mhurhangee/ep-ind-claims huggingface dataset:
A method of making a tillage blade comprising: obtaining a generally circular sheet metal steel disc having a outer peripheral edge, the disc being disposed generally in a first plane, the disc having a central portion, the central portion having central axis of rotation perpendicular to the first plane; making waves in the outer peripheral edge of a circular steel disc in a predetermined pattern; sharpening the peripheral edge by grinding the peripheral edge, after making the waves in the outer peripheral edge, so that all of portions of the peripheral edge that have been ground are disposed generally at a predetermined acute angle with respect to the first plane, the first plane extending through such portions of the peripheral edge; and heat treating the disc after the disc has been sharpened. obtaining a generally circular sheet metal steel disc having a outer peripheral edge, the disc being disposed generally in a first plane, the disc having a central portion, the central portion having central axis of rotation perpendicular to the first plane; making waves in the outer peripheral edge of a circular steel disc in a predetermined pattern; sharpening the peripheral edge by grinding the peripheral edge, after making the waves in the outer peripheral edge, so that all of portions of the peripheral edge that have been ground are disposed generally at a predetermined acute angle with respect to the first plane, the first plane extending through such portions of the peripheral edge; and heat treating the disc after the disc has been sharpened.
An automation system for monitoring a safety-critical process, comprising - a non-failsafe platform for executing user programs (24, 26), which implement a safety function, - a fail-safe peripheral module, via which the safety-critical process can be coupled to the user programs (24, 26), and - a monitoring device configured to ensure fail-safe execution of the safety function on the non-failsafe platform, wherein the monitoring device is couplable to the non-failsafe platform via a first communication interface and the fail-safe peripheral module is couplable to the non-failsafe platform via a second communication interface, wherein the monitoring device is configured to run at least one fail-safe service independently of the non-failsafe platform in order to exchange data generated cyclically by the fail-safe service with the fail-safe peripheral module according to a defined scheme, and wherein the fail-safe peripheral module is configured to signal a safe state based on the implemented safety function and based on the data exchange which takes place via the non-failsafe platform. - a non-failsafe platform for executing user programs (24, 26), which implement a safety function, - a fail-safe peripheral module, via which the safety-critical process can be coupled to the user programs (24, 26), and - a monitoring device configured to ensure fail-safe execution of the safety function on the non-failsafe platform, wherein the monitoring device is couplable to the non-failsafe platform via a first communication interface and the fail-safe peripheral module is couplable to the non-failsafe platform via a second communication interface, wherein the monitoring device is configured to run at least one fail-safe service independently of the non-failsafe platform in order to exchange data generated cyclically by the fail-safe service with the fail-safe peripheral module according to a defined scheme, and wherein the fail-safe peripheral module is configured to signal a safe state based on the implemented safety function and based on the data exchange which takes place via the non-failsafe platform.
Computer-implemented method for exchanging information among distributed computer nodes connected in a specific network, the method implementing a Directed Acyclic Graph, DAG, consensus algorithm, being a Hashgraph consensus algorithm, via using a gossip about gossip protocol, the method comprising steps for - making a first given node (N 1) select a second given node (N 4) randomly and send reference information; - determining based on the reference information which node events are in front of the other (N 1); the method being characterized by - If the reference information implies that the events of the first given node (N 1) are in front of the events of the second given node (N 4), --then sending a cancellation information to the first given node (N 1), preventing, in consequence, the first given node (N 1) from sending DAG-event information to the second given node (N 4); - If the reference information implies that the events of the second given node (N 4) are in front of the events of the first given node (N 1), --then making the first given node (N 1) send DAG-event information to the second given node (N 4); -- then making the second given node (N 4) send DAG-event information to the first given node (N 1); - and so on for other nodes, so as to synchronise and propagate the DAG-event information (6, 7) through the network. - making a first given node (N 1) select a second given node (N 4) randomly and send reference information; - determining based on the reference information which node events are in front of the other (N 1); the method being characterized by - If the reference information implies that the events of the first given node (N 1) are in front of the events of the second given node (N 4), --then sending a cancellation information to the first given node (N 1), preventing, in consequence, the first given node (N 1) from sending DAG-event information to the second given node (N 4); --then sending a cancellation information to the first given node (N 1), preventing, in consequence, the first given node (N 1) from sending DAG-event information to the second given node (N 4); - If the reference information implies that the events of the second given node (N 4) are in front of the events of the first given node (N 1), --then making the first given node (N 1) send DAG-event information to the second given node (N 4); -- then making the second given node (N 4) send DAG-event information to the first given node (N 1); --then making the first given node (N 1) send DAG-event information to the second given node (N 4); -- then making the second given node (N 4) send DAG-event information to the first given node (N 1); - and so on for other nodes, so as to synchronise and propagate the DAG-event information (6, 7) through the network.
