mhurhangee/patent-ind-claim-en huggingface dataset:
A spectroscopy array having at least one continuous wave laser , an optical detector and a first and a second optical ring resonator which each contain a material with an intensity-dependent refractive index, furthermore having at least one waveguide which is guided along the optical ring resonators at such a distance that light of the continuous wave laser guided in the waveguide can be coupled into the optical ring resonators and a frequency comb generated from the light of the continuous wave laser in the respective optical ring resonator can be coupled out into the waveguide or waveguides , the optical ring resonators and said at least one waveguide being arranged on a common substrate , and wherein the two optical ring resonators are optically different from one another by their geometry, by their material and/or by a coating in such a way that the spectral power density of beat frequencies of the frequency combs superimposed on the optical detector changes, when one of the two optical ring resonators and/or a waveguide connected thereto, which conducts the frequency comb coupled out of one of the optical ring resonators , is brought into contact with a sample .
A method of applying a poly-electrolyte composition to a carrier, which method comprising the steps of: - Providing the carrier with an aqueous reaction mixture comprising at least a first hydrophilic monomer and a second hydrophilic monomer, and - causing the monomers to polymerize on the carrier under the influence of an energy source wherein radical formation occurs and the polymerization is started and wherein crosslinking between individual polymer chains occurs, so as to form a water insoluble, crosslinked polyelectrolyte copolymer, Wherein - the first monomer is selected from the group consisting of vinylic sulphonic acids, vinyl phosphonic acids or a water soluble salt thereof as shown in the formula I-IV, Wherein R1, R2, R3 represent hydrogen, optionally substituted alkyl or aryl group, Q represents an alkylene group and M represents hydrogen or cation, and - the second monomer is a vinylic monomer with a double bond, which monomer comprises at least one acid group and a spacer group arranged between the double bond and the acid group, and - the second monomer is different from the first monomer and at least one compound selected from the group consisting of monomers comprising an acid group being either in a free acid form or in a form of a water soluble salt, and of which the logarithm of the acid dissociation constant (pKa) in the free acid form has a value smaller than 3.5. - Providing the carrier with an aqueous reaction mixture comprising at least a first hydrophilic monomer and a second hydrophilic monomer, and - causing the monomers to polymerize on the carrier under the influence of an energy source wherein radical formation occurs and the polymerization is started and wherein crosslinking between individual polymer chains occurs, so as to form a water insoluble, crosslinked polyelectrolyte copolymer, Wherein - the first monomer is selected from the group consisting of vinylic sulphonic acids, vinyl phosphonic acids or a water soluble salt thereof as shown in the formula I-IV, Wherein R1, R2, R3 represent hydrogen, optionally substituted alkyl or aryl group, Q represents an alkylene group and M represents hydrogen or cation, and - the second monomer is a vinylic monomer with a double bond, which monomer comprises at least one acid group and a spacer group arranged between the double bond and the acid group, and - the second monomer is different from the first monomer and at least one compound selected from the group consisting of monomers comprising an acid group being either in a free acid form or in a form of a water soluble salt, and of which the logarithm of the acid dissociation constant (pKa) in the free acid form has a value smaller than 3.5.
A light emitting device comprising: a substrate having a first surface and a second surface that are opposed to each other; a semiconductor stacked body (ST) that is provided on the first surface of the substrate, the semiconductor stacked body having a plurality of light emitting regions (L1, L2, L3) each of which allows a laser beam to be emitted; a first electrically conductive layer that is provided on a front surface of the semiconductor stacked body, the front surface being opposite to the substrate; a second electrically conductive layer that is provided on the second surface of the substrate, the second electrically conductive layer being provided to allow a predetermined voltage to be applied to the semiconductor stacked body in each of a plurality of the light emitting regions; a through wiring line that electrically couples the first electrically conductive layer and the second electrically conductive layer; and a plurality of electrodes that is provided on the front surface of the semiconductor stacked body, the front surface being opposite to the substrate, the plurality of electrodes being provided to allow predetermined voltages to be applied to the semiconductor stacked body in a plurality of the respective light emitting regions. a substrate having a first surface and a second surface that are opposed to each other; a semiconductor stacked body (ST) that is provided on the first surface of the substrate, the semiconductor stacked body having a plurality of light emitting regions (L1, L2, L3) each of which allows a laser beam to be emitted; a first electrically conductive layer that is provided on a front surface of the semiconductor stacked body, the front surface being opposite to the substrate; a second electrically conductive layer that is provided on the second surface of the substrate, the second electrically conductive layer being provided to allow a predetermined voltage to be applied to the semiconductor stacked body in each of a plurality of the light emitting regions; a through wiring line that electrically couples the first electrically conductive layer and the second electrically conductive layer; and a plurality of electrodes that is provided on the front surface of the semiconductor stacked body, the front surface being opposite to the substrate, the plurality of electrodes being provided to allow predetermined voltages to be applied to the semiconductor stacked body in a plurality of the respective light emitting regions.
