mhurhangee/patent-ind-claim-en huggingface dataset:
A containment system for a gas turbine engine , comprising: an outer containment ring having a first projection that extends radially inward; an inner containment ring having at least a second projection that extends radially outward toward the outer containment ring, the second projection offset and spaced apart from the first projection to define a chamber in a first state; wherein the second projection is configured to interlock with the first projection in a second state; the containment system being characterised in that a lattice (104', 104", 104''') is defined within the chamber that spans the chamber, the lattice (104', 104", 104''') being integrally formed with each of the outer containment ring and the inner containment ring, wherein the density of the lattice in the chamber varies in an axial direction from a first side of the inner containment ring to a second, opposite side of the inner containment ring and/or varies in a radial direction from the inner containment ring to the outer containment ring. an outer containment ring having a first projection that extends radially inward; an inner containment ring having at least a second projection that extends radially outward toward the outer containment ring, the second projection offset and spaced apart from the first projection to define a chamber in a first state; wherein the second projection is configured to interlock with the first projection in a second state; the containment system being characterised in that a lattice (104', 104", 104''') is defined within the chamber that spans the chamber, the lattice (104', 104", 104''') being integrally formed with each of the outer containment ring and the inner containment ring, wherein the density of the lattice in the chamber varies in an axial direction from a first side of the inner containment ring to a second, opposite side of the inner containment ring and/or varies in a radial direction from the inner containment ring to the outer containment ring.
Apparatus for arranging on a machine component or in an aperture of a wall, comprising an element (1, 1', 1") for thermal insulation in the high temperature range from 100°C to 1200°C and/or for heat dissipation and cooling in the high temperature range from 100°C to 1200°C, wherein the element has a first stack and a second stack , wherein each stack is configured in a flexible manner and from a large number of several adjoining layers of the same thickness, wherein each layer of the stack (2, 2', 2") is produced from the same material or the same materials as the other layers of the stack , wherein each layer has a metal and/or a woven fabric, knitted fabric or hosiery which is resistant to high temperatures, wherein each layer has a passage or a recess, which is at least partially or completely in alignment with a passage or recess of an adjacent layer of the same stack (2, 2', 2") or is configured to be congruent therewith, wherein the apparatus comprises a housing which receives therein or at least partially surrounds the element (1, 1', 1"), wherein the housing has means with which it can be secured to a pipeline, on a machine component or in an aperture of a wall, and wherein the means comprise a flange for abutment against a wall and for surrounding an aperture of the wall or a pipe clamp for secure connection of the apparatus to a pipe which extends through an aperture of a wall and the passage or the recess, characterized in that the housing has a first at least partially closed chamber , in which the first stack for thermal insulation is arranged and in that outside the chamber the second stack (2") for heat dissipation is provided.
Dispensing system for dispensing a mixture of a first component and a second component, the dispensing system comprising: a dispensing gun comprising an inlet body with a first passage for feeding in the first component under pressure and a second passage for feeding in the second component under pressure, the first and second passages respectively comprising a closable first outlet and a closable second outlet; a static mixing nozzle , detachably connectable to the outlets of the inlet body and provided for mixing and dispensing the components, the static mixing nozzle comprising a first section containing a first chamber and a second chamber for conducting the first and second component respectively and a second section, subsequent to the first section, containing a mixing chamber with static mixing elements which promote mixing the first and second components and conducting the mixture to a nozzle tip serving as an outlet for the mixture; wherein at least one of the first and second chambers of the static mixing nozzle contains a series of static backflow prevention elements (113; 113'), arranged for hindering backflow of the respective component within the respective chamber, characterised in, that the flow path for the respective component is formed by a series of orifices (120, 120', 120", 120"') through the static backflow prevention elements. a dispensing gun comprising an inlet body with a first passage for feeding in the first component under pressure and a second passage for feeding in the second component under pressure, the first and second passages respectively comprising a closable first outlet and a closable second outlet; a static mixing nozzle , detachably connectable to the outlets of the inlet body and provided for mixing and dispensing the components, the static mixing nozzle comprising a first section containing a first chamber and a second chamber for conducting the first and second component respectively and a second section, subsequent to the first section, containing a mixing chamber with static mixing elements which promote mixing the first and second components and conducting the mixture to a nozzle tip serving as an outlet for the mixture; wherein at least one of the first and second chambers of the static mixing nozzle contains a series of static backflow prevention elements (113; 113'), arranged for hindering backflow of the respective component within the respective chamber, characterised in, that the flow path for the respective component is formed by a series of orifices (120, 120', 120", 120"') through the static backflow prevention elements.