Pressure pod for haemodialysis medical lines comprising a hollow body formed by an upper half-shell and a lower half-shell which delimit a gas chamber and a liquid chamber, respectively, hermetically separated from each other by an intermediate flexible membrane, the liquid chamber being provided with inlet and outlet tubular connectors (10, 11) for connection to the haemodialysis line, and wherein at least one of said tubular connectors is associated to a female luer-lock connector, characterised in that said female connector comprises an outer tubular body made of a relatively rigid thermoplastic material and an inner tubular body made of a relatively soft thermoplastic material coaxially fitted within the outer tubular body, said outer tubular body being rotatable relative to the inner tubular body and axially blocked thereon, and between proximal axial portions (20, 21) of the inner and outer tubular bodies (13, 14) an annular cavity being defined within which said at least one tubular fitting is engaged which is fixed on said inner tubular body of the female connector.
A transmitter (110, 200, 410, 500) used for a wireless charging system (100, 400), the transmitter comprising: a plurality of phase locked loops (210, 211, 212, 213, 214, 215, 510), PLLs, configured to output single-phase power signals (310, 320, 330, 340, 350); a plurality of antennas (A, B, C, 220, 520) configured to transmit the power signals (310, 320, 330, 340, 350) transmitted from the plurality of PLLs (210, 211, 212, 213, 214, 215, 510) to a receiver (120, 420); and characterized by comprising a controller (230, 530) configured to determine a specific frequency for the receiver (120, 420) based on a signal strength indication, RSSI, received from the receiver (120, 420) and to allow output frequencies of the plurality of PLLs (210, 211, 212, 213, 214, 215, 510) to be different from each other in a specific frequency band preset based on the specific frequency, wherein the controller (230, 530) determines the specific frequency based on information about a frequency being used by the receiver (120, 420), and wherein the information is included in the RSSI. a plurality of phase locked loops (210, 211, 212, 213, 214, 215, 510), PLLs, configured to output single-phase power signals (310, 320, 330, 340, 350); a plurality of antennas (A, B, C, 220, 520) configured to transmit the power signals (310, 320, 330, 340, 350) transmitted from the plurality of PLLs (210, 211, 212, 213, 214, 215, 510) to a receiver (120, 420); and characterized by comprising a controller (230, 530) configured to determine a specific frequency for the receiver (120, 420) based on a signal strength indication, RSSI, received from the receiver (120, 420) and to allow output frequencies of the plurality of PLLs (210, 211, 212, 213, 214, 215, 510) to be different from each other in a specific frequency band preset based on the specific frequency, wherein the controller (230, 530) determines the specific frequency based on information about a frequency being used by the receiver (120, 420), and wherein the information is included in the RSSI.
A sensor-equipped brake pad for the braking system of a motor vehicle, comprising a printed circuit board, a rear support plate having a recess in which said printed circuit board is fixed, at least one force sensor mounted on said printed circuit board, a block of friction material mounted on said rear plate, wherein said printed circuit board is interposed between said rear plate and said block of friction material, characterised in that it comprises a structural stiffening means for said printed circuit board.
A method for supplying a plastic material that contains rubber, to a material feeding port (4, 14) of an extruder (1, 11) provided with a screw (3, 13) which extrudes the material, the method comprising supplying the material, shaped into a band having a width A, to the material feeding port (4, 14) wherein the width A of the material is 50% to 150% of a flight width (C, C1) of the screw (3, 13), characterized in that the material has a rectangular cross-section, and a thickness B of the material is not less than 50% of a net flight depth (E, E1) of the screw (3, 13). supplying the material, shaped into a band having a width A, to the material feeding port (4, 14) wherein the width A of the material is 50% to 150% of a flight width (C, C1) of the screw (3, 13), characterized in that the material has a rectangular cross-section, and a thickness B of the material is not less than 50% of a net flight depth (E, E1) of the screw (3, 13).