Gut microbiota of the genus Bifidobacterium for use in a method of treating or preventing cancer, said method comprising: administering to a subject an effective amount of said gut microbiota; and administering to the subject an effective amount of an oncolytic virus having anticancer activity and that selectively targets tumor cells; wherein the gut microbiota pre-conditions the subject's immune system to antitumor responses and augments the anticancer activity of the oncolytic virus, and wherein the oncolytic virus is a virus within the poxviridae family. administering to a subject an effective amount of said gut microbiota; and administering to the subject an effective amount of an oncolytic virus having anticancer activity and that selectively targets tumor cells; wherein the gut microbiota pre-conditions the subject's immune system to antitumor responses and augments the anticancer activity of the oncolytic virus, and wherein the oncolytic virus is a virus within the poxviridae family.
A sensor structure for an acoustical pressure sensor, comprising an optical waveguide closed-loop resonator and a plurality of sensor elements (3a-e), wherein the individual sensor elements (3a-e) of the plurality of sensor elements are configured to be affected by an acoustical pressure wave such that a physical property of the individual sensor element (3a-e) is changed; and characterized in that the optical waveguide closed-loop resonator is arranged at said plurality of sensor elements (3a-e) and associated with each of the individual sensor elements (3a-e) of the plurality of sensor elements such that a resonance frequency of the optical waveguide closed-loop resonator is shifted due to the affected physical properties of all individual sensor elements (3a-e) of the plurality of sensor elements (3a-e). an optical waveguide closed-loop resonator and a plurality of sensor elements (3a-e), wherein the individual sensor elements (3a-e) of the plurality of sensor elements are configured to be affected by an acoustical pressure wave such that a physical property of the individual sensor element (3a-e) is changed; and characterized in that the optical waveguide closed-loop resonator is arranged at said plurality of sensor elements (3a-e) and associated with each of the individual sensor elements (3a-e) of the plurality of sensor elements such that a resonance frequency of the optical waveguide closed-loop resonator is shifted due to the affected physical properties of all individual sensor elements (3a-e) of the plurality of sensor elements (3a-e).
A preview station for previewing a slide tray , the preview station comprising a tray holder and a slide tray , the tray holder being configured to support the slide tray , the slide tray having a plurality of microscope slides thereon, a light source to illuminate the slide tray , each microscope slide having a specimen thereon, a digital camera and lens located on an optical axis relative to the slide tray , the digital camera and the slide tray being fixed relative to one another and configured to take a single preview image showing the slide tray and each microscope slide , wherein a focus of the lens is fixed to image the slide tray and the microscope slides thereon simultaneously in said single preview image upon the camera being activated; the slide tray having a tray barcode and each microscope slide having a respective slide barcode , the camera having a memory to store data of the single preview image showing each slide of the plurality of microscope slides on the slide tray, each respective slide barcode and the slide tray barcode, and a computer processor configured to: automatically obtain separate data for each microscope slide by automatically choosing a scan area on each microscope slide from the single preview image; process the data for each microscope slide from the single preview image; process barcode data from the respective slide barcodes and the slide tray barcode; and transmit the data for each microscope slide from the single preview image and the barcode data to set up a high resolution scan of the scan area of each microscope slide .
