mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling synchronization of bus transactions to remote devices by use of directed memory barrier operations, the method comprising: issuing a device directed memory barrier command from a bus master; receiving in a bus interconnect circuit the device directed memory barrier command issued from the bus master, the method characterized in that: destination devices accessible by the bus master are arranged in a hierarchical arrangement having a corresponding multilevel interconnect; the device directed memory barrier command has an identification attribute that identifies a level interconnect in the multilevel interconnect; decoding the device directed memory barrier command and the identification attribute to select a destination device from the plurality of destination devices; and selectively routing a memory barrier command to the selected destination device according to the identified level interconnect in response to the decoding. issuing a device directed memory barrier command from a bus master; receiving in a bus interconnect circuit the device directed memory barrier command issued from the bus master, the method characterized in that: destination devices accessible by the bus master are arranged in a hierarchical arrangement having a corresponding multilevel interconnect; the device directed memory barrier command has an identification attribute that identifies a level interconnect in the multilevel interconnect; decoding the device directed memory barrier command and the identification attribute to select a destination device from the plurality of destination devices; and selectively routing a memory barrier command to the selected destination device according to the identified level interconnect in response to the decoding. destination devices accessible by the bus master are arranged in a hierarchical arrangement having a corresponding multilevel interconnect; the device directed memory barrier command has an identification attribute that identifies a level interconnect in the multilevel interconnect; decoding the device directed memory barrier command and the identification attribute to select a destination device from the plurality of destination devices; and selectively routing a memory barrier command to the selected destination device according to the identified level interconnect in response to the decoding.
Hot-rolled high-strength micro-alloyed steel strip having a thickness of between 2 and 16 mm with improved HAZ-softening resistance having a microstructure comprising martensite, tempered martensite and/or bainite, and where the steel contains, in percentages by weight: • 0.07 - 0.27% C; • 0.8 - 2.0% Mn; • 0.01-0.08% Al sol; • 0.2 - 1.5% Cr; • 0.1-0.7% Mo; • 0.0005-0.005 B; • 0.01-0.07% Nb; • at most 0.5% Si; • at most 0.03% P; • at most 0.015% S; • at most 0.05% Ti; • at most 0.1% V; • at most 0.2% Cu; • at most 0.2% Ni; • at most 0.008% N; • optionally calcium additions for sulphide shape control, at most 0.015%; • other elements in amounts of impurity level, balance iron; the yield strength of the steel strip being at least 960 MPa. • 0.07 - 0.27% C; • 0.8 - 2.0% Mn; • 0.01-0.08% Al sol; • 0.2 - 1.5% Cr; • 0.1-0.7% Mo; • 0.0005-0.005 B; • 0.01-0.07% Nb; • at most 0.5% Si; • at most 0.03% P; • at most 0.015% S; • at most 0.05% Ti; • at most 0.1% V; • at most 0.2% Cu; • at most 0.2% Ni; • at most 0.008% N; • optionally calcium additions for sulphide shape control, at most 0.015%; • other elements in amounts of impurity level, balance iron;
A casing of an electronic device, comprising: a flat metallic layer (102, 206) that is part of a housing, said metallic layer (102, 206) having a first surface (104, 210) and a second surface (110, 214) opposite to the first surface, wherein a through-slot (112, 216) extends through the layer from the first surface to the second surface of the metallic layer; and a moldable material (106, 208) that has been insert molded in the through-slot (112, 216) to entirely fill said through-slot and wherein said insert molded moldable material is substantially flush with said first and second surfaces characterized in that: the through-slot, when viewed from at least one direction parallel to the metallic layer, is an angled "T" shape (112, 312) as shown in fig. 1B or fig. 3B or a mushroom shape as shown in fig. 2B. a flat metallic layer (102, 206) that is part of a housing, said metallic layer (102, 206) having a first surface (104, 210) and a second surface (110, 214) opposite to the first surface, wherein a through-slot (112, 216) extends through the layer from the first surface to the second surface of the metallic layer; and a moldable material (106, 208) that has been insert molded in the through-slot (112, 216) to entirely fill said through-slot and wherein said insert molded moldable material is substantially flush with said first and second surfaces characterized in that: the through-slot, when viewed from at least one direction parallel to the metallic layer, is an angled "T" shape (112, 312) as shown in fig. 1B or fig. 3B or a mushroom shape as shown in fig. 2B.
