mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a surface structure of a workpiece in the form of a metallic pressing plate, a continuous belt, or a cylindrical embossing roller, with the aid of at least one water jet device with a machining head, comprising the steps of: - providing and using digitalized data of a 3D-topography of a surface structure, - using said digitalized data for the position control of the at least one machining head in a plane spanned by an x- and a y-coordinate or tracking a worktable in the plane spanned by an x- and a y-coordinate opposite a stationarily held machining head, - using the z-coordinate for controlling the machining head, where the z-coordinate images the depth of the 3D-topography of the surface structure of a model and the preselected distance of 1 to 5 mm between the surface to be machined and the machining head is held constant and is trackable, - partially removing the surface with the at least one machining head for the reproduction of a predetermined 3D-topography of a surface structure or its negative on a surface of the workpiece, the z-coordinate determining the depth of removal. - providing and using digitalized data of a 3D-topography of a surface structure, - using said digitalized data for the position control of the at least one machining head in a plane spanned by an x- and a y-coordinate or tracking a worktable in the plane spanned by an x- and a y-coordinate opposite a stationarily held machining head, - using the z-coordinate for controlling the machining head, where the z-coordinate images the depth of the 3D-topography of the surface structure of a model and the preselected distance of 1 to 5 mm between the surface to be machined and the machining head is held constant and is trackable, - partially removing the surface with the at least one machining head for the reproduction of a predetermined 3D-topography of a surface structure or its negative on a surface of the workpiece, the z-coordinate determining the depth of removal.
A method for constructing a pile grounded building structure including the steps of: a) arranging a plurality of piles (10,11,12,13,14) in the ground, and b) constructing the building structure in a manner so that a fixed connection is achieved between it and at least some of the piles, characterized in that it further includes the following steps to be performed before step b): c) calculating the expected area weight of the building structure and the resulting compressive force σ D affecting material underneath the building structure during construction thereof, d) calculating the breaking strength σ B of the building structure, e) calculating the expected maximum soil uplift ε G of the ground, f) providing compensation elements having: - a compressive strength σ C, which is larger than the compressive force σ D of the building structure and smaller than the breaking strength σ B of the building structure, and - a maximum strain ε C, which is bigger than the expected maximum soil uplift ε G of the ground, g) arranging the compensation elements on the ground, so that they cover the area to be covered by the building structure substantially entirely. a) arranging a plurality of piles (10,11,12,13,14) in the ground, and b) constructing the building structure in a manner so that a fixed connection is achieved between it and at least some of the piles, c) calculating the expected area weight of the building structure and the resulting compressive force σ D affecting material underneath the building structure during construction thereof, d) calculating the breaking strength σ B of the building structure, e) calculating the expected maximum soil uplift ε G of the ground, f) providing compensation elements having: - a compressive strength σ C, which is larger than the compressive force σ D of the building structure and smaller than the breaking strength σ B of the building structure, and - a maximum strain ε C, which is bigger than the expected maximum soil uplift ε G of the ground, - a compressive strength σ C, which is larger than the compressive force σ D of the building structure and smaller than the breaking strength σ B of the building structure, and - a maximum strain ε C, which is bigger than the expected maximum soil uplift ε G of the ground, g) arranging the compensation elements on the ground, so that they cover the area to be covered by the building structure substantially entirely.
A gearbox hydraulic circuit comprising: a hydraulic pump connected to a fluid reservoir, the hydraulic pump being operable to generate a flow of pressurised fluid; a pressure circuit connected to the hydraulic pump to convey the flow of pressurised fluid, the pressure circuit having a first line and a second line; a pressure control valve disposed in the pressure circuit between the first line and the second line to maintain the pressure of the pressurised fluid in the first line; and a shunt connected to the pressure circuit, the shunt being operable to route the flow of pressurised fluid from the first line to the second line. a hydraulic pump connected to a fluid reservoir, the hydraulic pump being operable to generate a flow of pressurised fluid; a pressure circuit connected to the hydraulic pump to convey the flow of pressurised fluid, the pressure circuit having a first line and a second line; a pressure control valve disposed in the pressure circuit between the first line and the second line to maintain the pressure of the pressurised fluid in the first line; and a shunt connected to the pressure circuit, the shunt being operable to route the flow of pressurised fluid from the first line to the second line.
A medical appliance, comprising: a first layer of electrospun polytetrafluoroethylene (PTFE) forming a tubular construct, and a reinforcing layer helically wrapped around at least a portion of the tubular construct, the helical layer comprising expanded PTFE (ePTFE). a first layer of electrospun polytetrafluoroethylene (PTFE) forming a tubular construct, and a reinforcing layer helically wrapped around at least a portion of the tubular construct, the helical layer comprising expanded PTFE (ePTFE).
