mhurhangee/patent-ind-claim-en huggingface dataset:
A switch cabinet for exhaust gas measurement installations comprising a cabinet body which is composed of four laterally bounding walls of which one serves as a ceiling , one serves as a floor and two serve as side walls , as well as a rear wall , and can be closed by a door arranged at the front side , wherein in said cabinet body measuring devices and gas connections are arranged, wherein said gas connections extend through the walls of said cabinet body and respectively interact with at least one valve arranged inside said cabinet body , wherein at least one first gas connection is arranged in a first horizontal plane and a first vertical plane, and at least one second gas connection is arranged in a second horizontal plane offset to the first horizontal plane and a second vertical plane offset to the first vertical plane, characterized in that the ceiling or one of the side walls are configured in a stepped manner with a first step and a second step , wherein at said first step the at least one first connection is arranged and at said second step the at least one second connection is arranged.
Refrigeration appliance, in particular household refrigeration appliance, having a dispenser recess , and a heat-insulating housing, which surrounds a storage compartment for refrigerated goods, and at least one opening between the storage compartment and the dispenser recess , wherein the dispenser recess is disposed outside of the heat-insulating housing, and a container-valve assembly , which has a container and a valve, wherein a cover , by means of which the dispenser recess can be closed off, is hinged to the housing, wherein an operating paddle is assembled in the dispenser recess , which is used to open the valve and to fill a vessel pressed against the operating paddle in the dispenser recess with beverage from the above-lying container , wherein the operating paddle is assembled in the dispenser recess independently of the container valve assembly , wherein the operating paddle forms an arm of a pivotable two-arm lever, wherein a second arm of the lever is moulded and dimensioned in order, when the operating paddle is deflected by the vessel pressed against it, to push against the valve from the lateral direction, characterised in that the container-valve assembly in the storage compartment is detachably assembled to penetrate the opening , wherein a container is connected with a valve to the container-valve assembly .
A vinegar composition produced from distilled alcohol and/or grain and/or malt via fermentation, comprising: (a) diethyl succinate (x) in an amount of from 0.10 mg/L to 4.0 mg/L; and (b) benzaldehyde (y) in an amount of from 0.15 mg/L to 2.0 mg/L. (a) diethyl succinate (x) in an amount of from 0.10 mg/L to 4.0 mg/L; and (b) benzaldehyde (y) in an amount of from 0.15 mg/L to 2.0 mg/L.
Light unit group connection for connecting a group of light units for street or road lighting installations to an electrical grid, said light unit group connection having a cable for connecting the group of light units to the electrical grid, each light unit having an integrated lighting device and solar power unit, and containing a DC to AC power conversion for solar electricity produced by said solar power unit, and a solar electricity return for returning solar electricity to the electrical grid via the same cable that connects the lighting unit to the electrical grid, whereby said light unit group connection contains one or several group AC optimization units consisting of one or several filters and/or frequency optimization components at the group's connection to the electrical grid to give a voltage according to solar energy voltage quality regulations.
Process for producing a composition comprising polycarbodiimides, which comprises the step of reacting a reaction mixture comprising an aromatic polyisocyanate and a carbodiimidization catalyst, characterized in that before the reaction, the aromatic polyisocyanate is treated at a temperature of from ≥ 80°C to ≤ 150°C and a pressure of from ≥ 1 mbar to ≤ 500 mbar by means of passing an inert gas through it, and/or during the reaction, the reaction mixture is treated at a temperature of from ≥ 80°C to ≤ 150°C and a pressure of from ≥ 1 mbar to ≤ 500 mbar by means of passing an inert gas through it, with, in addition, the content of hydrolyzable chlorine in the reaction mixture being ≤ 10 ppm.
