mhurhangee/ep-ind-claims huggingface dataset:
Dental tools system comprising a mold comprising a plurality of mold holes, each mold hole comprising a top portion and a bottom portion; wherein the mold comprises a mold base, which comprises the bottom portions of the mold holes; a mold superstructure, which comprises the top portions of the mold holes, each top portion having a cross section which decreases in the direction towards the mold base; wherein the mold base and the mold superstructure may be engaged in more than one operation position so that some top portions match with bottom portions in each operation position; wherein the mold base comprises first positioning means and the mold superstructure comprises second positioning means suitable for interacting with the first positioning means in a stable position to keep constant the relative position of the mold base and the mold superstructure. wherein the first positioning means and the second positioning means have more than one stable position; characterized in that the dental tools system further comprises: a plurality of guide tabs; and a plurality of tissue punch heads; wherein each guide tab fits in the top portion of one of the mold holes, the guide tab and the top portion of the mold hole having corresponding size and shape; and each tissue punch head fits in the top portion of one of the mold holes, the tissue punch head and the top portion of the mold hole having corresponding size and shape; wherein the fitting in the top portion is such that at least part of a top portion of the mold holes has a shape such that when a guide tab or a tissue punch head is placed in this top portion, it reaches a position with stable equilibrium. a mold base, which comprises the bottom portions of the mold holes; a mold superstructure, which comprises the top portions of the mold holes, each top portion having a cross section which decreases in the direction towards the mold base; a plurality of guide tabs; and a plurality of tissue punch heads; each guide tab fits in the top portion of one of the mold holes, the guide tab and the top portion of the mold hole having corresponding size and shape; and each tissue punch head fits in the top portion of one of the mold holes, the tissue punch head and the top portion of the mold hole having corresponding size and shape;
A nonpneumatic tire (100; 200; 300; 500; 600; 700; 800; 1000; 1100) comprising: a plurality of rubber layers having a substantially circular shape, wherein each rubber layer includes an upper ring (120; 710; 1020) defining a tread portion (210; 310; 510; 610; 1010; 1120), and wherein each rubber layer further includes a plurality of spoke portions (140; 220; 320; 520; 620; 730; 810; 1030; 1130) extending from the upper ring (120; 710; 1020); characterised in that the nonpneumatic tire further comprises: a plurality of elongated reinforcement cords (150; 230; 330; 820) extending in a substantially radial direction, each reinforcement cord (150; 230; 330; 820) being disposed between the spoke portions (140; 220; 320; 520; 620; 730; 810; 1030; 1130) of adjacent rubber layers, wherein each reinforcement cord (150; 230; 330; 820) is constructed of a material that shrinks in length by 0.1% to 10% when subjected to a temperature between 38° C to 260° C and a pressure between 0.10 mPa to 0.70 mPa, and wherein each spoke portion (140; 220; 320; 520; 620; 730; 810; 1030; 1130) is under tension when the tread portion (210; 310; 510; 610; 1010; 1120) is not in contact with a ground surface. wherein each rubber layer includes an upper ring (120; 710; 1020) defining a tread portion (210; 310; 510; 610; 1010; 1120), and wherein each rubber layer further includes a plurality of spoke portions (140; 220; 320; 520; 620; 730; 810; 1030; 1130) extending from the upper ring (120; 710; 1020); characterised in that the nonpneumatic tire further comprises: a plurality of elongated reinforcement cords (150; 230; 330; 820) extending in a substantially radial direction, each reinforcement cord (150; 230; 330; 820) being disposed between the spoke portions (140; 220; 320; 520; 620; 730; 810; 1030; 1130) of adjacent rubber layers, wherein each reinforcement cord (150; 230; 330; 820) is constructed of a material that shrinks in length by 0.1% to 10% when subjected to a temperature between 38° C to 260° C and a pressure between 0.10 mPa to 0.70 mPa, and wherein each spoke portion (140; 220; 320; 520; 620; 730; 810; 1030; 1130) is under tension when the tread portion (210; 310; 510; 610; 1010; 1120) is not in contact with a ground surface. wherein each reinforcement cord (150; 230; 330; 820) is constructed of a material that shrinks in length by 0.1% to 10% when subjected to a temperature between 38° C to 260° C and a pressure between 0.10 mPa to 0.70 mPa, and wherein each spoke portion (140; 220; 320; 520; 620; 730; 810; 1030; 1130) is under tension when the tread portion (210; 310; 510; 610; 1010; 1120) is not in contact with a ground surface.
