mhurhangee/ep-ind-claims huggingface dataset:
Bearing assembly supporting a printing cylinder (14, 16) or an anilox roll in a printing machine, comprising at least one roller bearing (28, 30) being configured for receiving a shaft (12b, 14b, 16b) associated with the printing cylinder (14, 16) or the anilox roll, wherein a first support part carrying the at least one roller bearing (28, 30), a second support part being a carrier element (20, 22, 24) of the printing machine or being configured for being mounted to a carrier element (20, 22, 24) of the printing machine, and a fluid chamber acting between the at least one roller bearing (28, 30) and the second support part wherein the first support part is rotationally fixed with respect to the second support part. wherein a first support part carrying the at least one roller bearing (28, 30), a second support part being a carrier element (20, 22, 24) of the printing machine or being configured for being mounted to a carrier element (20, 22, 24) of the printing machine, and a fluid chamber acting between the at least one roller bearing (28, 30) and the second support part wherein the first support part is rotationally fixed with respect to the second support part.
A method for controlling pump speed in a hydraulic system on a material handling vehicle, the method comprising: measuring a temperature, via a temperature sensor, of hydraulic fluid during operation of the material handling vehicle; selecting a speed profile (908; 910) from a plurality of speed profiles based on the measured temperature; measuring a height, via a height sensor, of a fork assembly on the material handling vehicle; determining a target pump speed based on the selected speed profile and the measured height of the fork assembly; and controlling a pump speed of a hydraulic pump on the material handling vehicle to operate within a predefined tolerance of the target pump speed. measuring a temperature, via a temperature sensor, of hydraulic fluid during operation of the material handling vehicle; selecting a speed profile (908; 910) from a plurality of speed profiles based on the measured temperature; measuring a height, via a height sensor, of a fork assembly on the material handling vehicle; determining a target pump speed based on the selected speed profile and the measured height of the fork assembly; and controlling a pump speed of a hydraulic pump on the material handling vehicle to operate within a predefined tolerance of the target pump speed.
An assembly for controlling at least two air flows by by means of at least one leg flap and at least one drum flop, wherein a common drive is provided for the leg flap and the drum flap, characterised in that the drum flap has at least two open air-guiding regions (6, 7) and the open, air-guiding regions (6, 7) of the drum flap are formed and arranged such that the opening degree of the drum flap for the air flow flowing therethrough deviates from the opening degree of the leg flap for the airflow flowing therethrough in the majority of the angular positions of both flaps (2, 3) settable by means of the drive.
A polymer latex for the preparation of an elastomeric film obtainable by free-radical emulsion polymerization of a mixture of ethylenically unsaturated monomers comprising: a) 15 to 99 wt.-% of conjugated dienes; b) 0 to 80 wt.-% of ethylenically unsaturated nitrile compounds; c) 0 to 70 wt.-% of vinyl aromatic monomers; the sum of ethylenically unsaturated nitrile compounds b) and vinyl aromatic monomers c) being 0.95 to 84.95 wt.-% d) 0.05 to 10 wt.-% of ethylenically unsaturated acids wherein the ethylenically unsaturated acids comprise d1) an ethylenically unsaturated acid comprising - an acid functional group; and - a spacer group separating the ethylenically unsaturated group and the acid functional group by at least 4 atoms; and e) 0 to 65 wt.-% of co-polymerizable ethylenically unsaturated compounds, wherein monomers a) to e) are different from each other and the weight percentages being based on the total monomers in the mixture. a) 15 to 99 wt.-% of conjugated dienes; b) 0 to 80 wt.-% of ethylenically unsaturated nitrile compounds; c) 0 to 70 wt.-% of vinyl aromatic monomers; the sum of ethylenically unsaturated nitrile compounds b) and vinyl aromatic monomers c) being 0.95 to 84.95 wt.-% d) 0.05 to 10 wt.-% of ethylenically unsaturated acids wherein the ethylenically unsaturated acids comprise d1) an ethylenically unsaturated acid comprising - an acid functional group; and - a spacer group separating the ethylenically unsaturated group and the acid functional group by at least 4 atoms; and - an acid functional group; and - a spacer group separating the ethylenically unsaturated group and the acid functional group by at least 4 atoms; and e) 0 to 65 wt.-% of co-polymerizable ethylenically unsaturated compounds,
A method of multiple connection providing a service comprising a communication connection between at least one server and a client, the method characterized by the client performing steps of: referring to a multiple connection history comprising previously determined information about a number of multiple connections and a size of a sub-segment split from a segment of data to be transmitted through the multiple connections, wherein the previously determined information is determined based on an arrival time difference of each packet included in the sub-segment; determining a number of multiple connections and a size of the sub-segment based on the multiple connection history; and requesting the multiple connections according to the determined number of multiple connections and the determined size of the sub-segment. referring to a multiple connection history comprising previously determined information about a number of multiple connections and a size of a sub-segment split from a segment of data to be transmitted through the multiple connections, wherein the previously determined information is determined based on an arrival time difference of each packet included in the sub-segment; determining a number of multiple connections and a size of the sub-segment based on the multiple connection history; and requesting the multiple connections according to the determined number of multiple connections and the determined size of the sub-segment.
