mhurhangee/ep-ind-claims huggingface dataset:
An air swirler arrangement for a fuel injector of a combustion chamber comprising a coaxial arrangement of an inner air swirler passage and an outer air swirler passage, each air swirler passage (54, 56) comprising a radial flow swirler (58, 60), the air swirler arrangement comprising an annular first member arranged radially relative to the axis of the air swirler arrangement, the first member having a central aperture, an annular second member spaced axially from the first member and arranged coaxially with the axis of the air swirler arrangement, the second member having a radially extending upstream portion and an axially extending convergent portion, an annular third member arranged coaxially around the second member 66), the third member having a radially extending upstream portion spaced axially downstream from the radially extending upstream portion of the second member, the third member having a radially inner surface having an axially extending convergent portion and a divergent downstream portion and a radially outer surface having a divergent downstream portion, a first plurality of circumferentially spaced swirl vanes of the radial flow swirler of the inner air swirler passage extending axially between the first member and the radially extending upstream portion of the second member, a second plurality of circumferentially spaced swirl vanes of the radial flow swirler of the outer air swirler passage extending axially between the radially extending upstream portion of the second member and the radially extending upstream portion of the third member, the first member, the second member, the third member, the first plurality of swirl vanes and the second plurality of swirl vanes is a unitary monolithic structure, a plurality of circumferentially spaced passages within the third member, each passage has an inlet in a radially outer surface of the third member and an outlet arranged to direct fluid onto the divergent portion of the radially inner surface of the third member or arranged to direct fluid onto the divergent portion of the radially outer surface of the third member; wherein each passage has a convergent portion between the inlet and the outlet.
A medication-taking support device, comprising a cassette (25, 25A-25F), medicine-containing pill cases that are stored in the cassette (25, 25A-25F) in such a manner that the pill cases are stacked on top of one another, a push-out mechanism that pushes out the pill case on a lowermost tier in the cassette (25, 25A-25F) by a predetermined dimension, and a pull-back mechanism that pulls back the pill case remaining on the lowermost tier without being extracted from the cassette (25, 25A-25F) into the cassette (25, 25A-25F), characterized in that the pull-back mechanism comprises a pull-back member that can fit in a recessed portion of the pill case, and the pull-back member is made escapable from the recessed portion of the pill case, when the push-out mechanism pushes out the pill case by the predetermined dimension, the pull-back mechanism comprises a cam member that causes the pull-back member to escape from the recessed portion.
Apparatus for detecting the carbon dioxide content of air, comprising: - at least one gas sensor for outputting a gas measurement value, - at least one humidity sensor for outputting a humidity measurement value, and - a device for correcting the gas measurement using the humidity measurement value, wherein the gas sensor comprises a gas-sensitive material which responds to carbon dioxide and comprises primary amino groups, and wherein the gas sensor is configured for generating the gas measurement value by means of an evaluation of the work function of the material, and comprising means for correcting the gas measurement value of the gas sensor, configured in such a way as to correct the influence of the humidity on the gas measurement value independently of the carbon dioxide content, characterized in that a value from stored characteristic curves is added to or subtracted from the gas measurement value, and additional means for correcting the gas measurement value of the gas sensor, configured in such a way as to correct the influence of the air humidity on the influence of carbon dioxide on the gas measurement value by virtue of the gas measurement value being corrected with a factor on the basis of the stored characteristic curves. - at least one gas sensor for outputting a gas measurement value, - at least one humidity sensor for outputting a humidity measurement value, and - a device for correcting the gas measurement using the humidity measurement value, wherein the gas sensor comprises a gas-sensitive material which responds to carbon dioxide and comprises primary amino groups, and wherein the gas sensor is configured for generating the gas measurement value by means of an evaluation of the work function of the material,
The use of a phosphonate A or of a mixture of phosphonate A and a phosphonate B, for combatting harmful fungi; where - phosphonate A is a mixture of secondary calcium phosphonate and secondary magnesium phosphonate, and - phosphonate B is selected from the group consisting of primary calcium phosphonate, primary magnesium phosphonate, secondary potassium phosphonate, primary potassium phosphonate, primary ammonium phosphonate and mixtures thereof; where the use does not encompass the therapeutical treatment of the human or animal body. - phosphonate A is a mixture of secondary calcium phosphonate and secondary magnesium phosphonate, and - phosphonate B is selected from the group consisting of primary calcium phosphonate, primary magnesium phosphonate, secondary potassium phosphonate, primary potassium phosphonate, primary ammonium phosphonate and mixtures thereof;
