mhurhangee/ep-ind-claims huggingface dataset:
A dry gaseous fluid pump apparatus comprising: a fluid inlet and a fluid outlet; at least one pump body having an internal wall defining an internal pump chamber thereof; a compression member provided within the pump chamber; an inlet valve arranged to be actuated by an inlet valve actuator and operable selectively to allow fluid to be drawn from the fluid inlet and into the pump chamber when at least a portion of the compression member is translated in a first direction; an outlet valve arranged to be actuated by an outlet valve actuator and operable selectively to allow fluid to be exhausted from the pump chamber through the fluid outlet when said at least a portion of the compression member is translated in a second direction opposite the first; a controller configured to issue signals for controlling the inlet valve actuator; characterised in that: the apparatus further comprises a linear drive assembly operable to drive the at least a portion of the compression member to and fro within the pump chamber; and the controller is arranged to issue a signal to the inlet valve actuator so as to cause the inlet valve to open: a) soon after or substantially at the same time as the outlet valve is closed; and/or b) when or soon after the compression member reaches its TDC position for a given stroke. a fluid inlet and a fluid outlet; at least one pump body having an internal wall defining an internal pump chamber thereof; a compression member provided within the pump chamber; an inlet valve arranged to be actuated by an inlet valve actuator and operable selectively to allow fluid to be drawn from the fluid inlet and into the pump chamber when at least a portion of the compression member is translated in a first direction; an outlet valve arranged to be actuated by an outlet valve actuator and operable selectively to allow fluid to be exhausted from the pump chamber through the fluid outlet when said at least a portion of the compression member is translated in a second direction opposite the first; a controller configured to issue signals for controlling the inlet valve actuator; the apparatus further comprises a linear drive assembly operable to drive the at least a portion of the compression member to and fro within the pump chamber; and the controller is arranged to issue a signal to the inlet valve actuator so as to cause the inlet valve to open: a) soon after or substantially at the same time as the outlet valve is closed; and/or b) when or soon after the compression member reaches its TDC position for a given stroke. a) soon after or substantially at the same time as the outlet valve is closed; and/or b) when or soon after the compression member reaches its TDC position for a given stroke.
An assembly for a drug delivery device comprising: - a screw member comprising a thread, the thread comprising at least two consecutive portions (23a, 23b), the portions (23a, 23b) having different leads, - a nut member, wherein the nut member and the screw member are adapted and arranged to be rotated with respect to one another about a rotational axis during a dose setting operation of the assembly, the nut member thereby being axially displaced along the screw member from a start position to an end position with respect to the screw member due to mechanical cooperation of the nut member with the thread, and wherein the assembly is configured such that the nut member performs a tilting movement when the nut member passes from being engaged with a first portion of the thread to being engaged with the second portion of the thread. - a screw member comprising a thread, the thread comprising at least two consecutive portions (23a, 23b), the portions (23a, 23b) having different leads, - a nut member,
A method of transmitting and receiving secure and non-secure data comprising: providing an indicating signal (512, 612, 1021, 1020, 1625) comprising an indication of whether a receiving apparatus (130, 1000) is capable of handling data comprising both ciphered and unciphered data; transmitting the indicating signal (512, 612, 1021, 1020, 1625); receiving the indicating signal (512, 612, 1021, 1020, 1625); and providing secure data; providing non-secure data; ciphering the secure data to produce ciphered secure data; transmitting the ciphered secure and the non-secure data if the indication is that the receiving apparatus (130, 1000) is capable of handling data comprising both ciphered and unciphered data. receiving transmitted data as received data; deciphering the received data to produce deciphered data; validating the deciphered data (108, 201, 301, 1015) to produce a first validation result (110, 205, 305, 1031) and outputting the deciphered data depending upon the first validation result (110, 205, 305, 1031), and validating the received data to produce a second validation result (110, 205, 306, 1031) and outputting the received data depending upon the second validation result (110, 205, 306, 1031). providing an indicating signal (512, 612, 1021, 1020, 1625) comprising an indication of whether a receiving apparatus (130, 1000) is capable of handling data comprising both ciphered and unciphered data; transmitting the indicating signal (512, 612, 1021, 1020, 1625); receiving the indicating signal (512, 612, 1021, 1020, 1625); and providing secure data; providing non-secure data; ciphering the secure data to produce ciphered secure data; transmitting the ciphered secure and the non-secure data if the indication is that the receiving apparatus (130, 1000) is capable of handling data comprising both ciphered and unciphered data. receiving transmitted data as received data; deciphering the received data to produce deciphered data; validating the deciphered data (108, 201, 301, 1015) to produce a first validation result (110, 205, 305, 1031) and outputting the deciphered data depending upon the first validation result (110, 205, 305, 1031), and validating the received data to produce a second validation result (110, 205, 306, 1031) and outputting the received data depending upon the second validation result (110, 205, 306, 1031).
