mhurhangee/ep-ind-claims huggingface dataset:
An automatic reset method for a consumable chip, characterized by comprising: in response to determining that an ink amount state is an ink-out state, entering an automatic reset state and shielding a printer command; shielding a printer dock command and turning off a chip core in the automatic reset state; entering a reset allowing state after shielding N groups of printer dock commands in the automatic reset state; and resetting ink amount data and turning on the chip core in the reset allowing state. in response to determining that an ink amount state is an ink-out state, entering an automatic reset state and shielding a printer command; shielding a printer dock command and turning off a chip core in the automatic reset state; entering a reset allowing state after shielding N groups of printer dock commands in the automatic reset state; and resetting ink amount data and turning on the chip core in the reset allowing state.
Die casting mold part (8, 9) of a die casting mold for the casting of metals, having at least one first component (13, 15) comprising a pressure zone (24, 25) to which the melt is applied when the casting process is being carried out, at least one second component (14, 16) and at least one heat exchange chamber (27, 36) which is formed by the components (13, 14, 15, 16) and through which a fluid can flow, for controlling the temperature of the pressure zone (24, 25), wherein the first component (13, 15) has a heat transfer surface which belongs to at least one wall of the heat exchange chamber (27, 36) and is thermally associated with the pressure zone (24, 25), and wherein the heat exchange chamber is fluidically connected to at least one fluid connection (32, 33) formed as a fluid line and the fluid line is at least locally provided in the first component (13, 15) and/or the second component, characterized in that a fluid guide recess which is open in the direction of the first component (13, 15) is formed in the manner of a trough in the second component (14, 16), wherein the fluid guide recess forms the heat exchange chamber (27, 36).
Use of biomass of a Trichoderma longibrachiatum strain comprising an autologous gene coding for a protein having at least 90% sequence similarity with an amino acid sequence according to SEQ ID NO: 1, or of a product comprising the protein derived from such biomass wherein the protein is expressed as an autologous protein, for improvement of root nodulation in the treatment of a plant selected from the Leguminosae, wherein the percentage sequence similarity is the sum of the percentage sequence identity plus the percentage conservative changes, wherein an amino acid change is a conservative change if it is selected from one of the following substitutions: Original residue Conservative substitution Ala Gly; Ser Arg Lys, His Asn Gln; His Asp Glu; Asn Cys Ser; Ala Gln Asn Glu Asp; Gln Gly Ala His Asn; Gln Ile Leu; Val Leu Ile; Val Lys Arg; His Met Leu; Ile; Tyr Phe Tyr; Met; Leu Pro Ala Ser Thr Thr Ser Trp Tyr; Phe Tyr Trp; Phe Val Ile; Leu
A cutting tool comprising: a hard sintered body in at least a cutting edge, said cutting tool having a rake face and a flank face, said rake face having a chip breaker in a protruded or uneven shape, said hard sintered body containing at least 20% by volume of cubic boron nitride, and a region of not more than 20 μm in a depth direction from a surface of said hard sintered body on the rake face side including A-structures made of cubic boron nitride and B-structures made of at least one selected from the group consisting of hexagonal boron nitride, amorphous boron nitride, and boron oxide, and a volume ratio of said B-structures to a sum of said A-structures and said B-structures, B/(A+B), being not less than 5% by volume and not more than 90% by volume, characterized in that the cutting tool has a face connecting said rake face and said flank face, and said face includes at least one face selected from the group consisting of a land face, a negative land face, and honing portion, and a region of not more than 20 μm in the depth direction from a surface of said face has said volume ratio B/(A+B) of not less than 0.1% by volume and not more than 5% by volume. a hard sintered body in at least a cutting edge, said cutting tool having a rake face and a flank face, said rake face having a chip breaker in a protruded or uneven shape, said hard sintered body containing at least 20% by volume of cubic boron nitride, and a region of not more than 20 μm in a depth direction from a surface of said hard sintered body on the rake face side including A-structures made of cubic boron nitride and B-structures made of at least one selected from the group consisting of hexagonal boron nitride, amorphous boron nitride, and boron oxide, and a volume ratio of said B-structures to a sum of said A-structures and said B-structures, B/(A+B), being not less than 5% by volume and not more than 90% by volume, characterized in that the cutting tool has a face connecting said rake face and said flank face, and said face includes at least one face selected from the group consisting of a land face, a negative land face, and honing portion, and a region of not more than 20 μm in the depth direction from a surface of said face has said volume ratio B/(A+B) of not less than 0.1% by volume and not more than 5% by volume.
