mhurhangee/ep-ind-claims huggingface dataset:
Anti-skid device (E1, E3, E4, E5) for being mounted to an undercarriage component of a drive means, in particular a continuous track of a tracked vehicle, comprising a base body (G1, G3, G4, G5), the base body (G1, G3, G4, G5) having several successive sections along a first direction, which corresponds to the rolling direction of the undercarriage component when the anti-skid device is mounted to an undercarriage component, namely at least two bottom sections (B1, B2; B51, B52, B61, B62) and at least one rib section (R12, R5, R6) that is arranged between and fixedly connected to two respective bottom sections, wherein at least one fastening point is provided in the anti-skid device for anchoring on a continuous track, characterized in that the at least one rib section (R12, R5, R6) has a shape elevated above the bottom sections and being supported on them, wherein the rib section or at least one of the rib sections is divided transversely to the first direction by at least one window into two or more rib parts (R1, R2; R5, R6), each having an outer surface (F1, F2; F5, F6) facing away from the bottom sections. the base body (G1, G3, G4, G5) having several successive sections along a first direction, which corresponds to the rolling direction of the undercarriage component when the anti-skid device is mounted to an undercarriage component, namely at least two bottom sections (B1, B2; B51, B52, B61, B62) and at least one rib section (R12, R5, R6) that is arranged between and fixedly connected to two respective bottom sections, wherein at least one fastening point is provided in the anti-skid device for anchoring on a continuous track, characterized in that the at least one rib section (R12, R5, R6) has a shape elevated above the bottom sections and being supported on them, wherein the rib section or at least one of the rib sections is divided transversely to the first direction by at least one window into two or more rib parts (R1, R2; R5, R6), each having an outer surface (F1, F2; F5, F6) facing away from the bottom sections.
A method for manufacturing a bonded wafer, comprising: ion-implanting at least one gas ion selected from a hydrogen ion and a rare gas ion from a surface of a bond wafer, thereby forming an ion-implanted layer into the inside of the wafer; bonding the ion-implanted surface of the bond wafer and a surface of a base wafer directly or through an insulating film; followed by producing a bonded wafer having a thin-film on the base wafer by delaminating the bond wafer along the ion-implanted layer; and flattening the surface of the thin-film by performing an RTA treatment on the bonded wafer in a hydrogen gas-containing atmosphere; wherein a protective film is formed onto the surface of the thin-film in a heat treatment furnace in the course of temperature-falling from the maximum temperature of the RTA treatment before the bonded wafer is taken out from the heat treatment furnace; and then the bonded wafer with the protective film being formed thereon is taken out from the heat treatment furnace, and is then cleaned with a cleaning liquid which can etch the protective film and the thin-film, wherein the protective film is formed by changing the hydrogen gas-containing atmosphere in the heat treatment furnace to any of an oxidizing atmosphere, a nitriding atmosphere, and an oxynitriding atmosphere in the course of temperature-falling from the maximum temperature of the RTA treatment; thereby exposing the bonded wafer to any of the oxidizing atmosphere, the nitriding atmosphere, and the oxynitriding atmosphere to form any of an oxide film, a nitride film, and an oxynitride film onto the surface of the thin-film.
Modular satellite structure, flat or three-dimensional, comprising a structured set to make the modular satellite structure, wherein the structured set comprises a plurality of structural elements, wherein the structural elements are bars and joints, respectively, in which each structural element comprises a containing body made of plastic material provided with at least one cavity defined between at least two apertures of said containing body, and connection means to connect with respect to each other two or more of said structural elements to form at least a base body with a flat or three-dimensional polygonal structure, so that, in an assembled and connected state, one aperture of one structural element fits with one aperture of another structural element and the respective cavities are in communication with each other and together form one or more connection cavities in said base body, wherein each joint connects two or more bars, characterised in that at least one conductor element able to conduct electric current when powered is disposed in said cavities.