A device (10, 50, 60, 70) for thermally controlling a fluid in a mechanically pumped two-phase fluid loop, the mechanically pumped two-phase fluid loop comprising: - a closed circuit, in which a heat-transfer fluid flows; - at least one evaporator comprising an inlet and an outlet, through which the fluid flows from the inlet of the evaporator in liquid form (20-liq) towards the outlet of the evaporator, the evaporator being configured to convert the fluid in liquid form (20-liq) into fluid in partially gaseous form (20-g); - at least one condenser comprising an inlet and an outlet, through which the fluid in partially gaseous form (20-g) flows from the inlet of the condenser towards the outlet of the condenser, the condenser being configured to convert the fluid in partially gaseous form (20-g) into fluid in liquid form (20-liq); - a pump, disposed between the outlet of the condenser and the inlet of the evaporator, intended to move the fluid in the closed circuit from the evaporator to the condenser in partially gaseous form (20-g) and from the condenser to the evaporator in liquid form (20-liq); - a fluid reservoir connected to the closed circuit, intended to compensate for the variations in volume of fluid in the closed circuit; the control device being characterised in that it comprises a dynamic two-phase thermal management device suitable for absorbing variations in thermal power experienced by the mechanically pumped two-phase fluid loop, the dynamic two-phase thermal management device being the fluid reservoir connected to the closed circuit downstream of the pump and upstream of the evaporator. - a closed circuit, in which a heat-transfer fluid flows; - at least one evaporator comprising an inlet and an outlet, through which the fluid flows from the inlet of the evaporator in liquid form (20-liq) towards the outlet of the evaporator, the evaporator being configured to convert the fluid in liquid form (20-liq) into fluid in partially gaseous form (20-g); - at least one condenser comprising an inlet and an outlet, through which the fluid in partially gaseous form (20-g) flows from the inlet of the condenser towards the outlet of the condenser, the condenser being configured to convert the fluid in partially gaseous form (20-g) into fluid in liquid form (20-liq); - a pump, disposed between the outlet of the condenser and the inlet of the evaporator, intended to move the fluid in the closed circuit from the evaporator to the condenser in partially gaseous form (20-g) and from the condenser to the evaporator in liquid form (20-liq); - a fluid reservoir connected to the closed circuit, intended to compensate for the variations in volume of fluid in the closed circuit;
Stove with built-in boiler for hot water production, of the type comprising a fire-box surrounded by metal walls with intercommunicating spaces filled with water, with a front wall being interrupted to leave space to a mouth used to load wood, closed by a door, whose lower border comes in contact with a border that borders the mouth, the border has a dense series of through openings that can be internally obstructed by a collapsible intercepting screen actuated by an electric engine controlled by a thermostat, the fire-box has a parallelepiped shape and is surrounded by six walls, characterized in that the fire-box contains: - a first bracket that projects from the back wall and transversally extends from one side to the other, being interrupted near the front wall, slightly above the mouth; - a first ascending pipe that communicates the space of the back wall of the fire-box with the space of the first bracket; - a second projecting bracket fixed inside the front wall of the fire-box that transversally extends from one side to the other, being interrupted near the back wall, slightly above the first bracket; - a second ascending pipe that starts from the first bracket and ends into the space of the second bracket, which communicates with the space on top of the fire-box provided with a hot water feed union. - a first bracket that projects from the back wall and transversally extends from one side to the other, being interrupted near the front wall, slightly above the mouth; - a first ascending pipe that communicates the space of the back wall of the fire-box with the space of the first bracket; - a second projecting bracket fixed inside the front wall of the fire-box that transversally extends from one side to the other, being interrupted near the back wall, slightly above the first bracket; - a second ascending pipe that starts from the first bracket and ends into the space of the second bracket, which communicates with the space on top of the fire-box provided with a hot water feed union.