Double-bar warp-knitting machine having a first needle bed which has a first warp-knitting tool assembly having a plurality of warp-knitting tool types (4, 6, 8) which in terms of drive technology by way of drive apparatuses (11, 12, 13) are in each case connected to a first main shaft, a second needle bed which has a second warp-knitting tool assembly having a plurality of warp-knitting tool types (14, 16, 18) which in terms of drive technology by way of drive apparatuses (21, 22, 23) are in each case connected to a second main shaft, and a bar assembly which is movable between the first needle bed and the second needle bed, wherein the bar assembly by way of first drive apparatuses (29, 31) is operatively connected to the first main shaft, and by way of second drive apparatuses (30, 32) is operatively connected to the second main shaft, characterized in that the second drive apparatuses (30, 32) cause the same movement of the bar assembly as the first drive apparatuses (29, 31).
A method of formulating a resultant hydrogel composition comprising poly(vinyl alcohol) and polyethylene glycol comprising: a) preparing a solution of poly(vinyl alcohol); b) adding polyethylene glycol to form a precursor polymer solution; and c) allowing the polyethylene glycol to remove water from the precursor polymer solution thereby resulting in the formation of a liquid aqueous supernatant and the resultant hydrogel composition, characterised in that the resultant hydrogel composition has a total polymer content relative to the weight of the resultant hydrogel composition that is 30% or more that the total polymer content of the precursor polymer solution relative to the weight of the precursor polymer solution, and wherein the resultant hydrogel composition comprises a poly(vinyl alcohol) at a final concentration of 20% (w/w) to 65% (w/w) and polyethylene glycol at a final concentration of 2% (w/w) to 20% (w/w). a) preparing a solution of poly(vinyl alcohol); b) adding polyethylene glycol to form a precursor polymer solution; and c) allowing the polyethylene glycol to remove water from the precursor polymer solution thereby resulting in the formation of a liquid aqueous supernatant and the resultant hydrogel composition, characterised in that
A method of controlling the flowability of plant seeds by placing the plant seeds of a mass of seeds in contact with dry free flowing particles of a flowability enhancing agent that is made up of at least one species of electret particles made up of a wax, the particles having a volume mean diameter in the range of up to 200 μm, wherein the electret particles adhere more firmly to the plant seeds than do particles that comprise a dry free flowing substance that is or includes a mineral earth component, such as talc, diatomaceous earth, kaolin, or the like.
An oil-in-water emulsion composition comprising the following components to, wherein the combined HLB of the surfactants in the composition is 5 to 7: an oil in which a fatty acid triglyceride having one or more fatty acid groups each having 10 to 22 carbon atoms is contained in an amount of 78 mass% or more in the oil, a sorbitan fatty acid ester having an HLB of 6 or less, and a mannosyl erythritol lipid. an oil in which a fatty acid triglyceride having one or more fatty acid groups each having 10 to 22 carbon atoms is contained in an amount of 78 mass% or more in the oil, a sorbitan fatty acid ester having an HLB of 6 or less, and a mannosyl erythritol lipid.