A method comprising: forming a preform from a powder mixture comprising superalloy material particles and boron and silicon free braze material particles having a composition of Cr 15-25%, Ti 15-25%, balance Ni, or Cr 12-16%, Ti 13-16%, Al 0-2.5%, Co 2-4%, W 3-5%, Mo 0-2%, Ta 0-2%; balance Ni, or Cr 15-18%, Ti 10-15%, Al 0-2.5%, Co 2-4%, W 3-5%, Mo 0-2%,Ta 0-2%, balance Ni, or Cr 15-19%, Ti 8-10%, Al 0-2.5%, Co 14-18%, Mo 12-16%, balance Ni; wherein the powder mixture comprises from 5% to 50% by weight braze material particles; wherein a size range of the superalloy material particles comprises particles larger than 104 microns or as large as 2,000 microns; and sintering the preform at a temperature below solidus temperatures of the superalloy and braze material particles under a pressure of a minimum of 1,0325 MPa and an inert atmosphere until the porosity is less than 5% by volume. forming a preform from a powder mixture comprising superalloy material particles and boron and silicon free braze material particles having a composition of Cr 15-25%, Ti 15-25%, balance Ni, or Cr 12-16%, Ti 13-16%, Al 0-2.5%, Co 2-4%, W 3-5%, Mo 0-2%, Ta 0-2%; balance Ni, or Cr 15-18%, Ti 10-15%, Al 0-2.5%, Co 2-4%, W 3-5%, Mo 0-2%,Ta 0-2%, balance Ni, or Cr 15-19%, Ti 8-10%, Al 0-2.5%, Co 14-18%, Mo 12-16%, balance Ni; wherein the powder mixture comprises from 5% to 50% by weight braze material particles; wherein a size range of the superalloy material particles comprises particles larger than 104 microns or as large as 2,000 microns; and sintering the preform at a temperature below solidus temperatures of the superalloy and braze material particles under a pressure of a minimum of 1,0325 MPa and an inert atmosphere until the porosity is less than 5% by volume.
An inkjet recording method comprising: a feeding step of feeding a recording medium; a jetting step of jetting aqueous ultraviolet-curable ink onto the recording medium; a humidity controlling step of controlling an amount of moisture on a surface on a recording side of the recording medium after the jetting step in such a way that a difference between the amounts of moisture on the surface on the recording side of the recording medium after the jetting step and during the feeding step is in a range from 2 g/m 2 to 5 g/m 2; and a fixing step of curing and fixing, with a dose of ultraviolet light equal to or greater than 800 mJ/cm 2, the aqueous ultraviolet-curable ink on the recording medium after the amount of moisture thereof has been controlled to be within the range. a feeding step of feeding a recording medium; a jetting step of jetting aqueous ultraviolet-curable ink onto the recording medium; a humidity controlling step of controlling an amount of moisture on a surface on a recording side of the recording medium after the jetting step in such a way that a difference between the amounts of moisture on the surface on the recording side of the recording medium after the jetting step and during the feeding step is in a range from 2 g/m 2 to 5 g/m 2; and a fixing step of curing and fixing, with a dose of ultraviolet light equal to or greater than 800 mJ/cm 2, the aqueous ultraviolet-curable ink on the recording medium after the amount of moisture thereof has been controlled to be within the range.
