mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a spoke for a non-pneumatic tire, comprising: providing a first form; placing a first component of the spoke and a second component of the spoke on the first form, the method being characterized by the steps of: providing a second form; placing a third component of the spoke on the second form; transferring the first component and the second component to the second form; transferring the first component, the second component, and the third component from the second form to a mold; and applying heat and pressure to cure the first component, the second component, and the third component. providing a first form; placing a first component of the spoke and a second component of the spoke on the first form, the method being characterized by the steps of: providing a second form; placing a third component of the spoke on the second form; transferring the first component and the second component to the second form; transferring the first component, the second component, and the third component from the second form to a mold; and applying heat and pressure to cure the first component, the second component, and the third component. providing a second form; placing a third component of the spoke on the second form; transferring the first component and the second component to the second form; transferring the first component, the second component, and the third component from the second form to a mold; and applying heat and pressure to cure the first component, the second component, and the third component.
A system for controlling a filling level of a reservoir filled with a liquid, said system comprising the reservoir configured to be filled with liquid at least up to a maximum filling level (X max), a probe including a thermally conductive probe body, at least a section of said probe body extending, in a height dimension of the reservoir, from a first position to a second position, the first position being lower than the second position, and the second position being above the maximum filling level (X max), and further including a temperature sensor configured to generate a sensor signal based on a temperature at the second position, and a controller for controlling the filling level of the reservoir depending on the sensor signal such that the filling level is kept constant. the reservoir configured to be filled with liquid at least up to a maximum filling level (X max), a probe including a thermally conductive probe body, at least a section of said probe body extending, in a height dimension of the reservoir, from a first position to a second position, the first position being lower than the second position, and the second position being above the maximum filling level (X max), and further including a temperature sensor configured to generate a sensor signal based on a temperature at the second position, and a controller for controlling the filling level of the reservoir depending on the sensor signal such that the filling level is kept constant.
A surgical instrument handle comprising: a handle body; a rotating member pivotally engaged to the handle body for rotation in first or second rotational directions, wherein the rotating member defines a cam-actuating surface; a locking member configured to engage the cam-actuating surface of the rotating member; and a reciprocating member engaged to the locking member, wherein a rotational action of the rotating member in a first rotational direction causes lateral movement of the reciprocating member in a first longitudinal direction as the locking member travels along the cam-actuating surface of the rotating member and a rotational action of the rotating member in a second rotational direction causes lateral movement of the reciprocating member in a second longitudinal direction as the locking member travels along the cam-actuating surface of the rotating member; wherein the cam-actuating surface is defined along an interior surface of the rotating member, wherein the interior surface defines a slot having a first end and a second end, wherein the cam-actuating surface is configured to produce a cam action by the locking member as the locking member moves between the first end and the second end of the cam-actuating surface that translates rotational movement of the rotating member to longitudinal movement of the reciprocating member. a handle body; a rotating member pivotally engaged to the handle body for rotation in first or second rotational directions, wherein the rotating member defines a cam-actuating surface; a locking member configured to engage the cam-actuating surface of the rotating member; and a reciprocating member engaged to the locking member, wherein a rotational action of the rotating member in a first rotational direction causes lateral movement of the reciprocating member in a first longitudinal direction as the locking member travels along the cam-actuating surface of the rotating member and a rotational action of the rotating member in a second rotational direction causes lateral movement of the reciprocating member in a second longitudinal direction as the locking member travels along the cam-actuating surface of the rotating member; wherein the cam-actuating surface is defined along an interior surface of the rotating member, wherein the interior surface defines a slot having a first end and a second end, wherein the cam-actuating surface is configured to produce a cam action by the locking member as the locking member moves between the first end and the second end of the cam-actuating surface that translates rotational movement of the rotating member to longitudinal movement of the reciprocating member.
Container for a urea solution, comprising an upper shell, a lower shell and a heater designed for controlling the temperature of the urea solution, characterized in that the upper shell has at least one upper pillar-type structure, and wherein the lower shell has at least one lower pillar-type structure, wherein the upper pillar-type structure and the lower pillar-type structure are arranged opposite one another, with the result that the mutually opposite upper pillar-type structure and lower pillar-type structure are permanently connected to one another by joining the upper shell and the lower shell in order to increase the stiffness of the container, wherein the at least one lower pillar-type structure is arranged in the region of the heater.
