mhurhangee/patent-ind-claim-en huggingface dataset:
A web forming device comprising: a first material supply unit provided with a first release port to release a first material (M7A) containing a first defibrated substance (M6) and a first organic binder (P1) in a gas atmosphere; a second material supply unit provided with a second release port to release a second material (M7B) in the gas atmosphere, the second material containing a second defibrated substance (M6) and a second organic binder (P2) and being different from the first material; and a transporting unit to form and transport an accumulated substance (M8) obtained by accumulating the first material and the second material, wherein the second release port is positioned downstream of the first release port in a transporting direction of the transporting unit, and the accumulated substance is a laminate obtained by laminating a layer of the first material and a layer of the second material, characterized in that the web forming device further comprises: a first defibration unit to defibrate used paper to generate the first defibrated substance; and a second defibration unit that to defibrate used paper to generate the second defibrated substance. a first material supply unit provided with a first release port to release a first material (M7A) containing a first defibrated substance (M6) and a first organic binder (P1) in a gas atmosphere; a second material supply unit provided with a second release port to release a second material (M7B) in the gas atmosphere, the second material containing a second defibrated substance (M6) and a second organic binder (P2) and being different from the first material; and a transporting unit to form and transport an accumulated substance (M8) obtained by accumulating the first material and the second material, wherein the second release port is positioned downstream of the first release port in a transporting direction of the transporting unit, and the accumulated substance is a laminate obtained by laminating a layer of the first material and a layer of the second material, characterized in that the web forming device further comprises: a first defibration unit to defibrate used paper to generate the first defibrated substance; and a second defibration unit that to defibrate used paper to generate the second defibrated substance. a first defibration unit to defibrate used paper to generate the first defibrated substance; and a second defibration unit that to defibrate used paper to generate the second defibrated substance.
A vehicular rearview assembly , comprising: a display configured to emit light of a first polarization (P1); a reflective polarizer positioned adjacent the display , the reflective polarizer configured to transmit the light of a first polarization (P1) and reflect light of a second polarization (P2); and an electro-optic element comprising: a first substantially transparent substrate defining first and second surfaces , wherein the second surface comprises a first electrically conductive layer ; a second substantially transparent substrate defining third and fourth surfaces , wherein the third surface comprises a second electrically conductive layer ; and a primary seal disposed between the first and second substrates , wherein the primary seal and the first and second substrates define a cavity there between; characterized in that a polymeric film comprising a plurality of polymeric chains disposed within the cavity , wherein the polymeric film includes a plurality of electrochromics disposed on the polymeric chains, and wherein the polymeric chains are aligned with the light of the second polarization (P2), the polymeric film being variably transmissive to the light of the second polarization (P2) such that the electro-optic element is operable between substantially clear and darkened states relative to the light of the second polarization (P2). a display configured to emit light of a first polarization (P1); a reflective polarizer positioned adjacent the display , the reflective polarizer configured to transmit the light of a first polarization (P1) and reflect light of a second polarization (P2); and an electro-optic element comprising: a first substantially transparent substrate defining first and second surfaces , wherein the second surface comprises a first electrically conductive layer ; a second substantially transparent substrate defining third and fourth surfaces , wherein the third surface comprises a second electrically conductive layer ; and a primary seal disposed between the first and second substrates , wherein the primary seal and the first and second substrates define a cavity there between; a first substantially transparent substrate defining first and second surfaces , wherein the second surface comprises a first electrically conductive layer ; a second substantially transparent substrate defining third and fourth surfaces , wherein the third surface comprises a second electrically conductive layer ; and a primary seal disposed between the first and second substrates , wherein the primary seal and the first and second substrates define a cavity there between; characterized in that a polymeric film comprising a plurality of polymeric chains disposed within the cavity , wherein the polymeric film includes a plurality of electrochromics disposed on the polymeric chains, and wherein the polymeric chains are aligned with the light of the second polarization (P2), the polymeric film being variably transmissive to the light of the second polarization (P2) such that the electro-optic element is operable between substantially clear and darkened states relative to the light of the second polarization (P2).
