mhurhangee/ep-ind-claims huggingface dataset:
A method for determining transmission configuration information, characterized in that, comprising: determining, by a first communication node, transmission configuration information for configuring a control channel on a time unit t+k, the transmission configuration information being information for configuring beams, wherein the transmission configuration information comprises: quasi-co-location, QCL, information corresponding to a control channel transmission on the time unit t+k, and the transmission configuration information is an indication of a receive beam for reception by a second communication node of the control channel on the time unit t+k; and sending, by the first communication node, the transmission configuration information to the second communication node; wherein the sending, by the first communication node, the transmission configuration information, comprises: sending, by the first communication node, to the second communication node, via a control signaling carried in a control channel, on a time unit t, the transmission configuration information, wherein t is a non-negative integer, and k is indicated via the control signaling carried in the control channel on the time unit t and is a positive integer. determining, by a first communication node, transmission configuration information for configuring a control channel on a time unit t+k, the transmission configuration information being information for configuring beams, wherein the transmission configuration information comprises: quasi-co-location, QCL, information corresponding to a control channel transmission on the time unit t+k, and the transmission configuration information is an indication of a receive beam for reception by a second communication node of the control channel on the time unit t+k; and sending, by the first communication node, the transmission configuration information to the second communication node; wherein the sending, by the first communication node, the transmission configuration information, comprises: sending, by the first communication node, to the second communication node, via a control signaling carried in a control channel, on a time unit t, the transmission configuration information, wherein t is a non-negative integer, and k is indicated via the control signaling carried in the control channel on the time unit t and is a positive integer.
Process for producing sintered granules of cemented hard material, wherein hard materials and binder metal are mixed with or without additives and subsequently granulated and partially densified and subsequently - subjected to sintering of the cemented hard material granules and control of the cooling rate in the three-phase region WC, Co-liquid and C-solid, or - are subjected to coating of the hard materials with binder metal by means of physical vapour deposition/plasma-enhanced chemical vapour deposition or - are subjected to binder removal from the granules by setting of a carbon gradient with increased carbon in the interior of the granules and subsequent sintering, as a result of which the predominant number of granules has an inhomogeneous distribution of hard material and binder metal in the individual granule, with the concentration of the binder metal at the surface of the individual granule being in total at least 25% greater than in the interior of the granule. - subjected to sintering of the cemented hard material granules and control of the cooling rate in the three-phase region WC, Co-liquid and C-solid, or - are subjected to coating of the hard materials with binder metal by means of physical vapour deposition/plasma-enhanced chemical vapour deposition or - are subjected to binder removal from the granules by setting of a carbon gradient with increased carbon in the interior of the granules and subsequent sintering, as a result of which the predominant number of granules has an inhomogeneous distribution of hard material and binder metal in the individual granule, with the concentration of the binder metal at the surface of the individual granule being in total at least 25% greater than in the interior of the granule.
A handover method, comprising: receiving (S101, S203, S303), by a target mobility management network element, a forward relocation request message sent by a source mobility management network element, wherein the forward relocation request message comprises single radio voice call continuity, SRVCC, capability information, wherein the SRVCC capability information is used to indicate that a user is SRVCC capable, wherein that the user is SRVCC capable comprises: the user is allowed to use SRVCC, or the user is allowed to use SRVCC and a user equipment has SRVCC capability; and sending (S102, S206, S306), by the target mobility management network element to a target access network element, a first request message that carries information of SRVCC operation possible, wherein the information of SRVCC operation possible is used to indicate that the user is SRVCC capable and the target mobility management network element is SRVCC capable. receiving (S101, S203, S303), by a target mobility management network element, a forward relocation request message sent by a source mobility management network element, wherein the forward relocation request message comprises single radio voice call continuity, SRVCC, capability information, wherein the SRVCC capability information is used to indicate that a user is SRVCC capable, wherein that the user is SRVCC capable comprises: the user is allowed to use SRVCC, or the user is allowed to use SRVCC and a user equipment has SRVCC capability; and sending (S102, S206, S306), by the target mobility management network element to a target access network element, a first request message that carries information of SRVCC operation possible, wherein the information of SRVCC operation possible is used to indicate that the user is SRVCC capable and the target mobility management network element is SRVCC capable.