A heat production plant configured to be supplied with wood fuel, wood-shell fruit residues and other similar vegetable residues, comprising: - a first containment tank for storing standard wood chips; - a shredding mill, or refiner configured to reduce the size of said standard wood chips, said shredding mill, or refiner comprising an outlet chamber for collecting reduced wood chips exiting the shredding mill itself, or refiner; - first transfer means for conveying said standard wood chips from the bottom of said first containment tank to said shredding mill, or refiner; - a second containment tank for storing the reduced wood chips; - second transfer means for conveying the reduced wood chips from said outlet chamber to said second containment tank; - a combustion module, comprising a pellet burner; - third transfer means for conveying said reduced wood chips from the bottom of said second containment tank to said pellet burner; - a heat exchange module, configured for heat exchange between the flue gases exiting said combustion module and a flow of a fluid to be heated; - a module for pumping said fluid to be heated, configured to draw said fluid to be heated and to push it through said heat exchange module, wherein said third transfer means comprise a third auger (19, 19a), said combustion module comprising an arrival chamber wherein said reduced wood chips lifted by said third auger (19, 19a) arrive. - a first containment tank for storing standard wood chips; - a shredding mill, or refiner configured to reduce the size of said standard wood chips, said shredding mill, or refiner comprising an outlet chamber for collecting reduced wood chips exiting the shredding mill itself, or refiner; - first transfer means for conveying said standard wood chips from the bottom of said first containment tank to said shredding mill, or refiner; - a second containment tank for storing the reduced wood chips; - second transfer means for conveying the reduced wood chips from said outlet chamber to said second containment tank; - a combustion module, comprising a pellet burner; - third transfer means for conveying said reduced wood chips from the bottom of said second containment tank to said pellet burner; - a heat exchange module, configured for heat exchange between the flue gases exiting said combustion module and a flow of a fluid to be heated; - a module for pumping said fluid to be heated, configured to draw said fluid to be heated and to push it through said heat exchange module,
Actuation control circuitry for a droplet deposition head that comprises an array of actuating elements and a corresponding array of nozzles, the actuation control circuitry being configured to: receive a series of sub-sets of ejection data, each of which is based on an input set of ejection data; receive trigger signals; for each of said sub-sets of ejection data, repeatedly send a corresponding set of actuation commands to waveform generating circuitry for the droplet deposition head, each set of actuation commands causing the waveform generating circuitry to apply drive waveforms (110) to said actuating elements such that they eject droplets from one or more nozzles, the one or more nozzles and the sizes of the droplets ejected therefrom being determined by the corresponding sub-set of ejection data, the repeated sending of the set of actuation commands causing each of the one or more nozzles to repeatedly eject droplets every T seconds, that is, with a substantially constant frequency of 1/T, thus depositing successive rows of droplets; and switch from sending actuation commands in accordance with a current sub-set of ejection data to sending actuation commands in accordance with a consecutive sub-set of ejection data in the series at a time determined in accordance with said trigger signals, wherein each of the one or more nozzles maintains the ejection of droplets with the substantially constant frequency of 1/T in accordance with the current sub-set of ejection data and the consecutive sub-set of ejection data. receive a series of sub-sets of ejection data, each of which is based on an input set of ejection data; receive trigger signals; for each of said sub-sets of ejection data, repeatedly send a corresponding set of actuation commands to waveform generating circuitry for the droplet deposition head, each set of actuation commands causing the waveform generating circuitry to apply drive waveforms (110) to said actuating elements such that they eject droplets from one or more nozzles, the one or more nozzles and the sizes of the droplets ejected therefrom being determined by the corresponding sub-set of ejection data, the repeated sending of the set of actuation commands causing each of the one or more nozzles to repeatedly eject droplets every T seconds, that is, with a substantially constant frequency of 1/T, thus depositing successive rows of droplets; and switch from sending actuation commands in accordance with a current sub-set of ejection data to sending actuation commands in accordance with a consecutive sub-set of ejection data in the series at a time determined in accordance with said trigger signals, wherein each of the one or more nozzles maintains the ejection of droplets with the substantially constant frequency of 1/T in accordance with the current sub-set of ejection data and the consecutive sub-set of ejection data.
