mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a first substrate; a second substrate facing the first substrate; and a seal provided between the first substrate and the second substrate, wherein the first substrate includes an insulating substrate, a shift register (73a, 73b) monolithically formed on the insulating substrate, and a plurality of bus lines (G1,..., Gn; 13, 13a, 113), wherein the shift register (73a, 73b) includes a plurality of cascade-connected unit circuits (SR1,..., SRn), characterized in that the plurality of unit circuits (SR1,..., SRn) each include a clock terminal receiving a clock signal, an output terminal connected to one of the bus lines (G1,..., Gn) and outputting an output signal, a transistor having one of a source and a drain connected to the clock terminal and the other of the source and the drain connected to the output terminal, and a capacitor having a first terminal connected to a gate of the transistor and a second terminal connected to the output terminal, wherein the capacitor includes a first electrode, an insulating layer on the first electrode, and a second electrode on the insulating layer, at least one of the plurality of unit circuits (SR1,..., SRn) has the first electrode of the capacitor provided with at least one first cutout or opening, and the second electrode of the capacitor provided with at least one second cutout or opening facing the at least one first cutout or opening, so as to form at least one translucent portion within the capacitor, and wherein the seal is formed in a belt-like region and covers at least one translucent portion of the capacitor. a first substrate; a second substrate facing the first substrate; and a seal provided between the first substrate and the second substrate, wherein the first substrate includes an insulating substrate, a shift register (73a, 73b) monolithically formed on the insulating substrate, and a plurality of bus lines (G1,..., Gn; 13, 13a, 113), wherein the shift register (73a, 73b) includes a plurality of cascade-connected unit circuits (SR1,..., SRn), characterized in that the plurality of unit circuits (SR1,..., SRn) each include a clock terminal receiving a clock signal, an output terminal connected to one of the bus lines (G1,..., Gn) and outputting an output signal, a transistor having one of a source and a drain connected to the clock terminal and the other of the source and the drain connected to the output terminal, and a capacitor having a first terminal connected to a gate of the transistor and a second terminal connected to the output terminal, wherein the capacitor includes a first electrode, an insulating layer on the first electrode, and a second electrode on the insulating layer, at least one of the plurality of unit circuits (SR1,..., SRn) has the first electrode of the capacitor provided with at least one first cutout or opening, and the second electrode of the capacitor provided with at least one second cutout or opening facing the at least one first cutout or opening, so as to form at least one translucent portion within the capacitor, and wherein the seal is formed in a belt-like region and covers at least one translucent portion of the capacitor.
A hearing aid (10, 11) comprising a transceiver for establishing a short range wireless connection with an Internet enabled personal communication device acting as a gateway for the hearing aid (10, 11) to a remote server accessible over the Internet, characterized in that a processor of the hearing aid (10, 11) is configured to monitor electrical hearing aid parameters and detect that a hearing aid component (132, 140) has been replaced; wherein said processor, responsive to detecting the replacement, via the transceiver reports the hearing aid component replacement to the remote server via the Internet enabled personal communication device.
A system for the delivery of nitric oxide, comprising: a first platform including a first source of nitric oxide, wherein the first source of nitric oxide includes nitric oxide, wherein the first platform comprises a first heating device and the first heating device is thermally connected with a reservoir of the first source of nitric oxide, a second platform including a second source of a nitric oxide, wherein the second platform comprises a second heating device and the second heating device is thermally connected with a reservoir of the second source of nitric oxide, a delivery line coupled to the first platform and the second platform, and a controller configured to operate the first platform and the second platform simultaneously by controlling a temperature of the first source and the second source, and a sensor module including one or more nitric oxide sensors and one or more nitrogen dioxide sensors, wherein the sensor module includes a first sensor line including one or more nitric oxide sensors and a second sensor line including one or more nitric oxide sensors and one or more oxygen sensors. a first platform including a first source of nitric oxide, wherein the first source of nitric oxide includes nitric oxide, wherein the first platform comprises a first heating device and the first heating device is thermally connected with a reservoir of the first source of nitric oxide, a second platform including a second source of a nitric oxide, wherein the second platform comprises a second heating device and the second heating device is thermally connected with a reservoir of the second source of nitric oxide, a delivery line coupled to the first platform and the second platform, and a controller configured to operate the first platform and the second platform simultaneously by controlling a temperature of the first source and the second source, and a sensor module including one or more nitric oxide sensors and one or more nitrogen dioxide sensors, wherein the sensor module includes a first sensor line including one or more nitric oxide sensors and a second sensor line including one or more nitric oxide sensors and one or more oxygen sensors.
