mhurhangee/ep-ind-claims huggingface dataset:
A milling cutter for the chip removing machining of a workpiece, which milling cutter comprises a body (102; 202; 402) that is connectable to a holder or a rotatable spindle, the body defining a centre axis (z-z) and comprising at least one first seat (108; 208; 408) adapted to receive a cutting insert (112; 412) having at least one main cutting edge (115; 415) adapted to be active during chip removing machining, the first seat comprising an active part (117; 217; 417) comprising at least one first seat surface (116; 216), the body being adapted to receive the cutting insert in the first seat against the at least one first seat surface, the first seat comprising at least one location surface (121, 123; 221, 223;), the at least one location surface forming an angle with the first seat surface and being adapted to position the cutting insert axially and radially in the active part of the first seat, the body being adapted to receive the cutting insert in the first seat in such a way that said active part extends along the active main cutting edge (115; 415) or along a portion thereof, the body comprising a second seat (126; 226; 426) adapted to receive a shim member (128; 228; 428), the body being adapted to receive the shim member in the second seat in such a way that the cutting insert being received in the first seat adjoins the at least one first seat surface and adjoins the shim member, said active part being delimited axially in at least one direction and radially inward, in relation to the centre axis, by the at least one location surface, the body being adapted to receive the cutting insert in the first seat in such a way that the cutting insert, as seen perpendicular to the plane of the at least one first seat surface, covers an area defined by the shim member and by the at least one first seat surface of said active part, the second seat being adapted to receive a shim member (128; 228; 328; 428) that occupies less than 90 % of said area, the milling cutter comprising first mounting members (140; 440) for the mounting of the cutting insert (112; 412) and second mounting members (142; 242; 442) separated from said first mounting members and adapted for the mounting of the shim member (128; 228; 428), wherein said first mounting members (140; 440) comprise a first threaded recess arranged in the body (102; 202; 402) and situated at the first seat (108; 208; 408) and that is adapted to receive and hold a first threaded fastening element, characterized in that said second mounting members (142; 242; 440) comprise a second threaded recess (148; 248) arranged in the body and situated at the second seat (126; 226; 426) and that is adapted to receive and hold a second threaded fastening element (150; 250), wherein the first threaded recess defines a first centre axis and the second threaded recess (148; 248) defines a second centre axis (154; 254), the first and second threaded recess (144; 148; 248) being arranged in the body (102; 202; 402) in such a way that the second centre axis (154; 254) is aligned with or parallel to an axis that forms a first angle ( α; β) which is essentially perpendicular with the first centre axis.
Solenoid valve for a hydraulic brake system, having a solenoid assembly, having a pole core, having a guide sleeve connected to the pole core, having a valve armature which is guided in axially movable fashion within the guide sleeve and which can be driven counter to the force of at least one resetting spring (16, 48) by a magnet force generated by the solenoid assembly or can be driven by the force of the at least one resetting spring (16, 48) and which axially moves a plunger with a closing element, and having a valve body which is connected to the guide sleeve and which has a valve seat (15.1) which is arranged between at least one first flow opening (15.2) and at least one second flow opening (15.3), characterized in that the plunger is mounted in axially movable fashion in the valve armature, wherein a mechanical detent device is formed between a positionally fixed guide component which is inserted into the guide sleeve, and the plunger, which mechanical detent device, in an electrically deenergized closed position, releases the plunger such that a first resetting spring pushes the closing element sealingly into the valve seat (15.1) in order to perform a sealing function, and, in an electrically deenergized open position, fixes the plunger, counter to the force of the first resetting spring, in an axial detent position such that the closing element is lifted off from the valve seat (15.1).
