mhurhangee/patent-ind-claim-en huggingface dataset:
A once-through evaporator system , comprising: a plurality of parallel enlarged once-through evaporator sections with an additional surface area to be fed with a defined volume of feedwater into each of the once-through evaporator sections 130; a first superheater positioned immediately downstream of the plurality of parallel enlarged once-through evaporator sections ; a second superheater positioned downstream of the first superheater ; and an attemperator positioned between the first superheater and the second superheater , wherein the first superheater is positioned immediately downstream of the plurality of parallel enlarged once-through evaporator sections , characterised in that the additional surface area of the parallel enlarged once-through evaporator sections is designed and arranged in a way that the first superheater can be positioned immediately downstream of the plurality of parallel enlarged once-through evaporator sections without a water separator , wherein the additional surface area of the plurality of parallel enlarged once-through evaporator sections is is configured to be suitable to shift the evaporator endpoint at an upper load range of the plurality of parallel enlarged once-through evaporator sections and the additional surface area of the plurality of parallel enlarged once-through evaporator sections is configured to serve as a buffer and provides additional margin for outlet temperature variations at a lower load range, and wherein each of the plurality of parallel enlarged once-through evaporator sections comprises a flow meter and a flow controller . a plurality of parallel enlarged once-through evaporator sections with an additional surface area to be fed with a defined volume of feedwater into each of the once-through evaporator sections 130; a first superheater positioned immediately downstream of the plurality of parallel enlarged once-through evaporator sections ; a second superheater positioned downstream of the first superheater ; and an attemperator positioned between the first superheater and the second superheater , wherein the first superheater is positioned immediately downstream of the plurality of parallel enlarged once-through evaporator sections , characterised in that the additional surface area of the parallel enlarged once-through evaporator sections is designed and arranged in a way that the first superheater can be positioned immediately downstream of the plurality of parallel enlarged once-through evaporator sections without a water separator , wherein the additional surface area of the plurality of parallel enlarged once-through evaporator sections is is configured to be suitable to shift the evaporator endpoint at an upper load range of the plurality of parallel enlarged once-through evaporator sections and the additional surface area of the plurality of parallel enlarged once-through evaporator sections is configured to serve as a buffer and provides additional margin for outlet temperature variations at a lower load range, and wherein each of the plurality of parallel enlarged once-through evaporator sections comprises a flow meter and a flow controller .
A chemical sensing device, comprising: a substrate of semiconductor material, a photodetector formed in the substrate , a dielectric on the substrate , a wiring in the dielectric , the wiring providing electric connections for the photodetector , a source of electromagnetic radiation arranged in or above the dielectric , a fluorescent sensor layer arranged above the dielectric , wherein a waveguide is arranged in or above the dielectric , a portion of the waveguide is arranged at the source of electromagnetic radiation , the electromagnetic radiation emitted by the source of electromagnetic radiation being coupled into the waveguide by a diffraction grating or butt coupling, a further portion of the waveguide is arranged between the photodetector and the fluorescent sensor layer , the chemical sensing device comprises integrated circuit components formed in the substrate , the wiring provides electric connections for the integrated circuit components , and the chemical sensing device comprises a mirror layer arranged between the waveguide and the photodetector , the mirror layer configured to reflect the electromagnetic radiation emitted by the source of electromagnetic radiation . a substrate of semiconductor material, a photodetector formed in the substrate , a dielectric on the substrate , a wiring in the dielectric , the wiring providing electric connections for the photodetector , a source of electromagnetic radiation arranged in or above the dielectric , a fluorescent sensor layer arranged above the dielectric , wherein a waveguide is arranged in or above the dielectric , a portion of the waveguide is arranged at the source of electromagnetic radiation , the electromagnetic radiation emitted by the source of electromagnetic radiation being coupled into the waveguide by a diffraction grating or butt coupling, a further portion of the waveguide is arranged between the photodetector and the fluorescent sensor layer , the chemical sensing device comprises integrated circuit components formed in the substrate , the wiring provides electric connections for the integrated circuit components , and the chemical sensing device comprises a mirror layer arranged between the waveguide and the photodetector , the mirror layer configured to reflect the electromagnetic radiation emitted by the source of electromagnetic radiation .