A wind power generation facility comprising: a tower installed on the ground or on the sea as a supporting column of a power generator; a nacelle, provided on the tower, that includes the power generator; and a rotor, provided at one end of the nacelle, that has a hub and a plurality of blades to receive wind and convert wind power into rotational energy, wherein the hub includes a plurality of pitch driving units to change respective angles of the plurality of blades with respect to the hub and, wherein the plurality of pitch driving units are respectively provided through an opening provided on a barrier in the hub, wherein the wind power generation facility is an outer-ring drive type wind power generation facility having a cylindrical fixed main shaft connecting the hub and the nacelle via a bearing fixed to an outer shell of the hub, and a main shaft provided through the inside of the fixed main shaft connecting the hub and the power generator, in the hub, and the barrier is a bearing support member to fix the bearing to the outer shell of the hub, characterized in that the outer shell of the hub is formed in an approximately equilateral triangular shape in a cross section orthogonal to the fixed main shaft, wherein the plurality of pitch driving units are respectively surrounded by the fixed main shaft and adjacent two sides of the approximately equilateral triangular shaped outer shell of the hub. a tower installed on the ground or on the sea as a supporting column of a power generator; a nacelle, provided on the tower, that includes the power generator; and a rotor, provided at one end of the nacelle, that has a hub and a plurality of blades to receive wind and convert wind power into rotational energy, wherein the hub includes a plurality of pitch driving units to change respective angles of the plurality of blades with respect to the hub and, wherein the plurality of pitch driving units are respectively provided through an opening provided on a barrier in the hub, wherein the wind power generation facility is an outer-ring drive type wind power generation facility having a cylindrical fixed main shaft connecting the hub and the nacelle via a bearing fixed to an outer shell of the hub, and a main shaft provided through the inside of the fixed main shaft connecting the hub and the power generator, in the hub, and the barrier is a bearing support member to fix the bearing to the outer shell of the hub, characterized in that the outer shell of the hub is formed in an approximately equilateral triangular shape in a cross section orthogonal to the fixed main shaft, wherein the plurality of pitch driving units are respectively surrounded by the fixed main shaft and adjacent two sides of the approximately equilateral triangular shaped outer shell of the hub.
A topical formulation for use in a method of treating or preventing an inflammatory skin condition, said method comprising topically administrating a formulation comprising (i) 0.1-3 wt.% cannabidiol and (ii) 0.05-2 wt.% of flavonolignans selected from silibinin, isosilibinin, silicristin, silidianin and combinations thereof, the concentrations of these flavonolignans being calculated as silibinin.
A composition comprising a compound having the general structure of formula: or a pharmaceutically acceptable salt, solvate, polymorph, or tautomer thereof, wherein: - R 1 comprises a group with a formula selected from: a) Formula: or b) Formula: wherein: X is SO 2 m is an integer independently equal to, or greater than 1; - each R 2 is independently selected from the group consisting of -OSO 3 -, -OH, -NH 2, -NHSO 3 -, -NHOCH 3 and -OPO 3 2-; - each R 3 is independently selected from the group consisting of -OSO 3 -, -OH and - OPO 3 2-; - each R 4 is independently selected from the group consisting of -OSO 3 -, -OH, -OPO 3 2- and -H; - each R 5 is independently selected from the group consisting of -CH 2 OSO 3 -, -CH 2 OH, -COO - and -CH 2 OPO 3 2-; - n is an integer between 3 and 10; for use in the treatment of a disorder of lipoprotein metabolism in a subject, wherein said disorder of lipoprotein metabolism is selected from the group consisting of diabetes, obesity, metabolic syndrome, xanthoma, hypercholesterolemia, familial hypercholesterolemia, dyslipidemia, hypertriglyceridemia, hyperlipidemia, sitosterolemia, hypertension, angina, acute coronary syndrome, coronary heart disease, atherosclerosis, arteriosclerosis, vascular inflammation and sepsis. - R 1 comprises a group with a formula selected from: a) Formula: or b) Formula: wherein: X is SO 2 m is an integer independently equal to, or greater than 1; a) Formula: or b) Formula: wherein: X is SO 2 m is an integer independently equal to, or greater than 1; X is SO 2 m is an integer independently equal to, or greater than 1; - each R 2 is independently selected from the group consisting of -OSO 3 -, -OH, -NH 2, -NHSO 3 -, -NHOCH 3 and -OPO 3 2-; - each R 3 is independently selected from the group consisting of -OSO 3 -, -OH and - OPO 3 2-; - each R 4 is independently selected from the group consisting of -OSO 3 -, -OH, -OPO 3 2- and -H; - each R 5 is independently selected from the group consisting of -CH 2 OSO 3 -, -CH 2 OH, -COO - and -CH 2 OPO 3 2-; - n is an integer between 3 and 10;
An electrolytic solution which comprises 0.001-10,000 mass ppm, relative to the electrolytic solution, of a compound of formula: wherein R 11 and R 13 are each individually halogenated alkyl; and X 11 and X 12 are each individually O or S.