Operation monitoring method for monitoring a technical system , in particular a thermal system, in which, by means of a forecasting unit which is intended for calculating a future parameter which characterizes and/or describes operation of the technical system to be expected in the future, in at least one method step at least two detected operating parameters for determining the future parameter are processed, wherein in at least one method step a sequence of the at least two detected operating parameters is formed as a data string over a time sequence of operating states completed by the technical system, in particular the thermal system, wherein in at least one method step the sequence of the operating states is processed to form an analysis parameter, which is a characteristic variable and/or a code number of the sequence, wherein in at least one method step at least one controlling variable dependent on a variation over time of the analysis parameter obtained from the sequence of operating states is output, characterized in that in at least one method step predefined subsequences of the sequence of operating states are assigned to at least two different functional units of the technical system , in particular the thermal system, and, depending on one of the assignments thereby brought about, the at least one controlling variable is output.
Device for the simultaneous 3D printing of a plurality of objects, comprising a plurality of printing heads and a plurality of object holders which are in each case assigned to one of the printing heads , wherein the printing heads and the object holders by way of at least three translatory actuators are able to be moved relative to one another along three translation axes in three spatial dimensions, wherein the printing heads are disposed on exactly one carrier element , and the object holders are disposed on one or a plurality of object holder carriers , or wherein the printing heads are disposed on a plurality of carrier elements , and the object holders are disposed on exactly one object holder carrier , characterized in that the printing heads on the one carrier element or the plurality of carrier elements are disposed so as to be offset along at least two of the three translation axes.
An apparatus for controlling operation of a utility vehicle that is driven by a prime mover to run within a working area (AR), having an electronic control unit having a CPU and a memory , wherein the CPU is configured to function as: a map generating unit (44a1) configured to generate a map (MP) by arraying multiple cells (CMP) in a grid pattern with respect to the working area; and a work controlling unit (44a5) configured to control work in the working area, characterized by an area calculating unit (44a2) configured to calculate an area (S) of the working area based on the map generated by the map generating unit; a required work period calculating unit (44a3) configured to calculate a required work period per unit time period in accordance with first characteristics with respect to the area of the working area calculated by the area calculating unit; a user input prompting unit (44a4) configured to show user information including at least the area of the working area calculated by the area calculating unit and the required work period calculated by the required work period calculating unit to prompt the user to input the user's preferred work period and preferred working time of day; and the work controlling unit (44a5) calculates a target work schedule by distributing the required work period within the unit time period in accordance with second characteristics based on the user's preferred work period and preferred working time of day inputted by the user in response to prompting of user input prompting unit, and control the work in accordance with the calculated target work schedule. a map generating unit (44a1) configured to generate a map (MP) by arraying multiple cells (CMP) in a grid pattern with respect to the working area; and a work controlling unit (44a5) configured to control work in the working area, characterized by an area calculating unit (44a2) configured to calculate an area (S) of the working area based on the map generated by the map generating unit; a required work period calculating unit (44a3) configured to calculate a required work period per unit time period in accordance with first characteristics with respect to the area of the working area calculated by the area calculating unit; a user input prompting unit (44a4) configured to show user information including at least the area of the working area calculated by the area calculating unit and the required work period calculated by the required work period calculating unit to prompt the user to input the user's preferred work period and preferred working time of day; and the work controlling unit (44a5) calculates a target work schedule by distributing the required work period within the unit time period in accordance with second characteristics based on the user's preferred work period and preferred working time of day inputted by the user in response to prompting of user input prompting unit, and control the work in accordance with the calculated target work schedule.
A method for fabricating a three-dimensional object, comprising: (a) jetting , by a laser-enhanced jetting-based 3D printer, a first reactive composition on a substrate to form a first layer of the 3D object; (b) after formation of the first layer of the 3D object, mixing a second reactive composition with the first reactive composition of the first layer by jetting the second reactive composition towards the first reactive composition with said laser-enhanced jetting-based 3D printer; (c) allowing the first and second reactive compositions to crosslink to form a compound; and (d) repeating steps (a) - (c) until the 3D object is formed. (a) jetting , by a laser-enhanced jetting-based 3D printer, a first reactive composition on a substrate to form a first layer of the 3D object; (b) after formation of the first layer of the 3D object, mixing a second reactive composition with the first reactive composition of the first layer by jetting the second reactive composition towards the first reactive composition with said laser-enhanced jetting-based 3D printer; (c) allowing the first and second reactive compositions to crosslink to form a compound; and (d) repeating steps (a) - (c) until the 3D object is formed.