A method for an access node (110A; 110B) of a mobile communication system to configure secondary coverage in the mobile communication system, the method comprising: transmitting configuration information to cause a first mobile device (105A; 105F; 105G) to transmit a secondary coverage signal (720; 725), the first mobile device being connected to the access node and having primary coverage (505A; 505B) from the access node, and the secondary coverage signal indicating that the first mobile device is able to provide secondary coverage in the mobile communication system to other mobile devices not having primary coverage (505A; 505B) from any access node of the mobile communication system; receiving a message from the first mobile device reporting that a presence indication, PI, has been received, by the first mobile device in response to transmitting the secondary coverage signal, from a second mobile device (105B; 105C; 105K; 105L) not having primary coverage (505A; 505B) from any access node of the mobile communication system; and in response to receiving the message, configuring the first mobile device to enable relay node functionality at the first mobile device to provide secondary coverage to the second mobile device. transmitting configuration information to cause a first mobile device (105A; 105F; 105G) to transmit a secondary coverage signal (720; 725), the first mobile device being connected to the access node and having primary coverage (505A; 505B) from the access node, and the secondary coverage signal indicating that the first mobile device is able to provide secondary coverage in the mobile communication system to other mobile devices not having primary coverage (505A; 505B) from any access node of the mobile communication system; receiving a message from the first mobile device reporting that a presence indication, PI, has been received, by the first mobile device in response to transmitting the secondary coverage signal, from a second mobile device (105B; 105C; 105K; 105L) not having primary coverage (505A; 505B) from any access node of the mobile communication system; and in response to receiving the message, configuring the first mobile device to enable relay node functionality at the first mobile device to provide secondary coverage to the second mobile device.
A polyester film comprising at least one layer mainly including a polyester resin containing a dicarboxylic acid component including furandicarboxylic acid as a main component and a glycol component including ethylene glycol as a main component; wherein the polyester film has a plane orientation coefficient ΔP of not less than 0.005 and not more than 0.200, wherein the plane orientation coefficient (ΔP) is calculated out in accordance with the equation ΔP = nx + ny - 2 nz / 2, wherein nx is the n-plane refractive index of the film in the MD direction, ny is the in-plane refractive index of the film in the TD direction, and nz is the refractive index of the film in the thickness direction, wherein nx, ny and nz are determined in accordance with JIS K 7142-1996 5.1 (method A); wherein the polyester film has a thickness of not less than 1 μm and not more than 300 μm, wherein the polyester film has a heat shrinkage rate of 3.2% or less in the MD direction at 150°C for 30 minutes, and a heat shrinkage rate of 1.2% or less in the TD direction at 150°C for 30 minutes, wherein the heat shrinkage rate is determined according to the method indicated in the description; and wherein the polyester film has a layer containing at least one additive.
A method for operating a pump, in particular for operating a multiphase pump, for conveying a fluid from a low-pressure side to a high-pressure side of the pump, wherein a pump vibration changes with a rate of change and a current rate of change of the pump vibration is determined and is compared with a limit for the rate of change and / or wherein a current vibration of the pump is determined and is compared with a vibration amplitude limit for the vibration, wherein the limit and / or the vibration amplitude limit is stored in a surge control unit, and a control signal is provided when the current rate of change reaches the limit and / or when the current vibration reaches the vibration amplitude limit, and a control variable of the pump is changed by the control signal, such that the vibration is reduced and thus an unstable operating state of the pump is avoided, wherein an operating limit (60, 60') for an operating parameter of the pump below which the pump can still be reliably operated in a stable operating state is stored in the surge control unit, and the control signal is provided when a current value of the operating parameter reaches the operating limit (60, 60') and the current rate of change reaches the limit and / or the current vibration reaches vibration amplitude limit, characterized in that the operating limit (60, 60') is used as a first trigger, and the first trigger in the surge control unit provides a first control signal when the operating parameter reaches the operating limit (60, 60'), wherein limit and / or vibration amplitude limit is used as a second trigger in the surge control unit after the first trigger provided the first control signal and the second trigger in the surge control unit provides a second or final control signal, wherein limit and / or the vibration amplitude limit and the operating limit (60, 60') are thereby combined in a cascaded way as a trigger sequence.
A method of making a panel for use over a vehicle airbag, comprising: (a) providing a substrate having an outer surface; (b) providing a separately formed covering having an outside foam layer bonded to a decorative skin layer and an inside foam layer bonded to the outside foam layer, wherein the outside foam layer has a uniform density greater than a density of the inside foam layer; (c) disposing the covering over the outer surface of the substrate so that the foam layers (46, 48) are between the skin layer and the substrate; and (d) forming a tear seam in the covering at a pre-determined airbag deployment opening location. (a) providing a substrate having an outer surface; (b) providing a separately formed covering having an outside foam layer bonded to a decorative skin layer and an inside foam layer bonded to the outside foam layer, wherein the outside foam layer has a uniform density greater than a density of the inside foam layer; (c) disposing the covering over the outer surface of the substrate so that the foam layers (46, 48) are between the skin layer and the substrate; and (d) forming a tear seam in the covering at a pre-determined airbag deployment opening location.
