mhurhangee/patent-ind-claim-en huggingface dataset:
A fuselage barrel assembly for an aircraft , the fuselage barrel assembly comprising: a first barrel section ; a second barrel section interfaced with the first barrel section to define a barrel joint between the first barrel section and the second barrel section ; and a split longeron that extends across the barrel joint and is attached to both the first barrel section and the second barrel section , the split longeron including: (i) a first longeron section that is attached to the first barrel section via a first plurality of section fasteners ; (ii) a second longeron section that is attached to the second barrel section via a second plurality of section fasteners ; and (iii) a longeron joint that attaches the first longeron section to the second longeron section via a plurality of joint fasteners ; wherein the longeron joint includes a first joint region , a second joint region , and a third joint region , wherein the first longeron section and the second longeron section overlap with one another within the first joint region , within the second joint region , and within the third joint region , and wherein the first joint region , the second joint region , and the third joint region together define a Z-shaped splice between the first longeron section and the second longeron section . a first barrel section ; a second barrel section interfaced with the first barrel section to define a barrel joint between the first barrel section and the second barrel section ; and a split longeron that extends across the barrel joint and is attached to both the first barrel section and the second barrel section , the split longeron including: (i) a first longeron section that is attached to the first barrel section via a first plurality of section fasteners ; (ii) a second longeron section that is attached to the second barrel section via a second plurality of section fasteners ; and (iii) a longeron joint that attaches the first longeron section to the second longeron section via a plurality of joint fasteners ; (i) a first longeron section that is attached to the first barrel section via a first plurality of section fasteners ; (ii) a second longeron section that is attached to the second barrel section via a second plurality of section fasteners ; and (iii) a longeron joint that attaches the first longeron section to the second longeron section via a plurality of joint fasteners ; wherein the longeron joint includes a first joint region , a second joint region , and a third joint region , wherein the first longeron section and the second longeron section overlap with one another within the first joint region , within the second joint region , and within the third joint region , and wherein the first joint region , the second joint region , and the third joint region together define a Z-shaped splice between the first longeron section and the second longeron section .
An atomizer , comprising an atomizing pipe and a liquid storage chamber , the atomizer being characterized by : the atomizing pipe defining an injection port ; the liquid storage chamber being positioned in the atomizing pipe ; and the atomizer further comprising a liquid retainer , the liquid retainer defining an injection window capable of being in communication with the injection port , the liquid retainer being movably arranged on the atomizing pipe , the liquid retainer being moveable vertically or laterally, or moveable in a circle around the atomizing pipe , or rotatable around a point, and the liquid retainer being configured to adjust a relative state of the injection port with respect to external environment, wherein the relative state is the injection port being in communication with the external environment or the injection port being not in communication with the external environment. the atomizing pipe defining an injection port ; the liquid storage chamber being positioned in the atomizing pipe ; and the atomizer further comprising a liquid retainer , the liquid retainer defining an injection window capable of being in communication with the injection port , the liquid retainer being movably arranged on the atomizing pipe , the liquid retainer being moveable vertically or laterally, or moveable in a circle around the atomizing pipe , or rotatable around a point, and the liquid retainer being configured to adjust a relative state of the injection port with respect to external environment, wherein the relative state is the injection port being in communication with the external environment or the injection port being not in communication with the external environment.
Polishing disc for a tool for fine processing of optically effective surfaces (cc, cx) on spectacle lenses (L), comprising a base body which has a center axis (M) and to which is secured an intermediate layer of a resilient material, on which a polishing medium carrier rests, the intermediate layer being softer by comparison with the base body , characterized in that the intermediate layer has at least two regions of different hardness arranged in succession in the direction of the center axis (M) and being formed by mutually different foam material layers , wherein the foam material layer adjoining the base body is softer than the foam material layer on which the polishing medium carrier rests, and wherein as determined for the case of whole-area compression the static modulus of elasticity of the harder foam material layer is between 0.40 and 1.50 N/mm 2 , whereas the static modulus of elasticity of the softer foam material layer is between 0.25 and 0.45 N/mm2.
- A curing agent for water glass for casting, comprising: an ester and an amorphous silicon dioxide obtained by a thermal decomposition of ZrSiO 4 ; wherein the curing agent for casting the water glass does contain water and "not contain water" refers to that the water content of the curing agent for water glass for casting is lower than 1wt%, wherein, 100 parts of the curing agent for casting the water glass by weight comprises: 35-65 parts of the ester by weight, 5-20 parts of an alcohol by weight, and 20-45 parts of the amorphous silicon dioxide obtained by the thermal decomposition of ZrSiO 4 by weight. 35-65 parts of the ester by weight, 5-20 parts of an alcohol by weight, and 20-45 parts of the amorphous silicon dioxide obtained by the thermal decomposition of ZrSiO 4 by weight.
