mhurhangee/ep-ind-claims huggingface dataset:
A plant molded product molding process comprising the following steps: producing paper pulp based on plants as raw material; obtaining high consistency paper pulp by adding water into the raw material of the paper pulp and crushing a mixture thereof, and obtaining paper seriflux via the high consistency paper pulp being diluted with water; obtaining high consistency plant seriflux by adding water into plant raw materials and then crushing and wall-breaking a mixture thereof, and obtaining plant seriflux via the high consistency plant seriflux being diluted with water; dehydrating the paper seriflux to form a paper pulp enveloping layer of a molded product; dehydrating the plant seriflux to form a plant pulp layer of the molded product; fitting the paper pulp enveloping layer with the plant pulp layer, performing state-of-change on the non-cellulosic material of the plant pulp layer and then migrating the plant pulp layer after being performed state-of-change toward the pulp enveloping layer by changing the temperature and the pressure of the molded product, so as to combine and mold the plant pulp layer with the paper pulp enveloping layer. producing paper pulp based on plants as raw material; obtaining high consistency paper pulp by adding water into the raw material of the paper pulp and crushing a mixture thereof, and obtaining paper seriflux via the high consistency paper pulp being diluted with water; obtaining high consistency plant seriflux by adding water into plant raw materials and then crushing and wall-breaking a mixture thereof, and obtaining plant seriflux via the high consistency plant seriflux being diluted with water; dehydrating the paper seriflux to form a paper pulp enveloping layer of a molded product; dehydrating the plant seriflux to form a plant pulp layer of the molded product; fitting the paper pulp enveloping layer with the plant pulp layer, performing state-of-change on the non-cellulosic material of the plant pulp layer and then migrating the plant pulp layer after being performed state-of-change toward the pulp enveloping layer by changing the temperature and the pressure of the molded product, so as to combine and mold the plant pulp layer with the paper pulp enveloping layer.
Pull-out system for a household appliance, in particular cooking appliance, which has a fixed retaining rail, a movable intermediate rail and a pull-out rail supported movably by way of ball bearings for retaining a food carrier, wherein the intermediate rail is supported between the pull-out rail and the retaining rail by way of ball bearings and of which at least the intermediate rail is coated with a first coating which has a lubricant, wherein at least one of the other rails (23, 27; 23) is coated with a second coating or is uncoated, characterised in that - the lubricant coating has a binding agent which retains the lubricant on the rail (25; 27; 23, 27; 23); and - lubricant particles in the pull-out system which have been rubbed off from the lubricant coating as a result of rotation of the ball bearings reach running or sliding surfaces also as a result of the rotation of the ball bearings, said running or sliding surfaces not being in contact with a lubricant coating. - the lubricant coating has a binding agent which retains the lubricant on the rail (25; 27; 23, 27; 23); and - lubricant particles in the pull-out system which have been rubbed off from the lubricant coating as a result of rotation of the ball bearings reach running or sliding surfaces also as a result of the rotation of the ball bearings, said running or sliding surfaces not being in contact with a lubricant coating.
A process for making a garment starting from a fabric having a main longitudinal direction of extension and a transverse direction perpendicular to the longitudinal direction, said process comprising: a printing step in which a plurality of printed bands having placed designs along at least said transverse direction are printed on said fabric, and being characterised in that: said fabric comprises a first elastic thread and a second non-elastic thread, which extend substantially together and in the same direction, with a periodicity of two stitches, said process comprising: a winding step in which the fabric, after said printing step, is wound, a cutting step in which said fabric is cut, and not sewn, heat-sealed or glued along the edges, in correspondence with cutting lines suitable to reciprocally divide said single printed bands, and in that said printed bands have a width, in said transverse direction, proportional to a dimension of said garment, a finishing step wherein the garment is made, after said printing step, winding step and cutting step, in which pre-finished rolls of said fabric not sewn, heat-sealed or glued along the edges are finished.