A method for wireless communications, comprising: identifying a resource set for transmission of a set of control channel elements, CCEs, to at least one user equipment, UE, wherein the resource set comprises multiple resource element groups, REGs, and multiple symbols; determining a mapping scheme for mapping REGs of the resource set to CCEs of the set of CCEs based at least in part on a number of REGs in a symbol of the multiple symbols of the resource set, on a number of symbols of the resource set, and on a number of REGs in each CCE of the set of CCEs; mapping REGs to each CCE of the set of CCEs based at least in part on the mapping scheme; and transmitting the mapped REGs to the at least one UE. identifying a resource set for transmission of a set of control channel elements, CCEs, to at least one user equipment, UE, wherein the resource set comprises multiple resource element groups, REGs, and multiple symbols; determining a mapping scheme for mapping REGs of the resource set to CCEs of the set of CCEs based at least in part on a number of REGs in a symbol of the multiple symbols of the resource set, on a number of symbols of the resource set, and on a number of REGs in each CCE of the set of CCEs; mapping REGs to each CCE of the set of CCEs based at least in part on the mapping scheme; and transmitting the mapped REGs to the at least one UE.
Hand tool with two tool halves , arranged crossing one another in a joint region, such as pliers or scissors, wherein a tool half forms a working region on one side of the joint region, and on the other side a gripping region , wherein furthermore, each gripping region is arranged in a first and a second gripping sleeve , respectively, and the gripping sleeve is provided with a functional part , projecting with respect to a flat surface extending over a substantial part of the surface of the gripping sleeve , characterised in that , inner surfaces of the gripping sleeves facing one another are designed with flat surfaces originating from free ends of the gripping regions , in that , the functional part is arranged on the inner surface of the first and/or second gripping sleeve facing the inner surface of the opposing second and/or first gripping sleeve , and in that , the functional part is adhesively bonded, or welded, onto a position that lies outside an acquisition and action region of the user.
A method for operating a gas turbine engine coupled to an aircraft propeller , the method comprising: detecting a command for unfeathering the propeller ; and inhibiting shaft shear detection logic in response to detecting the command for unfeathering the propeller ; characterised by : detecting completion of the unfeathering of the propeller ; enabling the shaft shear detection logic in response to detecting the completion of the propeller unfeathering; and limiting a speed of the gas turbine engine while the shaft shear detection logic is inhibited until completion of the unfeathering is detected. detecting a command for unfeathering the propeller ; and inhibiting shaft shear detection logic in response to detecting the command for unfeathering the propeller ; detecting completion of the unfeathering of the propeller ; enabling the shaft shear detection logic in response to detecting the completion of the propeller unfeathering; and limiting a speed of the gas turbine engine while the shaft shear detection logic is inhibited until completion of the unfeathering is detected.
Device for generating a plasma jet (P), comprising a first conduit , which comprises a first outlet , and a second conduit , which comprises at least one second outlet , wherein the first conduit is arranged inside the second conduit , such that a first flow channel is provided inside the first conduit , and a second flow channel is provided in the space between the first conduit and the second conduit , and wherein the device comprises a first electrode and a second electrode for generating an electric field in a feed gas flow (F) provided in the first flow channel in order to generate a plasma jet (P) from the feed gas flow (F), wherein the device is adapted to provide a curtain gas flow (C) at the second outlet surrounding the plasma jet (P) emerging from the first outlet , wherein the first electrode is positioned radially outside of the first flow channel , wherein the radial distance of the second electrode from a longitudinal axis (I) of the first conduit is larger than the radial distance of the first electrode from said longitudinal axis (I), characterized in that at least a part of the second conduit comprises a flexible section , wherein the bending stiffness of the flexible section is such that the flexible section can be bent by a bending radius in the range of 10 mm to 100 mm.
