mhurhangee/ep-ind-claims huggingface dataset:
Multi-function machine for drilling, boring, driving and lifting comprising a translation system which supports a turret opportunely motorized and provided with driving cab; to the frame of the turret is directly hinged an arm, generally of lattice tower type, in substantially raised and tilted position on the front for angles comprised between a direction near to the vertical line and one near to the horizontal line for being used in at least a first configuration as lifting arm; the free upper end of the arm has a head having a system of pulleys and/or transmissions for at least a maneuvering rope; the arm can rotate with respect to the turret in such a way as to acquire a second configuration of mounting/transport wherein its longitudinal axis is substantially horizontally arranged and turned over toward the front; furthermore, are provided means (14,16) for bringing the arm from said first to said second configuration and vice-versa; the arm can acquire a third operating configuration wherein its longitudinal axis is substantially vertically arranged; in said third condition the arm constituting a guide for digging/drilling means sliding in direction substantially parallel to the longitudinal axis of the arm; being also provided actuating means for maneuvering the arm at least in said third configuration; characterised in that the arm is hinged to the frame of the turret around a first axis substantially orthogonal to the longitudinal axis of the arm, and is provided, in correspondence with its lower end, with a second rotation axis, substantially parallel to the first axis, adapted to permit the arm itself to acquire a deviated configuration; wherein the arm is constrained to the frame of the turret around said first rotation axis for acquiring said first configuration as lifting arm for the functioning of the machine as crane, and around said second rotation axis for acquiring said third configuration as sliding guide for the drilling devices.
A sizing applicator apparatus for coating rapidly moving fibers with a liquid sizing comprising (i) a fiber coating element having a working surface and a drive for moving the working surface, (ii) a member for removing unused sizing and foreign items from the working surface, (iii) a sizing supply and sizing distributor to spread out the size to form a thin, continuous layer of the sizing on a bottom plate of the sizing distributor to direct the thin flowing layer of sizing onto the top of an upper holding member to form a continuous layer of sizing on the size contacting surfaces, said applicator has no reservoir for sizing and for the applicator coating element.
A communications system comprising: a first transceiver (100, 200); and a second transceiver (100, 200) operatively coupled to the first transceiver, characterized in the transceivers being adapted to transmit or receive during a low power mode, only a subset of subcarriers transmitted or received in a full power mode at a power level that is the same as the power level transmitted in a full power mode, to measure signal to noise ratio on the subset of subcarriers and to estimate the signal to noise ratio on a second subset of subcarriers based on the measured signal to noise ratio. a first transceiver (100, 200); and a second transceiver (100, 200) operatively coupled to the first transceiver, characterized in the transceivers being adapted to transmit or receive during a low power mode, only a subset of subcarriers transmitted or received in a full power mode at a power level that is the same as the power level transmitted in a full power mode, to measure signal to noise ratio on the subset of subcarriers and to estimate the signal to noise ratio on a second subset of subcarriers based on the measured signal to noise ratio.
A work machine comprising: a vehicular body; a running wheel (4a, 4b) rotatably attached to the vehicular body; a work implement operable with respect to the vehicular body; an operation apparatus for operating the running wheel (4a, 4b) and the work implement; and a controller that controls an operation by the work machine, wherein the controller determines that an ineffective operation in which the work implement does not work is being performed during an excavation work based on an operation command value output from the operation apparatus, and outputs a time period for which the ineffective operation is being performed. a vehicular body; a running wheel (4a, 4b) rotatably attached to the vehicular body; a work implement operable with respect to the vehicular body; an operation apparatus for operating the running wheel (4a, 4b) and the work implement; and a controller that controls an operation by the work machine, wherein the controller determines that an ineffective operation in which the work implement does not work is being performed during an excavation work based on an operation command value output from the operation apparatus, and outputs a time period for which the ineffective operation is being performed.
High temperature thermal insulation material, in particular for gas turbine components, comprising a porous ceramic matrix of yttria-stabilized zirconia having a porous microstructure; and hafnia (HfO 2) particles incorporated within the porous ceramic matrix in form of aggregated clusters; wherein hafnia clusters are made of aggregated hafnia particles and are randomly distributed in the ceramic matrix and have a diameter of about 1 to 30 μm.
A method comprising: receiving a request for a controlled access resource from a client device, the request including a client device identifier; determining that the request is not associated with a recognized location; identifying state data for the client device identifier; generating a link for accessing the controlled access resource at a server; generating a token, the token including a timestamp, a random number, and licensed resource information from the state data; including the token in the link; and providing the link to the client device, the link configured to be used by the client device to request the controlled access resource. receiving a request for a controlled access resource from a client device, the request including a client device identifier; determining that the request is not associated with a recognized location; identifying state data for the client device identifier; generating a link for accessing the controlled access resource at a server; generating a token, the token including a timestamp, a random number, and licensed resource information from the state data; including the token in the link; and providing the link to the client device, the link configured to be used by the client device to request the controlled access resource.
