mhurhangee/ep-ind-claims huggingface dataset:
A door handle system for a safety door, especially for a sliding door or swing door, comprises the following features: - a bolt unit is provided, wherein the bolt unit comprises a housing with a bolt opening, and a handle, wherein the handle is arranged at the housing; - the bolt unit comprises a frame structure with a bolt, wherein the frame structure is arranged in the housing and wherein the frame structure is moveable with respect to the housing; - the frame structure encloses a receiving room; - the bolt is arranged at a first side of the frame structure, wherein a second side and a third side of the frame structure are arranged opposite to each other; - the second side and the third side each comprise a gear rack directed to the receiving room, so that the gear racks of the second side and third side face each other; - the bolt unit comprises a gear, especially in form of a sector gear, which is arranged within the receiving room; - the handle is attached to the gear so that pressing the handle translates into a rotation of the gear; - upon rotation of the gear from a starting position to an end position, the gear is configured to get into contact with the corresponding gear rack, causing the frame structure to be displaced from a first position into a second position in relation to the housing thereby pushing the bolt out of the bolt opening. - a bolt unit is provided, wherein the bolt unit comprises a housing with a bolt opening, and a handle, wherein the handle is arranged at the housing; - the bolt unit comprises a frame structure with a bolt, wherein the frame structure is arranged in the housing and wherein the frame structure is moveable with respect to the housing; - the frame structure encloses a receiving room; - the bolt is arranged at a first side of the frame structure, wherein a second side and a third side of the frame structure are arranged opposite to each other; - the second side and the third side each comprise a gear rack directed to the receiving room, so that the gear racks of the second side and third side face each other; - the bolt unit comprises a gear, especially in form of a sector gear, which is arranged within the receiving room; - the handle is attached to the gear so that pressing the handle translates into a rotation of the gear; - upon rotation of the gear from a starting position to an end position, the gear is configured to get into contact with the corresponding gear rack, causing the frame structure to be displaced from a first position into a second position in relation to the housing thereby pushing the bolt out of the bolt opening.
A heddle for a harness of a Jacquard weaving loom, this heddle comprising two strands (32, 34) each equipped at a first end (322, 342) with a member (38, 42) for hooking-up the heddle to an element (18; 26) of the harness, as well as a link with an eyelet for guiding a warp thread, the eyelet being positioned, along a longitudinal axis of the heddle, between both strands, and the link being in a synthetic material and comprising two branches (52, 54) positioned on either side of the eyelet along the longitudinal axis, characterized in that - a portion (522, 542) of each branch of the link is over-molded on a second end (324, 344) of a strand (32, 34) opposite to its first end (322, 324), the second end being shifted longitudinally from the eyelet, - each branch (52, 54) of the link completely surrounds the second end (324, 344) of the corresponding strand (32, 34), - the second end of each strand (32, 34) is conformed with a geometry intended to make an anchoring opposing the displacement of the over-molded portion of the branch of the link relatively to the second end of the corresponding strand (32, 34) along two opposite longitudinal directions (F1, F2), - the eyelet is delimited by the synthetic material which makes up the link. - a portion (522, 542) of each branch of the link is over-molded on a second end (324, 344) of a strand (32, 34) opposite to its first end (322, 324), the second end being shifted longitudinally from the eyelet, - each branch (52, 54) of the link completely surrounds the second end (324, 344) of the corresponding strand (32, 34), - the second end of each strand (32, 34) is conformed with a geometry intended to make an anchoring opposing the displacement of the over-molded portion of the branch of the link relatively to the second end of the corresponding strand (32, 34) along two opposite longitudinal directions (F1, F2), - the eyelet is delimited by the synthetic material which makes up the link.