A preview image display method, comprising: detecting that a selfie stick is connected to a camera, and upon detecting that the selfie stick is connected to the camera, the method further comprises: determining that an image captured by the camera in a first duration includes a human face; amplifying the human face in the image captured by the camera in a second duration which is consecutive to the first duration; automatically and alternately displaying the amplified human face image and the captured image as a preview image on a display screen; and upon receiving a shooting instruction from the selfie stick, shooting an image captured by the camera according to the shooting instruction, wherein the image captured by the camera is an image in which the human face is not amplified. detecting that a selfie stick is connected to a camera, and upon detecting that the selfie stick is connected to the camera, the method further comprises: determining that an image captured by the camera in a first duration includes a human face; amplifying the human face in the image captured by the camera in a second duration which is consecutive to the first duration; automatically and alternately displaying the amplified human face image and the captured image as a preview image on a display screen; and upon receiving a shooting instruction from the selfie stick, shooting an image captured by the camera according to the shooting instruction, wherein the image captured by the camera is an image in which the human face is not amplified. determining that an image captured by the camera in a first duration includes a human face; amplifying the human face in the image captured by the camera in a second duration which is consecutive to the first duration; automatically and alternately displaying the amplified human face image and the captured image as a preview image on a display screen; and upon receiving a shooting instruction from the selfie stick, shooting an image captured by the camera according to the shooting instruction, wherein the image captured by the camera is an image in which the human face is not amplified.
A method performed by a user equipment, UE, in a wireless communication system comprising a base station, wherein the method comprises: identifying a carrier aggregation, CA, configuration of the UE comprising a plurality of component carriers, CCs; identifying a channel state reporting process limit associated with the CA configuration based at least in part on a processing capability of the UE and an antenna configuration, transmitting an indication of the antenna configuration to the base station, wherein the antenna configuration comprises a number of receive antennas and the channel state reporting process limit is identified based at least in part on the number of receive antennas, transmitting an indication of the channel state reporting process limit to the base station, determining that a number of channel state reports exceeds the channel state reporting process limit; prioritizing a plurality of channel state reports from the number of channel state reports based at least in part on the channel state reporting process limit; receiving a trigger for channel state reporting from the base station; transmitting a first channel state report from the plurality of channel state reports in a first subframe based at least in part on the trigger and according to the channel state reporting process limit and prioritization; and transmitting a second channel state report from the plurality of channel state reports in a second subframe based at least in part on the trigger and according to the channel state reporting process and prioritization. identifying a carrier aggregation, CA, configuration of the UE comprising a plurality of component carriers, CCs; identifying a channel state reporting process limit associated with the CA configuration based at least in part on a processing capability of the UE and an antenna configuration, transmitting an indication of the antenna configuration to the base station, wherein the antenna configuration comprises a number of receive antennas and the channel state reporting process limit is identified based at least in part on the number of receive antennas, transmitting an indication of the channel state reporting process limit to the base station, determining that a number of channel state reports exceeds the channel state reporting process limit; prioritizing a plurality of channel state reports from the number of channel state reports based at least in part on the channel state reporting process limit; receiving a trigger for channel state reporting from the base station; transmitting a first channel state report from the plurality of channel state reports in a first subframe based at least in part on the trigger and according to the channel state reporting process limit and prioritization; and transmitting a second channel state report from the plurality of channel state reports in a second subframe based at least in part on the trigger and according to the channel state reporting process and prioritization.
Kit comprising a packaging material and a solid pharmaceutical or solid nutraceutical product contained in the packaging material, the packaging material having a three-dimensional form or shape with an inner surface and an outer surface, wherein at least that part of the inner surface, which is exposed to the pharmaceutical or nutraceutical product, is made of or covered with an inert material selected from the group consisting of polyamide, polyethylene terephthalate and epoxy resin-coated aluminium, and wherein the solid pharmaceutical or solid nutraceutical product is either an opioid-based pharmaceutical product or is selected from the group consisting of acemetacin, amitriptyline, amobarbital, butalbital, carbachol, citric acid, dexmethylphenidate, fluoxetine, mephobarbital, metamizole, methadone, methylphenidate, methylphenobarbital, nicotine, nifedipine, oxprenolol, oxyconazole, pentobarbital, phenobarbital, phentermine, primidone, proparacaine, propoxyphene, secobarbital, selegiline, tetrahydropapaverine, trimethobenzamide, and mixtures thereof.
A strip tilling system, including: a control system, which includes a suitable controller such as a microprocessor; and at least one strip tilling unit, said strip tilling unit including a support frame, at least one tilling member mounted to the support frame, and at least one fertilizer delivery device mounted to the support frame; wherein the control system is arranged to adjust the position of the fertilizer delivery device with respect to the support frame during a tilling operation.