A copolymer which is obtainable by reacting a mixture comprising: ≥ 30 wt.-% to ≤ 70 wt.-% of at least one ethylenically unsaturated monomer with a carboxylic function, ≥ 30 wt.-% to ≤ 70 wt.-% of at least one non-ionic ethylenically unsaturated monomer, ≥ 1 wt.-% to ≤ 40 wt.-% of at least one monomer of formula wherein R 1 denotes hydrogen or methyl, n is a real number in the range of ≥ 10 to ≤ 80, and R 2 denotes branched, unsubstituted C 10 -C 15 alkyl, ≥ 0 wt.-% to ≤ 1 wt.-% of at least one crosslinking reagent, ≥ 0 wt.-% to ≤ 10 wt.-% of at least one ethylenically unsaturated monomer which is different from,, and, ≥ 0 wt.-% to ≤ 1 wt.-% of at least one chain transfer agent, and wherein wt.-% is based on the total weight of the mixture, and wherein the total wt-% of the mixture is 100 wt.-%; characterized in that the C 10 - C 15 alkyl has a mean degree of branching (iso-index) in the range of ≥ 1.5 to ≤ 3.5, determined by 1 H NMR spectroscopy. ≥ 30 wt.-% to ≤ 70 wt.-% of at least one ethylenically unsaturated monomer with a carboxylic function, ≥ 30 wt.-% to ≤ 70 wt.-% of at least one non-ionic ethylenically unsaturated monomer, ≥ 1 wt.-% to ≤ 40 wt.-% of at least one monomer of formula wherein R 1 denotes hydrogen or methyl, n is a real number in the range of ≥ 10 to ≤ 80, and R 2 denotes branched, unsubstituted C 10 -C 15 alkyl, R 1 denotes hydrogen or methyl, n is a real number in the range of ≥ 10 to ≤ 80, and R 2 denotes branched, unsubstituted C 10 -C 15 alkyl, ≥ 0 wt.-% to ≤ 1 wt.-% of at least one crosslinking reagent, ≥ 0 wt.-% to ≤ 10 wt.-% of at least one ethylenically unsaturated monomer which is different from,, and, ≥ 0 wt.-% to ≤ 1 wt.-% of at least one chain transfer agent, and
A method for accommodating data segment availability variability on a receiver device, wherein the receiver device is a Dynamic Adaptive Streaming over Hypertext Transfer Protocol, DASH, receiver that is arranged to receive streamed content data segments according to the DASH protocol, comprising: receiving a segment availability timeline at the receiver device in a DASH Media Presentation Description, MPD, file, the received segment availability timeline including segment availability times; characterized by: determining, at the receiver device, a delay adjustment based at least in part on a processing delay of the receiver device; storing the delay adjustment in a memory of the receiver device; and shifting the segment availability times by the delay adjustment at the receiver device. determining, at the receiver device, a delay adjustment based at least in part on a processing delay of the receiver device; storing the delay adjustment in a memory of the receiver device; and shifting the segment availability times by the delay adjustment at the receiver device.
An immersion fixed bed reactor intensified by liquid flow, which contains a cylindrical tank (R-1) having internally installed an annular cylindrical catalyst bed (ACCB) (T-1) packed with solid catalysts, wherein the inner and outer walls of the ACCB (T-1) are composed of two layers of stainless steel sheets with holes, wherein the outer layer of stainless steel is 3-10 mm thick and is perforated with holes having a diameter of 3-8 mm, wherein the inner layer of catalyst contacting stainless steel is 0.1-3 mm thick and includes 0.1-2 mm holes, wherein the inner steel plate appears wavy in the circumferential direction and the distance between peak and valley is 2-10 mm, wherein the top and bottom of the ACCB (T-1) are sealed with circular blind plates, and the solid catalysts are packed in the space between the inner and outer walls of the ACCB (T-1), wherein the cylindrical tank (R-1) is equipped with a reaction mass inlet duct at the top and a mass outlet duct at the bottom and the mass outlet duct is connected in this order with a liquid circulating pump (P-1), a liquid outlet duct valve (V-1), a flow meter (L-1), a heat exchanger (E-1) and a normal tube inlet (M-1) inserted into the central column space of the ACCB (T-1) at an axial position through the top of the cylindrical tank (R-1) and enables pumping of the liquid by the liquid circulating pump (P-1) into the central column space of the ACCB (T-1) and radially passing through the catalyst bed of the ACCB (T-1) into the space between (R-1) and (T-1), whereby one cycle of reaction operation is accomplished, wherein with the continuous work of the pump (P-1) the liquid in the cylindrical tank (R-1) will be repeatedly circulated and the reaction is simultaneously carried out again and again.