Process for producing silicon chunks, comprising the steps of a) providing a silicon rod, b) treating the surface of the silicon rod with a hammer and/or needle hammer for at least partial removal of a surface layer, c) comminuting the silicon rod into chunks via a thermal crushing process or via high-voltage impulse crushing or via an apparatus selected from the group comprising jaw crusher, roller crusher, chisel and sledgehammer, wherein the surface layer is removed to a depth of 1 to 10 mm by an impact energy applied with the hammer and/or needle hammer of 1 to 15 J. a) providing a silicon rod, b) treating the surface of the silicon rod with a hammer and/or needle hammer for at least partial removal of a surface layer, c) comminuting the silicon rod into chunks via a thermal crushing process or via high-voltage impulse crushing or via an apparatus selected from the group comprising jaw crusher, roller crusher, chisel and sledgehammer,
Ventilating firestop, comprising a self-supporting mesh fitted with an intumescent, whereby the mesh is malleable and is formed into a tubular shape forming an inner volume, wherein said mesh is designed as a flame-stopping mesh with a mesh size that provides quenching gap, characterized in that the mesh comprises first and second intumescent applied to the mesh forming a stripe pattern of intumescent with spacing and ventilating openings between the stripes, whereby said first intumescent is on a fire load facing plane of the mesh and has a fine meshed and a rapidly expandable pattern of stripes which, during a fire attack phase, expands towards each other to close said ventilating openings and form a fire-insulating shield, and said second intumescent is located on the mesh separate from the first intumescent, and has a coarse meshed pattern of stripes expandable slower than those of the first intumescent which, after formation of the fire-insulating shield, are expandable to subsequent fill up a remaining volume of the firestop. a self-supporting mesh fitted with an intumescent, whereby the mesh is malleable and is formed into a tubular shape forming an inner volume, wherein said mesh is designed as a flame-stopping mesh with a mesh size that provides quenching gap, characterized in that the mesh comprises first and second intumescent applied to the mesh forming a stripe pattern of intumescent with spacing and ventilating openings between the stripes, whereby said first intumescent is on a fire load facing plane of the mesh and has a fine meshed and a rapidly expandable pattern of stripes which, during a fire attack phase, expands towards each other to close said ventilating openings and form a fire-insulating shield, and said second intumescent is located on the mesh separate from the first intumescent, and has a coarse meshed pattern of stripes expandable slower than those of the first intumescent which, after formation of the fire-insulating shield, are expandable to subsequent fill up a remaining volume of the firestop.
A solid reagent containment unit comprising: a support (351; 366; 48); a frame body fixed to the support, the frame body delimiting inside, together with the support, an analysis volume; a reagent-adhesion structure (356; 375) within the analysis volume; and at least one reagent cavity, which extends within the reagent adhesion structure, wherein the reagent adhesion structure (356; 375) is formed by an inert adhesion material embossable at lower temperatures than an own melting point and comprises a retention wall that laterally surrounds the reagent cavity and has a blocking structure (365; 370) protruding into the reagent cavity, and the reagent cavity is hourglass-shaped and houses solid reagents, the blocking structure (365; 370) being formed by a detent or a neck formed at an intermediate height of the retention wall and extending peripherally towards the inside of the reagent cavity so that the solid reagents have an intermediate portion with reduced dimensions accommodating the detent or neck. a support (351; 366; 48); a frame body fixed to the support, the frame body delimiting inside, together with the support, an analysis volume; a reagent-adhesion structure (356; 375) within the analysis volume; and at least one reagent cavity, which extends within the reagent adhesion structure, wherein the reagent adhesion structure (356; 375) is formed by an inert adhesion material embossable at lower temperatures than an own melting point and comprises a retention wall that laterally surrounds the reagent cavity and has a blocking structure (365; 370) protruding into the reagent cavity, and the reagent cavity is hourglass-shaped and houses solid reagents, the blocking structure (365; 370) being formed by a detent or a neck formed at an intermediate height of the retention wall and extending peripherally towards the inside of the reagent cavity so that the solid reagents have an intermediate portion with reduced dimensions accommodating the detent or neck.
A method of forming fiber-bound engineered components that can be incorporated into an article, the method comprising: placing each of a plurality of discrete fiber layers, each fiber layer comprising a first plurality of fibers, adjacent a first carrier screen having a mesh-like construction which includes a plurality of apertures through which fluid can pass and functioning as a conveyor belt for the plurality of discrete fiber layers; for each discrete fiber layer, placing a respective element for fiber-binding with the fiber layer to form an assembly, the element comprising a second plurality of fibers, wherein the element includes a first surface and an opposite second surface, and wherein the element first surface is adjacent and overlapping the first fiber layer in a Z-directional placement; and for each assembly, entangling at least a portion of the first plurality of fibers with at least a portion of the second plurality of fibers by passing a fluid stream through the apertures of the carrier screen to form a fiber-bound engineered component. placing each of a plurality of discrete fiber layers, each fiber layer comprising a first plurality of fibers, adjacent a first carrier screen having a mesh-like construction which includes a plurality of apertures through which fluid can pass and functioning as a conveyor belt for the plurality of discrete fiber layers; for each discrete fiber layer, placing a respective element for fiber-binding with the fiber layer to form an assembly, the element comprising a second plurality of fibers, wherein the element includes a first surface and an opposite second surface, and wherein the element first surface is adjacent and overlapping the first fiber layer in a Z-directional placement; and for each assembly, entangling at least a portion of the first plurality of fibers with at least a portion of the second plurality of fibers by passing a fluid stream through the apertures of the carrier screen to form a fiber-bound engineered component.
