mhurhangee/patent-ind-claim-en huggingface dataset:
An article of footwear comprising a knitted component forming an overfoot portion and an underfoot portion of the article of footwear , the knitted component comprising: a first layer forming an interior surface defining a void ; a second layer , wherein the second layer at least partially surrounds the first layer , wherein the second layer forms an outer surface on the overfoot portion and the underfoot portion, and wherein a portion of the first layer is continuous with a portion of the second layer in an ankle region of the knitted component ; an interstitial space formed between the first layer and the second layer ; wherein the knitted component is characterized by at least one pocket located within the interstitial space; and a component disposed between the first layer and the second layer within the pocket . a first layer forming an interior surface defining a void ; a second layer , wherein the second layer at least partially surrounds the first layer , wherein the second layer forms an outer surface on the overfoot portion and the underfoot portion, and wherein a portion of the first layer is continuous with a portion of the second layer in an ankle region of the knitted component ; an interstitial space formed between the first layer and the second layer ; wherein the knitted component is characterized by at least one pocket located within the interstitial space; and a component disposed between the first layer and the second layer within the pocket .
A method of producing normally solid, normally liquid and optionally normally gaseous hydrocarbons at 0 °C and 1 bar, comprising the steps of: a) Contacting in a reactor a gas mixture comprising hydrogen and carbon monoxide with a catalyst under at a pressure in the range from 20 to 80 bar absolute, a temperature in the range from 125 to 350°C and gaseous hourly space velocity in the range from 500 to 10000 Nl/l/h, to convert at least part of the hydrogen and carbon monoxide into hydrocarbons; b) Withdrawing an effluent from the reactor through one or more outlets; c) subjecting the effluent(s) obtained in step (b) to a separation step to form at least a heavy fraction and a light fraction wherein • the heavy fraction comprising normally solid hydrocarbons; and • the light fraction comprising unconverted syngas and normally liquid and optionally normally gaseous hydrocarbons; the method further comprising the steps of: d) providing the light fraction to a light ends stripper operating at a temperature of maximally 180°C to obtain a hydrocarbons fraction comprising normally liquid hydrocarbons; e) subjecting the heavy fraction to flash evaporation or steam stripping to obtain a hydrocarbon stream of normally solid hydrocarbons (comprising mainly C10+ hydrocarbons). a) Contacting in a reactor a gas mixture comprising hydrogen and carbon monoxide with a catalyst under at a pressure in the range from 20 to 80 bar absolute, a temperature in the range from 125 to 350°C and gaseous hourly space velocity in the range from 500 to 10000 Nl/l/h, to convert at least part of the hydrogen and carbon monoxide into hydrocarbons; b) Withdrawing an effluent from the reactor through one or more outlets; c) subjecting the effluent(s) obtained in step (b) to a separation step to form at least a heavy fraction and a light fraction wherein • the heavy fraction comprising normally solid hydrocarbons; and • the light fraction comprising unconverted syngas and normally liquid and optionally normally gaseous hydrocarbons; • the heavy fraction comprising normally solid hydrocarbons; and • the light fraction comprising unconverted syngas and normally liquid and optionally normally gaseous hydrocarbons; d) providing the light fraction to a light ends stripper operating at a temperature of maximally 180°C to obtain a hydrocarbons fraction comprising normally liquid hydrocarbons; e) subjecting the heavy fraction to flash evaporation or steam stripping to obtain a hydrocarbon stream of normally solid hydrocarbons (comprising mainly C10+ hydrocarbons).
Method of producing a toothed workpiece having a modified surface geometry, in which the workpiece is processed by a diagonal generating method by means of a modified tool in order to generate the modification, wherein a surface geometry of the modified tool includes a modification which can be described at least locally in the generating pattern in a first direction of the tool, which includes an angle p F1 not equal to zero with respect to the tool width direction, at least approximately by a linear and/or quadratic function, wherein the coefficients of this linear and/or quadratic function are formed in a second direction of the tool which extends perpendicular to the first direction by coefficient functions F FtC,1 for the constant portion and F FtL,1 for the linear portion and/or F FtQ,1 for the quadratic portion, with F FtC,1 depending in a non-linear manner on the position in the second direction and F FtL,1 being non-constant; and/or a modification whose pitch and/or crowning in a first direction of the tool, which includes an angle p F1 not equal to zero with respect to the tool width direction, varies in dependence on the angle of rotation of the tool and/or on the tool width position; and whose tooth thickness varies in a non-linear manner in dependence on the angle of rotation of the tool and/or on the tool width position.
