mhurhangee/ep-ind-claims huggingface dataset:
Solar reactor comprising a shell delimiting a reaction chamber, the shell comprising a lower part in the form of a straight cone continued at its tip by an injection inlet for gaseous reactants and an upper part in the form of a blind straight cylinder, the cone and/or the lateral surface of the blind cylinder comprising two lateral holes, of which one is continued by an injection tube for solid reactants and the other is continued by an outlet tube for products resulting from the reaction, the end wall of the blind cylinder, of which the outer face is intended to receive the solar radiation, having an inner face, characterized in that the inner face is intended to be struck by the jet of gaseous reactants, the inner face having a structured surface, the structured surface being a textured surface or a flat surface with one or more ribs and/or grooves.
An assembly comprising: a variable geometry mechanism comprising rotatable vanes (260, 360, 460); and a base configured to seat the vanes at a radial distance about an axis, wherein each vane comprises a leading edge and a trailing edge; a pair of lateral surfaces (363, 364) that meet at the leading edge and at the trailing edge; an extension that extends from one of the lateral surfaces and that comprises a contact surface, characterized in the extension defining a dimension of a flow passage for a minimum flow position of the vanes; and a stop surface to form a contact with a contact surface of another vane to define a minimum flow distance between the vane and the other vane. a variable geometry mechanism comprising rotatable vanes (260, 360, 460); and a base configured to seat the vanes at a radial distance about an axis, wherein each vane comprises a leading edge and a trailing edge; a pair of lateral surfaces (363, 364) that meet at the leading edge and at the trailing edge; an extension that extends from one of the lateral surfaces and that comprises a contact surface, characterized in the extension defining a dimension of a flow passage for a minimum flow position of the vanes; and a stop surface to form a contact with a contact surface of another vane to define a minimum flow distance between the vane and the other vane. a leading edge and a trailing edge; a pair of lateral surfaces (363, 364) that meet at the leading edge and at the trailing edge; an extension that extends from one of the lateral surfaces and that comprises a contact surface, characterized in the extension defining a dimension of a flow passage for a minimum flow position of the vanes; and a stop surface to form a contact with a contact surface of another vane to define a minimum flow distance between the vane and the other vane.
A mobile communication system comprising: a radio base station apparatus configured to perform communication with a mobile terminal; a location information management apparatus configured to acquire location information of the mobile terminal; and a processing apparatus configured to change an operation state of the radio base station apparatus, using one message of at least one protocol of RANAP, HNBAP, and S1AP, which are supported by the radio base station apparatus, by changing at least one of intensity, type of signal, and cycle for emission of radio waves emitted from the radio base station apparatus or by setting the radio base station apparatus in such a manner that the radio base station apparatus does not emit radio waves based on location information of the mobile terminal acquired by the location information management apparatus, wherein the processing apparatus is configured to determine one or more parameters of the message based on location information and transmit the message to the radio base station apparatus, said one or more parameters indicating to which state the operation state should be changed, and wherein the radio base station apparatus is configured to receive the message from the processing apparatus and change the operation state using the parameters of the message. a radio base station apparatus configured to perform communication with a mobile terminal; a location information management apparatus configured to acquire location information of the mobile terminal; and a processing apparatus configured to change an operation state of the radio base station apparatus, using one message of at least one protocol of RANAP, HNBAP, and S1AP, which are supported by the radio base station apparatus, by changing at least one of intensity, type of signal, and cycle for emission of radio waves emitted from the radio base station apparatus or by setting the radio base station apparatus in such a manner that the radio base station apparatus does not emit radio waves based on location information of the mobile terminal acquired by the location information management apparatus, wherein the processing apparatus is configured to determine one or more parameters of the message based on location information and transmit the message to the radio base station apparatus, said one or more parameters indicating to which state the operation state should be changed, and wherein the radio base station apparatus is configured to receive the message from the processing apparatus and change the operation state using the parameters of the message.
