mhurhangee/ep-ind-claims huggingface dataset:
Disk brake, in particular for commercial vehicles, having a brake disk, a brake caliper, at least one application device lying within the brake caliper on one side of the brake disk, an axially movable device, which moves a brake pad axially toward the brake disk by means of at least one actuating spindle when the brake is actuated, wherein the actuating spindle can be rotated, has an external thread, and is screwed into a threaded bore in the movable device, and an adjustment mechanism, which can be rotated about a rotation axis (A-B) lying parallel to the rotation axis of the brake disk and which, in the case of rotation in a first direction of rotation bringing about adjustment, rotates the actuating spindle because of a rotational coupling acting in said direction of rotation, characterized in that the adjustment mechanism has a thread device, which, at least in the case of rotation in a second direction of rotation opposite the first direction of rotation (lln), meshes with the external thread of the actuating spindle and screws the adjustment mechanism in relation to the actuating spindle, wherein the thread device has a threaded disk which has at least one internal thread portion fitting with the external thread of the actuating spindle and wherein the adjustment mechanism has a clamping roller free-running hub.
A modular ceramic filter element comprising a first elongate hollow body, a second elongate hollow body and connection means for connecting the first elongate hollow body to the second elongate hollow body, characterised in that the connection means comprises a connection member in the form of a ring that extends axially into a lower wall of the first elongate hollow body and into the upper wall of the second elongate hollow body to provide a gas-tight seal between the first elongate hollow body and the second elongate hollow body.
A hemodialysis apparatus, comprising: a dialyzer; a vessel including a displaceable partition wall which partitions the inside of the vessel into a first chamber and a second chamber; a storage vessel which stores a dialysate and which includes a displaceable partition wall configured to partition the inside of the storage vessel into two storage chambers (14a, 14b); a dialysate exchange circuit which supplies the dialysate to the first chamber and discharges a waste dialysate in the second chamber to the outside by the consequent displacement of the partition wall to the second chamber side; a dialysate supply circuit which supplies the dialysate in the first chamber to the dialyzer and discharges the waste dialysate from the dialyzer to the second chamber by the displacement of the partition wall to the first chamber side; and a dialysate storage circuit which supplies the dialysate in the first chamber to the storage vessel by the displacement of the partition wall to the first chamber side, characterised in that the hemodialysis apparatus is configured such that an amount of water content of the blood corresponding to an amount of the dialysate supplied to the storage vessel can be discharged to the second chamber by utilizing a negative pressure of the second chamber that is generated by supplying the dialysate in the first chamber to the storage vessel, and in that the dialysate storage circuit is configured to selectively supply the dialysate in the first chamber to the respective storage chambers (14a, 14b) of the storage vessel, and to selectively discharge the dialysate in each of the storage chambers (14a, 14b). a dialyzer; a vessel including a displaceable partition wall which partitions the inside of the vessel into a first chamber and a second chamber; a storage vessel which stores a dialysate and which includes a displaceable partition wall configured to partition the inside of the storage vessel into two storage chambers (14a, 14b); a dialysate exchange circuit which supplies the dialysate to the first chamber and discharges a waste dialysate in the second chamber to the outside by the consequent displacement of the partition wall to the second chamber side; a dialysate supply circuit which supplies the dialysate in the first chamber to the dialyzer and discharges the waste dialysate from the dialyzer to the second chamber by the displacement of the partition wall to the first chamber side; and a dialysate storage circuit which supplies the dialysate in the first chamber to the storage vessel by the displacement of the partition wall to the first chamber side,
