mhurhangee/ep-ind-claims huggingface dataset:
A position determining system including: a plurality of first position indicators; a plurality of second position indicators, each of the plurality of second position indicators being mounted at a predetermined vertical position between various of the first position indicators; and a sensor, movable relative to the plurality of first position indicators and the plurality of second position indicators, the sensor being configured to determine when it is adjacent one of the plurality of first position indicators or one of the plurality of second position indicators, characterised in that the plurality of first position indicators and the plurality of second position indicators are positioned to form a sequence of unique patterns. a plurality of first position indicators; a plurality of second position indicators, each of the plurality of second position indicators being mounted at a predetermined vertical position between various of the first position indicators; and a sensor, movable relative to the plurality of first position indicators and the plurality of second position indicators, the sensor being configured to determine when it is adjacent one of the plurality of first position indicators or one of the plurality of second position indicators, characterised in that the plurality of first position indicators and the plurality of second position indicators are positioned to form a sequence of unique patterns.
A treatment head for treating a surface area of a substrate, the treatment head comprising: a housing having a main surface configured to be arranged adjacent to and facing the surface area of the substrate to be treated; an exhaust opening in the main surface of the housing, the exhaust opening being connectable to an exhaust device via an exhaust gas path formed at least in part in the housing; a plasma source arranged in the housing to emit a plasma jet through a plasma exit opening in the main surface; and an outlet opening in the main surface of the housing, the outlet opening being connectable to a gas source via a gas path formed at least in part in the housing, characterised by a radiative heater arranged in the housing to emit heat radiation through a radiation opening in the main surface, wherein the centers of the exhaust opening, the radiation opening, the plasma exit opening and the outlet opening are arranged in the above order along a first direction of the main surface. a housing having a main surface configured to be arranged adjacent to and facing the surface area of the substrate to be treated; an exhaust opening in the main surface of the housing, the exhaust opening being connectable to an exhaust device via an exhaust gas path formed at least in part in the housing; a plasma source arranged in the housing to emit a plasma jet through a plasma exit opening in the main surface; and an outlet opening in the main surface of the housing, the outlet opening being connectable to a gas source via a gas path formed at least in part in the housing, characterised by a radiative heater arranged in the housing to emit heat radiation through a radiation opening in the main surface, wherein the centers of the exhaust opening, the radiation opening, the plasma exit opening and the outlet opening are arranged in the above order along a first direction of the main surface.
A pull-out blocking device for at least two pull-out furniture parts, able to be pulled out from a furniture carcass in a pull-out direction and pushed into the furniture carcass against the pull-out direction, comprising for each of the pull-out furniture parts an entrainer, displaced in the pull-out direction upon pulling out of the pull-out furniture part and against the pull-out direction upon pushing in of the pull-out furniture part, and a vertical guide rail, fixed to the carcass, by which filling parts (7, 7') are displaceably mounted in a vertical direction, wherein each of the pull-out furniture parts is associated with one of the filling parts, which filling part is rotatably mounted about a notional, horizontal axis by the vertical guide rail and here is rotatable between a first rotational position which it occupies in the closed state of the associated, pull-out furniture part and a second rotational position which it occupies in the pulled-out state of the associated, pull-out furniture part, characterized in that the pull-out blocking device furthermore has a blocking part for each of the pull-out furniture parts, which blocking part cooperates with the entrainer belonging to this pull-out furniture part and is shifted by this entrainer upon pulling out of the pull-out furniture part from a blocking position into a release position and upon pushing-in of the pull-out furniture part from the release position into the blocking position and which is coupled with the filling part belonging to this pull-out furniture part, wherein the blocking part upon its shift from the blocking position into the release position rotates the filling part coupled therewith from its first rotational position into its second rotational position and upon its shift from the release position into the blocking position from its second rotational position into its first rotational position.
Temperature monitoring apparatus for monitoring a temperature within a tissue during a thermal ablation process, comprising: - a temperature application unit configured to introduce heating power into the tissue for heating the tissue, - an ultrasound unit configured to emit and receive ultrasound waves and configured to determine a temperature in a measurement region (22, 24) of the tissue on the basis of ultrasound shear wave detection during the ablation process, and - a temperature estimation unit including a heat transfer model configured to estimate a temperature in a region of interest within the tissue on the basis of the determined temperature and the heat transfer model, wherein the heat transfer model is based on medical images of the tissue. - a temperature application unit configured to introduce heating power into the tissue for heating the tissue, - an ultrasound unit configured to emit and receive ultrasound waves and configured to determine a temperature in a measurement region (22, 24) of the tissue on the basis of ultrasound shear wave detection during the ablation process, and - a temperature estimation unit including a heat transfer model configured to estimate a temperature in a region of interest within the tissue on the basis of the determined temperature and the heat transfer model, wherein the heat transfer model is based on medical images of the tissue.
