mhurhangee/ep-ind-claims huggingface dataset:
A device for winding a screen including: - a tubular winder defining a reference axis; - a first wall attachment for fastening a first axial end portion of the tubular winder to a first wall, in a use position of the screen winding device; and - a second wall attachment for fastening a second axial end portion of the tubular winder to a second wall, in the use position of the screen winding device; the first wall attachment comprising at least a first hinge between at least one fastening tab for fastening to the first wall and at least one intermediate tab on which the tubular winder is mounted, the first hinge being able to guide pivoting of the tubular winder around a first axis of articulation, characterized in that the first wall attachment comprise a second hinge, the second hinge being able to guide pivoting of the tubular winder around a second axis of articulation. - a tubular winder defining a reference axis; - a first wall attachment for fastening a first axial end portion of the tubular winder to a first wall, in a use position of the screen winding device; and - a second wall attachment for fastening a second axial end portion of the tubular winder to a second wall, in the use position of the screen winding device;
. A lighting apparatus for vehicles, having a light source device including a light source and a light source carrier, having an optics device for generating a predetermined light distribution and having a cooling device for the light source, wherein the light source is fastened in a reference aligning position relative to the optics device, wherein the light source carrier can be moved relative to the optics device in the reference aligning position for the orientation of the light source with respect to the optics device and, lastly, is fastened by means of a screw connection in the reference aligning position between an abutment surface of the optics device and an abutment surface of the cooling device, wherein the light source carrier is positioned via at least two bearing points (20, 21, 22) which are arranged to be distributed in a plane of extent receiving the abutment surface of the optics device, wherein the light source carrier is planar and has at least two bore holes (19, 19', 19") in which a lug projecting from the abutment surface of the optics device engages in each instance, which each form the bearing points (20, 21, 22) for the light source carrier, wherein the cooling device has a receiving recess for receiving the respective lugs, wherein an inside diameter of the receiving recess is larger than an outside diameter of the lugs, characterized in that the lugs of the optics device have an internal thread, the cooling device has bore holes aligned with the lugs of the optics device at the bearing points (20, 21, 22) for the partial engagement of fastening screws of the screw connection in the lugs, wherein a shaft of the fastening screw is in threaded engagement with the respective lug.
An in vitro method for preparing a hair dermal papilla cell preparation comprising: providing a cell suspension by removing epidermal tissue from skin tissue and subjecting the resulting dermal tissue fraction to collagenase treatment, and cryopreserving the cell suspension to kill the follicular epidermal cells.
Section insulator (1, 1') for an overhead contact line arranged for being placed between two isolated sections of said overhead contact line, said section insulator (1, 1') comprising: - an insulating element placed between two contact wires (6a, 6b) of two adjacent sections of an overhead line; - two clamps (16, 18) respectively connected on one side to a respective contact wire (6a, 6b) and on the other side to a connecting plate arranged for being in turn connected to the insulating element, so that the tensile force due to the contact wires (6a, 6b) applies along the axis of the insulating bar; - supporting means directly connected to the insulating element through the connecting plates and arranged for supporting the section insulator (1, 1') to the overhead line, characterised in that the section insulator (1, 1') also comprises - two spacers fixed at one end to a respective slideway (8, 10) and at the other end to the respective connecting plate; - two pins placed next to the respective spacer and fixed to the connecting plate, arranged to connect the respective clamp to the respective connecting plate not rigidly, so that the clamp can absorb the vibrations of the contact wire (6a, 6b). - an insulating element placed between two contact wires (6a, 6b) of two adjacent sections of an overhead line; - two clamps (16, 18) respectively connected on one side to a respective contact wire (6a, 6b) and on the other side to a connecting plate arranged for being in turn connected to the insulating element, so that the tensile force due to the contact wires (6a, 6b) applies along the axis of the insulating bar; - supporting means directly connected to the insulating element through the connecting plates and arranged for supporting the section insulator (1, 1') to the overhead line, characterised in that the section insulator (1, 1') also comprises - two spacers fixed at one end to a respective slideway (8, 10) and at the other end to the respective connecting plate; - two pins placed next to the respective spacer and fixed to the connecting plate, arranged to connect the respective clamp to the respective connecting plate not rigidly, so that the clamp can absorb the vibrations of the contact wire (6a, 6b).
A method for operating an hyphenated instrument comprising: a. conducting a first measurement of a sample using a first instrument; b. generating a timing program based on the first measurement; c. controlling the size of a vacuum inlet of a second instrument according to the timing program; and d. conducting a second measurement of at least some part of the sample using the second instrument. a. conducting a first measurement of a sample using a first instrument; b. generating a timing program based on the first measurement; c. controlling the size of a vacuum inlet of a second instrument according to the timing program; and d. conducting a second measurement of at least some part of the sample using the second instrument.