Method for energy recovery in continuous casting plants, plants for producing billets, blooms, girders or rod stock, non-ferrous production plants and in hot-strip rolling trains, particularly for the production and processing of slabs to form strips or coils, wherein the thermal energy liberated at the time of cooling the cast strip as well as the slabs and/or coils is collected and used, wherein the strip or the slab is transported in the direction of the rolling train or into the slab store (11, 12, 18) and thereafter into the coil store (21, 22); wherein heat is extracted from the strip or slab in heat exchangers (57, 31, 31', 116) during the casting and/or in heat exchangers (31, 44, 69) during the transport; and/or wherein the strip or the slab is deposited for a short time or for several hours or days in the slab store or the coil store in part one above the other at storage locations constructed or connected with heat exchangers, wherein in this transport time period and/or in the storage time period the residual heat of the cast strip and/or of the slab is transferred by way of the heat exchanger (31, 31', 44, 44', 57, 69, 91, 92, 116) to a heat carrier medium and this is heated up, wherein the heat is then conducted away by way of heat carrier transport lines (33, 52, 70) for power generation; characterised in that the transport of the heat carrier medium from the heat exchanger (31, 44, 57) to the power generating plant in the heat carrier transport lines (33, 52, 70) is carried out only at pump conveying pressure and that liquid mineral or synthetic thermo-oil or a molten salt bath, which does not build up vapour pressure above 2 bars, is used as heat carrier medium, wherein an ORC plant or a Kalina plant is used as power generating plant.
A system comprising a master network node serving a first cell on a first component carrier and a slave network node serving a smaller second cell on a second component carrier, wherein both the master network node and the slave network node are Long Term Evolution, LTE, nodes or High Speed Data Packet Access, HSPA, nodes; and wherein the master network node comprises: a network interface configured to receive and/or send data for a user equipment from and/or to a network, a processor configured to control a split of the data for the first cell and the smaller second cell, and a transceiver unit configured to perform a downlink and/or uplink transmission with the user equipment via the first cell, wherein the processor is configured to send and/or receive the data to and/or from the slave network node to perform a downlink and/or uplink transmission with the user equipment via the smaller second cell. a network interface configured to receive and/or send data for a user equipment from and/or to a network, a processor configured to control a split of the data for the first cell and the smaller second cell, and a transceiver unit configured to perform a downlink and/or uplink transmission with the user equipment via the first cell, wherein the processor is configured to send and/or receive the data to and/or from the slave network node to perform a downlink and/or uplink transmission with the user equipment via the smaller second cell.
A repeater that mediates traffic between a network transceiver and a user transceiver in a wireless communication system, the repeater comprising: a network unit that maintains a network link with the network transceiver; a user unit that maintains a user link with the user transceiver; a two-way communication pathway between the network unit and the user unit; that facilitate the communication of signals between the network transceiver and the user transceiver in autonomous repeater hops between the network transceiver and the network unit, between the user transceiver and the user unit, and between the network unit and the user unit; a gain controller at the user unit that compensates for propagation losses of signals on the two-way communication pathway between the network unit and user unit alone; and an echo canceller in each of the network and the user units, that insert a delay in signal path, the delay being selected from a group consisting of a deliberate delay in the network unit, a deliberate delay in the user unit, and a deliberate delay in both the network unit and the user unit. a network unit that maintains a network link with the network transceiver; a user unit that maintains a user link with the user transceiver; a two-way communication pathway between the network unit and the user unit; that facilitate the communication of signals between the network transceiver and the user transceiver in autonomous repeater hops between the network transceiver and the network unit, between the user transceiver and the user unit, and between the network unit and the user unit; a gain controller at the user unit that compensates for propagation losses of signals on the two-way communication pathway between the network unit and user unit alone; and an echo canceller in each of the network and the user units, that insert a delay in signal path, the delay being selected from a group consisting of a deliberate delay in the network unit, a deliberate delay in the user unit, and a deliberate delay in both the network unit and the user unit.
