mhurhangee/ep-ind-claims huggingface dataset:
A process for making a three-dimensional object by dispensing solidifiable modeling material in a predetermined pattern so as to define the three-dimensional object in coordination with dispensing solidifiable support material so as to define a support structure for the three-dimensional object, the support structure thereby having portions thereof in contact with the object, the process being characterized by: forming at least those portions of the support structure contacting the object from an alkali-soluble thermoplastic material comprising: a base polymer containing a carboxylic acid; and a plasticizer. forming at least those portions of the support structure contacting the object from an alkali-soluble thermoplastic material comprising: a base polymer containing a carboxylic acid; and a plasticizer. a base polymer containing a carboxylic acid; and a plasticizer.
Method for winding up tubes in spool form by means of an apparatus for winding and wrapping the spool formed with a film, the apparatus comprising a structure translationally movable and carrying a reel rotating about a longitudinal axis of rotation (X-X), a feeder device feeding a tube to the reel, a feeder device feeding a wrapping film, and a pair of coaxial discs (30a,30b;130a,130b) which are respectively distal (30a;130a) and proximal (30b;130b) and arranged opposite each other for containing the sides of the spool in the longitudinal direction (X-X), the method comprising the following steps: - arrangement of the structure carrying the reel in a longitudinal position removed from the distal disc (30a; 130a); - axial displacement of the structure into a position where the reel is coaxially close to the distal disc (30a; 130a); - operating the feeder device feeding the tube and starting the winding process; - cutting the tube when the programmed winding diameter of the spool is reached; - starting the feeder device feeding the wrapping film and fastening said film onto the reel; - starting the process for winding the film onto the spool formed so as to cover the front surface thereof; - synchronized displacement of the feeder device for the film in both senses of the longitudinal direction (X-X) from one end position to the other relative to the spool during winding, characterized in that the discs (30a,30b;130a,130b) for containing the wound spool and the wrapping film are kept rotationally fixed with respect to the reel and in that during winding of the film, the latter enters inside the said discs in a zone where the surface of said fixed containing discs (30a,30b;130a,130b) has at least one gap. - arrangement of the structure carrying the reel in a longitudinal position removed from the distal disc (30a; 130a); - axial displacement of the structure into a position where the reel is coaxially close to the distal disc (30a; 130a); - operating the feeder device feeding the tube and starting the winding process; - cutting the tube when the programmed winding diameter of the spool is reached; - starting the feeder device feeding the wrapping film and fastening said film onto the reel; - starting the process for winding the film onto the spool formed so as to cover the front surface thereof; - synchronized displacement of the feeder device for the film in both senses of the longitudinal direction (X-X) from one end position to the other relative to the spool during winding, characterized in that the discs (30a,30b;130a,130b) for containing the wound spool and the wrapping film are kept rotationally fixed with respect to the reel and in that during winding of the film, the latter enters inside the said discs in a zone where the surface of said fixed containing discs (30a,30b;130a,130b) has at least one gap.