A dual mode accommodative-disaccommodative intraocular lens, i.e. a dual mode AD-IOL, comprising: a haptic system comprising a plurality of closed-loop haptics having shape memory; a shape-shifting flexible optic comprising an anterior optic capsule and a posterior optic capsule, fused together at a fusion zone (195, 290), thereby defining therebetween an optic vesicle filled with a fluid, wherein (i) the haptics are attached to the optic, allowing an action of the haptics to alter a shape of the optic, (ii) the shape-shifting flexible optic has a diameter of ≤ 8 mm and (iii) the dual mode AD-IOL, at rest, in the absence of a disaccommodative force exercised on the AD-IOL, is in a fully accommodated configuration as a result of at least one of the shape memory of the haptic system and a shape-shifting capability of the flexible optic, wherein the AD-IOL is a dual mode AD-IOL in that the haptics and the optic have a dual mode of action providing both an axial shift of the optic and a shape shift of the optic; and a restraining component sized and configured to immobilize the haptic in at least one of a flatter angle and a larger diameter in a disaccommodated configuration of the AD-IOL, when compared to the accommodated configuration. a haptic system comprising a plurality of closed-loop haptics having shape memory; a shape-shifting flexible optic comprising an anterior optic capsule and a posterior optic capsule, fused together at a fusion zone (195, 290), thereby defining therebetween an optic vesicle filled with a fluid, wherein (i) the haptics are attached to the optic, allowing an action of the haptics to alter a shape of the optic, (ii) the shape-shifting flexible optic has a diameter of ≤ 8 mm and (iii) the dual mode AD-IOL, at rest, in the absence of a disaccommodative force exercised on the AD-IOL, is in a fully accommodated configuration as a result of at least one of the shape memory of the haptic system and a shape-shifting capability of the flexible optic, wherein the AD-IOL is a dual mode AD-IOL in that the haptics and the optic have a dual mode of action providing both an axial shift of the optic and a shape shift of the optic; and a restraining component sized and configured to immobilize the haptic in at least one of a flatter angle and a larger diameter in a disaccommodated configuration of the AD-IOL, when compared to the accommodated configuration.
A method for operating an automation system, wherein the automation system comprises a drive system comprising a rotor and an optical projection unit, wherein a control system of the automation system carries out the following steps: - determining a position information of the rotor; - linking the rotor to an object to be displayed, said object comprising a display information; - rendering a projection to be displayed by the optical projection unit based on the position information of the rotor and the object to be displayed, wherein the projection to be displayed generates an image; - outputting the rendered projection (110, 111) to the optical projection unit, so that the optical projection unit outputs the rendered projection (110, 111) on a surface and/or on the rotor or its superstructures and/or transport goods of the drive system, characterized in that the drive system is a planar drive system comprising a planar stator and a rotor movable in at least two directions, wherein the rotor may be driven with the aid of a drive of the stator, wherein the position information comprises a distance of a rotor surface to a surface and wherein the distance is taken into account during rendering of the projection to be displayed. - determining a position information of the rotor; - linking the rotor to an object to be displayed, said object comprising a display information; - rendering a projection to be displayed by the optical projection unit based on the position information of the rotor and the object to be displayed, wherein the projection to be displayed generates an image; - outputting the rendered projection (110, 111) to the optical projection unit, so that the optical projection unit outputs the rendered projection (110, 111) on a surface and/or on the rotor or its superstructures and/or transport goods of the drive system,
A system for simultaneously preparing alcohol-free wine and high-alcohol liquor, comprising a primary membrane separation system and a secondary membrane separation system, wherein an inlet of the primary membrane separation system is connected to feeds, and a permeate side of the primary membrane separation system is connected to an inlet of the secondary membrane separation system; and both the primary membrane separation system and the secondary membrane separation system comprise an organic-permselective pervaporation membrane; characterised in that the organic-permselective pervaporation membrane consists of a basement membrane and a separation layer; the pore size of the basement membrane is 5nm-80nm; the material of the basement membrane is sulfonated poly(aryl ether ketone) selected from sulfonated polyether ketone and sulfonated polyether ketone ether ketone ketone; and the material of the separation layer comprises hydrophobic nano titanium dioxide and amino-terminated modified polydimethylsiloxane, the ammonia value of the amino-terminated polydimethylsiloxane being 0.2-0.8. both the primary membrane separation system and the secondary membrane separation system comprise an organic-permselective pervaporation membrane; characterised in that the organic-permselective pervaporation membrane consists of a basement membrane and a separation layer; the pore size of the basement membrane is 5nm-80nm; the material of the basement membrane is sulfonated poly(aryl ether ketone) selected from sulfonated polyether ketone and sulfonated polyether ketone ether ketone ketone; and the material of the separation layer comprises hydrophobic nano titanium dioxide and amino-terminated modified polydimethylsiloxane, the ammonia value of the amino-terminated polydimethylsiloxane being 0.2-0.8.
A method for preparing aluminosilicate zeolite SSZ-56 comprising contacting under crystallization conditions at least one source of silicon; at least one source of aluminum; hydroxide ions; a 1-butyl-1-(3,3,5-trimethylcyclohexyl)piperidinium cation; and at least one source of an element selected from Groups 1 and 2 of the Periodic Table.
