mhurhangee/ep-ind-claims huggingface dataset:
Device for testing a solar generator of a satellite or solar drone, the solar generator comprising a matrix of single-junction or multi-junction solar cells, each junction being adapted to convert photons of a respective wavelength band into electric current, the test device comprising: - a lighting device adapted to emit light in each of the electric conversion wavelength bands of the junction or junctions of solar cells, the lighting device comprising a matrix of light sources, comprising at least one row of light sources, each light source of the matrix being adapted to emit light in at least one electric conversion wavelength band of the junction or junctions of solar cells, - a control unit of the matrix of light sources, adapted to control the lighting and the extinction of each of the light sources of the matrix individually, the matrix of light sources also being configured so as to be able to illuminate selectively each solar cell of the solar generator by lighting one or more light sources of the matrix, and the lighting device being configured to be able to illuminate each solar cell of the solar generator with a surface light power received by the solar cell higher than at least 130 W/m 2. - a lighting device adapted to emit light in each of the electric conversion wavelength bands of the junction or junctions of solar cells, the lighting device comprising a matrix of light sources, comprising at least one row of light sources, each light source of the matrix being adapted to emit light in at least one electric conversion wavelength band of the junction or junctions of solar cells, - a control unit of the matrix of light sources, adapted to control the lighting and the extinction of each of the light sources of the matrix individually,
Assembly formed from a first timepiece component selected from a pallet (1, 2), a wheel, in particular an escapement wheel, a hand or a bridge for a timepiece, from a second timepiece component and from a lubricant, the first timepiece component comprising a working surface (20; 50; 70) intended to come into sliding and/or pivoting contact with the second timepiece component and at least one first zone (10, 11; 51; 71) distinct from and outside of the working surface (20; 50; 70), the lubricant being intended to improve said contact at the working surface of the first component, characterised in that the first zone (10, 11; 51; 71) of the first timepiece component has first surface texturing with an epilame effect rendering the first zone (10, 11; 51; 71) more oleophobic and/or hydrophobic than the working surface (20; 50; 70); in that the first surface texturing is formed of microcavities, distributed in a regular or irregular manner, and arranged so that the surface of the first zone (10, 11; 51; 71) between these microcavities is a continuous surface; and in that the first texturing is selected so that, for said lubricant, the delta of wettability between the first zone (10, 11; 51; 71) and the working surface (20; 50; 70), defined by the difference in absolute value between the spreading factor of the lubricant on the surface of the first zone (10, 11; 51; 71) and the spreading factor of the lubricant on the working surface (20; 50; 70) is between 10 and 40 mN/m, preferably 30 mN/m.
A cosmetic composition in the form of nanofibres characterized by that it comprises nanofibres containing hyaluronic acid or a pharmaceutically acceptable salt thereof in the range of 50 to 90 wt.%, having the molecular weight within the range of 1x10 4 to 3 x 10 5 g/mol, and at least one carrier polymer selected from the group consisting of polyethylene oxide, polyvinyl alcohol.
A transducer (100, 216, 416, 516) for detecting a target substance (102, 202a, 202b, 302a, 302b, 402, 502', 502"), the transducer comprising: one or more first filters (106, 206, 306, 406, 506) configured to transmit electromagnetic radiation at preselected wavelengths to obtain filtered electromagnetic radiation; and one or more chambers (112, 212, 312, 412, 512) disposed within an optical path of the one or more first filters; wherein the one or more chambers are configured to shift an energy of the filtered electromagnetic radiation from the preselected wavelengths to wavelengths different from the preselected wavelengths, and to emit electromagnetic radiation at the wavelengths different from the preselected wavelengths. one or more first filters (106, 206, 306, 406, 506) configured to transmit electromagnetic radiation at preselected wavelengths to obtain filtered electromagnetic radiation; and one or more chambers (112, 212, 312, 412, 512) disposed within an optical path of the one or more first filters;
A steam turbine comprising a stator and a rotor with a metal sealing material disposed in a gap between the stator and the rotor, said sealing material comprises a porous metal layer, and the porous metal layer comprises a surface layer directly coming into contact with a working fluid and a lower layer lying under the surface layer, wherein the porosity of the surface layer is smaller than the porosity of the lower layer, characterized in that the porosity of the surface layer is 60 to 65% and the porosity of the lower layer is 67 to 75%, the porous metal layer comprises, as a main component, an MCrAlY alloy where M is either one of Ni and Co or both thereof, wherein the MCrAlY alloy comprises 15 to 30% of Cr, 6 to 15% of Al, 0.3 to 1.0% of Y and the balance comprising either one of Ni and Co or both thereof.
A folding support handle assembly comprising a mounting plate for attaching the assembly to a wall, the mounting plate being provided with a bearing block for forming a pivot bearing assembly having a pivot axis between the mounting plate and a handle tube end of a handle tube, said handle tube being pivotable between a non-use position, in which the handle tube is located in an arrangement pivoted against an attachment wall, and a use position, in which the handle tube is arranged so as to project from the attachment wall, the bearing block accommodating, between bearing jaws (28, 29), a connecting piece, which is formed at the handle tube end, so as to form the pivot bearing assembly, the pivot bearing assembly having a first stop device for defining the non-use position and a second stop device for defining the use position, the first stop device being formed between at least one bearing jaw (28, 29) and the connecting piece, characterized in that the second stop device is formed between a free end of a support lever, which is formed by the connecting piece, and a support stop, which is formed on the mounting plate, and that the first stop device is located at a shorter distance from the pivot axis than the second stop device, the first stop device having a stop protrusion, which is arranged eccentrically to the pivot axis and interacts with a correspondingly arranged support stop and is formed by a stop pin, which is oriented parallel to the pivot axis and engages into a stop groove, which runs radially to the pivot axis, a groove end, which is axial with respect to the longitudinal axis of the stop groove, forming the support stop.
Cosmetic non-therapeutic use of a composition containing ozonized oil for cleansing and/or lubrication of the ocular and/or periocular area, wherein said ozonized oil is carried by liposomes or phospholipid micelles and comprises ozonized fatty acids and/or fatty acid triglycerides selected from the group consisting of mono-unsaturated fatty acids C 14 -C 24 polyunsaturated fatty acids C 18 -C 22 and mixtures thereof and/or their triglycerides with from 1 to 3 glycerol molecules.
Drive unit for a setting device, in particular a rivet setting device, - with an electric direct drive comprising motor components, namely a rotor core and a stator core - with a positioning element which is linearly displaceable in an axial direction by the direct drive and is concentrically surrounded by the motor components - with a drive housing extending in the axial direction and having an interior in which the engine components and the positioning element are accommodated, wherein the drive housing has - a first side, which in use is provided as front component side, and a second side, which in use is provided as rear machine side, and further - a main part as well as a guide part connected thereto in a connecting region, wherein the positioning element is guided in the guide part in a rotationally fixed manner, characterized in - that in the connecting region the main part and the guide part, viewed in a plane perpendicular to the axial direction, are designed asymmetrically for an asymmetrical transmission of a torque and for this purpose torque transmission elements for the asymmetrical transmission of the torque are arranged in the connecting region between the guide part and the main part. - with an electric direct drive comprising motor components, namely a rotor core and a stator core - with a positioning element which is linearly displaceable in an axial direction by the direct drive and is concentrically surrounded by the motor components - with a drive housing extending in the axial direction and having an interior in which the engine components and the positioning element are accommodated, wherein the drive housing has - a first side, which in use is provided as front component side, and a second side, which in use is provided as rear machine side, and further - a main part as well as a guide part connected thereto in a connecting region, wherein the positioning element is guided in the guide part in a rotationally fixed manner, characterized in - that in the connecting region the main part and the guide part, viewed in a plane perpendicular to the axial direction, are designed asymmetrically for an asymmetrical transmission of a torque and for this purpose torque transmission elements for the asymmetrical transmission of the torque are arranged in the connecting region between the guide part and the main part.
