mhurhangee/ep-ind-claims huggingface dataset:
Display system comprising: a. a first and a second display module (1, 1') arranged concentrically with respect to each other around a common geometric center and each comprising at least two display members (31, 32, 33; 31', 32', 33') movable with respect to a frame (2, 2') between a rest position and a display position under the action of at least one actuator (5, 5') to form a pattern (M, M'), and b. an actuating device arranged to cooperate with the actuator (5, 5') of each display module (1, 1') and move said movable display members (32, 33; 32', 33') from the rest position to the display position to simultaneously form a said pattern (M, M') on each display module (1, 1'), characterized in that said at least one actuator (5, 5') of each display module (1, 1') is secured to the frame (2, 2') and movable relative thereto by means of a plurality of flexible links. a. a first and a second display module (1, 1') arranged concentrically with respect to each other around a common geometric center and each comprising at least two display members (31, 32, 33; 31', 32', 33') movable with respect to a frame (2, 2') between a rest position and a display position under the action of at least one actuator (5, 5') to form a pattern (M, M'), and b. an actuating device arranged to cooperate with the actuator (5, 5') of each display module (1, 1') and move said movable display members (32, 33; 32', 33') from the rest position to the display position to simultaneously form a said pattern (M, M') on each display module (1, 1'),
A substrate processing apparatus comprising: a substrate holder configured to support a substrate; a magnet holder that is disposed around the substrate holder; and an annular magnet that is movably loaded on the magnet holder, characterized by supporting members that protrude from the substrate holder so as to face the magnet; connecting members that are disposed at the magnet and are engageable with the supporting members; a rotation mechanism configured to rotationally move at least one of the substrate holder and the magnet holder around the rotation axis of a rotation shaft of the substrate holder; and a connection switching mechanism configured to move, when positions of the supporting member and the connecting member are matched to each other by rotational movement of the rotation mechanism, the substrate holder upward and downward to engage the supporting member and the connecting member with each other or separate the supporting member and the connecting member from each other, thereby switching whether or not to apply a magnetic field to the substrate. a substrate holder configured to support a substrate; a magnet holder that is disposed around the substrate holder; and an annular magnet that is movably loaded on the magnet holder, characterized by supporting members that protrude from the substrate holder so as to face the magnet; connecting members that are disposed at the magnet and are engageable with the supporting members; a rotation mechanism configured to rotationally move at least one of the substrate holder and the magnet holder around the rotation axis of a rotation shaft of the substrate holder; and a connection switching mechanism configured to move, when positions of the supporting member and the connecting member are matched to each other by rotational movement of the rotation mechanism, the substrate holder upward and downward to engage the supporting member and the connecting member with each other or separate the supporting member and the connecting member from each other, thereby switching whether or not to apply a magnetic field to the substrate.
An electroluminescent device comprising: a cathode; an anode opposing the cathode, the anode comprising a reflective material of aluminum or silver having a reflectivity from 0.4 to 1; and a functional layer located between the anode and the cathode, the functional layer comprising a chemical compound of Formula I, wherein the functional layer contacts the anode and the reflective material is a conductive material having a work function of 3.5 eV to 4.5 eV: wherein R1 -R6 are independently chosen from the group consisting of halo, nitrile (-CN), nitro (-NO2), sulfonyl (-SO2 R), sulfoxide (-SOR), sulfonamide (-SO2 NR), sulfonate (-SO3 R), trifluoromethyl (-CF3), ester (-CO-OR), amide (-CO-NHR or -CO-NRR'), straight-chain or branched (substituted or unsubstituted) C1 -C12 alkoxy. a cathode; an anode opposing the cathode, the anode comprising a reflective material of aluminum or silver having a reflectivity from 0.4 to 1; and a functional layer located between the anode and the cathode, the functional layer comprising a chemical compound of Formula I, wherein the functional layer contacts the anode and the reflective material is a conductive material having a work function of 3.5 eV to 4.5 eV: wherein R1 -R6 are independently chosen from the group consisting of halo, nitrile (-CN), nitro (-NO2), sulfonyl (-SO2 R), sulfoxide (-SOR), sulfonamide (-SO2 NR), sulfonate (-SO3 R), trifluoromethyl (-CF3), ester (-CO-OR), amide (-CO-NHR or -CO-NRR'), straight-chain or branched (substituted or unsubstituted) C1 -C12 alkoxy.