A microemulsion composition comprising: racecadotril, a surfactant and a lipid; wherein the racecadotril is present in an amount from 8 wt. % to 10 wt. %, wherein the at least one surfactant is present in an amount from 88 wt. % to 91 wt. % in total, wherein the lipid is present in an amount of from 1 wt. % to 2 wt. %, wherein each wt. % is based upon 100ml of the composition, wherein the surfactant is selected from the group consisting of a Distearoylphosphatidylglycerol (DSPG), L-α-toylphosphatidylcholine (DMPC), L-α-dimyristoylphosphatidylglycerol (DMPG), Polyoxyl 35 castor oil, Polyoxyl 40 hydrogenated castor oil, Polyoxyl 60 hydrogenated castor oil, Polysorbate 20, PEG 300 caprylic/capric glycerides, PEG 400 caprylic/capric glycerides, PEG 300 oleic glycerides, PEG 300 linoleic glycerides, Glyceryl Caprylate (Mono- and Diglycerides), and mixtures thereof, and wherein the lipid is a triglyceride selected from the group consisting of long-chain triglycerides, Medium-chain triglycerides, Caprylic/capric triglycerides derived from coconut oil, palm seed oil, and mixtures thereof. racecadotril, a surfactant and a lipid; wherein the racecadotril is present in an amount from 8 wt. % to 10 wt. %, wherein the at least one surfactant is present in an amount from 88 wt. % to 91 wt. % in total, wherein the lipid is present in an amount of from 1 wt. % to 2 wt. %, wherein each wt. % is based upon 100ml of the composition, wherein the surfactant is selected from the group consisting of a Distearoylphosphatidylglycerol (DSPG), L-α-toylphosphatidylcholine (DMPC), L-α-dimyristoylphosphatidylglycerol (DMPG), Polyoxyl 35 castor oil, Polyoxyl 40 hydrogenated castor oil, Polyoxyl 60 hydrogenated castor oil, Polysorbate 20, PEG 300 caprylic/capric glycerides, PEG 400 caprylic/capric glycerides, PEG 300 oleic glycerides, PEG 300 linoleic glycerides, Glyceryl Caprylate (Mono- and Diglycerides), and mixtures thereof, and wherein the lipid is a triglyceride selected from the group consisting of long-chain triglycerides, Medium-chain triglycerides, Caprylic/capric triglycerides derived from coconut oil, palm seed oil, and mixtures thereof.