A compressor element comprising at least one compression member , a housing and a rotatable shaft rotatably connecting the at least one compression member to the housing , wherein at least one intermediate element comprising at least one of a roller bearing and a gear is provided between the rotatable shaft and the housing for facilitating rotation of the rotatable shaft , wherein the compressor element further comprises at least one oil injector extending from an inlet port to at least one nozzle via an oil channel , wherein the oil channel is shaped with a radius of curvature larger than 5 mm to allow a flow of oil through the channel for cooling of the at least one intermediate element which is aligned with a direction determined by a centre line of the oil channel .
An uncovering device of a capsule coffee machine, wherein the capsule coffee machine comprises a machine body and a first brewing assembly provided in the machine body , the first brewing assembly comprises a brewing head and a brewing seat , wherein the uncovering device is characterized by comprising: a cover body assembly, which is pivotable to the machine body at the rear side and comprises an upper cover and a lower cover which are fastened to each other, a sealing cover which cooperates with the inner surface of the lower cover to define a sliding cavity is provided between the upper cover and the lower cover , a sliding groove extending from the rear side to the front side of the cover body assembly is provided in the lower cover , and the sliding groove is in communication with the sliding cavity ; a sliding shaft , which is provided in the sliding cavity , wherein both ends of the sliding shaft are located at the opposite sides of the sliding groove ; and a connecting rod assembly, wherein one end of the connecting rod assembly is rotatably connected to the sliding shaft through the sliding groove , the other end of the connecting rod is rotatably connectable to the brewing seat or the brewing head of the first brewing assembly so as to drive the sliding shaft to move in the sliding cavity in a length direction of the sliding groove and drive the connecting rod assembly to move when the cover body assembly is closed and opened, so that the connecting rod assembly drives the brewing seat or the brewing head to move transversely to achieve combination or separation of the brewing seat and the brewing head . a cover body assembly, which is pivotable to the machine body at the rear side and comprises an upper cover and a lower cover which are fastened to each other, a sealing cover which cooperates with the inner surface of the lower cover to define a sliding cavity is provided between the upper cover and the lower cover , a sliding groove extending from the rear side to the front side of the cover body assembly is provided in the lower cover , and the sliding groove is in communication with the sliding cavity ; a sliding shaft , which is provided in the sliding cavity , wherein both ends of the sliding shaft are located at the opposite sides of the sliding groove ; and a connecting rod assembly, wherein one end of the connecting rod assembly is rotatably connected to the sliding shaft through the sliding groove , the other end of the connecting rod is rotatably connectable to the brewing seat or the brewing head of the first brewing assembly so as to drive the sliding shaft to move in the sliding cavity in a length direction of the sliding groove and drive the connecting rod assembly to move when the cover body assembly is closed and opened, so that the connecting rod assembly drives the brewing seat or the brewing head to move transversely to achieve combination or separation of the brewing seat and the brewing head .
A method, comprising: by a first wireless device : establishing a wireless link with a cellular base station ; determining to coordinate channel state information (CSI) reporting with a second wireless device; exchanging information with the second wireless device via a sidelink wireless link; and providing channel state information for the first wireless device to the cellular base station in a channel state information report, wherein the channel state information for the first wireless device includes a first part and a second part, wherein the first part is determined independently of the information exchanged with the second wireless device via the sidelink wireless link, and the second part is determined based at least in part on the information exchanged with the second wireless device via the sidelink wireless link. establishing a wireless link with a cellular base station ; determining to coordinate channel state information (CSI) reporting with a second wireless device; exchanging information with the second wireless device via a sidelink wireless link; and providing channel state information for the first wireless device to the cellular base station in a channel state information report, wherein the channel state information for the first wireless device includes a first part and a second part, wherein the first part is determined independently of the information exchanged with the second wireless device via the sidelink wireless link, and the second part is determined based at least in part on the information exchanged with the second wireless device via the sidelink wireless link.