A process for manufacturing an animal feed or foodstuff, comprising the steps of: (i) providing at least one first stream of material comprising a meat and/or fish emulsion, and at least one second stream of material comprising at least one gel-forming and/or gel-like substance, (ii) feeding the second stream of material into the first stream of material in the form of layers, and/or coarsely dispersing the second stream of material into the first stream of material in the form of droplets with a size of at least 0.3 to 8 mm, (iia) discharging the combination of materials obtained in step (ii) through a nozzle or screen plate, (iii) solidifying at least the first stream of material contained in the combination of materials obtained in step (ii), and (iv) cutting the combination of materials obtained in step (iii), substantially perpendicularly to the discharge direction, into slices with a thickness of 0.6 - 6 mm, wherein the slices disintegrate incompletely into pieces, wherein incomplete disintegration means disintegration which does not occur at all the layers of gel. (i) providing at least one first stream of material comprising a meat and/or fish emulsion, and at least one second stream of material comprising at least one gel-forming and/or gel-like substance, (ii) feeding the second stream of material into the first stream of material in the form of layers, and/or coarsely dispersing the second stream of material into the first stream of material in the form of droplets with a size of at least 0.3 to 8 mm, (iia) discharging the combination of materials obtained in step (ii) through a nozzle or screen plate, (iii) solidifying at least the first stream of material contained in the combination of materials obtained in step (ii), and (iv) cutting the combination of materials obtained in step (iii), substantially perpendicularly to the discharge direction, into slices with a thickness of 0.6 - 6 mm, wherein the slices disintegrate incompletely into pieces, wherein incomplete disintegration means disintegration which does not occur at all the layers of gel.
A one-time use breastpump assembly comprising: a breast shield within which a woman's breast is received, a container for expressed milk, and conduit structure between said breast shield and said container; and a closure in an opening to said breastpump assembly, said closure preventing ingress of ambient air when the breastpump assembly is initially provided to a user, said closure being in mechanical connection to a part of said breastpump assembly and caused to open and thereby allow ambient air to pass into said breastpump assembly through removal of said part from said breastpump assembly, so as to substantially disable the breast pump assembly, characterized in that said closure includes a valve mechanism, wherein the valve mechanism is a flexible member interposed and compressed between a container lip of said container and a part of said conduit structure when in said first position and thereby closing an orifice to said conduit structure for air ingress, said flexible member moving to a an uncompressed position when said container is removed and opening said orifice, said flexible member further remaining in said uncompressed position when said container is reattached. a breast shield within which a woman's breast is received, a container for expressed milk, and conduit structure between said breast shield and said container; and a closure in an opening to said breastpump assembly, said closure preventing ingress of ambient air when the breastpump assembly is initially provided to a user, said closure being in mechanical connection to a part of said breastpump assembly and caused to open and thereby allow ambient air to pass into said breastpump assembly through removal of said part from said breastpump assembly, so as to substantially disable the breast pump assembly, characterized in that said closure includes a valve mechanism, wherein the valve mechanism is a flexible member interposed and compressed between a container lip of said container and a part of said conduit structure when in said first position and thereby closing an orifice to said conduit structure for air ingress, said flexible member moving to a an uncompressed position when said container is removed and opening said orifice, said flexible member further remaining in said uncompressed position when said container is reattached.
A porous material for polishing comprising: an elastic foam having anisotropy; a polymer; and abrasive grains; characterized in that the polymer is a crosslinked polyrotaxane; and the porous material for polishing is obtained by impregnating the elastic foam with a dispersion liquid comprising the abrasive grains, polyrotaxane and a crosslinking agent and then crosslinking the polyrotaxane. an elastic foam having anisotropy; a polymer; and abrasive grains; characterized in that the polymer is a crosslinked polyrotaxane; and the porous material for polishing is obtained by impregnating the elastic foam with a dispersion liquid comprising the abrasive grains, polyrotaxane and a crosslinking agent and then crosslinking the polyrotaxane.