A sheet material bending system comprising a press brake that has an upper table at front upper part of left and right side frames (3L, 3R) and a lower table at front lower part thereof, a tool stocker that detachably stores a plurality of upper and lower tools to be attached, detached, and changed with respect to the press brake, and a pair of tool changing apparatus that change tools between the press brake and the tool stocker, wherein the tool stocker is arranged behind the press brake and front and rear sides of the tool stocker are opened so that tools are changed from the front and rear sides with respect to the tool stocker; and each tool changing apparatus has a pivot (131; 203) that is movable in front-rear, left-right, and up-down directions and is rotatable around an axis extending in the up-down direction, a front end of the pivot (131; 203) being provided with a tool holding unit (133P, 133D; 171; 205) to hold a tool, characterized in that each tool holding unit (133P, 133D; 171; 205) is deviated from an axis of the respective pivot (131; 203) such that when both tool holding units (133P, 133D; 171; 205) are turned and positioned to face frontward, the tool holding units (133P, 133D; 171; 205) can be brought into contact with each other in the left-right direction.
A bilaterally driven drug infusion device with multiple infusion modes, comprising: a drug storage unit; a piston and a driving wheel respectively connected with a screw, the driving wheel, provided with wheel teeth, drives the screw movement by rotation, the piston is arranged in the drug storage unit, the screw advances the piston to move; a driving unit (100, 300, 400, 500, 600) cooperating with the driving wheel; a power unit (180, 680), connected to the driving unit (100, 300, 400, 500, 600), outputs forces in two different directions on the driving unit (100, 300, 400, 500, 600) to lead driving unit (100, 300, 400, 500, 600) to perform multiple-mode operation, making the infusion device have multiple infusion increments or infusion rates; and a pivot shaft (120, 620), wherein the driving unit (100, 300, 400, 500, 600) includes driving arms (110, 110a-d, 410a-d, 510, 510a-f, 610a-b), the driving unit (100, 300, 400, 500, 600) pivots around the pivot shaft (120, 620) to drive driving arms (110, 110a-d, 410a-d, 510, 510a-f, 610a-b) to move, and the driving wheel includes at least two sub-wheels, and the driving arm (110, 110a-d, 410a-d, 510, 510a-f, 610a-b) rotates the driving wheel by engaging the wheel teeth, characterized in that, two driving arms (110, 110a-d, 410a-d, 510, 510a-f, 610a-b) are installed on each side of the driving unit (100, 300, 400, 500, 600), and two driving arms (110, 110a-d, 410a-d, 510, 510a-f, 610a-b) on one side of the driving unit (100, 300, 400, 500, 600) are installed up and down, or are installed left and right. a drug storage unit; a piston and a driving wheel respectively connected with a screw, the driving wheel, provided with wheel teeth, drives the screw movement by rotation, the piston is arranged in the drug storage unit, the screw advances the piston to move; a driving unit (100, 300, 400, 500, 600) cooperating with the driving wheel; a power unit (180, 680), connected to the driving unit (100, 300, 400, 500, 600), outputs forces in two different directions on the driving unit (100, 300, 400, 500, 600) to lead driving unit (100, 300, 400, 500, 600) to perform multiple-mode operation, making the infusion device have multiple infusion increments or infusion rates; and a pivot shaft (120, 620), wherein the driving unit (100, 300, 400, 500, 600) includes driving arms (110, 110a-d, 410a-d, 510, 510a-f, 610a-b), the driving unit (100, 300, 400, 500, 600) pivots around the pivot shaft (120, 620) to drive driving arms (110, 110a-d, 410a-d, 510, 510a-f, 610a-b) to move, and the driving wheel includes at least two sub-wheels, and the driving arm (110, 110a-d, 410a-d, 510, 510a-f, 610a-b) rotates the driving wheel by engaging the wheel teeth, characterized in that, two driving arms (110, 110a-d, 410a-d, 510, 510a-f, 610a-b) are installed on each side of the driving unit (100, 300, 400, 500, 600), and two driving arms (110, 110a-d, 410a-d, 510, 510a-f, 610a-b) on one side of the driving unit (100, 300, 400, 500, 600) are installed up and down, or are installed left and right.
A method of detecting the presence of endometrial carcinoma in a biological sample from a subject, the method comprising: contacting the sample with one or more probes for one or more of the chromosome regions, subregions or combinations thereof selected from the group consisting of: the centromeric region of chromosome 18; 1q; 2p; 2q; 3p; 3q; 7p; 8p; 8q; 9p; 9q; the centromeric region of chromosome 10; 10q; 15q; 16q; 17p; 18q; 19p; 20q; and 22q; wherein said one or more probes with which the sample is contacted includes a probe for the centromeric region of chromosome 18; incubating the one or more probes with the sample under conditions in which each probe binds selectively with a polynucleotide sequence on its target chromosome or chromosomal region to form a stable hybridization complex; and detecting hybridization of the one or more probes, wherein a hybridization pattern showing a gain at the centromeric region of chromosome 18 is indicative of endometrial carcinoma. contacting the sample with one or more probes for one or more of the chromosome regions, subregions or combinations thereof selected from the group consisting of: the centromeric region of chromosome 18; 1q; 2p; 2q; 3p; 3q; 7p; 8p; 8q; 9p; 9q; the centromeric region of chromosome 10; 10q; 15q; 16q; 17p; 18q; 19p; 20q; and 22q; wherein said one or more probes with which the sample is contacted includes a probe for the centromeric region of chromosome 18; incubating the one or more probes with the sample under conditions in which each probe binds selectively with a polynucleotide sequence on its target chromosome or chromosomal region to form a stable hybridization complex; and detecting hybridization of the one or more probes, wherein a hybridization pattern showing a gain at the centromeric region of chromosome 18 is indicative of endometrial carcinoma.