Process for fermentative production of gamma-glutamyltyrosine and gamma-glutamylphenylalanine, characterized in that a bacterial strain of the Enterobacteriaceae family is cultured in a fermentation medium, the fermentation medium is removed from the cells after the fermentation, and gamma-glutamyltyrosine and gamma-glutamylphenylalanine are isolated from the fermentation medium, wherein the bacterial strain a) either contains the open reading frame encoded in the wild-type genome that encodes glutamate-cysteine ligase and, in addition, at least one further open reading frame encoding a glutamate-cysteine ligase b) or contains no ORF encoded in the wild-type genome that encodes a glutamate-cysteine ligase, but at least one further ORF encoding a glutamate-cysteine ligase, and wherein the bacterial strain is deficient in glutathione synthetase, i.e., no functional glutathione synthetase is produced by the corresponding gene, and wherein the fermentation medium contains at least 50 mg/L L-tyrosine and 50 mg/L L-phenylalanine. wherein the bacterial strain a) either contains the open reading frame encoded in the wild-type genome that encodes glutamate-cysteine ligase and, in addition, at least one further open reading frame encoding a glutamate-cysteine ligase b) or contains no ORF encoded in the wild-type genome that encodes a glutamate-cysteine ligase, but at least one further ORF encoding a glutamate-cysteine ligase, and a) either contains the open reading frame encoded in the wild-type genome that encodes glutamate-cysteine ligase and, in addition, at least one further open reading frame encoding a glutamate-cysteine ligase b) or contains no ORF encoded in the wild-type genome that encodes a glutamate-cysteine ligase, but at least one further ORF encoding a glutamate-cysteine ligase, and wherein the bacterial strain is deficient in glutathione synthetase, i.e., no functional glutathione synthetase is produced by the corresponding gene, and wherein the fermentation medium contains at least 50 mg/L L-tyrosine and 50 mg/L L-phenylalanine.
Non-rail-bound vehicle, in particular a truck or bus, with a current collector for feeding in electrical energy from a two-pole overhead conductor, the contact wires of which are in the form of forward and return conductors, each of which can be contacted by at least one sliding shoe on the current collector, wherein the current collector has two support booms, each of which is articulated, on the vehicle and on a rocker on which are mounted the sliding shoes, so that it can tilt and pivot in such a way that the rocker can be both raised and lowered and also is able to move at an angle to the direction of travel, characterised in that the current collector is articulated onto the vehicle in a transitional area from a driver's cab to a load body, wherein the support booms extend from the vehicle to the lowered rocker in the direction of travel and enclose an acute angle with the direction of travel when the rocker is contacting the contact wires.
