mhurhangee/ep-ind-claims huggingface dataset:
A taste-enhancing liquid composition including water, flavouring and a thickener, the composition comprising the following elements in combination, with the following proportions, together adding up to 100%: - water, from 75% to 83% in weight relative to the total weight of the composition; - flavouring, from 1% to 6% in weight relative to the total weight of the composition; - salt, from 11% to 15.5% in weight relative to the total weight of the composition; - thickener formed by a mixture of xanthan gum and guar gum proportion, from 0.15% to up to 0.24% in weight relative to the total weight of the composition; - other non-fatty components, from 0.8% to 2% in weight relative to the total weight of the composition, and in that, in addition, the composition does not contain oil, or fats and does not comprise starch. - water, from 75% to 83% in weight relative to the total weight of the composition; - flavouring, from 1% to 6% in weight relative to the total weight of the composition; - salt, from 11% to 15.5% in weight relative to the total weight of the composition; - thickener formed by a mixture of xanthan gum and guar gum proportion, from 0.15% to up to 0.24% in weight relative to the total weight of the composition; - other non-fatty components, from 0.8% to 2% in weight relative to the total weight of the composition, and in that, in addition, the composition does not contain oil, or fats and does not comprise starch.
Use of inactivated transgenic microorganisms transformed with at least one expression vector comprising a cDNA sequence encoding for a GPCR receptor which is vital for a phytophagous animal or pest, said expression vector being capable of expressing dsRNA corresponding to said cDNA sequence, said receptor being selected from the group consisting of allatostatin receptor, diuretic hormone receptor, octopamine/tyramine receptor, alone or in combination with other strains of microorganisms previously transformed with a cDNA sequence encoding for another GPCR receptor which is vital for a different phytophagous animal or pest, as mixture of pesticides against larvae and/or adult insects; wherein said microorganisms are transformed with a cDNA sequence encoding for a GPCR receptor which is vital for Spodoptera littoralis and having a nucleotide sequence selected from the group consisting of allatostatin C receptor AlstCR (SEQ ID NO:1), diuretic hormone receptor, DHR (SEQ ID NO:11), receptor of octopamine/tyramine, Oct/TyrR (SEQ ID NO:15), as pesticide for the eradication of the phytophagous Spodoptera littoralis, or wherein said microorganisms are transformed with a cDNA sequence encoding a GPCR receptor which is vital for Musca domestica having the nucleotide sequence (SEQ ID NO:21) encoding the receptor of octopamine having SEQ ID NO:22, as pesticide for the eradication of the dipteran Musca domestica; or wherein said microorganisms are transformed with a cDNA sequence encoding a GPCR receptor which is vital for Leptinotarsa decemlineata having the nucleotide sequence (SEQ ID NO:23) encoding the receptor of octopamine having SEQ ID NO:24, as pesticide for the eradication of the coleopteran Leptinotarsa decemlineata.
A method comprising: connecting a power supply to a battery; generating a pulse train comprising a plurality of charging-optimized pulses; producing pulsed charging current from the power supply by modulating the power supply with the pulse train, the battery thereby being charged by the pulsed charging current; providing delay for an amount of time; after the delay, generating measurement-optimized pulses, wherein generating the measurement-optimized pulses comprises generating a pseudo-random binary pulse sequence, and wherein pulsed charging current produced using the pseudo-random binary pulse sequence is characterized as a form of band-limited white noise; while the battery is being charged with the pulsed charging current that is produced using the pseudo-random binary pulse sequence, making a plurality of Electrochemical Impedance Spectroscopy, EIS, measurements of the battery, wherein making the plurality of EIS measurements includes making the plurality of EIS measurements based on the pulsed charging current that is produced using the pseudo-random binary pulse sequence; varying, based on the plurality of EIS measurements, as the battery is being charged, at least one of pulse lengths and pulse durations of the plurality of charging-optimized pulses that comprise the pulse train; and restoring charging of the battery with the charging-optimized pulses. connecting a power supply to a battery; generating a pulse train comprising a plurality of charging-optimized pulses; producing pulsed charging current from the power supply by modulating the power supply with the pulse train, the battery thereby being charged by the pulsed charging current; providing delay for an amount of time; after the delay, generating measurement-optimized pulses, wherein generating the measurement-optimized pulses comprises generating a pseudo-random binary pulse sequence, and wherein pulsed charging current produced using the pseudo-random binary pulse sequence is characterized as a form of band-limited white noise; while the battery is being charged with the pulsed charging current that is produced using the pseudo-random binary pulse sequence, making a plurality of Electrochemical Impedance Spectroscopy, EIS, measurements of the battery, wherein making the plurality of EIS measurements includes making the plurality of EIS measurements based on the pulsed charging current that is produced using the pseudo-random binary pulse sequence; varying, based on the plurality of EIS measurements, as the battery is being charged, at least one of pulse lengths and pulse durations of the plurality of charging-optimized pulses that comprise the pulse train; and restoring charging of the battery with the charging-optimized pulses.