A hermetic compressor comprising: a shell; a frame disposed inside the shell; a crankshaft having a hollow hole therein and rotatably mounted to the frame; and an oil pump mounted at a lower portion of the crankshaft and having an impeller rotatable together with the crankshaft, the impeller having one side immersed in oil stored in a lower region of the shell and another side communicating with the hollow hole such that the oil is pumped from the one side thereof toward the other side thereof by centrifugal force, wherein the hollow hole comprises an inclined hole (1461, 246), and wherein a central axis of the inclined hole (1461, 246) is, with respect to an orthogonal XYZ coordinate system having a Z-axis aligning with a rotational axis of the crankshaft, inclined to the Z-axis on both the YZ plane and the XZ plane of the coordinate system when the central axis of the inclined hole (1461, 246) is projected to each of the YZ plane and the XZ plane, characterized in that the inclined hole (1461, 246) has an elliptical shape on a cross-sectional plane perpendicular to the rotational axis of the crankshaft. a shell; a frame disposed inside the shell; a crankshaft having a hollow hole therein and rotatably mounted to the frame; and an oil pump mounted at a lower portion of the crankshaft and having an impeller rotatable together with the crankshaft, the impeller having one side immersed in oil stored in a lower region of the shell and another side communicating with the hollow hole such that the oil is pumped from the one side thereof toward the other side thereof by centrifugal force, wherein the hollow hole comprises an inclined hole (1461, 246), and wherein a central axis of the inclined hole (1461, 246) is, with respect to an orthogonal XYZ coordinate system having a Z-axis aligning with a rotational axis of the crankshaft, inclined to the Z-axis on both the YZ plane and the XZ plane of the coordinate system when the central axis of the inclined hole (1461, 246) is projected to each of the YZ plane and the XZ plane, characterized in that the inclined hole (1461, 246) has an elliptical shape on a cross-sectional plane perpendicular to the rotational axis of the crankshaft.
A non-antibody polypeptide binding specifically to Taq DNA polymerase, the polypeptide being represented by the amino acid sequence of SEQ ID NO: 3 to 13.
An apparatus comprising: - a movable member having a base end, an opposing probe end and three or more segments separated by two or more rotational axes of movement between said base end and said probe end wherein at least two of the said rotational axes of movement are not parallel: - a continuous movable position reporting device having a base end, an opposing probe end and three or more stiff segments separated by two or more rotational axes of movement between said base end and said probe end wherein at least two of the said rotational axes of movement are not parallel: and - a transmission (72, 73, 74, 75, 76, 77) in contact with both said movable member and said movable position reporting device, wherein the contact of said transmission with said movable member is located anywhere between said probe end and the rotational axis of movement closest to said base end such that movement of said movable member causes movement of said movable position reporting device wherein said transmission comprises a plurality of discrete transmissions and a least one of said discrete transmission is not rigid. - a movable member having a base end, an opposing probe end and three or more segments separated by two or more rotational axes of movement between said base end and said probe end wherein at least two of the said rotational axes of movement are not parallel: - a continuous movable position reporting device having a base end, an opposing probe end and three or more stiff segments separated by two or more rotational axes of movement between said base end and said probe end wherein at least two of the said rotational axes of movement are not parallel: and - a transmission (72, 73, 74, 75, 76, 77) in contact with both said movable member and said movable position reporting device, wherein the contact of said transmission with said movable member is located anywhere between said probe end and the rotational axis of movement closest to said base end such that movement of said movable member causes movement of said movable position reporting device wherein said transmission comprises a plurality of discrete transmissions and a least one of said discrete transmission is not rigid.
A method of analysing a polymer comprising polymer units, the method comprising: during translocation of a polymer through a nanopore controlled by a molecular ratchet to be performed in a ratcheted manner in which successive k-mers are registered with the nanopore while a voltage is applied across the nanopore, making measurements of ion current flow through the nanopore that are dependent on the identity of k-mers in the nanopore, a k-mer being k polymer units of the polymer, where k is a positive integer, wherein the measurements comprise, in respect of individual k-mers, separate measurements made at different levels of said voltage applied across the nanopore; and analysing the measurements at said different levels of said voltage to determine the identity of at least part of the polymer. during translocation of a polymer through a nanopore controlled by a molecular ratchet to be performed in a ratcheted manner in which successive k-mers are registered with the nanopore while a voltage is applied across the nanopore, making measurements of ion current flow through the nanopore that are dependent on the identity of k-mers in the nanopore, a k-mer being k polymer units of the polymer, where k is a positive integer, wherein the measurements comprise, in respect of individual k-mers, separate measurements made at different levels of said voltage applied across the nanopore; and analysing the measurements at said different levels of said voltage to determine the identity of at least part of the polymer.
