mhurhangee/ep-ind-claims huggingface dataset:
A method for mounting microscope slides for the analysis of biological, cytological, histological and autopsical samples, comprising: (i) dipping said microscope slides into at least one fluid composition consisting of: a) at least one liquid component selected from ethyl acetate, butyl acetate, 1-methyl-2-methoxyethyl acetate; and b) one or more polymers or copolymers selected from cellulose di-acetate, cellulose tri-acetate, cellulose propionate and cellulose acetate butyrate, in an amount of 5%-80%. (i) dipping said microscope slides into at least one fluid composition consisting of: a) at least one liquid component selected from ethyl acetate, butyl acetate, 1-methyl-2-methoxyethyl acetate; and b) one or more polymers or copolymers selected from cellulose di-acetate, cellulose tri-acetate, cellulose propionate and cellulose acetate butyrate, in an amount of 5%-80%. a) at least one liquid component selected from ethyl acetate, butyl acetate, 1-methyl-2-methoxyethyl acetate; and b) one or more polymers or copolymers selected from cellulose di-acetate, cellulose tri-acetate, cellulose propionate and cellulose acetate butyrate, in an amount of 5%-80%.
A method of capturing images of an object from which to construct a three-dimensional model of the object, the method comprising: using an image capture device, capturing a plurality of images of the object in a physical environment from a plurality of vantage points; identifying points in the plurality of images that are consistently located across the plurality of images as background points; filtering points in the plurality of images to remove background points from use in construction of the three-dimensional model of the object; using at least one sensor associated with the image capture device, detecting one or more of: motion or pose of the image capture device; selecting individual ones of the captured images on the basis of the detected information and; sending the selected individual ones of the captured plurality of images to a process for constructing the three-dimensional model of the object; examining the filtered points to determine positional discrepancies in features of the object that are inconsistent with detected motion or pose of the image capture device within the physical environment contemporaneously with the capture of each of the plurality of images; segmenting the plurality of images into groups divided by the appearance of the positional discrepancies; and resolving the positional discrepancies to form a coherent computational model of the object based on the filtered points having background points removed. using an image capture device, capturing a plurality of images of the object in a physical environment from a plurality of vantage points; identifying points in the plurality of images that are consistently located across the plurality of images as background points; filtering points in the plurality of images to remove background points from use in construction of the three-dimensional model of the object; using at least one sensor associated with the image capture device, detecting one or more of: motion or pose of the image capture device; selecting individual ones of the captured images on the basis of the detected information and; sending the selected individual ones of the captured plurality of images to a process for constructing the three-dimensional model of the object; examining the filtered points to determine positional discrepancies in features of the object that are inconsistent with detected motion or pose of the image capture device within the physical environment contemporaneously with the capture of each of the plurality of images; segmenting the plurality of images into groups divided by the appearance of the positional discrepancies; and resolving the positional discrepancies to form a coherent computational model of the object based on the filtered points having background points removed.
Automatic coffee machine comprising a pump comprising an inlet orifice, an outlet orifice, a liquid drive system to pressurize and make a liquid circulate from the inlet orifice to the outlet orifice and a downstream conduit connecting in fluid communication, the drive system to the outlet orifice of the pump, said downstream conduit comprising a damping device to dampen the vibrations generated by the drive system on the pressurized liquid which circulates to the outlet orifice, characterized in that the downstream conduit comprises a flexible portion arranged between the drive system and the damping device, and in that the damping device is arranged in a flexible support.