A file migration method, applied to an electronic device, wherein a main space, a private space, and a first application are disposed on the electronic device, a filesystem of the electronic device is a filesystem in user space, and when a space running the first application is the private space, the method comprises: receiving a first access request of the first application for a first-type file in the main space, wherein the first-type file comprises any one of a picture, a video, audio, and a contact; if it is determined that the first application has a read and write permission on the first-type file in the main space, redirecting, in response to the first access request, a content provider corresponding to the first-type file from a second content provider in the private space to a first content provider in the main space, wherein the first content provider is used by the first application to obtain the first-type file; receiving a first migration request of the first application for a first specified file in the first-type file in the main space, wherein the first migration request is used to request to migrate the first specified file from the main space to the private space; and in response to the first migration request, migrating the first specified file from the main space to the private space, if it is determined that the first application has the read and write permission on the first-type file in the main space. receiving a first access request of the first application for a first-type file in the main space, wherein the first-type file comprises any one of a picture, a video, audio, and a contact; if it is determined that the first application has a read and write permission on the first-type file in the main space, redirecting, in response to the first access request, a content provider corresponding to the first-type file from a second content provider in the private space to a first content provider in the main space, wherein the first content provider is used by the first application to obtain the first-type file; receiving a first migration request of the first application for a first specified file in the first-type file in the main space, wherein the first migration request is used to request to migrate the first specified file from the main space to the private space; and in response to the first migration request, migrating the first specified file from the main space to the private space, if it is determined that the first application has the read and write permission on the first-type file in the main space.
A method of operating an emission abatement system comprising a selective catalytic reduction catalyst, the method comprising: supplying fuel to a fuel-fired burner positioned upstream of the SCR catalyst to heat exhaust gas being advanced to the SCR catalyst, characterized by determining a flow rate of exhaust gas flowing through the burner determining a temperature of the exhaust gas at an inlet of the burner, predicting an amount of fuel to be further supplied to the burner based upon the flow rate of exhaust gas flowing through the burner and based on the temperature of the exhaust gas at the inlet of the burner, and supplying the predicted amount of fuel to the burner. supplying fuel to a fuel-fired burner positioned upstream of the SCR catalyst to heat exhaust gas being advanced to the SCR catalyst, characterized by determining a flow rate of exhaust gas flowing through the burner determining a temperature of the exhaust gas at an inlet of the burner, predicting an amount of fuel to be further supplied to the burner based upon the flow rate of exhaust gas flowing through the burner and based on the temperature of the exhaust gas at the inlet of the burner, and supplying the predicted amount of fuel to the burner.
A tackifier comprising a resin with repeating units of formula I wherein R 1 is a linear or branched alkylen group with 1 to 10 carbon atoms and R 2 is a linear or branched, saturated or unsaturated aliphatic hydrocarbon group with up to 20 carbon atoms and a non-aromatic compound which consists to at least 50 % by weight of one or more linear or branched, saturated or unsaturated aliphatic hydrocarbon groups with at least 4 carbon atoms, whereby the non-aromatic compound is a fatty acid or fatty alcohol and the tackifier consists to at least 80% by weight of the resin of formula I and the non-aromatic compound. wherein R 1 is a linear or branched alkylen group with 1 to 10 carbon atoms and R 2 is a linear or branched, saturated or unsaturated aliphatic hydrocarbon group with up to 20 carbon atoms and a non-aromatic compound which consists to at least 50 % by weight of one or more linear or branched, saturated or unsaturated aliphatic hydrocarbon groups with at least 4 carbon atoms, whereby the non-aromatic compound is a fatty acid or fatty alcohol and the tackifier consists to at least 80% by weight of the resin of formula I and the non-aromatic compound.
A housing for an electronic device, wherein the housing encloses an interior and comprises housing parts (50, 52) and a bottom in the form of a cooling body, wherein a plurality of shaped parts in the interior of the housing electrically and thermally delimit, together with the bottom, a plurality of spatial regions with regard to one another and to the remainder of the interior, and wherein each of the shaped parts covers a structural unit of the electronic device, characterized in that at least one shaped part is a folded stamped part and has a hood-like form, and in that at least one shaped part is manufactured in a plastic deep drawing process as a deep-drawn part and has a hood-like form.