A stereoscopic display device comprising: - a flat display panel for displaying an image, the flat display panel generating a porch signal at a starting point of each frame of the image being displayed and having a predetermined period of blank time after generation of the porch signal; - a stereo controller connected to the flat display panel to generate a wireless goggle control signal by sensing the porch signal; and - a goggle for receiving the goggle control signal according to wireless protocol at the time of watching the flat display panel, to perceive a stereo 3D image by opening/closing a left eye lens and a right eye lens, selectively, wherein scanning is processed after the blank time and wherein the left eye lens and the right eye lens are closed during scanning and opening the left eye lens and the right eye lens is processed during the blank time. - a flat display panel for displaying an image, the flat display panel generating a porch signal at a starting point of each frame of the image being displayed and having a predetermined period of blank time after generation of the porch signal; - a stereo controller connected to the flat display panel to generate a wireless goggle control signal by sensing the porch signal; and - a goggle for receiving the goggle control signal according to wireless protocol at the time of watching the flat display panel, to perceive a stereo 3D image by opening/closing a left eye lens and a right eye lens, selectively,
A method for allocating uplink resources in a Frequency Division Multiple Access communication system comprising: determining, by each radio access network of a plurality of radio access networks (RANs) (512, 514), a channel condition in association with each user equipment serviced by the RAN; ranking, by each RAN of the plurality of RANs, the user equipment (UEs) serviced by the RAN based on the determined channel conditions; and assigning, by each RAN of the plurality of RANs, a block of uplink resources to each UE serviced by the RAN based on the rankings of the UEs, wherein a UE serviced by a first RAN of the plurality of RANs is assigned a same block of uplink resources as a UE serviced by a second RAN of the plurality of RANs when both UEs are associated with similar channel conditions. determining, by each radio access network of a plurality of radio access networks (RANs) (512, 514), a channel condition in association with each user equipment serviced by the RAN; ranking, by each RAN of the plurality of RANs, the user equipment (UEs) serviced by the RAN based on the determined channel conditions; and assigning, by each RAN of the plurality of RANs, a block of uplink resources to each UE serviced by the RAN based on the rankings of the UEs, wherein a UE serviced by a first RAN of the plurality of RANs is assigned a same block of uplink resources as a UE serviced by a second RAN of the plurality of RANs when both UEs are associated with similar channel conditions.
A turbine disc assembly comprising a turbine disc mounted coaxially on a shaft and, in use, arranged in the path of a hot work fluid flow, a cover plate (26, 27) axially displaced from the turbine disc in a direction upstream with respect to the work fluid flow and an annular seal plate arranged adjacent an outer rim of the turbine disc to prevent the hot work fluid flow from penetrating a space axially adjacent the turbine disc, the cover plate comprising a radially inner annular disc component and a radially outer annular disc component, the annular disc components (26, 27) arranged coaxially with each other and so as to permit relative axial and/or radial movement of the inner and outer annular disc components with respect to one another.
A combined heat and power generation system comprising: an engine using gas as fuel; a generator driven by the engine for producing electric power; an ignition plug provided in a cylinder of the engine for performing ignition according to a cycle of a piston; and a controller for controlling the engine and the ignition plug, wherein when an emergency occurs and an urgent engine stop signal is input to the controller, the controller is configured to change an ignition angle of the ignition plug to reduce an output of the engine, thereby urgently stopping the engine, characterized in that the controller is configured to close the fuel valve before the ignition angle is changed when the engine is urgently stopped, and wherein the emergency is determined when a suction pressure of air/fuel mixture is decreased by 50 hPa or more per second and a rate of revolution of the engine is increased by 20 RPM or more per second. an engine using gas as fuel; a generator driven by the engine for producing electric power; an ignition plug provided in a cylinder of the engine for performing ignition according to a cycle of a piston; and a controller for controlling the engine and the ignition plug, wherein when an emergency occurs and an urgent engine stop signal is input to the controller, the controller is configured to change an ignition angle of the ignition plug to reduce an output of the engine, thereby urgently stopping the engine, characterized in that the controller is configured to close the fuel valve before the ignition angle is changed when the engine is urgently stopped, and wherein the emergency is determined when a suction pressure of air/fuel mixture is decreased by 50 hPa or more per second and a rate of revolution of the engine is increased by 20 RPM or more per second.
A structural panel (10, 410) for a satellite comprising an elongate heat pipe (14, 314, 414, 514) mounted thereto, wherein the heat pipe is bonded to the panel intermediate its remote ends (14a, 314a, 414a, 514a) with a thermally conductive adhesive, and characterised in that the adhesive is omitted proximate at least one distal end of the heat pipe, the at least one distal end of the heat pipe without adhesive being mechanically secured to the panel by at least one bolt received in a cooperating threaded receiving element (21, 621).
