mhurhangee/patent-ind-claim-en huggingface dataset:
A gripper device configured to pick up a pliable food product having a tail-like part from a pick up area and releasing it at a releasing area, comprising: a support , a pair of jaws mounted to the support for movement of distal ends thereof towards each other defining a closing position of the pair of jaws and away from each other defining an open position of the pair of jaws, and a tail bender device attached to the support and adjacent to one end of the pair of jaws, the tail bender device being configured to bend the tail-like part while transferring the food product from the pick up area until releasing it at the releasing area, characterized in that the tail bender device being moveable in relation to the pair of jaws, wherein the movement of the tail bender device relative to the pair of jaws comprises a movement of the tail bender device at least partly below the pair of jaws when being in closing position such that said bending of the tail-like part comprises pushing the tail-like part downward. a support , a pair of jaws mounted to the support for movement of distal ends thereof towards each other defining a closing position of the pair of jaws and away from each other defining an open position of the pair of jaws, and a tail bender device attached to the support and adjacent to one end of the pair of jaws, the tail bender device being configured to bend the tail-like part while transferring the food product from the pick up area until releasing it at the releasing area, characterized in that the tail bender device being moveable in relation to the pair of jaws, wherein the movement of the tail bender device relative to the pair of jaws comprises a movement of the tail bender device at least partly below the pair of jaws when being in closing position such that said bending of the tail-like part comprises pushing the tail-like part downward.
A polyolefin microporous membrane, wherein: (i) a puncture strength Y (N) in terms of a membrane thickness of 10 μm and the number Z of surface pores per unit area (/μm 2 ) satisfy a relationship of the following formula : Y N ≥ − 0.06 × Z / μm 2 + 9.4 wherein the puncture strength Y is measured by the method of the description and the number Z of surface pores is measured by a scanning electron microscope observation, or (ii) a puncture strength Y (N) in terms of a membrane thickness of 10 μm and a surface opening ratio W (%) satisfy a relationship of the following formula : Y N ≥ − 0.11 × W % + 6.2 and the surface opening ratio W is 5% or more and 45% or less, and wherein in (i) or (ii) the puncture strength Y is 3.0 N or more, and wherein the puncture strength Y and the opening ratio W are each measured by the respective method of the description. (i) a puncture strength Y (N) in terms of a membrane thickness of 10 μm and the number Z of surface pores per unit area (/μm 2 ) satisfy a relationship of the following formula : Y N ≥ − 0.06 × Z / μm 2 + 9.4 wherein the puncture strength Y is measured by the method of the description and the number Z of surface pores is measured by a scanning electron microscope observation, or (ii) a puncture strength Y (N) in terms of a membrane thickness of 10 μm and a surface opening ratio W (%) satisfy a relationship of the following formula : Y N ≥ − 0.11 × W % + 6.2 and the surface opening ratio W is 5% or more and 45% or less, and wherein in (i) or (ii) the puncture strength Y is 3.0 N or more, and wherein the puncture strength Y and the opening ratio W are each measured by the respective method of the description. the surface opening ratio W is 5% or more and 45% or less, and wherein in (i) or (ii) the puncture strength Y is 3.0 N or more, and
A method for producing a materially-bonded metal/ceramic soldered connection between an uncoated ceramic body and a metal part where the coefficients of thermal expansion of the ceramic body and metal part are matched by using a metallic solder , comprising the steps of: - choosing the metal part to comprise at least a proportion of 50% of one of the oxygen-affine elements titanium or zirconium or of an alloy of these elements, - choosing the ceramic body to consist to at least 80% of aluminum oxide, zirconium oxide, silicon oxide or a mixture thereof; characterized by the steps of: - providing an inactive, eutectic or near-eutectic solder wherein the inactive solder contains no titanium; - forming an assembly with the ceramic body and the metal part wherein the surfaces thereof together form an intermediate