An image analysis system configured for detecting a tissue region in a digital image of a tissue slide, wherein a tissue sample is mounted on the tissue slide, the image analysis system comprising a processor and a storage medium, the storage medium comprising a plurality of slide-type specific tissue detection routines (213, 214, 215, 216) and a generic tissue detection routine, the image analysis system being configured for performing a method comprising: - selecting one of the slide-type specific tissue detection routines; - checking, before or while the selected slide-type specific tissue detection routine is performed, if the selected slide-type specific tissue detection routine corresponds to the tissue slide type of the slide depicted in the digital image; - if yes, automatically performing the selected slide-type specific tissue detection routine for detecting the tissue region in the digital image - if no, automatically performing the generic tissue detection routine for detecting the tissue region in the digital image. - selecting one of the slide-type specific tissue detection routines; - checking, before or while the selected slide-type specific tissue detection routine is performed, if the selected slide-type specific tissue detection routine corresponds to the tissue slide type of the slide depicted in the digital image; - if yes, automatically performing the selected slide-type specific tissue detection routine for detecting the tissue region in the digital image - if no, automatically performing the generic tissue detection routine for detecting the tissue region in the digital image.
A load control device for controlling the amount of power delivered to an electrical load in response to a phase-control voltage, the load control device comprising: a rectifier (320, 1920) configured to receive the phase-control voltage and produce a rectified voltage (V RECT); a power converter (330, 1930) configured to receive the rectified voltage (V RECT) at an input and generate a bus voltage (V BUS); an input capacitor (C IN) coupled across the input of the power converter; said load control device being characterised in that it further comprises: a power supply configured to receive the bus voltage and charge a supply capacitor to generate a supply voltage (V CC), the power supply further configured to charge the input capacitor (C IN) when the magnitude of the phase-control voltage is approximately zero volts. a rectifier (320, 1920) configured to receive the phase-control voltage and produce a rectified voltage (V RECT); a power converter (330, 1930) configured to receive the rectified voltage (V RECT) at an input and generate a bus voltage (V BUS); an input capacitor (C IN) coupled across the input of the power converter; said load control device being characterised in that it further comprises: a power supply configured to receive the bus voltage and charge a supply capacitor to generate a supply voltage (V CC), the power supply further configured to charge the input capacitor (C IN) when the magnitude of the phase-control voltage is approximately zero volts.
A gastric pressure relief system comprising: a feeding container (146, 246, 346) connected to administration tubing (142, 242, 342); relief tubing (145, 245, 345); a delivery tube (144, 244, 344) in fluid communication with the administration tubing (142, 242, 342) and the relief tubing (145, 245, 345); a multi-way connector (120, 220, 320) having a first arm, a second arm, and a third arm, wherein the first arm is connected to the relief tubing (145, 245, 345), the second arm is connected to the delivery tube (144, 244, 344), and the third arm is connected to the administration tubing (142, 242, 342); and a collection reservoir (112, 212, 312) in fluid communication with the relief tubing (145, 245, 345), wherein the collection reservoir (112, 212, 312) is configured to collect reflux fluids from a patient's stomach via the relief tubing (145, 245, 345) and wherein the collection reservoir (112, 212, 312) includes a vent (114, 814) configured to allow gas to pass through in both directions and configured to restrict the flow of liquid through the vent (114, 814), characterized in that the vent comprises one or more membranes (814a1, 814b1, 814c1, 814d1, 814e1, 814f1) on a top surface of the vent (114, 814) and one or more membranes (814a2, 814b2) on a side surface of the vent (114, 814). a feeding container (146, 246, 346) connected to administration tubing (142, 242, 342); relief tubing (145, 245, 345); a delivery tube (144, 244, 344) in fluid communication with the administration tubing (142, 242, 342) and the relief tubing (145, 245, 345); a multi-way connector (120, 220, 320) having a first arm, a second arm, and a third arm, wherein the first arm is connected to the relief tubing (145, 245, 345), the second arm is connected to the delivery tube (144, 244, 344), and the third arm is connected to the administration tubing (142, 242, 342); and the first arm is connected to the relief tubing (145, 245, 345), the second arm is connected to the delivery tube (144, 244, 344), and the third arm is connected to the administration tubing (142, 242, 342); and a collection reservoir (112, 212, 312) in fluid communication with the relief tubing (145, 245, 345), wherein the collection reservoir (112, 212, 312) is configured to collect reflux fluids from a patient's stomach via the relief tubing (145, 245, 345) and wherein the collection reservoir (112, 212, 312) includes a vent (114, 814) configured to allow gas to pass through in both directions and configured to restrict the flow of liquid through the vent (114, 814), characterized in that the vent comprises one or more membranes (814a1, 814b1, 814c1, 814d1, 814e1, 814f1) on a top surface of the vent (114, 814) and one or more membranes (814a2, 814b2) on a side surface of the vent (114, 814).