Excavation tool for making ground excavations for panels and diaphragms, wherein: said excavations are kept full of excavation fluid or stabilizing mud during the execution of the same excavations; said excavation tool being adapted to be immersed in the excavation fluid or stabilizing mud during the execution of the same excavations; said excavation tool being comprising: - at least one rotary excavation drum ; - at least one frame , adapted to support said at least one excavation drum ; - at least one suction pump , adapted for suction of said excavation fluid or stabilizing mud and the detritus present in the excavation fluid; - at least one brushless electric motor , adapted to put in rotation said at least one excavation drum ; - at least one mechanical reducer , operationally connected to said at least one electric motor and said at least one excavation drum ; said electric motor being installed in said frame and being coaxial to said at least one excavation drum ; said at least one mechanical reducer being coaxial to said at least one electric motor and said at least one excavation drum ; said at least one mechanical reducer being adapted to transfer the rotary motion from said at least one electric motor to said at least one excavation drum . said excavations are kept full of excavation fluid or stabilizing mud during the execution of the same excavations; said excavation tool being adapted to be immersed in the excavation fluid or stabilizing mud during the execution of the same excavations; said excavation tool being comprising: - at least one rotary excavation drum ; - at least one frame , adapted to support said at least one excavation drum ; - at least one suction pump , adapted for suction of said excavation fluid or stabilizing mud and the detritus present in the excavation fluid; - at least one brushless electric motor , adapted to put in rotation said at least one excavation drum ; - at least one mechanical reducer , operationally connected to said at least one electric motor and said at least one excavation drum ; - at least one rotary excavation drum ; - at least one frame , adapted to support said at least one excavation drum ; - at least one suction pump , adapted for suction of said excavation fluid or stabilizing mud and the detritus present in the excavation fluid; - at least one brushless electric motor , adapted to put in rotation said at least one excavation drum ; - at least one mechanical reducer , operationally connected to said at least one electric motor and said at least one excavation drum ; said electric motor being installed in said frame and being coaxial to said at least one excavation drum ; said at least one mechanical reducer being coaxial to said at least one electric motor and said at least one excavation drum ; said at least one mechanical reducer being adapted to transfer the rotary motion from said at least one electric motor to said at least one excavation drum .
An additive manufacturing device comprising: a build tray with an array of heat exchange elements (3a-3n) each of which are configured to independently and alternately heat and cool a respective area of the build tray; a moveable platen that lowers and raises into the build tray, wherein the moveable platen is configured to be cooled to at or below the solidification temperature of a thermoplastic material; a heated re-coater body for translation between said build tray and said moveable platen and configured to apply successive layers of liquified thermoplastic material to said build tray; wherein, in use of the device, said successive layers of thermoplastic material alternately solidified by the heat exchange elements of the build tray by cooling said thermoplastic material to create each layer of a multilayer part and then partially liquefied to release solidified thermoplastic material from the build tray as the moveable platen moves out of the build tray. a build tray with an array of heat exchange elements (3a-3n) each of which are configured to independently and alternately heat and cool a respective area of the build tray; a moveable platen that lowers and raises into the build tray, wherein the moveable platen is configured to be cooled to at or below the solidification temperature of a thermoplastic material; a heated re-coater body for translation between said build tray and said moveable platen and configured to apply successive layers of liquified thermoplastic material to said build tray; wherein, in use of the device, said successive layers of thermoplastic material alternately solidified by the heat exchange elements of the build tray by cooling said thermoplastic material to create each layer of a multilayer part and then partially liquefied to release solidified thermoplastic material from the build tray as the moveable platen moves out of the build tray.
A multilayer flexible tube comprising: an inner layer comprising a melt processable fluoropolymer, wherein the fluoropolymer comprises a copolymer of a poly vinylidene fluoride (PVDF) and a hexafluoropropylene (HFP),; wherein the copolymer of the poly vinylidene fluoride and the hexafluoropropylene includes a molar concentration of 20:80 to 80:20; and an outer layer comprising a melt processable polymer having a shore hardness less than a shore hardness of the inner layer. an inner layer comprising a melt processable fluoropolymer, wherein the fluoropolymer comprises a copolymer of a poly vinylidene fluoride (PVDF) and a hexafluoropropylene (HFP),; wherein the copolymer of the poly vinylidene fluoride and the hexafluoropropylene includes a molar concentration of 20:80 to 80:20; and an outer layer comprising a melt processable polymer having a shore hardness less than a shore hardness of the inner layer.
A waste disposal unit comprising a waste receptacle providing an enclosed space and being arranged to receive a waste element from a waste conduit , the waste receptacle comprising a discharge outlet ; characterised in that the waste disposal unit comprises a rotatable vessel disposed within the waste receptacle , the rotatable vessel having a base, a side wall and an opening above the base, wherein the rotatable vessel is arranged to eject liquid from the opening during rotation; and a first liquid supply element configured to supply liquid to the rotatable vessel .