A method for continuously preparing citalopram diol or a citalopram diol salt, comprising: preparing an organic solvent feed liquid A containing 5-cyanophthalide of formula 2; preparing a mixed feed liquid B containing Grignard reagent of formula 3 and Grignard reagent of formula 4; mixing the organic solvent feed liquid A in step with the mixed feed liquid B in step by a temperature-controllable micromixer to obtain a reaction solution C; reacting the reaction solution C in a reactor to obtain a reaction solution containing citalopram diol of formula 1; and optionally post-treating the reaction solution containing citalopram diol obtained in step to obtain a citalopram diol salt; preferably, the citalopram diol salt is at least one of hydrochloride, hydrobromide, sulfate or phosphate; wherein, the reaction scheme is as follows: wherein, X is Cl, Br or I. preparing an organic solvent feed liquid A containing 5-cyanophthalide of formula 2; preparing a mixed feed liquid B containing Grignard reagent of formula 3 and Grignard reagent of formula 4; mixing the organic solvent feed liquid A in step with the mixed feed liquid B in step by a temperature-controllable micromixer to obtain a reaction solution C; reacting the reaction solution C in a reactor to obtain a reaction solution containing citalopram diol of formula 1; and optionally post-treating the reaction solution containing citalopram diol obtained in step to obtain a citalopram diol salt; preferably, the citalopram diol salt is at least one of hydrochloride, hydrobromide, sulfate or phosphate;
A maintenance method of a liquid ejection printing device including: a liquid tank that stores liquid; a liquid ejection head that ejects the liquid to a printing medium; and a liquid circulating unit that circulates the liquid between the liquid tank and the liquid ejection head, the liquid ejection head including: a nozzle plate in which a nozzle hole through which the liquid is ejected is formed; and a plurality of channels (95, 96) that communicates with the nozzle hole and is filled with the liquid, the liquid circulating unit including: a liquid supply tube that supplies the liquid from the liquid tank to the liquid ejection head; and a liquid discharge tube that discharges the liquid from the liquid ejection head, characterized in that the maintenance method comprises steps of: forming a body (le) of trapped liquid on the nozzle plate so as to cover the nozzle hole and a surrounding of the nozzle hole with the liquid while a printing operation onto the printing medium is performed and the liquid is not ejected; and suctioning the body of trapped liquid into the corresponding channel after the step of forming the body of trapped liquid. a liquid tank that stores liquid; a liquid ejection head that ejects the liquid to a printing medium; and a liquid circulating unit that circulates the liquid between the liquid tank and the liquid ejection head, the liquid ejection head including: a nozzle plate in which a nozzle hole through which the liquid is ejected is formed; and a plurality of channels (95, 96) that communicates with the nozzle hole and is filled with the liquid, a nozzle plate in which a nozzle hole through which the liquid is ejected is formed; and a plurality of channels (95, 96) that communicates with the nozzle hole and is filled with the liquid, the liquid circulating unit including: a liquid supply tube that supplies the liquid from the liquid tank to the liquid ejection head; and a liquid discharge tube that discharges the liquid from the liquid ejection head, a liquid supply tube that supplies the liquid from the liquid tank to the liquid ejection head; and a liquid discharge tube that discharges the liquid from the liquid ejection head, characterized in that the maintenance method comprises steps of: forming a body (le) of trapped liquid on the nozzle plate so as to cover the nozzle hole and a surrounding of the nozzle hole with the liquid while a printing operation onto the printing medium is performed and the liquid is not ejected; and suctioning the body of trapped liquid into the corresponding channel after the step of forming the body of trapped liquid. forming a body (le) of trapped liquid on the nozzle plate so as to cover the nozzle hole and a surrounding of the nozzle hole with the liquid while a printing operation onto the printing medium is performed and the liquid is not ejected; and suctioning the body of trapped liquid into the corresponding channel after the step of forming the body of trapped liquid.
A friction material for a brake comprising, in percent (%) by volume of said friction material: as a binder, unmodified phenolic resin at 21 %; as fiber, aramid at 7 %; as lubricant, metal sulphide at 2 % and antimony tri-sulfide at 2 %; as abrasives, mineral fiber at 5 %, magnesium oxide at 5 % and mica at 5 %; as filler, rubber powder at 9 %, graphite at 6 %, petroleum coke at 6 %, barytes at 21 %, friction dust at 9 % and hydrated lime at 2 %; said friction material being free from metal fibers, titanates and copper. as a binder, unmodified phenolic resin at 21 %; as fiber, aramid at 7 %; as lubricant, metal sulphide at 2 % and antimony tri-sulfide at 2 %; as abrasives, mineral fiber at 5 %, magnesium oxide at 5 % and mica at 5 %; as filler, rubber powder at 9 %, graphite at 6 %, petroleum coke at 6 %, barytes at 21 %, friction dust at 9 % and hydrated lime at 2 %; said friction material being free from metal fibers, titanates and copper.
A diffusing agent composition usable to print a doping impurity diffusion component onto a silicon semiconductor substrate, comprising a doping impurity diffusion component which contains an N-type doping impurity diffusion component containing a compound of an element in the Group V or a P-type doping impurity diffusion component containing a compound of an element in the Group III; a binder resin configured to lose 95 % or more of the entire mass of the binder resin at a temperature below a temperature, at which the doping impurity-diffusing component has entered inside the semiconductor substrate by an amount of 10 nm from the boundary between the semiconductor substrate and the diffusing agent; SiO 2 fine particles; and an organic solvent containing an organic solvent having a boiling point of at least 100 degrees Celsius, characterized in that the amount of binder resin is 5 to 60 percent by mass with respect to the entire mass of the solid components of the doping impurity-diffusing component, the binder resin, and the SiO 2 fine particles.
A lens moving apparatus comprising: a housing; a bobbin disposed in the housing; a first coil disposed on an outer surface of the bobbin; a first magnet disposed on the housing; a second magnet disposed on the housing and spaced apart from the first magnet; upper and lower elastic members (150, 160) each coupled to both the bobbin and the housing; a first position sensor disposed on the outer circumferential surface of the bobbin and detecting a sum of intensities of magnetic fields of the first magnet and the second magnet based on the movement of the bobbin in a first direction of an optical axis direction; a detecting portion of the first position sensor disposed in a space between the first magnet and the second magnet when the bobbin is disposed at an initial position; a base disposed below the bobbin; and a circuit board disposed on the base; wherein the bobbin and the first position sensor are configured to move in the first direction via electromagnetic interaction between the first coil and the second magnet. a housing; a bobbin disposed in the housing; a first coil disposed on an outer surface of the bobbin; a first magnet disposed on the housing; a second magnet disposed on the housing and spaced apart from the first magnet; upper and lower elastic members (150, 160) each coupled to both the bobbin and the housing; a first position sensor disposed on the outer circumferential surface of the bobbin and detecting a sum of intensities of magnetic fields of the first magnet and the second magnet based on the movement of the bobbin in a first direction of an optical axis direction; a detecting portion of the first position sensor disposed in a space between the first magnet and the second magnet when the bobbin is disposed at an initial position; a base disposed below the bobbin; and a circuit board disposed on the base; wherein the bobbin and the first position sensor are configured to move in the first direction via electromagnetic interaction between the first coil and the second magnet.
A user interface device (10, 200), comprising: an audio input subsystem (230, 302); a first (260, 264, 270, 312) and a second (262, 316) communications subsystem; at least one processor (210, 306) in operative communication with the audio input subsystem and the first and second communications subsystems; a first audio data input path between the audio input subsystem and an internal buffer (222, 223, 310); a first audio data output path between the internal buffer and the first communications subsystem; a second audio data output path between the internal buffer and the second communications subsystem; a first audio data internal buffer bypass path between the audio input subsystem and the second communications subsystem; a switch element (SW1, SW2), when in a first state, directing audio data provided by the audio input subsystem on the first audio data input path to the internal buffer, and to both the first communications subsystem and the second communications subsystem on the first audio data output path and the second audio data output path, respectively; the switch element, when in a second state, terminating the first audio data input path and directing the audio data provided by the audio input subsystem to the second communications subsystem on the first audio data internal buffer bypass path. an audio input subsystem (230, 302); a first (260, 264, 270, 312) and a second (262, 316) communications subsystem; at least one processor (210, 306) in operative communication with the audio input subsystem and the first and second communications subsystems; a first audio data input path between the audio input subsystem and an internal buffer (222, 223, 310); a first audio data output path between the internal buffer and the first communications subsystem; a second audio data output path between the internal buffer and the second communications subsystem; a first audio data internal buffer bypass path between the audio input subsystem and the second communications subsystem; a switch element (SW1, SW2), when in a first state, directing audio data provided by the audio input subsystem on the first audio data input path to the internal buffer, and to both the first communications subsystem and the second communications subsystem on the first audio data output path and the second audio data output path, respectively; the switch element, when in a second state, terminating the first audio data input path and directing the audio data provided by the audio input subsystem to the second communications subsystem on the first audio data internal buffer bypass path.