A compound of formula: or a pharmaceutically acceptable salt thereof; wherein Y is CHR 5; R 1 is -O-L-N(R 7) 2; R 2 is C 1 - 3 alkyl; each R 3 is independently halogen or C 1 - 3 alkyl; R 4 is alkyl; R 5 is hydrogen or benzyloxy; each R 7 is independently H or C 1 - 3 alkyl; and L is ethylene. Y is CHR 5; R 1 is -O-L-N(R 7) 2; R 2 is C 1 - 3 alkyl; each R 3 is independently halogen or C 1 - 3 alkyl; R 4 is alkyl; R 5 is hydrogen or benzyloxy; each R 7 is independently H or C 1 - 3 alkyl; and L is ethylene.
A composition for use in making polymeric fiber membranes, the composition comprising a spin dope including: a) a mixture of tetrabromo bis-phenol A polycarbonate (TBBA-PC) and tetrabromo bishydroxyphenylfluorene polycarbonate (TBBHPF-PC), in proportions, by weight, ranging (in percent) from 60/40 to 40/60, and b) n-methyl pyrrolidinone and triethylene glycol, wherein a ratio of NMP to TEG, by weight, is in a range of 1.6-2.5. a) a mixture of tetrabromo bis-phenol A polycarbonate (TBBA-PC) and tetrabromo bishydroxyphenylfluorene polycarbonate (TBBHPF-PC), in proportions, by weight, ranging (in percent) from 60/40 to 40/60, and b) n-methyl pyrrolidinone and triethylene glycol, wherein a ratio of NMP to TEG, by weight, is in a range of 1.6-2.5.
An electrolytic solution including an organic solvent, a lithium salt and an additive, wherein the lithium salt comprises a primary lithium salt, the primary lithium salt is a first compound in an amount of 30% or more relative to the total molar amount of the lithium salt, and the first compound has a structure represented by the following formula I: in which formula I, R 1 and R 2 each independently represent a fluorine atom, a fluoroalkyl group having 1-20 carbon atoms, or a fluoroalkoxy group having 1-20 carbon atoms, and wherein the additive comprises a second compound represented by the following formula II, in which formula II, R 3 represents an alkylene group having 2-4 carbon atoms, a fluoroalkylene group having 2-4 carbon atoms, an alkyl-substituted alkylene group having 2-4 carbon atoms, an alkenylene group having 2- 4 carbon atoms, a fluoroalkenylene group having 2-4 carbon atoms, an alkyl-substituted alkenylene group having 2-4 carbon atoms, an arylene group having 6-14 carbon atoms, and a fluorinated arylene group having 6-14 carbon atoms or an alkyl-substituted arylene group having 6-14 carbon atoms. wherein the lithium salt comprises a primary lithium salt, the primary lithium salt is a first compound in an amount of 30% or more relative to the total molar amount of the lithium salt, and the first compound has a structure represented by the following formula I: in which formula I, R 1 and R 2 each independently represent a fluorine atom, a fluoroalkyl group having 1-20 carbon atoms, or a fluoroalkoxy group having 1-20 carbon atoms, and wherein the additive comprises a second compound represented by the following formula II, in which formula II, R 3 represents an alkylene group having 2-4 carbon atoms, a fluoroalkylene group having 2-4 carbon atoms, an alkyl-substituted alkylene group having 2-4 carbon atoms, an alkenylene group having 2- 4 carbon atoms, a fluoroalkenylene group having 2-4 carbon atoms, an alkyl-substituted alkenylene group having 2-4 carbon atoms, an arylene group having 6-14 carbon atoms, and a fluorinated arylene group having 6-14 carbon atoms or an alkyl-substituted arylene group having 6-14 carbon atoms.
A method for preparing polyaspartic acid, comprising the following steps: (a) precondensing aspartic acid at a temperature of 100 to 250°C up to a degree of conversion of at least 2%; (b) optionally cooling the precondensate according to (a); (c) adding 1 to 25 mol% of an acidic catalyst, based on the amount of aspartic acid used in step (a); (d) polycondensing the reaction mixture after (c) at 170 to 250°C; (e) hydrolyzing the polycondensates according to (d) with addition of a base; and (f) optionally acidifying the salts of polyaspartic acid obtained in (e). (a) precondensing aspartic acid at a temperature of 100 to 250°C up to a degree of conversion of at least 2%; (b) optionally cooling the precondensate according to (a); (c) adding 1 to 25 mol% of an acidic catalyst, based on the amount of aspartic acid used in step (a); (d) polycondensing the reaction mixture after (c) at 170 to 250°C; (e) hydrolyzing the polycondensates according to (d) with addition of a base; and (f) optionally acidifying the salts of polyaspartic acid obtained in (e).