A nose cone assembly in a turbo machine, said assembly comprising: a turbo machine component comprising an annular hub extending radially around a central axis and forming a planar mounting surface , said hub comprising: one or more mounting portions disposed around the circumference of said hub , said mounting portions extending radially inward from said hub and forming a mounting surface which defines a groove ; and a nose cone mounted on said hub , said nose cone comprising a flange extending radially around the central axis and axially from an apex portion of said nose cone to a base portion of said nose cone , said flange forming an annular hub mating surface at said base portion and having an outer surface defining an air flow path; and a plurality of hub mounting elements disposed around the circumference of said base portion , each of said hub mounting elements comprising a flexible flange extending toward the central axis and having a ridge protruding from a radially outward facing surface, wherein said flexible flange is configured to deflect toward the central axis upon engagement with said hub , and wherein each ridge is engaged with a groove of a respective one of said one or more mounting portions . a turbo machine component comprising an annular hub extending radially around a central axis and forming a planar mounting surface , said hub comprising: one or more mounting portions disposed around the circumference of said hub , said mounting portions extending radially inward from said hub and forming a mounting surface which defines a groove ; and a nose cone mounted on said hub , said nose cone comprising a flange extending radially around the central axis and axially from an apex portion of said nose cone to a base portion of said nose cone , said flange forming an annular hub mating surface at said base portion and having an outer surface defining an air flow path; and one or more mounting portions disposed around the circumference of said hub , said mounting portions extending radially inward from said hub and forming a mounting surface which defines a groove ; and a nose cone mounted on said hub , said nose cone comprising a flange extending radially around the central axis and axially from an apex portion of said nose cone to a base portion of said nose cone , said flange forming an annular hub mating surface at said base portion and having an outer surface defining an air flow path; and a plurality of hub mounting elements disposed around the circumference of said base portion , each of said hub mounting elements comprising a flexible flange extending toward the central axis and having a ridge protruding from a radially outward facing surface, wherein said flexible flange is configured to deflect toward the central axis upon engagement with said hub , and wherein each ridge is engaged with a groove of a respective one of said one or more mounting portions .
Method for monitoring, evaluating and controlling a cyclic chromatographic purification process involving at least two adsorbers, through which a liquid with a feed mixture (Feed), comprising the desired product components (P) as well as impurities (W,S), is passed, said purification process comprising at least two different phases (I, B), at least one interconnected phase (I), in which the two adsorbers are interconnected in that the outlet of an upstream adsorber is fluidly connected to the inlet of a downstream adsorber, and at least one batch phase (B), in which at least one adsorber is not fluidly connected to the others and in which the desired product components (P) are recovered in purified form from a disconnected adsorber, wherein the method comprises at least the following steps: a. monitoring of the chromatogram including the measurement of at least one current concentration-proportional signal in the liquid; b. evaluation of the chromatogram including a comparison of at least one of said current concentration-proportional signals measured in step a. with a threshold value thereof; c. controlling the chromatographic purification process by adapting the termination of the currently running phase as a function of the comparison of step b. and initiating the next phase, wherein the sequence a-c is carried out in given order at least twice. at least one interconnected phase (I), in which the two adsorbers are interconnected in that the outlet of an upstream adsorber is fluidly connected to the inlet of a downstream adsorber, and at least one batch phase (B), in which at least one adsorber is not fluidly connected to the others and in which the desired product components (P) are recovered in purified form from a disconnected adsorber, a. monitoring of the chromatogram including the measurement of at least one current concentration-proportional signal in the liquid; b. evaluation of the chromatogram including a comparison of at least one of said current concentration-proportional signals measured in step a. with a threshold value thereof; c. controlling the chromatographic purification process by adapting the termination of the currently running phase as a function of the comparison of step b. and initiating the next phase,
Injector for injecting fuel, comprising: a seat plate with a flow restrictor , a valve insert which is arranged on one of the flat sides of the seat plate , a valve guide for receiving the valve insert , a nozzle needle which is arranged on the side of the valve insert opposite the seat plate , a valve chamber for holding fuel, wherein the valve chamber is delimited by the seat plate , the valve guide and the valve insert and extends up to the flow restrictor of the seat plate , a control chamber for receiving fuel, wherein the control chamber is delimited by the valve insert , the valve guide and the nozzle needle , a first line which connects the control chamber and the valve chamber to one another, and a second line which connects the control chamber and the valve chamber to one another, characterized in that the first line and the second line permanently connect the control chamber to the valve chamber in any operating state of the injector . a seat plate with a flow restrictor , a valve insert which is arranged on one of the flat sides of the seat plate , a valve guide for receiving the valve insert , a nozzle needle which is arranged on the side of the valve insert opposite the seat plate , a valve chamber for holding fuel, wherein the valve chamber is delimited by the seat plate , the valve guide and the valve insert and extends up to the flow restrictor of the seat plate , a control chamber for receiving fuel, wherein the control chamber is delimited by the valve insert , the valve guide and the nozzle needle , a first line which connects the control chamber and the valve chamber to one another, and a second line which connects the control chamber and the valve chamber to one another, characterized in that the first line and the second line permanently connect the control chamber to the valve chamber in any operating state of the injector .