A method for improving the properties of a joint between two cable ends , the method being at least partly performed by a robot controlled by a robot controller and comprising: obtaining by the robot under control of the robot controller , two cable ends , the conductors of which are uncovered and joined in a connection zone (CZ), each cable end also comprising an uncovered insulation zone (UIZ1, UIZ2) comprising uncovered insulation formed as a cone adjacent the uncovered conductor , covering by the robot under control of the robot controller , the joined conductors with a layer of additional insulation , measuring by the robot under control of the robot controller , the layer of additional insulation and the cones , determining by the robot controller , the geometry of the cones and the layer of additional insulation based on the measurements, determining by the robot controller , a deviation of the geometry from a desired geometry of the cones and the layer of additional insulation, where the desired geometry comprises a smooth transition from the uncovered insulation zones to the connection zone, determining by the robot controller , based on the deviation determination, material to be removed from the cones and the layer of additional insulation achieving the desired geometry, and removing by the robot under control of the robot controller , said material from the cones and the additional layer of insulation in order to obtain a joint with improved properties, wherein the geometries of both cones are considered in the determining of material to be removed for obtaining a smooth transition from one uncovered insulation zone to the connection zone. obtaining by the robot under control of the robot controller , two cable ends , the conductors of which are uncovered and joined in a connection zone (CZ), each cable end also comprising an uncovered insulation zone (UIZ1, UIZ2) comprising uncovered insulation formed as a cone adjacent the uncovered conductor , covering by the robot under control of the robot controller , the joined conductors with a layer of additional insulation , measuring by the robot under control of the robot controller , the layer of additional insulation and the cones , determining by the robot controller , the geometry of the cones and the layer of additional insulation based on the measurements, determining by the robot controller , a deviation of the geometry from a desired geometry of the cones and the layer of additional insulation, where the desired geometry comprises a smooth transition from the uncovered insulation zones to the connection zone, determining by the robot controller , based on the deviation determination, material to be removed from the cones and the layer of additional insulation achieving the desired geometry, and removing by the robot under control of the robot controller , said material from the cones and the additional layer of insulation in order to obtain a joint with improved properties, wherein the geometries of both cones are considered in the determining of material to be removed for obtaining a smooth transition from one uncovered insulation zone to the connection zone.
A process for purifying a mixture comprising fat, oil and/or grease, said process comprising the steps of: (i) initial heating of the mixture so that it is flowable; (ii) acidifying the mixture; (iii) homogenising the mixture after acidification and prior to separation, wherein homogenisation comprises injecting steam into the mixture at a pressure of between 5 bar(g) (600 kPa) and 7 bar(g) (800 kPa) and agitation; (iv) separating the mixture into a solid fraction, an organic liquid fraction and an aqueous liquid fraction; (v) removing said solid and said aqueous liquid fractions from the mixture; and (vi) filtering the mixture using a rotary vacuum filter after removing said solid and said aqueous liquid fractions therefrom. (i) initial heating of the mixture so that it is flowable; (ii) acidifying the mixture; (iii) homogenising the mixture after acidification and prior to separation, wherein homogenisation comprises injecting steam into the mixture at a pressure of between 5 bar(g) (600 kPa) and 7 bar(g) (800 kPa) and agitation; (iv) separating the mixture into a solid fraction, an organic liquid fraction and an aqueous liquid fraction; (v) removing said solid and said aqueous liquid fractions from the mixture; and (vi) filtering the mixture using a rotary vacuum filter after removing said solid and said aqueous liquid fractions therefrom.
