mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determination of a 3D information , especially of a point cloud or of a 3D surface reconstruction or of a 3D object , of an inner part of a metallurgical vessel comprising the steps of: - providing a metallurgical vessel ; - capturing a first optical image of at least one first inner part of the metallurgical vessel , from a first imaging device position outside of the metallurgical vessel , with a first optical axis , by a first imaging device ; - capturing a second optical image of at least one second inner part of the metallurgical vessel , from a second imaging device position outside of the metallurgical vessel , with a second optical axis , by a second imaging device ; - calculating a 3D information , such as a point cloud or a 3D surface reconstruction or a 3D object , of at least one inner part of the metallurgical vessel from at least the first optical image and the second optical image ; characterized in that - the first optical image is captured from a first fixed imaging device position with a first fixed optical axis and whereas the second optical image is captured from a second fixed imaging device position with a second fixed optical axis . - providing a metallurgical vessel ; - capturing a first optical image of at least one first inner part of the metallurgical vessel , from a first imaging device position outside of the metallurgical vessel , with a first optical axis , by a first imaging device ; - capturing a second optical image of at least one second inner part of the metallurgical vessel , from a second imaging device position outside of the metallurgical vessel , with a second optical axis , by a second imaging device ; - calculating a 3D information , such as a point cloud or a 3D surface reconstruction or a 3D object , of at least one inner part of the metallurgical vessel from at least the first optical image and the second optical image ; - the first optical image is captured from a first fixed imaging device position with a first fixed optical axis and whereas the second optical image is captured from a second fixed imaging device position with a second fixed optical axis .
An apparatus for extracorporeal blood treatment comprising a control unit and a display device , and with a person locating/identifying device , wherein the person locating/identifying device is provided and adapted to obtain and to process information at least about the position of a person being located in a range detectable by the person locating/identifying device , and the control unit receives the information obtained and processed by the person locating/identifying device , the person locating/identifying device and the display device are in contact of information exchange with each other via the control unit , characterized in that the control unit calculates a current relative position of the person to the apparatus from the received information, the display device is provided with an external, circumferential display which is visible from all positions inside the range detectable by the person locating/identifying device , and the display device is provided and adapted to orient the display direction of the information to be displayed in response to at least the relative position of the person to the apparatus for extracorporeal blood treatment automatically in the direction of the position of the person so that the information to be displayed is visible from the position of the person. the person locating/identifying device is provided and adapted to obtain and to process information at least about the position of a person being located in a range detectable by the person locating/identifying device , and the control unit receives the information obtained and processed by the person locating/identifying device , the person locating/identifying device and the display device are in contact of information exchange with each other via the control unit , characterized in that the control unit calculates a current relative position of the person to the apparatus from the received information, the display device is provided with an external, circumferential display which is visible from all positions inside the range detectable by the person locating/identifying device , and the display device is provided and adapted to orient the display direction of the information to be displayed in response to at least the relative position of the person to the apparatus for extracorporeal blood treatment automatically in the direction of the position of the person so that the information to be displayed is visible from the position of the person.
Internal combustion engine made up of three cylinders in which there moves a piston in collaboration with a combustion chamber, whereby the said combustion chamber comprises a single intake valve (SA), a single exhaust valve (SE), a single fuel injector (ID) arranged in the combustion chamber, two spark plugs (Al), and means for creating a flow inside of the said chamber, "swumble", namely a movement whereby the air rotates about the axis of the cylinder combined with a movement of rotation about an axis perpendicular to the axis of the said cylinder, the said "swumble" flow creating means comprising the shape of the intake duct and of the combustion chamber and the relative positioning of the injector and of the spark plugs, and whereby, for two consecutive cylinders, the layout of the intake valve, of the exhaust valve, of the fuel injector and of the two spark plugs is symmetrical about a plane separating two consecutive combustion chambers.
