mhurhangee/ep-ind-claims huggingface dataset:
A method for machining a workpiece on a numerically controlled machine tool by means of a tool, comprising: - controlling a relative movement of said tool relative to said workpiece for machining said workpiece, - generating an ultrasonic vibration of said tool by means of an ultrasonic generator, - acquiring at least one sensor signal output from said ultrasonic generator, and - identifying a material change on said workpiece while controlling said relative movement of said tool relative to said workpiece based on said at least one sensor signal output by said ultrasonic generator, wherein controlling said relative movement of said tool relative to said workpiece is carried out based on specified machining parameters, wherein, in said step of identifying a material change on said workpiece, a temporal change and, at the same time, a change in value of one or more parameters of said sensor signal of said ultrasonic generator is acquired; and wherein the method further comprises: - determining whether said temporal change and said change in value of said at least one sensor signal of said ultrasound generator fall below a predetermined change time, respectively, and at the same time exceed a predetermined change value, respectively, and said predetermined machining parameters are adapted when said temporal change and said change in value of said at least one sensor signal of said ultrasonic generator fall below said predetermined change time, respectively, and at the same time exceed said predetermined change value, respectively. - controlling a relative movement of said tool relative to said workpiece for machining said workpiece, - generating an ultrasonic vibration of said tool by means of an ultrasonic generator, - acquiring at least one sensor signal output from said ultrasonic generator, and - identifying a material change on said workpiece while controlling said relative movement of said tool relative to said workpiece based on said at least one sensor signal output by said ultrasonic generator, wherein controlling said relative movement of said tool relative to said workpiece is carried out based on specified machining parameters, wherein, in said step of identifying a material change on said workpiece, a temporal change and, at the same time, a change in value of one or more parameters of said sensor signal of said ultrasonic generator is acquired; and wherein the method further comprises: - determining whether said temporal change and said change in value of said at least one sensor signal of said ultrasound generator fall below a predetermined change time, respectively, and at the same time exceed a predetermined change value, respectively, and - determining whether said temporal change and said change in value of said at least one sensor signal of said ultrasound generator fall below a predetermined change time, respectively, and at the same time exceed a predetermined change value, respectively, and
A method of distributing spent catalyst in a spent catalyst regenerator for a fluidized catalytic cracking unit comprising the steps of: a. collecting spent catalyst in a main trough and, optionally, fluidizing and/or aerating said spent catalyst; and one or more of the following groups of steps b.1 and c.1; b.2 and c.2; and b.3 and c.3: b.1. passing said spent catalyst from said main trough to a plurality of distribution troughs located along each side of the main trough; and c.1 feeding said spent catalyst from said plurality of distribution troughs to a catalyst bed; b.2 passing a percentage of said spent catalyst from said main trough to a plurality of sub-troughs; and c.2 feeding said spent catalyst from said plurality of sub-troughs and from said main trough to a catalyst bed; b.3 passing a percentage of said spent catalyst from said main trough to a plurality of downflow tubes located on the bottom of said main trough; c.3 feeding said spent catalyst remaining in said main trough to a catalyst bed via at least one selected from the group consisting of a plurality of cutouts located along the walls of said main trough and a plurality of distribution troughs located on the sides of said main trough and feeding said spent catalyst in said plurality of downflow tubes to said catalyst bed. a. collecting spent catalyst in a main trough and, optionally, fluidizing and/or aerating said spent catalyst; b.1. passing said spent catalyst from said main trough to a plurality of distribution troughs located along each side of the main trough; and c.1 feeding said spent catalyst from said plurality of distribution troughs to a catalyst bed; b.2 passing a percentage of said spent catalyst from said main trough to a plurality of sub-troughs; and c.2 feeding said spent catalyst from said plurality of sub-troughs and from said main trough to a catalyst bed; b.3 passing a percentage of said spent catalyst from said main trough to a plurality of downflow tubes located on the bottom of said main trough; c.3 feeding said spent catalyst remaining in said main trough to a catalyst bed via at least one selected from the group consisting of a plurality of cutouts located along the walls of said main trough and a plurality of distribution troughs located on the sides of said main trough and feeding said spent catalyst in said plurality of downflow tubes to said catalyst bed.
