mhurhangee/patent-ind-claim-en huggingface dataset:
A method for communication of a first device in a mobile communication system, the method comprising: receiving , from a base station , a first message including synchronization information and resource allocation information for a random access and a random access response; transmitting , to a second device , a synchronization signal and a second message based on the first message, the second message including random access channel, RACH, resource allocation information for the random access based on the resource allocation information for the random access; receiving , from the second device , a third message for the random access based on the RACH resource allocation information included in the second message; and transmitting , to the second device , a fourth message for the random access response based on the resource allocation information for the random access response included in the first message, the fourth message including information on a timing advance, TA, determined based on the third message, wherein a synchronization for transmitting signal of the second device is based on the information on the TA included in the fourth message. receiving , from a base station , a first message including synchronization information and resource allocation information for a random access and a random access response; transmitting , to a second device , a synchronization signal and a second message based on the first message, the second message including random access channel, RACH, resource allocation information for the random access based on the resource allocation information for the random access; receiving , from the second device , a third message for the random access based on the RACH resource allocation information included in the second message; and transmitting , to the second device , a fourth message for the random access response based on the resource allocation information for the random access response included in the first message, the fourth message including information on a timing advance, TA, determined based on the third message, wherein a synchronization for transmitting signal of the second device is based on the information on the TA included in the fourth message.
A wafer holder , comprising a holder body and a sucker , wherein the holder body defines a first opening ; and the sucker comprises a first skirt , wherein the first skirt is located on one side of the holder body and connected to the first opening , a groove is formed at a joint between the first skirt and the first opening , and the groove is located at an outer side of the first skirt ; wherein the groove comprises a first side wall and a second side wall , wherein the first side wall is closer to the first opening and the second side wall is farther away from the first opening ; the wafer holder being characterized in that the first side wall is recessed at a middle position thereof toward the first opening to appear as an annular curved surface. the holder body defines a first opening ; and the sucker comprises a first skirt , wherein the first skirt is located on one side of the holder body and connected to the first opening , a groove is formed at a joint between the first skirt and the first opening , and the groove is located at an outer side of the first skirt ; wherein the groove comprises a first side wall and a second side wall , wherein the first side wall is closer to the first opening and the second side wall is farther away from the first opening ; the wafer holder being characterized in that the first side wall is recessed at a middle position thereof toward the first opening to appear as an annular curved surface.
A linear variable differential transformer comprising: a moving portion having a shape extending in a direction of an axial line; a bobbin comprising a through hole formed such that the moving portion is movable in the direction of the axial line, an outer circumferential surface of the bobbin having a shape inclined symmetrically with respect to a center line thereof based on the direction of the axial line; a primary coil wound around a middle portion of the outer circumferential surface of the bobbin , a wound outer surface of the primary coil having a shape parallel to the axial line; and a secondary coil wound around portions of the outer circumferential surface of the bobbin , which are located at both sides of the primary coil , a wound outer surface of the secondary coil having a shape parallel to the axial line. a moving portion having a shape extending in a direction of an axial line; a bobbin comprising a through hole formed such that the moving portion is movable in the direction of the axial line, an outer circumferential surface of the bobbin having a shape inclined symmetrically with respect to a center line thereof based on the direction of the axial line; a primary coil wound around a middle portion of the outer circumferential surface of the bobbin , a wound outer surface of the primary coil having a shape parallel to the axial line; and a secondary coil wound around portions of the outer circumferential surface of the bobbin , which are located at both sides of the primary coil , a wound outer surface of the secondary coil having a shape parallel to the axial line.