space that forms a capillary soldering gap (K), wherein the solder is brought into the vicinity of or into said capillary soldering gap (K); - transferring the structure into an oven; - applying a vacuum or an oxygen-free protective gas atmosphere around the assembly comprising the solder ; - heating (IV) the oven to a soldering temperature (T) that is higher than the liquidus temperature (TL) of the solder ; - maintaining the soldering temperature within the oven for a soldering time (Δt) until the solder completely fills and wets the capillary soldering gap (K) by forming a mixed-phase region (M) with a portion of the dissolved metal part wherein the portion of the dissolved metal part comprises the oxygen-affine elements titanium or zirconium or an alloy of these elements, wherein the oven is heated at most to a temperature T that is 60°C above the liquidus temperature (TL) of the solder (TL < T < TL+60°C). - choosing the metal part to comprise at least a proportion of 50% of one of the oxygen-affine elements titanium or zirconium or of an alloy of these elements, - choosing the ceramic body to consist to at least 80% of aluminum oxide, zirconium oxide, silicon oxide or a mixture thereof; - providing an inactive, eutectic or near-eutectic solder wherein the inactive solder contains no titanium; - forming an assembly with the ceramic body and the metal part wherein the surfaces thereof together form an intermediate space that forms a capillary soldering gap (K), - transferring the structure into an oven; - applying a vacuum or an oxygen-free protective gas atmosphere around the assembly comprising the solder ; - heating (IV) the oven to a soldering temperature (T) that is higher than the liquidus temperature (TL) of the solder ; - maintaining the soldering temperature within the oven for a soldering time (Δt) until the solder completely fills and wets the capillary soldering gap (K) by forming a mixed-phase region (M) with a portion of the dissolved metal part wherein the portion of the dissolved metal part comprises the oxygen-affine elements titanium or zirconium or an alloy of these elements, wherein the oven is heated at most to a temperature T that is 60°C above the liquidus temperature (TL) of the solder (TL < T < TL+60°C).
A method for controlling fuel flow within a machine, the method comprising: identifying a plurality of fuel types provided to the machine; identifying a plurality of fuel circuits associated with the machine, wherein at least one of the plurality of fuel circuits is adapted to be provided with one or more of the plurality of fuel types and at least one of the plurality of fuel circuits is adapted to be provided with more than one of the plurality of fuel types; identifying a fuel flow parameter for calculating fuel flow, the fuel flow parameter comprising an energy flow parameter; calculating a respective fuel flow for each of the one or more fuel types provided to each of the plurality of fuel circuits based at least in part on the identified fuel flow parameter, wherein calculating a respective fuel flow for each of the one or more fuel types comprises calculating a respective energy flow for each of the one or more fuel types within each of the plurality of fuel circuits ; and controlling , based at least in part on the calculation of the respective fuel flows, operation of one or more fuel flow control devices providing fuel to the plurality of fuel circuits . identifying a plurality of fuel types provided to the machine; identifying a plurality of fuel circuits associated with the machine, wherein at least one of the plurality of fuel circuits is adapted to be provided with one or more of the plurality of fuel types and at least one of the plurality of fuel circuits is adapted to be provided with more than one of the plurality of fuel types; identifying a fuel flow parameter for calculating fuel flow, the fuel flow parameter comprising an energy flow parameter; calculating a respective fuel flow for each of the one or more fuel types provided to each of the plurality of fuel circuits based at least in part on the identified fuel flow parameter, wherein calculating a respective fuel flow for each of the one or more fuel types comprises calculating a respective energy flow for each of the one or more fuel types within each of the plurality of fuel circuits ; and controlling , based at least in part on the calculation of the respective fuel flows, operation of one or more fuel flow control devices providing fuel to the plurality of fuel circuits .