A method of igniting a pyrotechnic charge downhole in a well comprising: providing a first pyrotechnic device comprising an output charge, an energy transfer device, and a second pyrotechnic device, said energy transfer device comprising a metallic body having a forward section (16, 30), an aft section (18, 32), and an axial passageway extending therethrough; igniting said first pyrotechnic device to detonate said output charge; directing at least a portion of the energy from the detonation of said output charge through said axial passageway toward said second pyrotechnic device thereby igniting said second pyrotechnic device, wherein said body forward section (16, 30) comprises a forward face that is configured to be placed adjacent said first pyrotechnic device so as to receive said at least a portion of the energy from the detonation of said output charge, the method further comprising the step of deforming said forward face by said at least a portion of the energy from the detonation of said output charge to form a constriction in said passageway. providing a first pyrotechnic device comprising an output charge, an energy transfer device, and a second pyrotechnic device, said energy transfer device comprising a metallic body having a forward section (16, 30), an aft section (18, 32), and an axial passageway extending therethrough; igniting said first pyrotechnic device to detonate said output charge; directing at least a portion of the energy from the detonation of said output charge through said axial passageway toward said second pyrotechnic device thereby igniting said second pyrotechnic device, wherein said body forward section (16, 30) comprises a forward face that is configured to be placed adjacent said first pyrotechnic device so as to receive said at least a portion of the energy from the detonation of said output charge, the method further comprising the step of deforming said forward face by said at least a portion of the energy from the detonation of said output charge to form a constriction in said passageway.
A method of preparing a cobalt-based catalyst on a metal structure for selective production of a synthetic oil via Fischer-Tropsch reaction, comprising: burning a powder mixture obtained by melt infiltration of a cobalt hydrate and a metal oxide support to give a catalyst powder comprising cobalt oxide/metal oxide support; hybridizing the catalyst powder comprising cobalt oxide/metal oxide support with a zeolite powder to give a hybrid catalyst powder; mixing the hybrid catalyst powder with an organic binder and an inorganic binder and grinding the mixed hybrid catalyst powder to give a hybrid catalyst sol; spray-coating a metal structure surface-treated with alumina by atomic layer deposition with the hybrid catalyst sol; and thermally treating the metal structure spray-coated with the hybrid catalyst sol. burning a powder mixture obtained by melt infiltration of a cobalt hydrate and a metal oxide support to give a catalyst powder comprising cobalt oxide/metal oxide support; hybridizing the catalyst powder comprising cobalt oxide/metal oxide support with a zeolite powder to give a hybrid catalyst powder; mixing the hybrid catalyst powder with an organic binder and an inorganic binder and grinding the mixed hybrid catalyst powder to give a hybrid catalyst sol; spray-coating a metal structure surface-treated with alumina by atomic layer deposition with the hybrid catalyst sol; and thermally treating the metal structure spray-coated with the hybrid catalyst sol.
Method for adjusting the oscillating frequency and/or adjusting inertia and/or balancing a movable component of a timepiece movement or of a timepiece sprung balance assembly, where a removal of material and/or an addition of material and/or a displacement of material is/are conducted on said component or at least one component of said assembly by using at least one transformation means comprising at least one laser or plasma source to conduct a micromachining and/or a microfusion operation on the material of said component or of said at least one component of said assembly and/or respectively of at least one addition material to vaporise and/or sublimate and/or displace and/or respectively weld at least one addition material onto said component or onto said at least one component of said assembly under the effect of at least one pulse of said transformation means, and that said at least one pulse is controlled by control means arranged to generate, sequence, interrupt any pulse of said at least one transformation means, wherein said control means are also arranged to control the movements of at least one beam discharged from said transformation means, wherein said control means are connected to measuring or comparing means or are also automatically controlled by said measuring or comparing means, and where said control means are programmed in order to define at least one particular zone of the surface of said component or of said at least one component of said assembly, at which the material is to be removed and/or added and/or displaced, and in that said control means are programmed in order to generate at least one pulse sequence at high average frequency of said transformation means in order to generate over said zone at least one line of successive impacts of a beam emitted by said at least one transformation means, and where said component or said assembly is caused to pivot around its main axis of inertia during said at least one pulse sequence of said transformation means, and in that said measuring or comparing means are used for the purposes of measuring or comparing the dynamic inertia of said component around the main axis of inertia of said component or said assembly, characterised in that a single transformation means is used, and amplitude stabilising means are used to maintain the pivoting movement of said component or said assembly in an oscillation at constant amplitude during the course of each pulse sequence.