A mandrel assembly comprising: a housing comprising: a housing wire tubular channel extending along (a) the length of the housing, and (b) the longitudinal centerline axis of the housing; a fluid annular channel encircling the wire tubular channel; a fluid ring in fluid communication with the fluid annular channel, the fluid ring positioned at one end of the housing; and a cone-shaped tip having a wide end and a narrow end, the wide end of the tip attached to the end of the housing at which the fluid ring is positioned, the tip comprising: a tip wire tubular channel extending along (a) the length of the tip, and (b) the longitudinal centerline axis of the tip; a tip fluid channel (30a, 30b) in fluid communication with the fluid ring; and one or more nozzles (29a, 29b) in fluid communication with the tip fluid channel (30a, 30b), the nozzles (29a, 29b) located at the end and extending beyond the narrow end of the tip; the housing wire tubular channel and the tip wire tubular channel in open communication with one another such that a wire, hybrid cable or optical fiber is passable from one to the other in a straight line and without interruption. a housing comprising: a housing wire tubular channel extending along (a) the length of the housing, and (b) the longitudinal centerline axis of the housing; a fluid annular channel encircling the wire tubular channel; a fluid ring in fluid communication with the fluid annular channel, the fluid ring positioned at one end of the housing; and a housing wire tubular channel extending along (a) the length of the housing, and (b) the longitudinal centerline axis of the housing; a fluid annular channel encircling the wire tubular channel; a fluid ring in fluid communication with the fluid annular channel, the fluid ring positioned at one end of the housing; and a cone-shaped tip having a wide end and a narrow end, the wide end of the tip attached to the end of the housing at which the fluid ring is positioned, the tip comprising: a tip wire tubular channel extending along (a) the length of the tip, and (b) the longitudinal centerline axis of the tip; a tip fluid channel (30a, 30b) in fluid communication with the fluid ring; and one or more nozzles (29a, 29b) in fluid communication with the tip fluid channel (30a, 30b), the nozzles (29a, 29b) located at the end and extending beyond the narrow end of the tip; a tip wire tubular channel extending along (a) the length of the tip, and (b) the longitudinal centerline axis of the tip; a tip fluid channel (30a, 30b) in fluid communication with the fluid ring; and one or more nozzles (29a, 29b) in fluid communication with the tip fluid channel (30a, 30b), the nozzles (29a, 29b) located at the end and extending beyond the narrow end of the tip;
An oil diffusion pump, wherein an oil vapor generator is arranged in a jet provided in a casing, the oil vapor generator is operated to vaporize an operating oil to produce oil vapor, and the oil vapor is sprayed from the jet to exhaust intake air: wherein the oil vapor generator comprises a container for storing oil therein, provided to be along the upright direction, which is a tubular member formed by a material to be heated with a lower end thereof being closed; characterized in that the oil vapor generator further comprises an induction coil wound around the tubular member via an insulating material provided therebetween; and a power supply means for applying a low frequency alternating current of several tens of Hz to several hundreds of Hz to the induction coil; and wherein the power supply means are configured to be operated to heat the tubular member so as to vaporize the oil inside the container. wherein the oil vapor generator comprises a container for storing oil therein, provided to be along the upright direction, which is a tubular member formed by a material to be heated with a lower end thereof being closed; characterized in that the oil vapor generator further comprises an induction coil wound around the tubular member via an insulating material provided therebetween; and a power supply means for applying a low frequency alternating current of several tens of Hz to several hundreds of Hz to the induction coil; and an induction coil wound around the tubular member via an insulating material provided therebetween; and a power supply means for applying a low frequency alternating current of several tens of Hz to several hundreds of Hz to the induction coil; and wherein the power supply means are configured to be operated to heat the tubular member so as to vaporize the oil inside the container.