The use of an aqueous dispersion for producing adhesives, where the aqueous polymer dispersion is obtainable by a process which comprises the following steps: A) provision of an aqueous dispersion of at least one essentially uncrosslinked polyurethane PU in the form of dispersed polyurethane particles, where the polyurethane PU is obtainable by a polymerization of polyurethane-forming compounds PU-M, comprising at least one diol PU-M2, which has at least one poly-C 2 -C 14 -alkylene ether group which has at least one unit of the formula (i) -O-CHR a -CH 2 -R b - (i) where R a is hydrogen or C 1 -C 12 -alkyl, R b is a bond or C 1 -C 3 -alkylene, where R a is not hydrogen if R b is a bond, and where the PU has essentially no ethylenically unsaturated double bonds and has a gel fraction of < 20%; B) radical polymerization of a monomer composition PA-M from radically polymerizable, ethylenically unsaturated compounds, comprising, as main constituent, at least one monomeric ethylenically unsaturated compound which has a solubility in water of < 60 g/l at 20°C and 1 bar, where the monomer composition has a theoretical glass transition temperature according to Fox of at most 50°C, in the aqueous dispersion of the at least one polyurethane PU, where the majority of the monomer composition PA-M is added in the course of the polymerization to the aqueous dispersion of the at least one polyurethane PU. A) provision of an aqueous dispersion of at least one essentially uncrosslinked polyurethane PU in the form of dispersed polyurethane particles, where the polyurethane PU is obtainable by a polymerization of polyurethane-forming compounds PU-M, comprising at least one diol PU-M2, which has at least one poly-C 2 -C 14 -alkylene ether group which has at least one unit of the formula (i) -O-CHR a -CH 2 -R b - (i) where R a is hydrogen or C 1 -C 12 -alkyl, R b is a bond or C 1 -C 3 -alkylene, where R a is not hydrogen if R b is a bond, and where the PU has essentially no ethylenically unsaturated double bonds and has a gel fraction of < 20%; R a is hydrogen or C 1 -C 12 -alkyl, R b is a bond or C 1 -C 3 -alkylene, where R a is not hydrogen if R b is a bond, and where the PU has essentially no ethylenically unsaturated double bonds and has a gel fraction of < 20%; B) radical polymerization of a monomer composition PA-M from radically polymerizable, ethylenically unsaturated compounds, comprising, as main constituent, at least one monomeric ethylenically unsaturated compound which has a solubility in water of < 60 g/l at 20°C and 1 bar, where the monomer composition has a theoretical glass transition temperature according to Fox of at most 50°C, in the aqueous dispersion of the at least one polyurethane PU, where the majority of the monomer composition PA-M is added in the course of the polymerization to the aqueous dispersion of the at least one polyurethane PU.
A method for producing an AEI zeolite, the method comprising a crystallization step of crystallizing a composition containing an alumina source, a silica source, a structure directing agent, a sodium source, water, and a compound containing an alkali metal except sodium, a weight proportion of crystalline aluminosilicate relative to a total weight of the alumina source and the silica source being from 0 wt.% to 10 wt.%, the structure directing agent is a piperidinium cation, the fluorine content of the composition is 100 ppm by weight or less and the crystallization step satisfying at least one of the following conditions: a molar ratio of hydroxide ion to silica in the composition is 0.45 or greater, the composition contains a cation represented by (CH3)3RN+, where R represents an alkyl group having from 1 to 4 carbons, and the alkyl group may contain at least one substituent, and the crystallization time is 80 hours or longer. a weight proportion of crystalline aluminosilicate relative to a total weight of the alumina source and the silica source being from 0 wt.% to 10 wt.%, the structure directing agent is a piperidinium cation, the fluorine content of the composition is 100 ppm by weight or less and the crystallization step satisfying at least one of the following conditions: a molar ratio of hydroxide ion to silica in the composition is 0.45 or greater, the composition contains a cation represented by (CH3)3RN+, where R represents an alkyl group having from 1 to 4 carbons, and the alkyl group may contain at least one substituent, and the crystallization time is 80 hours or longer. a molar ratio of hydroxide ion to silica in the composition is 0.45 or greater, the composition contains a cation represented by (CH3)3RN+, where R represents an alkyl group having from 1 to 4 carbons, and the alkyl group may contain at least one substituent, and the crystallization time is 80 hours or longer.