A switching device for a vehicle headlight having a low beam mode, a high beam mode, and an adaptive mode for irradiating an area that is set based on a detection result of a detection device as irradiating modes for the vehicle headlight, the switching device comprising: a steering column lever switch supported on a steering column of a vehicle so as to be movable by a moving operation input between a stationary initial position and a predetermined stationary moved position, a switch configured to receive a switching operation input to set the adaptive mode, and a controller configured to change the irradiation mode of the headlight according to a position of the lever switch and the switching operation input received by the switch, wherein the controller is configured to change the irradiation mode to the adaptive mode, when the lever switch is in the initial position and the irradiation mode is set to the low beam mode, and the switching operation input on the switch is received, wherein the controller is configured to change the irradiation mode to the low beam mode, when the lever switch is in the initial position and the irradiation mode is set to the adaptive mode, and the switching operation input on the switch is received, wherein the controller is configured to set the irradiation mode to the high beam mode, when the lever switch is in the predetermined moved position, wherein the controller is configured to change the irradiation mode to the adaptive mode and to move the lever switch to the initial position, when the lever switch is in the predetermined moved position and the irradiation mode is set to the high beam mode, and the switching operation input on the switch is received. a steering column lever switch supported on a steering column of a vehicle so as to be movable by a moving operation input between a stationary initial position and a predetermined stationary moved position, a switch configured to receive a switching operation input to set the adaptive mode, and a controller configured to change the irradiation mode of the headlight according to a position of the lever switch and the switching operation input received by the switch, wherein the controller is configured to change the irradiation mode to the adaptive mode, when the lever switch is in the initial position and the irradiation mode is set to the low beam mode, and the switching operation input on the switch is received, wherein the controller is configured to change the irradiation mode to the low beam mode, when the lever switch is in the initial position and the irradiation mode is set to the adaptive mode, and the switching operation input on the switch is received, wherein the controller is configured to set the irradiation mode to the high beam mode, when the lever switch is in the predetermined moved position, wherein the controller is configured to change the irradiation mode to the adaptive mode and to move the lever switch to the initial position, when the lever switch is in the predetermined moved position and the irradiation mode is set to the high beam mode, and the switching operation input on the switch is received.
A rate adjustment method for Transcoder Free Operation, TrFO, voice call handover, comprising: receiving, by a media gateway, MGW, a message for adding a termination after handover, wherein the message for adding the termination after the handover is sent by a mobile switch center server, MSC-S, upon the MSC-S receiving a handover request message, and characterized in that the handover forms a TrFO call that uses a multi-rate codec after the handover; and by sending, by the MGW, a message that is used for rate adjustment to a non-handover side that uses a multi-rate codec, so that the non-handover side adjusts a rate of the non-handover side to an initial rate after receiving the message that is used for rate adjustment. receiving, by a media gateway, MGW, a message for adding a termination after handover, wherein the message for adding the termination after the handover is sent by a mobile switch center server, MSC-S, upon the MSC-S receiving a handover request message, and characterized in that the handover forms a TrFO call that uses a multi-rate codec after the handover; and by sending, by the MGW, a message that is used for rate adjustment to a non-handover side that uses a multi-rate codec, so that the non-handover side adjusts a rate of the non-handover side to an initial rate after receiving the message that is used for rate adjustment.
Position measuring device having - a code carrier, on which a first code track and a second code track running parallel to the latter are provided, and the first code track and the second code track each have the same sequence of code elements (C1-C16), each code element (C1-C16) consisting of two sections (C1A, C1B - C16A, C16B) which have properties complementary to one another and are arranged in succession in the measurement direction X; - a scanning device having a plurality of detectors (E1-E10; F1-F10) for scanning the code elements (C1-C16) and for forming at least one scanning signal (SE1-SE10; SF1-SF10) inside a respective one of the sections (C1A, C1B - C16A, C16B) of the code elements (C1-C16); - an evaluation unit designed to generate code information (B1-B4) from the scanning signals (SE1-SE10; SF1-SF10) and to form a code word (W1-W16) from the code information (B1-B4), the evaluation unit forming the code word (W1-W16) which unambiguously defines the absolute position in the measurement direction by virtue of the code word (W1-W16) being composed of N items of code information (B1, B2) from successive code elements (C1-C16) in the first code track and of K items of code information (B3, B4) from successive code elements (C1-C16) in the second code track, where N and K are greater than 1. - a code carrier, on which a first code track and a second code track running parallel to the latter are provided, and the first code track and the second code track each have the same sequence of code elements (C1-C16), each code element (C1-C16) consisting of two sections (C1A, C1B - C16A, C16B) which have properties complementary to one another and are arranged in succession in the measurement direction X; - a scanning device having a plurality of detectors (E1-E10; F1-F10) for scanning the code elements (C1-C16) and for forming at least one scanning signal (SE1-SE10; SF1-SF10) inside a respective one of the sections (C1A, C1B - C16A, C16B) of the code elements (C1-C16); - an evaluation unit designed to generate code information (B1-B4) from the scanning signals (SE1-SE10; SF1-SF10) and to form a code word (W1-W16) from the code information (B1-B4), the evaluation unit forming the code word (W1-W16) which unambiguously defines the absolute position in the measurement direction by virtue of the code word (W1-W16) being composed of N items of code information (B1, B2) from successive code elements (C1-C16) in the first code track and of K items of code information (B3, B4) from successive code elements (C1-C16) in the second code track, where N and K are greater than 1.
A process for the removal of the solvent from a polymeric solution including at least one elastomeric polymer, which comprises subjecting said polymeric solution to a stripping step by means of water vapour, in the presence of a dispersant system comprising: - from 0.005% by weight to 1% by weight with respect to the total weight of the dry elastomeric polymer of at least one lamellar material; - from 0.0005% by weight to 1% by weight with respect to the total weight of the dry elastomeric polymer of at least one cationic surfactant. - from 0.005% by weight to 1% by weight with respect to the total weight of the dry elastomeric polymer of at least one lamellar material; - from 0.0005% by weight to 1% by weight with respect to the total weight of the dry elastomeric polymer of at least one cationic surfactant.
A method of monitoring a winding process of forming a transformer winding on a winding apparatus, the method comprising: processing, by a computer vision system, at least one image showing at least part of the transformer winding captured during the winding process, wherein processing the at least one image comprises performing an object classification; detecting, by the computer vision system, a discrepancy between a result of the object classification and design data for the transformer winding; effecting, by the computer vision system, at least one action responsive to the detected discrepancy; and determining at least one image acquisition time of the at least one image during the winding process based on both a translatory position and a rotary position of the winding apparatus in combination with the design data. processing, by a computer vision system, at least one image showing at least part of the transformer winding captured during the winding process, wherein processing the at least one image comprises performing an object classification; detecting, by the computer vision system, a discrepancy between a result of the object classification and design data for the transformer winding; effecting, by the computer vision system, at least one action responsive to the detected discrepancy; and determining at least one image acquisition time of the at least one image during the winding process based on both a translatory position and a rotary position of the winding apparatus in combination with the design data.
A pharmaceutical composition, wherein the pharmaceutical composition is a granule, and the granule comprises: an active ingredient, comprising 2-(2-aminopyridine-4-yl)-5-(5-((5-(2-ethyl-2H-tetrazole-5-yl)pyridine-2-yl)-oxy)-3,3-amyldimethyl)-1,2,5-thiadiazolidin 1,1-dioxide or pharmaceutically acceptable salt thereof; the pharmaceutical composition is characterized by further comprising auxiliary materials comprising a diluent, a suspending agent and a solubilizer; the diluent comprising one or more of sucrose, mannitol, sorbitol and xylitol, the suspending agent comprising povidone, and the solubilizer comprising poloxamer 188 and/or polysorbate 80; wherein, the active ingredient accounts for 1.0% to 3.0% of a total weight of the pharmaceutical composition, the diluent accounts for 60% to 98% of the total weight of the pharmaceutical composition, the suspending agent accounts for 0.3% to 2.0% of the total weight of the pharmaceutical composition, and the solubilizer accounts for 0.5% to 2.0% of a total weight of the pharmaceutical composition. an active ingredient, comprising 2-(2-aminopyridine-4-yl)-5-(5-((5-(2-ethyl-2H-tetrazole-5-yl)pyridine-2-yl)-oxy)-3,3-amyldimethyl)-1,2,5-thiadiazolidin 1,1-dioxide or pharmaceutically acceptable salt thereof; the pharmaceutical composition is characterized by further comprising auxiliary materials comprising a diluent, a suspending agent and a solubilizer; the diluent comprising one or more of sucrose, mannitol, sorbitol and xylitol, the suspending agent comprising povidone, and the solubilizer comprising poloxamer 188 and/or polysorbate 80; wherein, the active ingredient accounts for 1.0% to 3.0% of a total weight of the pharmaceutical composition, the diluent accounts for 60% to 98% of the total weight of the pharmaceutical composition, the suspending agent accounts for 0.3% to 2.0% of the total weight of the pharmaceutical composition, and the solubilizer accounts for 0.5% to 2.0% of a total weight of the pharmaceutical composition.