A two-wheeled fuel cell vehicle comprising: a frame structure having a front portion (F) and a rear portion (R); at least one reactant canister , said at least one reactant canister being mounted to said front portion (F) of the frame structure of said vehicle to store reactant; and at least one fuel cell stack , said at least one fuel cell stack being mounted to said rear portion (R) of the frame structure of said vehicle ; wherein said at least one reactant canister is mounted to a centre frame structure and configured to be supported by a front frame structure . a frame structure having a front portion (F) and a rear portion (R); at least one reactant canister , said at least one reactant canister being mounted to said front portion (F) of the frame structure of said vehicle to store reactant; and at least one fuel cell stack , said at least one fuel cell stack being mounted to said rear portion (R) of the frame structure of said vehicle ;
An elevator , with a drive , with a cabin which is operatively connected to the drive and can be moved along a travel path, with at least one guide rail which is arranged along the travel path and guides the cabin , with a safety brake , which is arranged on the cabin and is designed to exert a braking force on the guide rail , and with a safety system , comprising a first safety control unit and a second safety control unit and which monitors the safety condition of the elevator, wherein the first safety control unit is designed to output a stop signal to the drive , in particular to a drive brake and/or to a frequency converter of the drive , and wherein the second safety control unit is designed to output a trigger signal to the safety brake in order to bring the elevator into a permissible safety condition when an impermissible safety condition is detected, and wherein the second safety control unit is connected to the first safety control unit and is designed to output a status signal to the first safety control unit when an impermissible safety condition is detected, characterized in that the safety system can output the stop signal to the drive only via the first safety control unit and the safety system can output the trigger signal to the safety brake only via the second safety control unit . with a cabin which is operatively connected to the drive and can be moved along a travel path, with at least one guide rail which is arranged along the travel path and guides the cabin , with a safety brake , which is arranged on the cabin and is designed to exert a braking force on the guide rail , and with a safety system , comprising a first safety control unit and a second safety control unit and which monitors the safety condition of the elevator, wherein the first safety control unit is designed to output a stop signal to the drive , in particular to a drive brake and/or to a frequency converter of the drive , and wherein the second safety control unit is designed to output a trigger signal to the safety brake in order to bring the elevator into a permissible safety condition when an impermissible safety condition is detected, and wherein the second safety control unit is connected to the first safety control unit and is designed to output a status signal to the first safety control unit when an impermissible safety condition is detected, characterized in that the safety system can output the stop signal to the drive only via the first safety control unit and the safety system can output the trigger signal to the safety brake only via the second safety control unit .
Aqueous adhesive composition comprising A) a thermosetting resin and B) an unsaturated elastomer latex, characterized in that the thermosetting resin is based on: A1) at least one aromatic compound comprising at least one aromatic ring bearing at least two functions, one of these functions being a hydroxymethyl function and the other being an aldehyde function or a hydroxymethyl function; and A2) at least one aromatic polyphenol comprising at least one aromatic ring bearing at least two hydroxyl functions in the meta position relative to one another, the two positions ortho to at least one of the hydroxyl functions being unsubstituted; and/or A2') at least one aromatic monophenol comprising at least one six-membered aromatic ring bearing a single hydroxyl function, - the two positions ortho to the hydroxyl function being unsubstituted, or - at least one position ortho to and the position para to the hydroxyl function being unsubstituted. A1) at least one aromatic compound comprising at least one aromatic ring bearing at least two functions, one of these functions being a hydroxymethyl function and the other being an aldehyde function or a hydroxymethyl function; and A2) at least one aromatic polyphenol comprising at least one aromatic ring bearing at least two hydroxyl functions in the meta position relative to one another, the two positions ortho to at least one of the hydroxyl functions being unsubstituted; and/or A2') at least one aromatic monophenol comprising at least one six-membered aromatic ring bearing a single hydroxyl function, - the two positions ortho to the hydroxyl function being unsubstituted, or - at least one position ortho to and the position para to the hydroxyl function being unsubstituted. - the two positions ortho to the hydroxyl function being unsubstituted, or - at least one position ortho to and the position para to the hydroxyl function being unsubstituted.
A powder for powder metallurgy, comprising an iron-based powder in an amount of from 92.0% by mass to 99.9% by mass based on the total amount of the powder for powder metallurgy; a composite oxide powder in an amount of from 0.01% by mass to 0.3% by mass, wherein the composite oxide contains, by mass: from 15% to 30% Si, from 9% to 18% Al, from 3% to 6% B, from 0.5% to 3% Mg, from 2% to 6% Ca, from 0.01% to 1% Sr, and from 45% to 55% O; and the optional rest consisting of at least one of a graphite powder and at least one non-Fe powder selected from Cu, Ni, Cr, and Mo powders. an iron-based powder in an amount of from 92.0% by mass to 99.9% by mass based on the total amount of the powder for powder metallurgy; a composite oxide powder in an amount of from 0.01% by mass to 0.3% by mass, wherein the composite oxide contains, by mass: from 15% to 30% Si, from 9% to 18% Al, from 3% to 6% B, from 0.5% to 3% Mg, from 2% to 6% Ca, from 0.01% to 1% Sr, and from 45% to 55% O; from 15% to 30% Si, from 9% to 18% Al, from 3% to 6% B, from 0.5% to 3% Mg, from 2% to 6% Ca, from 0.01% to 1% Sr, and from 45% to 55% O; and the optional rest consisting of at least one of a graphite powder and at least one non-Fe powder selected from Cu, Ni, Cr, and Mo powders.