A cap adapted to be mounted to a receptive portion of a container and to be disconnected from such receptive portion of such container, said cap having a top and a bottom, and an outer perimeter, and comprising: (a) an outer wall, having a top and a bottom, and an inner surface and an outer surface; (b) an inner wall having a top and a bottom, an inner surface and an outer surface, said inner wall extending directionally between the bottom of said cap and the top of said cap, said outer wall extending about said inner wall; (c) at least one connector connecting said outer wall and said inner wall to each other; (d) at least a first axial passage extending entirely through said cap, from the top of said cap to the bottom of said cap; (e) a tamper evident ring attached to said cap at the bottom of said inner wall; characterized by (f) a plurality of openings in said outer wall, extending between the inner and outer surfaces of said outer wall, and bounded on all sides by said outer wall, the plurality of openings defining entrance and exit paths which can convey air between the inner and outer surfaces of said outer wall and along a laterally extending cross-cap path between respective openings on opposing sides of said cap; and (g) the outer surface of said inner wall having an outer perimeter, at the bottom of said inner wall, greater than an outer perimeter of said tamper evident ring. (a) an outer wall, having a top and a bottom, and an inner surface and an outer surface; (b) an inner wall having a top and a bottom, an inner surface and an outer surface, said inner wall extending directionally between the bottom of said cap and the top of said cap, said outer wall extending about said inner wall; (c) at least one connector connecting said outer wall and said inner wall to each other; (d) at least a first axial passage extending entirely through said cap, from the top of said cap to the bottom of said cap; (e) a tamper evident ring attached to said cap at the bottom of said inner wall; characterized by (f) a plurality of openings in said outer wall, extending between the inner and outer surfaces of said outer wall, and bounded on all sides by said outer wall, the plurality of openings defining entrance and exit paths which can convey air between the inner and outer surfaces of said outer wall and along a laterally extending cross-cap path between respective openings on opposing sides of said cap; and (g) the outer surface of said inner wall having an outer perimeter, at the bottom of said inner wall, greater than an outer perimeter of said tamper evident ring.
A projection frame eyelid heater, comprising: a heating element having first and second heat producing areas separated by a distance corresponding to a separation of human eyes and having first and second ends, said heating element producing heat in response to an application of a voltage thereto; a frame including: a chassis portion (940/950/960); and a left temple attachment portion and a right temple attachment portion each having a respective back portion (914/994) extending downward and inward, wherein each of said left temple attachment portion and said right temple attachment portion is adjustable with respect to said front portion (940/950/960) in a direction from the user's temples toward the user's left and right ears, respectively; and a plurality of flexible standoffs for attaching the heating element to the frame. a heating element having first and second heat producing areas separated by a distance corresponding to a separation of human eyes and having first and second ends, said heating element producing heat in response to an application of a voltage thereto; a frame including: a chassis portion (940/950/960); and a left temple attachment portion and a right temple attachment portion each having a respective back portion (914/994) extending downward and inward, wherein each of said left temple attachment portion and said right temple attachment portion is adjustable with respect to said front portion (940/950/960) in a direction from the user's temples toward the user's left and right ears, respectively; and a chassis portion (940/950/960); and a left temple attachment portion and a right temple attachment portion each having a respective back portion (914/994) extending downward and inward, wherein each of said left temple attachment portion and said right temple attachment portion is adjustable with respect to said front portion (940/950/960) in a direction from the user's temples toward the user's left and right ears, respectively; and a plurality of flexible standoffs for attaching the heating element to the frame.
A method, comprising: obtaining point cloud data collected by a LiDAR on a device at a first time; characterized by determining, by matching the point cloud data with a global map built in a global coordinate system, first global positioning information of the device in the global coordinate system at the first time, wherein the first global positioning information of the device includes a pose of the device in the global coordinate system and a confidence level of said pose of the device in the global coordinate system; determining, by matching the point cloud data with a local map built in a local coordinate system, first local positioning information of the device in the local coordinate system at the first time, wherein the local map is built based on at least one frame of point cloud collected by the LiDAR at at least one time before the first time, wherein the local positioning information indicates a relative pose between the point cloud data and the local map, a pose of the device in the local coordinate system and a pose of the local map in the local coordinate system; and determining, by fusing at least the first global positioning information and the first local positioning information, a first positioning result of the device at the first time. obtaining point cloud data collected by a LiDAR on a device at a first time; characterized by determining, by matching the point cloud data with a global map built in a global coordinate system, first global positioning information of the device in the global coordinate system at the first time, wherein the first global positioning information of the device includes a pose of the device in the global coordinate system and a confidence level of said pose of the device in the global coordinate system; determining, by matching the point cloud data with a local map built in a local coordinate system, first local positioning information of the device in the local coordinate system at the first time, wherein the local map is built based on at least one frame of point cloud collected by the LiDAR at at least one time before the first time, wherein the local positioning information indicates a relative pose between the point cloud data and the local map, a pose of the device in the local coordinate system and a pose of the local map in the local coordinate system; and determining, by fusing at least the first global positioning information and the first local positioning information, a first positioning result of the device at the first time.