A method, comprising: determining a contention window size, CWS, of an uplink/downlink, UL/DL, communication channel in a new radio unlicensed, NR-U, spectrum; adjusting the CWS based on: defining a reference burst that is set to span a predetermined time length independent from a subcarrier spacing and partially spanning a UL burst or a DL burst, and counting feedback corresponding to one or more code block groups, CBGs, transmitted in the reference burst; and scheduling a retransmission of a UL burst communication or of a DL burst communication in the NR-U spectrum based on the adjusted CWS. determining a contention window size, CWS, of an uplink/downlink, UL/DL, communication channel in a new radio unlicensed, NR-U, spectrum; adjusting the CWS based on: defining a reference burst that is set to span a predetermined time length independent from a subcarrier spacing and partially spanning a UL burst or a DL burst, and counting feedback corresponding to one or more code block groups, CBGs, transmitted in the reference burst; and defining a reference burst that is set to span a predetermined time length independent from a subcarrier spacing and partially spanning a UL burst or a DL burst, and counting feedback corresponding to one or more code block groups, CBGs, transmitted in the reference burst; and scheduling a retransmission of a UL burst communication or of a DL burst communication in the NR-U spectrum based on the adjusted CWS.
A method for irradiating a moving target volume in objects other than human or animal bodies, or for simulating irradiation of a moving target volume, comprising: - irradiating the target volume such that the target volume is irradiated in a rescanning process in which a beam is repeatedly scanned over the target volume; and - determining a dose distribution that occurred in a region (40, 54) different from the target volume during the irradiation of the target volume, wherein said region (40, 54) is subject to a different movement pattern than the target volume and/or wherein said region (40, 54) is subject to a different motion-related change in particle range than the target volume, wherein the dose distribution occurring during the irradiation in the region (40, 54) different from the target volume is determined based on data recorded during the irradiation; wherein the data recorded during the irradiation comprise first data which are representative for the movement of the target volume; characterized by the steps that the data recorded during the irradiation comprise second data which are representative for the movement of the region (40, 54) different from the target volume; and/or that the data recorded during the irradiation comprise third data which are representative for the movement of a structure that changes the penetration depth of the particle beam; and that a subsequent irradiation of the target volume or an irradiation planning for the target volume is modified based on the dose distribution determined for the region (40, 54) different from the target volume. - irradiating the target volume such that the target volume is irradiated in a rescanning process in which a beam is repeatedly scanned over the target volume; and - determining a dose distribution that occurred in a region (40, 54) different from the target volume during the irradiation of the target volume, wherein said region (40, 54) is subject to a different movement pattern than the target volume and/or wherein said region (40, 54) is subject to a different motion-related change in particle range than the target volume,
A process of preparation of a crosslinked hyaluronan derivative, characterized in that it is carried out by a C-C coupling reaction in water, phosphates buffer or a mixture of an organic acid and an alcohol, and in the presence of a palladium active catalyst, wherein the C-C coupling reaction takes place between a hyaluronan derivative carrying a terminal aryl-halide and/or aryl-borate group, and a hyaluronan derivative carrying an alkenyl or alkynyl group.
Mapping apparatus, comprising: a transmitter, which is configured to emit a beam comprising pulses of light; a scanner, which comprises a rotating micromirror, which is configured to scan the beam, within a predefined scan range, over a scene; a receiver, which is configured to receive the light reflected from the scene and to generate an output indicative of a time of flight of the pulses to and from points in the scene; and a processor, which is coupled to control the scanner so as to cause the beam to scan over a selected window (32, 34, 36) within the scan range and to process the output of the receiver so as to generate a 3D map of a part of the scene that is within the selected window, wherein the processor is configured to select a different window to scan in each scan of the beam by processing the output of the receiver during the first scan so as to generate a first 3D map of the scene and to identify an object in the first 3D map, and selecting the window to scan during a second scan so as to contain the identified object, characterized in that: the processor is configured to drive the scanner to scan the selected window with a frame rate that is higher than during the first scan by varying a speed of rotation of the micromirror over the scan range. a transmitter, which is configured to emit a beam comprising pulses of light; a scanner, which comprises a rotating micromirror, which is configured to scan the beam, within a predefined scan range, over a scene; a receiver, which is configured to receive the light reflected from the scene and to generate an output indicative of a time of flight of the pulses to and from points in the scene; and a processor, which is coupled to control the scanner so as to cause the beam to scan over a selected window (32, 34, 36) within the scan range and to process the output of the receiver so as to generate a 3D map of a part of the scene that is within the selected window, wherein the processor is configured to select a different window to scan in each scan of the beam by processing the output of the receiver during the first scan so as to generate a first 3D map of the scene and to identify an object in the first 3D map, and selecting the window to scan during a second scan so as to contain the identified object, characterized in that: the processor is configured to drive the scanner to scan the selected window with a frame rate that is higher than during the first scan by varying a speed of rotation of the micromirror over the scan range.
Method for determining modifications effected on a substrate layer (1.1) made from an optically transparent substrate, wherein an illumination beam is focused onto at least one surface (1.2, 1.3) of the substrate layer (1.1) using an illumination unit in a line-shaped illumination section, wherein the illumination beam is collimated along the illumination section and is arranged in a plane of incidence at a half opening angle of between one and three degrees symmetrically about the Brewster angle of the substrate and is polarized parallel with respect to the plane of incidence, and wherein the total intensity of at least one measurement beam (5.1, 5.2) that has been reflected at a surface (1.2, 1.3) of the substrate layer (1.1) is captured using a detector unit and compared to at least one total reference intensity measured at a reference test body.
A silicone-rubber bonded object comprising; a three-dimensional silicone rubber elastic substrate having hydroxyl groups on a surface thereof laminated with an adherend substrate having hydroxyl groups on a surface thereof, and the substrates being connected to each other through covalent bonds between the hydroxyl groups of both, wherein the hydroxyl groups of the elastic substrate and the hydroxyl groups of the adherend substrate are combined by the covalent bonds through a reactive-group containing polysiloxane that is connected to both of the hydroxyl groups of the elastic substrate and the adherend substrate, and the reactive-group containing polysiloxane preliminarily-bonded to the hydroxyl group of the three-dimensional silicone rubber elastic substrate is chemically bonded to the hydroxyl group of the adherend substrate by the covalent bonds, and the reactive-group containing polysiloxane comprises; p repeating unit or units of -{O-Si(-A 1)(-B 1)}-, q repeating units of -{O-Ti(-A 2)(-B 2)}-, and r repeating unit or units of -{O-Al(-A 3)}-: wherein in each repeating unit, p is the number of 0 or 2 to 200, q is the number of 2 to 200, r is the number of 0 or 2 to 100, and p+q+r>2; each of -A 1, -A 2 and -A 3 is either one of a group of -CH 3, - C 2 H 5, -CH=CH 2, -CH(CH 3) 2, -CH 2 CH(CH 3) 2, -C(CH 3) 3, -C 6 H 5 or -C 6 H 12, or a reactive group for forming the covalent bond being selected from the group consisting of -OCH 3, -OC 2 H 5, -OCH=CH 2, -OCH(CH 3) 2,-OCH 2 CH(CH 3) 2, -OC(CH 3) 3, -OC 6 H 5 and -OC 6 H 12; each of -B 1 and -B 2 is either one of a group of -N(CH 3)COCH 3 or -N(C 2 H 5) COCH 3, or a reactive group for forming the covalent bond being selected from the group consisting of -OCH 3, -OC 2 H 5, -OCH=CH 2, -OCH(CH 3) 2, -OCH 2 CH(CH 3) 2,-OC(CH 3) 3, -OC 6 H 5, -OC 6 H 12, -OCOCH 3, -OCOCH(C 2 H 5)C 4 H 9, -OCOC 6 H 5,-ON=C(CH 3) 2 and -OC(CH 3)=CH 2; and at least one of the -A 1, -A 2, -A 3,-B 1 and -B 2 in the repeating units having positive number of p, q or r is the reactive group, and the hydroxyl groups are formed on the surfaces by a corona discharge treatment and/or a plasma treatment over the elastic substrate and/or the adherend substrate.
