mhurhangee/ep-ind-claims huggingface dataset:
Compounds of the formula I in which R 1 denotes Ar or Het, R 2 denotes H, A, Hal, CN, NO 2, OR 4, -[C(R 4) 2] n Het 1, O[C(R 4) 2] m N(R 4) 2, O[C(R 4) 2] m Het 1, -NR 4 [C(R 4) 2] m N(R 4) 2 or -NR 4 [C(R 4) 2] n Het 1, R 3 denotes H, A, Hal or OR 4, R 4 denotes H or A', W denotes CH or N, A denotes unbranched or branched alkyl having 1-6 C-atoms, in which 1-7 H atoms may be replaced by OH, F, Cl and/or Br and/or in which one or two CH 2 groups may be replaced by O, NH, S, SO, SO 2 and/or CH=CH groups, or cyclic alkyl having 3-7 C atoms, A' denotes unbranched or branched alkyl having 1-4 C-atoms, Ar denotes phenyl or naphthyl, which is unsubstituted or mono-, di- or trisubstituted by Hal, A, [C(R 4) 2] n OR 4 and/or [C(R 4) 2] n N(R 4) 2, Het denotes pyridyl, quinolyl, [1,8]-naphthyridinyl, pyrazolyl, pyrimidinyl, indolyl, dihydro-indolyl, 1H-pyrrolo[2,3-b]pyridyl, furyl, pyrazolo[1,5-a]pyridinyl or furo[3,2-b]pyridinyl, which may be unsubstituted or mono- or disubstituted by Hal, A, [C(R 4) 2] n OR 4 and/or [C(R 4) 2] n N(R 4) 2, Het 1 denotes piperazinyl, pyridyl, piperidinyl, pyrazolyl, morpholinyl, imidazolyl, 3,8-diaza-bicyclo[3.2.1]octyl, or [1,4]-diazepanyl, which is unsubstituted or mono- or disubstituted by A, OR 4, N(R 4) 2, Hal and/or =O (carbonyl oxygen), Hal denotes F, Cl, Br or I, n denotes 0, 1, 2 or 3, m denotes 1, 2, 3 or 4, and pharmaceutically acceptable salts, tautomers and stereoisomers thereof, including mixtures thereof in all ratios. R 1 denotes Ar or Het, R 2 denotes H, A, Hal, CN, NO 2, OR 4, -[C(R 4) 2] n Het 1, O[C(R 4) 2] m N(R 4) 2, O[C(R 4) 2] m Het 1, -NR 4 [C(R 4) 2] m N(R 4) 2 or -NR 4 [C(R 4) 2] n Het 1, R 3 denotes H, A, Hal or OR 4, R 4 denotes H or A', W denotes CH or N, A denotes unbranched or branched alkyl having 1-6 C-atoms, in which 1-7 H atoms may be replaced by OH, F, Cl and/or Br and/or in which one or two CH 2 groups may be replaced by O, NH, S, SO, SO 2 and/or CH=CH groups, or cyclic alkyl having 3-7 C atoms, A' denotes unbranched or branched alkyl having 1-4 C-atoms, Ar denotes phenyl or naphthyl, which is unsubstituted or mono-, di- or trisubstituted by Hal, A, [C(R 4) 2] n OR 4 and/or [C(R 4) 2] n N(R 4) 2, Het denotes pyridyl, quinolyl, [1,8]-naphthyridinyl, pyrazolyl, pyrimidinyl, indolyl, dihydro-indolyl, 1H-pyrrolo[2,3-b]pyridyl, furyl, pyrazolo[1,5-a]pyridinyl or furo[3,2-b]pyridinyl, which may be unsubstituted or mono- or disubstituted by Hal, A, [C(R 4) 2] n OR 4 and/or [C(R 4) 2] n N(R 4) 2, Het 1 denotes piperazinyl, pyridyl, piperidinyl, pyrazolyl, morpholinyl, imidazolyl, 3,8-diaza-bicyclo[3.2.1]octyl, or [1,4]-diazepanyl, which is unsubstituted or mono- or disubstituted by A, OR 4, N(R 4) 2, Hal and/or =O (carbonyl oxygen), Hal denotes F, Cl, Br or I, n denotes 0, 1, 2 or 3, m denotes 1, 2, 3 or 4,
A medical imaging device for imaging an arterio-venous, AV, fistula of a hemodialysis patient comprising: a housing having an opening extending therethrough, the opening being sized to accommodate an arm of the hemodialysis patient; an arm support configured to support the arm of the hemodialysis patient when the arm extends through the opening in the housing; a rotating wheel disposed within the housing and configured to rotate about the opening; a light source disposed within the housing on the rotating wheel, the light source being configured to illuminate at least a portion of the arm that is within the opening, the portion of the arm including the AV fistula; and an imaging sensor disposed within the housing on the rotating wheel and configured to produce video images of the AV fistula. a housing having an opening extending therethrough, the opening being sized to accommodate an arm of the hemodialysis patient; an arm support configured to support the arm of the hemodialysis patient when the arm extends through the opening in the housing; a rotating wheel disposed within the housing and configured to rotate about the opening; a light source disposed within the housing on the rotating wheel, the light source being configured to illuminate at least a portion of the arm that is within the opening, the portion of the arm including the AV fistula; and an imaging sensor disposed within the housing on the rotating wheel and configured to produce video images of the AV fistula.