A method of recovering metals comprising: applying a voltage or an electrical current to an electrolytic cell comprising: an anode disposed in an anodic chamber; a cathode disposed in a cathodic chamber; a separator disposed between the anode and the cathode to physically separate the anodic and cathodic chambers (25, 15), the separator allowing the transport of ions between the anodic and cathodic chambers (25, 15); an anolyte disposed within the anodic chamber, comprising a sacrificial reductant which lowers the electrochemical potential in the electrolytic cell, wherein the anolyte has a basic pH; a catholyte disposed within the cathodic chamber, comprising at least one or more metallic ions dissolved therein, wherein the catholyte has an acidic pH; and an electrical connection between the anode and the cathode, wherein the voltage or the electrical current is applied to the electrolytic cell across the cathode and the anode via the electrical connection, wherein the voltage or the electrical current is sufficient to reduce the at least one or more metallic ions to form at least one or more elemental metal species at the cathode, and to oxidize the sacrificial reductant at the anode. applying a voltage or an electrical current to an electrolytic cell comprising: an anode disposed in an anodic chamber; a cathode disposed in a cathodic chamber; a separator disposed between the anode and the cathode to physically separate the anodic and cathodic chambers (25, 15), the separator allowing the transport of ions between the anodic and cathodic chambers (25, 15); an anolyte disposed within the anodic chamber, comprising a sacrificial reductant which lowers the electrochemical potential in the electrolytic cell, wherein the anolyte has a basic pH; a catholyte disposed within the cathodic chamber, comprising at least one or more metallic ions dissolved therein, wherein the catholyte has an acidic pH; and an electrical connection between the anode and the cathode, an anode disposed in an anodic chamber; a cathode disposed in a cathodic chamber; a separator disposed between the anode and the cathode to physically separate the anodic and cathodic chambers (25, 15), the separator allowing the transport of ions between the anodic and cathodic chambers (25, 15); an anolyte disposed within the anodic chamber, comprising a sacrificial reductant which lowers the electrochemical potential in the electrolytic cell, wherein the anolyte has a basic pH; a catholyte disposed within the cathodic chamber, comprising at least one or more metallic ions dissolved therein, wherein the catholyte has an acidic pH; and an electrical connection between the anode and the cathode,
An air anomaly alarming method, comprising: acquiring air composition information of an indoor environment; comparing the air composition information of the indoor environment with corresponding air composition information in a pre-acquired air change rule; the method further comprising: acquiring air composition information of an outdoor environment; and comparing the air composition information of the indoor environment with the air composition information of the outdoor environment, when both (a): the difference between the air composition information of the indoor environment and the corresponding air composition information in the air change rule is more than the preset first air threshold value and (b): the difference between the air composition information of the indoor environment and the air composition information of the outdoor environment is more than a preset second air threshold value, sending an alarming message to a preset target equipment. acquiring air composition information of an indoor environment; comparing the air composition information of the indoor environment with corresponding air composition information in a pre-acquired air change rule; the method further comprising: acquiring air composition information of an outdoor environment; and comparing the air composition information of the indoor environment with the air composition information of the outdoor environment, when both (a): the difference between the air composition information of the indoor environment and the corresponding air composition information in the air change rule is more than the preset first air threshold value and (b): the difference between the air composition information of the indoor environment and the air composition information of the outdoor environment is more than a preset second air threshold value, sending an alarming message to a preset target equipment. acquiring air composition information of an outdoor environment; and comparing the air composition information of the indoor environment with the air composition information of the outdoor environment, when both (a): the difference between the air composition information of the indoor environment and the corresponding air composition information in the air change rule is more than the preset first air threshold value and (b): the difference between the air composition information of the indoor environment and the air composition information of the outdoor environment is more than a preset second air threshold value, sending an alarming message to a preset target equipment.