A security print medium for forming security documents therefrom, comprising a transparent or translucent polymer substrate having first and second opposing surfaces (5a, 5b), and a plurality of overlapping opacifying layers (6a, 6b, 6c, 6d, 6e, 6f, 6g) disposed on the first and/or second surfaces of the polymer substrate (5a, 5b), each of the opacifying layers (6a, 6b, 6c, 6d, 6e, 6f, 6g) being a layer of semi-opaque material, wherein in a first region of the substrate a multi-tonal first image is exhibited by the plurality of overlapping opacifying layers in combination with one another, each of the plurality of overlapping opacifying (6a, 6b, 6c, 6d, 6e, 6f, 6g) layers having gap(s) in which the semi-opaque material of the layer is absent, the gap(s) of each layer being defined in accordance with a different respective sub-image, the sub-images in combination defining the multi-tonal first image, whereby the number of opacifying layers (6a, 6b, 6c, 6d, 6e, 6f, 6g) overlapping one another at any one location varies across the substrate, the resulting variation in optical density of the plurality of overlapping opacifying layers (6a, 6b, 6c, 6d, 6e, 6f, 6g) in combination with one another giving rise to the multiple tones of the multi-tonal first image, and the security print medium further comprising a print of a multi-tonal second image, different from the first image, on the first and/or second surfaces (5a, 5b) of the polymer substrate in a second region and covered from the point of view of an observer on a first side of the security print medium by the plurality of opacifying layers (6a, 6b, 6c, 6d, 6e, 6f, 6g) exhibiting the multi-tonal first image, the first and second regions at least partially overlapping, whereby when the security print medium is viewed by the observer in reflected light, the first image dominates the appearance of the overlapping area(s) of the first and second regions and when the security print medium is viewed by the observer in transmitted light, the second image dominates the appearance of the overlapping area(s) of the first and second regions.
A method for determination of the origin of fungi and/or bacteria in a dust sample(s) from an indoor area, the method comprising a) detecting qualitatively one or more seasonal pollen species present in the dust sample(s), b) detecting and quantifying the level of fungi and/or bacteria in the dust sample(s), and c) using the identity of the one or more seasonal pollen species to determine whether fungi and/or bacteria present in the dust sample(s) is of indoor origin by concluding based on the quantified level of fungi and/or bacteria in the dust sample(s) in step b and background levels for fungi and/or bacteria compared with the period of time the dust has been settled as determined according to step a whether the level of fungi and/or bacteria is due to dust settled during a period of time or is due to indoor infestation of the detected fungi and/or bacteria, wherein the absence of one or more seasonal pollen species in said sample(s) determined in step a establish that the dust has been settling for a time period at the longest since the time of year where said absent one or more seasonal pollen species was present in the outdoor air and/or wherein the detection of seasonal pollen species in said sample(s) determined in step a establish that the dust has been settling for a time period starting at least since the time of year where said one or more seasonal pollen species is present in the outdoor air. a) detecting qualitatively one or more seasonal pollen species present in the dust sample(s), b) detecting and quantifying the level of fungi and/or bacteria in the dust sample(s), and c) using the identity of the one or more seasonal pollen species to determine whether fungi and/or bacteria present in the dust sample(s) is of indoor origin by concluding based on the quantified level of fungi and/or bacteria in the dust sample(s) in step b and background levels for fungi and/or bacteria compared with the period of time the dust has been settled as determined according to step a whether the level of fungi and/or bacteria is due to dust settled during a period of time or is due to indoor infestation of the detected fungi and/or bacteria,
Process for producing a phenolic resin encompassing the following steps: a) provision of at least one block copolymer comprising at least one soft segment and at least one hard segment, where the block copolymer is obtainable via reaction of a rubber (soft segment) with an aromatic system (hard segment), where the soft segment is a liquid rubber, where the aromatic system has been selected from the group consisting of the condensates of epichlorohydrin and bisphenol, epoxidized novolaks, solid DGEBA resins, cresol-novolak epoxy resins, epoxidized cashew nut shell oils, tolyloxymethyloxirane, and phenalkamines, and aromatic acid anhydrides, b) reaction of the at least one block copolymer with a phenolic component and with an aldehyde component, where the block copolymer is incorporated into the phenolic resin by way of the reactive aromatics, to form methylene groups, where the proportion of block copolymer in the phenolic resin is from 0.5 to 15% by weight, based on the total weight of the phenolic resin. a) provision of at least one block copolymer comprising at least one soft segment and at least one hard segment, b) reaction of the at least one block copolymer with a phenolic component and with an aldehyde component, where the block copolymer is incorporated into the phenolic resin by way of the reactive aromatics, to form methylene groups,
A remote controlled demolition robot comprising a controller, drive means, an arm member movably arranged on a tower rotatably arranged on a body of the demolition robot and a remote control for providing commands, that are interpreted by the controller causing the controller to control the operation of the demolition robot, wherein the remote control comprises a first joystick and a second joystick, characterized in that each joystick is provided with a thumb control switch, wherein the controller is configured to operate the demolition robot in a mode where the tower, the drive means, the arm member (s) and any tool being carried by the arm member are operable simultaneously, wherein the tower and possibly some movements of the arm member(s) are associated with the first joystick, the drive means are associated with the thumb control switch of each joystick, and the arm member(s) and any tool being carried by the arm member are associated with the second joystick.