A process for preparing trisilylamine comprising: (a) adding a solvent to a reactor vessel; (b) adding monohalosilane into the solvent to form a solution; (c) adding anhydrous ammonia into the solution to form a reaction mixture; (d) separating the silylamines from the reaction mixture; and (e) purifying the silylamines; further comprising adjusting the solvent temperature prior to condensing the monohalosilane into the solvent to form a solution, wherein the solvent temperature is adjusted from 70 degrees C to -78 degrees C, and wherein the molar ratio of monohalosilane to anhydrous ammonia is from 1.05:1 to 3:1. (a) adding a solvent to a reactor vessel; (b) adding monohalosilane into the solvent to form a solution; (c) adding anhydrous ammonia into the solution to form a reaction mixture; (d) separating the silylamines from the reaction mixture; and (e) purifying the silylamines;
An ophthalmic composition consisting of: an aqueous solution of hyaluronic acid or a pharmaceutically acceptable salt thereof; polyvinyl pyrrolidone; a quantity of an inorganic salt sufficient to bring the composition to a predetermined osmolarity; strong acid or strong base as necessary to bring the composition to a predetermined pH; and optionally, a buffer; characterized in that said ophthalmic composition is topically administrable; and said ophthalmic composition is characterized by a concentration of HA or a pharmaceutically acceptable salt thereof of about 0.1% w/v and a concentration of PVP of about 5% w/v, wherein the term "about" refers to quantities within ±25% of the stated quantity. an aqueous solution of hyaluronic acid or a pharmaceutically acceptable salt thereof; polyvinyl pyrrolidone; a quantity of an inorganic salt sufficient to bring the composition to a predetermined osmolarity; strong acid or strong base as necessary to bring the composition to a predetermined pH; and optionally, a buffer;
A saccharide of general formula V*-U x+3 -U x+2 -U x+1 -U x -O-L-NH 2 wherein x is an integer selected from 1, 2, 3 and 4; V*- represents H-, H-U x -, H-U x+1 -U x -, H-U x+2 -U x+1 -U x - or H-U x+3 -U x+2 -U x+1 -U x -; L represents a linker; or a pharmaceutically acceptable salt thereof. x is an integer selected from 1, 2, 3 and 4; V*- represents H-, H-U x -, H-U x+1 -U x -, H-U x+2 -U x+1 -U x - or H-U x+3 -U x+2 -U x+1 -U x -; L represents a linker; or a pharmaceutically acceptable salt thereof.
An optimization device of a component mounting line which is configured to carry out an optimization process relating to production based on setting-changeable processing conditions when producing a board on the component mounting line in which multiple component mounting machines are arranged in series, each of the component mounting machines including a board conveyance device which is configured to carry in the board to a mounting execution position, position the board, and carry out the board, a component supply device which is configured to sequentially supply components, and a component transfer device which is configured to pick the components from the component supply device and mount the components onto the positioned board, the optimization device comprising: a cycle time calculating section which is configured to calculate respective cycle times required for mounting components of component types which are allocated to each of the component mounting machines by the optimization process onto a single board characterized by; a shortest time calculating section which is configured to calculate respective shortest cycle times in which it is possible to mount components of component types which are allocated to each of the component mounting machines by the optimization process on a single board under mount-execution conditions at which it is anticipated that mounting efficiency will be highest; an operation efficiency calculating section which is configured to calculate respective operation efficiencies indicating a degree to which the cycle time of each of the component mounting machines approaches the shortest cycle time; and an operation efficiency display section which is configured to display the operation efficiencies. a cycle time calculating section which is configured to calculate respective cycle times required for mounting components of component types which are allocated to each of the component mounting machines by the optimization process onto a single board characterized by; a shortest time calculating section which is configured to calculate respective shortest cycle times in which it is possible to mount components of component types which are allocated to each of the component mounting machines by the optimization process on a single board under mount-execution conditions at which it is anticipated that mounting efficiency will be highest; an operation efficiency calculating section which is configured to calculate respective operation efficiencies indicating a degree to which the cycle time of each of the component mounting machines approaches the shortest cycle time; and an operation efficiency display section which is configured to display the operation efficiencies.
A laundry drying machine comprising a body; a drum which is positioned in the body, which has at least one air inlet opening and an air outlet opening and wherein the drying process is realized; at least one fan which sucks air from the outer environment and directs the same towards the drum; at least one heater for heating the ambient air which is sucked before entering the drum; a temperature sensor which is configured to detect the temperature of the air exiting the drum; and at least one air outlet which enables the air exiting the drum to be discharged from the body, at least one control unit which is connected to the temperature sensor so as to be in data communication with the same and which is configured to estimate the temperature level of the environment outside the body and the load level in the drum using at least the temperature value detected by the temperature sensor, and enable the drying process to be realized based on the estimated temperature level of the environment outside the body and the estimated load level in the drum characterized by the control unit which is configured to check if the temperature of the air exiting the drum detected by the temperature sensor reaches a target temperature value (T 2) predetermined based on the temperature level of the outer environment and the load level in the drum after estimating the temperature level of the outer environment and the load level in the drum and to finalize the drying process if, after the control process, it is detected that said target temperature value (T 2) is reached and the control unit which is configured, in order to estimate the amount of load in the drum, to determine a second reference temperature value (T 2,ref) predetermined in relation to the temperature of the outer environment and saved by the producer based on the estimated temperature of the outer environment, to calculate the difference (ΔT act) between the actual temperature of the air (T act1) detected by the temperature sensor and said second reference temperature value (T 2,ref), to compare the calculated difference (ΔT act) with at least one threshold difference value (ΔT ref1) predetermined and saved, and to categorize, based on the result of the comparison, the amount of load in the drum based on at least two predetermined categories and wherein the control unit which is configured, in order to estimate the load level in the drum, to compare the difference (ΔT act) between the actual temperature (T act1) of the air exiting the drum detected by the temperature sensor and said second reference temperature value (T 2,ref) with two different threshold difference values (ΔT ref1, ΔT ref2).
A sealing assembly having a sealing screw, comprising a shaft having an external thread for screwing it to an internal thread of an internal thread hole in a receiving body as well as a rear screw head which has an annular sealing surface on its bottom for contact with a bearing surface of the receiving body, and a receiving element, preferably a liquid line or a liquid vessel, preferentially an oil line or an oil container, especially preferentially a gear housing, which has an internal thread hole having an internal thread, preferably a standard internal thread, the sealing screw resting with its annular sealing surface, which is provided at the bottom of its screw head, on a bearing surface of the receiving element, the outside diameter of the external thread and/or the pitch diameter of the external thread tapering, preferably conically, to the front and/or rear end of the external thread, characterized in that the external thread of the shaft is contoured in such a manner and is matched, in particular axially continuously, to the internal thread of the internal thread hole in such a manner that the external thread is received within the internal thread with a clearance exceeding a standard clearance, so that the sealing screw is tiltable within the internal thread receiving it, preferably by an angle between 2° and 10°, preferably between 3° and 9°, preferentially between 3° and 8°, especially preferably between 3° and 6°, when being tightened around a longitudinal central axis (L D) so that the sealing surface can align with the bearing surface.
A cable, comprising: a plug at a first end of the cable; a socket at a second end of the cable; first and second conductors extending from the plug to the socket; a current and voltage monitoring module coupled to the first and the second conductors and configured to measure current and voltage levels of the conductors; a transceiver coupled to the current and voltage monitoring module, configured to receive data related to the current and voltage levels and transmit the data related to the current and voltage levels; and a housing configured to house the current and voltage monitoring module, the transceiver, and one of the socket and the plug, characterised in that an integrated circuit of the current and voltage monitoring module is configured to wake from a sleep mode, take sample of current and voltage measurements, and then go to sleep, later awake and complete power calculations for the sample of current and voltage measurements and determine whether the calculations have changed from previously transmitted calculation by a predetermined amount, and if so, prepare to transmit the calculations before going to sleep again, and later awaken and transmit the calculations with the transceiver, the transceiver not transmitting the calculations if the calculations have not changed by more than the predetermined amount. a plug at a first end of the cable; a socket at a second end of the cable; first and second conductors extending from the plug to the socket; a current and voltage monitoring module coupled to the first and the second conductors and configured to measure current and voltage levels of the conductors; a transceiver coupled to the current and voltage monitoring module, configured to receive data related to the current and voltage levels and transmit the data related to the current and voltage levels; and a housing configured to house the current and voltage monitoring module, the transceiver, and one of the socket and the plug, characterised in that an integrated circuit of the current and voltage monitoring module is configured to wake from a sleep mode, take sample of current and voltage measurements, and then go to sleep, later awake and complete power calculations for the sample of current and voltage measurements and determine whether the calculations have changed from previously transmitted calculation by a predetermined amount, and if so, prepare to transmit the calculations before going to sleep again, and later awaken and transmit the calculations with the transceiver, the transceiver not transmitting the calculations if the calculations have not changed by more than the predetermined amount.