A process for preparing silodosin of formula XXV: or a pharmaceutically acceptable salt thereof, which process comprises the method steps of: a) separating the enantiomers contained in a racemic mixture of a compound represented by the general formula V, wherein R-V is provided with an optical purity of at least 85% e.e.: wherein * denotes the asymmetric center, R 1 is a protecting group, and R 2 is cyano or carbamoyl; b) reacting the R-enantiomer of the compound of formula V ( R -V), wherein R -V is provided with an optical purity of at least 85% e.e., with a compound represented by formula XXII under reductive amination conditions, or with a compound represented by formula XXIII: wherein X represents a leaving group, to obtain a compound represented by the general formula XXIV: wherein R 1 and R 2 have the same meaning as defined above; c) deprotecting the compound of formula XXIV and, if R 2 is cyano, conducting a hydrolysis reaction to afford silodosin having an optical purity of at least 85% e.e.; and d) purifying the silodosin obtained in step (c) by crystallization from a solvent, thereby improving the optical purity of silodosin to at least 95% e.e., wherein the solvent in method step (d) contains a carboxylic acid ester. a) separating the enantiomers contained in a racemic mixture of a compound represented by the general formula V, wherein R-V is provided with an optical purity of at least 85% e.e.: wherein * denotes the asymmetric center, R 1 is a protecting group, and R 2 is cyano or carbamoyl; wherein * denotes the asymmetric center, R 1 is a protecting group, and R 2 is cyano or carbamoyl; b) reacting the R-enantiomer of the compound of formula V ( R -V), wherein R -V is provided with an optical purity of at least 85% e.e., with a compound represented by formula XXII under reductive amination conditions, or with a compound represented by formula XXIII: wherein X represents a leaving group, to obtain a compound represented by the general formula XXIV: wherein R 1 and R 2 have the same meaning as defined above; c) deprotecting the compound of formula XXIV and, if R 2 is cyano, conducting a hydrolysis reaction to afford silodosin having an optical purity of at least 85% e.e.; and d) purifying the silodosin obtained in step (c) by crystallization from a solvent, thereby improving the optical purity of silodosin to at least 95% e.e., wherein the solvent in method step (d) contains a carboxylic acid ester.
A method of supplying a source gas to a reaction furnace for producing polycrystalline silicon with a Siemens method, the method comprising: using a reaction furnace in which when an area of a bottom plate of the reaction furnace is represented as S 0, all of one or more source gas supply nozzles provided in the reaction furnace are provided on an inner side of an imaginary concentric circle having a center in a center portion of the bottom plate and having an area S of S 0 /2; and setting values of u and Q of each of the source gas supply nozzles such that a total Σ(Q×u 2 /V) of values Q×u 2 /V is equal to or larger than 2500 (kg/m·sec 3), in performing deposition reaction of the polycrystalline silicon under a reaction pressure of 0.25 MPa to 0.9 MPa, where u (m/sec), Q (kg/sec), and V (m 3) represent flow velocity of the source gas in gas supply ports of the source gas supply nozzles, source gas supply amount, and inner volume of the reaction furnace, respectively. using a reaction furnace in which when an area of a bottom plate of the reaction furnace is represented as S 0, all of one or more source gas supply nozzles provided in the reaction furnace are provided on an inner side of an imaginary concentric circle having a center in a center portion of the bottom plate and having an area S of S 0 /2; and setting values of u and Q of each of the source gas supply nozzles such that a total Σ(Q×u 2 /V) of values Q×u 2 /V is equal to or larger than 2500 (kg/m·sec 3), in performing deposition reaction of the polycrystalline silicon under a reaction pressure of 0.25 MPa to 0.9 MPa, where u (m/sec), Q (kg/sec), and V (m 3) represent flow velocity of the source gas in gas supply ports of the source gas supply nozzles, source gas supply amount, and inner volume of the reaction furnace, respectively.
Method for producing a dimensionally stable concrete workpiece, characterized in that, for the production of the concrete workpiece, a fully closed mould with a predetermined geometry is completely filled with fresh concrete, during the subsequent and undisturbed hydration, a predetermined temperature distribution of the walls of the mould surrounding the hydrating concrete is maintained and the concrete workpiece is demoulded at a compressive strength of more than 10 MPa, whereby the largest grain of the fresh concrete having a diameter of less than 20% of the smallest dimension of the mould, characterized in that the temperature distribution of the walls of the mould is set in such a way that the temperature distribution in the hydrating concrete from the start of hydration to demoulding is within a permissible interval of 15 0.
