mhurhangee/ep-ind-claims huggingface dataset:
A coating formation method for forming a coating on a surface of skin, comprising: a liquid agent applying step of applying, on skin, a liquid agent containing at least one member selected from water, polyols and oils that are in a liquid form at 20°C; and an electrostatic spraying step of electrostatically spraying a composition directly on the skin to form a coating, wherein the liquid agent applying step and the electrostatic spraying step are performed in this order or in a reversed order, and the composition includes component (a) and component (b) below: (a) one or more volatile substances selected from the group consisting of water, alcohols, and ketones, and (b) a polymer having a coating formation ability, wherein the content of the component (a) in the composition is 50 mass% or more and 98 mass% or less, and the content of component (b) in the composition is 2 mass% or more and 50 mass% or less. a liquid agent applying step of applying, on skin, a liquid agent containing at least one member selected from water, polyols and oils that are in a liquid form at 20°C; and an electrostatic spraying step of electrostatically spraying a composition directly on the skin to form a coating, wherein the liquid agent applying step and the electrostatic spraying step are performed in this order or in a reversed order, and the composition includes component (a) and component (b) below: (a) one or more volatile substances selected from the group consisting of water, alcohols, and ketones, and (b) a polymer having a coating formation ability, (a) one or more volatile substances selected from the group consisting of water, alcohols, and ketones, and (b) a polymer having a coating formation ability, wherein the content of the component (a) in the composition is 50 mass% or more and 98 mass% or less, and the content of component (b) in the composition is 2 mass% or more and 50 mass% or less.
A hot-forgeable Ni-based superalloy excellent in high temperature strength, consisting of, in terms of % by mass: C: more than 0.001% and less than 0.100%, Cr: 11.0% or more and less than 19.0%, Co: 0.5% or more and less than 22.0%, Fe: 0.5% or more and less than 10.0%, Si: less than 0.1%, Mo: more than 2.0% and less than 5.0%, W: more than 1.0% and less than 5.0%, Mo+1/2W: 2.5% or more and less than 5.5%, S: 0.010% or less, Nb: 0.3% or more and less than 2.0%, Al: more than 3.00% and less than 6.50%, and Ti: 0.20% or more and less than 2.49%, optionally containing B: 0.0001% or more and less than 0.03%, Zr: 0.0001% or more and less than 0.1%, P: less than 0.020%, N: less than 0.020%, Mg: 0.0001% or more and less than 0.030%, Ca: 0.0001% or more and less than 0.030%, and REM: from 0.0001% to 0.200%, with the balance being Ni and unavoidable impurities, wherein (Ti/Al)×10 is 0.2 or more and less than 4.0 in terms of atomic ratio, and wherein Al+Ti+Nb is 8.5% or more and less than 13.0% in terms of atomic%. C: more than 0.001% and less than 0.100%, Cr: 11.0% or more and less than 19.0%, Co: 0.5% or more and less than 22.0%, Fe: 0.5% or more and less than 10.0%, Si: less than 0.1%, Mo: more than 2.0% and less than 5.0%, W: more than 1.0% and less than 5.0%, Mo+1/2W: 2.5% or more and less than 5.5%, S: 0.010% or less, Nb: 0.3% or more and less than 2.0%, Al: more than 3.00% and less than 6.50%, and Ti: 0.20% or more and less than 2.49%, B: 0.0001% or more and less than 0.03%, Zr: 0.0001% or more and less than 0.1%, P: less than 0.020%, N: less than 0.020%, Mg: 0.0001% or more and less than 0.030%, Ca: 0.0001% or more and less than 0.030%, and REM: from 0.0001% to 0.200%,
A method for producing a tool coated with a hard coating, the method being characterized by the following steps: - applying a TiAIN coating layer onto a substrate with a first magnetron sputtering process - applying a Ti x Si 1-x N coating layer onto the TiAIN layer with a second magnetron sputtering process, where x is between and including 0.8 and 0.70, wherein the second magnetron sputtering process is performed with power densities greater than 100 W/cm 2 and is a HiPIMS process, wherein a double-layer coated tool is produced. - applying a TiAIN coating layer onto a substrate with a first magnetron sputtering process - applying a Ti x Si 1-x N coating layer onto the TiAIN layer with a second magnetron sputtering process, where x is between and including 0.8 and 0.70,
A forklift truck mounted on a carrier vehicle, said truck comprising a frame, forks for handling the load and coupling the truck to a carrier vehicle, means for connecting the forks to the frame, said connection means comprising at least one lifting jack to drive the forks and the frame in relative displacement in the direction of approach towards one another and moving away from one another in order to permit raising of the forks in a so-called handling operating mode, in which the forks are mounted so as to be free in upward and downward displacement relative to the ground, and to permit raising of the frame in a so-called transport operating mode, in which the forks are in the high position and their upwards and downwards displacement relative to the ground is immobilized, the or each lifting jack comprising at least one body and a piston rod dividing the body into two chambers (7, 8), this lifting jack being a double-effect lifting jack, each chamber (7; 8) of which is equipped with a fluid duct (C1, C2) for connection of the chamber (7; 8) to a hydraulic source comprising a pump and a reservoir via a distributor to permit supply of fluid to one or the other of the chambers (7, 8), characterized in that, in the so-called handling operating mode, under the effect of their weight, the forks form a driving element for actuation of the or each lifting jack for the passage of the forks from the high position to the low position, and in that, for the or each lifting jack, the fluid ducts (C1, C2) for connection of the chambers (7, 8) of the lifting jack to the hydraulic source are connected to one another by a fluid connection, in order to permit a transfer of fluid from one of the chambers (7, 8) in the direction of the other chamber of the jack, this fluid connection being equipped with a closing member that is mounted so as to be mobile between a closed position and an open position of the fluid connection, this closing member being in the closed position at least in the transport operating mode, in the state in which the frame is driven in the direction of raising of the frame.
