle support is in the first position. a handle having a proximal body portion and two cantilever arms each extending distally from said body portion; a needle cannula having a proximal end located within the handle proximal body portion, said needle cannula extending distally from the handle proximal body portion and defining a distal cantilever portion disposed partially between the two cantilever arms of the handle ; a catheter assembly removably coupled to the handle and configured to slide on the needle cannula , the catheter assembly comprising an elongated catheter , a catheter hub connected to a proximal end of the elongated catheter , and a catheter advancer base releasably connected to the catheter hub ; and a needle support having two parallel walls pivotally connected to the handle , said needle support pivoting between a first position and a second position, said needle support configured to support the needle cannula on the cantilever portion of said needle cannula when the needle support is in the first position and said needle cannula is disposed between said two parallel walls of the needle support, said needle support blocking distal advancement of the catheter assembly when said needle support is in the first position.
An ultrasonic sensing device comprising: a sensing layer arranged between a driving electrode and a sensing electrode , wherein the sensing layer is configured to generate an electrical signal as a result of received ultrasound; and a first transistor (T1) comprising a first gate electrode (G11) connected to a selection line (Sk) and a second gate electrode (G12) connected to the sensing electrode , wherein the first transistor (T1) further comprises a first electrode (S1) connected to a sensing line and a second electrode (S2) connected to a first driving voltage line (VDDL) configured to receive a first driving voltage, wherein the ultrasonic sensing device further comprises a capacitor (Cp) comprising a first capacitor electrode (CE1) connected to the second gate electrode (G12) of the first transistor and a second capacitor electrode configured to receive a second driving voltage. a sensing layer arranged between a driving electrode and a sensing electrode , wherein the sensing layer is configured to generate an electrical signal as a result of received ultrasound; and a first transistor (T1) comprising a first gate electrode (G11) connected to a selection line (Sk) and a second gate electrode (G12) connected to the sensing electrode , wherein the first transistor (T1) further comprises a first electrode (S1) connected to a sensing line and a second electrode (S2) connected to a first driving voltage line (VDDL) configured to receive a first driving voltage, wherein the ultrasonic sensing device further comprises a capacitor (Cp) comprising a first capacitor electrode (CE1) connected to the second gate electrode (G12) of the first transistor and a second capacitor electrode configured to receive a second driving voltage.
A process unit for hazardous material, the process unit comprising: - at least one proximal inner flange , at least one distal inner flange , and an inner wall extending between the at least one proximal inner flange and the at least one distal inner flange and defining an inner passage for transport of the hazardous material, - a process control structure configured for interaction with the hazardous material in the inner passage, and - at least one proximal outer flange , at least one distal outer flange , and an outer wall extending about the inner wall between the at least one proximal outer flange and the at least one distal outer flange and defining, between the inner wall and the outer wall, an outer passage extending along a centre axis between a proximal outer opening and a distal outer opening, the proximal outer opening being within the proximal outer flange, the distal inner opening being within the distal outer flange, wherein the inner wall forms an inner opening through the inner wall and the outer wall forms an outer opening through the outer wall, wherein at least one of the inner opening and outer opening is arranged in sealing engagement with the process control structure, and wherein the outer passage forms a single unified space about the inner passage. - at least one proximal inner flange , at least one distal inner flange , and an inner wall extending between the at least one proximal inner flange and the at least one distal inner flange and defining an inner passage for transport of the hazardous material, - a process control structure configured for interaction with the hazardous material in the inner passage, and - at least one proximal outer flange , at least one distal outer flange , and an outer wall extending about the inner wall between the at least one proximal outer flange and the at least one distal outer flange and defining, between the inner wall and the outer wall, an outer passage extending along a centre axis between a proximal outer opening and a distal outer opening, the proximal outer opening being within the proximal outer flange, the distal inner opening being within the distal outer flange,
A method of delivering an active pharmaceutical ingredient (API) to a food product, the method comprising the steps of: bringing the food product into alignment with a dosing station that includes a dosing head that is spaced from the food product along a direction of travel of the API; after the bringing step, delivering a predetermined quantity of an API-containing liquid that includes a cannabinoid to the food product in the form of microdroplets, wherein the microdroplets are delivered from the dosing head to the food product along the direction of travel, and each of the microdroplets contains the cannabinoid at a concentration that is in a range from approximately 50 micrograms per microliter of solution to approximately 1 milligram per microliter of solution. bringing the food product into alignment with a dosing station that includes a dosing head that is spaced from the food product along a direction of travel of the API; after the bringing step, delivering a predetermined quantity of an API-containing liquid that includes a cannabinoid to the food product in the form of microdroplets, wherein the microdroplets are delivered from the dosing head to the food product along the direction of travel, and each of the microdroplets contains the cannabinoid at a concentration that is in a range from approximately 50 micrograms per microliter of solution to approximately 1 milligram per microliter of solution.