A honeycomb structure comprising: a tubular honeycomb structure section including porous partition walls which partition and form a plurality of cells extending from one end surface to the other end surface to become through channels of a fluid, and an outer peripheral wall positioned in an outermost periphery; and a pair of electrode sections arranged on a side surface of the honeycomb structure section, wherein an electrical resistivity of the honeycomb structure section is from 1 to 200 Ωcm, each of the pair of electrode sections is formed into a band-like shape extending in a cell extending direction of the honeycomb structure section, one electrode section of the pair of electrode sections is disposed on an opposite side from the other electrode section of the pair of electrode sections via the center of the honeycomb structure section in a cross section which is perpendicular to the cell extending direction, an angle (α) which is 0.5 time as large as a central angle of each of the electrode sections is from 15 to 65° in the cross section which is perpendicular to the cell extending direction, each of the electrode sections is formed so as to become thinner from a center portion in a peripheral direction toward both ends in the peripheral direction in the cross section which is perpendicular to the cell extending direction, and each of the electrode sections is continuously formed in the cross section which is perpendicular to the cell extending direction and does not have, as seen in said cross section, any boundary where the continuity of a material quality or porosity is discontinued.
A bearing member comprising a coating layer on an inner circumferential surface of a shaft hole into which a shaft body is to be fitted, the coating layer containing a metal base material and a heat conductive material that is dispersed in the base material and that has a thermal conductivity relatively higher than that of the base material, characterised in that the heat conductive material has a length (Lb, Lc) in a direction (B, C) along a surface of the coating layer, longer than a length (La) in a thickness direction of the coating layer, and has a length (Lc) in a circumferential direction of the shaft hole, longer than a length (Lb) in an axial direction of the shaft hole.
A method for weaving a fabric with warp yarns and in-woven weft yarns on a weaving loom which comprises: - heddles for moving the warp yarns in order to form a shed; - a shed forming mechanism for moving the heddles; - weft bobbins which provide weft yarns to the loom; - a weft insertion mechanism, for drawing-in a weft yarn from a pick-up position into the shed, along a weft insertion axis and in a forward direction, the weft insertion mechanism including a gripper openable at the pick-up position; - a weft selector which defines several selectable distribution channels parallel to the weft insertion axis, each selectable distribution channel including a forward guiding member, for guiding a weft yarn toward the gripper, and a clamp;, this method including at least the following steps: a) opening the gripper; b) positioning a movable carriage of the weft selector, by a aligning a selected distribution channel on the weft insertion axis, so that the gripper is aligned with a selected weft yarn; c) clamping the weft yarn in the selected distribution channel, with the clamp of this channel; d) moving the weft yarn along the selected distribution channel toward the gripper, while the gripper is opened, by moving the clamp along the selected distribution channel; e) catching the selected weft yarn with the gripper at the pick-up position; f) drawing-in the weft yarn with the weft insertion mechanism, from the pick-up position into the shed, along the weft insertion axis and in the forward direction; and g) cutting the weft yarn. - heddles for moving the warp yarns in order to form a shed; - a shed forming mechanism for moving the heddles; - weft bobbins which provide weft yarns to the loom; - a weft insertion mechanism, for drawing-in a weft yarn from a pick-up position into the shed, along a weft insertion axis and in a forward direction, the weft insertion mechanism including a gripper openable at the pick-up position; - a weft selector which defines several selectable distribution channels parallel to the weft insertion axis, each selectable distribution channel including a forward guiding member, for guiding a weft yarn toward the gripper, and a clamp;, a) opening the gripper; b) positioning a movable carriage of the weft selector, by a aligning a selected distribution channel on the weft insertion axis, so that the gripper is aligned with a selected weft yarn; c) clamping the weft yarn in the selected distribution channel, with the clamp of this channel; d) moving the weft yarn along the selected distribution channel toward the gripper, while the gripper is opened, by moving the clamp along the selected distribution channel; e) catching the selected weft yarn with the gripper at the pick-up position; f) drawing-in the weft yarn with the weft insertion mechanism, from the pick-up position into the shed, along the weft insertion axis and in the forward direction; and g) cutting the weft yarn.