A system comprising: at least a first tensioning set and a second tensioning set, each of said tensioning sets comprising: an output member, a magnetorheological fluid clutch apparatus configured to receive a degree of actuation and connected to the output member, the magnetorheological fluid clutch apparatus being actuatable to selectively transmit the received DOA through the output member by controlled slippage, and a tensioning member being connected to the output member so as to be pulled by the output member upon actuation of the magnetorheological fluid clutch apparatus, a free end of the tensioning member adapted to exert a pulling action transmitted to an output when being pulled by the output member; and wherein the free end of the tensioning member of the first tensioning set and the free end of the tensioning member of the second tensioning set are antagonistically connected to the output to provide antagonistic pulling actions on the output; and a controller for maintaining a tension on any one of the tensioning member during an antagonistic pulling action of the other of the tensioning member. an output member, a magnetorheological fluid clutch apparatus configured to receive a degree of actuation and connected to the output member, the magnetorheological fluid clutch apparatus being actuatable to selectively transmit the received DOA through the output member by controlled slippage, and a tensioning member being connected to the output member so as to be pulled by the output member upon actuation of the magnetorheological fluid clutch apparatus, a free end of the tensioning member adapted to exert a pulling action transmitted to an output when being pulled by the output member; and wherein the free end of the tensioning member of the first tensioning set and the free end of the tensioning member of the second tensioning set are antagonistically connected to the output to provide antagonistic pulling actions on the output; and a controller for maintaining a tension on any one of the tensioning member during an antagonistic pulling action of the other of the tensioning member.
A fibronectin-based protein dimer comprising a first fibronectin type III tenth ( 10 Fn3) domain and a second 10 Fn3 domain, wherein each of the first 10 Fn3 domain and the second 10 Fn3 domain: (i) comprises an AB loop, a BC loop, a CD loop, a DE loop, an EF loop, and a FG loop, wherein at least one loop selected from loop BC, DE and FG has an altered amino acid sequence relative to the sequence of the corresponding loop of the human 10 Fn3 domain having the amino acid sequence of SEQ ID NO: 1; (ii) comprises an amino acid sequence having at least 60% identity to SEQ ID NO: 1 and binds to a target molecule with a KD of less than 100 nM; and (iii) comprises a C-terminal tail which comprises the amino acid sequence of SEQ ID NO:4 and does not contain a DK sequence. (i) comprises an AB loop, a BC loop, a CD loop, a DE loop, an EF loop, and a FG loop, wherein at least one loop selected from loop BC, DE and FG has an altered amino acid sequence relative to the sequence of the corresponding loop of the human 10 Fn3 domain having the amino acid sequence of SEQ ID NO: 1; (ii) comprises an amino acid sequence having at least 60% identity to SEQ ID NO: 1 and binds to a target molecule with a KD of less than 100 nM; and (iii) comprises a C-terminal tail which comprises the amino acid sequence of SEQ ID NO:4 and does not contain a DK sequence.
A method for treating used lithium batteries, comprising the steps: (a) comminuting the lithium batteries, thereby obtaining comminuted material, (b) deactivating the comminuted material, thereby obtaining deactivated comminuted material, and (c) filling a transport container with the deactivated comminuted material, (d) wherein deactivation is achieved by drying the comminuted material, and (e) wherein a vacuum is created by means of a jet pump, characterised in that (f) the working medium is circulated and contains a fluorine precipitating substance. (a) comminuting the lithium batteries, thereby obtaining comminuted material, (b) deactivating the comminuted material, thereby obtaining deactivated comminuted material, and (c) filling a transport container with the deactivated comminuted material, (d) wherein deactivation is achieved by drying the comminuted material, and (e) wherein a vacuum is created by means of a jet pump, characterised in that (f) the working medium is circulated and contains a fluorine precipitating substance.