A composition comprising: 100 parts by weight of poly(alkylene terephthalate); and 0.01 to 2 parts by weight of a partially saponified derivative of a compound represented by Formula , wherein each occurrence of R 1 is independently C 6 -C 36 hydrocarbyl; each occurrence of R 2 is independently C 1 -C 10 hydrocarbylene; and n is, on average, 1 to 15; and wherein the composition excludes copolymers of monomers comprising an unsubstituted or substituted styrene, and an unsaturated nitrile; wherein the poly(alkylene terephthalate) is poly(butylene terephthalate); and wherein the partially saponified derivative is a sodium salt, a potassium salt, a magnesium salt, a calcium salt, or a combination thereof. 100 parts by weight of poly(alkylene terephthalate); and 0.01 to 2 parts by weight of a partially saponified derivative of a compound represented by Formula , wherein each occurrence of R 1 is independently C 6 -C 36 hydrocarbyl; each occurrence of R 2 is independently C 1 -C 10 hydrocarbylene; and n is, on average, 1 to 15; and wherein the composition excludes copolymers of monomers comprising an unsubstituted or substituted styrene, and an unsaturated nitrile; wherein the poly(alkylene terephthalate) is poly(butylene terephthalate); and wherein the partially saponified derivative is a sodium salt, a potassium salt, a magnesium salt, a calcium salt, or a combination thereof.
A pump for a liquid product including: - a body inwardly delimiting a compression chamber , in which a piston is mounted sliding, - an external motor coupled to the piston for movement thereof by a piston rod passing through a wall secured to the pump body , through a passage opening equipped with a sealing device including a stack of seals kept gripped axially against the pump body , wherein the sealing device includes an axial compression member inserted between a crown , comprised in the sealing device , and the wall secured to the pump body , wherein the crown delimits, in part, a receiving housing suitable for accommodating the axial compression member , characterized in that the crown is translatable relative to the wall between a first position, in which the receiving housing has a minimum volume, and a second position, in which the receiving housing has a volume strictly greater than the minimum volume. - a body inwardly delimiting a compression chamber , in which a piston is mounted sliding, - an external motor coupled to the piston for movement thereof by a piston rod passing through a wall secured to the pump body , through a passage opening equipped with a sealing device including a stack of seals kept gripped axially against the pump body , wherein the sealing device includes an axial compression member inserted between a crown , comprised in the sealing device , and the wall secured to the pump body , wherein the crown delimits, in part, a receiving housing suitable for accommodating the axial compression member , characterized in that the crown is translatable relative to the wall between a first position, in which the receiving housing has a minimum volume, and a second position, in which the receiving housing has a volume strictly greater than the minimum volume. wherein the sealing device includes an axial compression member inserted between a crown , comprised in the sealing device , and the wall secured to the pump body , wherein the crown delimits, in part, a receiving housing suitable for accommodating the axial compression member , characterized in that the crown is translatable relative to the wall between a first position, in which the receiving housing has a minimum volume, and a second position, in which the receiving housing has a volume strictly greater than the minimum volume.