A seed delivery system housing comprising a wear liner, the seed delivery system housing containing, at least in part, a transport mechanism for moving seed along a seed path through the seed delivery system housing, the wear liner comprising: a wear liner insert extending along a portion of the seed path within the seed delivery system housing, the wear liner insert including a wear surface interposed between the transport mechanism and the seed delivery system housing to protect at least one of the seed and the seed delivery system housing from wear, characterized in that the wear liner insert includes a plurality of distinct insert sections (1400a, 1400b, 1400c) including at least two of an upper insert section, a middle insert section, and a lower insert section.
A medium processing apparatus comprising: a receiving and dispensing port at which a medium is inserted and withdrawn; a discriminating unit configured to determine whether the medium is normal; a temporary storage in which an abnormal medium determined to be abnormal by the discriminating unit during withdrawal is temporarily stored; a reject cassette in which the abnormal medium temporarily stored in the temporary storage and a carried abnormal medium among media being withdrawn are collected and stored; a plurality of recycling cassettes configured to store media to be withdrawn; a first driving unit configured to drive a carrying path between an outlet of the discriminating unit, the receiving and dispensing port and the temporary storage; a second driving unit configured to drive a carrying path between an inlet of the discriminating unit and an inlet of the reject cassette and be a belt-roller type; and a third driving unit configured to drive a carrying path between the inlet of the reject cassette and inlets of the plurality of recycling cassettes and be a belt-guide type; characterised by when the discriminating unit senses the carried abnormal medium during withdrawal of media, the first driving unit remains in a driven state in a withdrawal direction and the second driving unit and the third driving unit are controlled to stop being driven. a receiving and dispensing port at which a medium is inserted and withdrawn; a discriminating unit configured to determine whether the medium is normal; a temporary storage in which an abnormal medium determined to be abnormal by the discriminating unit during withdrawal is temporarily stored; a reject cassette in which the abnormal medium temporarily stored in the temporary storage and a carried abnormal medium among media being withdrawn are collected and stored; a plurality of recycling cassettes configured to store media to be withdrawn; a first driving unit configured to drive a carrying path between an outlet of the discriminating unit, the receiving and dispensing port and the temporary storage; a second driving unit configured to drive a carrying path between an inlet of the discriminating unit and an inlet of the reject cassette and be a belt-roller type; and a third driving unit configured to drive a carrying path between the inlet of the reject cassette and inlets of the plurality of recycling cassettes and be a belt-guide type; characterised by when the discriminating unit senses the carried abnormal medium during withdrawal of media, the first driving unit remains in a driven state in a withdrawal direction and the second driving unit and the third driving unit are controlled to stop being driven.
A food product quality control system comprising: a support structure; an inspection unit for detecting at least one property of a food product supplied to the inspection unit, the inspection unit being mounted on the support structure; and a conveyor system for conveying a food product through and/or past the inspection unit, the conveyor system being mounted on the support structure; wherein the conveyor system comprises a conveying apparatus carried on a frame, characterised by the frame being movably mounted to the support structure such that the frame may move relative to the inspection unit between an operation position, at which the frame is laterally aligned with the inspection unit such that food product may be conveyed through and/or past the inspection unit, and a maintenance position, at which the frame is laterally offset from the inspection unit. a support structure; an inspection unit for detecting at least one property of a food product supplied to the inspection unit, the inspection unit being mounted on the support structure; and a conveyor system for conveying a food product through and/or past the inspection unit, the conveyor system being mounted on the support structure; wherein the conveyor system comprises a conveying apparatus carried on a frame, characterised by the frame being movably mounted to the support structure such that the frame may move relative to the inspection unit between an operation position, at which the frame is laterally aligned with the inspection unit such that food product may be conveyed through and/or past the inspection unit, and a maintenance position, at which the frame is laterally offset from the inspection unit.