A pharmaceutical composition in the form of a bilayer tablet comprising of a first part containing simethicone absorbed on colloidal silicon dioxide and a second part containing otilonium or pharmaceutically acceptable salts thereof, wherein the simethicone is absorbed on colloidal silicone dioxide and wherein the composition does not contain any basic agent.
A method for generating and expanding human hemangio-colony forming cells in vitro, said method comprising the steps of: a) culturing a cell culture comprising human induced pluripotent stem cells (iPSCs) in serum-free media in the presence of at least one growth factor in an amount sufficient to induce the differentiation of said iPSCs into embryoid bodies; and b) adding at least two growth factors to said culture comprising embryoid bodies and continuing to culture said culture in serum-free media, wherein said growth factor is in an amount sufficient to expand human hemangio-colony forming cells in said embryoid bodies culture, wherein - said iPSCs are maintained with mouse embryonic fibroblasts (MEFs) or are maintained feeder-free; - a Rho-kinase (ROCK) inhibitor is added to serum-free embryoid body media and/or differentiation media; - said iPSCs, embryoid bodies and hemangio-colony forming cells are grown in serum-free media throughout steps (a) and (b) of said method; and - said at least two growth factors in step (b) comprise BMP4 and VEGF. a) culturing a cell culture comprising human induced pluripotent stem cells (iPSCs) in serum-free media in the presence of at least one growth factor in an amount sufficient to induce the differentiation of said iPSCs into embryoid bodies; and b) adding at least two growth factors to said culture comprising embryoid bodies and continuing to culture said culture in serum-free media, wherein said growth factor is in an amount sufficient to expand human hemangio-colony forming cells in said embryoid bodies culture, wherein - said iPSCs are maintained with mouse embryonic fibroblasts (MEFs) or are maintained feeder-free; - a Rho-kinase (ROCK) inhibitor is added to serum-free embryoid body media and/or differentiation media; - said iPSCs, embryoid bodies and hemangio-colony forming cells are grown in serum-free media throughout steps (a) and (b) of said method; and - said at least two growth factors in step (b) comprise BMP4 and VEGF. - said iPSCs are maintained with mouse embryonic fibroblasts (MEFs) or are maintained feeder-free; - a Rho-kinase (ROCK) inhibitor is added to serum-free embryoid body media and/or differentiation media; - said iPSCs, embryoid bodies and hemangio-colony forming cells are grown in serum-free media throughout steps (a) and (b) of said method; and - said at least two growth factors in step (b) comprise BMP4 and VEGF.
A slot interface access device comprising: an input and output control module; and slot interfaces which are located in a layer lower than a layer of the input and output control module, characterized by a slot management module; slot control modules each corresponding to each of the slot interfaces; and a physical slot to management slot contrast table, wherein the slot management module, the slot control modules and the physical slot to management slot contrast table are provided between the layer of the input and output control module and the layer of the slot interface, the input and output control module accesses each of the slot interfaces using virtual slot identification information, and the slot management module converts the virtual slot identification information into physical slot identification information by referring to the physical slot to management slot contrast table, and accesses the slot control module corresponding to the physical slot identification information, thereby realizing a physical access of the input and output control module to each of the slot interfaces. an input and output control module; and slot interfaces which are located in a layer lower than a layer of the input and output control module, wherein the slot management module, the slot control modules and the physical slot to management slot contrast table are provided between the layer of the input and output control module and the layer of the slot interface, the input and output control module accesses each of the slot interfaces using virtual slot identification information, and the slot management module converts the virtual slot identification information into physical slot identification information by referring to the physical slot to management slot contrast table, and accesses the slot control module corresponding to the physical slot identification information, thereby realizing a physical access of the input and output control module to each of the slot interfaces.