A composition comprising at least one hydrophilic silicone macromer of the Formula: where R 2 is a group defined as M f D g T h Q i R 6 j with M = R 7 R 8 R 9 SiZ 1/2, D = R 10 R 11 SiZ 2/2, T = R 12 SiZ 3/2, Q = SiZ 4/2, R 6 = -(CH 2) 1/2 (R 13) k (CH 2) 1/2 -; R 1 is independently selected from -OH, - OC R 15, Y, or -OR 15; R 5 is independently selected from hydrogen, a -C R 15 group, Y, or a monovalent hydrocarbon radical having from about 1 to about 40 carbon atoms that optionally contain a heteroatom and/or a hydroxyl group; at least one of R 1 and R 5 is Y; Y is a free radical polymerizable group; Z is O or CH 2 group subject to the limitation that the macromer contains an even number of O 1/2 and an even number of (CH 2) 1/2 groups and they both are all paired in the molecule; R 3 is a trivalent hydrocarbon radical having 1 to about 40 carbon atoms that optionally contain a heteroatom and/or a hydroxyl group; R 7, R 8, R 9, R 10, R 11 R 12 and R 15 are each independently selected from OR 14, a monovalent hydrocarbon radical having 1 to about 20 carbon atoms that optionally contain a heteroatom and/or a hydroxyl group; R 4 is a divalent, linear, or branched unsaturated or saturated hydrocarbon radical containing at least one and less than about 30 carbon atoms that optionally contain a heteroatom and/or a hydroxyl group; R 13 is oxygen or divalent linear or branched unsaturated or saturated hydrocarbon radicals containing at least one and less than about 30 carbon atoms that optionally contain a heteroatoms and/or a hydroxyl group; R 14 is a monovalent, linear or branched unsaturated or saturated hydrocarbon radical having 1 to about 20 carbon atoms that optionally contain a heteroatom and/or hydroxyl group; a+e ≥ 2; b, c, and d are zero or positive subject to the limitation 3 < a+b+c+d+e < about 1000; d+e > 1; f, g, h, i and j are 0 or positive subject to the limitation f+g+h+i+j < about 300; and k is 0 or 1.
Technical rubber article comprising at least one transmitting and/or receiving apparatus, characterized in that the at least one transmitting and/or receiving apparatus is adhesively attached to the technical rubber article by means of at least one adhesive, wherein the adhesive contains at least the following constituents: - 10% to 80% by weight of at least one rubber and - 11% to 80% of at least one polyolefin and - 2% to 20% of at least one hydrocarbon resin. - 10% to 80% by weight of at least one rubber and - 11% to 80% of at least one polyolefin and - 2% to 20% of at least one hydrocarbon resin.