Coated gas turbine engine part comprising a substrate and at least one calcium-magnesium-alumino-silicate (CMAS) protection layer present on said substrate, the layer comprising a first phase of a calcium-magnesium-alumino-silicate (CMAS) protection material and a second phase comprising particles of an anti-wetting material dispersed in the first phase, the anti-wetting material corresponding to a material or mixture of materials selected from the following materials: - CaF 2, - LnPO 4 where Ln = La (lanthanum), Gd (gadolinium), Sm (samarium), Nd (neodymium), - MAX phases M n+1 AX n with n=1,2,3 where M = Sc (scandium), Y (yttrium), La (lanthanum), Mn (manganese), Re (rhenium), W (tungsten), Hf (hafnium), Zr (zirconium), Ti (titanium), where A = groups IIIA, IVA, VA, VIA and where X = C,N, - AIN, and - BN. - CaF 2, - LnPO 4 where Ln = La (lanthanum), Gd (gadolinium), Sm (samarium), Nd (neodymium), - MAX phases M n+1 AX n with n=1,2,3 where M = Sc (scandium), Y (yttrium), La (lanthanum), Mn (manganese), Re (rhenium), W (tungsten), Hf (hafnium), Zr (zirconium), Ti (titanium), where A = groups IIIA, IVA, VA, VIA and where X = C,N, - AIN, and - BN.
Method for melt-spinning synthetic threads, in which a polymer melt is conveyed through a multiple spinning pump and fed to a plurality of spinning nozzles at an operating pressure, in which the spinning nozzles extrude the polymer melt respectively into a multiplicity of filaments and in which the spinning nozzles are regularly serviced, characterized in that at least one service due time for servicing at least one of the spinning nozzles is predetermined or determined by a machine control device, and in that, once the service due time is reached, a control command for activating a spinning nozzle robot is generated by the machine control device, which control command at least initiates the servicing of the spinning nozzles.
A plug for hot tube-making, comprising: a plug main body; a build-up layer formed on a surface of a front portion of the plug main body around an axis of the plug main body by build-up welding, the build-up layer including a tapered surface and coating a front end of the plug main body, the build-up layer comprising a matrix metal selected from Co-based alloy, Ni-based alloy or Fe-based alloy and a sprayed coating containing a metallic matrix made of iron and an iron oxide, wherein the surface of the plug main body includes: a first surface region in which the build-up layer is to be formed; and a second surface region provided behind the first surface region in the plug main body, and the sprayed coating is formed on an entire surface of the build-up layer and on the second surface region. a plug main body; a build-up layer formed on a surface of a front portion of the plug main body around an axis of the plug main body by build-up welding, the build-up layer including a tapered surface and coating a front end of the plug main body, the build-up layer comprising a matrix metal selected from Co-based alloy, Ni-based alloy or Fe-based alloy and a sprayed coating containing a metallic matrix made of iron and an iron oxide, wherein the surface of the plug main body includes: a first surface region in which the build-up layer is to be formed; and a second surface region provided behind the first surface region in the plug main body, and a first surface region in which the build-up layer is to be formed; and a second surface region provided behind the first surface region in the plug main body, and the sprayed coating is formed on an entire surface of the build-up layer and on the second surface region.
A fibrous nonwoven web structure comprising: from 10 percent by weight to 55 percent by weight, more preferably from 15 percent by weight to 50 percent by weight, and even more preferably from 20 percent by weight to 45 percent by weight melt spun polymer filaments; from 45 percent by weight to 90 percent by weight cellulose pulp fibers, more preferably from 50 percent by weight to 85 percent by weight cellulose pulp fibers, and still more preferably from 55 percent by weight to 85 percent by weight cellulose pulp fibers; and a distribution of a plurality of macroscopically visible shaped particles of substantially similar size and shape having an overall dimension of from 1.5 mm to 6.0 mm, and a maximum ratio of overall dimension to area of 3.5 mm -1 and wherein the shaped particles have been punched or cut from a sheet material. from 10 percent by weight to 55 percent by weight, more preferably from 15 percent by weight to 50 percent by weight, and even more preferably from 20 percent by weight to 45 percent by weight melt spun polymer filaments; from 45 percent by weight to 90 percent by weight cellulose pulp fibers, more preferably from 50 percent by weight to 85 percent by weight cellulose pulp fibers, and still more preferably from 55 percent by weight to 85 percent by weight cellulose pulp fibers; and a distribution of a plurality of macroscopically visible shaped particles of substantially similar size and shape having an overall dimension of from 1.5 mm to 6.0 mm, and a maximum ratio of overall dimension to area of 3.5 mm -1 and wherein the shaped particles have been punched or cut from a sheet material.
Hybrid room ventilation device comprising: at least one passive ventilation member (16, 18) to be arranged in an external wall of a room, at least one active ventilation member, and a control device for controlling both the passive and the active ventilation members, wherein the at least one passive ventilation member (16, 18) is adapted to be motor-driven for opening and closing by the control device, characterized in that the active ventilation member is an external wall-mounted device to be installed below the passive ventilation member (16, 18) at the external wall and arranged to suck-in external air through an external air opening in the external wall and to discharge the air as temperature-controlled fresh air into the room, and in that the control device has at least one mode of operation in which the active ventilation member discharges temperature-controlled fresh air into the room and said at least one passive ventilation member (16, 18) is open simultaneously.
