mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications, comprising: receiving, over an unlicensed spectrum by a user equipment, UE, a sequence number corresponding to a received data frame (605, 705) that comprises hybrid automatic repeat request, HARQ feedback for uplink data and includes one or more uplink grants; transmitting, over the unlicensed spectrum by the UE, one or more data subframes following the corresponding one or more uplink grants in response to the HARQ feedback in the received data frame (605-a) when the sequence number corresponding to the data frame is received by the UE in a specified order; and deciding, by the UE, not to transmit one or more data subframes following the corresponding one or more uplink grants in response to the HARQ feedback in the received data frame (705-a) when the sequence number corresponding to the data frame is received by the UE out of order. receiving, over an unlicensed spectrum by a user equipment, UE, a sequence number corresponding to a received data frame (605, 705) that comprises hybrid automatic repeat request, HARQ feedback for uplink data and includes one or more uplink grants; transmitting, over the unlicensed spectrum by the UE, one or more data subframes following the corresponding one or more uplink grants in response to the HARQ feedback in the received data frame (605-a) when the sequence number corresponding to the data frame is received by the UE in a specified order; and deciding, by the UE, not to transmit one or more data subframes following the corresponding one or more uplink grants in response to the HARQ feedback in the received data frame (705-a) when the sequence number corresponding to the data frame is received by the UE out of order.
A brushless motor comprising: a stator disposed along an axis; and a rotor disposed radially inward from the stator, and including a core, a plurality of first magnets and a plurality of second magnets configured to have opposite poles relative to the plurality of first magnets, and wherein the plurality of first and second magnets (30, 32) each have a substantially rectangular cross-section and are in contact with a substantially flat surface carried by the core that faces radially outward, wherein each one of the plurality of first and second magnets (30, 32) include first and second segments (30A", 30B", 32A", 32B") disposed adjacent to and spaced circumferentially apart from one-another, characterized in that the rotor includes a plurality of T-shaped retainers disposed circumferentially between the first and second segments (30A", 30B", 32A", 32B"), wherein each one of the T-shaped retainers includes a flange portion spanning circumferentially over a portion of the first and second segments (30A", 30B", 32A", 32B") of each one of the plurality of first and second magnets (30, 32), and a base portion engaged to and projecting radially between the core and the flange portion, wherein the rotor includes a plurality of ribs (34") projecting radially outward from the core and distributed circumferentially between each one of the plurality of first and second magnets (30, 32). a stator disposed along an axis; and a rotor disposed radially inward from the stator, and including a core, a plurality of first magnets and a plurality of second magnets configured to have opposite poles relative to the plurality of first magnets, and wherein the plurality of first and second magnets (30, 32) each have a substantially rectangular cross-section and are in contact with a substantially flat surface carried by the core that faces radially outward, wherein each one of the plurality of first and second magnets (30, 32) include first and second segments (30A", 30B", 32A", 32B") disposed adjacent to and spaced circumferentially apart from one-another, characterized in that the rotor includes a plurality of T-shaped retainers disposed circumferentially between the first and second segments (30A", 30B", 32A", 32B"), wherein each one of the T-shaped retainers includes a flange portion spanning circumferentially over a portion of the first and second segments (30A", 30B", 32A", 32B") of each one of the plurality of first and second magnets (30, 32), and a base portion engaged to and projecting radially between the core and the flange portion, wherein the rotor includes a plurality of ribs (34") projecting radially outward from the core and distributed circumferentially between each one of the plurality of first and second magnets (30, 32).
