mhurhangee/patent-ind-claim-en huggingface dataset:
A method for preparing ozonized olive oil comprising: (i) preparing a dispersion comprising olive oil and 0.5-15.0 vol.% of water, preferably 1.1-12.0 vol.%, more preferably 1.1-10.0 vol.%, even more preferably 1.5-8.0 vol.%; wherein step (i) comprises: (i.a1) preparing a first dispersion by mixing a quantity Q2 of water and at least one vegetable oil, preferably at least one vegetable oil comprising oleic acid (C18:1) and linoleic acid (C18:2) in a total amount greater than or equal to 35% by weight, thus obtaining the first dispersion, wherein the quantity of water Q2 is less than or equal to 50 vol.%, wherein the quantity Q2 is expressed as the volume of water relative to the total volume of the first dispersion; and (i.a2) mixing the first dispersion and the olive oil, thus obtaining a second W/O dispersion comprising 0.5-15.0 vol.% of water, preferably 1.1-12.0 vol.%, more preferably 1.1-10.0 vol.%, even more preferably 1.5-8.0 vol.%; and (ii) at least one step of bubbling a quantity Q1 of ozone into the second W/O dispersion and, optionally, adding water, wherein: - in step (ii) the water is optionally added in the liquid phase or vapour phase; and - the total quantity of water added to the olive oil in step (i) and (ii) is 0.5-15.0 vol.%. (i) preparing a dispersion comprising olive oil and 0.5-15.0 vol.% of water, preferably 1.1-12.0 vol.%, more preferably 1.1-10.0 vol.%, even more preferably 1.5-8.0 vol.%; wherein step (i) comprises: (i.a1) preparing a first dispersion by mixing a quantity Q2 of water and at least one vegetable oil, preferably at least one vegetable oil comprising oleic acid (C18:1) and linoleic acid (C18:2) in a total amount greater than or equal to 35% by weight, thus obtaining the first dispersion, wherein the quantity of water Q2 is less than or equal to 50 vol.%, wherein the quantity Q2 is expressed as the volume of water relative to the total volume of the first dispersion; and (i.a2) mixing the first dispersion and the olive oil, thus obtaining a second W/O dispersion comprising 0.5-15.0 vol.% of water, preferably 1.1-12.0 vol.%, more preferably 1.1-10.0 vol.%, even more preferably 1.5-8.0 vol.%; and (i.a1) preparing a first dispersion by mixing a quantity Q2 of water and at least one vegetable oil, preferably at least one vegetable oil comprising oleic acid (C18:1) and linoleic acid (C18:2) in a total amount greater than or equal to 35% by weight, thus obtaining the first dispersion, wherein the quantity of water Q2 is less than or equal to 50 vol.%, wherein the quantity Q2 is expressed as the volume of water relative to the total volume of the first dispersion; and (i.a2) mixing the first dispersion and the olive oil, thus obtaining a second W/O dispersion comprising 0.5-15.0 vol.% of water, preferably 1.1-12.0 vol.%, more preferably 1.1-10.0 vol.%, even more preferably 1.5-8.0 vol.%; and (ii) at least one step of bubbling a quantity Q1 of ozone into the second W/O dispersion and, optionally, adding water, - in step (ii) the water is optionally added in the liquid phase or vapour phase; and - the total quantity of water added to the olive oil in step (i) and (ii) is 0.5-15.0 vol.%.
A conductivity detector for measuring the conductivity of a fluid comprising: an elongated hollow fluid chamber delineating an interior channel , the hollow chamber including a first end and a second end , the first end being open for receiving a fluid into the interior channel ; a first excitation electrode disposed proximate the first end of the hollow chamber and a second excitation electrode disposed proximate the second end of the hollow chamber ; a first sense electrode and a second sense electrode , the first and second sense electrodes disposed between the first and second excitation electrodes ; a power source communicating with the first and second excitation electrodes ; and a meter communicating with the first and second sense electrodes ; wherein current from the power source applied to the first and second excitation electrodes induces current in the fluid received in the interior channel by capacitively coupling with the fluid, the induced current sensed by the first and second sense electrodes by capacitively coupling the first and second sense electrodes with the fluid; and wherein the fluid chamber is a disposable component; the first and second excitation electrodes are respective first and second excitation rings having an annular shape, and the first and second sense electrodes are respective first and second sense rings each having an annular shape; and the fluid chamber is slidably received through the annular shaped first and second excitation rings and the annular shaped first and second sense rings . an elongated hollow fluid chamber delineating an interior channel , the hollow chamber including a first end and a second end , the first end being open for receiving a fluid into the interior channel ; a first excitation electrode disposed proximate the first end of the hollow chamber and a second excitation electrode disposed proximate the second end of the hollow chamber ; a first sense electrode and a second sense electrode , the first and second sense electrodes disposed between the first and second excitation electrodes ; a power source communicating with the first and second excitation electrodes ; and a meter communicating with the first and second sense electrodes ; wherein current from the power source applied to the first and second excitation electrodes induces current in the fluid received in the interior channel by capacitively coupling with the fluid, the induced current sensed by the first and second sense electrodes by capacitively coupling the first and second sense electrodes with the fluid; and wherein the fluid chamber is a disposable component; the first and second excitation electrodes are respective first and second excitation rings having an annular shape, and the first and second sense electrodes are respective first and second sense rings each having an annular shape; and the fluid chamber is slidably received through the annular shaped first and second excitation rings and the annular shaped first and second sense rings .