A device for passing thread-like elements, suitable for installation in a vehicle, comprising: - a frame defining an opening suitable for passing thread-like elements in a substantially longitudinal direction and defining two opposite edges (28, 30); and - two combs (24, 26) made of intumescent material fixed to the frame opposite each other on either side of the opening and completely covering the opening, each comb (24, 26) comprising a heel fixed to the frame along one edge (28, 30) of the opening and a plurality of teeth extending from the heel towards the opposite edge (28, 30) of the opening, characterised in that the teeth of the two combs (24, 26) overlap in an overlap zone, the distance between the free ends of the teeth of the two overlapping combs (24, 26) in the absence of thread-like elements being greater than one-quarter, and preferably greater than half, of the length measured from the heel to the free end of the teeth of the comb (24, 26) having the shorter teeth. - a frame defining an opening suitable for passing thread-like elements in a substantially longitudinal direction and defining two opposite edges (28, 30); and - two combs (24, 26) made of intumescent material fixed to the frame opposite each other on either side of the opening and completely covering the opening, each comb (24, 26) comprising a heel fixed to the frame along one edge (28, 30) of the opening and a plurality of teeth extending from the heel towards the opposite edge (28, 30) of the opening,
Pressure measuring disposable item for single use with a base body (18; 58) having at least one process connection (20, 22; 60, 62), which has a membrane (26; 66) with two sides (28, 30; 68, 70), the first side (28; 68) of which is intended to come into contact with a process medium (24; 64), characterized in that a diaphragm seal (16; 56) filled with hydraulic fluid (32; 72) is integrated into the pressure measuring disposable item (12; 52) in such a way that the second side (30; 70) of the membrane (26; 66) is in contact with the hydraulic fluid (32; 72), so that the membrane (26; 66) forms the diaphragm seal membrane, wherein the diaphragm seal (16; 56) has a channel (36; 76) carrying the hydraulic fluid (32; 72) with an outer end (38; 78) which has a connection (40; 80) for a reusable pressure measuring device (14; 54) which can be detachably connected to the diaphragm seal (16; 56). a diaphragm seal (16; 56) filled with hydraulic fluid (32; 72) is integrated into the pressure measuring disposable item (12; 52) in such a way that the second side (30; 70) of the membrane (26; 66) is in contact with the hydraulic fluid (32; 72), so that the membrane (26; 66) forms the diaphragm seal membrane, wherein the diaphragm seal (16; 56) has a channel (36; 76) carrying the hydraulic fluid (32; 72) with an outer end (38; 78) which has a connection (40; 80) for a reusable pressure measuring device (14; 54) which can be detachably connected to the diaphragm seal (16; 56).
Method for atomic layer deposition on a surface of a substrate, comprising conditioning the surface for atomic layer deposition by providing reactive surface sites; providing a precursor material to the surface for allowing reactive surface sites to react with precursor material molecules to give a surface covered by a monolayer of precursor molecules attached via the reactive sites to the surface of the substrate; and subsequently providing a gas mixture generated in a plasma remote from the substrate and applying said gas mixture subsequently to the surface covered with precursor molecules wherein the gas mixture is generated in an atmospheric pressure glow discharge plasma, said gas mixture comprising a reactive agent capable to convert the attached precursor molecules to active precursor sites, in which the precursor material is provided to the surface in a first treatment space and the surface is exposed in a second treatment space, the first treatment space and second treatment space being different, and in which the reactive agent mixture further comprises an inert gas selected from a noble gas, nitrogen or a mixture of these gases.
An implantable drug delivery device comprising: an inner core comprising oxybutynin distributed throughout a first water-insoluble polymer, wherein the first water-insoluble polymer is an ethylene vinyl acetate polymer with 10-90 wt% of vinyl acetate, based on the total weight of the ethylene vinyl acetate polymer; an intermediate coating positioned around the inner core, said intermediate coating comprising an acrylate polymer; and an outer coating positioned around the intermediate coating, said outer coating comprising a second water-insoluble polymer, wherein the second water-insoluble polymer comprises an ethylene vinyl acetate polymer with 10-90 wt% of vinyl acetate, based on the total weight of the ethylene vinyl acetate polymer; wherein the acrylate polymer is formed from one or more monomers of formula: wherein R 1 is selected from H, alkyl, alkenyl, alkynyl, or aryl; and R 2 is selected from H or alkyl. an inner core comprising oxybutynin distributed throughout a first water-insoluble polymer, wherein the first water-insoluble polymer is an ethylene vinyl acetate polymer with 10-90 wt% of vinyl acetate, based on the total weight of the ethylene vinyl acetate polymer; an intermediate coating positioned around the inner core, said intermediate coating comprising an acrylate polymer; and an outer coating positioned around the intermediate coating, said outer coating comprising a second water-insoluble polymer, wherein the second water-insoluble polymer comprises an ethylene vinyl acetate polymer with 10-90 wt% of vinyl acetate, based on the total weight of the ethylene vinyl acetate polymer; wherein the acrylate polymer is formed from one or more monomers of formula: