mhurhangee/ep-ind-claims huggingface dataset:
A touch substrate, comprising: a base substrate; and a touch electrode layer on the base substrate comprising a first region having a plurality of first mesh electrode patterns, a second region having a plurality of second mesh electrode patterns corresponding to the plurality of first mesh electrode patterns, and an interface region between the first region and the second region; each of the plurality of first mesh electrode patterns comprising a plurality of first mesh electrode lines having a first line width, a corresponding second mesh electrode pattern comprising a plurality of second mesh electrode lines corresponding to the plurality of first mesh electrode lines and having the first line width; the plurality of first mesh electrode lines extend from the first region into the interface region; a pair of corresponding first mesh electrode line and second mesh electrode line being electrically connected to each other in the interface region; wherein the first mesh electrode line in the interface region has a second line width no less than the first line width; characterized in that the first mesh electrode line in the interface region is offset from the corresponding second mesh electrode line; optionally, the first mesh electrode line in the interface region is offset from the corresponding second mesh electrode line by an offset width less than the first line width. a base substrate; and a touch electrode layer on the base substrate comprising a first region having a plurality of first mesh electrode patterns, a second region having a plurality of second mesh electrode patterns corresponding to the plurality of first mesh electrode patterns, and an interface region between the first region and the second region; each of the plurality of first mesh electrode patterns comprising a plurality of first mesh electrode lines having a first line width, a corresponding second mesh electrode pattern comprising a plurality of second mesh electrode lines corresponding to the plurality of first mesh electrode lines and having the first line width; the plurality of first mesh electrode lines extend from the first region into the interface region; a pair of corresponding first mesh electrode line and second mesh electrode line being electrically connected to each other in the interface region; wherein the first mesh electrode line in the interface region has a second line width no less than the first line width; characterized in that the first mesh electrode line in the interface region is offset from the corresponding second mesh electrode line; optionally, the first mesh electrode line in the interface region is offset from the corresponding second mesh electrode line by an offset width less than the first line width.
A microfluidic connection device comprising: a plate-shaped plate; reaction zones being microchambers installed at predetermined areas of the plate, and having observation windows through which chemical reactions between samples supplied to therein are observed; supply tubes connected to the reaction zones so as to supply reagents to the reaction zones; and discharge tubes for discharging reactants from the reaction zones, wherein the supply tubes and the discharge tubes are elongated in a vertical direction therein on one side of the plate, so that reagent lifting columns in the form of columns through which reagents are lifted are formed, wherein the reaction zones are formed at the ends of the reagent lifting columns, and the supply tubes and the discharge tubes are connected to the reaction zones, and characterized in that the reagent lifting columns are coupled to sealing covers, so that the reaction zones are formed to be closed spaces due to the inner surfaces of the sealing covers, and immobilized capture antibodies are provided on the inner surfaces of the sealing cover. a plate-shaped plate; reaction zones being microchambers installed at predetermined areas of the plate, and having observation windows through which chemical reactions between samples supplied to therein are observed; supply tubes connected to the reaction zones so as to supply reagents to the reaction zones; and discharge tubes for discharging reactants from the reaction zones, wherein the supply tubes and the discharge tubes are elongated in a vertical direction therein on one side of the plate, so that reagent lifting columns in the form of columns through which reagents are lifted are formed, wherein the reaction zones are formed at the ends of the reagent lifting columns, and the supply tubes and the discharge tubes are connected to the reaction zones, and characterized in that the reagent lifting columns are coupled to sealing covers, so that the reaction zones are formed to be closed spaces due to the inner surfaces of the sealing covers, and immobilized capture antibodies are provided on the inner surfaces of the sealing cover.
Thermoplastic polymer composition comprising A. a thermoplastic resin; B. an impact modifier in an amount of 2.5 - 25 wt.%, relative to the total weight of the composition; and C. a laser direct structuring additive; wherein the thermoplastic resin comprises a thermoplastic polyamide or a thermoplastic polyester, and wherein the thermoplastic polymer composition further comprises D. a halogen free flame retardant comprising a melamine condensation product, a salt of a polyphosphate and melamine or a melamine condensation product, or a salt of an organic phosphinic acid or diphosphinic acid and a metal, melamine or a melamine condensation product, or any mixture thereof. A. a thermoplastic resin; B. an impact modifier in an amount of 2.5 - 25 wt.%, relative to the total weight of the composition; and C. a laser direct structuring additive; wherein the thermoplastic resin comprises a thermoplastic polyamide or a thermoplastic polyester, and wherein the thermoplastic polymer composition further comprises D. a halogen free flame retardant comprising a melamine condensation product, a salt of a polyphosphate and melamine or a melamine condensation product, or a salt of an organic phosphinic acid or diphosphinic acid and a metal, melamine or a melamine condensation product, or any mixture thereof.