A method for one-step capillary isoelectric focusing (cIEF) and chemical mobilization, the method comprising: (a) partially filling the anode end of a separation capillary for cIEF, first, with a length of a catholyte solution, then second, with a mixture comprising an ampholyte and analytes followed by an anolyte solution, wherein the cathode end of the separation capillary is interfaced to an electrokinetically pumped nanoelectrospray emitter on a mass spectrometer; (b) directing flow of an acidic sheath electrolyte solution and the anolyte solution toward the nanoelectrospray emitter, wherein the anolyte solution feeds into the nanoelectrospray emitter by flowing out from the cathode end of the separation capillary; (c) applying a voltage to the anode and cathode ends of the separation capillary; (d) inducing isoelectric focusing of the analytes and concomitant chemical mobilization of the analytes toward the cathode end of the separation capillary by allowing the catholyte to be consumed by the acidic sheath flow electrolyte, which then then acts as a chemical mobilization solution; and (e) forming a nanoelectrospray, wherein the acidic sheath electrolyte solution ensheaths focused analytes of step (d) flowing out the cathode end of the separation capillary; wherein first a pH gradient is established by the catholyte solution and the anolyte solution to induce isoelectric focusing of the analytes in the mixture, and as the catholyte solution is titrated to lower pH by the acidic sheath electrolyte solution the focused analytes are chemically mobilized, then electrokinetically pumped toward the mass spectrometer by the acidic sheath electrolyte solution, thereby forming the nanoelectrospray. (a) partially filling the anode end of a separation capillary for cIEF, first, with a length of a catholyte solution, then second, with a mixture comprising an ampholyte and analytes followed by an anolyte solution, wherein the cathode end of the separation capillary is interfaced to an electrokinetically pumped nanoelectrospray emitter on a mass spectrometer; (b) directing flow of an acidic sheath electrolyte solution and the anolyte solution toward the nanoelectrospray emitter, wherein the anolyte solution feeds into the nanoelectrospray emitter by flowing out from the cathode end of the separation capillary; (c) applying a voltage to the anode and cathode ends of the separation capillary; (d) inducing isoelectric focusing of the analytes and concomitant chemical mobilization of the analytes toward the cathode end of the separation capillary by allowing the catholyte to be consumed by the acidic sheath flow electrolyte, which then then acts as a chemical mobilization solution; and (e) forming a nanoelectrospray, wherein the acidic sheath electrolyte solution ensheaths focused analytes of step (d) flowing out the cathode end of the separation capillary;
Circuit for controlling a creep mode in a vehicle, wherein the creep mode may be activated by selecting a reverse direction, wherein the circuit is designed to receive the selector lever signal from a selector lever of the vehicle and to provide a movement signal for the vehicle, and wherein the creep mode remains active when moving the selector lever from the reverse position through the neutral position to the drive position.
A printing ink composition comprising a colorant and a material of polyethylene glycol o-phenyl phenyl ether acrylate (CAS 72009-86-0) of formula: wherein, n is 1 - 3, or a material of formula: wherein: R 1 is selected from the group consisting of: hydrogen, methyl and a hydroxyl group; R 2 is either a hydrogen or a methyl group; y is 1 to 6; and Z is selected from the group consisting of: formula, and: wherein: X is selected from the group consisting of: a direct bond, O, CH 2, C(CH 3) 2 and C=O; p is 0 or 1; Q is CH2 or C=O; R 3 and R 4 are selected from the group consisting of H, phenyl, dimethyl benzyl, C 1 -C 8 alkyl group and C 1 -C 8 alkoxy group, or alternatively R 3 and R 4 are joined to form a fused ring with the benzene rings to which they are attached; and R 5 is -C OR 6, wherein R 6 is phenyl or C 1 - C 8 alkyl and further comprising one or more additional monofunctional or polyfunctional ethylenically unsaturated monomers, including N-vinyl amide monomers. R 1 is selected from the group consisting of: hydrogen, methyl and a hydroxyl group; R 2 is either a hydrogen or a methyl group; y is 1 to 6; and Z is selected from the group consisting of: formula, and: wherein: X is selected from the group consisting of: a direct bond, O, CH 2, C(CH 3) 2 and C=O; p is 0 or 1; Q is CH2 or C=O; R 3 and R 4 are selected from the group consisting of H, phenyl, dimethyl benzyl, C 1 -C 8 alkyl group and C 1 -C 8 alkoxy group, or alternatively R 3 and R 4 are joined to form a fused ring with the benzene rings to which they are attached; and R 5 is -C OR 6, wherein R 6 is phenyl or C 1 - C 8 alkyl and further comprising one or more additional monofunctional or polyfunctional ethylenically unsaturated monomers, including N-vinyl amide monomers. X is selected from the group consisting of: a direct bond, O, CH 2, C(CH 3) 2 and C=O; p is 0 or 1; Q is CH2 or C=O; R 3 and R 4 are selected from the group consisting of H, phenyl, dimethyl benzyl, C 1 -C 8 alkyl group and C 1 -C 8 alkoxy group, or alternatively R 3 and R 4 are joined to form a fused ring with the benzene rings to which they are attached; and R 5 is -C OR 6, wherein R 6 is phenyl or C 1 - C 8 alkyl and further comprising one or more additional monofunctional or polyfunctional ethylenically unsaturated monomers, including N-vinyl amide monomers.
