mhurhangee/ep-ind-claims huggingface dataset:
A method of centering, in a rim of a spectacles frame, an ophthalmic lens that is provided with at least one center and/or axis marking, the method comprising the steps consisting in: a) for calibration purposes, acquiring and storing the shadow of an opaque sign (124A; 124B) formed on a transparent sign support interposed between lighting means and acquisition means while said support is being illuminated on its own by said lighting means; b) superposing said ophthalmic lens and said transparent sign support; c) acquiring and storing the shadow of said opaque sign of said support as detected by said ophthalmic lens while said ophthalmic lens and said support are being illuminated together by said lighting means; d) using the acquisition means to acquire the shadow of the center and/or axis marking of the ophthalmic lens for centering while it is illuminated by said lighting means; e) displaying on a display screen firstly the shadow of the center and/or axis marking of the ophthalmic lens, and secondly a virtual centering target corresponding to the position desired for the center marking of the lens relative to a reference point of the rim of the frame; f) from the prismatic deflection of the opaque sign (124A; 124B) as measured by comparing the acquisitions of steps a) and c), deducing a corrected relative position (CBc) for the reference point of the frame rim relative to the center marking, or vice versa; and g) putting the shadow of the centering marking of the ophthalmic lens into coincidence with the centering virtual target. a) for calibration purposes, acquiring and storing the shadow of an opaque sign (124A; 124B) formed on a transparent sign support interposed between lighting means and acquisition means while said support is being illuminated on its own by said lighting means; b) superposing said ophthalmic lens and said transparent sign support; c) acquiring and storing the shadow of said opaque sign of said support as detected by said ophthalmic lens while said ophthalmic lens and said support are being illuminated together by said lighting means; d) using the acquisition means to acquire the shadow of the center and/or axis marking of the ophthalmic lens for centering while it is illuminated by said lighting means; e) displaying on a display screen firstly the shadow of the center and/or axis marking of the ophthalmic lens, and secondly a virtual centering target corresponding to the position desired for the center marking of the lens relative to a reference point of the rim of the frame; f) from the prismatic deflection of the opaque sign (124A; 124B) as measured by comparing the acquisitions of steps a) and c), deducing a corrected relative position (CBc) for the reference point of the frame rim relative to the center marking, or vice versa; and g) putting the shadow of the centering marking of the ophthalmic lens into coincidence with the centering virtual target.
Grid flap for filling devices or scales, used in the field of food technology, comprising: a metal grid, wherein the grid comprises a plurality of braces (4h, 4v), and a metal frame, which surrounds the grid, wherein the respective end sections of the grid braces (4h, 4v) are fixed on the frame, wherein the frame comprises a sub-structure for the grid, characterized in that an end section of each of the braces (4h, 4v) after the last cross brace is longer than a mesh width of the grid, and the metal grid is aligned in a way that a respective last cross brace of the horizontally and the vertically aligned braces still rests on the frame, the braces (4h, 4v) are aligned to each other in parallel, and the grid is connected along a periphery of the metal frame with it by welding, wherein each end of each of the wire braces (4h, 4v) is flattened. a metal grid, wherein the grid comprises a plurality of braces (4h, 4v), and a metal frame, which surrounds the grid, wherein the respective end sections of the grid braces (4h, 4v) are fixed on the frame,
Breastshield unit for use with a breastpump for expressing human breastmilk, wherein the breastshield unit has a breastshield for receiving a mother's breast and a media separation device (7, 9) for transferring a vacuum into the interior of the breastshield, wherein the breastshield unit has a receiving area for receiving a nipple of the mother's breast, and wherein the media separation device (7, 9) has a media separation membrane which, for the purpose of transferring the vacuum, is movable to and fro between two positions, wherein the media separation membrane is located in the receiving area at least in one of said two positions, wherein a tubular stub is present which forms the receiving area and which has an end directed away from the breast, wherein the media separation membrane is arranged directly on this end, characterized in that the media separation device (7, 9) has a dimensionally stable housing with a vacuum connector for connection to a vacuum pump, wherein the media separation membrane is held movably in the housing and that the media separation device (7, 9) as a whole is arranged to be movable relative to and inside the breastshield.