Cosmetic preparation comprising 2,4-bis{[4-(2-ethylhexyloxy)-2-hydroxy]phenyl}-6-(4-methoxyphenyl)-1,3,5-triazine (INCI: Bis-Ethylhexyloxyphenol Methoxyphenyl Triazine) and hydrogenated vegetable oil (INCI: Hydrogenated Vegetable Oil), the preparation comprising hydrogenated rapeseed oil (INCI: Hydrogenated Rapeseed Oil) as hydrogenated vegetable oil (INCI: Hydrogenated Vegetable Oil) and the preparation being free of propyl and butyl paraben, 3-iodo-2-propynyl butylcarbamate, Hydroxyisohexyl 3-Cyclohexene Carboxaldehyde (Lyral), 3-(4-methylbenzylidene)camphor, 2-hydroxy-4-methoxybenzophenone (Oxybenzone) and 2-ethylhexyl 4-methoxycinnamate (Ethylhexyl Methoxycinnamate).
A method for operating an internal combustion engine, the method comprising: combusting a fuel and air mixture within a combustion chamber of an internal combustion engine, thereby forming an exhaust gas; passing the exhaust gas out of the combustion chamber; performing a startup procedure, the startup procedure comprising: passing the exhaust gas from the combustion chamber to a storage unit bypassing an aftertreatment system; capturing criteria pollutants of the exhaust gas with the storage unit; passing the exhaust gas from the storage unit to the aftertreatment system; heating the aftertreatment system to an activation temperature with the exhaust gas from the storage unit; and subsequent to heating the aftertreatment system to the activation temperature, performing a secondary procedure, the secondary procedure comprising: passing the exhaust gas from the combustion chamber to the aftertreatment system; reacting criteria pollutants of the exhaust gas with the aftertreatment system, thereby forming a treated exhaust gas, wherein the treated exhaust gas comprises less criteria pollutants than the exhaust gas from the combustion chamber; and passing the treated exhaust gas to the storage unit. combusting a fuel and air mixture within a combustion chamber of an internal combustion engine, thereby forming an exhaust gas; passing the exhaust gas out of the combustion chamber; performing a startup procedure, the startup procedure comprising: passing the exhaust gas from the combustion chamber to a storage unit bypassing an aftertreatment system; capturing criteria pollutants of the exhaust gas with the storage unit; passing the exhaust gas from the storage unit to the aftertreatment system; heating the aftertreatment system to an activation temperature with the exhaust gas from the storage unit; and passing the exhaust gas from the combustion chamber to a storage unit bypassing an aftertreatment system; capturing criteria pollutants of the exhaust gas with the storage unit; passing the exhaust gas from the storage unit to the aftertreatment system; heating the aftertreatment system to an activation temperature with the exhaust gas from the storage unit; and subsequent to heating the aftertreatment system to the activation temperature, performing a secondary procedure, the secondary procedure comprising: passing the exhaust gas from the combustion chamber to the aftertreatment system; reacting criteria pollutants of the exhaust gas with the aftertreatment system, thereby forming a treated exhaust gas, wherein the treated exhaust gas comprises less criteria pollutants than the exhaust gas from the combustion chamber; and passing the treated exhaust gas to the storage unit. passing the exhaust gas from the combustion chamber to the aftertreatment system; reacting criteria pollutants of the exhaust gas with the aftertreatment system, thereby forming a treated exhaust gas, wherein the treated exhaust gas comprises less criteria pollutants than the exhaust gas from the combustion chamber; and passing the treated exhaust gas to the storage unit.
A daytime running lamp component for a vehicle headlamp comprising: a support having a front side and a back side; at least one first LED mounted to the front side of the support, said at least one first LED configured and arranged, to output daytime running light under daylight conditions when the vehicle's engine is turned on; a clear lens mounted above the at least one first LED; at least one second LED mounted to the back side of the support, said at least one second LED configured and arranged to output low beam head light when the low beam is turned on by the vehicle operator via a first vehicle switch; characterized in that the daytime running lamp comprises: a three-contact power connector comprising a low beam contact, a high beam contact, and a ground; and a control circuit for operating the DRL component, said control circuit comprising a pulse width modulation detection circuit configured to continuously monitor input voltage, to activate the at least one first LED when a PWM signal is detected on the low beam contact, and to activate the at least one second LED when a steady state voltage is detected on the low beam contact or the high beam contact. a support having a front side and a back side; at least one first LED mounted to the front side of the support, said at least one first LED configured and arranged, to output daytime running light under daylight conditions when the vehicle's engine is turned on; a clear lens mounted above the at least one first LED; at least one second LED mounted to the back side of the support, said at least one second LED configured and arranged to output low beam head light when the low beam is turned on by the vehicle operator via a first vehicle switch; characterized in that the daytime running lamp comprises: a three-contact power connector comprising a low beam contact, a high beam contact, and a ground; and a control circuit for operating the DRL component, said control circuit comprising a pulse width modulation detection circuit configured to continuously monitor input voltage, to activate the at least one first LED when a PWM signal is detected on the low beam contact, and to activate the at least one second LED when a steady state voltage is detected on the low beam contact or the high beam contact. a three-contact power connector comprising a low beam contact, a high beam contact, and a ground; and a control circuit for operating the DRL component, said control circuit comprising a pulse width modulation detection circuit configured to continuously monitor input voltage, to activate the at least one first LED when a PWM signal is detected on the low beam contact, and to activate the at least one second LED when a steady state voltage is detected on the low beam contact or the high beam contact.