A mounting device for mounting a bulkhead connector on a support, the mounting device comprising: • a housing for receiving the bulkhead connector, said housing being defined by a hollow casing comprising a top wall and two side walls , the housing including an opening enabling a mating connector to be connected to the bulkhead connector; • snap-fastener means for snap-fastening the mounting device to the support, wherein the snap-fastener means comprise two flexible attachment tabs (9; 102), each attachment tab being provided at a first free end with a hook , each attachment tab being connected to the top wall of the hollow casing ; • manual actuator means co-operating with the snap-fastener means for making it possible, manually, to mount the mounting device on the support and to remove it therefrom, wherein the manual actuator means comprise two jaws forming a gripper, each jaw comprising a second free end of a respective one of the two flexible attachment tabs. • a housing for receiving the bulkhead connector, said housing being defined by a hollow casing comprising a top wall and two side walls , the housing including an opening enabling a mating connector to be connected to the bulkhead connector; • snap-fastener means for snap-fastening the mounting device to the support, wherein the snap-fastener means comprise two flexible attachment tabs (9; 102), each attachment tab being provided at a first free end with a hook , each attachment tab being connected to the top wall of the hollow casing ; • manual actuator means co-operating with the snap-fastener means for making it possible, manually, to mount the mounting device on the support and to remove it therefrom, wherein the manual actuator means comprise two jaws forming a gripper, each jaw comprising a second free end of a respective one of the two flexible attachment tabs.
An austenitic heat-resistant alloy having a chemical composition of, in mass %: 0.04 to 0.14 % C; 0.05 to 1 % Si; 0.5 to 2.5 % Mn; up to 0.03 % P; less than 0.001 % S; 23 to 32 % Ni; 20 to 25 % Cr; 1 to 5 % W; 0.1 to 0.6 % Nb; 0.12 to 0.6 % V; 0.1 to 0.3 % N; 0.0005 to 0.01 % B; 0.001 to 0.02 % Sn; up to 0.03 % sol. Al; up to 0.02 % O; 0 to 0.5 % Ti; 0 to 2 % Co; 0 to 4 % Cu; 0 to 4 % Mo; 0 to 0.02 % Ca; 0 to 0.02 % Mg; 0 to 0.2 % REM; and the balance being Fe and impurities, the alloy having a microstructure with a grain size represented by a grain size number in accordance with ASTM E112 of 2.0 or more and less than 7.0. 0.04 to 0.14 % C; 0.05 to 1 % Si; 0.5 to 2.5 % Mn; up to 0.03 % P; less than 0.001 % S; 23 to 32 % Ni; 20 to 25 % Cr; 1 to 5 % W; 0.1 to 0.6 % Nb; 0.12 to 0.6 % V; 0.1 to 0.3 % N; 0.0005 to 0.01 % B; 0.001 to 0.02 % Sn; up to 0.03 % sol. Al; up to 0.02 % O; 0 to 0.5 % Ti; 0 to 2 % Co; 0 to 4 % Cu; 0 to 4 % Mo; 0 to 0.02 % Ca; 0 to 0.02 % Mg; 0 to 0.2 % REM; and the balance being Fe and impurities, the alloy having a microstructure with a grain size represented by a grain size number in accordance with ASTM E112 of 2.0 or more and less than 7.0.
An amusement ride having a base to which is fastened at least one pivotable or rotatable support for holding rows of seats mounted in gondolas , wherein the gondolas are movable on the support with respect to the base, at least in the vertical direction, and the rows of seats in the gondola are rotatable or pivotable in at least two mutually perpendicular planes, wherein the at least one support is formed by two parallel arms with at least two gondolas arranged between the same, formed by frames which interlock in a Cardan suspension, such that the rows of seats in the gondolas are mounted by Cardan suspension and are movable in three mutually perpendicular planes, wherein the at least one support is an obtusely angled or arcuate motor-driven support beam which is curved relative to the base, has two arms, and is mounted on the base in the central region thereof, and is configured with one gondola on each of its upwardly swept ends, and wherein, while one of the gondolas can be loaded and unloaded in its starting position, other gondolas fastened to the support can be operated in a predefined movement program.