Detection circuit comprising: - a photodiode delivering an electric current representative of an observed scene, - a readout circuit provided with a capacitive transimpedance amplifier (3, 4) formed by an amplifier having an input and an output connected by an integration capacitor, the input of the amplifier being connected to the photodiode in such a way that the current delivered by the photodiode is stored in the integration capacitor and that the voltage (V S) at the output of the amplifier changes as a function of the voltage across the integration capacitor, - an anti-blooming circuit connected between the input and an output of the capacitive transimpedance amplifier (3, 4), detection circuit characterized in that the anti-blooming circuit comprises means for comparing the output voltage (V S) of the capacitive transimpedance amplifier (3, 4) with a setpoint voltage (V AB), said means for comparing being connected to means for applying a feedback current to the input of the capacitive transimpedance amplifier (3, 4) when the difference between the output voltage (V S) of the capacitive transimpedance amplifier (3, 4) and the setpoint voltage (V AB) reaches a limit value so that the voltage across the integration capacitor and the output voltage (V S) of the capacitive transimpedance amplifier (3, 4) are fixed. - a photodiode delivering an electric current representative of an observed scene, - a readout circuit provided with a capacitive transimpedance amplifier (3, 4) formed by an amplifier having an input and an output connected by an integration capacitor, the input of the amplifier being connected to the photodiode in such a way that the current delivered by the photodiode is stored in the integration capacitor and that the voltage (V S) at the output of the amplifier changes as a function of the voltage across the integration capacitor, - an anti-blooming circuit connected between the input and an output of the capacitive transimpedance amplifier (3, 4),
A method for determining a filling mass in a thermally insulated container for a cryogenically stored gas, wherein the filling mass is determined via a known container volume and a calculated density of the gas content of the container, the value of which is calculated from a container pressure measurement and from a temperature measurement, characterised in that a temperature sensor is used to measure a mixed temperature of a liquid and a gaseous phase of the gas, the liquid phase is extracted via a first extraction supply line at the geodetically lowest point and the gaseous phase is extracted via a second extraction supply line at the geodetically highest point of the container cavity, wherein the temperature sensor is positioned downstream of the extraction points after a convergence of the first and second extraction supply lines (11, 12) to a single extraction line, leading out of the container, on the inside or outside of said line, at a location where the liquid and gaseous phases of the gas from the first and second extraction supply lines (11, 12) have already been completely and thoroughly mixed.
A self-aligning coupling linkage for a drive train of a hair cutting appliance comprising a driving shaft and a non-aligning output shaft, said coupling linkage comprising: - a first driving coupling element arranged to be driven by the driving shaft, particularly by a motor shaft, - a transmission shaft, particularly a rigid transmission shaft, comprising a first drivable coupling element at a first end and a second driving coupling element at a second end thereof, wherein said first driving coupling element engages the first drivable coupling element for rotatingly driving the transmission shaft, thereby forming a first pivoting joint, wherein the second driving coupling element is arranged to engage a second drivable coupling element of the output shaft, wherein the first driving coupling element and the first drivable coupling element define a male connector comprising an external polygonal profile, viewed in a cross-sectional plane perpendicular to a longitudinal axis, and a female connector comprising an internal polygonal profile, and wherein the external polygonal profile of the male connector, viewed in a longitudinal axial section, is at least sectionally provided with convexly shaped flanks. - a first driving coupling element arranged to be driven by the driving shaft, particularly by a motor shaft, - a transmission shaft, particularly a rigid transmission shaft, comprising a first drivable coupling element at a first end and a second driving coupling element at a second end thereof,
A packaging glass substrate for a semiconductor comprising: a glass substrate (21, 21a) with a first surface and a second surface facing each other; a plurality of core via arranged in a grid pattern and penetrating through the glass substrate (21, 21a) in a thickness direction; characterized by: a plain line is a straight line parallel to a via line and linking places where the core via is not formed, a via line is a straight line linking nearest places where the core via is formed, a stress difference value P is a value according to the below Equation 1, and the stress difference value P is 0.01 MPa or more and 1.5 MPa or less; P = Vp − Np wherein in the Equation 1: P is a stress difference value measured at the same glass substrate (21, 21a), Vp is a difference between the maximum value and the minimum value of stress measured at a via line, Np is a difference between the maximum value and the minimum value of stress measured at a plain line, wherein the stress values are analysed by birefringence 2D dispersion evaluation. a glass substrate (21, 21a) with a first surface and a second surface facing each other; a plurality of core via arranged in a grid pattern and penetrating through the glass substrate (21, 21a) in a thickness direction; characterized by: a plain line is a straight line parallel to a via line and linking places where the core via is not formed, a via line is a straight line linking nearest places where the core via is formed, a stress difference value P is a value according to the below Equation 1, and the stress difference value P is 0.01 MPa or more and 1.5 MPa or less; P = Vp − Np wherein in the Equation 1: P is a stress difference value measured at the same glass substrate (21, 21a), Vp is a difference between the maximum value and the minimum value of stress measured at a via line, Np is a difference between the maximum value and the minimum value of stress measured at a plain line, wherein the stress values are analysed by birefringence 2D dispersion evaluation. a plain line is a straight line parallel to a via line and linking places where the core via is not formed, a via line is a straight line linking nearest places where the core via is formed, a stress difference value P is a value according to the below Equation 1, and the stress difference value P is 0.01 MPa or more and 1.5 MPa or less; P = Vp − Np wherein in the Equation 1: P is a stress difference value measured at the same glass substrate (21, 21a), Vp is a difference between the maximum value and the minimum value of stress measured at a via line, Np is a difference between the maximum value and the minimum value of stress measured at a plain line, wherein the stress values are analysed by birefringence 2D dispersion evaluation. P is a stress difference value measured at the same glass substrate (21, 21a), Vp is a difference between the maximum value and the minimum value of stress measured at a via line, Np is a difference between the maximum value and the minimum value of stress measured at a plain line, wherein the stress values are analysed by birefringence 2D dispersion evaluation.