Device for aligning dough pieces, comprising: - a first conveyor, for conveying dough pieces in a direction of conveyance; - a second conveyor, for conveying dough pieces in the same direction of conveyance; wherein - the second conveyor is arranged as an extension of the first conveyor, and - There is a gap in between the first and the second conveyor (3,5); - a number of transfer units (7,8,9) is arranged in parallel in the gap, each transfer unit (7,8,9) for transferring dough pieces from the first conveyor to the second conveyor, wherein - the transfer units (7,8,9) are adapted for independently moving the dough pieces with a directional component perpendicular to the direction of conveyance during transfer from a front side adjacent to the first conveyor to a back side adjacent to the second conveyor, characterised in that, - the transfer units (7,8,9) each comprise a transfer belt (7,8,9), wherein each transfer belt (7,8,9) is at least at its front side (7a,8a,9a) and/or at its back side (7b,8b,9b) movable in a direction perpendicular to the direction of conveyance, independent from transfer belts (7,8,9) of other transfer units (7,8,9), wherein, the transfer units (7,8,9) each comprise at least a roller at their front side (7c,8c,9c) and at least a roller at their back side (7d,8d,9d), wherein the transfer belt (7,8,9) is looped around the at least one roller at the front side (7c,8c,9c) and the at least one roller at the back side (7d,8d,9d), wherein for each transfer unit (7,8,9) the roller at the front side (7c,8c,9c) and/or the roller at the back side (7d,8d,9d) is independently movable in a direction perpendicular to the direction of conveyance. - a first conveyor, for conveying dough pieces in a direction of conveyance; - a second conveyor, for conveying dough pieces in the same direction of conveyance; wherein - the second conveyor is arranged as an extension of the first conveyor, and - There is a gap in between the first and the second conveyor (3,5); - a number of transfer units (7,8,9) is arranged in parallel in the gap, each transfer unit (7,8,9) for transferring dough pieces from the first conveyor to the second conveyor, wherein - the transfer units (7,8,9) are adapted for independently moving the dough pieces with a directional component perpendicular to the direction of conveyance during transfer from a front side adjacent to the first conveyor to a back side adjacent to the second conveyor, characterised in that, - the transfer units (7,8,9) each comprise a transfer belt (7,8,9), wherein each transfer belt (7,8,9) is at least at its front side (7a,8a,9a) and/or at its back side (7b,8b,9b) movable in a direction perpendicular to the direction of conveyance, independent from transfer belts (7,8,9) of other transfer units (7,8,9),
Cellulose carbamate polymer having - an average intrinsic viscosity of 146 to 368 ml/g; - a nitrogen content of 0.01 to 3 % by weight; - a polydispersity index of 2.0 to 5.0; and - having a content of p-terephthalate and/or p-terephthalic acid and/or unhydrolyzed or partly unhydrolyzed polyester of 0.00005 to 0.5 % by weight. - an average intrinsic viscosity of 146 to 368 ml/g; - a nitrogen content of 0.01 to 3 % by weight; - a polydispersity index of 2.0 to 5.0; and - having a content of p-terephthalate and/or p-terephthalic acid and/or unhydrolyzed or partly unhydrolyzed polyester of 0.00005 to 0.5 % by weight.
A compound selected from: 1-[4-(3a,8-dimethyl-7-morpholin-4-yl-3,3a,8,8a-tetrahydro-2h-1-oxa-4,6,8-triaza-cyclopenta[a]inden-5-yl)-phenyl]-3-ethyl-urea, and 5-(8,8-Dimethyl-1-morpholin-4-yl-5,8-dihydrd-6H-7-oxa-9-thia-2,4-diaza-fluoren-3-yl)-pyrimidin-2-ylamine. 1-[4-(3a,8-dimethyl-7-morpholin-4-yl-3,3a,8,8a-tetrahydro-2h-1-oxa-4,6,8-triaza-cyclopenta[a]inden-5-yl)-phenyl]-3-ethyl-urea, and 5-(8,8-Dimethyl-1-morpholin-4-yl-5,8-dihydrd-6H-7-oxa-9-thia-2,4-diaza-fluoren-3-yl)-pyrimidin-2-ylamine.