A braking axle structure for vehicles, comprising an axle body having, on each end or spindle, a wheel hub provided with the related drum of the brake unit and a load-bearing structure of said brake unit defined by a flange having in its central part an opening receiving the axle body, said flange being constrained to said axle body through welding, characterised in that said axle body and said flange have connection means withstanding the thermal expansion generated by said welding and providing mutual precise coaxial coupling of first curvilinear surfaces on said flange and second curvilinear surfaces on said axle body, said second curvilinear surfaces of said axle body being equidistant from the axis of said spindle and said axle body, and having a cylindrical axial generatrix which is substantially the same as that of said first curvilinear surfaces.
A computer implemented method for performing replication in a hierarchical cluster in a massively parallel processing, MPP, database system, the method comprising: determining a replication type of a first partition on a first node, wherein the first node is on a first leaf sub-cluster, LSC, on a meta sub-cluster, MSC, of the MPP cluster, wherein the first partition is a horizontal database table partition; determining a first takeover LSC for the first LSC, wherein the first takeover LSC takes over for the first LSC in the case of a failure or fault; determining a first takeover node for the first node, wherein the first takeover node takes over for the first node in the case of a failure or fault; and performing replication of the first partition in accordance with the replication type, the first takeover node, and the first takeover LSC; wherein the replication type is synchronous, asynchronous, or semi-synchronous; wherein in synchronous replication, replicas are placed on different nodes within the same selected LSC and replicas are close to partitions, in the same LSC, and changes are applied together; wherein in asynchronous replication, replicas are placed on nodes of a different LSC and replicas are on different LSCs in the same MSC, and changes are applied asynchronously; and wherein in semi-synchronous replication, some replicas are placed on nodes of the same selected LSC and some replicas are placed on nodes of another LSC, some replicas are in the same LSC, and some replicas are in different LSCs. determining a replication type of a first partition on a first node, wherein the first node is on a first leaf sub-cluster, LSC, on a meta sub-cluster, MSC, of the MPP cluster, wherein the first partition is a horizontal database table partition; determining a first takeover LSC for the first LSC, wherein the first takeover LSC takes over for the first LSC in the case of a failure or fault; determining a first takeover node for the first node, wherein the first takeover node takes over for the first node in the case of a failure or fault; and performing replication of the first partition in accordance with the replication type, the first takeover node, and the first takeover LSC; wherein the replication type is synchronous, asynchronous, or semi-synchronous; wherein in synchronous replication, replicas are placed on different nodes within the same selected LSC and replicas are close to partitions, in the same LSC, and changes are applied together; wherein in asynchronous replication, replicas are placed on nodes of a different LSC and replicas are on different LSCs in the same MSC, and changes are applied asynchronously; and wherein in semi-synchronous replication, some replicas are placed on nodes of the same selected LSC and some replicas are placed on nodes of another LSC, some replicas are in the same LSC, and some replicas are in different LSCs.
A fan frame capable of accommodating a fan for blowing air or cooling and comprising a hole (532, 542, 562, 572, 582, 592) for fixing a fixing member, wherein the hole (532, 542, 562, 572, 582, 592) includes a first hole portion (532a, 542a, 562a, 572a, 582a, 592a) opened in an attachment surface onto which a supporting member, fixable by the fixing member, is attachable and a second hole portion extending (532b, 542b, 562b, 572b, 582, 592b) from the first hole portion (532a, 542a, 562a, 572a, 582a, 592a) and having a predetermined inner diameter, and the first hole portion (532a, 542a, 562a, 572a, 582a, 592a) is formed to have a diameter larger than that of the second hole portion (532b, 542b, 562b, 572b, 582, 592b), characterized in that the first hole portion (532a, 542a, 562a, 572a, 582a, 592a) of the hole (532, 542, 562, 572, 582, 592) is reduced in diameter toward the second hole portion (532b, 542b, 562b, 572b, 582b, 592b) and, at the same time, curved convexly inward or concavely outward from the axis direction toward the second hole portion (532b, 542b, 562b, 572b, 582, 592b).