A process for the identification of compounds with a molecular weight in the range 100 to 750 which inhibit the binding of the first and/or second bromodomains of human BRD-2 to 4 to acetylated lysine residues of their physiological partner proteins which comprises selecting those compounds which are able to: a) form a hydrogen bonding interaction in which the compound accepts a hydrogen bond from the sidechain NH2 group of the asparagine residue found at: BRD-2 BD1 BRD-2 BD2 BRD-3 BD1 BRD-3 BD2 BRD-4 BD1 BRD-4 BD2 ASN156 ASN429 ASN116 ASN391 ASN140 ASN433 or b) accept a water-mediated hydrogen bond in which the compound accepts a hydrogen bond from a water that is itself hydrogen-bonded to the sidechain hydroxyl of the tyrosine residue found at BRD-2 BD1 BRD-2 BD2 BRD-3 BD1 BRD-3 BD2 BRD-4 BD1 BRD-4 BD2 TYR113 TYR386 TYR73 TYR348 TYR97 TYR390 and c) which are also able to form a Van der Waals interaction with a lipophilic binding region of a binding pocket such that one or more heavy atoms of the said compounds lie within a 5A range of any of the heavy atoms of the following bromodomain residues which define the binding pocket: BRD-2 BD1 BRD-2 BD2 BRD-3 BD1 BRD-3 BD2 BRD-4 BD1 BRD-4 BD2 TRP97 TRP370 TRP57 TRP332 TRP81 TRP374 PR098 PR0371 PR058 PR0333 PR082 PRO375 ASP161 ASP434 ASP121 GLU396 ASP145 GLU438 ILE162 VAL435 ILE122 VAL397 ILE146 VAL439 MET165 MET438 MET125 MET400 MET149 MET442 a) form a hydrogen bonding interaction in which the compound accepts a hydrogen bond from the sidechain NH2 group of the asparagine residue found at: BRD-2 BD1 BRD-2 BD2 BRD-3 BD1 BRD-3 BD2 BRD-4 BD1 BRD-4 BD2 ASN156 ASN429 ASN116 ASN391 ASN140 ASN433 or b) accept a water-mediated hydrogen bond in which the compound accepts a hydrogen bond from a water that is itself hydrogen-bonded to the sidechain hydroxyl of the tyrosine residue found at BRD-2 BD1 BRD-2 BD2 BRD-3 BD1 BRD-3 BD2 BRD-4 BD1 BRD-4 BD2 TYR113 TYR386 TYR73 TYR348 TYR97 TYR390 and c) which are also able to form a Van der Waals interaction with a lipophilic binding region of a binding pocket such that one or more heavy atoms of the said compounds lie within a 5A range of any of the heavy atoms of the following bromodomain residues which define the binding pocket: BRD-2 BD1 BRD-2 BD2 BRD-3 BD1 BRD-3 BD2 BRD-4 BD1 BRD-4 BD2 TRP97 TRP370 TRP57 TRP332 TRP81 TRP374 PR098 PR0371 PR058 PR0333 PR082 PRO375 ASP161 ASP434 ASP121 GLU396 ASP145 GLU438 ILE162 VAL435 ILE122 VAL397 ILE146 VAL439 MET165 MET438 MET125 MET400 MET149 MET442