A buffer system for determining total alkaloids in tobacco or tobacco products by a continuous flow method, comprising a buffer solution A and a buffer solution B; wherein the buffer solution A is prepared according to the following steps: weighing 60.5 g to 83.0 g, preferably 71.6 g of disodium hydrogen phosphate and 10.1g to 20.2g, preferably 15.2g of trisodium phosphate, placing them into a beaker, dissolving with water, transferring the resulting solution into a volumetric flask of 1 L, and then supplementing water into the volumetric flask to reach the mark; the buffer solution B is prepared according to the following steps: weighing 5.5 to 8.0 g, preferably 7.0 g of p-aminobenzene sulfonic acid, 60.5g to 83.0 g, preferably 71.6 g of disodium hydrogen phosphate, 5.0g to 7.0 g, preferably 6.2g of sodium dihydrogen phosphate, and 10.0g to 12.1g, preferably 11.8g of sodium citrate, placing them into a beaker, dissolving with water, transferring the resulting solution into a volumetric flask of 1 L, and then supplementing water into the volumetric flask to reach the mark; the ratio of the amount of the buffer solution A to the amount of the buffer solution B is 3: 4.
Release film comprising a carrier layer, a printed image and a release coating, wherein (a) the printed image is disposed at least partly between the carrier layer and the release coating; and (b) the printed image comprises at least one ink cured by UV radiation; and (c) the release coating comprises a polysiloxane cured by UV radiation and has a surface weight of ≤ 5 g/m 2 . (a) the printed image is disposed at least partly between the carrier layer and the release coating; and (b) the printed image comprises at least one ink cured by UV radiation; and (c) the release coating comprises a polysiloxane cured by UV radiation and has a surface weight of ≤ 5 g/m 2 .
Adsorber structure for an adsorption heat exchanger , wherein - the adsorber structure has directed transport structures for transporting heat and for transporting adsorptive vapours, said transport structures being substantially aligned in a gradient direction , - the transport structures are formed by organic and inorganic fibres , - vapour channels , in particular micro-vapour channels , for transporting matter, which have been left behind by the organic fibres after a pyrolysis process, and - the inorganic fibres are designed as heat-conducting fibres and are connected to a first surface of the adsorber structure , whereas the vapour channels are closed towards the first surface and are largely open to the environment towards an opposing, second surface . - the adsorber structure has directed transport structures for transporting heat and for transporting adsorptive vapours, said transport structures being substantially aligned in a gradient direction , - the transport structures are formed by organic and inorganic fibres , - vapour channels , in particular micro-vapour channels , for transporting matter, which have been left behind by the organic fibres after a pyrolysis process, and - the inorganic fibres are designed as heat-conducting fibres and are connected to a first surface of the adsorber structure , whereas the vapour channels are closed towards the first surface and are largely open to the environment towards an opposing, second surface .
Key for operating a lock cylinder , comprising a key bow and a key shaft extending away from the key bow , characterized in that the key shaft comprises a stabilizing insert having a higher strength than the material of the key shaft , and that a channel is formed in the stabilizing insert , in which channel a rolling element displaceable along the channel for operating a lateral tumbler of the lock cylinder is arranged.
An electric nail gun including a main frame , a flywheel that is mounted to said main frame and that is rotatable about an axis (L), a first pulley that is rotatably mounted to said main frame and that is spaced apart from said flywheel , a transmission belt that is trained on said first pulley , and a heat dissipating device that is connected between said transmission belt and said flywheel , and that includes a second pulley connected coaxially and co-rotatably to said flywheel , and trained by said transmission belt , such that said second pulley is driven rotatably by said first pulley to thereby drive rotation of said flywheel about the axis (L), characterized in that said heat dissipating device further includes a weight disc connected coaxially and co-rotatably to said second pulley , and a heat dissipating member connected coaxially and co-rotatably to said weight disc , and including a plurality of fan blades , each of which extends in a direction of the axis (L) such that, during co-rotation of said flywheel , said weight disc and said heat dissipating member , said fan blades create a flow of air for cooling said flywheel , wherein said heat dissipating member further includes a base disc disposed between said weight disc and said flywheel , each of said fan blades extending from said base disc towards said flywheel . a second pulley connected coaxially and co-rotatably to said flywheel , and trained by said transmission belt , such that said second pulley is driven rotatably by said first pulley to thereby drive rotation of said flywheel about the axis (L), characterized in that said heat dissipating device further includes a weight disc connected coaxially and co-rotatably to said second pulley , and a heat dissipating member connected coaxially and co-rotatably to said weight disc , and including a plurality of fan blades , each of which extends in a direction of the axis (L) such that, during co-rotation of said flywheel , said weight disc and said heat dissipating member , said fan blades create a flow of air for cooling said flywheel , wherein said heat dissipating member further includes a base disc disposed between said weight disc and said flywheel , each of said fan blades extending from said base disc towards said flywheel .