A standard electronic module for an electric stringed musical instrument comprising: a shield box; a connector printed circuit board arranged outside the shield box; a main printed circuit board within the shield box, wherein the main printed circuit board comprises at least one connecting mate, further wherein the connecting mate allows electrical connection of the main printed circuit board to the connector printed circuit board; and a battery compartment connected with the shield box, wherein the standard electronic module is adapted to fit into a module cavity within a main body of the electric stringed musical instrument; characterized in that the shield box has a floor, in which a recessed cavity is formed by walls, and which floor includes at least one opening adapted to accommodate a connection between the connector printed circuit board and the main printed circuit board, wherein the walls of the recessed cavity and a top of the connector printed ciruit board form cavities that provide space for electronic connections of the connector printed circuit board, and thereby of the main printed circuit board, to electronic wiring of the electric stringed musical instrument. a shield box; a connector printed circuit board arranged outside the shield box; a main printed circuit board within the shield box, wherein the main printed circuit board comprises at least one connecting mate, further wherein the connecting mate allows electrical connection of the main printed circuit board to the connector printed circuit board; and a battery compartment connected with the shield box, wherein the standard electronic module is adapted to fit into a module cavity within a main body of the electric stringed musical instrument; characterized in that the shield box has a floor, in which a recessed cavity is formed by walls, and which floor includes at least one opening adapted to accommodate a connection between the connector printed circuit board and the main printed circuit board, wherein the walls of the recessed cavity and a top of the connector printed ciruit board form cavities that provide space for electronic connections of the connector printed circuit board, and thereby of the main printed circuit board, to electronic wiring of the electric stringed musical instrument.
A method of producing a dry lecithin fatty acid blend, comprising: (a) obtaining a lecithin-containing material, derived from a crude refining stream, comprising 15-50 wt% water, 10-30 wt% acetone insoluble matter, and 10-20 wt% free fatty acid; (b) adding a fatty acid source to the lecithin-containing material to obtain a reaction mixture; and (c) passing a dry gas through the reaction mixture to obtain a lecithin fatty acid blend comprising less than 1 wt% water, 20-40 wt% acetone insoluble matter, and 35-48 wt% fatty acid. (a) obtaining a lecithin-containing material, derived from a crude refining stream, comprising 15-50 wt% water, 10-30 wt% acetone insoluble matter, and 10-20 wt% free fatty acid; (b) adding a fatty acid source to the lecithin-containing material to obtain a reaction mixture; and (c) passing a dry gas through the reaction mixture to obtain a lecithin fatty acid blend comprising less than 1 wt% water, 20-40 wt% acetone insoluble matter, and 35-48 wt% fatty acid.
A condition monitoring system for performing a transformation of mixed elevator data, the condition monitoring system comprising: a computer sub-system comprising a memory storing transformation software thereon, and a processor coupled to the memory, the processor configured to execute the transformation software to cause the condition monitoring system to: acquire quantitative and qualitative information; transform the quantitative and qualitative information to produce transformed information; wherein the transformation of the qualitative information comprises mapping individual data series from the qualitative information to a continuous domain; execute analytics on the transformed information; and generate predictions based on the analytics of the transformed information. a computer sub-system comprising a memory storing transformation software thereon, and a processor coupled to the memory, the processor configured to execute the transformation software to cause the condition monitoring system to: acquire quantitative and qualitative information; transform the quantitative and qualitative information to produce transformed information; wherein the transformation of the qualitative information comprises mapping individual data series from the qualitative information to a continuous domain; execute analytics on the transformed information; and generate predictions based on the analytics of the transformed information. acquire quantitative and qualitative information; transform the quantitative and qualitative information to produce transformed information; wherein the transformation of the qualitative information comprises mapping individual data series from the qualitative information to a continuous domain; execute analytics on the transformed information; and generate predictions based on the analytics of the transformed information.