A method comprising: determining a location of a multicast slot within an information transfer super frame and a sound activation pattern from a beacon periodically received from a base station of a security system at a processor of a first remotely located device, the information transfer super frame having a plurality of time division multiple access, TDMA, slots, and the beacon being transmitted pursuant to a 6LowPan/IoT protocol and defining the information transfer super frame; detecting an activation message within the multicast slot of the information transfer super frame at the processor of the first remotely located device; and based on the sound activation pattern, activating a first output device of the first remotely located device simultaneously and synchronously with a plurality of other output devices of a plurality of other remotely located devices being activated, wherein the first output device and other output devices are each audible and/or visual alerting devices. determining a location of a multicast slot within an information transfer super frame and a sound activation pattern from a beacon periodically received from a base station of a security system at a processor of a first remotely located device, the information transfer super frame having a plurality of time division multiple access, TDMA, slots, and the beacon being transmitted pursuant to a 6LowPan/IoT protocol and defining the information transfer super frame; detecting an activation message within the multicast slot of the information transfer super frame at the processor of the first remotely located device; and based on the sound activation pattern, activating a first output device of the first remotely located device simultaneously and synchronously with a plurality of other output devices of a plurality of other remotely located devices being activated, wherein the first output device and other output devices are each audible and/or visual alerting devices.
An internal combustion engine control device which controls an internal combustion engine provided with a fuel injection device directly injecting fuel into a combustion chamber and an ignition device igniting an air-fuel mixture formed inside the combustion chamber, the internal combustion engine control device comprising: a temperature control unit which controls an intake side air temperature of the internal combustion engine in response to a compression ratio of the combustion chamber, and an actuator control unit which controls an operation amount or a timing of each of a variable compression ratio mechanism, characterized in that: a target intake air temperature of the temperature control unit is set to have a negative slope with respect to a compression ratio of the combustion chamber, and the internal combustion engine control device is further comprising: an injection timing control unit which controls the fuel injection device so that a final injection timing of the fuel injection device before the ignition of the ignition device is retarded compared to an injection timing set when an intake side air temperature is equal to or higher than the target intake air temperature at the compression ratio of the combustion chamber if the intake side air temperature of the internal combustion engine is lower than the target intake air temperature at the compression ratio of the combustion chamber. a temperature control unit which controls an intake side air temperature of the internal combustion engine in response to a compression ratio of the combustion chamber, and an actuator control unit which controls an operation amount or a timing of each of a variable compression ratio mechanism, characterized in that: a target intake air temperature of the temperature control unit is set to have a negative slope with respect to a compression ratio of the combustion chamber, and the internal combustion engine control device is further comprising: an injection timing control unit which controls the fuel injection device so that a final injection timing of the fuel injection device before the ignition of the ignition device is retarded compared to an injection timing set when an intake side air temperature is equal to or higher than the target intake air temperature at the compression ratio of the combustion chamber if the intake side air temperature of the internal combustion engine is lower than the target intake air temperature at the compression ratio of the combustion chamber.
Polymer-based sliding material having fillers which improve the tribological properties, the polymer base comprising ultra-high molecular weight polyethylene which has a molar mass of at least 5.0 million g/mol, characterized in that the fillers comprise a mixture of calcium phosphate, WS 2 and SnS 2, the proportion of this mixture being at most 15.0 wt.% of the sliding material. the polymer base comprising ultra-high molecular weight polyethylene which has a molar mass of at least 5.0 million g/mol, characterized in that the fillers comprise a mixture of calcium phosphate, WS 2 and SnS 2, the proportion of this mixture being at most 15.0 wt.% of the sliding material.
A lifter bar including: at least one attachment formation for use in lifting the lifter bar; wherein the at least one attachment formation is embedded in the lifter bar and; wherein the at least one attachment formation includes a shank portion and an enlarged head portion; characterised in that the at least one attachment formation is disposed on the trailing face of the lifter bar. at least one attachment formation for use in lifting the lifter bar; wherein the at least one attachment formation is embedded in the lifter bar and; wherein the at least one attachment formation includes a shank portion and an enlarged head portion; characterised in that the at least one attachment formation is disposed on the trailing face of the lifter bar.