A method for preparing a partially desiccated liquid inoculant product, wherein the method comprises: providing a liquid inoculant of a bacteria grown to a substantially stationary phase; and adding to the liquid inoculant, in an amount sufficient to partially desiccate the bacteria in the liquid inoculant, a desiccant treatment comprising a desiccant to form the partially desiccated liquid inoculant product, characterised in that the desiccant comprises from about 5% to about 50% by weight/volume of the partially desiccated liquid inoculant product and the desiccant comprises trehalose and sucrose, and the final concentration of trehalose is from about 10 % to about 40% by weight/volume of the partially desiccated inoculant product. providing a liquid inoculant of a bacteria grown to a substantially stationary phase; and adding to the liquid inoculant, in an amount sufficient to partially desiccate the bacteria in the liquid inoculant, a desiccant treatment comprising a desiccant to form the partially desiccated liquid inoculant product, characterised in that the desiccant comprises from about 5% to about 50% by weight/volume of the partially desiccated liquid inoculant product and the desiccant comprises trehalose and sucrose, and the final concentration of trehalose is from about 10 % to about 40% by weight/volume of the partially desiccated inoculant product.
A system comprising: an interface operable to receive a send command for a Mobile Terminated, MT, text message from a web application, wherein the send command is based on a standard used by the web application; and a controller operable to convert the send command for the MT text message to a Session Initiation Protocol, SIP, send request for the MT text message; the interface is further operable to transmit the SIP send request for the MT text message to a packet-switched network, and wherein the interface is further operable to receive a SIP status message from the packet-switched network indicating a delivery status for at least one of the SIP send request and the MT text message; the controller is further operable to convert the SIP status message to a status command in the standard used by the web application; and the interface is further operable to transmit the status command to the web application. an interface operable to receive a send command for a Mobile Terminated, MT, text message from a web application, wherein the send command is based on a standard used by the web application; and a controller operable to convert the send command for the MT text message to a Session Initiation Protocol, SIP, send request for the MT text message; the interface is further operable to transmit the SIP send request for the MT text message to a packet-switched network, and wherein the interface is further operable to receive a SIP status message from the packet-switched network indicating a delivery status for at least one of the SIP send request and the MT text message; the controller is further operable to convert the SIP status message to a status command in the standard used by the web application; and the interface is further operable to transmit the status command to the web application.
A device for facilitating the formation of new bone tissue, comprising a body that defines an upper portion and a lower portion, said lower portion having a substantially frustum-like shape, said upper portion having a substantially cylindrical shape, said lower portion being adapted to be inserted into the medullary canal of a bone, wherein said upper portion is blended with said lower portion with a curved concave segment, characterized in that said body is an internally hollow body which has a top opening and a bottom opening and in that it is provided by means of additive powder technology, wherein said upper portion is internally contoured in steps toward the axis of the body, so as to define, from the upper portion toward the lower portion, a first step which connects a first inner upper portion to a second inner upper portion, by way of an inner curved portion, said first step defined by the inner curved portion protruding inside the hollow body with a convex portion, and a second step which connects the second inner upper portion to an inner surface of the lower portion, said second step being also defined by an inner curved portion protruding inside the hollow body with a convex portion. wherein said upper portion is blended with said lower portion with a curved concave segment, characterized in that said body is an internally hollow body which has a top opening and a bottom opening and in that it is provided by means of additive powder technology, wherein said upper portion is internally contoured in steps toward the axis of the body, so as to define, from the upper portion toward the lower portion, a first step which connects a first inner upper portion to a second inner upper portion, by way of an inner curved portion, said first step defined by the inner curved portion protruding inside the hollow body with a convex portion, and a second step which connects the second inner upper portion to an inner surface of the lower portion, said second step being also defined by an inner curved portion protruding inside the hollow body with a convex portion.
A rubber composition comprising crumb rubber and a maltene-like oil, wherein the maltene-like oil is absorbed in the crumb rubber by heating the crumb rubber with the maltene-like oil for from about 15 to about 90 minutes at a temperature of from about 121 to191 °C, in the substantial absence of a bituminous mixture, and the crumb rubber is thereby swelled to a size found when crumb rubber is cooked in asphalt at about 177°C for one hour with agitation, wherein the composition is substantially free of a bituminous mixture and wherein the composition contains less than 5 wt% of unabsorbed maltene-like oil, and wherein the composition provides simultaneous rut, crack, moisture, and temperature resistance in both dense grade and gap grade paving mixtures.