Spring head screw assembly comprising a spring head screw with a head having a conical skirt that widens in the direction of the free end of a threaded shaft adjoining the head, characterized in that the spring head screw assembly has a washer that is arranged between the skirt and the threaded part of the shaft in a non-threaded part of the shaft with a bolt diameter (d 0), wherein the inner surface of the skirt transitions into the shaft within a radius (R U), wherein the inner surface forms a contact angle (a) with a bearing plane (E A), which bearing plane (E A) is determined by the end of the skirt facing the free end of the screw and is orthogonal to the screw axis, wherein the shaft has a cylindrical region with the bolt diameter (d 0) between the bearing plane (E A) and the radius (R U) at the transition to the skirt.
A device for manufacturing a multiple layer rubber strip comprising at least a first rubber strip and a second rubber strip, the device comprising: a first rubber extruder for extruding the first rubber strip; a second rubber extruder for extruding the second rubber strip; a first conveyor for conveying the first rubber strip extruded from the first extruder to a downstream side in a convey direction, wherein the first conveyor has a conveying surface on which the first rubber strip is carried; and a second conveyor for conveying the second rubber strip extruded from the second extruder to a downstream side in the convey direction, the second conveyor located upwardly of the first conveyor and having a downstream conveyor end in the convey direction, wherein the downstream conveyor end of the second conveyor positions above the conveying surface of the first conveyor such that the second rubber strip delivered from the downstream conveyor end of the second conveyor meets and overlaps the first rubber strip on the first conveyor at a joining location to form the single multiple layer rubber strip. a first rubber extruder for extruding the first rubber strip; a second rubber extruder for extruding the second rubber strip; a first conveyor for conveying the first rubber strip extruded from the first extruder to a downstream side in a convey direction, wherein the first conveyor has a conveying surface on which the first rubber strip is carried; and a second conveyor for conveying the second rubber strip extruded from the second extruder to a downstream side in the convey direction, the second conveyor located upwardly of the first conveyor and having a downstream conveyor end in the convey direction, wherein the downstream conveyor end of the second conveyor positions above the conveying surface of the first conveyor such that the second rubber strip delivered from the downstream conveyor end of the second conveyor meets and overlaps the first rubber strip on the first conveyor at a joining location to form the single multiple layer rubber strip.
An inorganic fiber molded body comprising: an alumina fiber; an inorganic porous filler; and a colloidal silica, wherein a ratio of crystalline minerals in the alumina fiber is 30% by mass or more and 80% by mass or less, the inorganic porous filler contains CaO·6Al 2 O 3 in which a particle diameter D95, which has a cumulative value of 95% in a volume frequency particle size distribution, is 300 um or less, and in 100% by mass of the inorganic fiber molded body, a content of the alumina fiber is 15% by mass or more and 70% by mass or less, a content of the inorganic porous filler is 20% by mass or more and 79% by mass or less, and a content of the colloidal silica is 2% by mass or more and 8% by mass or less. an alumina fiber; an inorganic porous filler; and a colloidal silica, wherein a ratio of crystalline minerals in the alumina fiber is 30% by mass or more and 80% by mass or less, the inorganic porous filler contains CaO·6Al 2 O 3 in which a particle diameter D95, which has a cumulative value of 95% in a volume frequency particle size distribution, is 300 um or less, and in 100% by mass of the inorganic fiber molded body, a content of the alumina fiber is 15% by mass or more and 70% by mass or less, a content of the inorganic porous filler is 20% by mass or more and 79% by mass or less, and a content of the colloidal silica is 2% by mass or more and 8% by mass or less.
A battery, comprising: a positive electrode plate comprising a positive current collector and a positive active material layer; a negative electrode plate comprising a negative current collector and a negative active material layer, and an electrolyte, wherein the positive current collector comprises an insulation layer and at least one conductive layer, the insulation layer is used to support the at least one conductive layer, each of the at least one conductive layer is used to support the positive active material layer and is located above at least one surface of the insulation layer, and each of the at least one conductive layer has a thickness of D2 satisfying: 300 nm≤D2≤2 μm, wherein at least one protective layer is arranged on at least one surface of each of the at least one conductive layer, and wherein the negative current collector is a copper foil current collector having a thickness of 1 μm to 5.9 μm, characterized in that one of the at least one protective layer is arranged on a surface of one of the at least one conductive layer facing the insulation layer. a positive electrode plate comprising a positive current collector and a positive active material layer; a negative electrode plate comprising a negative current collector and a negative active material layer, and an electrolyte, wherein the positive current collector comprises an insulation layer and at least one conductive layer, the insulation layer is used to support the at least one conductive layer, each of the at least one conductive layer is used to support the positive active material layer and is located above at least one surface of the insulation layer, and each of the at least one conductive layer has a thickness of D2 satisfying: 300 nm≤D2≤2 μm, wherein at least one protective layer is arranged on at least one surface of each of the at least one conductive layer, and wherein the negative current collector is a copper foil current collector having a thickness of 1 μm to 5.9 μm, characterized in that one of the at least one protective layer is arranged on a surface of one of the at least one conductive layer facing the insulation layer.