Method for thermal insulation of a container comprising an evacuable cavity , the cavity being formed by an outer container and an inner container , comprising the steps of evacuating the cavity to a pressure of 100 hPa to 10 -4 hPa, introducing a compressed powder and closing the cavity, where first the cavity is evacuated and subsequently the compressed powder is introduced into the evacuated cavity, the introducing of the compressed powder into the evacuated cavity takes place from an evacuated reservoir wherein the pressure is greater than in the evacuated cavity, and the compressed powder comprises a hydrophobized fumed silica and has a tamped density of 100 - 150 g/l. introducing a compressed powder and closing the cavity, where first the cavity is evacuated and subsequently the compressed powder is introduced into the evacuated cavity, the introducing of the compressed powder into the evacuated cavity takes place from an evacuated reservoir wherein the pressure is greater than in the evacuated cavity, and the compressed powder comprises a hydrophobized fumed silica and has a tamped density of 100 - 150 g/l.
A doorlock configured to switch between a locked state and an unlocked state, the doorlock extending along a first axis (X) between a first end and a second end , the doorlock comprising: - A handle positioned at the first end of the doorlock, the handle being mobile in rotation around the first axis (X), - A pin positioned between the first end and the second end of the doorlock, the pin extending radially from the first axis (X), the pin being mobile in rotation around the first axis (X), and configured to be rotatably driven by a rotation of the handle , thereby making the doorlock switch between the locked state and the unlocked state, - a PCB secured in an immovable manner inside the handle , - a ring centered around the first axis (X), and fixed to the handle so that the rotation of the handle makes the ring rotate, - at least one magnet positioned on the ring , - two reed switches positioned on the PCB , preferably facing the ring , wherein the PCB comprises a processor configured to determine an angular displacement of the handle and a direction of the rotation of the handle around the first axis (X), based on an electric field generated by the two reed switches when the handle is actuated in rotation around the first axis (X), and to determine a locked/unlocked state of the doorlock. - A handle positioned at the first end of the doorlock, the handle being mobile in rotation around the first axis (X), - A pin positioned between the first end and the second end of the doorlock, the pin extending radially from the first axis (X), the pin being mobile in rotation around the first axis (X), and configured to be rotatably driven by a rotation of the handle , thereby making the doorlock switch between the locked state and the unlocked state, - a PCB secured in an immovable manner inside the handle , - a ring centered around the first axis (X), and fixed to the handle so that the rotation of the handle makes the ring rotate, - at least one magnet positioned on the ring , - two reed switches positioned on the PCB , preferably facing the ring ,
A bearing apparatus comprising: a bearing configured to support a shaft extending in a vertical direction; a bearing housing configured to house the bearing ; a rotating cylinder disposed below the bearing housing and fixed to the shaft , the rotating cylinder comprising a slope formed on an outer circumferential surface of the rotating cylinder ; and a bearing casing housing the bearing , the bearing housing , and the rotating cylinder ; characterized in that the rotating cylinder comprises an outer cylindrical portion disposed radially outwardly the bearing , and an upper end of the outer cylindrical portion is arranged at a position higher than a lower end of a roller of the bearing . a bearing configured to support a shaft extending in a vertical direction; a bearing housing configured to house the bearing ; a rotating cylinder disposed below the bearing housing and fixed to the shaft , the rotating cylinder comprising a slope formed on an outer circumferential surface of the rotating cylinder ; and a bearing casing housing the bearing , the bearing housing , and the rotating cylinder ; characterized in that the rotating cylinder comprises an outer cylindrical portion disposed radially outwardly the bearing , and an upper end of the outer cylindrical portion is arranged at a position higher than a lower end of a roller of the bearing .
A transfer apparatus for an inspection apparatus , comprising: an upper end engaging portion configured to make contact with an upper surface of a transferred article including an inspection object; a support frame to which the upper end engaging portion is fixed; a lift including a support part configured to support a lower surface of the transferred article and a side guide configured to make contact with a left surface or a right surface of the transferred article, the lift arranged on the support frame to be movable in an up-down direction; and a lifting driver (N1) configured to provide a driving force to move the lift in the up-down direction, characterized in that the upper end engaging portion includes a plurality of lower surfaces arranged to form a plurality of gaps in a front-rear direction and configured to make contact with the upper surface of the transferred article, and the side guide includes a plurality of side guide protrusions protruding upward to be inserted into the plurality of gaps and configured to make contact with the left surface or the right surface of the transferred article. an upper end engaging portion configured to make contact with an upper surface of a transferred article including an inspection object; a support frame to which the upper end engaging portion is fixed; a lift including a support part configured to support a lower surface of the transferred article and a side guide configured to make contact with a left surface or a right surface of the transferred article, the lift arranged on the support frame to be movable in an up-down direction; and a lifting driver (N1) configured to provide a driving force to move the lift in the up-down direction, characterized in that the upper end engaging portion includes a plurality of lower surfaces arranged to form a plurality of gaps in a front-rear direction and configured to make contact with the upper surface of the transferred article, and the side guide includes a plurality of side guide protrusions protruding upward to be inserted into the plurality of gaps and configured to make contact with the left surface or the right surface of the transferred article.