Use of a Lindlar type catalyst for the partial hydrogenation of 6-hydroxy-3-(5-hydroxy-3-methyl-pent-3-in-1-ynyl)-2,4,4-trimethylcyclohex-2-enone, wherein the catalyst has the following composition (i) 85 weight-% (wt-%) - 99.85 wt-%, based on the total weight of the catalyst, of CaCO 3, and (ii) 0.1 wt-% -10 wt-%, based on the total weight of the catalyst, of Pd, and (iii) 0.05 wt-% - 5 wt-%, based on the total weight of the catalyst, of Pb, characterized in that the average particle size of the CaCO 3 particles is between 10 μm and 120 μm, measured by the laser diffraction method. (i) 85 weight-% (wt-%) - 99.85 wt-%, based on the total weight of the catalyst, of CaCO 3, and (ii) 0.1 wt-% -10 wt-%, based on the total weight of the catalyst, of Pd, and (iii) 0.05 wt-% - 5 wt-%, based on the total weight of the catalyst, of Pb, characterized in that the average particle size of the CaCO 3 particles is between 10 μm and 120 μm, measured by the laser diffraction method.
A balance module for a clutch, comprising: - a first annular piston part; - a second annular piston part, which is arranged opposite the first piston part in the axial direction and spaced therefrom; - at least three spring elements operating in the axial direction, which are arranged axially between the first and the second piston part; and a sealing element with at least one radially outwardly directed sealing lip, which is attached on the first piston part; characterized in that the spring elements, the first and the second piston part are connected to one another in a loss-proof manner, in order to form an integral module, wherein the spring elements are connected to the first and/or the second piston part in a loss-proof manner by means of one or a combination of: - welding; - crimping; - adhesive bonding; and - latching. - a first annular piston part; - a second annular piston part, which is arranged opposite the first piston part in the axial direction and spaced therefrom; - at least three spring elements operating in the axial direction, which are arranged axially between the first and the second piston part; and - welding; - crimping; - adhesive bonding; and - latching.
An output type multi-bearing-point independent suspension, comprising an upper fork arm, a lower fork arm, elastic elements, a shock absorber, fork arm positioning shafts, link rods and output levers; wherein the upper fork arm and the lower fork arm are A-shaped structural parts, front ends of the upper fork arm and the lower fork arm being respectively connected with an upper suspension point and a lower suspension point of a wheel through main pins and rear ends of the upper fork arm and lower fork arm being connected to a vehicle frame by fork arm positioning shafts respectively; wherein two fork arm hanging pivots extend from a bottom of the front portion of the upper fork arm, a lower end of each fork arm hanging pivot being connected to a respective output lever by means of a link rod, a middle portion of each output lever being hinged to the vehicle frame by means of an output lever rotating shaft and a respective elastic element being arranged between a bottom of an end of each output lever and the vehicle frame; and wherein the shock absorber is mounted on top of the front end of the upper fork arm.
A measurement system for use in measurements of in-plane distortions of a workpiece that includes a workpiece diffraction grating that is configured to diffract light in reflection, the measurement system comprising: an optical detector; the workpiece diffraction grating; a reference diffraction grating that is spaced apart from the workpiece diffraction grating and substantially parallel to the workpiece diffraction grating, the reference diffraction grating being configured to transmit light; a light source that directs a measurement beam at the reference diffraction grating; wherein the measurement beam directed at the reference diffraction grating is (i) transmitted through the reference grating and directed at the workpiece diffraction grating, (ii) reflected off of the workpiece diffraction grating and directed at the reference diffraction grating, and (iii) transmitted through the reference grating and directed at the optical detector, and wherein the detector is configured to detect a spatial light distribution of an interference of light having arrived at the detector via the reference grating. an optical detector; the workpiece diffraction grating; a reference diffraction grating that is spaced apart from the workpiece diffraction grating and substantially parallel to the workpiece diffraction grating, the reference diffraction grating being configured to transmit light; a light source that directs a measurement beam at the reference diffraction grating; wherein the measurement beam directed at the reference diffraction grating is (i) transmitted through the reference grating and directed at the workpiece diffraction grating, (ii) reflected off of the workpiece diffraction grating and directed at the reference diffraction grating, and (iii) transmitted through the reference grating and directed at the optical detector, and (i) transmitted through the reference grating and directed at the workpiece diffraction grating, (ii) reflected off of the workpiece diffraction grating and directed at the reference diffraction grating, and (iii) transmitted through the reference grating and directed at the optical detector, and wherein the detector is configured to detect a spatial light distribution of an interference of light having arrived at the detector via the reference grating.