An ultrasonic electronic cigarette atomization core, comprising a housing, a front cover, an ultrasonic atomization sheet, a liquid storage cotton, and a liquid guide cotton; the housing and the front cover are fastened together to form a receiving cavity, the ultrasonic atomization sheet is fixed in the receiving cavity, a liquid storage ring whose one end penetrates through the front cover is disposed in the receiving cavity, the liquid storage cotton is disposed in the liquid storage ring, the liquid storage cotton is connected to an atomization surface of the ultrasonic atomization sheet through the liquid guide cotton, and the outer lateral surface of the liquid storage cotton is communicated with a liquid bin of an electronic cigarette; wherein the atomization core further comprises a position-limit mechanism for preventing the liquid storage cotton from falling off the liquid storage ring.
A method of producing dental floss comprising: a. providing a fibrous substrate having a first section and a second section; b. applying a coating comprising an active to a surface of the fibrous substrate having a rectangular cross-sectional shape having two major surface areas spanning the width of the fibrous substrate and two minor surface areas spanning the height, characterized in that the coating is applied in the form of a stripe which is continuous across the length of the first and second section (A, B) of the fibrous substrate and is positioned near the center of a major surface area of the fibrous substrate such that the difference between the dry coat weight on the first section and the dry coat weight on the second section is 1% or less and wherein the coating is applied in a metered amount metered by a pump, and wherein a nozzle is used to apply the coating. a. providing a fibrous substrate having a first section and a second section; b. applying a coating comprising an active to a surface of the fibrous substrate having a rectangular cross-sectional shape having two major surface areas spanning the width of the fibrous substrate and two minor surface areas spanning the height, characterized in that the coating is applied in the form of a stripe which is continuous across the length of the first and second section (A, B) of the fibrous substrate and is positioned near the center of a major surface area of the fibrous substrate such that the difference between the dry coat weight on the first section and the dry coat weight on the second section is 1% or less and wherein the coating is applied in a metered amount metered by a pump, and wherein a nozzle is used to apply the coating.
A water jet peening method, comprising: immersing an object in a water-based washing liquid in a washing bath; and jetting the water-based washing liquid from a nozzle downwards towards the object in the water-based washing liquid contained in the washing bath; characterized in that the object is immersed so as to have a processing surface at a distance of at least 100 mm and less than 300 mm from a liquid surface of the water-based washing liquid; wherein jetting the water-based washing liquid from the nozzle includes jetting the washing liquid at a jet pressure of at least 15 MPa and not more than 35 MPa; wherein jetting the water-based washing liquid from the nozzle includes jetting the washing liquid while the nozzle has an end at a distance (d) of at least 50 mm and not more than 250 mm from the liquid surface in the washing bath; wherein the water-based washing liquid is free of a surfactant, and wherein the object comprises an aluminium alloy. immersing an object in a water-based washing liquid in a washing bath; and jetting the water-based washing liquid from a nozzle downwards towards the object in the water-based washing liquid contained in the washing bath; characterized in that the object is immersed so as to have a processing surface at a distance of at least 100 mm and less than 300 mm from a liquid surface of the water-based washing liquid; wherein jetting the water-based washing liquid from the nozzle includes jetting the washing liquid at a jet pressure of at least 15 MPa and not more than 35 MPa; wherein jetting the water-based washing liquid from the nozzle includes jetting the washing liquid while the nozzle has an end at a distance (d) of at least 50 mm and not more than 250 mm from the liquid surface in the washing bath; wherein the water-based washing liquid is free of a surfactant, and wherein the object comprises an aluminium alloy.
Crown/pusher comprising: - a tube intended to be fixed to a watch case, - a recessed head integral with a stem extending into its recessed part, the stem defining an axis, said recessed head being mounted to move in rotation and in translation respectively around and along the axis of the stem, - a return spring disposed around the stem, the crown/pusher being characterized in that it comprises a cage housing the spring, said cage being traversed by the stem and comprising an upper part integral with the recessed head and a lower part freely mounted with respect to the recessed head, said upper part cooperating with the lower part in order to drive the lower part in its rotational movement and in order to move in translation along the axis with respect to said lower part, said spring being compressed inside the cage in order to be driven in rotation with said cage. - a tube intended to be fixed to a watch case, - a recessed head integral with a stem extending into its recessed part, the stem defining an axis, said recessed head being mounted to move in rotation and in translation respectively around and along the axis of the stem, - a return spring disposed around the stem,
A nerve growth factor fusion protein, represented by a general formula A-B or A-L-B, wherein A is a nerve growth factor, L is a linker peptide, and B is Fc moiety of IgG1, and wherein the nerve growth factor is a human nerve growth factor.
