mhurhangee/ep-ind-claims huggingface dataset:
A planetary mixer suitable for the dispersion, mixing, mixing and kneading of solid/liquid type materials by plural frame-shaped blades which orbit and rotate in a tank of which the bottom face is of a flat plate shape and the inner face is of a cylindrical shape, wherein the frame-shaped blades have a vertical side portion extending straight along the inner face of the tank and a bottom side portion extending straight along the bottom face of the tank, wherein the vertical side portion and the bottom side portion of the blades are connected at a right angle at such a position corresponding to the corner between bottom face and inner face of the tank, and the corners at connecting portions at both ends of the blades are formed to have a small curved face, and the corner between bottom face and inner face of the tank are formed to have a curved face throughout in its entire circumference characterized in that the distance between the corners at both ends on the bottom side portion of the frame-shaped blade and the corner between bottom face and inner face of the tank becomes constant, when the blade is in a position in which the distance between blade corner and tank corner is minimal during the planetary movement.
A method for the removal of solids from overspray arising when articles are painted, in which the overspray is taken up by an air stream and transported to a separating surface (42a, 42b; 142a, 142b) over which a separating liquid flows, where a majority of at least the solids is transferred to the separating liquid, is transported away thereby and is removed from the liquid by being separated off, characterized in that a separating liquid is used, which a) includes water as a carrier fluid; b) includes a detackifying medium, wherein paint overspray particles are detackified by the detackifying medium; c) further includes one or more polar water-soluble solvents, preferably ethylene glycol, propylene glycol, polyethylene glycol or polypropylene glycol; d) includes a polar water-soluble solvent in a quantity of 1 to 60 weight %, preferably of 20 to 40 weight %, in relation to the total weight of the separating liquid; e) further includes one or more wetting agents, preferably non-ionic, anionic or cationic surfactants, particularly preferably non-ionic surfactants, preferably fatty alcohol ethoxylates or fatty alcohol propoxylates, wherein f) the viscosity of the separating liquid, as measured using a flow cup according to DIN EN ISO 2431, German version EN ISO 2431:1996, dating from 1996, with an outflow opening of 6mm in diameter, is between 2 and 100 seconds, preferably between 5 and 20 seconds, and particularly preferred 10.5 seconds a) includes water as a carrier fluid; b) includes a detackifying medium, wherein paint overspray particles are detackified by the detackifying medium; c) further includes one or more polar water-soluble solvents, preferably ethylene glycol, propylene glycol, polyethylene glycol or polypropylene glycol; d) includes a polar water-soluble solvent in a quantity of 1 to 60 weight %, preferably of 20 to 40 weight %, in relation to the total weight of the separating liquid; e) further includes one or more wetting agents, preferably non-ionic, anionic or cationic surfactants, particularly preferably non-ionic surfactants, preferably fatty alcohol ethoxylates or fatty alcohol propoxylates, f) the viscosity of the separating liquid, as measured using a flow cup according to DIN EN ISO 2431, German version EN ISO 2431:1996, dating from 1996, with an outflow opening of 6mm in diameter, is between 2 and 100 seconds, preferably between 5 and 20 seconds, and particularly preferred 10.5 seconds
A composition for use in inhibiting inflammasome activation in cells of an inflammation-affected subject afflicted with autoimmune uveitis comprising a nucleotide sequence encoding a membrane independent CD59 protein operably linked to a promoter for expression and secretion of the membrane independent CD59 protein in the cells of the inflammation-affected subject; or a soluble CD59 protein; wherein the composition inhibits inflammasome activation, and wherein the subject has displayed positive results for expression or activity of at least one inflammasome activity marker.
A phenol-modified polyorganosiloxane which is represented by the following formula and has a platinum metal content of 0.9 ppm or less: wherein each R a independently represents a substituted or unsubstituted, and linear, branched or cyclic alkylene moiety; and R a is a substituted or unsubstituted C2-C20 alkylene moiety; R and R' are identical or different from one another, and each R and R' independently represents a group selected from the group consisting of C1-C20 alkyl or halogenated alkyl groups and substituted or unsubstituted C6-C20 aryl groups; n is a number ranging from 5 to 500; and the substitution positions of the OH groups on the phenyl groups at both terminals of the molecule are each independently ortho, meta, or para position, wherein the platinum metal content is measured according to the method set forth in the description. wherein each R a independently represents a substituted or unsubstituted, and linear, branched or cyclic alkylene moiety; and R a is a substituted or unsubstituted C2-C20 alkylene moiety; R and R' are identical or different from one another, and each R and R' independently represents a group selected from the group consisting of C1-C20 alkyl or halogenated alkyl groups and substituted or unsubstituted C6-C20 aryl groups; n is a number ranging from 5 to 500; and the substitution positions of the OH groups on the phenyl groups at both terminals of the molecule are each independently ortho, meta, or para position, wherein the platinum metal content is measured according to the method set forth in the description.