A resource determining method applied to a terminal device, comprising: determining that at least two physical uplink control channel PUCCH resources collide in a time unit n, wherein n is an integer, and the at least two PUCCH resources comprise a first resource configured for first uplink control information UCI and a second resource configured for second UCI; determining the first resource and a third resource in the time unit n, wherein the third resource is one of M PUCCH resources, the first resource and the third resource do not comprise a same orthogonal frequency division multiplexing OFDM symbol in time domain, M is a positive integer greater than or equal to 1, the first resource is used to carry third UCI, the third UCI is a part or all of the first UCI, the third resource is used to carry fourth UCI, and the fourth UCI is a part or all of the second UCI; and sending the third UCI and the fourth UCI in the time unit n, wherein the third UCI is carried on the first resource, and the fourth UCI is carried on the third resource. determining that at least two physical uplink control channel PUCCH resources collide in a time unit n, wherein n is an integer, and the at least two PUCCH resources comprise a first resource configured for first uplink control information UCI and a second resource configured for second UCI; determining the first resource and a third resource in the time unit n, wherein the third resource is one of M PUCCH resources, the first resource and the third resource do not comprise a same orthogonal frequency division multiplexing OFDM symbol in time domain, M is a positive integer greater than or equal to 1, the first resource is used to carry third UCI, the third UCI is a part or all of the first UCI, the third resource is used to carry fourth UCI, and the fourth UCI is a part or all of the second UCI; and sending the third UCI and the fourth UCI in the time unit n, wherein the third UCI is carried on the first resource, and the fourth UCI is carried on the third resource.
Flexographic printing machine comprising: - at least one support structure ; - at least one printing roller rotatably mounted on said support structure and configured to be driven in rotation around a rotation axis (X) and to be intercepted by a tape (N) of material to be printed; said printing roller comprising: - at least one support core pivotally mounted to said support structure ; - at least one tubular element mechanically connected to said core and extending along said rotation axis (X); - connection means at least partially interposed between said support core and said tubular element and configured to mechanically connect them; said connection means comprise: - at least one protruding element extending from said support core radially in relation to said rotation axis (X); - at least one housing seat formed on an inner wall of said tubular element , configured to house said protruding element of said support core ; said machine being characterised in that : said protruding element is provided with at least two side walls inclined with respect to said rotation axis (X) and said housing seat is provided with two stop walls inclined with respect to said rotation axis (X) and configured to receive said inclined side walls of said protruding element in abutment. - at least one support structure ; - at least one printing roller rotatably mounted on said support structure and configured to be driven in rotation around a rotation axis (X) and to be intercepted by a tape (N) of material to be printed; said printing roller comprising: - at least one support core pivotally mounted to said support structure ; - at least one tubular element mechanically connected to said core and extending along said rotation axis (X); - connection means at least partially interposed between said support core and said tubular element and configured to mechanically connect them; - at least one support core pivotally mounted to said support structure ; - at least one tubular element mechanically connected to said core and extending along said rotation axis (X); - connection means at least partially interposed between said support core and said tubular element and configured to mechanically connect them; said connection means comprise: - at least one protruding element extending from said support core radially in relation to said rotation axis (X); - at least one housing seat formed on an inner wall of said tubular element , configured to house said protruding element of said support core ; - at least one protruding element extending from said support core radially in relation to said rotation axis (X); - at least one housing seat formed on an inner wall of said tubular element , configured to house said protruding element of said support core ; said machine being characterised in that : said protruding element is provided with at least two side walls inclined with respect to said rotation axis (X) and said housing seat is provided with two stop walls inclined with respect to said rotation axis (X) and configured to receive said inclined side walls of said protruding element in abutment.
Method for adjustment of a system for filling of big bags with materials, wherein neck of a big bag is located and retained in an airtight seal around a feed pipe having a telescopically attached outer pipe , wherein the outer pipe is movable to a low position corresponding to the height of the big bag , wherein filling of material is carried out while the bottom of the big bag is supported on an underlying surface , wherein the feed pipe is adapted to fill materials in a vertical stream from overlying dosage unit and wherein the outer pipe after filling the big bag is separated from the neck of the big bag, wherein the distance between the feed pipe's bottom rim (5.4) and the dosage unit is changed, when moving from a big bag with a specific height between the underlying surface and the neck , to a big bag of a different height characterised in that the distance is changed by that the feed pipe is detached from a bracket on the underside of the dosage unit and that a feed pipe of a different length is attached to the bracket or by that the feed pipe's distance to the underlying surface is increased or decreased by replacing a section (5.2) of the feed pipe with a shorter or longer section, or by that a section of feed pipe is added or a section of feed pipe is removed. materials, wherein neck of a big bag is located and retained in an airtight seal around a feed pipe having a telescopically attached outer pipe , wherein the outer pipe is movable to a low position corresponding to the height of the big bag , wherein filling of material is carried out while the bottom of the big bag is supported on an underlying surface , wherein the feed pipe is adapted to fill materials in a vertical stream from overlying dosage unit and wherein the outer pipe after filling the big bag is separated from the neck of the big bag, wherein the distance between the feed pipe's bottom rim (5.4) and the dosage unit is changed, when moving from a big bag with a specific height between the underlying surface and the neck , to a big bag of a different height characterised in that the distance is changed by that the feed pipe is detached from a bracket on the underside of the dosage unit and that a feed pipe of a different length is attached to the bracket or by that the feed pipe's distance to the underlying surface is increased or decreased by replacing a section (5.2) of the feed pipe with a shorter or longer section, or by that a section of feed pipe is added or a section of feed pipe is removed.