Polypropylene composition, comprising a heterophasic polypropylene (HECO), said heterophasic polypropylene comprising a matrix being a propylene homopolymer and an elastomeric propylene-ethylene copolymer dispersed in said matrix, and a bimodal metallocene linear low-density polyethylene (mLLDPE), said bimodal metallocene linear low-density polyethylene (mLLDPE) (a) being a terpolymer of ethylene and two different comonomers selected from alpha olefins having from 4 to 10 carbon atoms and (b) being produced with a metallocene catalyst and (c) having a density of 915 to 930 kg/m3 (according to ISO 1183) optionally a polypropylene homopolymer with a melt flow rate MFR2 (ISO 1133; 230°C; 2.16kg) in the range of 0.5 to 100.0 g/10 min and/or optionally an alpha nucleating agent a heterophasic polypropylene (HECO), said heterophasic polypropylene comprising a matrix being a propylene homopolymer and an elastomeric propylene-ethylene copolymer dispersed in said matrix, and a bimodal metallocene linear low-density polyethylene (mLLDPE), said bimodal metallocene linear low-density polyethylene (mLLDPE) (a) being a terpolymer of ethylene and two different comonomers selected from alpha olefins having from 4 to 10 carbon atoms and (b) being produced with a metallocene catalyst and (c) having a density of 915 to 930 kg/m3 (according to ISO 1183) (a) being a terpolymer of ethylene and two different comonomers selected from alpha olefins having from 4 to 10 carbon atoms and (b) being produced with a metallocene catalyst and (c) having a density of 915 to 930 kg/m3 (according to ISO 1183) optionally a polypropylene homopolymer with a melt flow rate MFR2 (ISO 1133; 230°C; 2.16kg) in the range of 0.5 to 100.0 g/10 min and/or optionally an alpha nucleating agent
An aluminium or aluminium alloy fragment etching method comprising the steps of: a. providing a hydrochloric acid solution having a concentration of 1.1 to 4.2 moles of HCl per litre of water in a trough- or vat-shaped container; b. inoculating the hydrochloric acid solution by chemically dissolving a quantity of aluminium ranging from 0.5 g to 17.5 g per litre to produce an etching solution; c. adding the fragments to the etching solution immediately after the inoculation; d. etching the fragments for 0.5 to 10 minutes while circulating the etching solution with the fragments such that the fragments are entrained by the movement of the etching solution; e. stopping the etching within a few seconds by diluting the etching solution with water; f. removing the etched fragments from the etching solution; g. repeatedly rinsing the fragments with water immediately after the removal and h. rinsing the fragments with an organic desiccant. a. providing a hydrochloric acid solution having a concentration of 1.1 to 4.2 moles of HCl per litre of water in a trough- or vat-shaped container; b. inoculating the hydrochloric acid solution by chemically dissolving a quantity of aluminium ranging from 0.5 g to 17.5 g per litre to produce an etching solution; c. adding the fragments to the etching solution immediately after the inoculation; d. etching the fragments for 0.5 to 10 minutes while circulating the etching solution with the fragments such that the fragments are entrained by the movement of the etching solution; e. stopping the etching within a few seconds by diluting the etching solution with water; f. removing the etched fragments from the etching solution; g. repeatedly rinsing the fragments with water immediately after the removal and h. rinsing the fragments with an organic desiccant.
A method for managing access of a User Equipment, UE, to a wireless network via unlicensed spectrum, the method comprising: receiving, at the UE via the unlicensed spectrum, a signal generated by a first cell of the wireless network, the signal including an indication of a respective presence or absence of one or more uplink access constraints of the first cell, and the one or more uplink access constraints corresponding to at least one of: a threshold distance of UEs from the first cell, or uplink interference detected by the first cell in a spatial direction corresponding to the UE; selecting, by the UE, a serving cell of the wireless network based on the indication; and connecting, by the UE, to the selected serving cell. receiving, at the UE via the unlicensed spectrum, a signal generated by a first cell of the wireless network, the signal including an indication of a respective presence or absence of one or more uplink access constraints of the first cell, and the one or more uplink access constraints corresponding to at least one of: a threshold distance of UEs from the first cell, or uplink interference detected by the first cell in a spatial direction corresponding to the UE; selecting, by the UE, a serving cell of the wireless network based on the indication; and connecting, by the UE, to the selected serving cell.