A multi-type air conditioner comprising: an outdoor unit provided with an outdoor controller; a plurality of indoor units (2a, 2b, 2c, 2d) provided with indoor controllers; switching units (4a, 4b, 4c, 4d) for switching operation of the plurality of indoor units (2a, 2b, 2c, 2d); and a main pipe composed of a liquid pipe, a gas ejection pipe and a gas suction pipe for connecting the outdoor unit to the plurality of indoor units (2a, 2b, 2c, 2d) through the switching units (4a, 4b, 4c, 4d), in which an overall cooling operation in which all the indoor units (2a, 2b, 2c, 2d) performs a cooling operation, an overall heating operation in which all the indoor units (2a, 2b, 2c, 2d) performs a heating operation and a simultaneous cooling/heating operation in which the indoor units perform cooling and heating operation simultaneously, wherein the outdoor unit constitutes an outdoor heat exchanging unit including a first outdoor heat exchanger used as a condenser in the cooling operation and used as an evaporator in the heating operation and a second outdoor heat exchanger used as a condenser in the simultaneous cooling/ heating, operation, characterized in that the second outdoor heat exchanger is disposed on an upstream side of the first outdoor heat exchanger in an air flow direction. an outdoor unit provided with an outdoor controller; a plurality of indoor units (2a, 2b, 2c, 2d) provided with indoor controllers; switching units (4a, 4b, 4c, 4d) for switching operation of the plurality of indoor units (2a, 2b, 2c, 2d); and a main pipe composed of a liquid pipe, a gas ejection pipe and a gas suction pipe for connecting the outdoor unit to the plurality of indoor units (2a, 2b, 2c, 2d) through the switching units (4a, 4b, 4c, 4d), in which an overall cooling operation in which all the indoor units (2a, 2b, 2c, 2d) performs a cooling operation, an overall heating operation in which all the indoor units (2a, 2b, 2c, 2d) performs a heating operation and a simultaneous cooling/heating operation in which the indoor units perform cooling and heating operation simultaneously, wherein the outdoor unit constitutes an outdoor heat exchanging unit including a first outdoor heat exchanger used as a condenser in the cooling operation and used as an evaporator in the heating operation and a second outdoor heat exchanger used as a condenser in the simultaneous cooling/ heating, operation, characterized in that the second outdoor heat exchanger is disposed on an upstream side of the first outdoor heat exchanger in an air flow direction.
A soluble recombinant heteromultimer comprising a TGFβ superfamily type I receptor polypeptide and a TGFβ superfamily type II receptor polypeptide, wherein the TGFβ superfamily type I receptor polypeptide is an ALK3 polypeptide, and wherein the TGFβ superfamily type II receptor polypeptide is an ActRIIB polypeptide, wherein the ALK3 polypeptide comprises an amino acid sequence that is at least 85% identical to amino acids 61-130 of SEQ ID NO: 22, and wherein the ActRIIB polypeptide comprises an amino acid sequence that is at least 85% identical to amino acids 29-109 of SEQ ID NO: 1, wherein the ALK3 polypeptide is a fusion protein further comprising a heterologous domain, wherein the ActRIIB polypeptide is a fusion protein further comprising a heterologous domain, and wherein the heteromultimer binds to one or more of activin B, BMP4 and GDF8.