An analyzing apparatus comprising: a cell for accommodating a sample; a light source for irradiating lights having different light amounts of a first wavelength equal to or more than 400 nm and a second wavelength less than 400 nm to said cell; a light dispersing portion for dispersing the light transmitting through said cell; a plurality of light receiving elements (22a-22I) for receiving the dispersed lights and having different central wavelengths of the detected lights; and a slit (30; 50) arranged between said light dispersing portion and at least one of said light receiving elements (22a-22I), characterized in that a through opening portion (31; 51) of said slit (30; 50) is set such that a load angle, that is an acceptance angle, of the light of the first wavelength passing through the opening portion (31; 51) to be received becomes less than a load angle of the light of the second wavelength to be received. a cell for accommodating a sample; a light source for irradiating lights having different light amounts of a first wavelength equal to or more than 400 nm and a second wavelength less than 400 nm to said cell; a light dispersing portion for dispersing the light transmitting through said cell; a plurality of light receiving elements (22a-22I) for receiving the dispersed lights and having different central wavelengths of the detected lights; and a slit (30; 50) arranged between said light dispersing portion and at least one of said light receiving elements (22a-22I), characterized in that a through opening portion (31; 51) of said slit (30; 50) is set such that a load angle, that is an acceptance angle, of the light of the first wavelength passing through the opening portion (31; 51) to be received becomes less than a load angle of the light of the second wavelength to be received.
A passenger air bag PAB device comprising: a crash pad including a cutting groove recessed at a predetermined depth in an inner side surface of the crash pad; and a PAB chute including an air bag door welded to said inner side surface in a shape covering the cutting groove, wherein the air bag door includes a protruding portion, protruding from a surface of the airbag door, disposed, in a state in which the air bag door is welded to said inner side surface, inside a space forming the cutting groove to fill the space to support the crash pad, wherein the cutting groove comprises: an inclined surface reflecting a draft angle; and a flat surface facing the inclined surface and not reflecting the draft angle, and wherein the cutting groove extends in a width direction of a vehicle and constitutes a cutting line configured to be cut open by the air bag door, and the space is provided between the inclined surface and the flat surface. a crash pad including a cutting groove recessed at a predetermined depth in an inner side surface of the crash pad; and a PAB chute including an air bag door welded to said inner side surface in a shape covering the cutting groove, wherein the air bag door includes a protruding portion, protruding from a surface of the airbag door, disposed, in a state in which the air bag door is welded to said inner side surface, inside a space forming the cutting groove to fill the space to support the crash pad, wherein the cutting groove comprises: an inclined surface reflecting a draft angle; and a flat surface facing the inclined surface and not reflecting the draft angle, and wherein the cutting groove extends in a width direction of a vehicle and constitutes a cutting line configured to be cut open by the air bag door, and the space is provided between the inclined surface and the flat surface. an inclined surface reflecting a draft angle; and a flat surface facing the inclined surface and not reflecting the draft angle, and wherein the cutting groove extends in a width direction of a vehicle and constitutes a cutting line configured to be cut open by the air bag door, and the space is provided between the inclined surface and the flat surface.
Window with a frame and a window sash or a door with a frame and a door sash, "whereby the frame in a gap between a reveal of a wall opening and the window sash or the door frame in a gap between a reveal of a wall opening and the door can be fixed in the masonry of the wall, whereby for aligning and sealing the door or the window, this has at least one sliding element arranged on one side parallel to the reveal with two sealing elements arranged on its two opposite side walls and connected to it in a non-positive or positive manner for sealing between the two lateral surfaces of the frame and the sliding element, which is approximately the same length as the respective frame part and to the reveal length on this side, whereby the frame only has means mounted in the frame for manually shifting the sliding element to the reveal and clamping the frame in the reveal, wherein the frame has, as a means for manual displacement of the sliding element, locking screws arranged at a distance from one another, which are set up in such a way during manual actuation on the side facing the reveal to press the side facing away with the free end on the surface of the sliding element and wherein the sliding element on the side facing the reveal has a construction glue.