A fluorine-containing boric acid PVB composite comprising a condensate of a fluorine-containing alcohol, boric acid and polyvinyl butyral, wherein the fluorine-containing alcohol is represented by the general formula: Rf(A-OH) k [X] wherein k is 1 or 2; when k is 1, Rf is a perfluoroalkyl group having 6 or less carbon atoms, a polyfluoroalkyl group in which some of the fluorine atom or atoms of the perfluoroalkyl group are replaced by hydrogen atom or atoms, a polyfluoroalkyl group containing a terminal perfluoroalkyl group having 6 or less carbon atoms and a perfluoroalkylene group having 6 or less carbon atoms, or a linear or branched, perfluoroalkyl group containing a terminal perfluoroalkyl group having 6 or less carbon atoms, a perfluoroalkylene group having 6 or less carbon atoms and ether bonds; when k is 2, Rf is a linear or branched, perfluoroalkylene group or polyfluoroalkylene group, containing a perfluoroalkylene group having 6 or less carbon atoms and ether bonds; and A is an alkylene group having 1 to 6 carbon atoms.
A terminal wakeup method, comprising: if an access point fails to send a data frame to a station, in terms of if an access point does not receive, within a preset time, an ACK frame sent by the station, and the access point always fails to send a data frame to the station after channel switching, sending , by the access point, a wakeup signal to the station to wake up the station, wherein the channel switching is temporarily switching from an operating channel to another channel.
A method , comprising: receiving , at a terminal, a first signal on a downlink from a regenerative satellite (810a-810c); determining , at the terminal, a receive signal quality metric of the first signal received at the terminal as a ratio of mean energy per symbol to noise power spectral density, E s N 0; determining , at the terminal, without receiving a signal quality feedback from the regenerative satellite, an uplink modulation and coding combination, ModCod, for uplink transmission signals from the terminal to the regenerative satellite by mapping, using a table comprising a mapping between a plurality of uplink ModCods and a plurality of receive signal quality metrics, the determined E s N 0 of the first signal to the uplink ModCod; modulating and encoding , at the terminal, a second signal based on the uplink ModCod determined at the terminal; and transmitting the second signal on an uplink from the terminal to the regenerative satellite (810a-810c). receiving , at a terminal, a first signal on a downlink from a regenerative satellite (810a-810c); determining , at the terminal, a receive signal quality metric of the first signal received at the terminal as a ratio of mean energy per symbol to noise power spectral density, E s N 0; determining , at the terminal, without receiving a signal quality feedback from the regenerative satellite, an uplink modulation and coding combination, ModCod, for uplink transmission signals from the terminal to the regenerative satellite by mapping, using a table comprising a mapping between a plurality of uplink ModCods and a plurality of receive signal quality metrics, the determined E s N 0 of the first signal to the uplink ModCod; modulating and encoding , at the terminal, a second signal based on the uplink ModCod determined at the terminal; and transmitting the second signal on an uplink from the terminal to the regenerative satellite (810a-810c).
A medicine-supplying device comprising: a cylindrical frame; a disc-like first rotator ; an annular second rotator configured to discharge a medicine to an outer diameter side by rotation; a medicine shape-specifying unit configured to specify medicine shape; a height-restricting body configured to restrict a height of a supplied medicine; a width-restricting body which is a resin molded piece for restricting a conveyance width of the second rotator ; a medicine guiding part consisting of an outer guide and an inner guide ; and a control unit configured to rotate the second rotator at a rotational speed specified based on the medicine shape specified by the medicine shape-specifying unit according to a speed table associating the medicine shape with the rotational speed of the second rotator , wherein the width-restricting body is integrally formed with the outer guide . a cylindrical frame; a disc-like first rotator ; an annular second rotator configured to discharge a medicine to an outer diameter side by rotation; a medicine shape-specifying unit configured to specify medicine shape; a height-restricting body configured to restrict a height of a supplied medicine; a width-restricting body which is a resin molded piece for restricting a conveyance width of the second rotator ; a medicine guiding part consisting of an outer guide and an inner guide ; and a control unit configured to rotate the second rotator at a rotational speed specified based on the medicine shape specified by the medicine shape-specifying unit according to a speed table associating the medicine shape with the rotational speed of the second rotator , wherein the width-restricting body is integrally formed with the outer guide .