Compounds of formula wherein R 1 ' is methyl; R 1 is selected from the group consisting of i) methyl, ii) ethyl, iii) trifluoromethyl iv) hydroxymethyl, v) cyclopropyl, and vi) cyano; or R 1 ' and R 1 together with the carbon atom to which they are attached form 1,1-dioxo-tetrahydro-thiophen-3-yl; R 2 is selected from the group consisting of i) hydrogen, ii) methyl, iii) ethyl, iv) isopropyl, v) tert-butyl, vi) cyclopropyl, vii) cyclopropylmethyl, and viii) hydroxymethyl; R 3 is selected from the group consisting of i) hydrogen, ii) chloro, iii) fluoro, iv) methyl v) isopropyl, vi) methoxy, vii) cyano, viii) cyclopropyl, and ix) trifluoromethyl; R 4 is selected from the group consisting of i) hydrogen, ii) chloro, iii) fluoro, and iv) methyl; or pharmaceutically acceptable salts. R 1 ' is methyl; R 1 is selected from the group consisting of i) methyl, ii) ethyl, iii) trifluoromethyl iv) hydroxymethyl, v) cyclopropyl, and vi) cyano; i) methyl, ii) ethyl, iii) trifluoromethyl iv) hydroxymethyl, v) cyclopropyl, and vi) cyano; or R 1 ' and R 1 together with the carbon atom to which they are attached form 1,1-dioxo-tetrahydro-thiophen-3-yl; R 2 is selected from the group consisting of i) hydrogen, ii) methyl, iii) ethyl, iv) isopropyl, v) tert-butyl, vi) cyclopropyl, vii) cyclopropylmethyl, and viii) hydroxymethyl; i) hydrogen, ii) methyl, iii) ethyl, iv) isopropyl, v) tert-butyl, vi) cyclopropyl, vii) cyclopropylmethyl, and viii) hydroxymethyl; R 3 is selected from the group consisting of i) hydrogen, ii) chloro, iii) fluoro, iv) methyl v) isopropyl, vi) methoxy, vii) cyano, viii) cyclopropyl, and ix) trifluoromethyl; i) hydrogen, ii) chloro, iii) fluoro, iv) methyl v) isopropyl, vi) methoxy, vii) cyano, viii) cyclopropyl, and ix) trifluoromethyl; R 4 is selected from the group consisting of i) hydrogen, ii) chloro, iii) fluoro, and iv) methyl; or pharmaceutically acceptable salts. i) hydrogen, ii) chloro, iii) fluoro, and iv) methyl;
A wheel driving device for a cleaner robot, comprising: a motor, rotating a shaft; an input gear, fixed to the shaft; at least one transmission gear, meshed with the input gear to transmit a power of the motor; and a final gear, meshed with the transmission gear and connected with a wheel via an axis to transmit the power from the transmission gear to the wheel, characterized in that the wheel driving device comprises: an extraction gear, configured to be meshed with the final gear or the transmission gear; and a power transmission part, configured to be connected with the extraction gear to transmit the power from the extraction gear to a cleaner head, the wheel driving device being characterized in that the motor, the input gear, the transmission gear, the final gear and the extraction gear are configured to be integrated to a single module, or in that the motor, the input gear, the transmission gear and the final gear are configured to be integrated to a first module; and the extraction gear is configured to be formed as a second module. a motor, rotating a shaft; an input gear, fixed to the shaft; at least one transmission gear, meshed with the input gear to transmit a power of the motor; and a final gear, meshed with the transmission gear and connected with a wheel via an axis to transmit the power from the transmission gear to the wheel, characterized in that the wheel driving device comprises: an extraction gear, configured to be meshed with the final gear or the transmission gear; and a power transmission part, configured to be connected with the extraction gear to transmit the power from the extraction gear to a cleaner head, the wheel driving device being characterized in that an extraction gear, configured to be meshed with the final gear or the transmission gear; and a power transmission part, configured to be connected with the extraction gear to transmit the power from the extraction gear to a cleaner head, the wheel driving device being characterized in that the motor, the input gear, the transmission gear, the final gear and the extraction gear are configured to be integrated to a single module, or in that the motor, the input gear, the transmission gear and the final gear are configured to be integrated to a first module; and the extraction gear is configured to be formed as a second module.
A carbon-fiber chopped strand composed of 30,000 to 120,000 carbon fiber single filaments and 1 to 10 mass % of a sizing agent which bundles the single filaments, in which the single-filament diameter of carbon fiber is 3 to 15 μm, the ratio (Dmax/Dmin) of the maximum diameter (Dmax) and the minimum diameter (Dmin) in a section intersecting at right angles with the fiber axis direction of chopped strand is 1.0 to 1.8, the length of chopped strand along the fiber direction is 3 to 10 mm, the ratio (L/Dmin) of the length of chopped strand along the fiber direction and the minimum diameter (Dmin) of chopped strand is 4 or smaller, and the repose angle of chopped strand is 10 to 30°.
A corrosion-resistant magnet characterized by comprising a chemical conversion film on a surface of an R-Fe-B based sintered magnet wherein R is a rare-earth element including at least Nd, the chemical conversion film having a laminate structure including at least an inner layer that contains R, fluorine, and oxygen as constituent elements and an outer layer that is amorphous and contains Zr, Fe, and oxygen as constituent elements, provided that no phosphorus is contained in the film.