Process for producing hydrogen from a hydrocarbon feedstock comprising: passing the feedstock through the sequential stages of steam methane reforming, water gas shift, and hydrogen separation, in which at least a portion of a tail gas from a separate plant for production of gasoline or diesel is added downstream the steam methane reforming stage and upstream the water gas shift stage; and wherein the tail gas comprises: 5-35 vol. % carbon monoxide 5-35 vol. % hydrogen (H 2) 5-35 vol. % carbon dioxide (CO 2) more than 2 vol. % methane (CH 4). 5-35 vol. % carbon monoxide 5-35 vol. % hydrogen (H 2) 5-35 vol. % carbon dioxide (CO 2) more than 2 vol. % methane (CH 4).
A pneumatic radial tire, the tire comprising: a pair of opposing bead areas, wherein each bead area includes a bead core and a bead apex; at least one carcass reinforcing ply, the reinforcing ply including a turn up portion at each bead core, each turn up portion including a radially outward end; a pair of chippers (72, 82) disposed axially inwardly of one or each turn up portion outward end, the pair of chippers (72, 82) including a first chipper and a second chipper; wherein the first chipper is disposed axially inwardly of the respective bead apex and the second chipper is disposed axially outwardly of the first chipper and axially inwardly of the respective bead apex; wherein an inboard surface of the second chipper is bonded to an outboard surface of the first chipper; wherein a radially inward end of the first chipper is disposed radially outwardly of the bead core and the first chipper extends past the turn up portion radially outward end; and wherein a radially inward end of the second chipper is disposed radially outwardly of the bead core and the second chipper extends past the turn up portion radially outward end; characterized in that the radially inward end of the second chipper is disposed radially outwardly of the radially inward end of the first chipper by a radial distance of at least 5 millimeters. a pair of opposing bead areas, wherein each bead area includes a bead core and a bead apex; at least one carcass reinforcing ply, the reinforcing ply including a turn up portion at each bead core, each turn up portion including a radially outward end; a pair of chippers (72, 82) disposed axially inwardly of one or each turn up portion outward end, the pair of chippers (72, 82) including a first chipper and a second chipper; wherein the first chipper is disposed axially inwardly of the respective bead apex and the second chipper is disposed axially outwardly of the first chipper and axially inwardly of the respective bead apex; wherein an inboard surface of the second chipper is bonded to an outboard surface of the first chipper; wherein a radially inward end of the first chipper is disposed radially outwardly of the bead core and the first chipper extends past the turn up portion radially outward end; and wherein a radially inward end of the second chipper is disposed radially outwardly of the bead core and the second chipper extends past the turn up portion radially outward end; characterized in that the radially inward end of the second chipper is disposed radially outwardly of the radially inward end of the first chipper by a radial distance of at least 5 millimeters.
A delivery system (100, 1000) for sheathing a crimpable implantable device (10, 20) and deploying the implantable device (10, 20) within a body of a patient, the delivery system (100, 1000) comprising: a delivery device (101, 1001) to position and deploy the implantable device (10, 20), the delivery device (101, 1001) having a tubular member including an outer sheath (126, 1026) and configured to receive and house the implantable device (10, 20) in a crimped state for delivery to a target location within the body of the patient, the delivery device (101, 1001) having a partially sheathed configuration, a fully sheathed delivery configuration, and a deployed configuration; and a sheathing mechanism including a translational member (202, 204) that is axially displaceable relative to the tubular member of the delivery device (101, 1001) and that is disposed over the outer sheath (126, 1026), wherein the distal movement of the translational member (202, 204) relative to the delivery device (101, 1001) distally moves the outer sheath (126, 1026)_to crimp the implantable device (10, 20) and transition the delivery device (101, 1001) from the partially sheathed configuration to the fully sheathed delivery configuration to sheathe the implantable device (10, 20), characterized in that the sheathing mechanism comprises: a plurality of sheathing fingers to crimp an unsheathed portion of the implantable device (10, 20); and the translational