A method of production of edge protection strips of ceramic material, comprising the steps of: - arranging a sheet-like article of ceramic material, wherein the sheet-like article is elongated along a longitudinal axis and is provided with an exposed surface; - incising the exposed surface of the sheet-like article along two distinct incision planes, parallel to each other, orthogonal to the exposed surface and intersecting each the exposed surface of the sheet-like article along an incision line parallel to the longitudinal axis of the sheet-like article; - cutting the sheet-like article along two cutting planes each intersecting an incision plane along a cutting line parallel to the incision lines and mutually incident in an intersection line comprised in the thickness of the sheet-like article; and - separating a substantially prismatic edge protection strip from the sheet-like article, wherein the edge protection strip comprises a first portion of exposed surface internal to the incision lines. - arranging a sheet-like article of ceramic material, wherein the sheet-like article is elongated along a longitudinal axis and is provided with an exposed surface; - incising the exposed surface of the sheet-like article along two distinct incision planes, parallel to each other, orthogonal to the exposed surface and intersecting each the exposed surface of the sheet-like article along an incision line parallel to the longitudinal axis of the sheet-like article; - cutting the sheet-like article along two cutting planes each intersecting an incision plane along a cutting line parallel to the incision lines and mutually incident in an intersection line comprised in the thickness of the sheet-like article; and - separating a substantially prismatic edge protection strip from the sheet-like article, wherein the edge protection strip comprises a first portion of exposed surface internal to the incision lines.
A lubricant composition for a compression-ignition internal combustion engine, said lubricant composition comprising: an amine selected from the group consisting of,,,, and defined as follows: wherein each of R 1 to R 9 are independently selected from a hydrogen, a C 1-6 branched or straight alkyl or a halogen; and R 10 is selected from hydrogen, hydroxy or a C 1-20 branched or straight alkyl; wherein R 1 and R 2 are independently selected from C 1-20 branched or straight alkyl; wherein each of R 1 and R 2 are independently selected from a hydrogen, a C 1-6 branched or straight alkyl or a halogen; m and y are independently an integer of 1 to 6 and n is 1 to 7; wherein R 1, R 2, and R 3 are independently selected from C 1-20 branched or straight alkyl; and wherein R 1 to R 4 are independently selected from hydrogen and a C 1-6 alkyl and m is an integer of 1-12; and a detergent selected from metal sulfonates, phenates, salicylates, carboxylates, thiophosphonates, and combinations thereof, wherein a TBN of said lubricant composition is from 10 to 100 mg KOH/g when tested according to ASTM D2896; and wherein a TBN contribution of said amine to said TBN of said lubricant composition is from 0.1 to 28 %. an amine selected from the group consisting of,,,, and defined as follows: wherein each of R 1 to R 9 are independently selected from a hydrogen, a C 1-6 branched or straight alkyl or a halogen; and R 10 is selected from hydrogen, hydroxy or a C 1-20 branched or straight alkyl; wherein R 1 and R 2 are independently selected from C 1-20 branched or straight alkyl; wherein each of R 1 and R 2 are independently selected from a hydrogen, a C 1-6 branched or straight alkyl or a halogen; m and y are independently an integer of 1 to 6 and n is 1 to 7; wherein R 1, R 2, and R 3 are independently selected from C 1-20 branched or straight alkyl; and wherein R 1 to R 4 are independently selected from hydrogen and a C 1-6 alkyl and m is an integer of 1-12; and a detergent selected from metal sulfonates, phenates, salicylates, carboxylates, thiophosphonates, and combinations thereof, wherein a TBN of said lubricant composition is from 10 to 100 mg KOH/g when tested according to ASTM D2896; and wherein a TBN contribution of said amine to said TBN of said lubricant composition is from 0.1 to 28 %. wherein a TBN of said lubricant composition is from 10 to 100 mg KOH/g when tested according to ASTM D2896; and wherein a TBN contribution of said amine to said TBN of said lubricant composition is from 0.1 to 28 %.