A header box profile of a heat exchanger, having two side walls (6, 7) and a cover wall connecting the two side walls (6, 7), which together enclose a collection space from three sides, wherein at least one receptacle opening for accommodating a connecting piece is provided on at least one of the side walls (6, 7) and/or the cover wall, wherein the header box profile is formed as a one-piece extruded profile, wherein at least one of the side walls (6, 7) and/or the cover wall has fastening boreholes for the formfitting or friction-locked fixing of fastening means for fixing the connecting piece on one of the side walls (6, 7) or the cover wall, characterized in that the wall thickness (d) of at least one of the side walls (6, 7) and/or the cover wall in the region of the fastening boreholes is greater than the wall thickness (d) of one of the side walls (6, 7) and/or the cover wall in a region without fastening boreholes.
Coupling device for an agricultural towing vehicle, in particular an agricultural tractor, with two oppositely arranged coupling cheeks (12, 14), which have a respective longitudinally extending guide groove (16, 18), into which a coupling support which is connected to a trailer coupling is inserted, characterized in that at least one of the coupling cheeks (12, 14) has a coding contour in which a coding element formed on the coupling support engages when the trailer coupling is inserted.
A method of diagnosing heart failure in a subject, comprising: performing an assay that detects WAP four-disulfide core domain protein 2 on a body fluid sample obtained from said subject, thereby providing an assay result; and assigning a diagnosis that the subject has or does not have heart failure based on the assay result obtained. performing an assay that detects WAP four-disulfide core domain protein 2 on a body fluid sample obtained from said subject, thereby providing an assay result; and assigning a diagnosis that the subject has or does not have heart failure based on the assay result obtained.
An assembly of optical elements for the control of light, comprising in order from a first side of the assembly: - a light modulator configured to actively modulate a wavefront of light passing though the assembly, the light modulator comprising an electronic interface; - a first polarization element configured to define a polarization of the light received from the light modulator; - an optical element that has a region across which a value of a refractive index of the optical element varies for passively modulating the wavefront of the light received from the first polarization element; - a second polarization element configured to define the polarization of the light received from the optical element. - a light modulator configured to actively modulate a wavefront of light passing though the assembly, the light modulator comprising an electronic interface; - a first polarization element configured to define a polarization of the light received from the light modulator; - an optical element that has a region across which a value of a refractive index of the optical element varies for passively modulating the wavefront of the light received from the first polarization element; - a second polarization element configured to define the polarization of the light received from the optical element.
An overflow valve for a fuel feed system comprising a high-pressure pump having a pump body; the overflow valve comprising a valve body (14; 114) formed by a metal sheet (16; 116) folded so as to assume at least partly the form of a cylindrical wall and configured to be housed inside a seat formed in the pump body; an inlet opening; a discharge opening; a lubrication opening and a sliding member movable along an axis of the valve body (14; 114) so as to adjust the flow of the fuel from the inlet opening to the discharge opening; wherein the valve body (14; 114) has a slit along a generatrix of the cylindrical wall configured to connect the inlet opening to the lubrication opening, the slit preferably extending along the entire length of the valve body (14; 114).
Cryogenic apparatus comprising:- first and second single-shot refrigerators (1,2) having respective first and second condensation surfaces (13,14), wherein the first and second condensation surfaces are provided within an enclosure, the said surfaces (13,14) being selectively cooled when in use by the respective first and second single-shot refrigerators such that coolant gas condenses on the surfaces as liquid coolant; the enclosure (20,11,12,10) containing a coolant gas; and, a cold platform which, when in use, receives the liquid coolant from the condensation surfaces; characterised in that:- the enclosure is adapted to provide a path for gaseous coolant between the first and second condensation surfaces, the path having a lower hydraulic impedance than that (11, 12) between each of the condensation surfaces (13,14) and the cold platform.
A droplet discharge device comprising a discharge path having an end that constitutes a discharge opening, a plunger comprising a tip portion, a liquid chamber into which the plunger is inserted, said liquid chamber having an inner wall comprising the discharge path, wherein said tip portion faces the discharge path, a plunger driving mechanism configured to move the plunger forward and backward, and a plunger position determining mechanism (40, 41, 42, 46) that specifies a position of the tip portion of the plunger, the plunger being configured to be moved forward into a state where the tip portion of the plunger and the inner wall of the liquid chamber are not contacted with each other to thereby apply inertial force to a liquid material, the liquid material being discharged in a droplet state, wherein the plunger is configured to be moved forward to push the liquid material out of the discharge opening in an amount necessary to form a droplet of a desired size and then to move the plunger backward to divide the liquid material having been pushed out of the discharge opening, thereby forming a minute droplet.