A communication apparatus for receiving a body-coupled communication signal, said receiver apparatus comprising: a. an input filter for performing a switch-based filtering of a received signal, wherein said input filter is adapted to shorten differential input couplers (201, 202), used for receiving of said body-coupled communication signal, between consecutive receiving periods; and b. a correlator arrangement (206, 208) for synchronizing a receiver timing based on a first correlation between said received signal and a synchronization signal; and for decoding said received signal by performing a second correlation between said received signal and a reference signal generated based on the receiver timing. a. an input filter for performing a switch-based filtering of a received signal, wherein said input filter is adapted to shorten differential input couplers (201, 202), used for receiving of said body-coupled communication signal, between consecutive receiving periods; and b. a correlator arrangement (206, 208) for synchronizing a receiver timing based on a first correlation between said received signal and a synchronization signal; and for decoding said received signal by performing a second correlation between said received signal and a reference signal generated based on the receiver timing.
A method to monitor and manage a wireless network with a Wireless Access Gateway, WAG (141, 142), and a hotspot supported by a broadband home gateway, wherein the WAG controls one or more management services for the hotspot, the method comprising: receiving an indication of hotspot activity supported by a broadband home gateway in a message destined for the broadband home gateway, wherein the message indicates a WAG controlling a hotspot; determining from the message a status of the hotspot supported by the broadband home gateway and an association between the WAG and the broadband home gateway; storing the association between the WAG and the broadband home gateway and a state of the hotspot indicated by the message; periodically verifying the status of a network connection to the WAG; and, upon determining that the network connection to the WAG has failed, notifying the broadband home gateway of the WAG failure based on the stored association. receiving an indication of hotspot activity supported by a broadband home gateway in a message destined for the broadband home gateway, wherein the message indicates a WAG controlling a hotspot; determining from the message a status of the hotspot supported by the broadband home gateway and an association between the WAG and the broadband home gateway; storing the association between the WAG and the broadband home gateway and a state of the hotspot indicated by the message; periodically verifying the status of a network connection to the WAG; and, upon determining that the network connection to the WAG has failed, notifying the broadband home gateway of the WAG failure based on the stored association.
An electrical connection device configured to transmit an electrical signal, for instance a hyperfrequency signal, the connection device comprising a first electrode extending along an axis, a second electrode extending along an axis parallel to the axis of the first electrode, and an electrically insulating retention member bearing the first electrode and the second electrode, each electrode (30, 35) comprising a first end and a second end, wherein each electrode (30, 35) of the connection device passes through the retention member, the first end and the second end of each electrode (30, 35) protruding from opposite sides of the retention member, each electrode (30, 35) comprising a first portion and a second portion respectively defining the first end and the second end, the first portion and the second portion of at least one or each electrode (30, 35) being mobile in axial translation relative to one another, characterized in that at least one of either the first end and second end of the first electrode is concave.
Program-controlled unit comprising an internal memory provided within same, and comprising a memory access control device, which ensures that, in a first operating mode of the program-controlled unit accesses to the internal memory are diverted to an external memory provided outside the program-controlled unit, and no diversion of accesses to the internal memory is carried out in a second operating mode of the program-controlled unit, characterized in that, in the first operating mode of the program-controlled unit, only accesses to one or more specific areas of the internal memory are diverted to the external memory, and in that it is possible to set which accesses to the internal memory are diverted to the external memory in the first operating mode of the program-controlled unit.