Device for a flow control of a liquid or gaseous medium, in particular for dosing a fluid to be admixed into an exhaust gas treatment system, comprising an electromagnet that is provided, in a solenoid housing, with a solenoid coil with a magnetic core and an end-side magnet plate, and that actuates a valve member in a valve compartment of a valve body for controlling a valve seat there, wherein the solenoid coil is protected against deformation with respect to the valve compartment and sealed by means of a sealing device that comprises at least a first seal arranged between the solenoid coil and the magnetic core, wherein the first seal is arranged as a radial seal and as a circumferential seal about the magnetic core, and wherein the sealing device comprises at least a second seal that is arranged between the solenoid coil and the magnet plate, and a seal holder that is arranged between the solenoid coil and the magnetic core and the magnet plate, and that accommodates the seals (31, 33) and comprises an annular part which encloses the magnetic core and adjoins the solenoid coil and that contains the first radial seal that rests against the magnetic core, wherein the seal holder comprises an axial annular part axially extending between the solenoid coil and the magnet plate and that adjoins the annular part that is arranged as a cylindrical sleeve and integrally formed therewith, characterized in that the axial annular part accommodates the second seal that is arranged as an axial seal that rests against the magnet plate, and that the seal holder is arranged as a ring that is basically U-shaped in cross-section, wherein the U-base rests against the solenoid coil, the inner U-leg forms the cylindrical sleeve that encloses the magnetic core, and wherein the outer U-leg axially extends between the solenoid coil and the magnet plate.
An electron multiplier comprising: a substrate having a channel formation surface; a secondary electron emitting layer having a bottom surface facing the channel formation surface, and a secondary electron emitting surface which opposes the bottom surface and is configured to emit a secondary electron in response to incidence of a charged particle, the secondary electron emitting layer being comprised of a first insulating material; and a resistance layer sandwiched between the substrate and the secondary electron emitting layer, wherein the resistance layer includes a metal layer in which a plurality of metal particles are two-dimensionally arranged on a layer formation surface in a state of being adjacent to each other with a part of the first insulating material interposed between the metal particles, the metal particles being comprised of a metal material whose resistance value has a positive temperature coefficient, the layer formation surface being coincident with or substantially parallel to the channel formation surface, and the metal layer having a thickness set to 5 to 40 angstroms, the thickness being defined by an average thickness of the plurality of metal particles along a stacking direction from the channel formation surface to the secondary electron emitting surface. a substrate having a channel formation surface; a secondary electron emitting layer having a bottom surface facing the channel formation surface, and a secondary electron emitting surface which opposes the bottom surface and is configured to emit a secondary electron in response to incidence of a charged particle, the secondary electron emitting layer being comprised of a first insulating material; and a resistance layer sandwiched between the substrate and the secondary electron emitting layer, wherein the resistance layer includes a metal layer in which a plurality of metal particles are two-dimensionally arranged on a layer formation surface in a state of being adjacent to each other with a part of the first insulating material interposed between the metal particles, the metal particles being comprised of a metal material whose resistance value has a positive temperature coefficient, the layer formation surface being coincident with or substantially parallel to the channel formation surface, and the metal layer having a thickness set to 5 to 40 angstroms, the thickness being defined by an average thickness of the plurality of metal particles along a stacking direction from the channel formation surface to the secondary electron emitting surface.