Intermediate plate for supporting a rail (S) for a rail vehicle on a base (U), wherein the intermediate plate has a contact surface assigned to the rail (S) during use and a support surface assigned to the base (U) during use, wherein the intermediate plate is elastically flexible in the direction of its total thickness measured as the distance between the contact surface and the support surface , and wherein the intermediate plate has, on at least one of its opposing longitudinal sides, a longitudinal side section (16, 17; 23, 24) which protrudes laterally from a central section of the intermediate plate and which has a thickness (D1) which is less than the total thickness of the intermediate plate , whereby the intermediate plate is formed from at least two elastic layers (15a, 15b; 22a, 22b), of which the first elastic layer has a first rigidity and the second elastic layer has a second rigidity, and whereby the longitudinal side section (16, 17; 23, 24) projecting laterally from the central region of the intermediate plate is formed by a section of the first elastic layer projecting beyond the respective longitudinal edge of the second elastic layer , while the central region of the intermediate plate is formed jointly by the second elastic layer and the section of the first elastic layer covered by the second elastic layer , whereby the contact surface is formed on the outer side of the first elastic layer facing away from the second elastic layer , characterized in that for the ratio C2/C1 formed from the stiffness C1 of the first elastic layer and the stiffness C2 of the second elastic layer the following applies: 0,25 ≤ C2/C1 ≤ 1.
A module for pretreatment of sample comprising: a body having a chamber for accommodating a sample therein; a cap coupled to one end of the body; a dotting substrate provided to have at least some portion of it dotted with the reagent and be inserted into the chamber; a discharge tip movably coupled to the other end of the body for discharging a sample accommodated in the chamber; a permanent magnet provided to be inserted in the chamber and mix the sample by rotating owing to a magnetic force acting in accordance with a change in a magnetic field externally applied; and a moving unit movably provided in the cap and configured to press the sample in the chamber according to the movement to discharge the sample to the outside, wherein the cap includes a hollow portion communicating with the chamber, and the moving unit is movably provided in the hollow portion, and wherein at least one venting line is formed along the inner wall of the hollow portion so as to adjust the pressure in the chamber. a body having a chamber for accommodating a sample therein; a cap coupled to one end of the body; a dotting substrate provided to have at least some portion of it dotted with the reagent and be inserted into the chamber; a discharge tip movably coupled to the other end of the body for discharging a sample accommodated in the chamber; a permanent magnet provided to be inserted in the chamber and mix the sample by rotating owing to a magnetic force acting in accordance with a change in a magnetic field externally applied; and a moving unit movably provided in the cap and configured to press the sample in the chamber according to the movement to discharge the sample to the outside, wherein the cap includes a hollow portion communicating with the chamber, and the moving unit is movably provided in the hollow portion, and wherein at least one venting line is formed along the inner wall of the hollow portion so as to adjust the pressure in the chamber.
Arrangement of a functional component for influencing tank ventilation of a fuel tank which is functionally connected to an internal combustion engine on an intake line , corresponding means for producing a clip connection being formed on the functional component and on the intake line of the internal combustion engine, and the functional component being directly clipped to the intake line , characterized in that the intake line has at least one clip receptacle which, in addition to an insertion opening for a corresponding clip , has a demolding opening extending transversely to the insertion direction, and, when the clip is inserted and in the locking position, the demolding opening is completely closed by a cover structure arranged on the functional component , such that the clip , in the locking position, is no longer accessible via the demolding opening .
A rest on the wall-type of wall bracket for facilitating construction work, the wall bracket comprising a support structure to be fastened to a wall with fastening members and a bracket structure to be placed to rest on the support structure as a working surface and fall arrest for a person or another load, and wherein the bracket structure to be placed to rest on the support structure further comprises a working platform frame which is provided with an upper support and a lower support for at least partly non-superimposed working platforms , said upper support and lower support locating at different height positions, and wherein the wall bracket comprises a rotating fastening (155 to 157) between the support structure and the working platform frame , wherein by means of said rotating fastening (155 to 157) the working platform frame rests on the support structure , characterized in that the rotating fastening (155 to 157) between the support structure and the working platform frame resides at a lower part of the working platform frame .
A Connector assembly comprising a one-piece connector element and a corrugated tube fluidically connected to the connector element , wherein the connector element comprises a through channel extending along a center axis (X), which opens on one side of the connector element into a mandrel formed on the connector element , the mandrel having a holding area and a sealing area , and at least two holding elements being arranged in the holding area axially adjacent to the center axis (X), wherein the corrugated tube is slipped onto the mandrel with a corrugated slip-on section in a slip-on direction (A) and is arranged in the holding area and the sealing area and is fluidically connected to the through channel of the connector element , wherein the holding area and the sealing area are arranged one behind the other axially to the center axis (X), wherein the mandrel in the sealing area has formed a flat surface facing the corrugated tube , which has a larger outer diameter (DD) facing the corrugated tube than an inner diameter (DT) of the corrugated tube facing the mandrel in a wave trough characterized in that at least one holding element is formed as a wave element of the mandrel which is particularly fully circumferential with respect to the center axis (X) and which at a wave maximum of the wave element has a larger outer diameter (DM) facing the corrugated tube than the inner diameter (DT) of the corrugated tube in the wave trough , and the wave element has a holding slope which reduces the outer diameter (DM) of the wave element in the wave maximum in the slip-on direction (A) to a holding diameter (DH).