A manufacturing method for heat radiation fins in a liquid-type cooling apparatus, wherein the liquid-type cooling apparatus in which there are provided a jacket through which a coolant flows and a heat sink that makes contact with the coolant flowing in the jacket and in which heat generated by a heat-generating device (1, 2, 3) is transferred to the coolant through the intermediary of the heat sink so that the heat is radiated, wherein the heat sink includes a heat sink base member having a first surface portion that faces the inside of the jacket and a plurality of heat radiation fins that are provided on the first surface portion of the heat sink base member and make contact with the coolant flowing in the jacket, and wherein the plurality of heat radiation fins are inclined toward the downstream side of the coolant flowing in the jacket, wherein on the first surface portion of the heat sink base member, a plate-shaped heat radiation fin region protruding by a predetermined dimension from the first surface portion is formed, and wherein a plurality of circular blades (141, 142, 143) that are arranged in such a way as to be spaced a predetermined distance away from one another and whose diameters are different from one another are rotated and then the plurality of circular blades (141, 142, 143) concurrently cut the heat radiation fin region at an inclination angle with respect to the first surface portion so that the plurality of heat radiation fins are formed. wherein the liquid-type cooling apparatus in which there are provided a jacket through which a coolant flows and a heat sink that makes contact with the coolant flowing in the jacket and in which heat generated by a heat-generating device (1, 2, 3) is transferred to the coolant through the intermediary of the heat sink so that the heat is radiated, wherein the heat sink includes a heat sink base member having a first surface portion that faces the inside of the jacket and a plurality of heat radiation fins that are provided on the first surface portion of the heat sink base member and make contact with the coolant flowing in the jacket, and wherein the plurality of heat radiation fins are inclined toward the downstream side of the coolant flowing in the jacket, wherein on the first surface portion of the heat sink base member, a plate-shaped heat radiation fin region protruding by a predetermined dimension from the first surface portion is formed, and wherein a plurality of circular blades (141, 142, 143) that are arranged in such a way as to be spaced a predetermined distance away from one another and whose diameters are different from one another are rotated and then the plurality of circular blades (141, 142, 143) concurrently cut the heat radiation fin region at an inclination angle with respect to the first surface portion so that the plurality of heat radiation fins are formed.
A method for feeding items of laundry to at least one loading conveyor of a feeding machine for feeding items of laundry to a mangle or the like, wherein a respective separated item of laundry is transferred to the at least one loading conveyor, characterized in that the respective item of laundry is transferred to the respective loading conveyor by a handling device, wherein the respective item of laundry is gripped by a double clip of the handling device having two spaced-apart clip mouths at a central or near-central portion of a periphery of the item of laundry to be gripped between adjacent corners (21, 22, 24, 25) of a hanging-down periphery (26, 27, 28, 29), the handling device positions the respective item of laundry on the loading conveyor or conveyors provided or hangs it on the loading conveyor and the handling device positions or places the item of laundry concerned with the portion on an initial region or supporting region of a conveyor belt of the respective loading conveyor having a smaller width than the clear distance between the clip mouths of the double clips in such a manner that the item of laundry then lies in an approximately U-shaped configuration on or above a conveyor belt of the loading conveyor.