A wafer inspection method comprising: a step of preparing a wafer including a substrate layer having a first surface and a second surface opposite to the first surface , a first mirror layer having a plurality of first mirror portions two-dimensionally arranged on the first surface , and a second mirror layer having a plurality of second mirror portions two-dimensionally arranged on the first mirror layer , in which a gap is formed between a portion of the first mirror layer at least including the first mirror portion and a portion of the second mirror layer at least including the second mirror portion facing each other so as to form a plurality of Fabry-Perot interference filter portions in which a distance between the first mirror portion and the second mirror portion facing each other varies by an electrostatic force; and a step of performing faulty/non-faulty determination of each of the plurality of Fabry-Perot interference filter portions ; characterized in that the method further comprising a step of applying ink to at least part of a portion overlapping the gap when viewed in a direction in which the first mirror portion and the second mirror portion face each other on the second mirror layer of the Fabry-Perot interference filter portion (lAa, 1Ab) determined as faulty in the step of performing faulty/non-faulty determination. a step of preparing a wafer including a substrate layer having a first surface and a second surface opposite to the first surface , a first mirror layer having a plurality of first mirror portions two-dimensionally arranged on the first surface , and a second mirror layer having a plurality of second mirror portions two-dimensionally arranged on the first mirror layer , in which a gap is formed between a portion of the first mirror layer at least including the first mirror portion and a portion of the second mirror layer at least including the second mirror portion facing each other so as to form a plurality of Fabry-Perot interference filter portions in which a distance between the first mirror portion and the second mirror portion facing each other varies by an electrostatic force; and a step of performing faulty/non-faulty determination of each of the plurality of Fabry-Perot interference filter portions ; characterized in that the method further comprising a step of applying ink to at least part of a portion overlapping the gap when viewed in a direction in which the first mirror portion and the second mirror portion face each other on the second mirror layer of the Fabry-Perot interference filter portion (lAa, 1Ab) determined as faulty in the step of performing faulty/non-faulty determination.
A kit for preparing a sample of material, the kit comprising a container having an open end ; a pipette for transferring the material to and from the container , the pipette having an open tip for drawing and dispensing the material; a cap configured to seal the open end of the container and to allow the pipette tip enter the container through the cap the cap and the pipette comprising cooperating stop portions for preventing the pipette from advancing into the container upon engagement of the stop portions ; a predetermined amount of a first substance, defining a first predetermined level when disposed in the container ; and a predetermined amount of a second substance, covering the first substance and defining a second predetermined level when disposed in the container after the first substance; the first predetermined level being lower than the second predetermined level ; wherein the pipette , the cap and the container are mutually configured such that upon engagement of the cooperating stop portions , the tip of the pipette stops above the first predetermined level but below the second predetermined level in the container ; wherein the pipette , the cap and the container are mutually configured such that upon engagement of the cooperating stop portions the pipette tip is positioned approximately midway between the first and the second levels . a container having an open end ; a pipette for transferring the material to and from the container , the pipette having an open tip for drawing and dispensing the material; a cap configured to seal the open end of the container and to allow the pipette tip enter the container through the cap the cap and the pipette comprising cooperating stop portions for preventing the pipette from advancing into the container upon engagement of the stop portions ; a predetermined amount of a first substance, defining a first predetermined level when disposed in the container ; and a predetermined amount of a second substance, covering the first substance and defining a second predetermined level when disposed in the container after the first substance; the first predetermined level being lower than the second predetermined level ; a predetermined amount of a first substance, defining a first predetermined level when disposed in the container ; and a predetermined amount of a second substance, covering the first substance and defining a second predetermined level when disposed in the container after the first substance; the first predetermined level being lower than the second predetermined level ; wherein the pipette , the cap and the container are mutually configured such that upon engagement of the cooperating stop portions , the tip of the pipette stops above the first predetermined level but below the second predetermined level in the container ; wherein the pipette , the cap and the container are mutually configured such that upon engagement of the cooperating stop portions the pipette tip is positioned approximately midway between the first and the second levels .