A method of fermenting carbohydrate to ethanol, comprising: a) treating carbohydrate to be fermented with a composition containing 10 - 90 wt.% of formaldehyde, 1 - 50 wt.% of a surfactant having an HLB from 4 to 18, 1 - 20 wt.% of an antimicrobial terpene, or essential oils comprising terpenes, 1-50 wt.% of organic acids selected from C 1 to C 24 fatty acids, their salts, glycerides and esters thereof, and 1 - 50 wt.% water; b) fermenting said treated carbohydrate in a fermentation broth containing yeast and formaldehyde, and c) isolating ethanol; wherein the carbohydrate to be fermented is corn. a) treating carbohydrate to be fermented with a composition containing 10 - 90 wt.% of formaldehyde, 1 - 50 wt.% of a surfactant having an HLB from 4 to 18, 1 - 20 wt.% of an antimicrobial terpene, or essential oils comprising terpenes, 1-50 wt.% of organic acids selected from C 1 to C 24 fatty acids, their salts, glycerides and esters thereof, and 1 - 50 wt.% water; 10 - 90 wt.% of formaldehyde, 1 - 50 wt.% of a surfactant having an HLB from 4 to 18, 1 - 20 wt.% of an antimicrobial terpene, or essential oils comprising terpenes, 1-50 wt.% of organic acids selected from C 1 to C 24 fatty acids, their salts, glycerides and esters thereof, and 1 - 50 wt.% water; b) fermenting said treated carbohydrate in a fermentation broth containing yeast and formaldehyde, and c) isolating ethanol;
Process for manufacturing an optical unit comprising a plurality of glass sheets having an aspherical shape arranged superimposed and spaced apart to form a stack, characterized in that it comprises the steps of: - arranging a flat glass sheet on a reference surface having the geometry desired to be reproduced; - cold deforming said sheet such to adhere it onto the reference surface; - integrating said sheet with a preceding element (4; 2) of said stack in a predetermined relative position; and - repeating the preceding steps till ending the stack, and in that said cold deforming step of said sheet takes place until making said sheet to assume the geometry of said reference surface, and in that said integration step maintains the geometry assumed by said sheet, and in that said integration step comprises the step of fastening said sheet in a position spaced from the preceding element (4; 12) of the stack by means of bars arranged spaced apart from one another. - arranging a flat glass sheet on a reference surface having the geometry desired to be reproduced; - cold deforming said sheet such to adhere it onto the reference surface; - integrating said sheet with a preceding element (4; 2) of said stack in a predetermined relative position; and - repeating the preceding steps till ending the stack, and in that said cold deforming step of said sheet takes place until making said sheet to assume the geometry of said reference surface, and in that said integration step maintains the geometry assumed by said sheet, and in that said integration step comprises the step of fastening said sheet in a position spaced from the preceding element (4; 12) of the stack by means of bars arranged spaced apart from one another.
A high-carbon hot rolled steel sheet with excellent hardenability and small in-plane anisotropy, the steel sheet having a chemical composition consisting of, by mass%, C: 0.20 to 0.48%, Si: not more than 0.1%, Mn: 0.2 to 0.5%, P: not more than 0.03%, S: not more than 0.01%, sol. Al: not more than 0.10%, N: 0.0005 to 0.005% and B: 0.0005 to 0.0050%, optionally at least one selected from the group consisting of Ni, Cr and Mo in a total content of not more than 1.5%, optionally at least one selected from the group consisting of Sb and Sn in a total content of not more than 0.1%, the balance being Fe and inevitable impurities, the steel sheet comprising a microstructure including ferrite and cementite, the cementite having an average grain size of not more than 1.0 μm, the steel sheet having an in-plane anisotropy of r value, Δr, of not more than 0.1 in absolute value.
A liquid composition comprising: 7.1 mM HEPES buffer, 56.25 mM NaCl, 3.6 mM KCl, 9 mM NaHCO 3, 75 mM trehalose, 3.75 mM dextrose, and 2% w/v polysucrose 400. 7.1 mM HEPES buffer, 56.25 mM NaCl, 3.6 mM KCl, 9 mM NaHCO 3, 75 mM trehalose, 3.75 mM dextrose, and 2% w/v polysucrose 400.