A sensor system for a construction machine, in particular a road finishing machine , comprising: a first laser scanner that can be arranged on the construction machine and is configured to search a specified angular range for objects and to determine corresponding distance values, which describe the distance to the one or several objects, together with corresponding intensity values, which describe an intensity of a reflection resulting at the one or several objects, across angles of the specified angular range, an evaluation unit configured to detect an object as a reference together with an associated angle α starting from the distance values determined and the intensity values determined and a known pattern comprising distance values and intensity values across scanning angles, and configured to determine a distance to the reference and the angle α with respect to the reference ; wherein the evaluation unit is configured to detect different types of the objects as a reference based on different known patterns; wherein the object to be detected as a reference is a rope and/or wherein the evaluation unit is configured to detect an edge , in particular a milling edge or curb edge, and/or wherein the evaluation unit is configured to detect a line in a lateral perspective on a wall or in a bird's eye view on a ground. a first laser scanner that can be arranged on the construction machine and is configured to search a specified angular range for objects and to determine corresponding distance values, which describe the distance to the one or several objects, together with corresponding intensity values, which describe an intensity of a reflection resulting at the one or several objects, across angles of the specified angular range, an evaluation unit configured to detect an object as a reference together with an associated angle α starting from the distance values determined and the intensity values determined and a known pattern comprising distance values and intensity values across scanning angles, and configured to determine a distance to the reference and the angle α with respect to the reference ; wherein the evaluation unit is configured to detect different types of the objects as a reference based on different known patterns; wherein the object to be detected as a reference is a rope and/or wherein the evaluation unit is configured to detect an edge , in particular a milling edge or curb edge, and/or wherein the evaluation unit is configured to detect a line in a lateral perspective on a wall or in a bird's eye view on a ground.
An electric motor/generator, comprising - a rotor with magnets mounted on the surface of the rotor , the magnets facing the stator over a gap, - the magnets having a very high flux density, wherein the flux density is more than 0.3T, but a limited ability to withstand high stator currents at high temperatures without any irreversible demagnetization, preferably magnets made of the N48H material, - rotor magnet cooling means that reduces the temperature of the magnets by a cooling liquid, - a rotor cavity inside the rotor , - both cooling liquid and air inside the rotor cavity, - holes in the rotor permitting a cooling liquid internal to the motor to enter and leave the rotor depending on the change in cooling liquid volume caused by motor temperature differences, and further comprising a ventilation tube with free access to the ambient air in one end and having its other end inside the rotor cavity. - a rotor with magnets mounted on the surface of the rotor , the magnets facing the stator over a gap, - the magnets having a very high flux density, wherein the flux density is more than 0.3T, but a limited ability to withstand high stator currents at high temperatures without any irreversible demagnetization, preferably magnets made of the N48H material, - rotor magnet cooling means that reduces the temperature of the magnets by a cooling liquid, - a rotor cavity inside the rotor , - both cooling liquid and air inside the rotor cavity, - holes in the rotor permitting a cooling liquid internal to the motor to enter and leave the rotor depending on the change in cooling liquid volume caused by motor temperature differences, and further comprising a ventilation tube with free access to the ambient air in one end and having its other end inside the rotor cavity.
An elongate profile for terminating installed tiles comprising, viewed in cross-section, a fastening leg for fixing to a surface , wherein the fastening leg defines a contact surface and is provided with through openings , and a boundary leg adjoining the fastening leg in a substantially perpendicular manner, wherein the outside of the boundary leg defines a visible surface, further wherein a stop leg directly adjoining the boundary leg and extending downwards in the direction of the fastening leg is provided to abut the front ends of adjoining tiles, characterised in that the stop leg forms an angle (α) with the boundary leg of between 5° and 30°, and has a plurality of through holes .