A surface-coated cutting tool comprising: a hard substrate; a lower layer which is formed on a surface of the hard substrate, contains a composite compound consisting of at least one element selected from Ti and Al, and at least one element selected from N and C, and has an average thickness of 0.1 to 3 μm; and an upper layer having an average thickness of 1 to 13 μm, which is formed on the lower layer and having a texture in which fine grains of crystalline Ti (C,N) based compounds or fine grains of crystalline (Ti, Al)(C, N) based compounds are dispersively distributed in a matrix of a carbon based amorphous material containing W, wherein the lower layer consists of one or both of a TiN layer and a TiCN layer, or consists of a composite nitride of Ti and Al, which satisfies a compositional formula: (Ti 1-X Al X)N (where X ranges from 0.40 to 0.60 by atomic ratio); and the upper layer contains, W: 5 to 20 atomic %, Ti: 2.5 to 10 atomic %, Al: 1.6 to 15 atomic %, nitrogen: 0.4 to 22.5 atomic %, and a balance consisting of carbon and unavoidable impurities, and includes the fine grains of crystalline (Ti,Al)(C,N) based compounds; or optionally, the upper layer contains, W: 5 to 40 atomic %,Ti: 0.5 to 30 atomic %, nitrogen: 0.5 to 30 atomic %, and a balance consisting of carbon and unavoidable impurities, and includes the fine grains of crystalline Ti(C,N) based compounds, where the lower layer consists of one or both of the TiN layer and the TiCN layer. a hard substrate; a lower layer which is formed on a surface of the hard substrate, contains a composite compound consisting of at least one element selected from Ti and Al, and at least one element selected from N and C, and has an average thickness of 0.1 to 3 μm; and an upper layer having an average thickness of 1 to 13 μm, which is formed on the lower layer and having a texture in which fine grains of crystalline Ti (C,N) based compounds or fine grains of crystalline (Ti, Al)(C, N) based compounds are dispersively distributed in a matrix of a carbon based amorphous material containing W, wherein the lower layer consists of one or both of a TiN layer and a TiCN layer, or consists of a composite nitride of Ti and Al, which satisfies a compositional formula: (Ti 1-X Al X)N (where X ranges from 0.40 to 0.60 by atomic ratio); and the upper layer contains, W: 5 to 20 atomic %, Ti: 2.5 to 10 atomic %, Al: 1.6 to 15 atomic %, nitrogen: 0.4 to 22.5 atomic %, and a balance consisting of carbon and unavoidable impurities, and includes the fine grains of crystalline (Ti,Al)(C,N) based compounds; or optionally, the upper layer contains, W: 5 to 40 atomic %,Ti: 0.5 to 30 atomic %, nitrogen: 0.5 to 30 atomic %, and a balance consisting of carbon and unavoidable impurities, and includes the fine grains of crystalline Ti(C,N) based compounds, where the lower layer consists of one or both of the TiN layer and the TiCN layer.
A method of lowering the cloud point of fatty acid esters, comprising: (a) providing fatty acid esters; (b) adding solvent to the fatty acid esters; (c) adding urea to the fatty acid esters; (d) mixing the fatty acid esters, solvent and urea; (e) evaporating all of the solvent, thereby forming a clathrate-liquid mixture, wherein all of the urea is used to form clathrates; and (f) separating all of the clathrates from the liquid in the mixture formed in step (e), thereby forming refined fatty acid esters having a lower cloud point than that of the fatty acid esters provided in step (a). (a) providing fatty acid esters; (b) adding solvent to the fatty acid esters; (c) adding urea to the fatty acid esters; (d) mixing the fatty acid esters, solvent and urea; (e) evaporating all of the solvent, thereby forming a clathrate-liquid mixture, wherein all of the urea is used to form clathrates; and (f) separating all of the clathrates from the liquid in the mixture formed in step (e), thereby forming refined fatty acid esters having a lower cloud point than that of the fatty acid esters provided in step (a).