A camera module for a motor vehicle, comprising a lens objective, a housing comprising a back plate and a lens holder, wherein said back plate carries an image sensor within the housing, wherein said lens holder is mounted to said back plate and holds said lens objective such that said image sensor is arranged in or close to an image plane of the lens objective, characterized in that the back plate comprises at least one bi-material element holding said image sensor, said bi-material element having at least two layers (33, 34) of materials having different thermal properties and being connected together such that the bi-material element is adapted to bend with changing temperature, wherein the layers (33, 34) are formed by layers of a sandwiched structure comprising a metal layer which is a copper layer, and a non-metal composite layer, wherein the bending properties of the bi-material element are tuned by adjusting the copper coverage in the copper layer of the sandwiched structure.
A three-dimensional image displaying apparatus comprising: a display device configured to display an image for checking a stereoscopic effect showing different parallax amounts, at least two of which have different depths of basic representation spaces defined by nearer-position limit parallax and farther-position limit parallax, and each parallax amount providing a stereoscopic effect different from those of the other parallax amounts, a selected parallax amount included in the parallax amounts being used when a three-dimensional image perceived by a user is displayed; a receiving unit configured to receive a user's instruction to select, from the plurality of parallax amounts, an appropriate parallax amount as a range, so that the limit parallaxes on the nearer-position side and the farther-position side are determined, the parallax amount being selected based on the image being displayed; and a control unit (114, 152, 170) configured to adjust a parallax among a plurality of viewpoint images in accordance with the user's instruction. a display device configured to display an image for checking a stereoscopic effect showing different parallax amounts, at least two of which have different depths of basic representation spaces defined by nearer-position limit parallax and farther-position limit parallax, and each parallax amount providing a stereoscopic effect different from those of the other parallax amounts, a selected parallax amount included in the parallax amounts being used when a three-dimensional image perceived by a user is displayed; a receiving unit configured to receive a user's instruction to select, from the plurality of parallax amounts, an appropriate parallax amount as a range, so that the limit parallaxes on the nearer-position side and the farther-position side are determined, the parallax amount being selected based on the image being displayed; and a control unit (114, 152, 170) configured to adjust a parallax among a plurality of viewpoint images in accordance with the user's instruction.
A hot-melt adhesive having: - a viscosity between 6000-15000 mPas at 190°C; - softening point of between 100-140°C measured using the Ring and Ball method according to ASTM E28 - an open time of between 5-35 seconds; - an application temperature of 150-200°C comprising: - 10-70% of amorphous polyalphaolefins; - 5-30% of another polymer selected from: ∘ ethylene / vinyl acetate, ∘ ethylene / methyl acrylate, ∘ styrene/ isoprene / styrene, ∘ styrene / butane / isoprene, ∘ isotactic polypropylene, ∘ syndiotactic polypropylene, ∘ amorphous polypropylene, and ∘ amorphous polyethylene, - 10-55% of a tackifying resin or a mixture of tackifying resins; - 0-20% of waxes; - 0-30% of other additives such as plasticizers and/or antioxidants and - malonic acid, characterized in that the concentration of malonic acid is up to5%. - a viscosity between 6000-15000 mPas at 190°C; - softening point of between 100-140°C measured using the Ring and Ball method according to ASTM E28 - an open time of between 5-35 seconds; - an application temperature of 150-200°C - 10-70% of amorphous polyalphaolefins; - 5-30% of another polymer selected from: ∘ ethylene / vinyl acetate, ∘ ethylene / methyl acrylate, ∘ styrene/ isoprene / styrene, ∘ styrene / butane / isoprene, ∘ isotactic polypropylene, ∘ syndiotactic polypropylene, ∘ amorphous polypropylene, and ∘ amorphous polyethylene, ∘ ethylene / vinyl acetate, ∘ ethylene / methyl acrylate, ∘ styrene/ isoprene / styrene, ∘ styrene / butane / isoprene, ∘ isotactic polypropylene, ∘ syndiotactic polypropylene, ∘ amorphous polypropylene, and ∘ amorphous polyethylene, - 10-55% of a tackifying resin or a mixture of tackifying resins; - 0-20% of waxes; - 0-30% of other additives such as plasticizers and/or antioxidants and - malonic acid,
An electricity meter comprising: · a converter configured to synchronously modulate current and voltage measurement signals (12, 14) and output synchronously-modulated current and voltage measurement signals (34, 35) wherein the converter comprises - first and second modulators (22, 23) configured to synchronously modulate the current and voltage measurement signals, respectively, and to output the synchronously-modulated current and voltage measurement signals, respectively; and · a measurement module configured to receive the synchronously-modulated current and voltage measurement signals from the converter and to process the synchronously-modulated current and voltage measurement signals, wherein the measurement module comprises: - first and second analogue-to-digital converters (37, 38) for digitising the synchronously-modulated current and voltage measurement signals (34, 35), respectively and outputting digitised, synchronously-modulated current and voltage measurement signals (44, 45). · a converter configured to synchronously modulate current and voltage measurement signals (12, 14) and output synchronously-modulated current and voltage measurement signals (34, 35) wherein the converter comprises - first and second modulators (22, 23) configured to synchronously modulate the current and voltage measurement signals, respectively, and to output the synchronously-modulated current and voltage measurement signals, respectively; and - first and second modulators (22, 23) configured to synchronously modulate the current and voltage measurement signals, respectively, and to output the synchronously-modulated current and voltage measurement signals, respectively; and · a measurement module configured to receive the synchronously-modulated current and voltage measurement signals from the converter and to process the synchronously-modulated current and voltage measurement signals, wherein the measurement module comprises: - first and second analogue-to-digital converters (37, 38) for digitising the synchronously-modulated current and voltage measurement signals (34, 35), respectively and outputting digitised, synchronously-modulated current and voltage measurement signals (44, 45). - first and second analogue-to-digital converters (37, 38) for digitising the synchronously-modulated current and voltage measurement signals (34, 35), respectively and outputting digitised, synchronously-modulated current and voltage measurement signals (44, 45).