A method for compensating for ambiguous peaks in an estimated range profile, the method comprising: determining an uncompensated range profile estimate using a stepped frequency process based upon an emitted stepped frequency pulse-train (202, 302) comprising a plurality of sub-pulses, wherein a first center frequency of a first sub-pulse is offset by Δf from a second center frequency of an adjacent second sub-pulse in the stepped frequency pulse train; determining, for each of a plurality of focal range bin signal strengths, an associated predicted power level of a plurality of ambiguous peaks introduced to the range profile estimate; determining an expected range bin location corrupted by the ambiguous peaks with the predicted power levels based on the Δf of the stepped frequency pulse-train; generating a compensated range profile estimate from the uncompensated range profile estimate, the expected range bin location corrupted by the ambiguous peaks and the associated predicted power level of the ambiguous peaks; and iteratively updating the compensated range profile estimate as the predicted power levels contributed to determined range bins are adjusted for each focal range bin. determining an uncompensated range profile estimate using a stepped frequency process based upon an emitted stepped frequency pulse-train (202, 302) comprising a plurality of sub-pulses, wherein a first center frequency of a first sub-pulse is offset by Δf from a second center frequency of an adjacent second sub-pulse in the stepped frequency pulse train; determining, for each of a plurality of focal range bin signal strengths, an associated predicted power level of a plurality of ambiguous peaks introduced to the range profile estimate; determining an expected range bin location corrupted by the ambiguous peaks with the predicted power levels based on the Δf of the stepped frequency pulse-train; generating a compensated range profile estimate from the uncompensated range profile estimate, the expected range bin location corrupted by the ambiguous peaks and the associated predicted power level of the ambiguous peaks; and iteratively updating the compensated range profile estimate as the predicted power levels contributed to determined range bins are adjusted for each focal range bin.
Process for finding a patient sample having a disordered VWF-GPIb interaction, comprising a. contacting a blood, plasma or serum sample of a patient with isolated GPIbα protein, with VWF protein and with a solid phase associated with an antibody specific for said isolated GPIbα protein, and b. determining formation of a complex between VWF protein, GPIbα protein and the solid phase. a. contacting a blood, plasma or serum sample of a patient with isolated GPIbα protein, with VWF protein and with a solid phase associated with an antibody specific for said isolated GPIbα protein, and b. determining formation of a complex between VWF protein, GPIbα protein and the solid phase.
A method for producing a water absorbent resin which method is a method for producing surface cross-linked water absorbent resin particles, wherein: in the step of adding a surface cross-linking agent and water to a particulate water absorbent resin in a mixer, a temperature of the particulate water absorbent resin is preset to 30°C to 150°C; and a continuous mixing apparatus is used which meets the following requirements (i) through (iii): (i) at least one stirring vane revolves at 300 rpm to 3000 rpm; (ii) a revolving shaft of the at least one stirring vane is in a vertical direction; and (iii) a mixing vessel is vertically divided into two or more rooms by a partition whose aperture ratio is 5% to 70%. in the step of adding a surface cross-linking agent and water to a particulate water absorbent resin in a mixer, a temperature of the particulate water absorbent resin is preset to 30°C to 150°C; and a continuous mixing apparatus is used which meets the following requirements (i) through (iii): (i) at least one stirring vane revolves at 300 rpm to 3000 rpm; (ii) a revolving shaft of the at least one stirring vane is in a vertical direction; and (iii) a mixing vessel is vertically divided into two or more rooms by a partition whose aperture ratio is 5% to 70%. (i) at least one stirring vane revolves at 300 rpm to 3000 rpm; (ii) a revolving shaft of the at least one stirring vane is in a vertical direction; and (iii) a mixing vessel is vertically divided into two or more rooms by a partition whose aperture ratio is 5% to 70%.
A loop-type heat pipe comprising: an evaporator configured to vaporize an operating fluid; a condenser configured to condense the operating fluid; a liquid pipe configured to connect the evaporator and the condenser; a vapor pipe configured to connect the evaporator and the condenser and to form a loop together with the liquid pipe; a first porous body provided in the evaporator; and a second porous body provided in the liquid pipe, wherein a connection region between the evaporator and the liquid pipe comprises: a first extension part (831, 832, 833) extending from the first porous body toward the second porous body, and a space part in contact with the first extension part (831, 832, 833), characterized in that a leading end of the first extension part (831, 832, 833) is inserted in a first concave part formed in the second porous body. an evaporator configured to vaporize an operating fluid; a condenser configured to condense the operating fluid; a liquid pipe configured to connect the evaporator and the condenser; a vapor pipe configured to connect the evaporator and the condenser and to form a loop together with the liquid pipe; a first porous body provided in the evaporator; and a second porous body provided in the liquid pipe, wherein a connection region between the evaporator and the liquid pipe comprises: a first extension part (831, 832, 833) extending from the first porous body toward the second porous body, and a space part in contact with the first extension part (831, 832, 833), characterized in that a leading end of the first extension part (831, 832, 833) is inserted in a first concave part formed in the second porous body. a first extension part (831, 832, 833) extending from the first porous body toward the second porous body, and a space part in contact with the first extension part (831, 832, 833), characterized in that a leading end of the first extension part (831, 832, 833) is inserted in a first concave part formed in the second porous body.