A nickel recovery process for recovering nickel from a byproduct of an electrolytic nickel manufacturing process by chlorine-leaching, comprising: a chlorine-leaching step for obtaining a chlorine leachate and a chlorine-leached residue by oxidizing and leaching nickel sulfide; a cementation step for fixing and removing copper in the chlorine leachate; a sulfur recovery step for obtaining a sulfur-containing solution and a residue by solid-liquid separation after slurrying the chlorine-leached residue in a melting tank; and a nickel recovery step for obtaining slurry by adding an aqueous solution with a chlorine dissolving amount of 80 g/L to 390 g/L, and also, with a copper concentration of 30 g/L to 70 g/L to the byproduct containing 5 wt% to 20 wt% of nickel and for solid-liquid separating the slurry into solid phase and liquid phase, wherein the liquid phase is returned into a transportation path from the chlorine-leaching step to the cementation step. a chlorine-leaching step for obtaining a chlorine leachate and a chlorine-leached residue by oxidizing and leaching nickel sulfide; a cementation step for fixing and removing copper in the chlorine leachate; a sulfur recovery step for obtaining a sulfur-containing solution and a residue by solid-liquid separation after slurrying the chlorine-leached residue in a melting tank; and a nickel recovery step for obtaining slurry by adding an aqueous solution with a chlorine dissolving amount of 80 g/L to 390 g/L, and also, with a copper concentration of 30 g/L to 70 g/L to the byproduct containing 5 wt% to 20 wt% of nickel and for solid-liquid separating the slurry into solid phase and liquid phase, wherein the liquid phase is returned into a transportation path from the chlorine-leaching step to the cementation step.
A transformer designed for a multi-current motor vehicle, comprising at least one primary-secondary pair (4, 5, 6), the secondary of which comprises at least one secondary traction winding intended to be connected to the terminals of a circuit for regulating and controlling the motor, and the secondary further comprises an additional secondary winding, characterised in that said additional secondary winding is configured as an open circuit in alternating current mode with one end connected to an earth potential or is intended to be connected to a charge, while said primary is fed with alternating current and is configured as a short-circuit in direct current mode, while said secondary traction winding is fed with direct current and said primary is configured as an open circuit, said additional secondary winding, by cooperating with said secondary traction winding, generating a leakage inductance, which acts as an inductor for smoothing ripples affecting the direct current.