member (202, 204) comprising a tapered member disposed at a distal end of the translational member (202, 204) to interact with the plurality of sheathing fingers and translate axial movement of the translational member (202, 204) in a distal direction along the tubular member into radial force to compress and thereby crimp the unsheathed portion of the implantable device (10, 20). a delivery device (101, 1001) to position and deploy the implantable device (10, 20), the delivery device (101, 1001) having a tubular member including an outer sheath (126, 1026) and configured to receive and house the implantable device (10, 20) in a crimped state for delivery to a target location within the body of the patient, the delivery device (101, 1001) having a partially sheathed configuration, a fully sheathed delivery configuration, and a deployed configuration; and a sheathing mechanism including a translational member (202, 204) that is axially displaceable relative to the tubular member of the delivery device (101, 1001) and that is disposed over the outer sheath (126, 1026), wherein the distal movement of the translational member (202, 204) relative to the delivery device (101, 1001) distally moves the outer sheath (126, 1026)_to crimp the implantable device (10, 20) and transition the delivery device (101, 1001) from the partially sheathed configuration to the fully sheathed delivery configuration to sheathe the implantable device (10, 20),
A propulsion system (1, 1') for an aircraft, comprising at least one rotor and a nacelle fairing extending around said at least one rotor with respect to an axis of rotation of said rotor, this nacelle fairing comprising an upstream section forming an inlet cross-section of the nacelle fairing and a downstream section, a downstream end of which forms an outlet cross-section of the nacelle fairing; the downstream section comprises a radially internal wall and a radially external wall made of a deformable shape-memory material, and characterised in that the downstream end forming the outlet cross-section comprises a plurality of pneumatic or hydraulic actuators (23, 23'), the actuators (23, 23') extending in different consecutive angular sectors about said axis of rotation, each actuator (23, 23') being actuatable independently of the other actuators and being configured to deform in a direction which is radial with respect to the axis of rotation and which is angularly centred with respect to the angular sector over which it extends under a predetermined command pressure.
An antibody that binds transforming growth factor beta (TGFβ)1, TGFβ2 and TGFβ3 comprising: (a) a heavy chain CDR1 amino acid sequence set forth in SEQ ID NO: 19; (b) a heavy chain CDR2 amino acid sequence set forth in SEQ ID NO: 20; and (c) a heavy chain CDR3 amino acid sequence set forth in SEQ ID NO: 21; (d) a light chain CDR1 amino acid sequence set forth in SEQ ID NO: 22; (e) a light chain CDR2 amino acid sequence set forth in SEQ ID NO: 23; and (f) a light chain CDR3 amino acid sequence set forth in SEQ ID NO: 24; wherein the antibody binds to TGFβ1 and TGFβ2 with greater affinity than TGFβ3 and binds TGFβ1 and TGFβ2 with an affinity Kd of 10 -9 M or less as measured by surface plasmon resonance or kinetic exclusion assay. (a) a heavy chain CDR1 amino acid sequence set forth in SEQ ID NO: 19; (b) a heavy chain CDR2 amino acid sequence set forth in SEQ ID NO: 20; and (c) a heavy chain CDR3 amino acid sequence set forth in SEQ ID NO: 21; (d) a light chain CDR1 amino acid sequence set forth in SEQ ID NO: 22; (e) a light chain CDR2 amino acid sequence set forth in SEQ ID NO: 23; and (f) a light chain CDR3 amino acid sequence set forth in SEQ ID NO: 24; wherein the antibody binds to TGFβ1 and TGFβ2 with greater affinity than TGFβ3 and binds TGFβ1 and TGFβ2 with an affinity Kd of 10 -9 M or less as measured by surface plasmon resonance or kinetic exclusion assay.
Pulverulent mortar which is optionally mixed with water and comprises at least one inorganic hydraulic binder, and at least 75% by mortar powder volume of thermally insulating additives which are substantially in the form of beads and have a thermal conductivity of less than or equal to 55 mW/m.K, characterized in that the thermally insulating additives are watertight, and at least 20% by mortar powder volume of said additives, which are referred to as insulating microspheres, are unicellular, which means that they have a closed outer shell delimiting a core formed by a single inner cavity, and are micron-scale, with a maximum average outer characteristic size of less than 0.5 mm, a majority of the insulating microspheres have an actual density as measured by air pycnometer of less than or equal to 0.25.