Ultrasound sensor (100, 200, 300) comprising - a housing having a circumferential side wall and a bottom surface which is formed as a diaphragm, - a converter element arranged on the bottom surface for generating and detecting ultrasonic vibrations, - at least one mass element (140a, 140b, 240a, 240b, 240c, 340a, 340b) arranged on the bottom surface, characterized in that the at least one mass element (140a, 140b, 240a, 240b, 240c, 340a, 340b) is arranged in such a way that a force and/or torque exerted on the diaphragm by mass elements (140a, 140b, 240a, 240b, 240c, 340a, 340b) increases with increasing vibration frequency, wherein the converter element is fixed centrally on the bottom surface, and the mass elements are arranged on the bottom surface in particular at regular intervals and/or symmetrically around the converter element, wherein a mass element (140a, 140b, 340a, 340b) shaped at least substantially like a hollow cylinder or hollow cylindrical segment is formed from a lower section of the circumferential side wall. - a housing having a circumferential side wall and a bottom surface which is formed as a diaphragm, - a converter element arranged on the bottom surface for generating and detecting ultrasonic vibrations, - at least one mass element (140a, 140b, 240a, 240b, 240c, 340a, 340b) arranged on the bottom surface,
A process for isolating from a reaction mixture a salt of a mono-propargylated aminoindan having the structure wherein R 1 is H, where the reaction mixture further comprises a solvent, a primary aminoindan having the structure wherein R 1 is defined as above, and a tertiary aminoindan having the structure the process comprising a) adding an acid to the reaction mixture; b) crystallizing the mono-propargylated aminoindan under conditions suitable for the formation of a crystalline salt of the mono-propargylated aminoindan; and c) recovering the crystalline salt of the mono-propargylated aminoindan, wherein the process is performed without addition of an organic solvent. a) adding an acid to the reaction mixture; b) crystallizing the mono-propargylated aminoindan under conditions suitable for the formation of a crystalline salt of the mono-propargylated aminoindan; and c) recovering the crystalline salt of the mono-propargylated aminoindan,
A multi-channel audio decoder (200; 300; 700; 800) for providing at least two output audio signals (212, 214; 312, 314; 712, 714) on the basis of an encoded representation (210; 310; 710), wherein the multi-channel audio decoder is configured to perform a weighted combination (220; 780, 790, 792) of a downmix signal (222; 752, 754), a decorrelated signal (224; 756,758) and a residual signal (226; 760, 762; res), to obtain one of the output audio signals (212,214; 712, 714), wherein the multi-channel audio decoder is configured to determine a weight (232; r; r dec) describing a contribution of the decorrelated signal in the weighted combination in dependence on both the residual signal and the decorrelated signal.
A micromechanical component comprising: a substrate (11, 15), an active structure, which can be deflected in at least one direction relative to the substrate (11, 15), and which has at least a first region and a second region, wherein the first region and the second region are electrically conductive and are rigidly physically connected to one another along a first axis (x) and are electrically insulated from one another by an insulating region; a first electrode, which extends outwards from the first region in a first direction along a second axis (y), and a second electrode, which extends outwards from the first region in a second direction along the second axis (y), wherein the second axis (y) is perpendicular to the first axis (x), and wherein the second direction is opposite to the first direction, and a third electrode, which extends outwards from the second region in the first direction along the second axis (y), and a fourth electrode, which extends outwards from the second region in the second direction along the second axis (y), and a fifth electrode, which is firmly connected to the substrate (11, 15) and extends from the substrate (11, 15) in the second direction along the second axis (y), and is arranged between the first electrode and the third electrode. a substrate (11, 15), an active structure, which can be deflected in at least one direction relative to the substrate (11, 15), and which has at least a first region and a second region, wherein the first region and the second region are electrically conductive and are rigidly physically connected to one another along a first axis (x) and are electrically insulated from one another by an insulating region; a first electrode, which extends outwards from the first region in a first direction along a second axis (y), and a second electrode, which extends outwards from the first region in a second direction along the second axis (y), wherein the second axis (y) is perpendicular to the first axis (x), and wherein the second direction is opposite to the first direction, and a third electrode, which extends outwards from the second region in the first direction along the second axis (y), and a fourth electrode, which extends outwards from the second region in the second direction along the second axis (y), and a fifth electrode, which is firmly connected to the substrate (11, 15) and extends from the substrate (11, 15) in the second direction along the second axis (y), and is arranged between the first electrode and the third electrode.