A communication device comprising: device information management means configured to store device information that is information stored commonly in one or more communication devices ; clock generation means configured to generate clock information representing timing by using a periodic clock signal; device information selection means configured select at least a part of the device information according to the clock information and generating selection information that is different information for each piece of the clock information from at least a part of the device information selected; key generation means configured to generate an encryption key by using at least the clock information and the selection information generated by the device information selection means ; and cryptographic processing means configured to: execute an encryption processing on communication data by using the encryption key generated, change the encryption keys during cryptographic processing for at least one piece of the communication data, the cryptographic processing means being characterised in that it is further configured to add data capable of specifying parts of the communication data that are encrypted by different encryption keys and data capable of specifying each of encryption keys that are used for encryption of said parts to the communication data. device information management means configured to store device information that is information stored commonly in one or more communication devices ; clock generation means configured to generate clock information representing timing by using a periodic clock signal; device information selection means configured select at least a part of the device information according to the clock information and generating selection information that is different information for each piece of the clock information from at least a part of the device information selected; key generation means configured to generate an encryption key by using at least the clock information and the selection information generated by the device information selection means ; and cryptographic processing means configured to: execute an encryption processing on communication data by using the encryption key generated, change the encryption keys during cryptographic processing for at least one piece of the communication data, the cryptographic processing means being characterised in that it is further configured to add data capable of specifying parts of the communication data that are encrypted by different encryption keys and data capable of specifying each of encryption keys that are used for encryption of said parts to the communication data.
Tabletting tool comprising at least one press opening for receiving tabletting punches and for compressing powdered or granular substances to form a tablet, wherein the tabletting tool is composed of ring segments , wherein the press opening extends along a centre axis and has a smallest opening width (d) transversely to the centre axis , and wherein an encircling circumferential wall of the press opening is formed directly in a ring segment , characterized in that the ring segment consists of steel and is hardened at least in the region of the circumferential wall of the press opening with a hardening depth (h), wherein a first reference value for the hardening depth (h) is equal to 2 mm, wherein a second reference value for the hardnening depth (h) is equal to 0.3 times the smallest opening width (d), and wherein the hardening depth (h) is at least equal to the smaller of the two reference values.
An apparatus for holding a tissue sample , comprising: a retaining member ; a retaining element having a first tissue engaging surface ; a first biasing member acting between the retaining element and the retaining member ; a base having a second tissue engaging surface and a second biasing member ; wherein the base and the retaining member are configured to engage each other to form an interior area with the first and second tissue engaging surfaces facing each other; the first biasing member urging the first tissue engaging surface and the second biasing member urging the second tissue engaging surface to retain the tissue sample in between the first and second tissue engaging surfaces in the interior area ; wherein the second biasing member is releasable; and wherein when the second biasing member is released, the distance between the first and second tissue engaging surface is increased. a retaining member ; a retaining element having a first tissue engaging surface ; a first biasing member acting between the retaining element and the retaining member ; a base having a second tissue engaging surface and a second biasing member ; wherein the base and the retaining member are configured to engage each other to form an interior area with the first and second tissue engaging surfaces facing each other; the first biasing member urging the first tissue engaging surface and the second biasing member urging the second tissue engaging surface to retain the tissue sample in between the first and second tissue engaging surfaces in the interior area ; wherein the second biasing member is releasable; and wherein when the second biasing member is released, the distance between the first and second tissue engaging surface is increased.
A method of wireless communication between a vehicle base station and a transponder , the method comprising: driving interior and exterior antennas using first driving currents, I I and I O respectively, the interior antenna being separated from the transponder by a portion of a vehicle in which the vehicle base station resides; detecting separate vector components of the respective fields emitted by the interior and exterior antennas and received at the transponder ; calculating superposition factors, n and m respectively, for the interior and exterior antennas based upon the separate vector components; concurrently driving the interior and exterior antennas using the same phase, respectively using the first driving currents multiplied by the superposition factors, I I ∗ n and I O1 ∗ m; respectively; and detecting superposed vector components x S , y S and z S of a superposed signal including signals from both antennas received at the transponder ; and authenticating the transponder in response to the detected superposed vector components being within an error-based range of the sum of the separate vector components for each of the interior and exterior antennas as multiplied respectively by the superposition factors for the interior and exterior antennas. driving interior and exterior antennas using first driving currents, I I and I O respectively, the interior antenna being separated from the transponder by a portion of a vehicle in which the vehicle base station resides; detecting separate vector components of the respective fields emitted by the interior and exterior antennas and received at the transponder ; calculating superposition factors, n and m respectively, for the interior and exterior antennas based upon the separate vector components; concurrently driving the interior and exterior antennas using the same phase, respectively using the first driving currents multiplied by the superposition factors, I I ∗ n and I O1 ∗ m; respectively; and detecting superposed vector components x S , y S and z S of a superposed signal including signals from both antennas received at the transponder ; and authenticating the transponder in response to the detected superposed vector components being within an error-based range of the sum of the separate vector components for each of the interior and exterior antennas as multiplied respectively by the superposition factors for the interior and exterior antennas.