An interface device configured to be provided to a blow molding device that blow molds a preform into a hollow body, the preform being obtained by injection molding, the interface device comprising: display means for displaying, on a setting screen, information for setting control conditions for a plurality of control targets; and display control means for controlling a display state of the setting screen, the display control means being configured to: cause a main display section to display the information for setting the control conditions as required; and cause a sub-display section to constantly display: status information for perceiving operational states of the control targets; and a display switching icon for causing the main display section to display operating icons of the control targets. display means for displaying, on a setting screen, information for setting control conditions for a plurality of control targets; and display control means for controlling a display state of the setting screen, the display control means being configured to: cause a main display section to display the information for setting the control conditions as required; and cause a sub-display section to constantly display: status information for perceiving operational states of the control targets; and a display switching icon for causing the main display section to display operating icons of the control targets. cause a main display section to display the information for setting the control conditions as required; and cause a sub-display section to constantly display: status information for perceiving operational states of the control targets; and a display switching icon for causing the main display section to display operating icons of the control targets.
Device for quick release comprising a tubular vessel containing a first fluid and at least one second fluid to be released and closed at the ends thereof by a first flange and a second flange provided with an outlet opening and with means for sealing said outlet opening conditioning the release of the first and second fluids , a first piston sliding tightly inside and along the longitudinal axis of said vessel , and propulsion means capable of moving said first piston so as to release the first and second fluids par said outlet opening , said device being characterised in that it comprises at least one second piston arranged downstream of said first piston , sliding tightly inside and along the longitudinal axis of said vessel and provided with a transfer opening and with means for sealing said transfer opening allowing the conditioned passage of the first fluid , the first and second pistons separating the vessel at least into an upstream chamber between the first flange and the first piston , a first storage chamber containing the first fluid and between the first piston and the second piston , and a second storage chamber containing the second fluid and between the second piston and the second flange .
A method for treating a waste stream from flushing systems, the method comprising the acts of: providing a composition wherein said composition comprises at least one suspended inorganic paint component and at least one dissolved organic paint component; floccing the inorganic paint component and precipitating the organic paint component to provide a composition comprising a liquid portion and paint solids; and separating the paint solids from the liquid portion of the composition wherein the organic paint component includes acrylics, acrylic enamels, and/or urethanes; and wherein the inorganic paint component includes metal compounds. providing a composition wherein said composition comprises at least one suspended inorganic paint component and at least one dissolved organic paint component; floccing the inorganic paint component and precipitating the organic paint component to provide a composition comprising a liquid portion and paint solids; and separating the paint solids from the liquid portion of the composition wherein the organic paint component includes acrylics, acrylic enamels, and/or urethanes; and wherein the inorganic paint component includes metal compounds.
Waveguide structure for label-free evanescent wave microscopy and/or spectroscopy over a wavelength spectrum spanning from an UV region to a near-IR region, comprising - an optically transparent core layer , - a first, lower, dielectric cladding layer and a second, upper, dielectric cladding layer arranged on opposite sides of the core layer , wherein the core layer has a refractive index higher than the refractive indices of the cladding layers , - wherein the second, upper, cladding layer is made of an organic material, - a sample well arranged on an upper surface of the core layer formed by a cavity in the second, upper, cladding layer , the sample well being adapted to contain the sample comprising the sample medium with one or more unlabelled sample objects , wherein the core layer is made of a first dielectric inorganic material, wherein the first, lower, cladding layer is made of an organic material, and wherein the first dielectric inorganic material of the core layer is silicate glass. - an optically transparent core layer , - a first, lower, dielectric cladding layer and a second, upper, dielectric cladding layer arranged on opposite sides of the core layer , wherein the core layer has a refractive index higher than the refractive indices of the cladding layers , - wherein the second, upper, cladding layer is made of an organic material, - a sample well arranged on an upper surface of the core layer formed by a cavity in the second, upper, cladding layer , the sample well being adapted to contain the sample comprising the sample medium with one or more unlabelled sample objects , wherein the core layer is made of a first dielectric inorganic material, wherein the first, lower, cladding layer is made of an organic material, and wherein the first dielectric inorganic material of the core layer is silicate glass. wherein the core layer is made of a first dielectric inorganic material, wherein the first, lower, cladding layer is made of an organic material, and wherein the first dielectric inorganic material of the core layer is silicate glass.