A fibrous insulation product comprising: a plurality of inorganic fibers; and a binder composition applied to at least a portion of the fibers, the binder composition comprising: water; a metal salt; and a polyol; wherein a weight ratio of the metal salt to the polyol is in the range of 1:20 to 1: 1; wherein the metal salt is selected from the group consisting of boron, aluminum, gallium, indium, tin, iron, zinc, titanium, bismuth, zirconium, and combinations thereof; and wherein the binder composition is present in the fibrous insulation product in an amount of 1% to 25% loss on ignition. a plurality of inorganic fibers; and a binder composition applied to at least a portion of the fibers, the binder composition comprising: water; a metal salt; and a polyol; wherein a weight ratio of the metal salt to the polyol is in the range of 1:20 to 1: 1; wherein the metal salt is selected from the group consisting of boron, aluminum, gallium, indium, tin, iron, zinc, titanium, bismuth, zirconium, and combinations thereof; and wherein the binder composition is present in the fibrous insulation product in an amount of 1% to 25% loss on ignition. water; a metal salt; and a polyol; wherein a weight ratio of the metal salt to the polyol is in the range of 1:20 to 1: 1; wherein the metal salt is selected from the group consisting of boron, aluminum, gallium, indium, tin, iron, zinc, titanium, bismuth, zirconium, and combinations thereof; and wherein the binder composition is present in the fibrous insulation product in an amount of 1% to 25% loss on ignition.
An exit row table for an aircraft, comprising: a table surface deployable between a retracted position and a deployed position; an arm having a first end and a second end, the arm supporting the table surface at the first end; a support connected to the arm at the second end, the support connecting the arm to a structure interior to the aircraft; a sensor within the aircraft to detect if a seat adjacent to the table surface is occupied; and a retraction mechanism responsive to a signal provided by the sensor and to a flight mode of the aircraft meeting predetermined criteria, the retraction mechanism being configured to: cause automatic retraction of the table surface to the retracted position upon the sensor detecting that the seat is not occupied and cause automatic retraction of the table surface to the retracted position upon the aircraft flight mode meeting the predetermined criteria.. a table surface deployable between a retracted position and a deployed position; an arm having a first end and a second end, the arm supporting the table surface at the first end; a support connected to the arm at the second end, the support connecting the arm to a structure interior to the aircraft; a sensor within the aircraft to detect if a seat adjacent to the table surface is occupied; and a retraction mechanism responsive to a signal provided by the sensor and to a flight mode of the aircraft meeting predetermined criteria, the retraction mechanism being configured to: cause automatic retraction of the table surface to the retracted position upon the sensor detecting that the seat is not occupied and cause automatic retraction of the table surface to the retracted position upon the aircraft flight mode meeting the predetermined criteria.. cause automatic retraction of the table surface to the retracted position upon the sensor detecting that the seat is not occupied and cause automatic retraction of the table surface to the retracted position upon the aircraft flight mode meeting the predetermined criteria..
A multilayer transformable device for a display device, comprising: at least two unit transformable devices (110, 130; 210, 230, 250) stacked one above the other, each of the unit transformable devices (110, 130; 210, 230, 250) including a first electrode (111, 131, 211, 231, 251), a second electrode (113, 133, 213, 233, 253), and a transformable layer (112, 132, 212, 232, 252) between the first and second electrode; and at least one sub-transformable layer (120, 220, 240) respectively disposed between subsequent unit transformable devices (110, 130; 210, 230, 250), wherein the at least one sub-transformable layer (120, 220, 240) adhesively bonds adjacent unit transformable devices (110, 130; 210, 230, 250) to each other; wherein the transformable layers (112, 132, 212, 232, 252) and the sub-transformable layer (120, 220, 240) include an electro-active polymer, the electro-active polymer of the sub-transformable layer (120, 220, 240) being different from the electro-active polymer of the transformable layers (112, 132, 212, 232, 252), wherein the sub-transformable layer (120, 220, 240) includes a dielectric elastomer as electro-active polymer and a high-dielectric filler. at least two unit transformable devices (110, 130; 210, 230, 250) stacked one above the other, each of the unit transformable devices (110, 130; 210, 230, 250) including a first electrode (111, 131, 211, 231, 251), a second electrode (113, 133, 213, 233, 253), and a transformable layer (112, 132, 212, 232, 252) between the first and second electrode; and at least one sub-transformable layer (120, 220, 240) respectively disposed between subsequent unit transformable devices (110, 130; 210, 230, 250), wherein the at least one sub-transformable layer (120, 220, 240) adhesively bonds adjacent unit transformable devices (110, 130; 210, 230, 250) to each other; wherein the transformable layers (112, 132, 212, 232, 252) and the sub-transformable layer (120, 220, 240) include an electro-active polymer, the electro-active polymer of the sub-transformable layer (120, 220, 240) being different from the electro-active polymer of the transformable layers (112, 132, 212, 232, 252), wherein the sub-transformable layer (120, 220, 240) includes a dielectric elastomer as electro-active polymer and a high-dielectric filler.