Apparatus for measuring and/or regulating the properties of a material flow , in particular aerosol flow and/or fluid flow, in particular a gas flow, In particular an air flow, and/or a liquid flow, comprising a means for the material flow with at least one section , namely a section of pipe through which the material flow can be passed through and/or around it, at least one functional unit being provided, at least one means for attaching a functional unit , namely a sensor , and/or Signal transducers and/or signal receivers for measuring and/or transmitting material flow properties i. e. an RFID and/or NFC and/or Bluetooth device coupled, in particular, to a docking station and/or a computer and/or smartphone, integrated into the conduit , whereby at least the conduit for material flow is constructed with the means for attaching a functional unit by means of an additive manufacturing process, namely 3D printing, essentially one piece, and the functional unit as a wall means or internal means In a wall of the conduit is inserted into the wall by means of 3D printing, whereas the wall runs smoothly in the area of the wall means or inner means and there is no passage through the wall to avoid flow obstructions.
Device for image segmentation of an image of a scene including a subject, said device comprising: - a receiver configured to receive electromagnetic radiation reflected from a scene including a subject, - a polarization unit configured to apply a first polarization on the received electromagnetic radiation to generate first polarized radiation and to apply a second polarization, which is different from the first polarization, on the received electromagnetic radiation to generate second polarized radiation, - a sensor unit configured to generate a first image from the first polarized radiation and a second image from the second polarized radiation, - a segmentation unit configured to identify areas of different materials in the scene from a combination of the first and second images, characterised in that the device further comprises a vital sign determination unit configured to select an area representing skin of the subject, to generate a first detection signal having a first polarization direction from the first polarized radiation in the selected area and a second detection signal having a second polarization direction, which is different from the first polarization direction, from the second polarized radiation in the selected area, and to determine a vital sign from the two detection signals by combining the two detection signals. - a receiver configured to receive electromagnetic radiation reflected from a scene including a subject, - a polarization unit configured to apply a first polarization on the received electromagnetic radiation to generate first polarized radiation and to apply a second polarization, which is different from the first polarization, on the received electromagnetic radiation to generate second polarized radiation, - a sensor unit configured to generate a first image from the first polarized radiation and a second image from the second polarized radiation, - a segmentation unit configured to identify areas of different materials in the scene from a combination of the first and second images, characterised in that the device further comprises
A method of wireless communication performed by a user equipment, UE, comprising: receiving remaining minimum system information, RMSI, from a base station, BS; determining an initial active uplink bandwidth part based at least in part on a physical resource block, PRB, frequency location of the initial active uplink bandwidth part, wherein the PRB frequency location is indicated in the RMSI, and wherein identifying the PRB frequency location of the initial active uplink bandwidth part comprises: identifying a plurality of reference uplink frequency locations in a random access channel, RACH, configuration, of a RACH procedure, included within the RMSI; and selecting a reference uplink frequency location from the plurality of reference uplink frequency locations as the PRB frequency location of the initial active uplink bandwidth part; and using the initial active uplink bandwidth part for the RACH procedure between the UE and the BS. receiving remaining minimum system information, RMSI, from a base station, BS; determining an initial active uplink bandwidth part based at least in part on a physical resource block, PRB, frequency location of the initial active uplink bandwidth part, wherein the PRB frequency location is indicated in the RMSI, and wherein identifying the PRB frequency location of the initial active uplink bandwidth part comprises: identifying a plurality of reference uplink frequency locations in a random access channel, RACH, configuration, of a RACH procedure, included within the RMSI; and selecting a reference uplink frequency location from the plurality of reference uplink frequency locations as the PRB frequency location of the initial active uplink bandwidth part; and identifying a plurality of reference uplink frequency locations in a random access channel, RACH, configuration, of a RACH procedure, included within the RMSI; and selecting a reference uplink frequency location from the plurality of reference uplink frequency locations as the PRB frequency location of the initial active uplink bandwidth part; and using the initial active uplink bandwidth part for the RACH procedure between the UE and the BS.