An opaque imparting liquid used for a prosthesis device cut and machined from a dental zirconia for cutting and machining, comprising; (a) 10 to 39 wt.% of a water-soluble aluminum compound and/or a water-soluble lanthanum compound, (b) 60 to 89 wt.% of water, and (c) 1 to 20 wt.% of an organic solvent, wherein the opaque imparting liquid further comprises an organic marker based on an organic dye. (a) 10 to 39 wt.% of a water-soluble aluminum compound and/or a water-soluble lanthanum compound, (b) 60 to 89 wt.% of water, and (c) 1 to 20 wt.% of an organic solvent,
A method for manufacturing a composite body, the method comprising: a sintering step of molding and heating a blend containing a boron carbonitride powder and a sintering aid to obtain a boron nitride sintered body including boron nitride particles and pores; and an impregnating step of impregnating the boron nitride sintered body with a resin composition, the composite body having the boron nitride sintered body and a resin filled in at least some of the pores of the boron nitride sintered body. a sintering step of molding and heating a blend containing a boron carbonitride powder and a sintering aid to obtain a boron nitride sintered body including boron nitride particles and pores; and an impregnating step of impregnating the boron nitride sintered body with a resin composition, the composite body having the boron nitride sintered body and a resin filled in at least some of the pores of the boron nitride sintered body.
Garment for the protection of a user comprising an inflatable member and at least one seat configured to receive the inflatable member , wherein said inflatable member is apt to assume an inflated condition and a deflated condition, and wherein said seat includes at least one first region intended to receive said inflatable member in the deflated condition and one second region free or without said inflatable member in the deflated condition and adapted to receive at least a part of said inflatable member in inflated condition; wherein said second region is open, or seamless, towards said first region to receive at least a part of said inflatable member in inflated condition; the garment is characterized in that , at least a first part of the body of the garment has one or more ventilation openings and/or is made of a material allowing the air to flow and wherein said first part corresponds to, or comprises, at least the second region of the seat for receiving the inflatable member ; and in that said first part is a chest region of the garment . at least a first part of the body of the garment has one or more ventilation openings and/or is made of a material allowing the air to flow and wherein said first part corresponds to, or comprises, at least the second region of the seat for receiving the inflatable member ; and in that said first part is a chest region of the garment .
Apparatus for providing hot water , wherein the apparatus comprises: • a water storage container ; • a heating element for heating water positioned within the water storage container ; and • a tap , characterized in that the tap is positioned above the water storage container , wherein the tap is fluidically connected to the water storage container via a pipeline , wherein the pipeline comprises a pump , wherein the pipeline is at least partly formed as a riser within or through the water storage container . • a water storage container ; • a heating element for heating water positioned within the water storage container ; and • a tap , characterized in that the tap is positioned above the water storage container , wherein the tap is fluidically connected to the water storage container via a pipeline , wherein the pipeline comprises a pump ,
A method of using optical scattering to determine the concentration of particles in a container or a vessel by positioning a sensor next to said container or vessel, wherein the sensor comprises a first source of light and a first detector , which method comprises: irradiating a medium of interest with the first source of light comprising a first optical axis, wherein the light has a wavelength absorbed by the medium of interest, and wherein the light absorbance of the light is characterized by a mean absorption path length in the medium; selecting the wavelength of the light so that a distance between an optical interface with the medium and a stationary object in the medium falling within an emission cone of the first light source , is greater than the mean absorption path length; detecting light scattered by the particles in the medium using the first detector comprising a second optical axis; providing a spatial separation between the first and second optical axes of the first light source and the first detector at the optical interface between the container or vessel and the medium at least 2-fold less than the mean absorption path length; and, correlating the detected light to the concentration of the particles, wherein a sensor geometry is configured according to the properties of the container or vessel, such that the source-detector separation is selected to minimize window backreflections due to the emission cone overlapping with a detection cone of the first detector within the window, and to maximize the range of sensitivity to changes in particle concentration. irradiating a medium of interest with the first source of light comprising a first optical axis, wherein the light has a wavelength absorbed by the medium of interest, and wherein the light absorbance of the light is characterized by a mean absorption path length in the medium; selecting the wavelength of the light so that a distance between an optical interface with the medium and a stationary object in the medium falling within an emission cone of the first light source , is greater than the mean absorption path length; detecting light scattered by the particles in the medium using the first detector comprising a second optical axis; providing a spatial separation between the first and second optical axes of the first light source and the first detector at the optical interface between the container or vessel and the medium at least 2-fold less than the mean absorption path length; and, correlating the detected light to the concentration of the particles, wherein a sensor geometry is configured according to the properties of the container or vessel, such that the source-detector separation is selected to minimize window backreflections due to the emission cone overlapping with a detection cone of the first detector within the window, and to maximize the range of sensitivity to changes in particle concentration.