A method of preparing cutin-derived monomers, oligomers, esters thereof, or combinations thereof from cutin-containing plant matter, comprising: obtaining cutin from the cutin-containing plant matter; adding the cutin to a solvent to form a first mixture, the solvent having a boiling point at a first temperature at a pressure of one atmosphere; wherein the solvent comprises water, glycerol, methanol, ethanol, liquid CO 2 , or supercritical CO 2 ; and heating the first mixture to a second temperature and second pressure, the second temperature being higher than the first temperature and the second pressure being higher than one atmosphere, to form a second mixture comprising the cutin-derived monomers, oligomers, esters thereof, or combinations thereof. obtaining cutin from the cutin-containing plant matter; adding the cutin to a solvent to form a first mixture, the solvent having a boiling point at a first temperature at a pressure of one atmosphere; wherein the solvent comprises water, glycerol, methanol, ethanol, liquid CO 2 , or supercritical CO 2 ; and heating the first mixture to a second temperature and second pressure, the second temperature being higher than the first temperature and the second pressure being higher than one atmosphere, to form a second mixture comprising the cutin-derived monomers, oligomers, esters thereof, or combinations thereof.
Operating method for a roll stand , - wherein firstly a first flat rolled material from metal runs in a transportation direction (x) through the roll stand and when running through the roll stand is rolled by means of working rollers that are installed in the roll stand ,wherein the working rollers during the rolling of the first flat rolled material rotate about roller axes that run transversely to the transportation direction (x); - wherein a first cooling installation that is disposed in the roll stand during the rolling of the first flat rolled material is held in a withdrawn position in which the first cooling installation , when viewed in the transportation direction (x), is spaced apart from the working rollers ; - wherein thereupon the working rollers are uninstalled from the roll stand , characterized in that - after the uninstalling of the working rollers , the first cooling installation in the transportation direction (x), or counter to the transportation direction (x), is repositioned to a forwardly displaced position such that the first cooling installation in the forwardly displaced position is disposed in a region in which the working rollers were previously disposed; and - finally a second flat rolled material from metal runs in the transportation direction (x) through the roll stand without deformation and when running through the roll stand by means of the first cooling installation that is situated in the forwardly displaced position is impinged with a liquid coolant that is supplied to the first cooling installation by way of at least one line . - wherein firstly a first flat rolled material from metal runs in a transportation direction (x) through the roll stand and when running through the roll stand is rolled by means of working rollers that are installed in the roll stand ,wherein the working rollers during the rolling of the first flat rolled material rotate about roller axes that run transversely to the transportation direction (x); - wherein a first cooling installation that is disposed in the roll stand during the rolling of the first flat rolled material is held in a withdrawn position in which the first cooling installation , when viewed in the transportation direction (x), is spaced apart from the working rollers ; - wherein thereupon the working rollers are uninstalled from the roll stand , - after the uninstalling of the working rollers , the first cooling installation in the transportation direction (x), or counter to the transportation direction (x), is repositioned to a forwardly displaced position such that the first cooling installation in the forwardly displaced position is disposed in a region in which the working rollers were previously disposed; and - finally a second flat rolled material from metal runs in the transportation direction (x) through the roll stand without deformation and when running through the roll stand by means of the first cooling installation that is situated in the forwardly displaced position is impinged with a liquid coolant that is supplied to the first cooling installation by way of at least one line .
An article for use with an apparatus for heating aerosol generating agent to volatilise at least one component of the aerosol generating agent, the article comprising: a support layer having a first surface , wherein at least a portion of the first surface is rough, and the support layer is a sheet of heat conducting material; and an aerosol generating agent adhered to the portion of the first surface that is rough. a support layer having a first surface , wherein at least a portion of the first surface is rough, and the support layer is a sheet of heat conducting material; and an aerosol generating agent adhered to the portion of the first surface that is rough.