mhurhangee/ep-ind-claims huggingface dataset:
A method for mechanically roughening a cylindrical surface of an in particular metallic workpiece, e.g., the piston bearing surface of a cylinder sleeve in a cylinder crankcase, by generating a defined microstructure of mutually crossing grooves by means of a non-cutting or cutting groove molding tool, characterized in that, a) in a first operation, the groove molding tool is moved axially along the workpiece surface in such a way so as to introduce at least one axial groove into the workpiece surface; b) in a second operation following the first operation, the groove molding tool in the axial position reached in the first operation is turned around the cylinder axis by a prescribed rotational angle, as a result of which at least one circumferential groove that crosses the axial groove is introduced into the workpiece surface, and c) in a third operation following the second operation, the groove molding tool is retracted axially along the workpiece surface. a) in a first operation, the groove molding tool is moved axially along the workpiece surface in such a way so as to introduce at least one axial groove into the workpiece surface; b) in a second operation following the first operation, the groove molding tool in the axial position reached in the first operation is turned around the cylinder axis by a prescribed rotational angle, as a result of which at least one circumferential groove that crosses the axial groove is introduced into the workpiece surface, and c) in a third operation following the second operation, the groove molding tool is retracted axially along the workpiece surface.
A method for using data of a patient in making a dental element or aid for adjusting the teeth, said patient having a dental arch with an inclination, the method comprising the following steps of: making at least a first photographic image of a front view of the patient and a second photographic image of a side view of the patient using a face-bow on which two cameras are mounted in a determined disposition, such that the two cameras are mounted in known positions relative to determined locations on the head of the patient; calculating on the basis of the first and second photographic images: a first measure for the direction of the canine line relative to the direction of the eye line, and a second measure for the direction of the occlusion plane relative to the camper's plane, respectively; said first and second measure defining the inclination of the dental arch of the patient; providing a virtual or real study model of at least a part of the teeth of the patient; providing on the basis of the study model a virtual or real master model for the dental element or aid; transferring the first and second measures to the master model on the basis of the direction of the canine line and the occlusion plane in the study model; producing the dental element or aid on the master model on the basis of the transferred first and second measures. making at least a first photographic image of a front view of the patient and a second photographic image of a side view of the patient using a face-bow on which two cameras are mounted in a determined disposition, such that the two cameras are mounted in known positions relative to determined locations on the head of the patient; calculating on the basis of the first and second photographic images: a first measure for the direction of the canine line relative to the direction of the eye line, and a second measure for the direction of the occlusion plane relative to the camper's plane, respectively; said first and second measure defining the inclination of the dental arch of the patient; a first measure for the direction of the canine line relative to the direction of the eye line, and a second measure for the direction of the occlusion plane relative to the camper's plane, respectively; said first and second measure defining the inclination of the dental arch of the patient; providing a virtual or real study model of at least a part of the teeth of the patient; providing on the basis of the study model a virtual or real master model for the dental element or aid; transferring the first and second measures to the master model on the basis of the direction of the canine line and the occlusion plane in the study model; producing the dental element or aid on the master model on the basis of the transferred first and second measures.
A method for operating a laundry washing appliance comprising a washing chamber to wash goods according to a wash program selected by a user including at least a washing cycle, said method including: - Adding (110,120) a detergent to a washing liquor within the washing chamber during a washing phase of the washing cycle, the washing phase having a predefined duration; - Performing a plurality of measurements of the conductivity of the washing liquor in order to collect a set of conductivity measurements (C 1,...,C n) defining a conductivity curve; - Analyzing the set of conductivity measurements (C 1,...,C n) in order to determine if a condition of substantial invariability of the conductivity measurements (C 1,...,C n) is reached and/or detect if the related conductivity curve shows a peak characterized in that said method further comprises the steps of - Extending the predefined duration of the washing phase, if after a first preset time period (T ref) starting from the beginning of the washing phase, no conductivity increase or peak in the conductivity curve is detected; and/or - Extending the predefined duration of the washing phase, if after a second preset time period (T ref) starting from the beginning of the washing phase, the condition of substantial invariability of the conductivity measurements (C 1,...,C n) has not been reached. - Adding (110,120) a detergent to a washing liquor within the washing chamber during a washing phase of the washing cycle, the washing phase having a predefined duration; - Performing a plurality of measurements of the conductivity of the washing liquor in order to collect a set of conductivity measurements (C 1,...,C n) defining a conductivity curve; - Analyzing the set of conductivity measurements (C 1,...,C n) in order to determine if a condition of substantial invariability of the conductivity measurements (C 1,...,C n) is reached and/or detect if the related conductivity curve shows a peak characterized in that said method further comprises the steps of - Extending the predefined duration of the washing phase, if after a first preset time period (T ref) starting from the beginning of the washing phase, no conductivity increase or peak in the conductivity curve is detected; and/or - Extending the predefined duration of the washing phase, if after a second preset time period (T ref) starting from the beginning of the washing phase, the condition of substantial invariability of the conductivity measurements (C 1,...,C n) has not been reached.