Connection unit including a first and a second connector (2, 3) configured to be connected to respective circuit branches of a fluidic line and a coupling element for coupling said connectors (2, 3) together and establish a fluidic connection between said circuit branches, said connectors (2, 3) being provided with first, normally closed sealing elements to define a sealing termination of said circuit branches when the connectors (2, 3) are disconnected from each other, characterized in that both said connectors are female connectors (2, 3); and in that the coupling element includes a double-male connector separable from the female connectors (2, 3) and provided with a pair of shanks that can be coupled to the respective female connectors (2, 3) and a control element movable between a first position where the coupling element can be coupled to the connectors (2, 3) in a mechanical pre-coupling condition without fluidic connection between the female connectors (2, 3) and a second position where the shanks of the double-male connector engage the respective female connectors (2, 3) and establish a fluidic connection therebetween. characterized in that both said connectors are female connectors (2, 3); and in that the coupling element includes a double-male connector separable from the female connectors (2, 3) and provided with a pair of shanks that can be coupled to the respective female connectors (2, 3) and a control element movable between a first position where the coupling element can be coupled to the connectors (2, 3) in a mechanical pre-coupling condition without fluidic connection between the female connectors (2, 3) and a second position where the shanks of the double-male connector engage the respective female connectors (2, 3) and establish a fluidic connection therebetween.
A packaging structure for packing a container, wherein the container comprises a lip covered by a lid, a tag being adhered across the container with the lid, and a film wrapping the tag, wherein in the packaging structure the tag has a first portion and a second portion, the first portion having a first surface, the second portion having a second surface, the first surface and the second surface orientating in opposite directions, a first adhesive layer being provided on the first surface of the first portion the packaging structure being characterized by: a second adhesive layer being provided on the second surface of the second portion, the first portion being adhered to the container with the first adhesive layer sticking with the container, and the second portion wrapping the container together with the lid; and the film wrapping the second portion of the tag with the second adhesive layer provided between the film and the second surface of the second portion to allow the film be adhered to the tag with the second adhesive layer; wherein when the second surface of the second portion is damaged due to damage of the film, the first surface of the first portion remains on the container and the lid is able to leave the container. a second adhesive layer being provided on the second surface of the second portion, the first portion being adhered to the container with the first adhesive layer sticking with the container, and the second portion wrapping the container together with the lid; and the film wrapping the second portion of the tag with the second adhesive layer provided between the film and the second surface of the second portion to allow the film be adhered to the tag with the second adhesive layer; wherein when the second surface of the second portion is damaged due to damage of the film, the first surface of the first portion remains on the container and the lid is able to leave the container.
Bearing for a rope roll which is arranged rotatably in a housing on an axis, wherein the rope roll has a protrusion pointing in the direction of the axis, said protrusion engaging with a circumferential gap in order to guide the rope roll axially on the axis, characterised in that the gap is formed by axial spacing between a recess of the axis and a housing part.
A ranging camera apparatus comprising: an imaging device comprising a first imaging unit (21a, 210a) and a second imaging unit (21b, 210b) spaced apart from the first imaging unit (21a, 210a) by a predetermined distance, each of the imaging units being configured to produce a polarization image by imaging a subject, characterized in that each of the polarization images contains polarization information that indicates differences between two polarization states of light received from the subject; and in that it further comprises: a processing unit configured to perform parallax calculation using the polarization information in the polarization images. an imaging device comprising a first imaging unit (21a, 210a) and a second imaging unit (21b, 210b) spaced apart from the first imaging unit (21a, 210a) by a predetermined distance, each of the imaging units being configured to produce a polarization image by imaging a subject, characterized in that each of the polarization images contains polarization information that indicates differences between two polarization states of light received from the subject; and in that it further comprises: a processing unit configured to perform parallax calculation using the polarization information in the polarization images. a processing unit configured to perform parallax calculation using the polarization information in the polarization images.