A method for adjusting a gap between a first material surface and a second material surface through which a product is to be conveyed, comprising: (a) providing a product to be conveyed, which is located in the gap between the first material surface and the second material surface, with a driving action working towards a relative motion between the first material surface and the product; and (b) changing the gap width, wherein the product to be conveyed is located in the gap, until a retardation counteracting a relative motion between the first material surface and the product fulfills a predetermined condition, wherein step (a) comprises setting the first material surface in motion by a driving action such that the first material surface moves relative to the product such that a gap width between the first material surface and the second material surface remains unchanged; wherein step (b) comprises reducing the gap width, wherein the product to be conveyed is located in the gap until retardation of the driving action fulfills a predetermined condition, and wherein step (b) comprises the following steps: (b.1) incrementally reducing the gap width by using a first step size until the retardation fulfills the predetermined condition; (b.2) incrementally increasing the gap width by using a second step size, which is smaller than the first step size, until the retardation fulfills a further predetermined condition; (b.3) incrementally reducing the gap width by using a third step size, which is smaller than the second step size, until the retardation fulfills the predetermined condition; (b.4) moving the product by a predetermined distance; and (b.5) incrementally increasing the gap width by using a fourth step size, which is smaller than the third step size, until the retardation fulfills the further predetermined condition. (a) providing a product to be conveyed, which is located in the gap between the first material surface and the second material surface, with a driving action working towards a relative motion between the first material surface and the product; and (b) changing the gap width, wherein the product to be conveyed is located in the gap, until a retardation counteracting a relative motion between the first material surface and the product fulfills a predetermined condition, (b.1) incrementally reducing the gap width by using a first step size until the retardation fulfills the predetermined condition; (b.2) incrementally increasing the gap width by using a second step size, which is smaller than the first step size, until the retardation fulfills a further predetermined condition; (b.3) incrementally reducing the gap width by using a third step size, which is smaller than the second step size, until the retardation fulfills the predetermined condition; (b.4) moving the product by a predetermined distance; and (b.5) incrementally increasing the gap width by using a fourth step size, which is smaller than the third step size, until the retardation fulfills the further predetermined condition.
An oligonucleotide preparation comprising a homogenous population of a chemically synthesized oligonucleotide, wherein a homogenous population means that at least 90 % of the oligonucleotides in the preparation have the same chemical identity including the same nucleotide sequence, backbone, modifications, length and end structures, wherein the oligonucleotide has two blunt ends each bearing a 5' triphosphate, wherein the oligonucleotide comprises at least 1, preferably at least 3, more preferably at least 6 ribonucleotide(s) at the 5' end at the blunt end, wherein the 5' triphosphate is attached to the most 5' ribonucleotide, and wherein the 5' triphosphate is free of any cap structure, wherein the blunt end is an end of a fully double-stranded section, and wherein the fully double-stranded section has a length selected from 24, 21, 22, 23, or at least 30 to at most 60 base pairs in length.
A method for mitigating gas and vapor absorption into organic compounds, the method comprising: degassing an organic compound to generate a degassed organic compound that includes an O 2 content less than or equal to 50% of a saturated value of the organic compound; transferring the degassed organic compound while preventing contamination of the organic compound through gas absorption; and storing the degassed organic compound in a storage receptacle to mitigate gas and vapor absorption, further comprising supplying inert gas to the storage receptacle, wherein transferring the degassed organic compound includes pumping the degassed organic compound into the storage receptacle supplied with the inert gas, wherein supplying inert gas to the storage receptacle includes supplying the inert gas with an on-board inert gas generating system (IGGS), wherein the IGGS receives compressed air from a load compressor powered by at least one of an auxiliary power unit or ground power. degassing an organic compound to generate a degassed organic compound that includes an O 2 content less than or equal to 50% of a saturated value of the organic compound; transferring the degassed organic compound while preventing contamination of the organic compound through gas absorption; and storing the degassed organic compound in a storage receptacle to mitigate gas and vapor absorption, further comprising supplying inert gas to the storage receptacle, wherein transferring the degassed organic compound includes pumping the degassed organic compound into the storage receptacle supplied with the inert gas, wherein supplying inert gas to the storage receptacle includes supplying the inert gas with an on-board inert gas generating system (IGGS), wherein the IGGS receives compressed air from a load compressor powered by at least one of an auxiliary power unit or ground power.