An airfoil for a turbine blade, the airfoil comprising: a first pressure side cavity positioned adjacent a pressure side , the first pressure side cavity configured to receive a coolant ; a second pressure side cavity positioned adjacent to and fluidly coupled to the first pressure side cavity ; at least one channel positioned between and fluidly coupling the first pressure side cavity and the second pressure side cavity, the at least one channel positioned radially between a top surface and a bottom surface of: the first pressure side cavity ; and the second pressure side cavity; and a trailing edge cooling system positioned adjacent a trailing edge of the airfoil and in direct fluid communication with the first pressure side cavity , the trailing edge cooling system configured to receive a portion of the coolant from the first pressure side cavity . a first pressure side cavity positioned adjacent a pressure side , the first pressure side cavity configured to receive a coolant ; a second pressure side cavity positioned adjacent to and fluidly coupled to the first pressure side cavity ; at least one channel positioned between and fluidly coupling the first pressure side cavity and the second pressure side cavity, the at least one channel positioned radially between a top surface and a bottom surface of: the first pressure side cavity ; and the second pressure side cavity; and the first pressure side cavity ; and the second pressure side cavity; and a trailing edge cooling system positioned adjacent a trailing edge of the airfoil and in direct fluid communication with the first pressure side cavity , the trailing edge cooling system configured to receive a portion of the coolant from the first pressure side cavity .
Filtering device, in particular for gas filtration, for example an air filter, having a round filter element and having a filter housing for receiving the round filter element, wherein the round filter element comprises a filter medium body , the wall of which can be flowed through in radial direction by the fluid to be cleaned with regard to the longitudinal axis of the filter medium body , having respectively one end disk on opposing front faces of the filter medium body , wherein one of the end disks is designed as an open end disk which features a flow opening , wherein the raw side is located in an inside-lying flow chamber in the filter medium body and a support grid is disposed at the outer wall of the filter medium body , and wherein the filter housing comprises a housing cover , characterized in that a lateral flow opening , which is designed as an inflow opening to allow a radial inflow of raw fluid, is provided in the housing cover with regard to the longitudinal axis , that the housing cover features on the interior side a flow guide rib which is sword-shaped and that the flow guide rib protrudes through the flow opening in the open end disk into the inside-lying flow chamber of the round filter element.
A method for leak testing of a bag provided in a container by means of a system , wherein the system has a chamber into which the container is inserted, wherein the container has a withdrawal opening and a ventilation opening , wherein the interior of the container has one withdrawal side associated with the withdrawal opening and one ventilation side associated with the ventilation opening , which are separated from each other by the bag , wherein the chamber connects the withdrawal side and the ventilation side in a sealed manner, fluidically separated from each other, and in the region of the withdrawal opening the bag is permanently in sealed contact with the container , wherein by means of the system the withdrawal side in comparison to the ventilation side is subjected to positive pressure so that the bag bears against the wall of the container , characterised in that a closed test volume is generated with or by the ventilation side , in which a pressure or a pressure difference is determined after or as a function of a test duration, which is used as an indicator of the degree of tightness of the bag provided in the container .
Headlamp comprising: - a retaining band; - a light source located at the front of said retaining band; and a load balancing device comprising two strands comprising: - a first strand comprising a first end (A) and a second end (B) respectively fixed on a front point and a left rear point of said band ; - a second strand comprising a first end (A') and a second end (B') respectively fixed to a front point and a right rear point of said band; - an element in which are inserted said first and second strands in order to bring the two strands together at a point C, characterized in that said headlamp further includes a battery located at the rear of said retaining band, and in which the element is a sliding element into which are threaded said first and second strands in order to bring the two strands together at a point C - a retaining band; - a light source located at the front of said retaining band; and a load balancing device comprising two strands comprising: - a first strand comprising a first end (A) and a second end (B) respectively fixed on a front point and a left rear point of said band ; - a second strand comprising a first end (A') and a second end (B') respectively fixed to a front point and a right rear point of said band; - an element in which are inserted said first and second strands in order to bring the two strands together at a point C,