A control method of an aerosol generating device, the control method comprising: in a step (S100), powering on the aerosol generating device; in a further step (S200), displaying a plurality of preset smoking modes and an option of establishing a new smoking mode; in an another further step (S300), when a user selects a preset smoking mode, a first alternative step (S400) being executed, when the user chooses the option of establishing a new smoking mode, a second alternative step (S500) being executed; in the first alternative step (S400), when the user chooses to execute the preset smoking mode, a final step being executed, when the user chooses to edit the preset smoking mode, the second alternative step (S500) being executed; in the second alternative step (S500), the user editing smoking parameters of the preset smoking mode, a choice being made between saving the smoking parameters and running the edited mode, when the user chooses to save the smoking parameters, a saving step (S510) being executed, when the user chooses to run the aerosol generating device, the final step (S520) being executed; in the saving step (S510), the aerosol generating device saving the smoking mode; and in the final step (S520), the aerosol generating device working in the smoking mode when the user inhales. in a step (S100), powering on the aerosol generating device; in a further step (S200), displaying a plurality of preset smoking modes and an option of establishing a new smoking mode; in an another further step (S300), when a user selects a preset smoking mode, a first alternative step (S400) being executed, when the user chooses the option of establishing a new smoking mode, a second alternative step (S500) being executed; in the first alternative step (S400), when the user chooses to execute the preset smoking mode, a final step being executed, when the user chooses to edit the preset smoking mode, the second alternative step (S500) being executed; in the second alternative step (S500), the user editing smoking parameters of the preset smoking mode, a choice being made between saving the smoking parameters and running the edited mode, when the user chooses to save the smoking parameters, a saving step (S510) being executed, when the user chooses to run the aerosol generating device, the final step (S520) being executed; in the saving step (S510), the aerosol generating device saving the smoking mode; and in the final step (S520), the aerosol generating device working in the smoking mode when the user inhales.
A semiconductor arrangement comprising: a multiplicity of identical controllable semiconductor elements (T), each comprising a first load electrode , a second load electrode and a control electrode ; a freewheeling element (F) comprising a first electrode and a second electrode ; a first terminal electrically connected to the first load electrodes of the multiplicity of controllable semiconductor elements (T); a second terminal electrically connected to the second load electrodes of the multiplicity of controllable semiconductor elements (T) and to the second electrode of the freewheeling element (F); a third terminal electrically connected to the control electrodes of the multiplicity of controllable semiconductor elements (T); and a fourth terminal electrically connected to the first electrode of the freewheeling element (F); wherein the first electrode of the freewheeling element (F) is electrically connected to the first load electrode of each of the multiplicity of controllable semiconductor elements (T) via an individual one of a multiplicity of separate first lines , the fourth terminal serves to provide in use an electric reference potential (V ref ), and the fourth terminal is electrically connected to all first load electrodes solely via the first electrode of the freewheeling element (F) and the respective separate first lines . a multiplicity of identical controllable semiconductor elements (T), each comprising a first load electrode , a second load electrode and a control electrode ; a freewheeling element (F) comprising a first electrode and a second electrode ; a first terminal electrically connected to the first load electrodes of the multiplicity of controllable semiconductor elements (T); a second terminal electrically connected to the second load electrodes of the multiplicity of controllable semiconductor elements (T) and to the second electrode of the freewheeling element (F); a third terminal electrically connected to the control electrodes of the multiplicity of controllable semiconductor elements (T); and a fourth terminal electrically connected to the first electrode of the freewheeling element (F); wherein the first electrode of the freewheeling element (F) is electrically connected to the first load electrode of each of the multiplicity of controllable semiconductor elements (T) via an individual one of a multiplicity of separate first lines , the fourth terminal serves to provide in use an electric reference potential (V ref ), and the fourth terminal is electrically connected to all first load electrodes solely via the first electrode of the freewheeling element (F) and the respective separate first lines .
Bracket handle system (2; 2a-2e) for hygiene applications, comprising a bracket handle (32; 176) for mounting on a structure (4; 4a), wherein an exterior handle surface of the bracket handle (32; 176) has a roughness average Ra of no more than 0.8 μm, characterized in that the bracket handle (32; 176) has on each of two ends distant from each other a plane mounting surface with a round external contour, the bracket handle (32; 176) has on each of the ends a thread portion (34; 114) for attaching the bracket handle (32; 176) to the structure (4; 4a), the mounting surfaces each have transitions that are rounded in a radial outward manner to a lateral surface of the bracket handle (32; 176), and the bracket handle system (2; 2a-2e) also comprises two sealing disks for arranging between the mounting surfaces and the structure (4; 4a), wherein the sealing disks each have a radially inner support disk and a radially outer circumferential sealing body made of an elastomer, wherein the sealing body in a relaxed state has an substantially trapezoidal cross-section , which widens radially outward in an axial direction, and which is, at least on its radially outer end, thicker than the support disk .