A system for treating edema, comprising: a catheter system configured for placement within a vein of a patient, the catheter system having selectively deployable proximal and distal restrictions (22, 24) disposed within an indwelling portion of the catheter system, a blood inflow suction port disposed between the proximal and distal restrictions (22, 24) and in fluid communication with a suction lumen of the catheter system that is effective to remove fluid from venous circulation, a discharge port disposed distally of the distal restrictor and in fluid communication with a discharge lumen of the catheter system and configured to return fluid to venous circulation; a pump configured to create a pressure differential to withdraw fluid from the suction port and through the suction lumen to withdraw a fluid within a vein from venous circulation and to return the fluid to venous circulation through the discharge lumen and the discharge port; a plurality of pressure sensors (28p, 28m, 28d) disposed within the catheter system, the pressure sensors (28p, 28m, 28d) being configured to determine venous pressure upstream of the proximal restriction, between the proximal and distal restriction (22, 24), and downstream of the distal restriction; and a control module configured to control operation of the system. a catheter system configured for placement within a vein of a patient, the catheter system having selectively deployable proximal and distal restrictions (22, 24) disposed within an indwelling portion of the catheter system, a blood inflow suction port disposed between the proximal and distal restrictions (22, 24) and in fluid communication with a suction lumen of the catheter system that is effective to remove fluid from venous circulation, a discharge port disposed distally of the distal restrictor and in fluid communication with a discharge lumen of the catheter system and configured to return fluid to venous circulation; a pump configured to create a pressure differential to withdraw fluid from the suction port and through the suction lumen to withdraw a fluid within a vein from venous circulation and to return the fluid to venous circulation through the discharge lumen and the discharge port; a plurality of pressure sensors (28p, 28m, 28d) disposed within the catheter system, the pressure sensors (28p, 28m, 28d) being configured to determine venous pressure upstream of the proximal restriction, between the proximal and distal restriction (22, 24), and downstream of the distal restriction; and a control module configured to control operation of the system.
A hydrogen sulfate crystalline form II of the compound of formula I, characterized in that it provides characteristic X-ray powder diffraction peaks at 2θ angle values of 12.86°, 13.58°, 15.58°, 17.64°, 18.42°, 21.56°, 22.90°, 23.70°, 24.64°.
Method for controlling a drive device of a vehicle that is at least partially electrically driven, said drive device comprising at least two vehicle wheels mechanically coupled by means of respectively one electric drive unit (22, 24) wherein the electric drive units (22, 24) draw electric energy from an electric energy storage unit in a motor operation and/or supply electric energy to the electric energy storage unit in a generator operation wherein the electric drive units (22, 24) provide a torque in accordance with a drive unit-specific torque specification (34, 36) of a vehicle control system in the intended operation, wherein a maximum overall torque is determined in consideration of a maximum available output of the electric energy storage unit and a total formed by the drive unit-specific torque specifications (34, 36) is limited by means of the maximum overall torque, wherein the vehicle control system allocates a maximum electric output to each of the electric drive units (22, 24) based on a total of the allocated maximum electric outputs being limited by the maximum available output of the electric energy storage unit, characterised in that the vehicle control system determines maximum values for drive unit-specific outputs of the drive units (22, 24) in consideration of the drive unit-specific torque specifications and transmits them to the drive units (22, 24).
Metal-fixing material-feedthrough, in particular for devices which are exposed to high pressures, preferably igniters of airbags or belt tensioners, having a metal pin which is arranged in an opening in a base body in a fixing material, wherein the base body is a ring-shaped or plate-like element and the opening for the metal pin is a through-opening of a ring-shaped or plate-like element, characterized in that the ring-shaped or plate-like element has the through-opening substantially in the center of the ring-shaped or plate-like element, and the ring-shaped or plate-like element has a thickness and a substantially round, in particular circular, outer shape as well as a front side and a rear side, and is obtained by a cold forming method from a wire-shaped material and has in the region of the through-opening a single cut-out region, in particular a cut-out bore on the rear side of the ring-shaped or plate-like element, wherein in the cut-out region the ring-shaped or plate-like element has at least one thickness reduced by the thickness of the cut-out region and the through-opening is punched out of the ring-shaped or plate-like element with the reduced thickness.
A combination comprising tissue-type plasminogen activator (t-PA) and DNAse for use in the treatment of an acute ischemic stroke in a patient in need thereof.