A heads-up display system for wearing by a user to view images, the system, comprising: a first image generator , which is a display, configured to generate a first output image from data used to create dynamic display of information, images and/or video that appears on the display, wherein the display is of the type selected from: organic light-emitting diode display and liquid-crystal display; a data source configured to dynamically supply the data to the first image generator, the data source is coupled with the first image generator; a first lens ; a first curved mirror ; a first visor having a reflective surface; and a second lens and a third lens , neither of which is a doublet, wherein an intermediate image appears between the second lens and the third lens , wherein the first image generator , first lens , first curved mirror , second lens , third lens , and first visor are fixed in relative positions so that, in use, the first output image passes through the first lens , reflects off the first curved mirror , passes through the first lens again, passes through the second and third lenses , and reflects off the reflective surface of the first visor into a first eye of the user. a first image generator , which is a display, configured to generate a first output image from data used to create dynamic display of information, images and/or video that appears on the display, wherein the display is of the type selected from: organic light-emitting diode display and liquid-crystal display; a data source configured to dynamically supply the data to the first image generator, the data source is coupled with the first image generator; a first lens ; a first curved mirror ; a first visor having a reflective surface; and a second lens and a third lens , neither of which is a doublet, wherein an intermediate image appears between the second lens and the third lens , wherein the first image generator , first lens , first curved mirror , second lens , third lens , and first visor are fixed in relative positions so that, in use, the first output image passes through the first lens , reflects off the first curved mirror , passes through the first lens again, passes through the second and third lenses , and reflects off the reflective surface of the first visor into a first eye of the user.
A self-punching functional element for fastening to a workpiece , namely to a high-strength sheet metal part, said self-punching functional element comprising a functional section ; and a fastening section which has a contact surface for an engagement of a setting device , an end face which is remote from the contact surface and which is ring-shaped, and an outer peripheral surface connecting the contact surface and the end face , wherein at least one projection is provided at the outer peripheral surface adjacent to the contact surface and rises from the outer peripheral surface in a radial direction, characterized in that the end face is radially outwardly bounded by a punching edge for punching a slug out of the workpiece , in that the projection extends further outwardly in the radial direction than the punching edge , and in that the width of the end face ring is greater than 70% of the axial extent of the fastening section or of the axial extent of the outer peripheral surface . a functional section ; and a fastening section which has a contact surface for an engagement of a setting device , an end face which is remote from the contact surface and which is ring-shaped, and an outer peripheral surface connecting the contact surface and the end face , a contact surface for an engagement of a setting device , an end face which is remote from the contact surface and which is ring-shaped, and an outer peripheral surface connecting the contact surface and the end face , wherein at least one projection is provided at the outer peripheral surface adjacent to the contact surface and rises from the outer peripheral surface in a radial direction, characterized in that the end face is radially outwardly bounded by a punching edge for punching a slug out of the workpiece , in that the projection extends further outwardly in the radial direction than the punching edge , and in that the width of the end face ring is greater than 70% of the axial extent of the fastening section or of the axial extent of the outer peripheral surface .
Neuregulin for use in a method for preventing, treating or delaying QTc interval prolonged ventricular arrhythmias in a mammal.
Motor vehicle driving station crossmember comprising a tubular member having a cylindrical wall , said member being intended to extend transversally within a motor vehicle, and at least one electronic housing support intended to be mounted in a fixed position on said tubular member ; characterized in that said electronic housing support comprises, on the one hand, a receiving plate and two facing tabs able to form a clamp and extending with a component perpendicular to said receiving plate , and, on the other hand, an indexing lug extending between said two tabs ; and in that said cylindrical wall of said tubular member has an indexing orifice able to receive said indexing lug when said tabs engage in a straddling manner on said tubular member .