An auxiliary drive (40; 60) of an internal combustion engine, having a shaft which is operatively connected to a crankshaft of the internal combustion engine and which has two shaft ends (42a, 42b) which are configured in each case for connection to a machine (24, 25) arranged outside the crankcase; characterized in that the shaft is mounted in a case section of a) the crankcase; or b) a control case in which a rear gear drive is mounted which is operatively connected to the internal combustion engine. a) the crankcase; or b) a control case in which a rear gear drive is mounted which is operatively connected to the internal combustion engine.
A sensor for blood pressure signal acquisition, comprising: a substrate having a top surface and a bottom surface, said substrate incorporating a force resistive electrically conductive sensing film; wherein the sensor further comprises a plurality of sensor elements, each sensor element comprising: a mechanical element (170,172) coupled to said top surface of said sensing film, said mechanical element (170,172) operative to transfer pressure from its top surface toward said sensing film when in contact with a user, wherein said mechanical element (170,172) comprises a hard material tubular shaped cylinder and a soft material dispensed on top of and completely filing the cylinder; and a pair of conductive elements affixed to one of said top or bottom surfaces of said sensing film, said pair of conductive elements spaced apart such that a change in resistance of said sensing film upon application of pressure to one or more of the plurality of mechanical element (170,172) is capable of being detected. a substrate having a top surface and a bottom surface, said substrate incorporating a force resistive electrically conductive sensing film; wherein the sensor further comprises a plurality of sensor elements, each sensor element comprising: a mechanical element (170,172) coupled to said top surface of said sensing film, said mechanical element (170,172) operative to transfer pressure from its top surface toward said sensing film when in contact with a user, wherein said mechanical element (170,172) comprises a hard material tubular shaped cylinder and a soft material dispensed on top of and completely filing the cylinder; and a pair of conductive elements affixed to one of said top or bottom surfaces of said sensing film, said pair of conductive elements spaced apart such that a change in resistance of said sensing film upon application of pressure to one or more of the plurality of mechanical element (170,172) is capable of being detected.
A tether-free sensor unit of spherical or ellipsoidal shape suitable for inspecting a pipeline which contains a moving liquid of lesser density than the sensor unit, said sensor unit being adapted to roll in the direction of flow of the liquid along the bottom of the interior of the pipeline, pushed by the flow of the liquid in the pipeline, wherein the sensor unit comprises a package containing (i) a sensor selected from at least one magnetic sensor and at least one accelerometer, configured to sense the number of revolutions of the sensor unit, and (ii) an acoustic sensor for detecting the sound of a leak, and (iii) means for recording data sensed by said sensors, (i) a sensor selected from at least one magnetic sensor and at least one accelerometer, configured to sense the number of revolutions of the sensor unit, and (ii) an acoustic sensor for detecting the sound of a leak, and (iii) means for recording data sensed by said sensors,
Metallic flat gasket with at least one metallic gasket layer, which is mainly flat and comprises a first and second surface (21, 22), a gasket plane of the gasket layer extending in the middle between the flat areas of the latter, wherein a protrusion is formed in the gasket layer, which protrudes beyond the first surface of the gasket layer and which has a greater length than width, wherein the protrusion possesses a first level in the form of a virtual plane running parallel to the gasket plane through the foot of the protrusion on the first surface of the gasket layer and a second level in the form of a further virtual plane running through the highest point of the protrusion, also parallel to the gasket plane of the gasket layer, wherein the protrusion comprises an ascending flank area between the two levels (N1, N2), the flank area comprising an undulating structure so as to comprise at least two waves in the direction between the two levels (N1, N2), respectively with a wave crest and a wave trough, characterized in that, in the area of the undulating structure, the material thickness of the gasket layer in the area of the side flanks is less by 10 to 40 % than the thickness of the gasket layer in the area of the wave crests or wave troughs.
