mhurhangee/ep-ind-claims huggingface dataset:
A lighting device comprising a tubular body, said tubular body comprising a carrier mounted inside the tubular body such that the tubular body comprises: a first inner volume delimited by a first arcuate section of the tubular body and the carrier; and a second inner volume delimited by a second arcuate section of the tubular body and the carrier, wherein: the carrier supports a plurality of solid state lighting elements arranged to emit a luminous output into the first inner volume; and the first arcuate section comprises a transparent region and a translucent region obscuring the solid state lighting elements, said transparent region extending from the translucent region to the carrier; wherein the carrier comprises a central region extending along the length of the tubular body, characterised in that the central region defines a recess in which the solid state lighting elements are located, which recess prevents the solid state lighting elements from being directly observable through the transparent region of the first arcuate section. a first inner volume delimited by a first arcuate section of the tubular body and the carrier; and a second inner volume delimited by a second arcuate section of the tubular body and the carrier, wherein: the carrier supports a plurality of solid state lighting elements arranged to emit a luminous output into the first inner volume; and the first arcuate section comprises a transparent region and a translucent region obscuring the solid state lighting elements, said transparent region extending from the translucent region to the carrier; wherein the carrier comprises a central region extending along the length of the tubular body, characterised in that the central region defines a recess in which the solid state lighting elements are located, which recess prevents the solid state lighting elements from being directly observable through the transparent region of the first arcuate section. the carrier supports a plurality of solid state lighting elements arranged to emit a luminous output into the first inner volume; and the first arcuate section comprises a transparent region and a translucent region obscuring the solid state lighting elements, said transparent region extending from the translucent region to the carrier; wherein the carrier comprises a central region extending along the length of the tubular body, characterised in that the central region defines a recess in which the solid state lighting elements are located, which recess prevents the solid state lighting elements from being directly observable through the transparent region of the first arcuate section.
Process for the manufacturing of different construction series of hermetically encapsulated refrigerant compressors, which differ from one another with respect to the size of the working volume, each refrigerant compressor comprising a cylinder housing which is used as the basis for manufacturing various refrigerant compressor construction series each having different sizes of the working volume, and a piston, which is guided in a piston bore of the cylinder housing along a defined piston run surface, for compressing a working medium, which piston is linked using a connecting rod to a crankshaft driven by an electric motor, the crankshaft, which is rotatable around a rotational axis, being mounted in a mounting body preferably implemented integrally with the cylinder housing, and the piston bore being closed in a first end area by a cylinder head comprising a valve plate, while the piston bore is open to accommodate the piston in a second end area facing toward the crankshaft, the piston bore having a free run section adjoining the piston run surface and situated in the second end area of the piston bore facing toward the crankshaft, whose clear open width is greater than the diameter of the piston run surface, in order to prevent a contact between piston and cylinder housing in this section during the operating positions of the piston, whereas all construction series have the same piston bore, characterized in that the free run section is lengthened by mechanical machining, as a function of the particular working volume to be implemented within the cylinder housing for a certain construction series, which working volume is fixed by a variation of the position of the piston or the piston run surface in the piston bore, so that the piston run surface is reduced to a minimal guide length measured in the direction of the cylinder axis, in the case of which the piston in its bottom dead center position protrudes beyond the piston run surface at most half of its axial length, so that the piston is just prevented from falling out of the piston bore and a sealing action of the piston in relation to the piston run surface is provided.
A method of controlling an injection molding machine having a screw control configured to use cavity pressure as an input to determine how far to advance a screw, the method comprising: executing, by a controller, a calibration cycle in accordance with a mold cycle implemented by the injection molding machine; analyzing, by the controller, a plurality of sensed melt pressure values during the calibration cycle to determine one or more calibration metrics; executing, by the controller, a run using the injection molding machine, wherein the run sequentially implements the mold cycle a plurality of times; and during each mold cycle of the run: detecting, by the controller, a plurality of sensed melt pressures prior to and during a fill phase of the mold cycle; comparing, by the controller, the plurality of sensed melt pressures to the one or more calibration metrics to predict a cavity pressure for a pack and hold phase of the mold cycle; transmitting, by the controller, the predicted cavity pressure value to the screw control, and adjust, by the controller, a set point pressure of the mold cycle for the pack and hold phase of the mold cycle based on the predicted cavity pressure. executing, by a controller, a calibration cycle in accordance with a mold cycle implemented by the injection molding machine; analyzing, by the controller, a plurality of sensed melt pressure values during the calibration cycle to determine one or more calibration metrics; executing, by the controller, a run using the injection molding machine, wherein the run sequentially implements the mold cycle a plurality of times; and during each mold cycle of the run: detecting, by the controller, a plurality of sensed melt pressures prior to and during a fill phase of the mold cycle; comparing, by the controller, the plurality of sensed melt pressures to the one or more calibration metrics to predict a cavity pressure for a pack and hold phase of the mold cycle; transmitting, by the controller, the predicted cavity pressure value to the screw control, and adjust, by the controller, a set point pressure of the mold cycle for the pack and hold phase of the mold cycle based on the predicted cavity pressure. detecting, by the controller, a plurality of sensed melt pressures prior to and during a fill phase of the mold cycle; comparing, by the controller, the plurality of sensed melt pressures to the one or more calibration metrics to predict a cavity pressure for a pack and hold phase of the mold cycle; transmitting, by the controller, the predicted cavity pressure value to the screw control, and adjust, by the controller, a set point pressure of the mold cycle for the pack and hold phase of the mold cycle based on the predicted cavity pressure.