An apparatus (10; 700) for a data transmission system with lines (17, 18, 19) configured for discontinuous operation, the apparatus characterised by: a controller (720; 730) configured to: - determine a Signal-To-Noise-Ratio, SNR, based on symbols transmitted using a base configuration in which the lines (17, 18, 19) are active; and - based on the determined SNR, calculate a bit loading for operation of the data transmission system in one or more other configurations in which one or more of the lines (17, 18, 19) are discontinued. - determine a Signal-To-Noise-Ratio, SNR, based on symbols transmitted using a base configuration in which the lines (17, 18, 19) are active; and - based on the determined SNR, calculate a bit loading for operation of the data transmission system in one or more other configurations in which one or more of the lines (17, 18, 19) are discontinued.
A microcapsule comprising: i. a lipophilic core material, and ii. a microcapsule shell; wherein said microcapsule shell is formed from oil-in-water emulsion polymerisation of a monomer mixture consisting essentially of: (a) greater than 70 to 99% by weight of pentaerythritol triacrylate (PETA), and (b) 1 to 30% by weight of methacrylic acid and/or acrylic acid. i. a lipophilic core material, and ii. a microcapsule shell; (a) greater than 70 to 99% by weight of pentaerythritol triacrylate (PETA), and (b) 1 to 30% by weight of methacrylic acid and/or acrylic acid.
A display device comprising: a liquid-crystal display panel; at least one light assembly; an optical layer behind the liquid-crystal display panel; an optical sheet between the liquid-crystal display panel and the optical layer and including a coupling portion; and a frame behind the optical layer, wherein the frame includes: a flat portion forming a bottom of the frame; a flange supporting a portion of a back surface of the optical layer; a plurality of first ribs extended from the flange, the plurality of first ribs positioned along a periphery of the optical sheet; and a plurality of second ribs extended from the flange and positioned to be spaced with a predetermined gap from a side surface of the optical layer, wherein the plurality of second ribs are inserted into the coupling portion of the optical sheet to couple the optical sheet to the frame, and wherein the at least one light assembly is disposed on a substrate positioned at the flat portion of the frame; characterized in that the plurality of first ribs contacts and supports the side surface of the optical layer and a corresponding side surface of the optical sheet. a liquid-crystal display panel; at least one light assembly; an optical layer behind the liquid-crystal display panel; an optical sheet between the liquid-crystal display panel and the optical layer and including a coupling portion; and a frame behind the optical layer, wherein the frame includes: a flat portion forming a bottom of the frame; a flange supporting a portion of a back surface of the optical layer; a plurality of first ribs extended from the flange, the plurality of first ribs positioned along a periphery of the optical sheet; and a plurality of second ribs extended from the flange and positioned to be spaced with a predetermined gap from a side surface of the optical layer, wherein the plurality of second ribs are inserted into the coupling portion of the optical sheet to couple the optical sheet to the frame, and wherein the at least one light assembly is disposed on a substrate positioned at the flat portion of the frame; characterized in that the plurality of first ribs contacts and supports the side surface of the optical layer and a corresponding side surface of the optical sheet. a flat portion forming a bottom of the frame; a flange supporting a portion of a back surface of the optical layer; a plurality of first ribs extended from the flange, the plurality of first ribs positioned along a periphery of the optical sheet; and a plurality of second ribs extended from the flange and positioned to be spaced with a predetermined gap from a side surface of the optical layer, wherein the plurality of second ribs are inserted into the coupling portion of the optical sheet to couple the optical sheet to the frame, and wherein the at least one light assembly is disposed on a substrate positioned at the flat portion of the frame; characterized in that the plurality of first ribs contacts and supports the side surface of the optical layer and a corresponding side surface of the optical sheet.