Structural element comprising a base panel , a ceiling panel , and two side wall panels , wherein the base panel and the ceiling panel each have a longitudinal axis parallel to their longer sides and a transverse axis parallel to their shorter sides, and the base panel and the ceiling panel are arranged with their respective longitudinal and transverse axes aligned parallel to each other, wherein two base side panels are provided which are pivotably fastened to the base panel about lower longitudinal pivot axes (Lua, Lub), which in each case extend parallel to the longitudinal axis of the base panel , and two ceiling side panels are provided, which are fastened to the ceiling panel such that they can pivot about upper longitudinal pivot axes (Loa, Lob), which in each case extend parallel to the longitudinal axis of the ceiling panel , and the side wall panels are pivotably fastened to the ceiling panel about transverse pivot axes (Qa, Qb), which in each case extend parallel to the transverse axis of the ceiling panel , wherein, in a transport state, the two base side panels are arranged pivoted to one another below the base panel , the two ceiling side panels are arranged pivoted to one another above the ceiling panel , and the two side wall panels are arranged lying adjacent to one another between the base panel and the ceiling panel , and the base side panels , the base panel , the side wall panels , the ceiling panel and the ceiling side panels form a cuboid transport package which can be raised and lowered together by means of a fixing, and, in an assembled state after the fixing has been released, the two base side panels are arranged swung out to the side of the base panel , the two ceiling side panels are arranged swung out to the side of the ceiling panel , and the two side wall panels are arranged upright between the base panel and the ceiling panel .
Galley for a vehicle , comprising: - a port for the thermal connection of the galley to a vehicle air-conditioning system of the vehicle , - a galley refrigeration system for providing a supply to local cooling points in the galley , - a galley air-conditioning system , which is separate from the vehicle air-conditioning system , characterized in that coolant is supplied to the galley air-conditioning system from the galley refrigeration system . - a port for the thermal connection of the galley to a vehicle air-conditioning system of the vehicle , - a galley refrigeration system for providing a supply to local cooling points in the galley , - a galley air-conditioning system , which is separate from the vehicle air-conditioning system ,
An energy storage device comprising a negative electrode containing an active material layer including an active material, wherein the active material layer includes particulate graphite as the active material, a particle diameter frequency distribution of the graphite includes a first peak and a second peak which appears in a region where a particle diameter is larger than a particle diameter of the first peak, the particle diameter D1 of the first peak is equal to or less than 10 μm and the particle diameter D2 of the second peak is more than 10 μm, the value of D2/D1 is 3 or less, and the active material layer further includes a particulate high hardness active material which has higher hardness than the graphite, characterized in that the particulate high hardness active material contributes to an electrode reaction of a charge reaction and a discharge reaction in the negative electrode , wherein the high hardness active material comprises particulate non-graphitizing carbon. wherein the active material layer includes particulate graphite as the active material, a particle diameter frequency distribution of the graphite includes a first peak and a second peak which appears in a region where a particle diameter is larger than a particle diameter of the first peak, the particle diameter D1 of the first peak is equal to or less than 10 μm and the particle diameter D2 of the second peak is more than 10 μm, the value of D2/D1 is 3 or less, and the active material layer further includes a particulate high hardness active material which has higher hardness than the graphite, characterized in that the particulate high hardness active material contributes to an electrode reaction of a charge reaction and a discharge reaction in the negative electrode , wherein the high hardness active material comprises particulate non-graphitizing carbon.
A variable inlet guide vane system for a gas turbine engine, the variable inlet guide vane system comprising: an inlet housing having an opening ; a metal bearing support ; and a variable inlet guide vane , the variable inlet guide vane comprising: an airfoil ; an outer trunnion operatively coupled to the airfoil and supported within the inlet housing by the bearing support; a sector gear operatively coupled to the outer trunnion; an inner trunnion operatively coupled to the airfoil and received in the opening to further support the variable inlet guide vane; wherein no bushing is between the variable inlet guide vane and the bearing support; characterized in that the airfoil, the outer trunnion and the sector gear are all made from plastic; and in that the sector gear is held in place on the outer trunnion by means of a plastic screw that threadingly engages a passage formed through the sector gear and the outer trunnion. an inlet housing having an opening ; a metal bearing support ; and a variable inlet guide vane , the variable inlet guide vane comprising: an airfoil ; an outer trunnion operatively coupled to the airfoil and supported within the inlet housing by the bearing support; a sector gear operatively coupled to the outer trunnion; an inner trunnion operatively coupled to the airfoil and received in the opening to further support the variable inlet guide vane; wherein no bushing is between the variable inlet guide vane and the bearing support; characterized in that the airfoil, the outer trunnion and the sector gear are all made from plastic; and in that the sector gear is held in place on the outer trunnion by means of a plastic screw that threadingly engages a passage formed through the sector gear and the outer trunnion. an airfoil ; an outer trunnion operatively coupled to the airfoil and supported within the inlet housing by the bearing support; a sector gear operatively coupled to the outer trunnion; an inner trunnion operatively coupled to the airfoil and received in the opening to further support the variable inlet guide vane; wherein no bushing is between the variable inlet guide vane and the bearing support; characterized in that the airfoil, the outer trunnion and the sector gear are all made from plastic; and in that the sector gear is held in place on the outer trunnion by means of a plastic screw that threadingly engages a passage formed through the sector gear and the outer trunnion.