A multilayer structure comprising: a single crystal semiconductor handle substrate comprising two major, generally parallel surfaces, one of which is a front surface of the single crystal semiconductor handle substrate and the other of which is a back surface of the single crystal semiconductor handle substrate, a circumferential edge joining the front and back surfaces of the single crystal semiconductor handle substrate, a central plane between the front surface and the back surface of the single crystal semiconductor handle substrate, and a bulk region between the front and back surfaces of the single crystal semiconductor handle substrate, wherein the single crystal semiconductor handle substrate has a minimum bulk region resistivity of at least 3000 Ohm-cm; a relaxed semiconductor layer comprising germanium, the relaxed semiconductor layer in interfacial contact with the front surface of the single crystal semiconductor handle substrate; a polycrystalline silicon charge trapping layer in interfacial contact with the relaxed semiconductor layer; a dielectric layer in interfacial contact with the polycrystalline silicon charge trapping layer; and a single crystal semiconductor device layer in interfacial contact with the dielectric layer. a single crystal semiconductor handle substrate comprising two major, generally parallel surfaces, one of which is a front surface of the single crystal semiconductor handle substrate and the other of which is a back surface of the single crystal semiconductor handle substrate, a circumferential edge joining the front and back surfaces of the single crystal semiconductor handle substrate, a central plane between the front surface and the back surface of the single crystal semiconductor handle substrate, and a bulk region between the front and back surfaces of the single crystal semiconductor handle substrate, wherein the single crystal semiconductor handle substrate has a minimum bulk region resistivity of at least 3000 Ohm-cm; a relaxed semiconductor layer comprising germanium, the relaxed semiconductor layer in interfacial contact with the front surface of the single crystal semiconductor handle substrate; a polycrystalline silicon charge trapping layer in interfacial contact with the relaxed semiconductor layer; a dielectric layer in interfacial contact with the polycrystalline silicon charge trapping layer; and a single crystal semiconductor device layer in interfacial contact with the dielectric layer.
A fire protection method for a fan casing comprising an overall cylindrical barrel having a main direction extending along a longitudinal axis and an upstream flange radially extending relative to the longitudinal axis from an upstream end of the barrel, the fan casing being made of composite material comprising a fiber reinforcement densified by a matrix, said matrix being polymerized, the protection method comprising the following steps: - draping, on an upstream radial face of the upstream flange, panels comprising prepreg glass fibers with a resin capable of thermally protecting the fan casing against fire, and - polymerizing the resin to obtain a protective layer. - draping, on an upstream radial face of the upstream flange, panels comprising prepreg glass fibers with a resin capable of thermally protecting the fan casing against fire, and - polymerizing the resin to obtain a protective layer.
A head system comprising: a plurality of heads disposed staggered along a first direction; a sub-tank which is disposed above the plurality of heads and which is configured to distribute a liquid to each of the plurality of heads; a plurality of liquid channels each fluidly connects the sub-tank and one of the plurality of heads; and a casing having a pair of inner surfaces opposed to each other in a second direction orthogonal to the first direction and an up-down direction, the casing housing the sub-tank, and the plurality of liquid channels, wherein each of the plurality of liquid channels extends linearly parallel to the up-down direction in an entire region between the sub-tank and one of the plurality of heads; characterized in that the head system further comprises: a chiller housed by the casing configured to cool the plurality of heads by a coolant, the chiller including a manifold which is disposed between the plurality of heads and the sub-tank in the up-down direction and which extends in the first direction to distribute the coolant to the plurality of heads; wherein: each of the plurality of liquid channels and the manifold are aligned in the second direction between the pair of inner surfaces of the casing. a plurality of heads disposed staggered along a first direction; a sub-tank which is disposed above the plurality of heads and which is configured to distribute a liquid to each of the plurality of heads; a plurality of liquid channels each fluidly connects the sub-tank and one of the plurality of heads; and a casing having a pair of inner surfaces opposed to each other in a second direction orthogonal to the first direction and an up-down direction, the casing housing the sub-tank, and the plurality of liquid channels, wherein each of the plurality of liquid channels extends linearly parallel to the up-down direction in an entire region between the sub-tank and one of the plurality of heads; characterized in that the head system further comprises: a chiller housed by the casing configured to cool the plurality of heads by a coolant, the chiller including a manifold which is disposed between the plurality of heads and the sub-tank in the up-down direction and which extends in the first direction to distribute the coolant to the plurality of heads; wherein: each of the plurality of liquid channels and the manifold are aligned in the second direction between the pair of inner surfaces of the casing.