A lighting assembly, comprising: an elongated heat sink (104; 500) comprising a mount surface on which light emitters can be mounted, said heat sink surrounding a conduit running longitudinally through the interior of said heat sink; a reflector (102; 150) proximate to said heat sink, said reflector comprising a reflective surface (106; 506) facing said heat sink and a back surface; and a first end cap, said heat sink and said reflector mounted to said first end cap, wherein said first end cap maintains a distance between said reflector and said heat sink. an elongated heat sink (104; 500) comprising a mount surface on which light emitters can be mounted, said heat sink surrounding a conduit running longitudinally through the interior of said heat sink; a reflector (102; 150) proximate to said heat sink, said reflector comprising a reflective surface (106; 506) facing said heat sink and a back surface; and a first end cap, said heat sink and said reflector mounted to said first end cap, wherein said first end cap maintains a distance between said reflector and said heat sink.
Boot comprising a first footwear element and a second footwear element, the second footwear element being intended to be introduced into the first footwear element in a reversible manner, the first footwear element extending in length from a rear end to a front end, in width between a lateral side and a medial side, and in height from a bottom assembly to an upper end, the second footwear element extending in length from a rear end to a front end, in width between a lateral side and a medial side, and in height from a bottom assembly to an upper end, the bottom assembly of the second footwear element being structured to allow a fluid to pass through, the boot comprising an inner sole intended to be disposed inside the second footwear element, the boot being characterized in that the inner sole is structured to allow a fluid to pass through.
A method for producing a cast article using a mold comprising a part (1,17) for removing impurities from a molten metal, the part (1,17) comprising a filter holder constituted of a structure comprising organic fibers, inorganic fibers and a thermosetting resin and a heat-resistant filter (3,11), wherein the contents of the organic fibers, the inorganic fibers and the thermosetting resin are 1 to 50 parts by weight, 1 to 40 parts by weight and 2 to 50 parts by weight, respectively, to the total of 100 parts by weight of these three components, wherein the filter holder has a molten metal inlet part and a molten metal outlet part, which are capable to be fitted with and connected to a molten metal supplying channel.
Multilayer film made of recyclable thermoplastic material comprising at least three layers, characterized by the fact that at least one layer of said three layers consists essentially of unoriented amorphous PET and is combined with at least a passive barrier layer comprising unoriented amorphous PET and from 1 to 20 wt.% of a polyamide substantially free of oxidation catalysts, wherein: i) said unoriented amorphous PET layer forms each of the external layers of said three-layer film and the central layer is formed by said passive barrier layer (structure A/B/A); or ii) said unoriented amorphous PET layer forms the central layer of said three-layer film and each of said external layers is formed by said passive barrier layer (structure B/A/B); the weight ratio between said central layer and the sum of said external layers being > 1, said multilayer film comprising at least 90% by wt. of unoriented amorphous PET and having a permeability to oxygen (Oxygen Transmission Rate "OTR") of less than 7 cc/m 2 /24h/atm, a permeability to carbon dioxide ("CO 2 TR") of less than 12 cc/m 2 /24h/atm and a Haze value of less than 10 %, said passive barrier layer comprising unoriented amorphous PET and a polyamide being substantially free of compatibilizers of the PET with the polyamide. i) said unoriented amorphous PET layer forms each of the external layers of said three-layer film and the central layer is formed by said passive barrier layer (structure A/B/A); or ii) said unoriented amorphous PET layer forms the central layer of said three-layer film and each of said external layers is formed by said passive barrier layer (structure B/A/B);
Threaded end (1, 2) of a tubular component for drilling and/or operating a hydrocarbon well, transporting oil and gas, transporting or storing hydrogen, carbon capture or geothermal energy, comprising at least one thread (3, 4) extending over the outer or inner peripheral surface thereof, wherein the thread (3, 4) is coated with a layer comprising a zinc-chromium (Zn-Cr) alloy in which zinc (Zn) is the predominant element by weight, relative to the total weight of the alloy, the content of zinc (Zn) being greater than 50% by weight, the content of chromium (Cr) being greater than or equal to 3% by weight, and the layer having a thickness ranging from 4 to 20 μm.
A phthalonitrile resin comprising a polymerized unit derived from a compound of Formula 1 below and an aromatic amine compound: wherein, Ar 1 and Ar 2 are aromatic divalent radicals derived from an aromatic compound represented by Formula 2 below, X 1 and X 2 are each an oxygen atom, and R 1 to R 10 are each independently hydrogen, an alkyl group having 1 to 4 carbon atom(s) or a cyano group, provided that at least two of R 1 to R 5 are each a cyano group and at least two of R 6 to R 10 are each a cyano group: wherein, one of R 1 and R 4 forms a radical linked to the sulfur atom of Formula 1 and the other of R 1 and R 4 forms a radical linked to X 1 or X 2 of Formula 1, and R 2, R 3, R 5 and R 6 are each independently hydrogen or an alkyl group having 1 to 4 carbon atom(s).