Connection between two concentrically arranged duct elements (2, 3) to form a duct element arrangement, especially for a decoupling element for the exhaust gas system of a motor vehicle having an internal combustion engine, having a soldering agent which is arranged between a first, inner of the two duct elements and a second, outer of the two duct elements, which soldering agent creates a material-bonded connection between the two duct elements (2, 3), characterised in that on the inner duct element and on the outer duct element there is provided in each case an interlocking structure by means of which the soldering agent is positioned in an axial direction of the duct element arrangement.
A contactless communication device for a communication terminal, comprising: a signal level detector configured to detect a strength of a signal received at an antenna, the signal transmitted from an external apparatus; characterized by a port configured to provide at least a clock signal to a secure access module, the secure access module controls communication between the communication terminal and the external apparatus, a clock controller configured to stop the clock signal when the strength is less than or equal to a first predetermined threshold value to cause the secure access module to reset its mode to an initial state. a signal level detector configured to detect a strength of a signal received at an antenna, the signal transmitted from an external apparatus; characterized by a port configured to provide at least a clock signal to a secure access module, the secure access module controls communication between the communication terminal and the external apparatus, a clock controller configured to stop the clock signal when the strength is less than or equal to a first predetermined threshold value to cause the secure access module to reset its mode to an initial state.
Holding installation for a preferably elongate workpiece which is composed of a plurality of workpiece parts (13, 14) and along a processing track is able to be processed by an industrial robot having a processing tool, wherein the holding installation has a clamping tool for bracing the workpiece parts (13, 14) to be processed on the processing track and a multi-axis guide installation for the clamping tool and for the independent movement of the latter relative to the workpiece during the processing procedure, and wherein the clamping tool is provided and configured for gripping in a form-fitting manner workpiece parts (13, 14) that are disposed in parallel and next to one another and for mutually bracing said workpiece parts (13, 14) at the adjacent peripheries, in particular longitudinal peripheries, thereof, in a butt joint.
An infrared-transmitting glass suitable for mold forming, comprising, in terms of molar concentration: 0 to 2% of Ge, 3 to 30% of Ga, 10 to 40% of Sb, 45 to 70% of S, 3 to 30% of at least one member selected from the group consisting of Sn, Ag, Cu, Te, and Cs, and 0 to 30% of at least one member selected from the group consisting of Cl, Br, and I. 0 to 2% of Ge, 3 to 30% of Ga, 10 to 40% of Sb, 45 to 70% of S, 3 to 30% of at least one member selected from the group consisting of Sn, Ag, Cu, Te, and Cs, and 0 to 30% of at least one member selected from the group consisting of Cl, Br, and I.
A method, comprising: determining a first position of a user of a mobile node at a first time instant, the first position being determined based on a proximity of a proximity card of the user to a first proximity card reader having a predetermined position; determining a second position of the user of the mobile node at a second time instant following the first time instant, wherein the determining of the second position of the user of the mobile node is performed in response to a condition, the condition being at least one of a determination that a predefined time has elapsed from the first time instant, and a determination using at least one inertial position measurement (202, 205, 208, 223, 228) that the user has walked a predefined distance from the first position; determining a time difference between the first time instant and the second time instant; determining a walking speed of the user using the time difference, the first position and the second position; determining a third position of the user of the mobile node; determining a walking time required for the user to reach at least one elevator from the third position based on the walking speed of the user; and transmitting the elevator call and the walking time to an elevator call control node. determining a first position of a user of a mobile node at a first time instant, the first position being determined based on a proximity of a proximity card of the user to a first proximity card reader having a predetermined position; determining a second position of the user of the mobile node at a second time instant following the first time instant, wherein the determining of the second position of the user of the mobile node is performed in response to a condition, the condition being at least one of a determination that a predefined time has elapsed from the first time instant, and a determination using at least one inertial position measurement (202, 205, 208, 223, 228) that the user has walked a predefined distance from the first position; determining a time difference between the first time instant and the second time instant; determining a walking speed of the user using the time difference, the first position and the second position; determining a third position of the user of the mobile node; determining a walking time required for the user to reach at least one elevator from the third position based on the walking speed of the user; and transmitting the elevator call and the walking time to an elevator call control node.
A weight plate for physical fitness equipment including, a weight plate body formed with at least a first bore passing vertically through said weight plate body, an internal bore formed horizontally within said weight plate body and communicating with said first bore, a sleeve mounted within said internal bore in said weight plate body, an engagement pin movably mounted within said sleeve in said internal bore in said weight plate body, said engagement pin including a retaining pin extending radially therefrom, and said sleeve including a slot therein for selectively passing said retaining pin therethrough, a spring adapted to selectively move said engagement pin within said internal bore and through said first bore, and a handle attached to said engagement pin to move said engagement pin within said internal bore to remove said engagement pin from said first bore.