A building block system, comprising: a plurality of basic units and a plurality of connectors; wherein the basic units are cubes; wherein each of the connectors is used to connect two basic units; wherein each face of the basic units is evenly set with four connecting holes; wherein each face of the basic unit is set with a slot; wherein the connecting holes on each of the two opposing faces are correspondingly connected by the slots of the other four faces; wherein the connector inserts into one connecting hole on one face of the basic unit, and comes out from another connecting hole on the opposing face through the slot to connect with another basic unit; wherein each connecting hole is correspondingly set at the inner side of each face's side edge; wherein the connector is a flat cuboid; wherein the cross section of connecting hole is a rectangle; wherein the long side of the rectangle is parallel to the corresponding side edge of the cube; wherein the connecting hole is adjacent to the inner side of the slot and is interlinked with the slot mutually; wherein the slot is set at from the central of the face extending to each connecting hole, and the bottom faces of the slots compose a small cube. a plurality of basic units and a plurality of connectors; wherein the basic units are cubes; wherein each of the connectors is used to connect two basic units; wherein each face of the basic units is evenly set with four connecting holes; wherein each face of the basic unit is set with a slot; wherein the connecting holes on each of the two opposing faces are correspondingly connected by the slots of the other four faces; wherein the connector inserts into one connecting hole on one face of the basic unit, and comes out from another connecting hole on the opposing face through the slot to connect with another basic unit; wherein each connecting hole is correspondingly set at the inner side of each face's side edge; wherein the connector is a flat cuboid; wherein the cross section of connecting hole is a rectangle; wherein the long side of the rectangle is parallel to the corresponding side edge of the cube; wherein the connecting hole is adjacent to the inner side of the slot and is interlinked with the slot mutually; wherein the slot is set at from the central of the face extending to each connecting hole, and the bottom faces of the slots compose a small cube.
A method of operation of a wireless device in a cellular communications network, comprising: obtaining (302, 500) an indicator that is indicative of whether Channel State Information Reference Signals, CSI-RSs, are present in a subframe in which a downlink transmission is transmitted from a radio access node to the wireless device, the downlink transmission being one of a group consisting of: an Enhanced Physical Downlink Control Channel, EPDCCH, transmission or a Physical Downlink Shared Channel, PDSCH, transmission, wherein obtaining (302, 500) the indicator comprises detecting an Orthogonal Cover Code, OCC,-based indicator in the subframe that is indicative of whether CSI-RSs are present in the subframe; determining (304, 506) whether CSI-RSs are present in the subframe based on the indicator; and upon determining that CSI-RSs are present in the subframe, attempting reception (306, 508) of the downlink transmission based on an assumption that CSI-RSs are present in the subframe. obtaining (302, 500) an indicator that is indicative of whether Channel State Information Reference Signals, CSI-RSs, are present in a subframe in which a downlink transmission is transmitted from a radio access node to the wireless device, the downlink transmission being one of a group consisting of: an Enhanced Physical Downlink Control Channel, EPDCCH, transmission or a Physical Downlink Shared Channel, PDSCH, transmission, wherein obtaining (302, 500) the indicator comprises detecting an Orthogonal Cover Code, OCC,-based indicator in the subframe that is indicative of whether CSI-RSs are present in the subframe; determining (304, 506) whether CSI-RSs are present in the subframe based on the indicator; and upon determining that CSI-RSs are present in the subframe, attempting reception (306, 508) of the downlink transmission based on an assumption that CSI-RSs are present in the subframe.