An ophthalmologic apparatus comprising: a refractometry optical system configured to project light onto a subject's eye (E) and to detect returning light from the subject's eye (E); an OCT optical system configured to split light from an OCT light source into measurement light (LS) and reference light (LR), to project the measurement light (LS) onto the subject's eye (E), and to detect interference light (LC) between returning light of the measurement light (LS) from the subject's eye (E) and the reference light (LR), and the OCT optical system being provided on an optical path wavelength-separated from an optical path of the refractometry optical system by an optical path combining and separating member ; a fixation projection system configured to simultaneously project a first fixation target and a second fixation target onto the subject's eye (E), a visual angle of the second fixation target being narrower than a visual angle of the first fixation target, and the first fixation target being a fixation target for refractometry, and the second fixation target being a fixation target for OCT measurement; and a controller configured to control the refractometry optical system and the OCT optical system characterized in that the controller is configured to simultaneously perform a refractometry and an OCT measurement, and the refractometry and the OCT measurement being simultaneously performed while simultaneously projecting the first fixation target and the second fixation target onto the subject's eye (E). a refractometry optical system configured to project light onto a subject's eye (E) and to detect returning light from the subject's eye (E); an OCT optical system configured to split light from an OCT light source into measurement light (LS) and reference light (LR), to project the measurement light (LS) onto the subject's eye (E), and to detect interference light (LC) between returning light of the measurement light (LS) from the subject's eye (E) and the reference light (LR), and the OCT optical system being provided on an optical path wavelength-separated from an optical path of the refractometry optical system by an optical path combining and separating member ; a fixation projection system configured to simultaneously project a first fixation target and a second fixation target onto the subject's eye (E), a visual angle of the second fixation target being narrower than a visual angle of the first fixation target, and the first fixation target being a fixation target for refractometry, and the second fixation target being a fixation target for OCT measurement; and a controller configured to control the refractometry optical system and the OCT optical system characterized in that the controller is configured to simultaneously perform a refractometry and an OCT measurement, and the refractometry and the OCT measurement being simultaneously performed while simultaneously projecting the first fixation target and the second fixation target onto the subject's eye (E).
A hot-melt adhesive composition, comprising: - at least one branched polypropylene which is a linear polypropylene modified so as to comprise one or more secondary polymer chains linked to the primary polypropylene backbone, at a content from 0.1 to 10 % by weight; - at least one polyolefin polymer at a content from 5 to 90 % by weight, wherein the polyolefin polymer is not and does not comprise a branched polypropylene; - at least one tackifying resin at a content from 0.1 to 60 % by weight; - optionally, at least one styrene block copolymer from 0 to 30% by weight; - optionally, at least one plasticizer at a content from 0 to 30 % by weight; - optionally, at least one stabilizer at a content from 0 to 5 % by weight; and - optionally, at least one wax at a content from 0 to 30 % by weight. - at least one branched polypropylene which is a linear polypropylene modified so as to comprise one or more secondary polymer chains linked to the primary polypropylene backbone, at a content from 0.1 to 10 % by weight; - at least one polyolefin polymer at a content from 5 to 90 % by weight, wherein the polyolefin polymer is not and does not comprise a branched polypropylene; - at least one tackifying resin at a content from 0.1 to 60 % by weight; - optionally, at least one styrene block copolymer from 0 to 30% by weight; - optionally, at least one plasticizer at a content from 0 to 30 % by weight; - optionally, at least one stabilizer at a content from 0 to 5 % by weight; and - optionally, at least one wax at a content from 0 to 30 % by weight.
Filling device for filling kegs, comprising at least one filling element with a filling tube which in turn comprises a free tube end (12.1) for connecting by means of a flange or pressing onto a keg fitting of the keg, arranged in which filling tube is a ram , which is movable axially in order to interact with a retention spring of the keg fitting for opening the keg, wherein the axial movement of the ram is put into effect by means of an actuating device , which comprises a piston which can be moved in a pressure cylinder , and which is connected to the ram or forms the ram , wherein the actuating device comprises at least one pressure chamber arranged in the pressure cylinder , which can be connected to a pressure source by means of at least one pressure delivery line as well as at least one control valve , so as to move the piston in the direction towards the free tube end (12.1), and to move a keg fitting which can be arranged there, characterised in that the filling device further comprises a pressure sensor for the actuation pressure in the pressure chamber and/or the pressure feed line , and that the filling device comprises an evaluation device , which is connected to the pressure sensor in such a way as to transfer data, and which is configured to detect the opening pressure (p o ) of a keg or of a keg fitting respectively in the pressure chamber and/or in the pressure feed line , and to compare this opening pressure (p o ) with at least one stored reference pressure and/or reference pressure time span, and, depending on the result of the comparison, to permit the filling process or not.
A musical instrument with a crystalline body arranged on at least one of its components with a sound velocity in the solid body of more than 8 000 m/s, wherein the crystalline body is a diamond, characterized in that the musical instrument is a piano or grand piano with an active region consisting of strings, bridge and soundboard , which is directly required for sound generation, and a passive region not directly required for sound generation, which comprises the box angle , the plate wedge located between the cast plate and the box angle , the cast plate , the feet and rollers , and in that the at least one diamond is flatly bonded or embedded directly on the box angle as a component of the passive region and the other side is exposed.