Torch with at least two electrically operated light sources (30, 41), and a distance meter (72, 73) which measures the distance from the distance meter (72, 73) to an object or surface characterised in that a regulating device is provided which is operatively connected to the distance meter (72, 73), which regulates the luminosity of at least one of the light sources as a function of a defined distance and switches off at least a second luminous means immediately when the distance falls below the defined distance, as a result of which a reduced residual luminosity of the torch is provided and in that the control device is designed, to provide after the end of a dimming process of the at least one light sources, to switch on the at least second light sources again with adapted luminosity up to a distance-dependent total luminosity of the light sources after the end of the dimming, wherein the light sources (30, 41) can be a single illuminant element or a group of illuminant elements. at least two electrically operated light sources (30, 41), and a distance meter (72, 73) which measures the distance from the distance meter (72, 73) to an object or surface characterised in that a regulating device is provided which is operatively connected to the distance meter (72, 73), which regulates the luminosity of at least one of the light sources as a function of a defined distance and switches off at least a second luminous means immediately when the distance falls below the defined distance, as a result of which a reduced residual luminosity of the torch is provided and in that the control device is designed, to provide after the end of a dimming process of the at least one light sources, to switch on the at least second light sources again with adapted luminosity up to a distance-dependent total luminosity of the light sources after the end of the dimming, wherein the light sources (30, 41) can be a single illuminant element or a group of illuminant elements.
Conductor connection terminal comprising a busbar piece and a clamping spring which has a clamping limb, which is oriented towards the busbar piece, for forming a clamping point for clamping an electrical conductor between the clamping limb and the busbar piece, has a spring bow which adjoins the clamping limb, and has a bearing limb, characterized in that the bearing limb, by way of a vertical section, extends transversely in relation to the busbar piece, wherein the vertical section of the bearing limb has a recess with boundary edges which engage around the busbar piece, and wherein a horizontal section of the bearing limb, which horizontal section extends in the direction of main extent of the busbar piece, is bent away from the vertical section, wherein the horizontal section is arranged at a distance from the busbar piece and merges with the spring bow, and in that the busbar piece has a bearing wall which is arranged adjacent to a wall surface of the vertical section of the bearing limb, which wall surface is situated on that side of the vertical section which is averted from the clamping limb, and wherein the bearing wall is designed to support the vertical section of the bearing limb by way of that wall surface which is averted from the clamping limb.
A manifold, being a component to guide fluid flow in a dispense interface of a drug delivery device, comprising: - at least two valve receptacles (7666, 7672) and - a fluid groove arrangement comprising at least two fluid grooves (7630, 7640, 7650); characterized in - that a first fluid groove of the at least two fluid grooves has a starting point near or at a first valve receptacle of the at least two valve receptacles and an end point near or at a second valve receptacle of the at least two valve receptacles; and - that a second fluid groove of the at least two fluid grooves has a starting point near or at the second valve receptacle of the at least two valve receptacles. - at least two valve receptacles (7666, 7672) and - a fluid groove arrangement comprising at least two fluid grooves (7630, 7640, 7650); - that a first fluid groove of the at least two fluid grooves has a starting point near or at a first valve receptacle of the at least two valve receptacles and an end point near or at a second valve receptacle of the at least two valve receptacles; and - that a second fluid groove of the at least two fluid grooves has a starting point near or at the second valve receptacle of the at least two valve receptacles.