A positive electrode current collector, characterized by comprising: a support layer, having two opposite surfaces in a direction of its own thickness; a conductive layer, provided on at least one of the two surfaces of the support layer; wherein a material of the conductive layer is aluminum or aluminum alloy, and a thickness D 1 of the conductive layer is 300 nm ≤ D 1 ≤ 2 μm, preferably 500 nm ≤ D 1 ≤ 2 μm, and more preferably 600 nm ≤ D 1 ≤ 1.5 μm; an elongation at break B of the support layer is 10000% ≥ B ≥ 12%, preferably 400% ≥ B ≥ 15%, and more preferably 400% ≥ B ≥ 30%; a volume resistivity of the support layer is greater than or equal to 1.0×10 -5 Ω·m; when a tensile strain of the positive electrode current collector is 2%, a square resistance growth rate T 1 of the conductive layer is T 1 ≤ 10%, preferably T 1 ≤ 5%, preferably T 1 ≤ 2%, and more preferably T 1 ≤ 1%; a thickness D 2 of the support layer is 12 μm ≤ D 2 ≤ 20 μm; the support layer comprises one or more of a polymer material and a polymer-based composite material; preferably, the polymer material is one or more of polyethylene terephthalate, polyethylene naphthalate, poly(vinyl alcohol), polystyrene sodium sulfonate, polyacetylene, polyphenylene ether, polyphenylene sulfide, polyethylene glycol, polysulfur nitride polymer material, polyphenylene, polypyrrole, polyaniline, polythiophene, polypyridine, cellulose, starch, protein, their derivatives, their cross-linked products and their copolymers. a support layer, having two opposite surfaces in a direction of its own thickness; a conductive layer, provided on at least one of the two surfaces of the support layer; wherein a material of the conductive layer is aluminum or aluminum alloy, and a thickness D 1 of the conductive layer is 300 nm ≤ D 1 ≤ 2 μm, preferably 500 nm ≤ D 1 ≤ 2 μm, and more preferably 600 nm ≤ D 1 ≤ 1.5 μm; an elongation at break B of the support layer is 10000% ≥ B ≥ 12%, preferably 400% ≥ B ≥ 15%, and more preferably 400% ≥ B ≥ 30%; a volume resistivity of the support layer is greater than or equal to 1.0×10 -5 Ω·m; when a tensile strain of the positive electrode current collector is 2%, a square resistance growth rate T 1 of the conductive layer is T 1 ≤ 10%, preferably T 1 ≤ 5%, preferably T 1 ≤ 2%, and more preferably T 1 ≤ 1%; a thickness D 2 of the support layer is 12 μm ≤ D 2 ≤ 20 μm; the support layer comprises one or more of a polymer material and a polymer-based composite material; preferably, the polymer material is one or more of polyethylene terephthalate, polyethylene naphthalate, poly(vinyl alcohol), polystyrene sodium sulfonate, polyacetylene, polyphenylene ether, polyphenylene sulfide, polyethylene glycol, polysulfur nitride polymer material, polyphenylene, polypyrrole, polyaniline, polythiophene, polypyridine, cellulose, starch, protein, their derivatives, their cross-linked products and their copolymers.
A data processing apparatus comprising: processing circuitry configured to process data; a data store configured to store data; wherein said processing circuitry is configured to execute first software at a first privilege level and to execute second software at a second privilege level higher than the first privilege level; in response to a data access instruction for accessing data in the data store, the data processing apparatus is configured to determine at least one access attribute for said data access instruction based on at least one first attribute set by the first software and at least one second attribute set by the second software, said at least one first attribute and said at least one second attribute each specifying whether execution of the data access instruction can be interrupted; and in response to a predetermined type of data access instruction for which said at least one second attribute specifies that execution of the data access instruction can be interrupted, the data processing apparatus is configured to determine said at least one access attribute specifying that execution of the data access instruction can be interrupted even if said at least one first attribute specifies that execution of the data access instruction cannot be interrupted. processing circuitry configured to process data; a data store configured to store data; wherein said processing circuitry is configured to execute first software at a first privilege level and to execute second software at a second privilege level higher than the first privilege level; in response to a data access instruction for accessing data in the data store, the data processing apparatus is configured to determine at least one access attribute for said data access instruction based on at least one first attribute set by the first software and at least one second attribute set by the second software, said at least one first attribute and said at least one second attribute each specifying whether execution of the data access instruction can be interrupted; and in response to a predetermined type of data access instruction for which said at least one second attribute specifies that execution of the data access instruction can be interrupted, the data processing apparatus is configured to determine said at least one access attribute specifying that execution of the data access instruction can be interrupted even if said at least one first attribute specifies that execution of the data access instruction cannot be interrupted.