Device for manufacturing plastic containers, the device comprising a first press platen with a first mould half and a pivoting arm with a second mould half, heated and thermoformed plastic half-shells being accommodatable in the first and the second mould half (2, 4), and, in a first position of the pivoting arm above the first press platen, the first and the second mould half (2, 4) being opened towards one another, so that, by the first mould half being pressed onto the second mould half, the plastic half-shells accommodated therein can be welded to one another at their overlapping margins, characterized in that the device comprises a second press platen with a third mould half and the pivoting arm has a fourth mould half, heated and thermoformed plastic half-shells being accommodatable in the third and the fourth mould half (6, 7), and, in a second position of the pivoting arm above the second press platen, the third and the fourth mould half (6, 7) being opened towards one another, so that, by the third mould half being pressed onto the fourth mould half, the plastic half-shells accommodated therein can be welded to one another at their overlapping margins.
A sliding component characterized in that an extremely shallow step of circular shape is provided on a sealing face of one of a pair of sliding components (3, 4) that slide against each other wherein the extremely shallow step is positioned on a low-pressure fluid side of the sealing face and also set lower than the sealing face, and that pumping grooves acting to push back toward a high-pressure fluid side a fluid that tends to leak from the sealing face toward the low-pressure fluid side are provided on a surface of the extremely shallow step wherein a depth h of the extremely shallow step from the sealing face is set in a range of 10 nm to 1 μm, and that the extremely shallow step is isolated from the high-pressure fluid side by the sealing face and opens to the low-pressure fluid side so to contact the fluid of low-pressure.
A pallet container for holding vehicle windshields for storage, transportation or otherwise, the pallet container comprising a frame structure defining a base, and a periphery, wherein the frame structure is collapsible from a windshield containing configuration to a stowed configuration and is also expandable from a minimum dimension windshield containing configuration to a maximum dimension windshield containing configuration; wherein in the maximum dimension containing configuration the pallet container is extended in both height and in length when compared to the minimum dimension configuration; the pallet container having opposed side frames (112, 118) which are extendable to vary height of the side frames and which are hinged or pivoted to the base to fold down from an erect condition to a collapsed condition; wherein the pallet container has a connecting frame extending between the opposed side frames (112, 118), the connecting frame being height adjustable and the connecting frame is telescopingly extendible in effective length and pivoted to the base to fold down from an erect condition to a collapsed condition
Composition of a solder in which particles of a thermodynamically metastable alloy are dispersed, which alloy comprises an element that, upon application of the composition to a metal oxide containing surface, will form an adhesion layer of an intermetallic compound with the metal of said surface, wherein the adhesion layer provides the contact between the surface and the composition of solder, wherein the particles comprise (i) one or more of the group of indium, tin, bismuth and zinc, and (ii) an element chosen from the group of titanium, chromium, aluminum and nickel, wherein the dispersed particles are present in a weight concentration of 0.1 to 90 %, and the dispersed particles have an average diameter between 0.5 and 80 μm.
Method for direct bonding between a first element and a second element, including at least the following steps: - deposition of at least one first porous layer on at least one face of the first element, - production of at least one first bonding layer on the first porous layer and - rigid connection by direct bonding of the second element with the first bonding layer, characterized by the first porous layer being compressible and having an isothermal compressibility coefficient χ T greater than 10 -10 Pa -1 at 25°C. - deposition of at least one first porous layer on at least one face of the first element, - production of at least one first bonding layer on the first porous layer and - rigid connection by direct bonding of the second element with the first bonding layer, characterized by the first porous layer being compressible and having an isothermal compressibility coefficient χ T greater than 10 -10 Pa -1 at 25°C.