A bone fastener comprising: a head (110, 210, 310, 410, 510); and a screw portion (120, 220, 320, 420a, 420b, 430, 520a, 520b, 530) extending from the head (110, 210, 310, 410, 510), the screw portion (120, 220, 320, 420a, 420b, 430, 520a, 520b, 530) having a shaft (128, 228) and a thread (122, 222, 322) extending along and about the shaft (128, 228), the thread (122, 222, 322) having a height (h) extending from a root to a tip thereof, the thread (122, 222, 322) also having first and second portions (124, 126), the first portion and the entire second portion disposed between the root and the tip, the second portion having a porous structure configured to promote bone ingrowth and having a porosity greater than that of the first portion, wherein the remainder of the bone fastener other than thread, said remainder including the head, the shaft, and a distal tip of the screw portion, has a solid structure similar to that of first portion of thread, wherein the first portion of the thread (122, 222, 322) is positioned further from the shaft (128, 228) than the second portion. a head (110, 210, 310, 410, 510); and a screw portion (120, 220, 320, 420a, 420b, 430, 520a, 520b, 530) extending from the head (110, 210, 310, 410, 510), the screw portion (120, 220, 320, 420a, 420b, 430, 520a, 520b, 530) having a shaft (128, 228) and a thread (122, 222, 322) extending along and about the shaft (128, 228), the thread (122, 222, 322) having a height (h) extending from a root to a tip thereof, the thread (122, 222, 322) also having first and second portions (124, 126), the first portion and the entire second portion disposed between the root and the tip, the second portion having a porous structure configured to promote bone ingrowth and having a porosity greater than that of the first portion, wherein the remainder of the bone fastener other than thread, said remainder including the head, the shaft, and a distal tip of the screw portion, has a solid structure similar to that of first portion of thread, wherein the first portion of the thread (122, 222, 322) is positioned further from the shaft (128, 228) than the second portion.
A table (1; 10) having a height-adjustable table top (2; 20) and two support structures (3; 30), wherein the table top (2; 20) is fastened to the support structures (3; 30) so that the support structures (3; 30) support the table top (2; 20), wherein the support structures (3; 30) are placeable on a floor, the table (1; 10) comprises at least one strap (4; 40) that connects the support structures (3; 30) and the table top (2; 20) to one another, so that the table top (2; 20) is supported by the support structures (3; 30) by suspension on the support structures (3; 30) by means of the at least one strap (4; 40), the two support structures (3; 30) are each laterally of the table top (2; 20) situated, wherein the at least one strap (4; 40) connects the support structures (3; 30) and the table top (2; 20) to one another in such a way that the table top (2; 20) is suspended between the two support structures (3; 30), and the table top (2; 20) has a bottom side and a top side (21; 210), characterized in that the at least one strap (4; 40) extends from one of the two support structures (3; 30), along the bottom side of the table top (2; 20), to the other of the two support structures (3; 30). the table top (2; 20) is fastened to the support structures (3; 30) so that the support structures (3; 30) support the table top (2; 20), wherein the support structures (3; 30) are placeable on a floor, the table (1; 10) comprises at least one strap (4; 40) that connects the support structures (3; 30) and the table top (2; 20) to one another, so that the table top (2; 20) is supported by the support structures (3; 30) by suspension on the support structures (3; 30) by means of the at least one strap (4; 40), the two support structures (3; 30) are each laterally of the table top (2; 20) situated, wherein the at least one strap (4; 40) connects the support structures (3; 30) and the table top (2; 20) to one another in such a way that the table top (2; 20) is suspended between the two support structures (3; 30), and the table top (2; 20) has a bottom side and a top side (21; 210), characterized in that the at least one strap (4; 40) extends from one of the two support structures (3; 30), along the bottom side of the table top (2; 20), to the other of the two support structures (3; 30).
Relay socket providing an interface between a relay and a mounting structure, such as a panel or a busbar, the relay socket comprising: an upper section configured for mounting a respective relay, a lower section configured for mounting the relay socket to the mounting structure and mounting holes opening to an upper surface of the upper section, the mounting holes being configured to receive fastening elements of the relay, characterised in that the relay socket further comprises at least one set of sleeve inserts, the sleeve inserts being configured to be fastened within the mounting holes and surrounding a fixation member, adapted for being connected to the fastening elements of the relay. an upper section configured for mounting a respective relay, a lower section configured for mounting the relay socket to the mounting structure and mounting holes opening to an upper surface of the upper section, the mounting holes being configured to receive fastening elements of the relay, characterised in that the relay socket further comprises at least one set of sleeve inserts, the sleeve inserts being configured to be fastened within the mounting holes and surrounding a fixation member, adapted for being connected to the fastening elements of the relay.