Method for the continuous production of biodiesel through transesterification of a(n) used cooking oil / methanol emulsion with a composition of 20 mol to 50 mol methanol per mol of used cooking oil, in particular of 38 mol to 42 mol methanol per mol of used cooking oil, in a reactor, wherein nanoscale-structured and autocatalytically acting surfaces with layer thicknesses of between 2 nm and 4,000 nm are formed first in the interior of the reactor directly on installed metallic reaction surfaces made of stainless steel material with a chrome content of > 17% and a nickel content of > 11% through the initial contact and the reaction between the metallic reactor material and a(n) used cooking oil / methanol emulsion with a composition of 12 to 15 mol of methanol per mol of used cooking oil at a temperature of up to 385°C and holding times for the mixture in the reactor of up to 360 seconds, wherein the autocatalytically acting surfaces formed in the metallic reaction surfaces have a larger real surface than the geometric surface of the metallic reaction surfaces for setting a laminar flow behaviour of the used cooking oil / methanol emulsion during transesterification.
A composition comprising: a) one or more isocyanate functional prepolymers; b) one or more catalysts for the reaction of isocyanate moieties and active hydrogen containing moieties; c) one or more mercapto silanes; d) one or more amino silanes, isocyanato silanes or a mixture thereof; e) one or more reinforcing fillers comprising one or more high surface area carbon blacks; f) one or more untreated calcium carbonates; g) one or more polyisocyanates having an isocyanate functionality of 2 or greater; and h) a linear plasticizer, wherein the isocyanate functional prepolymer is prepared in the presence of the linear plasticizer; wherein the composition includes a dialkyl malonate and the isocyanate functional prepolymer is prepared in the presence of at least a portion of the dialkyl malonate. a) one or more isocyanate functional prepolymers; b) one or more catalysts for the reaction of isocyanate moieties and active hydrogen containing moieties; c) one or more mercapto silanes; d) one or more amino silanes, isocyanato silanes or a mixture thereof; e) one or more reinforcing fillers comprising one or more high surface area carbon blacks; f) one or more untreated calcium carbonates; g) one or more polyisocyanates having an isocyanate functionality of 2 or greater; and h) a linear plasticizer, wherein the isocyanate functional prepolymer is prepared in the presence of the linear plasticizer; wherein the composition includes a dialkyl malonate and the isocyanate functional prepolymer is prepared in the presence of at least a portion of the dialkyl malonate.
A method for producing table calendars with a core, a two-part back piece (4a, 4b), and a bond that attaches the back pieces (4a, 4b) to the core, with the back pieces (4a, 4b) being attached to each other to form an A-frame stand, in a bonded unit that has a back situated at the top in the working position, an upper back piece is lifted relative to a lower back piece, characterized in that a tab is coated with an adhesive and inserted between the upper back piece and the lower back piece and the upper back piece is placed onto the lower back piece.
A method for processing a target message for display on a wireless device communicating with an application download server, comprising: receiving a request from the wireless device at the application download server; initiating the processing of the request at the application download server; sending a signal from the application download server to a second server indicating that a target message may be sent to a wireless device; and sending the target message to a computer platform of the wireless device by the second server during idle transmission time between the application download server and the wireless device, further comprising: defining a target group of a plurality of wireless devices; determining the wireless device that sent the request is in the target group, wherein, sending the targeted message to the wireless device during idle transmission includes sending a targeted messaged defined to the target group. receiving a request from the wireless device at the application download server; initiating the processing of the request at the application download server; sending a signal from the application download server to a second server indicating that a target message may be sent to a wireless device; and sending the target message to a computer platform of the wireless device by the second server during idle transmission time between the application download server and the wireless device, further comprising: defining a target group of a plurality of wireless devices; determining the wireless device that sent the request is in the target group, wherein, sending the targeted message to the wireless device during idle transmission includes sending a targeted messaged defined to the target group.