A heat exchanger for indirect heat transfer between a first and at least one second medium (M, M'), having - a shell space (I) for receiving the first medium (M), - a core tube arranged within the shell space (I), - a tube bundle which is arranged in the shell space (I) and has a plurality of tubes which are each wound around the core tube so that the tube bundle has a plurality of tube layers arranged one above the other, each of which has at least one tube , wherein a tube bundle gap is present between each two adjacent tube layers (100, 101; 101, 102; ...), wherein a plurality of spacers for supporting the tube layers is arranged in each tube bundle gap , characterized in that the spacers each have a thickness (D) in the radial direction (R) of the tube bundle , wherein the thicknesses (D) of the spacers of a first tube bundle gap are each greater than the thicknesses (D) of the spacers of a second tube bundle gap , which is further outside in the radial direction (R) of the tube bundle than the first tube bundle gap . - a shell space (I) for receiving the first medium (M), - a core tube arranged within the shell space (I), - a tube bundle which is arranged in the shell space (I) and has a plurality of tubes which are each wound around the core tube so that the tube bundle has a plurality of tube layers arranged one above the other, each of which has at least one tube , wherein a tube bundle gap is present between each two adjacent tube layers (100, 101; 101, 102; ...), wherein a plurality of spacers for supporting the tube layers is arranged in each tube bundle gap ,
A method for data transmission performed by a User Equipment, UE, the method comprising: detecting a scheduling assignment, SA, for other UEs within a sensing window which includes a plurality of time units, TUs; selecting, based on the detected SA, a set of resources for data transmission; determining, if the UE does not perform data transmission on one resource of the selected set of resources, whether a resource subsequent to the one resource in the selected set of resources is occupied based on the detected SA, a received power, and a received energy on the resource, before transmitting data on the subsequent resource in the selected set of resources; and transmitting the data on the subsequent resource in the selected set of resources if it is determined that the resource is not occupied. detecting a scheduling assignment, SA, for other UEs within a sensing window which includes a plurality of time units, TUs; selecting, based on the detected SA, a set of resources for data transmission; determining, if the UE does not perform data transmission on one resource of the selected set of resources, whether a resource subsequent to the one resource in the selected set of resources is occupied based on the detected SA, a received power, and a received energy on the resource, before transmitting data on the subsequent resource in the selected set of resources; and transmitting the data on the subsequent resource in the selected set of resources if it is determined that the resource is not occupied.
A SphKl inhibitor, or a combination thereof, for use in a method of preventing or treating a pulmonary disease or condition in a subject, the use comprising administering to a subject in need of treatment an effective amount of the SphKl inhibitor to prevent or treat the subject's pulmonary disease or condition, wherein the SphKl inhibitor is cell permeable, has an IC 50 value of less than 10 μM, has a K i of less than 10 μM, and exhibits at least a 20-fold greater selectivity for SphKl than SphK2; wherein the SphKl inhibitor comprises [ -1-[[4-[[3-(benzenesulfonyl methyl)-5-methylphenoxy]methyl]phenyl] methyl] pyrrolidin-2-yl] methanol (PF-543) or a pharmaceutically acceptable salt thereof.
A method for preparing nanoparticle powder of active ingredient, comprising: uniformly mixing saccharide as an anti-coagulation agent; a biocompatible polymer and/or surfactant; and an active ingredient in the presence of water, drying the mixture, to obtain a uniform mixture having a water content of 0.1 to 15 wt. % based on the weight of solids other than water; and preparing the nanoparticles of the active ingredient by subjecting the dried uniform mixture repeatedly to a process of simultaneous crushing and grinding using a roll mill wherein the saccharide used as an anti-coagulation agent is one or more selected from sucrose, lactose, mannitol and xylitol. uniformly mixing saccharide as an anti-coagulation agent; a biocompatible polymer and/or surfactant; and an active ingredient in the presence of water, drying the mixture, to obtain a uniform mixture having a water content of 0.1 to 15 wt. % based on the weight of solids other than water; and preparing the nanoparticles of the active ingredient by subjecting the dried uniform mixture repeatedly to a process of simultaneous crushing and grinding using a roll mill wherein the saccharide used as an anti-coagulation agent is one or more selected from sucrose, lactose, mannitol and xylitol.