A cross country ski having at least one means for preventing backwards sliding comprising a multi-layer sliding board body at least comprising at least one strength-relevant upper sheet, at least one strength-relevant lower sheet, at least one core arranged therebetween, at least one top sheet forming at least the upper side of the sliding board body and at least one running surface covering forming the underside of the sliding board body, on the underside whereof a grip or kick zone is formed to prevent backward sliding in respect of the longitudinal ski direction in the middle section, wherein between the core of the sliding board body and the upper side of the running surface covering facing the core at least one pressure or force distribution element is configured which extends in the longitudinal ski direction over roughly 50 % to 200 %, in particular over 80 % to 120 % of a length of the grip or kick zone and at least for the most part overlaps the grip or kick zone in relation to the longitudinal ski direction or covers or bridges the grip or kick zone over its entire length, characterized in that the top sheet is configured at least in the middle section of the length of the sliding board body or at least in the region of the grip or kick zone as a substantially U-shaped cap body in cross section, wherein the base of this cap body forms the upper side of the sliding board body and the legs (23, 24) of this cap body form opposite side walls (19, 20) of the sliding board body and wherein the longitudinal edges (25, 26) of the legs (23, 24) of the cap body turned away from the base of the cap body are supported in a load-transmitting manner on the longitudinal side edges (27, 28) of the force distribution element, so that a pressure transmission construction is designed for the forces to be transmitted from the upper side of the sliding board body to the underside thereof.
Foundation for a wind power plant, the foundation having substantially prefabricated elements, with a first, vertically extending portion of pedestal-like configuration, on which a tower of the wind power plant can be arranged, and a second substantially horizontally extending portion as foundation body which is in contact with the ground, the first portion being arranged above the second portion and having at least one closed pedestal element which is of annular or polygonal configuration, and the second portion being formed from at least two horizontal elements which have in each case at least one pedestal portion, the at least one pedestal element of the first portion and the pedestal portion of the horizontal element of the second portion having substantially vertical apertures which are flush with one another in a mounted state and in which substantially vertical bracing elements are arranged, a further vertically extending portion of pedestal-like configuration being provided which is arranged below the second portion and has at least one closed pedestal element, and the further portion being required for the transfer of the loads of the wind power plant, characterized in that the closed pedestal element of the further portion is assembled from at least two segments, in that the segments overlap in a connecting region, the apertures also overlapping in the overlap region, or in that the segments adjoin one another in a connecting region with substantially vertical abutting surfaces.
A thermoplastic elastomer composition, comprising: a styrenic block copolymer comprising at least one controlled distribution copolymer block having a conjugated diene and a mono alkenyl arene; a biorenewable softener comprising a natural ester; and at least one synergistic additive comprising one or more of starch, thermoplastic starch, a biorenewable polar polymer, and a high molecular weight styrenic block copolymer, wherein the high molecular weight styrenic block copolymer has a number average molecular weight greater than 300,000 g/mol, and wherein the biorenewable polar polymer is one or more of a polylactic acid, polylactide, poly(glycolic acid), polyglycolide, poly(lactic-co-glycolic) acid, poly(lactide-co-glycolide), polyglyconate, poly(hydroxyalkanoate), polyorthoester, polycaprolactone, polydioxanone, polyanhydride, and polyether-block-amide. a styrenic block copolymer comprising at least one controlled distribution copolymer block having a conjugated diene and a mono alkenyl arene; a biorenewable softener comprising a natural ester; and at least one synergistic additive comprising one or more of starch, thermoplastic starch, a biorenewable polar polymer, and a high molecular weight styrenic block copolymer, wherein the high molecular weight styrenic block copolymer has a number average molecular weight greater than 300,000 g/mol, and wherein the biorenewable polar polymer is one or more of a polylactic acid, polylactide, poly(glycolic acid), polyglycolide, poly(lactic-co-glycolic) acid, poly(lactide-co-glycolide), polyglyconate, poly(hydroxyalkanoate), polyorthoester, polycaprolactone, polydioxanone, polyanhydride, and polyether-block-amide.
A device for the extraction of floating sludge from a liquid surface with a fluctuating liquid level, comprising at least one conveyor screw (2; 22; 32) which is arranged along the liquid surface and can be fixed in a height-adjustable manner on a support structure (9a, 9b) and is constructed from a central pipe, on which a screw face (6; 26; 36) is attached, and comprising a drain box which is attached on an upstream side of the conveyor screw (2; 22; 32), characterised in that the central pipe has a diameter d, which lies in the magnitude of the fluctuation margin of the liquid level so that the operationally possible fluctuations of the liquid level are covered, i.e. the central pipe is immersed in water even at the lowest liquid level, and the highest possible liquid level is not located above the central pipe, and that the central pipe is constructed so as to be neutrally buoyant, in that the central pipe is hollow and has at least one opening in contact with the liquid.
- Use of aluminum oxyhydroxide, such as boehmite or pseudoboehmite, as a masking material which is dispersible by an ammunition or a launcher to mask a target with respect to electromagnetic radiation in a given wavelength range.