Therapeutic substance combination product containing at least one connexin-blocking agent and one acetylcholinesterase inhibitor (AChEI), wherein said acetylcholinesterase inhibitor (AChEI) is donepezil or a pharmaceutical salt thereof.
A method for a network node of a cellular communication network adapted for application of an uplink triggered cell handover functionality (210; 310), the method comprising: dynamically restricting (230; 330, 331) application of the uplink triggered cell handover functionality based on whether (220; 321, 322, 323, 324, 325) a restriction criterion is met upon having determined (Y, 321) that an uplink metric is greater than or equal to a first threshold or, otherwise (N, 321), if the uplink metric is not greater than or equal to the first threshold, upon having determined (Y, 322) that a cell load is greater than a second threshold, and wherein the application of the uplink triggered cell handover functionality is restricted for all wireless communication devices served by the network node. dynamically restricting (230; 330, 331) application of the uplink triggered cell handover functionality based on whether (220; 321, 322, 323, 324, 325) a restriction criterion is met upon having determined (Y, 321) that an uplink metric is greater than or equal to a first threshold or, otherwise (N, 321), if the uplink metric is not greater than or equal to the first threshold, upon having determined (Y, 322) that a cell load is greater than a second threshold, and wherein the application of the uplink triggered cell handover functionality is restricted for all wireless communication devices served by the network node.
Method for producing an at least two-layered asphalt construction comprising at least one lower layer and one upper asphalt cover layer by using a road paver with at least two paving screeds arranged one after another or by using a road paver combination of at least two road pavers arranged one after another, wherein the at least one lower layer is installed with a pre-compaction and without a follow-up compaction by means of rollers, characterized in that for the at least one lower layer an asphalt mixture is used comprising stone chippings, sand, a filler and a binding agent, wherein the stone chipping content having a grain size >2 mm lies between 55 M.-% and 80 M.-%, the sand content of natural sand and/or crushed sand having a grain size of >0.063 mm and ≤2 mm lies between 6 M.-% and 20 M.-%, the filler content having aggregate ≤0.063 mm lies between 12 M.-% and 23 M.-%, and the binding agent content lies between 4.5 M.-% and 6.7 M.-%, wherein the total mass of the asphalt mixture, including possible further additives, is 100 M.-%, and wherein the asphalt mixture has a maximum grain size to about 32 mm for the at least one lower layer and wherein the filler is mainly or exclusively made of lime stone.
A method for wireless communications by a user equipment, UE, comprising: receiving, from a base station, BS, a request for channel feedback identifying a type of channel feedback to be provided to the BS and a type of channel state information, CSI, reference symbol, RS, CSI-RS, to be used for generating the identified type of channel feedback; transmitting, to the BS, an indication of an amount of time used to generate the identified type of feedback based on the identified type of CSI-RS; receiving, from the BS, a triggering signal indicating at least a location of one or more CSI-RSs and a time at which the UE is to report the identified type of channel feedback, wherein the time at which the UE is to report the identified type of channel feedback is based, at least in part, on the indicated amount of time used to generate the identified type of channel feedback and wherein the time at which the UE is to report the identified type of channel feedback is later than a time corresponding to the indicated location of the one or more CSI-RSs; receiving the one or more CSI-RSs in the indicated location; generating the identified type of feedback based on the one or more CSI-RSs; and transmitting the generated feedback to the BS. receiving, from a base station, BS, a request for channel feedback identifying a type of channel feedback to be provided to the BS and a type of channel state information, CSI, reference symbol, RS, CSI-RS, to be used for generating the identified type of channel feedback; transmitting, to the BS, an indication of an amount of time used to generate the identified type of feedback based on the identified type of CSI-RS; receiving, from the BS, a triggering signal indicating at least a location of one or more CSI-RSs and a time at which the UE is to report the identified type of channel feedback, wherein the time at which the UE is to report the identified type of channel feedback is based, at least in part, on the indicated amount of time used to generate the identified type of channel feedback and wherein the time at which the UE is to report the identified type of channel feedback is later than a time corresponding to the indicated location of the one or more CSI-RSs; receiving the one or more CSI-RSs in the indicated location; generating the identified type of feedback based on the one or more CSI-RSs; and transmitting the generated feedback to the BS.