A method for detecting and analyzing whether a patient suffering from a cancer is responsive or non-responsive to the treatment with an EGFR inhibitor, the method comprising the steps of - determining in a tissue section from a tumor sample obtained from said patient (i) the presence of an expressed EGFR protein in said tissue section by immunohistochemistry, and (ii) the EGFR gene copy number or the copy number of chromosome 7 by enzymatic metallography, wherein an area of highest expression of EGFR in a tissue section from said tumor sample is determined by IHC based on staining intensity, and a gene copy number of EGFR gene or chromosome 7 is counted from the cells residing in said area of highest expression in the tumor sample; and - selecting said patient for treatment with said EGFR inhibitor, if the tumor sample of said patient displays expression of EGFR protein and an increased copy number of the EGFR gene or chromosome 7 correlated to non-neoplastic cells of the same origin. - determining in a tissue section from a tumor sample obtained from said patient (i) the presence of an expressed EGFR protein in said tissue section by immunohistochemistry, and (ii) the EGFR gene copy number or the copy number of chromosome 7 by enzymatic metallography, wherein an area of highest expression of EGFR in a tissue section from said tumor sample is determined by IHC based on staining intensity, and a gene copy number of EGFR gene or chromosome 7 is counted from the cells residing in said area of highest expression in the tumor sample; and (i) the presence of an expressed EGFR protein in said tissue section by immunohistochemistry, and (ii) the EGFR gene copy number or the copy number of chromosome 7 by enzymatic metallography, - selecting said patient for treatment with said EGFR inhibitor,
A method of carbon dioxide mineralization and storage characterized in that the method comprises: - generating CO 2 nanobubbles in a fluid forming a carbon dioxide and fluid mixture, - injecting said mixture into a rock formation comprising mafic or ultramafic rock via an injection well wherein the carbon dioxide and fluid mixture is flowed through said injection well or an injection well casing disposed in the rock formation, - reacting carbon dioxide in said carbon dioxide and fluid mixture with said rock formation to form calcites and magnesites in the rock formation; and - recycling at least a portion of the fluid from said rock formation via an observation well. - generating CO 2 nanobubbles in a fluid forming a carbon dioxide and fluid mixture, - injecting said mixture into a rock formation comprising mafic or ultramafic rock via an injection well wherein the carbon dioxide and fluid mixture is flowed through said injection well or an injection well casing disposed in the rock formation, - reacting carbon dioxide in said carbon dioxide and fluid mixture with said rock formation to form calcites and magnesites in the rock formation; and - recycling at least a portion of the fluid from said rock formation via an observation well.
A method for controlling an intaglio printing, particularly for the printing of paper securities, in particular of bank notes, said intaglio printing involving: (i) the inking of at least one intaglio printing plate with at least one intaglio ink; (ii) the wiping of the thus inked intaglio printing plate; and (iii) the printing of a substrate by means of the thus wiped intaglio printing plate, the printing of the substrate involving the application of the substrate against the intaglio printing plate at a printing pressure, the printing pressure, the ink load and the wiping constituting printing parameters that may affect said intaglio printing, where the control method includes the following steps: (a) defining, on the intaglio printing plate, control ranges (150, 151 to 155, 170, 171 to 179) designed to allow the evaluation of the effects of the printing pressure applied during printing (iii) of the substrate and the evaluation of the effects of the ink load applied during inking (i) of the intaglio printing plate, which control ranges (150, 151 to 155; 170, 171 to 179) are engraved in a portion of the intaglio printing plate in order to produce corresponding printed control areas (160, 161 to 165) on said substrate; (b) performing measurements in said printed control areas allowing the evaluation of the printing pressure applied during printing (iii) of the substrate; and (c) performing measurements in said printed control areas allowing the evaluation of the ink load applied during inking (i) of the intaglio printing plate; and wherein the printing pressure and the ink load are adjusted until the measurements performed in said printed control areas reflect an optimal balance between the printing pressure and the ink load. (i) the inking of at least one intaglio printing plate with at least one intaglio ink; (ii) the wiping of the thus inked intaglio printing plate; and (iii) the printing of a substrate by means of the thus wiped intaglio printing plate, the printing of the substrate involving the application of the substrate against the intaglio printing plate at a printing pressure, (a) defining, on the intaglio printing plate, control ranges (150, 151 to 155, 170, 171 to 179) designed to allow the evaluation of the effects of the printing pressure applied during printing (iii) of the substrate and the evaluation of the effects of the ink load applied during inking (i) of the intaglio printing plate, which control ranges (150, 151 to 155; 170, 171 to 179) are engraved in a portion of the intaglio printing plate in order to produce corresponding printed control areas (160, 161 to 165) on said substrate; (b) performing measurements in said printed control areas allowing the evaluation of the printing pressure applied during printing (iii) of the substrate; and (c) performing measurements in said printed control areas allowing the evaluation of the ink load applied during inking (i) of the intaglio printing plate;