Method for controlling a loading tool arranged on a lifting device of a machine, said loading tool being in the form of a grapple bucket which has a bucket receptacle and a pivotable bucket flap cooperating therewith, wherein the loading tool, during its operation, receives a payload from a payload stock (St_1, St_2, St_3) and wherein, during operation, the mass (m_L) of the payload is determined, wherein - calibration data are provided which represent a ratio of a volume (V_L) of the payload to a mass (m_L) of the payload, - during operation of the loading tool, a volume (V_L) of the payload is sensed before it is received by the loading tool, and - the mass (m_L) of the payload is determined depending on the sensed volume (V_L) and the calibration data, wherein, in order for the payload with the determined mass (m L) to be received by the loading tool, the bucket receptacle is guided to the payload stock (St_1), characterized in that pivoting of the bucket flap in a closing direction is initiated and the determined mass (m_L) is actually received as soon as, on the basis of a comparison, the receivable mass (m L) is detected as corresponding to the predefined target mass (m_target). - calibration data are provided which represent a ratio of a volume (V_L) of the payload to a mass (m_L) of the payload, - during operation of the loading tool, a volume (V_L) of the payload is sensed before it is received by the loading tool, and - the mass (m_L) of the payload is determined depending on the sensed volume (V_L) and the calibration data,
Self-propelled construction machine, in particular road milling machine, stabiliser, recycler or surface miner, comprising a machine frame and an operating drum for processing the ground material, the operating drum being positioned in a drum housing which is open downwards and closed on at least one side by an edge protector, which is adjustable in height by a mechanism which is designed for raising and/or lowering the edge protector and provides a floating position in which the edge protector is mounted in a floating manner such that the height of the edge protector can be automatically adjusted. characterised in that a control unit is provided for the mechanism for raising and/or lowering the edge protector, which unit has means for registering the distance (a) between a reference point on the edge protector and the ground surface and means for actuating the mechanism for raising and/or lowering the edge protector, the control unit being configured so that, when the distance between the reference point and ground surface is less than a predetermined minimum distance (a), the mechanism for raising and/or lowering the edge protector is actuated such that the edge protector is raised.
An agricultural harvester, in particular a self-propelled forage harvester, comprising at least one working assembly (2, 3) for processing a crop material flow and a discharge accelerator for the processed crop material, characterised in that the discharge accelerator is in the form of a structural unit which includes at least one acceleration member and a surrounding housing, in relation to which the acceleration member is mounted rotatably by means of a shaft, which structural unit can be mounted as a whole in an operating position (P B) downstream of the working assembly (2, 3) in the flow path of the crop material flow and can be dismantled from said operating position (P B), by the provision of means with which the structural unit is moveable from the operating position (P B) into an access position (P z) within a maintenance space of the harvester, wherein the means include a pivotably moveable mounting of the structural unit with respect to a machine frame of the harvester.
Integrated magnetic component, comprising a) a common mode inductance formed by a common mode core surrounding a winding window and at least two windings wound around the common mode core and through the winding window, with each winding of the at least two windings having two terminals, and b) a differential mode inductance formed by the at least two windings and a differential mode core being spaced from the common mode core by a gap, the common mode core and the differential mode core being configured for directing a magnetic field, wherein c) the differential mode core comprises at least one surface being adjacent to each of the at least two windings, d) the differential mode core comprises a plate, with the plate being arranged on top of the common mode core. e) and (i) the common mode core is a toroidal core and the differential mode core comprises a rod or a pipe combined with the plate, with the rod or the pipe arranged in the winding window of the toroidal core, or (ii) the common mode core is a rectangular core and the differential mode core comprises a cuboid or a hollow cuboid combined with the plate, with the cuboid or the hollow cuboid arranged in the winding window of the rectangular core. a) a common mode inductance formed by a common mode core surrounding a winding window and at least two windings wound around the common mode core and through the winding window, with each winding of the at least two windings having two terminals, and b) a differential mode inductance formed by the at least two windings and a differential mode core being spaced from the common mode core by a gap, the common mode core and the differential mode core being configured for directing a magnetic field, wherein c) the differential mode core comprises at least one surface being adjacent to each of the at least two windings, d) the differential mode core comprises a plate, with the plate being arranged on top of the common mode core. e) and (i) the common mode core is a toroidal core and the differential mode core comprises a rod or a pipe combined with the plate, with the rod or the pipe arranged in the winding window of the toroidal core, or (ii) the common mode core is a rectangular core and the differential mode core comprises a cuboid or a hollow cuboid combined with the plate, with the cuboid or the hollow cuboid arranged in the winding window of the rectangular core.