A multi-chain Chimeric Antigen Receptor comprising at least: - one transmembrane polypeptide comprising at least one extracellular ligand-binding domain, wherein the at least one extracellular ligand-binding domain interacts with a cell surface molecule; and - one transmembrane polypeptide comprising at least one signal-transducing domain; wherein the signal transducing domain(s) of the multi-chain Chimeric Antigen Receptor is present on a polypeptide distinct from that carrying the extracellular ligand-binding domain(s). - one transmembrane polypeptide comprising at least one extracellular ligand-binding domain, wherein the at least one extracellular ligand-binding domain interacts with a cell surface molecule; and - one transmembrane polypeptide comprising at least one signal-transducing domain;
An elevator safety system, comprising a safety unit having a safety device and a trigger, the trigger is connected with the safety device and outputs an acting force from its output end to the safety device for actuating the safety device to perform safety operation to the elevator, wherein the safety unit further comprises a force amplifying device provided between the trigger and the safety device for amplifying the acting force output from the output end and then transmitting the amplified acting force to the safety device; characterized in that the force amplifying device is a rack and gear transmission mechanism, which comprises: a gear set having at least a first gear and a second gear; a first rack meshed with the first gear and connected with the output end; and a second rack meshed with the second gear and connected with the safety device to transmit the amplified acting force thereto. a gear set having at least a first gear and a second gear; a first rack meshed with the first gear and connected with the output end; and a second rack meshed with the second gear and connected with the safety device to transmit the amplified acting force thereto.
A visualization device comprising an actual light box, which comprises an illumination array and a limiting wall, which is a rear wall in relation to an observer, wherein the rear limiting wall of the actual light box is embodied as a screen and wherein the visualization device further comprises a computer, which is embodied to spatially display a virtual light box on the screen such that the virtual light box displayed on the screen appears to form a continuous rearward extension of the actual light box, creating the impression for the observer that a single contiguous light box is formed, and that the computer is further embodied to display at least one virtual object (O v) on the screen such that the virtual object (O v) is situated in the virtual light box, characterized in that the actual light box comprises an actual bottom limiting wall and actual side limiting walls (120, 130), in that actual transition regions (121, 131) that are rounded in a constant or facetted way are formed between the actual bottom limiting wall and each of the two actual side limiting walls (120, 130), in that the virtual light box comprises a virtual bottom limiting wall and virtual side limiting walls (220, 230), in that virtual transition regions (221, 231) that are rounded in a constant or facetted way are situated between the virtual bottom limiting wall and each of the two virtual side limiting walls (220, 230), and in that the actual transition regions (121, 131) and the virtual transition regions (221, 231) transition seamlessly into one another to an observer, wherein the actual transition regions (121, 131) and the virtual transition regions (221, 231) extend toward the rear.
Scandium-containing aluminium powder alloy, comprising, in % by weight, based on the total composition of the alloy Mg 0.5-10 Sc 0.4-30 Zr 0.05-1.5 Mn 0.01-1.5 Zn 0-2.0 Ti 0.01-0.2 Ce ≤ 0.25 Be 0-0.004 B 0-0.008 Si ≤ 0.25 Fe ≤ 0.25 Hf ≤ 0.5 at least one element selected from the group consisting of the lanthanum group excluding cerium, Y, Ga, Nb, Ta, W, V, Ni, Co, Mo, Li, Th and Ag, wherein the proportion of these elements is not more than 0.5, and Al as remainder with further impurities of not more than 0.5% by weight in total. at least one element selected from the group consisting of the lanthanum group excluding cerium, Y, Ga, Nb, Ta, W, V, Ni, Co, Mo, Li, Th and Ag, wherein the proportion of these elements is not more than 0.5, and Al as remainder with further impurities of not more than 0.5% by weight in total.