Endoscope with a main unit and a shaft, connected to the main unit, which extends along a longitudinal axis, - wherein the shaft comprises a jacket tube, an inner tube arranged in the jacket tube for receiving an objective lens, and a bundle of fibre-optic light guides which run along the longitudinal axis in the shaft between the jacket tube and the inner tube, - wherein at a distal end facing away from the main unit the inner tube comprises an inner tube head, which comprises a first bearing section and a second bearing section, which is connected to the first bearing section by a connecting element, - wherein the first bearing section comprises a first bearing surface, against which the bundle of fibre-optic light guides abuts, and the second bearing section comprises a second bearing surface, against which the bundle of fibre-optic light guides abuts and which lies opposite the first bearing surface at least in areas, - wherein, to align the bundle of fibre-optic light guides off the longitudinal axis at the distal end, an area of the first bearing surface and/or an area of the second bearing surface run non-parallel to the longitudinal axis, wherein the connecting element is formed as a web, wherein the bundle of fibre-optic light guides is separated by the connecting element into at least two partial bundles at the distal end and the first bearing section, the connecting element and the second bearing section, in top view onto the distal end, form a double T shape. - wherein the shaft comprises a jacket tube, an inner tube arranged in the jacket tube for receiving an objective lens, and a bundle of fibre-optic light guides which run along the longitudinal axis in the shaft between the jacket tube and the inner tube, - wherein at a distal end facing away from the main unit the inner tube comprises an inner tube head, which comprises a first bearing section and a second bearing section, which is connected to the first bearing section by a connecting element, - wherein the first bearing section comprises a first bearing surface, against which the bundle of fibre-optic light guides abuts, and the second bearing section comprises a second bearing surface, against which the bundle of fibre-optic light guides abuts and which lies opposite the first bearing surface at least in areas, - wherein, to align the bundle of fibre-optic light guides off the longitudinal axis at the distal end, an area of the first bearing surface and/or an area of the second bearing surface run non-parallel to the longitudinal axis,
An intelligent composite system provided with a laboratory dropper and at least one color test machine, wherein the at least one dropper is used to drip out a required dye solution to a plurality of staining cups; wherein the intelligent composite system comprises: at least one control unit; at least one dye preparation area adjacent to said at least one dropper, each said dye preparation area comprising a plurality of sample cloths to be dyed and defining a cup cap placing area and a staining cup combination temporary storage area; at least one robotic arm adjacent to said at least one dye preparation area; wherein the at least one color test machine is adjacent to said at least one robotic arm, each said color test machine comprising a plurality of color test machine staining cup positions; wherein said at least one control unit is electrically connected to said at least one dropper, said at least one robotic arm and said at least one color test machine; and wherein, according to the process step instructions set by said at least one control unit, said at least one robotic arm picks up each said staining cup that has completed the dripping operation and places the said staining cup in said staining cup combination temporary storage area, picks up one said sample cloth and puts the said sample cloth into the said staining cup, takes out one cup cap from said cup cap placing area and locks said cup cap to the said staining cup, and then puts the said staining cup into one designated color test machine staining cup position of said color test machine. wherein the at least one dropper is used to drip out a required dye solution to a plurality of staining cups; wherein the intelligent composite system comprises: at least one control unit; at least one dye preparation area adjacent to said at least one dropper, each said dye preparation area comprising a plurality of sample cloths to be dyed and defining a cup cap placing area and a staining cup combination temporary storage area; at least one robotic arm adjacent to said at least one dye preparation area; wherein the at least one color test machine is adjacent to said at least one robotic arm, each said color test machine comprising a plurality of color test machine staining cup positions; wherein said at least one control unit is electrically connected to said at least one dropper, said at least one robotic arm and said at least one color test machine; and wherein, according to the process step instructions set by said at least one control unit, said at least one robotic arm picks up each said staining cup that has completed the dripping operation and places the said staining cup in said staining cup combination temporary storage area, picks up one said sample cloth and puts the said sample cloth into the said staining cup, takes out one cup cap from said cup cap placing area and locks said cup cap to the said staining cup, and then puts the said staining cup into one designated color test machine staining cup position of said color test machine.
A toilet pan, particularly of ceramic material, with a pan rim and a distribution apron that is open toward the bottom, wherein said distribution apron is arranged in front of an inflow opening and forms a deflection plate, wherein the pan rim has a circumferential projection, particularly a completely circumferential projection, which forms an apron-free water guideway that is fluidically connected to the distribution apron, wherein the projection has a horizontal first wall, which transforms into the deflection plate of the distribution apron, and the pan rim has a second wall that extends downward, and wherein the first and second walls (14, 15) delimit a hollow channel of the water guideway, which is open toward the side and toward the bottom, characterized in that the pan rim has a circumferential step, which delimits the hollow channel in the downward direction.