A method for providing a User Interface, UI, list in a remote system, the method comprising: executing, by a first terminal which communicates with a remote server, an application; said method being characterised by: on the basis of a message that an embedded server in the first terminal receives from the application, generating, by the embedded server in the first terminal, a new UI list by combining a UI list currently included in the embedded server and a UI list of the remote server enclosed in the message; receiving, by the embedded server in the first terminal. a request for a UI list from a second terminal; and sending, by the embedded server in the first terminal, the new UI list to the second terminal. executing, by a first terminal which communicates with a remote server, an application; said method being characterised by: on the basis of a message that an embedded server in the first terminal receives from the application, generating, by the embedded server in the first terminal, a new UI list by combining a UI list currently included in the embedded server and a UI list of the remote server enclosed in the message; receiving, by the embedded server in the first terminal. a request for a UI list from a second terminal; and sending, by the embedded server in the first terminal, the new UI list to the second terminal. on the basis of a message that an embedded server in the first terminal receives from the application, generating, by the embedded server in the first terminal, a new UI list by combining a UI list currently included in the embedded server and a UI list of the remote server enclosed in the message; receiving, by the embedded server in the first terminal. a request for a UI list from a second terminal; and sending, by the embedded server in the first terminal, the new UI list to the second terminal.
A bogie frame for a railway vehicle, the bogie frame comprising structural members (14, 16) defining the frame, and one or more reinforcing components (60, 60a, 60b, 60c, 160, 260) joining the structural members (14, 16), the or each reinforcing component (60, 60a, 60b, 60c, 160, 260) comprising: a first fibre-reinforced plastic layer (70, 170, 270) having spaced first and second end portions (72, 74, 172, 174, 272, 274), the first end portion (72, 172, 272) attaching to a first structural member of the bogie frame, and the second end portion (74, 174, 274) attaching to a second structural member of the bogie frame, wherein the first and second structural members (14, 16) are also joined together by one or more fastening bolts; and a second fibre-reinforced plastic layer (76, 176, 276) disposed on a mid part of the first fibre-reinforced plastic layer (70, 170, 270) between its first and second end portions (72, 74, 172, 174, 272, 274) such that the first and second end portions (72, 74, 172, 174, 272, 274) are left uncovered by the second fibre-reinforced plastic layer (76, 176, 276), wherein the second fibre-reinforced plastic layer (76, 176, 276) forms with the mid part of the first fibre-reinforced plastic layer (70, 170, 270) a central portion (78, 178, 278) of the reinforcing component (60, 60a, 60b, 60c, 160, 260) that is stronger than the first and second end portions (72, 74, 172, 174, 272, 274), and wherein at least the first and second end portions (72, 74, 172, 174, 272, 274) of the first fibre-reinforced plastic layer (70, 170, 270) are transparent or translucent. a first fibre-reinforced plastic layer (70, 170, 270) having spaced first and second end portions (72, 74, 172, 174, 272, 274), the first end portion (72, 172, 272) attaching to a first structural member of the bogie frame, and the second end portion (74, 174, 274) attaching to a second structural member of the bogie frame, wherein the first and second structural members (14, 16) are also joined together by one or more fastening bolts; and a second fibre-reinforced plastic layer (76, 176, 276) disposed on a mid part of the first fibre-reinforced plastic layer (70, 170, 270) between its first and second end portions (72, 74, 172, 174, 272, 274) such that the first and second end portions (72, 74, 172, 174, 272, 274) are left uncovered by the second fibre-reinforced plastic layer (76, 176, 276), wherein the second fibre-reinforced plastic layer (76, 176, 276) forms with the mid part of the first fibre-reinforced plastic layer (70, 170, 270) a central portion (78, 178, 278) of the reinforcing component (60, 60a, 60b, 60c, 160, 260) that is stronger than the first and second end portions (72, 74, 172, 174, 272, 274), and wherein at least the first and second end portions (72, 74, 172, 174, 272, 274) of the first fibre-reinforced plastic layer (70, 170, 270) are transparent or translucent.