A dispenser comprising a base unit with an actuation mechanism for dispensing liquid and a refill unit insertible into the base unit in an inverted configuration with its outlet lowermost for the supply of liquid to the base unit, the refill unit comprising an annular wall projecting into the refill unit and defining an outlet from the refill unit, the annular wall being closable at its innermost end by a valve element biased onto the annular wall, the base unit comprising a hollow spigot and an annular seal surrounding and spaced from the top of the spigot whereby insertion of the refill unit into the base unit causes the spigot to enter the annular wall and to lift the valve element from the annular wall to define a flow path from the refill unit, through at least one cut-out portion formed in the top of the spigot and/or the bottom of the valve element and down the hollow spigot, and the annular seal to seal between the spigot and the annular wall, wherein the base unit also comprises a proximity sensor means, and an inclination sensor means, characterized in that the inclination sensor means triggers the actuation means when the dispenser is inclined forwardly at a tilt angle "A" regarding a vertical orientation of the dispenser causing the device to deliver one or more doses of liquid from the dispenser.
A cut-off member intended to be integrated into an electrical circuit comprising a device for protecting an electrical installation against lightning, the cut-off member being mounted in series relative to the device for protecting an electrical installation and the cut-off member comprising: - a first conductive armature electrically connected to a first terminal for connection to the electrical circuit and a second conductive armature electrically connected to a second terminal for connection to the electrical circuit; - at least one fuse element disposed between the first armature and the second armature and electrically connected to the first armature and to the second armature, the at least one fuse element being arranged to melt when it is traversed by a current with a threshold magnitude over a threshold time period - a device for increasing an arc voltage between the first armature and the second armature in case of melting of the at least one fuse element, the device for increasing the arc voltage is constituted by a plurality of secondary armatures (31, 33, 35, 37) disposed between the first armature and the second armature, the secondary armatures (31, 33, 35, 37) being separated by openings, characterized in that the material constituting the fuse element having a resistivity comprised between thirty and three hundred microohms-millimeters, and in that the device for increasing an arc voltage comprising a conductive secondary armature electrically connected to the first armature via a first fuse element of the at least one a fuse element and another conductive secondary armature electrically connected to the second armature via a second fuse element of the at least one fuse element, the device for increasing an arc voltage comprising at least two additional secondary armatures (33, 35), each secondary armature (31, 33, 35, 37) being electrically connected to the adjacent secondary armature (31, 33, 35, 37) by at least one corresponding fuse element (41, 43, 45) of the at least one fuse element. - a first conductive armature electrically connected to a first terminal for connection to the electrical circuit and a second conductive armature electrically connected to a second terminal for connection to the electrical circuit; - at least one fuse element disposed between the first armature and the second armature and electrically connected to the first armature and to the second armature, the at least one fuse element being arranged to melt when it is traversed by a current with a threshold magnitude over a threshold time period - a device for increasing an arc voltage between the first armature and the second armature in case of melting of the at least one fuse element, the device for increasing the arc voltage is constituted by a plurality of secondary armatures (31, 33, 35, 37) disposed between the first armature and the second armature, the secondary armatures (31, 33, 35, 37) being separated by openings, characterized in that the material constituting the fuse element having a resistivity comprised between thirty and three hundred microohms-millimeters, and in that
Method for the manufacture of a component (10, 100) which comprises sensors, having at least one surface in which at least one largely coating-free opening and/or bore, in particular a blind bore, is arranged, comprising the following steps: - the component (10, 100) is cold-formed with at least one opening and/or bore having a coating, - the opening and/or bore is enlarged in diameter by an allowance by post-processing in such a way that the coating is thereby largely completely removed from the region of the opening and/or bore, resulting in a largely coating-free opening and/or bore, wherein the coating is applied to the surface of the opening and/or bore and the opening and/or bore is enlarged in allowance by means of punching and the coating is thereby scraped off in the region of the opening and/or bore and the material of the component is a metal. - the component (10, 100) is cold-formed with at least one opening and/or bore having a coating, - the opening and/or bore is enlarged in diameter by an allowance by post-processing in such a way that the coating is thereby largely completely removed from the region of the opening and/or bore, resulting in a largely coating-free opening and/or bore,