An angle of rotation measuring apparatus for detecting an angle of rotation between two objects rotating relative to one another comprising a magnetic or inductive measurement scale having a characteristic magnetic field; a magnetic field measuring unit for detecting the characteristic magnetic field of the magnetic or inductive measurement scale during its rotation; an inertial measuring unit for detecting a linear and/or rotary acceleration about at least one axis of the angle of rotation measuring device; and an evaluation unit for determining the angle of rotation from detected data, wherein the evaluation unit combines the data of the magnetic field measuring unit and of the inertial measuring unit and determines the angle of rotation from the combination of the data, characterized in that the magnetic field measuring unit comprises at least two magnetic field sensors that are preferably arranged at an angle of 90° with respect to one another and in each case at an orientation of 45° to the magnetic axis of the characteristic magnetic field and the inertial measuring unit comprises at least one angular rate sensor or at least two acceleration sensors or at least one angular rate sensor and at least two acceleration sensors; and wherein the magnetic field measuring unit, the inertial measuring unit, and the control unit are arranged on a sensor chip.
A method for monitoring quality of fluids, comprising: measuring different features of a fluid with at least two different methods, wherein the at least two different methods comprise at least one optical absorption measurement and at least one electron paramagnetic resonance measurement; the method for monitoring quality of fluids characterized in that it comprises deriving a measure for the quality of the fluid and/or identifying a process of deterioration of the fluid, by combining a result of measurement of one method with a result of measurement of the other method of the at least two different methods. measuring different features of a fluid with at least two different methods, wherein the at least two different methods comprise at least one optical absorption measurement and at least one electron paramagnetic resonance measurement; the method for monitoring quality of fluids characterized in that it comprises deriving a measure for the quality of the fluid and/or identifying a process of deterioration of the fluid, by combining a result of measurement of one method with a result of measurement of the other method of the at least two different methods.
A lysis solution for selectively lysing animal cells in a sample comprising animal cells and microbial and/or plant cells containing less than 2 M of chaotropic substances, comprising at least one saponin in a total amount ranging of from 5% to 15% (w/v), a water-soluble salt selected from acetates, sulfates, glutamates and mixture thereof in an amount of from 50 to 850 mM, a viscosity modifying agent being selected from sucrose and glucose or a mixture thereof in an amount ranging of from 300 to 1.000 mM and optionally a polyanionic sulfonate.
Cooling device, particularly a domestic refrigerator, comprising a storage space defined by a body and by a door, further comprising an air channel (41,41a,41b) formed within a space at least partially filled with isolation material between an inner wall of the storage space and an outer wall (44,44a,44b) of the cooling device, further comprising at least one opening provided on the inner wall (40,40a,40b) and opened to the air channel (41,41a,41b), comprising a baffle positioned completely within the air channel (41,41a,41b), whereas the baffle comprises a support element facing a rear surface or rear side of the inner wall (40,40a,40b) and supporting the inner wall (40,40a,40b), wherein the baffle comprises a support element contacting a wall segment of the air channel, characterized in that the support element of the baffle contacts a wall segment of a rear wall of the air channel, lying opposite the opening of the inner wall, thus preventing the baffle from being pushed or deflected towards that rear wall.
Accessory (100, 300) for high voltage direct current (HVDC) energy cables comprising: - at least one element made from a crosslinked elastomeric polymer material (13, 15a, 15b, 33, 35), and - at least one scavenging layer (16, 36) comprising zeolite particles; wherein the zeolite particles have: a SiO 2 /Al 2 O 3 molar ratio equal to or lower than 20; and a sodium content, expressed as Na 2 O, equal to or lower than 0.3% by weight. - at least one element made from a crosslinked elastomeric polymer material (13, 15a, 15b, 33, 35), and - at least one scavenging layer (16, 36) comprising zeolite particles;