A dielectric fluid comprising microbial oil, wherein the microbial oil has a pour point of less than -5° C, and wherein the fatty acid composition of the microbial oil is at least 50% C18:1 and less than 10% C18:2; wherein the dielectric fluid comprises less than 2% C18:2; and if the dielectric fluid comprises the microbial oil blended with another oil that is not a microbial oil, the content of the other oil in the dielectric fluid is less than 30%.
A method of recycling lithium ion battery cathode material, which comprises: (i) providing a lithium ion battery cathode comprising a metal foil coated with the cathode material; whereby the cathode represents waste from of lithium ion battery cathode production; (ii) grinding the cathode in an impact grinder for providing a particulate cathode comprising metal foil particles having an average particle size of at least 200 μm and cathode material particles having an average particle size of less than 200 μm; (iii) filtering the particulate cathode from the impact grinder in a dust collector; (iv) separating the cathode material particles from the particulate cathode in a separation device comprising more than one sieve for providing recycled cathode material; wherein the transfer to the separation device is facilitated by a rotary feeder. (i) providing a lithium ion battery cathode comprising a metal foil coated with the cathode material; whereby the cathode represents waste from of lithium ion battery cathode production; (ii) grinding the cathode in an impact grinder for providing a particulate cathode comprising metal foil particles having an average particle size of at least 200 μm and cathode material particles having an average particle size of less than 200 μm; (iii) filtering the particulate cathode from the impact grinder in a dust collector; (iv) separating the cathode material particles from the particulate cathode in a separation device comprising more than one sieve for providing recycled cathode material;
A combination comprising (i) one or more of a benzoheterocyclic compound, a pharmaceutically acceptable salt, solvate, polymorph, co-crystal, stereoisomer, isotope compound thereof and (ii) an androgen receptor pathway modulator, wherein the benzoheterocyclic compound is any one of the following compounds: and wherein the androgen receptor pathway modulator is selected from one or more of Enzalutamide, ARN-509, Abiraterone, Abiraterone acetate, Galeterone, and ODM-201.
A ceramic honeycomb structure (40, 60, 70), comprising: a plurality of interconnected webs that define a plurality of cells in a honeycomb network having a central axis across its cross section, including radial webs of varying length arranged so as to diverge from one another with respect to said central axis wherein at least some of said radial webs substantially extend from said central axis to an outermost periphery of said network, and tangential webs (49, 52) arranged concentrically with respect to the central axis, characterized in that said honeycomb network includes transition zones (50a-50f) and said tangential webs comprise reinforced tangential webs at the transition zones, at least some of which having a lesser number of radial webs on their interior side towards the central axis than on their exterior side, said reinforced tangential webs at the transition zones being thicker than the balance of said tangential webs located between the reinforced tangential webs. a plurality of interconnected webs that define a plurality of cells in a honeycomb network having a central axis across its cross section, including radial webs of varying length arranged so as to diverge from one another with respect to said central axis wherein at least some of said radial webs substantially extend from said central axis to an outermost periphery of said network, and tangential webs (49, 52) arranged concentrically with respect to the central axis, characterized in that said honeycomb network includes transition zones (50a-50f) and said tangential webs comprise reinforced tangential webs at the transition zones, at least some of which having a lesser number of radial webs on their interior side towards the central axis than on their exterior side, said reinforced tangential webs at the transition zones being thicker than the balance of said tangential webs located between the reinforced tangential webs.