A pneumatic tire comprising a carcass toroidally extending between a pair of bead portions, at least one inclined belt layer arranged passing through a tire equator outward in the tire radial direction of a crown portion of the carcass, and having a cord extending inclined at an angle of 30° or more with respect to a tire circumferential direction, and a tread arranged outward in the tire radial direction of the inclined belt layer, wherein at least one circumferential cord layer having a cord extending along the tire circumferential direction is arranged inward in the tire radial direction of the tread, the circumferential cord layer has a high-rigidity region which is a region including the tire equator and in which the rigidity in the tire circumferential direction per unit width in the tire width direction is high, and a low-rigidity region which is a region on each side in the tire width direction of the high-rigidity region and in which the rigidity in the tire circumferential direction per unit width in the tire width direction is low, the high-rigidity region has a lower negative ratio in a ground contact width of the tread than the low-rigidity region, and when W1 denotes a width in the tire width direction of the entire circumferential cord layer, W2 denotes a width in the tire width direction of the high-rigidity region, and D1 and D2 respectively denote the longer and the shorter among the distances in the tire width direction from each end in the tire width direction of the entire circumferential cord layer to each end in the tire width direction of the high-rigidity region on a side close to each end in the tire width direction of the circumferential cord layer, W2/W1 = 0.2 to 0.7, and, D1/D2 = 2.0 to 8.0 are satisfied.
A computer-implemented method comprising: responsive to a sending thread of a client process sending a first message to a server process, wherein the sending thread of the client process is blocked by said sending to await a reply to the first message from the server process, determining by an operating system (200, 620) managing the client process and the server process that a timeout has expired without the server process having replied to the first message; upon determining that the timeout has expired without the server process having replied to the first message, sending a request to the server process to unblock the sending thread of the client process by replying to the first message, wherein the request is a second message that does not expect a reply to itself but requires the server process to reply to the first message; after sending the request for the server process to unblock the sending thread by replying to the first message, determining, by the operating system, that a further period has elapsed without the server process having replied to the first message; and upon determining that the further period has elapsed without the server process having unblocked the sending thread by replying to the first message, triggering one or more actions (628, 630) related to the server process, wherein the one or more actions include: terminating the server process and sending an error to the client process, or restarting the operating system, or rebooting the computer. responsive to a sending thread of a client process sending a first message to a server process, wherein the sending thread of the client process is blocked by said sending to await a reply to the first message from the server process, determining by an operating system (200, 620) managing the client process and the server process that a timeout has expired without the server process having replied to the first message; upon determining that the timeout has expired without the server process having replied to the first message, sending a request to the server process to unblock the sending thread of the client process by replying to the first message, wherein the request is a second message that does not expect a reply to itself but requires the server process to reply to the first message; after sending the request for the server process to unblock the sending thread by replying to the first message, determining, by the operating system, that a further period has elapsed without the server process having replied to the first message; and upon determining that the further period has elapsed without the server process having unblocked the sending thread by replying to the first message, triggering one or more actions (628, 630) related to the server process, wherein the one or more actions include: terminating the server process and sending an error to the client process, or restarting the operating system, or rebooting the computer.
A handling device, in particular a robot, comprising different instruments, a receiving device for receiving the different instruments (38, 40, 42), the receiving device and the different instruments (38, 40, 42) comprising mutually compatible connecting elements (14, 16), changeable indicator devices (44, 46, 48) provided on the instruments (38, 40, 42), an indicator device provided on the receiving device in addition to the indicator devices (44, 46, 48) of the instruments (38, 40, 42), and a control device connected to the indicator devices (36, 44, 46, 48) for changing the indicator devices (36, 44, 46, 48), particularly in accordance with preset control data, wherein, for indicating a required connection, the indicator device of the receiving device and the indicator device (44, 46, 48) of the requested instrument (38, 40, 42) comprise corresponding indicators.
Pharmaceutical or nutraceutical composition, comprising a) a core a), comprising a pharmaceutical or a nutraceutical active ingredient and b) a coating layer b), comprising a mixture of 80 to 96 % by weight of a water-insoluble (meth)acrylate polymer and 4 to 20 % by weight of guar gum, wherein the water-insoluble (meth)acrylate polymer is composed of polymerized units of more than 95 and up to 100 % by weight C 1 - to C 4 -alkyl esters of acrylic acid or of methacrylic acid and less than 5% by weight of acrylic acid or methacrylic acid. a) a core a), comprising a pharmaceutical or a nutraceutical active ingredient and b) a coating layer b), comprising a mixture of 80 to 96 % by weight of a water-insoluble (meth)acrylate polymer and 4 to 20 % by weight of guar gum, wherein the water-insoluble (meth)acrylate polymer is composed of polymerized units of more than 95 and up to 100 % by weight C 1 - to C 4 -alkyl esters of acrylic acid or of methacrylic acid and less than 5% by weight of acrylic acid or methacrylic acid.