Method for controlling a movement of a vehicle, wherein the vehicle comprises a vehicle motion control system, which comprises at least one generating device for generating specification data for the movement of the vehicle, at least one providing device for providing vehicle characteristics of the vehicle and at least one actuator (106, 108) for influencing the motion of the vehicle, characterized by at least the following steps: - reading the specification data from an interface to the generating device, wherein the specification data represents a driving corridor and/or a speed profile for the vehicle for a route section, and the vehicle characteristics from an interface to the at least one providing device, wherein the vehicle characteristics represent a position of a saddle point between the towing vehicle and semi-trailer or trailer, an axle configuration, a permissible lateral acceleration, a centre of gravity position and a tipping limit; - determining guidance data for the vehicle using the specification data and the vehicle characteristics, wherein the guidance data can be used to control the movement of the vehicle in compliance with the specification data; - determining at least one manipulated variable for the at least one actuator (106, 108) using the guidance data; and outputting the at least one manipulated variable at an interface to the at least one actuator (106, 108). - reading the specification data from an interface to the generating device, wherein the specification data represents a driving corridor and/or a speed profile for the vehicle for a route section, and the vehicle characteristics from an interface to the at least one providing device, wherein the vehicle characteristics represent a position of a saddle point between the towing vehicle and semi-trailer or trailer, an axle configuration, a permissible lateral acceleration, a centre of gravity position and a tipping limit; - determining guidance data for the vehicle using the specification data and the vehicle characteristics, wherein the guidance data can be used to control the movement of the vehicle in compliance with the specification data; - determining at least one manipulated variable for the at least one actuator (106, 108) using the guidance data; and
Brewing piston and cylinder for infusion preparation, wherein said piston is arranged to move inside said cylinder and comprises: - a head, associated to a filtering element, and a lateral surface; - at least one first gasket located in proximity of the head and at least one second gasket located at a predetermined distance from the at least one first gasket;- at least one first conduit (81 a) connected to the filtering element of the head and arranged to inject a liquid through the filtering element for infusion preparation; - at least one second conduit connected to the lateral surface of the piston between the at least one first gasket and the at least one second gasket and arranged to inject, during infusion preparation, the liquid between the at least one first gasket and the at least one second gasket against the cylinder; characterised in that said piston is configured for moving inside said cylinder at least between: - a first position or resting position wherein said at least one second gasket is held outside the cylinder and said at least one first gasket is held inside the cylinder; - a second position or infusion position wherein both said at least one second gasket and said at least one first gasket are held inside the cylinder. - a head, associated to a filtering element, and a lateral surface; - at least one first gasket located in proximity of the head and at least one second gasket located at a predetermined distance from the at least one first gasket;- at least one first conduit (81 a) connected to the filtering element of the head and arranged to inject a liquid through the filtering element for infusion preparation; - at least one second conduit connected to the lateral surface of the piston between the at least one first gasket and the at least one second gasket and arranged to inject, during infusion preparation, the liquid between the at least one first gasket and the at least one second gasket against the cylinder; characterised in that said piston is configured for moving inside said cylinder at least between: - a first position or resting position wherein said at least one second gasket is held outside the cylinder and said at least one first gasket is held inside the cylinder; - a second position or infusion position wherein both said at least one second gasket and said at least one first gasket are held inside the cylinder.
A computer-implemented medical method of verifying an expected deformation of an elastically deformable and actuator-adjusted medical fine-adjustment unit being adapted to adjust the relative spatial position of two structures coupled to the fine-adjustment unit by being elastically deformed by at least one actuator, the method comprising executing, on a processor of a computer, the steps of: - acquiring model data describing a model of the fine-adjustment unit, the model reflecting deformation properties of the fine-adjustment unit; - acquiring actuator data describing an actuator position of the at least one actuator coupled to the fine-adjustment unit; - determining, based on the model data and the actuator data, target deformation data describing a target deformation of the fine-adjustment unit caused by the at least one actuator at said actuator position wherein each actuator position corresponds to a particular deformation of the fine-adjustment unit; - acquiring actual deformation data describing an actual deformation of the fine-adjustment unit caused by the at least one actuator at said actuator position; - determining, based on the target deformation data and the actual deformation data, verification data describing whether the target deformation corresponds to the actual deformation. - acquiring model data describing a model of the fine-adjustment unit, the model reflecting deformation properties of the fine-adjustment unit; - acquiring actuator data describing an actuator position of the at least one actuator coupled to the fine-adjustment unit; - determining, based on the model data and the actuator data, target deformation data describing a target deformation of the fine-adjustment unit caused by the at least one actuator at said actuator position wherein each actuator position corresponds to a particular deformation of the fine-adjustment unit; - acquiring actual deformation data describing an actual deformation of the fine-adjustment unit caused by the at least one actuator at said actuator position; - determining, based on the target deformation data and the actual deformation data, verification data describing whether the target deformation corresponds to the actual deformation.