A heating head unit comprising: a rectangular head substrate having long sides and short sides, a strip-like heating element provided continuously on one surface of the head substrate, a pair of electrodes formed on the one surface of the head substrate so as to be electrically connected with both ends of the heating element, and a substrate temperature control means for controlling the substrate temperature by measuring the temperatures of the head substrate and a temperature measurement element, characterized in that the strip-like heating element is provided from one end to another end of the head substrate along the long side of the head substrate, a pair of electrode connecting portions is formed from the same material as that of the heating element which are bent and extend along the short side of the head substrate at both ends of the heating element, each of the pair of electrodes is provided between the strip-like heating element and the side edge of the long side of the head substrate at the side where the electrode connecting portions are provided, wherein the electrodes are electrically connected with each other while being partially brought into contact with each of the pair of electrode connecting portions. a rectangular head substrate having long sides and short sides, a strip-like heating element provided continuously on one surface of the head substrate, a pair of electrodes formed on the one surface of the head substrate so as to be electrically connected with both ends of the heating element, and a substrate temperature control means for controlling the substrate temperature by measuring the temperatures of the head substrate and a temperature measurement element, the strip-like heating element is provided from one end to another end of the head substrate along the long side of the head substrate, a pair of electrode connecting portions is formed from the same material as that of the heating element which are bent and extend along the short side of the head substrate at both ends of the heating element, each of the pair of electrodes is provided between the strip-like heating element and the side edge of the long side of the head substrate at the side where the electrode connecting portions are provided, wherein the electrodes are electrically connected with each other while being partially brought into contact with each of the pair of electrode connecting portions.
An end stop for a fibre optic cable tube, the end stop comprising: a hollow cylindrical housing open at one end and closed at the opposite end; a connector at one end for connection to a respective tube: an annular seal within the housing to seal, in use, against an outer wall of the tube inserted into the housing; and an annular wall spaced radially inwardly from the outer wall of the housing thereby defining an air gap between the outer wall of the housing and the annular wall, being upstanding from the closed end and extending towards the open end, an inner face of the annular wall being dimensioned to receive the tube.
A method of performing a beacon scanning of wireless Access Points, APs, (110,120,130,140) by a wireless mobile station, at a start-up of the wireless mobile station or during handover, in a wireless local area network, WLAN, the method comprising: - entering a low power mode of beacon scanning in which a beacon signal detection unit is active and a signal decoding unit is not active, at the beginning of a first channel scanning time window; - scanning simultaneously a set of channels (210,220,230,240) during the first channel scanning time window in the low power mode of beacon scanning; - recording within a list, at least information regarding time of presence of beacon signal power detected in the set of channels during the first channel scanning time window in the low power mode of beacon scanning; - leaving the low power mode of beacon scanning and activating at least the decoding unit at the end of the first channel scanning time window responsive to presence of beacon signal power having been detected within the set of channels in the low power mode of beacon scanning; and, - decoding, using the list and during a second channel scanning time window subsequent to the first beacon scanning time window, the channels for which beacon signal power has been detected in the low power mode of beacon scanning. - entering a low power mode of beacon scanning in which a beacon signal detection unit is active and a signal decoding unit is not active, at the beginning of a first channel scanning time window; - scanning simultaneously a set of channels (210,220,230,240) during the first channel scanning time window in the low power mode of beacon scanning; - recording within a list, at least information regarding time of presence of beacon signal power detected in the set of channels during the first channel scanning time window in the low power mode of beacon scanning; - leaving the low power mode of beacon scanning and activating at least the decoding unit at the end of the first channel scanning time window responsive to presence of beacon signal power having been detected within the set of channels in the low power mode of beacon scanning; and, - decoding, using the list and during a second channel scanning time window subsequent to the first beacon scanning time window, the channels for which beacon signal power has been detected in the low power mode of beacon scanning.
An inner rotor type small power generator, comprising: a circular stator including a plurality of core windings; a rotor that includes a rotor shaft, in which a driven gear is disposed, and a circular permanent magnet and that is disposed inside the stator; a rotating unit that includes a driving gear and that is rotated by a user at the time of power generation; and a transmission unit that transmits rotation of the driving gear, which is caused by the rotation of the rotating unit, to the driven gear of the rotor shaft through an intermediate gear (54, 55), characterized in that at least one rotary shaft of the intermediate gear (54, 55) is disposed outside the rotor within the stator, and at least one rotary shaft of the intermediate gear (54, 55) is disposed between the core windings of the stator. a circular stator including a plurality of core windings; a rotor that includes a rotor shaft, in which a driven gear is disposed, and a circular permanent magnet and that is disposed inside the stator; a rotating unit that includes a driving gear and that is rotated by a user at the time of power generation; and a transmission unit that transmits rotation of the driving gear, which is caused by the rotation of the rotating unit, to the driven gear of the rotor shaft through an intermediate gear (54, 55), characterized in that at least one rotary shaft of the intermediate gear (54, 55) is disposed outside the rotor within the stator, and at least one rotary shaft of the intermediate gear (54, 55) is disposed between the core windings of the stator.