A method of manufacturing an aluminium alloy rolled sheet product, in particular an automotive sheet product, with excellent formability and good paint bake hardenability, the method comprising: (a) casting an ingot of an Al-Si-Mg aluminium alloy having a composition consisting of, in wt.%: Si 1.0% to 1.50%, Mg 0.10% to 0.40%, Fe 0.08% to 0.30%, Cu up to 0.15%, Mn 0.01% to 0.15%, Cr up to 0.10%, Zr up to 0.03%, V up to 0.03%, Zn up to 0.20%, Ti up to 0.10%, impurities each <0.05%, total <0.15%, balance aluminium; (b) heating the ingot to a temperature of above 550°C; maintaining the ingot at a temperature of above 550°C for at least 4 hours; cooling the ingot to a temperature in a range of 460°C to 520°C; and maintaining the ingot at a temperature in a range of 460°C to 520°C for less than 6 hours; (c) hot-rolling of the ingot in one or more rolling steps to an intermediate gauge in a range of 15 mm to 40 mm, preferably 15 mm to 30 mm, and wherein the hot-mill exit temperature is in a range of 370°C to 480°C; (d) further hot-rolling from intermediate gauge in one or more rolling steps to a final hot rolling gauge in a range of 3 mm to 15 mm, and wherein the hot-mill exit temperature is in a range of 310°C to 400°C; (e) cooling of the hot-rolled material at hot rolling final gauge from hot-mill exit temperature to below 200°C, and preferably to ambient temperature; (f) cold rolling of the hot-rolled product to a cold-rolled product of final gauge of 0.8 to 4.0 mm, preferably of 0.8 to 3.0 mm, and more preferably of 0.8 to 2.5 mm. (a) casting an ingot of an Al-Si-Mg aluminium alloy having a composition consisting of, in wt.%: Si 1.0% to 1.50%, Mg 0.10% to 0.40%, Fe 0.08% to 0.30%, Cu up to 0.15%, Mn 0.01% to 0.15%, Cr up to 0.10%, Zr up to 0.03%, V up to 0.03%, Zn up to 0.20%, Ti up to 0.10%, impurities each <0.05%, total <0.15%, balance aluminium; (b) heating the ingot to a temperature of above 550°C; maintaining the ingot at a temperature of above 550°C for at least 4 hours; cooling the ingot to a temperature in a range of 460°C to 520°C; and maintaining the ingot at a temperature in a range of 460°C to 520°C for less than 6 hours; (c) hot-rolling of the ingot in one or more rolling steps to an intermediate gauge in a range of 15 mm to 40 mm, preferably 15 mm to 30 mm, and wherein the hot-mill exit temperature is in a range of 370°C to 480°C; (d) further hot-rolling from intermediate gauge in one or more rolling steps to a final hot rolling gauge in a range of 3 mm to 15 mm, and wherein the hot-mill exit temperature is in a range of 310°C to 400°C; (e) cooling of the hot-rolled material at hot rolling final gauge from hot-mill exit temperature to below 200°C, and preferably to ambient temperature; (f) cold rolling of the hot-rolled product to a cold-rolled product of final gauge of 0.8 to 4.0 mm, preferably of 0.8 to 3.0 mm, and more preferably of 0.8 to 2.5 mm.
A trocar through which a surgical instrument is insertable in a body, comprising: a pipe including a pipe outer cylinder slidable in an axial direction and a pipe inner cylinder with a distal end notch ; a camera that is journaled at the distal end notch of the pipe inner cylinder , wherein the camera is turnable between a development state in which the camera turns to the outside of the pipe and a storage state in which the camera is stored inside the pipe ; and two coil springs , in the pipe inner cylinder , biasing the camera to the development state, wherein the slidable pipe outer cylinder is configured to store the camera in the pipe against biasing force of the two coil springs while sliding toward a distal end of the pipe , wherein each of the two coil springs is accommodated in a recessed groove extending on an outer side of the pipe inner cylinder along the axial direction of the pipe from the distal end notch of the pipe inner cylinder to an operator side, and a ring-shaped portion on the near side of each of the two coil springs is fixed into the recessed groove . a pipe including a pipe outer cylinder slidable in an axial direction and a pipe inner cylinder with a distal end notch ; a camera that is journaled at the distal end notch of the pipe inner cylinder , wherein the camera is turnable between a development state in which the camera turns to the outside of the pipe and a storage state in which the camera is stored inside the pipe ; and two coil springs , in the pipe inner cylinder , biasing the camera to the development state, wherein the slidable pipe outer cylinder is configured to store the camera in the pipe against biasing force of the two coil springs while sliding toward a distal end of the pipe , wherein each of the two coil springs is accommodated in a recessed groove extending on an outer side of the pipe inner cylinder along the axial direction of the pipe from the distal end notch of the pipe inner cylinder to an operator side, and a ring-shaped portion on the near side of each of the two coil springs is fixed into the recessed groove .