A connection terminal for connecting an electrical device to a continuous electrical conductor, in particular a ground conductor, a. comprising a connector body which has at least one terminal connection, comprising a recess which extends in a direction of extension of the electrical conductor, and b. comprising a holding means which is provided for at least partial closing of the recess, c. wherein the holding means is reversibly adjustable from an open position, in which the electrical conductor can be inserted into the recess, into a closed position, d. in which the holding means holds the electrical conductor in the recess in a radial direction around the direction of extension, e. wherein the holding means with a first arm and a second arm is designed in the shape of an L and is reversibly rotatable in a direction of rotation around an axis which extends in the direction of extension, and f. the terminal connection has a clamping means which clamps the electrical conductor and the holding means in the closed position of the holding means, g. the clamping means is a clamping screw which can be adjusted in a clamping direction and counter to said clamping direction transversely to the direction of extension, and characterized in that h. the holding means acts directly together with the clamping screw associated with the terminal connection, so that the electrical conductor is clamped between the connector body and the first arm of the holding means in a closed position G. a. comprising a connector body which has at least one terminal connection, comprising a recess which extends in a direction of extension of the electrical conductor, and b. comprising a holding means which is provided for at least partial closing of the recess, c. wherein the holding means is reversibly adjustable from an open position, in which the electrical conductor can be inserted into the recess, into a closed position, d. in which the holding means holds the electrical conductor in the recess in a radial direction around the direction of extension, e. wherein the holding means with a first arm and a second arm is designed in the shape of an L and is reversibly rotatable in a direction of rotation around an axis which extends in the direction of extension, and f. the terminal connection has a clamping means which clamps the electrical conductor and the holding means in the closed position of the holding means, g. the clamping means is a clamping screw which can be adjusted in a clamping direction and counter to said clamping direction transversely to the direction of extension, and characterized in that h. the holding means acts directly together with the clamping screw associated with the terminal connection, so that the electrical conductor is clamped between the connector body and the first arm of the holding means in a closed position G.
Use of an organic compound (b) which is 4,4-bis(1,1'-dimethylbenzyl)diphenylamine to decrease the volume resistivity of a polymer composition for a semiconductive layer of a cable, wherein the polymer composition comprises: - a polyolefin (a) which is an LDPE homopolymer or copolymer; and - a carbon black which is selected from any of a furnace carbon black and acetylene carbon black having a nitrogen surface area of 5 to 400 m 2 /g, determined according to ASTM D3037-93; wherein the polymer composition comprises 9.5 to 49.5 wt% carbon black and 0.35 to 0.9 wt% of the organic compound (b) based on the total amount of the polymer composition. - a polyolefin (a) which is an LDPE homopolymer or copolymer; and - a carbon black which is selected from any of a furnace carbon black and acetylene carbon black having a nitrogen surface area of 5 to 400 m 2 /g, determined according to ASTM D3037-93;
Brake, comprising: a base part; a braking piece movably supported on the base part, which braking piece is configured to be moved between a braking position and a releasing position; a spring, with the spring force of which the braking piece can be dropped from the initial position of the drop-out movement into the braking position; which brake comprises a movable support member (3, 20) for limiting the initial position of the drop-out movement of the braking piece; and which brake comprises a controllable actuator, which is mechanically connected to the aforementioned support member and configured to displace the initial position of the drop-out movement of the braking piece with respect to the braking position, wherein the actuator is an electric motor, the frame of which is attached to the base part of the brake, characterized in that the rotating shaft of the electric motor is connected to an eccentric adjustment means, which is connected with a hinged joint to the support member such that the support member moves when the rotating shaft of the electric motor rotates. a base part; a braking piece movably supported on the base part, which braking piece is configured to be moved between a braking position and a releasing position; a spring, with the spring force of which the braking piece can be dropped from the initial position of the drop-out movement into the braking position; which brake comprises a movable support member (3, 20) for limiting the initial position of the drop-out movement of the braking piece; and which brake comprises a controllable actuator, which is mechanically connected to the aforementioned support member and configured to displace the initial position of the drop-out movement of the braking piece with respect to the braking position, wherein the actuator is an electric motor, the frame of which is attached to the base part of the brake, characterized in that the rotating shaft of the electric motor is connected to an eccentric adjustment means, which is connected with a hinged joint to the support member such that the support member moves when the rotating shaft of the electric motor rotates.
A method for operating a vacuum pump system for evacuating a chamber, in particular a lock chamber in particular connected to a processing chamber, wherein said vacuum pump system comprises a vacuum pump equipment including at least one vacuum pump (20, 22), a valve device arranged between said vacuum pump equipment and said chamber, and a controller, wherein by means of said controller at least one cyclically occurring operating parameter of said vacuum pump system is determined, and a rotational speed of a least one of said vacuum pumps (20, 22) of said vacuum pump equipment is reduced temporally before said valve device is opened, characterized in that a cycle length (t z) is determined as a period of time between two identical changes of an operating parameter, wherein at the latest at the end, preferably before the end of a cycle length (t z) the rotational speed of at least one of the vacuum pumps (20, 22) of the vacuum pump equipment is reduced.