A method of preparing phytochemical-enhanced fluid, comprising the steps: obtaining untreated, live aerial or leafy sections of Bacopa, or a combination of Bacopa and Centella; obtaining a fluid having at least 0.01 mg/L of minerals; wherein said minerals are at least sodium, calcium, and potassium; wherein the fluid has a pH of 5.5 or greater; placing the aerial or leafy sections of Bacopa, or a combination of Bacopa and Centella into the fluid to form an extraction fluid; storing the extraction fluid with the aerial or leafy sections at a cold temperature such as at 1.6°C, 1.75°C, 1.8°C, 2°C, 2.5°C, 3°C, 3.5°C, 4°C, 4.5°C, 5°C, 5.5°C, 6°C, 6.5°C, 7°C, 7.5°C, 8°C, 8.5°C, 9°C, 9.5°C, and 10°C for at least 2 weeks. obtaining untreated, live aerial or leafy sections of Bacopa, or a combination of Bacopa and Centella; obtaining a fluid having at least 0.01 mg/L of minerals; wherein said minerals are at least sodium, calcium, and potassium; wherein the fluid has a pH of 5.5 or greater; wherein said minerals are at least sodium, calcium, and potassium; wherein the fluid has a pH of 5.5 or greater; placing the aerial or leafy sections of Bacopa, or a combination of Bacopa and Centella into the fluid to form an extraction fluid; storing the extraction fluid with the aerial or leafy sections at a cold temperature such as at 1.6°C, 1.75°C, 1.8°C, 2°C, 2.5°C, 3°C, 3.5°C, 4°C, 4.5°C, 5°C, 5.5°C, 6°C, 6.5°C, 7°C, 7.5°C, 8°C, 8.5°C, 9°C, 9.5°C, and 10°C for at least 2 weeks.
A method of analysing a mixed fluorescence response of a plurality of fluorophores in a microscopic sample, wherein the mixed fluorescence response comprises contributions of individual fluorescence responses of each of the plurality of fluorophores, wherein the method includes reconstructing said individual fluorescence responses from the mixed fluorescence response using a spectral un-mixing on the basis of reference emission spectra for the fluorophores to be reconstructed, and wherein said method includes a procedure for determining and validating the reference emission spectra including the steps of a) providing a plurality of image acquisition settings for a sequence of images of the sample equal to, or greater than, the plurality of fluorophores and including an illumination setting for each of the sequence of images, b) acquiring the sequence of images of the sample using the plurality of image acquisition settings and storing each of the sequence of images of the sample together with the corresponding illumination setting, c) determining, from the sequence of images of the sample and the corresponding image acquisition settings, candidate reference emission spectra for the fluorophores to be reconstructed using at least one reference emission spectra determination algorithm, and d) using said candidate reference emission spectra as the reference emission spectra in said spectral un-mixing if at least one condition relating to the candidate spectra is met. a) providing a plurality of image acquisition settings for a sequence of images of the sample equal to, or greater than, the plurality of fluorophores and including an illumination setting for each of the sequence of images, b) acquiring the sequence of images of the sample using the plurality of image acquisition settings and storing each of the sequence of images of the sample together with the corresponding illumination setting, c) determining, from the sequence of images of the sample and the corresponding image acquisition settings, candidate reference emission spectra for the fluorophores to be reconstructed using at least one reference emission spectra determination algorithm, and d) using said candidate reference emission spectra as the reference emission spectra in said spectral un-mixing if at least one condition relating to the candidate spectra is met.
Method for absolute position determination of an end effector of a robotic device with a kinematic chain of movable components, characterised in that • at least one current torque is measured on at least one movable component of the kinematic chain of the robotic device by means of a torque sensor arranged on the movable component, • at least one torque calculated for the movable component on the basis of model data of the robotic device is provided, • a difference between the measured torque and the calculated torque is determined, and • if the difference exceeds a prespecified threshold value, the at least one measured torque is used instead of the calculated torque to determine an absolute position of the end effector of the robotic device. • at least one current torque is measured on at least one movable component of the kinematic chain of the robotic device by means of a torque sensor arranged on the movable component, • at least one torque calculated for the movable component on the basis of model data of the robotic device is provided, • a difference between the measured torque and the calculated torque is determined, and • if the difference exceeds a prespecified threshold value, the at least one measured torque is used instead of the calculated torque to determine an absolute position of the end effector of the robotic device.