A system comprising: a light source configured to produce an emitted light beam; at least one support structure; at least one etalon positioned to receive the emitted light beam from the light source and configured to generate a plurality of product light beams with a resultant interference pattern from the emitted light beam, the etalon being mounted to the support structure at one or more pivot points; a detector positioned to receive the plurality of product light beams generated from the etalon, the detector being configured to measure intensity values for the plurality of product light beams based on the generated interference pattern; and a computing device coupled to the detector, the computing device comprising a processor and a memory coupled to the processor so that the processor executes programmed instructions stored in the memory that causes the computing device to: determine, based on the measured intensity values, modulation of the interference pattern for the plurality of product light beams; and determine a change in position of the etalon relative to the one or more pivot points based on the modulation of the interference pattern for the plurality of product light beams. a light source configured to produce an emitted light beam; at least one support structure; at least one etalon positioned to receive the emitted light beam from the light source and configured to generate a plurality of product light beams with a resultant interference pattern from the emitted light beam, the etalon being mounted to the support structure at one or more pivot points; a detector positioned to receive the plurality of product light beams generated from the etalon, the detector being configured to measure intensity values for the plurality of product light beams based on the generated interference pattern; and a computing device coupled to the detector, the computing device comprising a processor and a memory coupled to the processor so that the processor executes programmed instructions stored in the memory that causes the computing device to: determine, based on the measured intensity values, modulation of the interference pattern for the plurality of product light beams; and determine a change in position of the etalon relative to the one or more pivot points based on the modulation of the interference pattern for the plurality of product light beams. determine, based on the measured intensity values, modulation of the interference pattern for the plurality of product light beams; and determine a change in position of the etalon relative to the one or more pivot points based on the modulation of the interference pattern for the plurality of product light beams.
A method for fabricating an array substrate motherboard, comprising: providing a substrate including a plurality of gate lines, gate line driving leads, data lines, and data line driving leads, wherein each gate line is connected to one gate line driving lead, and each data line is connected to one data line driving lead; forming a plurality of gate line testing leads, wherein each gate line testing lead is connected with a corresponding gate line driving lead; forming a plurality of data line testing leads, wherein each data line testing lead is connected with a corresponding subset of the plurality of data line driving leads; forming a plurality of gate line testing pads, wherein each gate line testing pad is connected with a corresponding gate line testing lead; forming a plurality of data line testing pads, wherein each data line testing pad is connected with two corresponding data line testing leads; using the plurality of gate line testing pads and the plurality of data line testing pads to test the plurality of gate lines and the plurality of data lines, and characterized in forming an insulating layer between the data line testing leads and the data line driving leads wherein each data line driving lead is connected with two data line testing leads that penetrate through the insulating layer through two via-holes, respectively, and the two data line testing leads are connected to a same data line testing pad. providing a substrate including a plurality of gate lines, gate line driving leads, data lines, and data line driving leads, wherein each gate line is connected to one gate line driving lead, and each data line is connected to one data line driving lead; forming a plurality of gate line testing leads, wherein each gate line testing lead is connected with a corresponding gate line driving lead; forming a plurality of data line testing leads, wherein each data line testing lead is connected with a corresponding subset of the plurality of data line driving leads; forming a plurality of gate line testing pads, wherein each gate line testing pad is connected with a corresponding gate line testing lead; forming a plurality of data line testing pads, wherein each data line testing pad is connected with two corresponding data line testing leads; using the plurality of gate line testing pads and the plurality of data line testing pads to test the plurality of gate lines and the plurality of data lines, and characterized in forming an insulating layer between the data line testing leads and the data line driving leads wherein each data line driving lead is connected with two data line testing leads that penetrate through the insulating layer through two via-holes, respectively, and the two data line testing leads are connected to a same data line testing pad.
A disintegrating particle composition whose average particle size is 1-500 μm and wherein a water-insoluble starch and a water-soluble binding agent are present in the ratio by weight of 1:0.01-1:0.75 and in the spherical form of complex particles, said starch being in a form of particles and being singly and uniformly dispersed in the matrix of the water-soluble binding agent, wherein said water-insoluble starch is a starch derived from grain, bean, tuber or root of plant, wherein said water-soluble binding agent is saccharide or saccharide alcohol or amino acid, and wherein said saccharide or saccharide alcohol is a member selected from the group consisting of xylitol, erythritol, maltitol, sorbitol, mannitol, lactose, sucrose, glucose, fructose, maltitol, trehalose and palatinose.