A method for simultaneous uplink transmissions performed by a wireless terminal operating with dual connectivity with a first node and a second node, characterized in that said method comprises: - receiving information, from at least one of said nodes (4,6), via a communications interface of the wireless terminal, wherein the information is a Downlink Control Information, DCI, message, which contains identification of each node (4, 6) - associating uplink transmissions to each node (4, 6) according to the received information, and - applying a set of node specific parameters to the uplink transmissions associated with each node (4, 6); wherein the set of node specific parameters comprises one or more of the following parameters: - Channel State Information, CSI, configuration parameters, - timing advance parameters, - power control configuration parameters, and - Sounding Reference Signal, SRS, configuration parameters. - receiving information, from at least one of said nodes (4,6), via a communications interface of the wireless terminal, wherein the information is a Downlink Control Information, DCI, message, which contains identification of each node (4, 6) - associating uplink transmissions to each node (4, 6) according to the received information, and - applying a set of node specific parameters to the uplink transmissions associated with each node (4, 6); wherein the set of node specific parameters comprises one or more of the following parameters: - Channel State Information, CSI, configuration parameters, - timing advance parameters, - power control configuration parameters, and - Sounding Reference Signal, SRS, configuration parameters.
Method of manufacturing an output shaft for a transmission, the output shaft having a plurality of axially continuous splines (201a to 201d) with different outer diameters formed on a periphery thereof, wherein the method includes the following steps: a step of manufacturing an output shaft rough material having a shape obtained by axially continuously connecting cylindrical spline rough materials (601a to 601d) having a plurality of diameters corresponding to a final shape formed after the splines are provided; and characterized by a rolling step of sequentially rolling splines on a periphery of each of the spline rough materials by two or more dies (71, 72; 73, 74) while rotatably holding the output shaft rough material with a center of axle thereof being as an axis of rotation, wherein a difference in the number of teeth among the splines having different diameters is a multiple of the number of the dies, positions and phases of the dies are disposed to be rotationally symmetrical with respect to the center of axle of the output shaft rough material, and in the rolling step, the dies can perform rolling after distances from the center of axle of the output shaft rough material are similarly changed without changing a relative relationship between the phases to adjust the dies depending on the diameters of the spline rough materials. a step of manufacturing an output shaft rough material having a shape obtained by axially continuously connecting cylindrical spline rough materials (601a to 601d) having a plurality of diameters corresponding to a final shape formed after the splines are provided; and characterized by a rolling step of sequentially rolling splines on a periphery of each of the spline rough materials by two or more dies (71, 72; 73, 74) while rotatably holding the output shaft rough material with a center of axle thereof being as an axis of rotation, wherein a difference in the number of teeth among the splines having different diameters is a multiple of the number of the dies, positions and phases of the dies are disposed to be rotationally symmetrical with respect to the center of axle of the output shaft rough material, and in the rolling step, the dies can perform rolling after distances from the center of axle of the output shaft rough material are similarly changed without changing a relative relationship between the phases to adjust the dies depending on the diameters of the spline rough materials.
Device for the acceptance of a camera, which particularly serves as a parking assistance, with a slide, at which the camera is exchangeably assembled, a housing, in which the slide is moveably accepted in a first guidance (11a, 11b, 15a, 15b, 17) between a rest position, in which the camera is inactive, and an operating position, in which images are actively recordable by the camera, a lid element, which closes an opening in the housing, through which the camera is directed towards the outside, characterized in that wherein the lid element is on the one hand pivotably mounted at the slide, and on the other hand movably accepted in a second guidance (12a, 12b) in the housing between a closing position, in which the lid element covers the opening and an opening position, in which the lid element releases the opening, and a gear, which drives a slide by an external drive in a way between the rest position and the operating position, that the lid element performs at least a first displacement phase and a second displacement phase between the closing position and the opening position, wherein the seating element is substantially pivotably moveable in the second displacement phase and substantially linearly moveable in the first displacement phase.
An exhaust manifold to be connected to an internal combustion engine with a plurality of exhaust ports (P1-P4), the exhaust manifold comprising: a first upper shell member; a second upper shell member; and a lower shell member, each of the first upper shell member, the second upper shell member, and the lower shell member being formed by press molding a plate material, wherein the first upper shell member and the lower shell member are superposed on each other, to thereby form a first flow passage to be connected to at least one exhaust port (P2; P3) out of the plurality of exhaust ports (P1-P4), characterized in that the second upper shell member is superposed on the lower shell member with the first upper shell member sandwiched therebetween such that at least a part of the first upper shell member is exposed, to thereby form a second flow passage to be connected to another at least one exhaust port (P1; P4) out of the plurality of exhaust ports (P1-P4). a first upper shell member; a second upper shell member; and a lower shell member, each of the first upper shell member, the second upper shell member, and the lower shell member being formed by press molding a plate material,