Analysis apparatus that includes automated microplate handling apparatus, which automated microplate handling apparatus comprises: a) microplate carrying means upon which a microplate can be releasably secured; b) transport means operable to move the microplate carrying means in a transport plane in which the microplate carrying means is in a raised position, from one operational station to another; c) tilting means operable to move the microplate carrying means • from a lowered position in which the microplate carrying means is in a horizontal plane • to the raised position in which at least a portion of the microplate remote from a hinge axis is tilted above the horizontal plane, wherein • the tilting means is operable to raise and lower the microplate carrying means by tilting it about the hinge axis, which axis extends • parallel to the transport plane and • parallel to a direction in which the microplate carrying means is moved between operational stations . a) microplate carrying means upon which a microplate can be releasably secured; b) transport means operable to move the microplate carrying means in a transport plane in which the microplate carrying means is in a raised position, from one operational station to another; c) tilting means operable to move the microplate carrying means • from a lowered position in which the microplate carrying means is in a horizontal plane • to the raised position in which at least a portion of the microplate remote from a hinge axis is tilted above the horizontal plane, wherein • the tilting means is operable to raise and lower the microplate carrying means by tilting it about the hinge axis, which axis extends • parallel to the transport plane and • parallel to a direction in which the microplate carrying means is moved between operational stations . • from a lowered position in which the microplate carrying means is in a horizontal plane • to the raised position in which at least a portion of the microplate remote from a hinge axis is tilted above the horizontal plane, wherein • the tilting means is operable to raise and lower the microplate carrying means by tilting it about the hinge axis, which axis extends • parallel to the transport plane and • parallel to a direction in which the microplate carrying means is moved between operational stations .
A ceramic component comprising: - a particulate support material and a graphene-containing material , - wherein the particulate support material is at least partially coated with the graphene-containing material , - wherein a material bond is present between the particulate support material and the graphene-containing material , and - wherein said ceramic member has an electrical resistivity of from 1 Ωcm to 100 Ωcm at room temperature, and - further comprising a first base body, said first base body exclusively comprising said particulate support material . - a particulate support material and a graphene-containing material , - wherein the particulate support material is at least partially coated with the graphene-containing material , - wherein a material bond is present between the particulate support material and the graphene-containing material , and - wherein said ceramic member has an electrical resistivity of from 1 Ωcm to 100 Ωcm at room temperature, and - further comprising a first base body, said first base body exclusively comprising said particulate support material .
A pharmaceutical composition comprising at least one strain of isolated or substantially purified Roseomonas mucosa, and a pharmaceutically acceptable carrier, wherein the at least one strain of Roseomonas mucosa is from intact human skin or propagated therefrom, and present in a therapeutically effective amount for treatment of atopic dermatitis, and wherein the pharmaceutical composition is in a topical dosage form.
A method for determining a cracked or damaged touch-sensitive display of a mobile device, such as a damaged display, comprising: prompting a user to touch the display; prompting the user to drag the touched point across a displayed serpentine pattern; illuminating the display with a painted area where the user dragged the touched points to confirm areas touched by the user; determining that the touch-sensitive display is damaged by sensing and measuring a plurality of magnetometer readings during the user's contact as the user's touched point is dragged across the display by: accumulating and storing the plurality of measured magnetometer values; analyzing the stored plurality of measured magnetometer values; and determining that damage to the display is present by comparing the stored magnetometer readings to determine that a deviation exists between two stored magnetometer readings that exceeds a predetermined value, the predetermined value being one of 5%, or 10%, or 50% between the two stored magnetometer readings. prompting a user to touch the display; prompting the user to drag the touched point across a displayed serpentine pattern; illuminating the display with a painted area where the user dragged the touched points to confirm areas touched by the user; determining that the touch-sensitive display is damaged by sensing and measuring a plurality of magnetometer readings during the user's contact as the user's touched point is dragged across the display by: accumulating and storing the plurality of measured magnetometer values; analyzing the stored plurality of measured magnetometer values; and determining that damage to the display is present by comparing the stored magnetometer readings to determine that a deviation exists between two stored magnetometer readings that exceeds a predetermined value, the predetermined value being one of 5%, or 10%, or 50% between the two stored magnetometer readings. accumulating and storing the plurality of measured magnetometer values; analyzing the stored plurality of measured magnetometer values; and determining that damage to the display is present by comparing the stored magnetometer readings to determine that a deviation exists between two stored magnetometer readings that exceeds a predetermined value, the predetermined value being one of 5%, or 10%, or 50% between the two stored magnetometer readings.