A method for coating a substrate, the method comprising providing a substrate having a surface; disposing a coating composition adjacent the surface; the composition comprising a hydrophobic fluorinated solvent; a binder comprising a hydrophobic fluorinated polymer, wherein the binder is present in an amount within the range of 0.3 wt.% to 1.5 wt.% of the composition; hydrophobic fumed silica nanoparticles, wherein the silica nanoparticles are present in an amount within the range of 0.01 wt.% to 0.5 wt.% of the composition; and hydrophobic aerogel nanoparticles, wherein the aerogel nanoparticles are present in an amount within the range of 0.1 wt.% to 0.5 wt.% of the composition; and evaporating the fluorinated solvent. providing a substrate having a surface; disposing a coating composition adjacent the surface; the composition comprising a hydrophobic fluorinated solvent; a binder comprising a hydrophobic fluorinated polymer, wherein the binder is present in an amount within the range of 0.3 wt.% to 1.5 wt.% of the composition; hydrophobic fumed silica nanoparticles, wherein the silica nanoparticles are present in an amount within the range of 0.01 wt.% to 0.5 wt.% of the composition; and hydrophobic aerogel nanoparticles, wherein the aerogel nanoparticles are present in an amount within the range of 0.1 wt.% to 0.5 wt.% of the composition; and a hydrophobic fluorinated solvent; a binder comprising a hydrophobic fluorinated polymer, wherein the binder is present in an amount within the range of 0.3 wt.% to 1.5 wt.% of the composition; hydrophobic fumed silica nanoparticles, wherein the silica nanoparticles are present in an amount within the range of 0.01 wt.% to 0.5 wt.% of the composition; and hydrophobic aerogel nanoparticles, wherein the aerogel nanoparticles are present in an amount within the range of 0.1 wt.% to 0.5 wt.% of the composition; and evaporating the fluorinated solvent.
A yield stress fluid composition comprising water, at least one nonionic amphiphilic polymer and at least one surfactant wherein the concentration of said polymer ranges from 0.5 to 5 wt.% and the concentration of said surfactant ranges from 1 to 30 wt.% (active weight basis), based on the total weight of the composition, wherein said polymer is polymerized from a monomer composition comprising at least one hydrophilic monomer and at least one hydrophobic monomer, wherein said hydrophilic monomer is selected from hydroxy(C 1 -C 5)alkyl (meth)acrylates, N-vinyl amides, amino group containing monomers, or mixtures thereof; wherein said hydrophobic monomer is selected from esters of (meth)acrylic acid with alcohols containing 1 to 30 carbon atoms, vinyl esters of aliphatic carboxylic acids containing 1 to 22 carbon atoms, vinyl ethers of alcohols containing 1 to 22 carbon atoms, vinyl aromatic monomers, vinyl halides, vinylidene halides, associative monomers, semi-hydrophobic monomers, or mixtures thereof.
A method for manufacturing a dielectric element comprising the steps of: preparing a lower electrode; forming a dielectric having a perovskite type structure and including one or more of Ba, Sr, Ca, Pb, Ti, Zr, and Hf on the lower electrode to fabricate a first laminated structure; annealing the first laminated structure; forming an upper electrode composed of Ni on the dielectric film to fabricate a second laminated structure; and annealing the second laminated structure under a reduced pressure atmosphere at a temperature of 150°C to 450°C. preparing a lower electrode; forming a dielectric having a perovskite type structure and including one or more of Ba, Sr, Ca, Pb, Ti, Zr, and Hf on the lower electrode to fabricate a first laminated structure; annealing the first laminated structure; forming an upper electrode composed of Ni on the dielectric film to fabricate a second laminated structure; and annealing the second laminated structure under a reduced pressure atmosphere at a temperature of 150°C to 450°C.