A solid ion conductor comprising: a garnet-type oxide represented by Formula 4 below: <Formula 4> Li 5+x+2y (D y, La 3-y)Zr 2 O d wherein D is K, Rb, or Cs, and 0<x+2y≤3, 0<y≤0.5, and 0<d≤12. a garnet-type oxide represented by Formula 4 below: <Formula 4> Li 5+x+2y (D y, La 3-y)Zr 2 O d wherein D is K, Rb, or Cs, and 0<x+2y≤3, 0<y≤0.5, and 0<d≤12.
A method comprising: receiving, by a first provider edge, PE, device of a layer 3 network, configuration data configuring the first PE device to provide, via an Ethernet segment with an edge device, active-active multi-homing layer 2 virtual bridge connectivity to the edge device using an Ethernet Virtual Private Network, EVPN, instance; receiving, by the first PE device, a multicast Join message for multicast traffic, the multicast Join message identifying a second PE device that also participates in the EVPN instance; processing, by the first PE device, the multicast Join message to generate multicast forwarding state; and forwarding, by the first PE device based at least on the multicast forwarding state and in response to determining the first PE device is a designated forwarder for the EVPN instance for the Ethernet segment, the multicast traffic on the Ethernet segment to the edge device. receiving, by a first provider edge, PE, device of a layer 3 network, configuration data configuring the first PE device to provide, via an Ethernet segment with an edge device, active-active multi-homing layer 2 virtual bridge connectivity to the edge device using an Ethernet Virtual Private Network, EVPN, instance; receiving, by the first PE device, a multicast Join message for multicast traffic, the multicast Join message identifying a second PE device that also participates in the EVPN instance; processing, by the first PE device, the multicast Join message to generate multicast forwarding state; and forwarding, by the first PE device based at least on the multicast forwarding state and in response to determining the first PE device is a designated forwarder for the EVPN instance for the Ethernet segment, the multicast traffic on the Ethernet segment to the edge device.
A cutting head for a device for cutting hair that uses a laser beam, the laser beam having a longitudinal axis that extends across a cutting zone, said laser beam having an effective cutting region (X,Y) in which the laser beam is of a sufficient intensity to cut hair entering said region, the cutting head comprising a guard (21, 25) adjacent to said cutting zone that, during use of the device, contacts a user's skin so that the user's skin conforms to the shape of the guard and spaces the laser beam from said user's skin, characterised in that the guard has a non-planar shape in a direction extending across the cutting zone in the longitudinal direction of the laser beam so that it substantially follows a contour that extends across the cutting zone in the longitudinal direction of the laser beam, and which defines an edge of said effective cutting region of the laser beam such that, during use of the device, any variation in the distance between said edge of the effective cutting region and a user's skin, which is in conformity with the shape of the guard, across the length of the cutting zone is reduced.
A baler comprising: - a baler frame; - a bale chamber configured to form a bale from bale material; and - a gate assembly comprising, - a belt guide mechanism coupled to a side of the baler frame and guide one or more belts used to form the bale; - a shield pivotably coupled to the side of the baler frame and configured to limit contact with one or more components of the baler; and - a linkage assembly coupled between the belt guide mechanism and the shield; the belt guide mechanism is configured to pivot between a lower belt guide mechanism position and a raised belt guide mechanism position to allow the bale to be ejected from the bale chamber, and the linkage assembly is configured to pivot the shield between a lower shield position and a raised shield position responsive to the pivoting of the belt guide mechanism characterized in that the linkage assembly comprises: a shield support arm coupled between the shield and the baler frame; and a linkage arm coupled between the shield support arm and the belt guide mechanism. - a baler frame; - a bale chamber configured to form a bale from bale material; and - a gate assembly comprising, - a belt guide mechanism coupled to a side of the baler frame and guide one or more belts used to form the bale; - a shield pivotably coupled to the side of the baler frame and configured to limit contact with one or more components of the baler; and - a linkage assembly coupled between the belt guide mechanism and the shield; - a belt guide mechanism coupled to a side of the baler frame and guide one or more belts used to form the bale; - a shield pivotably coupled to the side of the baler frame and configured to limit contact with one or more components of the baler; and - a linkage assembly coupled between the belt guide mechanism and the shield; a shield support arm coupled between the shield and the baler frame; and a linkage arm coupled between the shield support arm and the belt guide mechanism.