Mobile stand for an object to be held, comprising a roller carrier with at least three rollers designed to roll on a ground surface so that the stand is mobile, a mount via which the object to be held can be coupled to the mobile stand , a locking device by means of which the roller carrier can be locked in position relative to the ground surface , the locking device being connected to an operating device by means of which the locking device can be moved reversibly between a rest position without contact with the ground surface and a locking position with contact with the ground surface, wherein the locking device has one pair or several pairs of elongated locking elements and the locking elements of the or each pair can be pivoted in opposite directions relative to each other from the rest position into the locking position by operating the operating device and, in the locking position, in contact with the ground surface, are oriented obliquely and in opposite directions relative to each other, wherein the operating device comprises an operating element , in particular an operating lever, which is mounted in a holding device connected to the roller carrier so as to be pivotable about a pivot axis of the operating device between a first end position and a second end position , which correspond to the rest position and the locking position of the locking device , wherein the holding device is designed to exert a force to be overcome against a movement of the actuating element from the first end position to the second end position and vice versa, characterised in that the operating device has, on the side opposite the operating element with respect to the pivot axis of the operating device , an elongated lever element with two parallel legs extending radially to the pivot axis of the operating device , which has elongated holes extending radially to the pivot axis of the operating device , in which an axle pin aligned parallel to the pivot axis of the operating device is slidably mounted, which is connected via a preloaded spiral spring to a fixing point on or near the pivot axis of the operating device , wherein the axle pin is equipped with two sliding rollers which roll on two identically designed roller guides of the holding device , which at the end positions have minimum distances and, in a position between the end positions , have a maximum distance to the fixing point .
An apparatus for displaying a three-dimensional image, said apparatus comprising: a light field generating unit , which is configured to receive an incident light beam and generate a three-dimensional light field; and an image revealing medium , which is arranged to receive the three-dimensional light field generated by the light field generating unit , wherein the image revealing medium comprises a fluid with bubbles suspended in the fluid, wherein the bubbles have a size in the range of 40-500 nm and characterized in that the bubbles are filled with air or another gas comprising oxygen, nitrogen or carbon dioxide. a light field generating unit , which is configured to receive an incident light beam and generate a three-dimensional light field; and an image revealing medium , which is arranged to receive the three-dimensional light field generated by the light field generating unit , wherein the image revealing medium comprises a fluid with bubbles suspended in the fluid, wherein the bubbles have a size in the range of 40-500 nm and characterized in that the bubbles are filled with air or another gas comprising oxygen, nitrogen or carbon dioxide.
Angle-resolving FMCW radar sensor having a plurality of antenna elements which are arranged at different positions in a direction in which the radar sensor is angle-resolving and form at least three transmitting arrays and at least one receiving array, wherein a transmitting array can consist of an individual antenna element or of a combination of a plurality of antenna elements, and having a control and evaluation device which is designed for a method of operation in which the at least three transmitting arrays periodically transmit signals, the frequency of which is modulated according to a sequence of modulation ramps (44, 46; 52, 54), and in which radar echoes of the transmitted signals are respectively received by a plurality of antenna elements in the at least one receiving array and the angle (θ) of a located object is determined on the basis of amplitude and/or phase relationships between radar echoes corresponding to different combinations of transmitting and receiving arrays, characterized in that a measuring cycle (P) of the radar sensor comprises at least two periods in which there is respectively a change between at least two combinations of transmitting and receiving arrays and there is a change back in further periods, and in that the involved combinations of transmitting and receiving arrays differ from one another for the at least two periods.