Tap for delivering liquids from a container comprising: - a main body (3, 11) configured to be placed at a delivery end of the container; - a valve inserted between a lower fastening body (4, 6, 12) and the main body (3, 11), said valve comprising slits (5.2) configured to ensure an air-tightness allowing liquids to pass only when opening the tap; - the lower fastening body (4, 6, 12), configured to block the valve and allow its correct opening, fastened to the main body (3, 11) on its lower side configured to be placed on the delivery end of the container; and - an upper plug or cap (2, 7, 10) placed over the main body (3, 11); characterized in that: - the main body (3, 11) comprises a tamper evident warranty ring (3.1, 11.1) integrated and removable when first opening the tap; and - the upper plug (2, 7, 10) is assembled on the main body (3, 11) and anchored to the warranty ring (3.1, 11.1) integrated in the main body (3, 11). - a main body (3, 11) configured to be placed at a delivery end of the container; - a valve inserted between a lower fastening body (4, 6, 12) and the main body (3, 11), said valve comprising slits (5.2) configured to ensure an air-tightness allowing liquids to pass only when opening the tap; - the lower fastening body (4, 6, 12), configured to block the valve and allow its correct opening, fastened to the main body (3, 11) on its lower side configured to be placed on the delivery end of the container; and - an upper plug or cap (2, 7, 10) placed over the main body (3, 11); characterized in that: - the main body (3, 11) comprises a tamper evident warranty ring (3.1, 11.1) integrated and removable when first opening the tap; and - the upper plug (2, 7, 10) is assembled on the main body (3, 11) and anchored to the warranty ring (3.1, 11.1) integrated in the main body (3, 11). - the main body (3, 11) comprises a tamper evident warranty ring (3.1, 11.1) integrated and removable when first opening the tap; and - the upper plug (2, 7, 10) is assembled on the main body (3, 11) and anchored to the warranty ring (3.1, 11.1) integrated in the main body (3, 11).
A digester module comprising a movable methanization container, comprising a receptacle for receiving organic matter such as agricultural waste, a sealed cover, a sealed door, and a fermentation gas recovery connector, the receptacle, the cover and the door being hermetic and thermally insulated, said receptacle comprising a plurality of sensors, selected from the group comprising pressure sensors, temperature sensors and liquid level sensors, and connection means which are disposed outside said receptacle, for connecting these sensors to an electrical circuit, said connection means (47, 49) being grouped in the same area of said container, easily accessible.
Table having three legs (10, 20, 30) and a foldable table top, which table stands on the three legs (10, 20, 30) thereof even when the table top is folded up, the legs (10, 20, 30) converging towards the table top in a lower region and obliquely diverging towards the table top in an upper region, and two of the three legs (10, 20) being connected to the table top via pivoted joints and the third leg being composed of a lower and an upper part, the upper part comprising the upper region of the third leg, being detachably connected to the table top and being rotatable with respect to the lower part, characterised in that the upper part of the third leg is rotatable about the longitudinal axis of the lower part with respect to the lower part.
A light collection arrangement for an analyzer apparatus for analysis of elemental composition of a sample using optical emission spectroscopy, the light collection arrangement provided for transferring optical emission from a target position to a detector interface of a detector assembly, the light collection arrangement comprising: an optical subsystem and an optical fiber assembly for transferring light between its first end and its second end, wherein the optical subsystem is arranged to transfer the optical emission from the target position to the first end of the optical fiber assembly and wherein the second end of the optical fiber assembly is coupled to the detector interface, characterized in that the second end of the optical fiber assembly comprises a second opaque mask arranged to cover the fiber core on the second end of the optical fiber assembly apart from a transparent slit that allows for the optical emission to exit the fiber core. an optical subsystem and an optical fiber assembly for transferring light between its first end and its second end, wherein the optical subsystem is arranged to transfer the optical emission from the target position to the first end of the optical fiber assembly and wherein the second end of the optical fiber assembly is coupled to the detector interface, characterized in that the second end of the optical fiber assembly comprises a second opaque mask arranged to cover the fiber core on the second end of the optical fiber assembly apart from a transparent slit that allows for the optical emission to exit the fiber core.