Electronic wristband of the flexible type including an electric power source unit, a timekeeping circuit unit, and a display unit for displaying data and a flexible substrate for at least one of said units, wherein said power source unit includes a flexible electrochemical cell, these units being mounted on a flexible printed circuit film incorporated in an insulating material forming thus a wristband, wherein said electrochemical cell, comprises: - a first current collector having a first collecting section in contact with a first electrode and having a first connecting section, - a second current collector overlapping with the first current collector and having a second collecting section in contact with a second electrode and having a second connecting section, - wherein first and second current collectors (16, 18) are mutually connected via their first and second connecting sections (24, 34) and wherein a distance (d) between first and second connecting sections (24, 34) is equal to or smaller than 50% of the distance between the first and the second collecting sections (20, 30) and wherein the first and second current collectors (16, 18) at least in sections comprises at least one inwardly extending longitudinal indentation (44, 54) to form at least one folding structure (40, 41, 42, 43) said inwardly extending longitudinal indentation (44, 54) of the first current collector being arranged so as to substantially overlap said inwardly extending longitudinal indentation (44, 54) of the second current collector. - a first current collector having a first collecting section in contact with a first electrode and having a first connecting section, - a second current collector overlapping with the first current collector and having a second collecting section in contact with a second electrode and having a second connecting section, - wherein first and second current collectors (16, 18) are mutually connected via their first and second connecting sections (24, 34) and wherein a distance (d) between first and second connecting sections (24, 34) is equal to or smaller than 50% of the distance between the first and the second collecting sections (20, 30) and wherein the first and second current collectors (16, 18) at least in sections comprises at least one inwardly extending longitudinal indentation (44, 54) to form at least one folding structure (40, 41, 42, 43) said inwardly extending longitudinal indentation (44, 54) of the first current collector being arranged so as to substantially overlap said inwardly extending longitudinal indentation (44, 54) of the second current collector.
Method for operating a motor vehicle system on the basis of a user-specific user setting, the method having the following steps carried out by an assignment device: - Providing a genetic profile file, which describes a genetic pattern of a user of the motor vehicle, wherein the described genetic pattern describes a gene region of a genome of the user, - transmitting the genetic profile file provided to a deep learning engine (22, S2), - operating the deep learning engine (22, S3), wherein, for a multiplicity of persons, genetic patterns of at least one predetermined gene region and a respective preferred user setting are statistically combined by the deep learning engine, - processing of the user's genetic pattern described by the provided genetic profile file by means of the deep learning engine (22, S4) and thereby determining a configuration forecast of the user, wherein the configuration forecast comprises a probability, with which the user prefers one of the user settings, - if the probability of a preference for one of the user settings reaches or exceeds a specified threshold value: On the basis of the configuration prognosis selecting a user profile file, which describes a data set for setting at least one parameter describing the preferred user setting at least of one motor vehicle system, and - transmitting the selected user profile file to at least one motor vehicle system in order to configure the at least one motor vehicle system (20, S7). - Providing a genetic profile file, which describes a genetic pattern of a user of the motor vehicle, wherein the described genetic pattern describes a gene region of a genome of the user, - transmitting the genetic profile file provided to a deep learning engine (22, S2), - operating the deep learning engine (22, S3), wherein, for a multiplicity of persons, genetic patterns of at least one predetermined gene region and a respective preferred user setting are statistically combined by the deep learning engine, - processing of the user's genetic pattern described by the provided genetic profile file by means of the deep learning engine (22, S4) and thereby determining a configuration forecast of the user, wherein the configuration forecast comprises a probability, with which the user prefers one of the user settings, - if the probability of a preference for one of the user settings reaches or exceeds a specified threshold value: On the basis of the configuration prognosis selecting a user profile file, which describes a data set for setting at least one parameter describing the preferred user setting at least of one motor vehicle system, and - transmitting the selected user profile file to at least one motor vehicle system in order to configure the at least one motor vehicle system (20, S7).
An autonomous moving body configured to autonomously move between floors using an elevator installed in a facility, the autonomous moving body comprising: a determination unit configured to determine that the autonomous moving body has arrived at a waiting area on a current floor before the autonomous moving body gets on a car of the elevator; an orientation adjustment unit configured to adjust, when the determination unit determines that the autonomous moving body has arrived at the waiting area, an orientation of the autonomous moving body based on an exiting direction from the car on a destination floor; and a movement controller configured to cause, when the car arrives, the autonomous moving body to enter the car while maintaining the orientation adjusted by the orientation adjustment unit. a determination unit configured to determine that the autonomous moving body has arrived at a waiting area on a current floor before the autonomous moving body gets on a car of the elevator; an orientation adjustment unit configured to adjust, when the determination unit determines that the autonomous moving body has arrived at the waiting area, an orientation of the autonomous moving body based on an exiting direction from the car on a destination floor; and a movement controller configured to cause, when the car arrives, the autonomous moving body to enter the car while maintaining the orientation adjusted by the orientation adjustment unit.