A laboratory system comprising: a plurality of distributed, sample processing units, each having at least one interface for communicating over at least one computer network; a laboratory information system configured to collect test results for samples processed by the distributed, sample processing units; a server comprising an interface for receiving sample processing data from at least one of the distributed, sample processing units; a client application on a programmable drive operably in communication with the server and operably in communication the laboratory information system; wherein the client application allows for instructions to be sent to control the sample processing units and for monitoring operational status of one or more sample processing units whereby authorized oversight of the sample processing units is provided through the use of the client application to control and monitor the sample processing units; wherein at least one of said distributed, sample processing units is configured to be associated on-demand with the laboratory information system for a designated laboratory selected one of the following: a health plan laboratory, a hospital laboratory, or other laboratory; wherein the server stores data from sample processing data from sample processing units associated with laboratories of different health networks and wherein the server provides sample processing data from only those sample processing units for the designated laboratory. a plurality of distributed, sample processing units, each having at least one interface for communicating over at least one computer network; a laboratory information system configured to collect test results for samples processed by the distributed, sample processing units; a server comprising an interface for receiving sample processing data from at least one of the distributed, sample processing units; a client application on a programmable drive operably in communication with the server and operably in communication the laboratory information system; wherein the client application allows for instructions to be sent to control the sample processing units and for monitoring operational status of one or more sample processing units whereby authorized oversight of the sample processing units is provided through the use of the client application to control and monitor the sample processing units; wherein at least one of said distributed, sample processing units is configured to be associated on-demand with the laboratory information system for a designated laboratory selected one of the following: a health plan laboratory, a hospital laboratory, or other laboratory; wherein the server stores data from sample processing data from sample processing units associated with laboratories of different health networks and wherein the server provides sample processing data from only those sample processing units for the designated laboratory.
A method of operating a multi-beam charged particle microscope with high throughput and high resolution, comprising - a first image acquisition of a first image patch 17.1 in a first time interval Ts1 and - a second image acquisition of a second image patch 17.2 in a second time interval Ts2, and - a third time interval Tr for moving a wafer stage from a first center position (21.1) of the first image patch (17.1) to a second center position (21.2) of the second image patch 17.2, such that at least one of the first and second time interval Ts1 or Ts2 has an overlap with the third time interval Tr, characterized by - deriving control signals for scanning deflection units of the multi-beam charged particle microscope to compensate the movement of the wafer stage during the time overlap; wherein, when the first time interval TS1 has an overlap with the third time interval Tr, the method further comprises a computation of a start time of the third time interval Tr of wafer movement during the first time interval Ts1 of image acquisition of the first image patch 17.1, such that a position deviation of the first center position of the first image patch 17.1 from a line of sight of the multi-beam charged particle microscope or a movement velocity of the wafer stage are below a predetermined threshold, and wherein, when the second time interval TS2 has an overlap with the third time Tr, the method further comprises computation of a start time of the second time interval Ts2 of the second image acquisition during the time interval Tr of wafer stage movement, such that a position deviation of the second center position 21.2 of the second image patch 17.2 from a line of sight of the multi-beam charged particle microscope or a movement velocity of the wafer stage are below a predetermined threshold. - a first image acquisition of a first image patch 17.1 in a first time interval Ts1 and - a second image acquisition of a second image patch 17.2 in a second time interval Ts2, and - a third time interval Tr for moving a wafer stage from a first center position (21.1) of the first image patch (17.1) to a second center position (21.2) of the second image patch 17.2, such that at least one of the first and second time interval Ts1 or Ts2 has an overlap with the third time interval Tr, - deriving control signals for scanning deflection units of the multi-beam charged particle microscope to compensate the movement of the wafer stage during the time overlap; wherein, when the first time interval TS1 has an overlap with the third time interval Tr, the method further comprises a computation of a start time of the third time interval Tr of wafer movement during the first time interval Ts1 of image acquisition of the first image patch 17.1, such that a position deviation of the first center position of the first image patch 17.1 from a line of sight of the multi-beam charged particle microscope or a movement velocity of the wafer stage are below a predetermined threshold, and