A valve, comprising: a housing; an inlet and an inlet flange; an outlet and an outlet flange; a poppet head configured to move with respect to a valve outlet of the valve to control fluid flow from the inlet flange to the outlet flange via movement of the poppet head; a first spring configured to be compressed with a force generated by fluid flow through the valve, wherein compression of the first spring allows the poppet head to move towards the valve outlet; and a second spring, configured to allow the poppet head to move toward the valve outlet when compressed; wherein the second spring is configured to be compressed by a a pressure created by a fluid flow from the inlet flange to the outlet flange urging the poppet head towards the outlet flange; the valve further comprising a piston connected to the poppet head at a first end of the piston; an inner housing; and a flange at a second end of the piston opposite the first end, and wherein the first and second springs (26, 28) are arranged concentrically around the piston, and wherein the first and second springs (26, 28) and the piston are arranged in the inner housing, characterised in that it further comprises a stopper arranged between the first and second springs (26, 28) in the inner housing, and wherein the stopper includes a body portion configured to engage a lip in the inner housing and a leg configured to engage the flange. a housing; an inlet and an inlet flange; an outlet and an outlet flange; a poppet head configured to move with respect to a valve outlet of the valve to control fluid flow from the inlet flange to the outlet flange via movement of the poppet head; a first spring configured to be compressed with a force generated by fluid flow through the valve, wherein compression of the first spring allows the poppet head to move towards the valve outlet; and a second spring, configured to allow the poppet head to move toward the valve outlet when compressed; wherein the second spring is configured to be compressed by a a pressure created by a fluid flow from the inlet flange to the outlet flange urging the poppet head towards the outlet flange; the valve further comprising a piston connected to the poppet head at a first end of the piston; an inner housing; and a flange at a second end of the piston opposite the first end, and wherein the first and second springs (26, 28) are arranged concentrically around the piston, and wherein the first and second springs (26, 28) and the piston are arranged in the inner housing, characterised in that it further comprises a stopper arranged between the first and second springs (26, 28) in the inner housing, and wherein the stopper includes a body portion configured to engage a lip in the inner housing and a leg configured to engage the flange.
Adapter for mounting an accessory part on a sheath of a barrel of an, in particular, automatic firearm, comprising a barrel axis, whereby - the adapter is substantially annular or tubular in shape, and - comprises at least two portions (32, 34) that may be arranged adjacently along the barrel axis, - a rear portion being formed, on the weapon side, so as to be geometrically complementary to the front end of the sheath, at least in part, and preferably such that it can be fastened thereto by means of screws, - and a front portion comprising a circle-cylindrical coupling surface on the outside thereof, for coupling of the accessory part, characterized in that - at least one bayonet extension being provided on the coupling surface so as to project radially outwards, and in that - at least one, preferably two, spring-loaded push button(s), which are diametrically opposing with respect to the barrel bore axis, is/are provided on the coupling surface. - the adapter is substantially annular or tubular in shape, and - comprises at least two portions (32, 34) that may be arranged adjacently along the barrel axis, - a rear portion being formed, on the weapon side, so as to be geometrically complementary to the front end of the sheath, at least in part, and preferably such that it can be fastened thereto by means of screws, - and a front portion comprising a circle-cylindrical coupling surface on the outside thereof, for coupling of the accessory part, characterized in that - at least one bayonet extension being provided on the coupling surface so as to project radially outwards, and in that - at least one, preferably two, spring-loaded push button(s), which are diametrically opposing with respect to the barrel bore axis, is/are provided on the coupling surface.
A lock for a vehicle door comprising at least one opening mechanism couplable with a first drive, a clutch mechanically transferable to a power transmitting state by at least one manual actuating element (22, 24), the clutch coupling the at least one opening mechanism with the first drive in the power transmitting state, a second drive coupled with a safety element, wherein the safety element in a first stationary position blocks manual actuation by means of an inner actuating element, and an analysis and control unit outputting corresponding control signals (S1, S2, S3, S4) to the first drive and to the second drive, characterized in that the second drive transfers the clutch from a separating state to a power transmitting state via the power transmission element.
A transmission method for transmitting auxiliary information used for synchronizing a presentation timing of a first content with a presentation timing of a second content, wherein the presentation time information of the first content is generated based on a first reference clock, the transmission method comprising: transmitting auxiliary information; wherein the presentation time information of the second content is generated based on a second reference clock that is different from the first reference clock; and the auxiliary information includes difference information indicating a difference between the first reference clock and the second reference clock; wherein the auxiliary information transmission causes the reception side to perform the synchronization of the presentation timing of the second content with the presentation timing of the first content; the first content includes video or audio data, wherein the presentation time information of the video or audio data of the first content is set based on the first reference clock; and the second content includes video or audio data, wherein the presentation time information of the video or audio data of the second content is set based on the second reference clock; characterized in that the first content and second content include scalably-coded video data; the first content provides the basic layer; and the second content provides the extension layer. transmitting auxiliary information; wherein the presentation time information of the second content is generated based on a second reference clock that is different from the first reference clock; and the auxiliary information includes difference information indicating a difference between the first reference clock and the second reference clock; wherein the auxiliary information transmission causes the reception side to perform the synchronization of the presentation timing of the second content with the presentation timing of the first content; the first content includes video or audio data, wherein the presentation time information of the video or audio data of the first content is set based on the first reference clock; and the second content includes video or audio data, wherein the presentation time information of the video or audio data of the second content is set based on the second reference clock; characterized in that the first content and second content include scalably-coded video data; the first content provides the basic layer; and the second content provides the extension layer.