A coffee replica comprising: a) at least 5 volatile organic compounds (VOCs) selected from the group consisting of 2,3-butanedione, 2,3-diethyl-5-methylpyrazine, 2,3-hexanedione, 2,3-pentadione, 2,5-dimethylphenol, 2,6-dimethylpyrazine, 2-acetyl-5-methylfuran, 2-ethoxy-3-methylpyrazine, 2-ethyl-4-hydroxy-5-methyl-3 -furanone, 2-ethylpyrazine, 2-isobutyl-3-methoxypyrazine (IBMP), 2-isobutyl-3-methyl pyrazine, 2-isopropyl-3-methoxypyrazine, 2-methoxy-4-methylphenol, 2-methoxy-4-vinylphenol, 2-methylpyrazine, 2-pentanol, 3-methylbutyric acid, 4-ethylguaiacol, 4-hydroxy-5-methyl-3-furanone, 5-methylfurfural, acetoin acetate, amyl alcohol, beta-damascenone, beta-ionone, butyric acid, coffee furanone, delta-decalactone, delta-octalactone, diethyl succinate, difurfuryl ether, dimethyl trisulfide, ethyl 2-methylbutyrate, ethyl benzoate, ethyl butyrate, ethyl decanoate, ethyl isovalerate, ethyl laurate, ethyl maltol, eugenol, furaneol, furfural, furfuryl alcohol, gamma decalactone, gamma-nonalactone, geranyl acetate, guaiacol, isoamyl alcohol, isobutyraldehyde, isoeugenol, isopropenyl pyrazine, isovaleraldehyde, isovaleric acid, maltol, massoia lactone, methanethiol, methyl anthranilate, p-anisaldehyde, pyrrole, sotolone, syringol, valeraldehyde, vanillin erythro and/or threo-butan-2,3-diol acetal, and vanillyl ethyl ether, and b) at least 3 non-volatile compounds selected from the group consisting of 2,3,5-trimethylpyrazine, 2,3-dimethylpyrazine, aspartic acid, caffeine, choline, citric acid, lactic acid, sotolon, succinic acid, trans-ferulic acid, vanillic acid, and vanillin. a) at least 5 volatile organic compounds (VOCs) selected from the group consisting of 2,3-butanedione, 2,3-diethyl-5-methylpyrazine, 2,3-hexanedione, 2,3-pentadione, 2,5-dimethylphenol, 2,6-dimethylpyrazine, 2-acetyl-5-methylfuran, 2-ethoxy-3-methylpyrazine, 2-ethyl-4-hydroxy-5-methyl-3 -furanone, 2-ethylpyrazine, 2-isobutyl-3-methoxypyrazine (IBMP), 2-isobutyl-3-methyl pyrazine, 2-isopropyl-3-methoxypyrazine, 2-methoxy-4-methylphenol, 2-methoxy-4-vinylphenol, 2-methylpyrazine, 2-pentanol, 3-methylbutyric acid, 4-ethylguaiacol, 4-hydroxy-5-methyl-3-furanone, 5-methylfurfural, acetoin acetate, amyl alcohol, beta-damascenone, beta-ionone, butyric acid, coffee furanone, delta-decalactone, delta-octalactone, diethyl succinate, difurfuryl ether, dimethyl trisulfide, ethyl 2-methylbutyrate, ethyl benzoate, ethyl butyrate, ethyl decanoate, ethyl isovalerate, ethyl laurate, ethyl maltol, eugenol, furaneol, furfural, furfuryl alcohol, gamma decalactone, gamma-nonalactone, geranyl acetate, guaiacol, isoamyl alcohol, isobutyraldehyde, isoeugenol, isopropenyl pyrazine, isovaleraldehyde, isovaleric acid, maltol, massoia lactone, methanethiol, methyl anthranilate, p-anisaldehyde, pyrrole, sotolone, syringol, valeraldehyde, vanillin erythro and/or threo-butan-2,3-diol acetal, and vanillyl ethyl ether, and b) at least 3 non-volatile compounds selected from the group consisting of 2,3,5-trimethylpyrazine, 2,3-dimethylpyrazine, aspartic acid, caffeine, choline, citric acid, lactic acid, sotolon, succinic acid, trans-ferulic acid, vanillic acid, and vanillin.