A turbine housing comprising a cavity for a turbine wheel, the cavity defining a turbine axis about which the turbine wheel rotates in use, and an inlet volute comprising: a volute passage spiralling radially inwards about the turbine axis from a first end to a second end; a substantially annular throat positioned between a radially inner portion of the volute passage and a radially outer portion of the cavity to provide fluid communication therebetween, the throat being defined between first and second axially-spaced walls (68, 70); a tongue projecting between a radially outer portion of the second end of the volute passage and a radially inner portion of a part of the volute passage radially outboard thereof, the tongue terminating at a distal tongue tip, wherein the volute passage, throat and tongue tip are positioned whereby in a plane containing the turbine axis and the tongue tip: the throat defines a line of minimum clearance, which is a line running between the points on the first and second walls which are the closest together; the volute passage and tongue tip co-operatively define a preliminary inlet area; the line of minimum clearance and the preliminary inlet area co-operatively define a line of passage offset, which connects the centroid of the preliminary inlet area and a point half way along the line of minimum clearance; the tongue tip defines a tongue tip lateral centreline; characterized in that the line of passage offset is not perpendicular to the turbine axis; and the tongue tip lateral centreline and the line of passage offset define an acute angle therebetween of at least 60 degrees. a volute passage spiralling radially inwards about the turbine axis from a first end to a second end; a substantially annular throat positioned between a radially inner portion of the volute passage and a radially outer portion of the cavity to provide fluid communication therebetween, the throat being defined between first and second axially-spaced walls (68, 70); a tongue projecting between a radially outer portion of the second end of the volute passage and a radially inner portion of a part of the volute passage radially outboard thereof, the tongue terminating at a distal tongue tip, the throat defines a line of minimum clearance, which is a line running between the points on the first and second walls which are the closest together; the volute passage and tongue tip co-operatively define a preliminary inlet area; the line of minimum clearance and the preliminary inlet area co-operatively define a line of passage offset, which connects the centroid of the preliminary inlet area and a point half way along the line of minimum clearance; the tongue tip defines a tongue tip lateral centreline; characterized in that the line of passage offset is not perpendicular to the turbine axis; and the tongue tip lateral centreline and the line of passage offset define an acute angle therebetween of at least 60 degrees.
An in vitro method for assessing cytotoxicity of an agent comprising: i) providing a target cell that has been engineered to express a thermostable non-secretory intracellular luciferase reporter; ii) exposing the target cell to an agent capable of modulating cytotoxicity; iii) assaying the activity of the reporter to obtain the reporter activity, wherein the reporter is not expressed endogenously by the target cell or is expressed endogenously by the target cell at a level lower than what is achieved by engineered expression; and wherein a change in the reporter activity relative to a reference value is indicative of the agent being able to modulate cytotoxicity of the target cell; and wherein the reporter activity is assayed in the cell media containing the target cells. i) providing a target cell that has been engineered to express a thermostable non-secretory intracellular luciferase reporter; ii) exposing the target cell to an agent capable of modulating cytotoxicity; iii) assaying the activity of the reporter to obtain the reporter activity, wherein the reporter is not expressed endogenously by the target cell or is expressed endogenously by the target cell at a level lower than what is achieved by engineered expression; and wherein a change in the reporter activity relative to a reference value is indicative of the agent being able to modulate cytotoxicity of the target cell; and wherein the reporter activity is assayed in the cell media containing the target cells.
The compounds of the following general Formula or salts or hydrates thereof, In the Formula: R represents any mono-substituted C 1 -C 6 alkylamino group with straight chain or branched chain; Or any substituted C 3 -C 6 naphthenic amino group; Or pyrrolidinyl group; Q 1, Q 2, Q 3, Q 4 represents H or the group of the following Formula, and Q 1, Q 2, Q 3, Q 4 can not represent H at the same time or Q 1, Q 2, Q 3, Q 4 can not represent the group of the following Formula at the same time. R represents any mono-substituted C 1 -C 6 alkylamino group with straight chain or branched chain; Or any substituted C 3 -C 6 naphthenic amino group; Or pyrrolidinyl group; Q 1, Q 2, Q 3, Q 4 represents H or the group of the following Formula, and Q 1, Q 2, Q 3, Q 4 can not represent H at the same time or Q 1, Q 2, Q 3, Q 4 can not represent the group of the following Formula at the same time.