A method of controlling an engine viscosity of fuel in a fuel control system using a density of the fuel measured with a Coriolis flow meter , the method comprised of: measuring a temperature of the fuel using a temperature control unit coupled to a fuel line coupling an engine to a fuel source; providing the fuel to the Coriolis flow meter coupled to the fuel line between the temperature control unit and the engine; measuring the density of the fuel with the Coriolis flow meter; generating a signal with the Coriolis flow meter based on the density of the fuel; characterized by : providing the signal based on the measured density of the fuel to the temperature control unit; determining a viscosity of the fuel based on the density of the fuel and an empirically determined viscosity-density relationship of the fluid; and controlling the engine viscosity of the fuel, using the temperature control unit, by controlling the temperature of the fuel based on the determined viscosity and the temperature. measuring a temperature of the fuel using a temperature control unit coupled to a fuel line coupling an engine to a fuel source; providing the fuel to the Coriolis flow meter coupled to the fuel line between the temperature control unit and the engine; measuring the density of the fuel with the Coriolis flow meter; generating a signal with the Coriolis flow meter based on the density of the fuel; characterized by : providing the signal based on the measured density of the fuel to the temperature control unit; determining a viscosity of the fuel based on the density of the fuel and an empirically determined viscosity-density relationship of the fluid; and controlling the engine viscosity of the fuel, using the temperature control unit, by controlling the temperature of the fuel based on the determined viscosity and the temperature. providing the signal based on the measured density of the fuel to the temperature control unit; determining a viscosity of the fuel based on the density of the fuel and an empirically determined viscosity-density relationship of the fluid; and controlling the engine viscosity of the fuel, using the temperature control unit, by controlling the temperature of the fuel based on the determined viscosity and the temperature.
Profile system, comprising at least two profiles , which at least in their end regions form a hollow profile in the shape of a triangle, which is right-angled and isosceles, wherein along the hypotenuse of the triangle a hypotenuse leg is arranged respectively adjacent to cathetus legs formed along the cathets, so that the triangular hollow profile comprises a hypotenuse recess in the shape of an interruption along the hypotenuse, wherein the hypotenuse legs face each other and wherein the hypotenuse legs comprise a difference in length d which essentially corresponds to the ratio 2r/0.8 < d < 2r/0.6, and r is the radius of curvature between a respective cathetus leg edge defining the outer side of the profile and the hypotenuse leg edge adjacent thereto, so that at parallel alignment of the hypotenuse legs of the two profiles in a double profile arrangement , irrespective of the alignment of the ends of the two profiles relative to one another, the hypotenuse leg ends of the hypotenuse legs of the two profiles facing away from the respectively adjacent cathetus leg , which hypotenuse legs face one another in pairs as hypotenuse leg pair , end at a common plane, so that in the intermediate space between the hypotenuse leg pairs a connecting member can be at least partially positioned for the purpose of preventing movement of the profiles of the double profile arrangement relative to one another along the direction of extension of the hypotenuses aligned parallel to one another.
A method for obtaining sequence information from one or more portions of a genomic sample while retaining molecular context, the method comprising (a) providing starting genomic material; (b) distributing individual nucleic acid molecules from the starting genomic material into discrete partitions such that each discrete partition contains an individual nucleic acid molecule, wherein the genomic material within each discrete partition comprises genomic DNA from a single cell; (c) amplifying one or more targeted portions of at least some of the individual nucleic acid molecules in the discrete partitions to form a plurality of amplicons, wherein the amplifying is conducted with a library of primer pairs and wherein the library of primer pairs is designed to amplify at specific distances along the targeted portions; (d) simultaneously with or following step (c), attaching a common barcode sequence to the amplicons within each discrete partition such that each of the amplicons is attributable to the discrete partition in which it was contained; (e) obtaining sequence information from the amplicons, thereby sequencing one or more targeted portions of the genomic sample while retaining molecular context, wherein the library of primer pairs is selected to amplify genomic regions that are poorly characterized, highly polymorphic, or divergent from reference genome sequences. (a) providing starting genomic material; (b) distributing individual nucleic acid molecules from the starting genomic material into discrete partitions such that each discrete partition contains an individual nucleic acid molecule, wherein the genomic material within each discrete partition comprises genomic DNA from a single cell; (c) amplifying one or more targeted portions of at least some of the individual nucleic acid molecules in the discrete partitions to form a plurality of amplicons, wherein the amplifying is conducted with a library of primer pairs and wherein the library of primer pairs is designed to amplify at specific distances along the targeted portions; (d) simultaneously with or following step (c), attaching a common barcode sequence to the amplicons within each discrete partition such that each of the amplicons is attributable to the discrete partition in which it was contained; (e) obtaining sequence information from the amplicons, thereby sequencing one or more targeted portions of the genomic sample while retaining molecular context, wherein the library of primer pairs is selected to amplify genomic regions that are poorly characterized, highly polymorphic, or divergent from reference genome sequences.