Supporting wall element of a supporting structure of an escalator or a moving walkway, which supporting wall element has a side wall part which is made in one piece from a metal sheet, an upper chord being formed on a first longitudinal edge of the side wall part by folding and a side wall of the side wall part extending between the upper chord and a second longitudinal edge opposite the first longitudinal edge , the supporting wall element comprising at least one fastening flange for fastening balustrade components of a balustrade , characterized in that a first region of the fastening flange is rigidly connected to the side wall of the side wall part and a second region of the fastening flange projects beyond the upper chord orthogonally to the longitudinal extent thereof and a central region of the fastening flange arranged between the first region and the second region at least partially encloses the portion of the upper chord present in this region .
A method comprising: amorphizing a substrate comprising silicon via boron and germanium implantation; forming a first layer comprising titanium, the first layer located on the substrate comprising silicon; flowing a silicon precursor over the first layer, at least a portion of the first layer after flowing the silicon precursor over the first layer comprising titanium and silicon; forming a second layer comprising a metal, the second layer located on the first layer; and performing one or more annealing processes on the first layer, the second layer, and the substrate. amorphizing a substrate comprising silicon via boron and germanium implantation; forming a first layer comprising titanium, the first layer located on the substrate comprising silicon; flowing a silicon precursor over the first layer, at least a portion of the first layer after flowing the silicon precursor over the first layer comprising titanium and silicon; forming a second layer comprising a metal, the second layer located on the first layer; and performing one or more annealing processes on the first layer, the second layer, and the substrate.
A transfer device for fluid transmission, in particular of toxic medicine, from a storage bottle to a receiving unit, comprising at least one housing with a housing insert or inset comprising two transfer needles and a needle protector, the housing having a tubular design and comprising, at one end, an open cylinder section with at least one locking unit for a storage bottle , and at the other end an opening for the housing insert or inset characterized in that the housing insert or inset consists of a pot-like intermediate part which comprises, in the axial direction towards the radial bottom surface, one integrally moulded first and second pins each on both sides, wherein the first pin protruding outwardly from the bottom surface is provided for sliding on a needle guard, and the second pin protruding from the bottom surface is provided within the cup-shaped recess of the pot-like intermediate part for centering a filter unit .
A method for creating network slices, comprising: creating a slice-bundles link between a first node and a second node, wherein, the slice-bundles link comprises at least one member link between the first node and the second node; and configuring a packet service for the slice-bundles link; wherein the creating the slice-bundles link between the first node and the second node comprises: creating interconnected slice-bundles interfaces on the first node and the second node respectively, and adding the at least one member link to the slice-bundles interfaces as a member interface, wherein an IP address is configured and an interior gateway protocol, IGP, is enabled on the slice-bundles interfaces. creating a slice-bundles link between a first node and a second node, wherein, the slice-bundles link comprises at least one member link between the first node and the second node; and configuring a packet service for the slice-bundles link; wherein the creating the slice-bundles link between the first node and the second node comprises: creating interconnected slice-bundles interfaces on the first node and the second node respectively, and adding the at least one member link to the slice-bundles interfaces as a member interface, wherein an IP address is configured and an interior gateway protocol, IGP, is enabled on the slice-bundles interfaces.