A communication method, applied to an S1 handover procedure where a user equipment, UE, enters a coverage of a target access node, wherein the method comprises: receiving, by a donor station of the target access node, a handover request message from a target mobility management entity, MME, of the handover, wherein the handover request message comprises a globally unique MME identifier, GUMMEI, of the target MME; and sending, by the donor station, the handover request message to the target access node; receiving, by the donor station, a handover request acknowledge message from the target access node; sending, by the donor station, the handover request acknowledge message to the target MME. receiving, by a donor station of the target access node, a handover request message from a target mobility management entity, MME, of the handover, wherein the handover request message comprises a globally unique MME identifier, GUMMEI, of the target MME; and sending, by the donor station, the handover request message to the target access node; receiving, by the donor station, a handover request acknowledge message from the target access node; sending, by the donor station, the handover request acknowledge message to the target MME.
Weaving device for weaving pile fabrics comprising a weaving machine with at least two yarn separating rollers, the weaving device having at least two warp beams (1a;1b) lying alongside one another in weft direction, each of which is provided to guide ground warp yarns (5a;5b) via a yarn separating roller to shed formation means (11,12) of the weaving machine, said yarn separating rollers extending over the whole width of the weaving machine and being connected at their respective ends to the weaving machine, characterised in that at least two yarn separating rollers between their ends comprise several supporting devices that link these yarn separating rollers together, and that each of these yarn separating rollers has at least one zone between two consecutive supporting devices that is designed for the passage of ground warp yarns (5a;5b) coming from both a first warp beam and a second warp beam.
A probe cable support, comprising: a leg, including: a first end; a second end opposing the first end; a top side between the first and second ends; and a bottom side between the first and second ends; a plurality of supports (216 1, 216 2,..., 216 N) protruding from the bottom side and intermittently arranged with non-zero gaps there between; and an arm protruding from the top side, characterized in that the arm protrudes up from the top side at the second end in a direction opposite of the plurality of supports and extends along the leg towards the first end. a leg, including: a first end; a second end opposing the first end; a top side between the first and second ends; and a bottom side between the first and second ends; a first end; a second end opposing the first end; a top side between the first and second ends; and a bottom side between the first and second ends; a plurality of supports (216 1, 216 2,..., 216 N) protruding from the bottom side and intermittently arranged with non-zero gaps there between; and an arm protruding from the top side, characterized in that the arm protrudes up from the top side at the second end in a direction opposite of the plurality of supports and extends along the leg towards the first end.
Textile traction and/or suspension means for use in rope drives, wherein the textile traction and/or suspension means comprises a braided fibre rope as a primary load-bearing component, a sheath layer on the braided fibre rope and a means on and/or in the sheath layer as a secondary load-bearing component, wherein the means is formed of a connection of synthetic fibres and/or mineral fibres and/or fibre strands consisting of synthetic fibres and/or mineral fibres, wherein the respective fibres and/or the respective fibre strands are interconnected by means of laying, twisting, braiding, circular weaving or meshing, and wherein the means is the load-bearing component of the textile traction and/or suspension means when and/or after the primary load-bearing component fails, and wherein the breaking strength of the means is at least 12.5% of the breaking strength of the braided fibre rope and wherein the proportion by mass of the means is less than 30% of the proportion by mass of the braided fibre rope, wherein the residual breaking strength of the means when and/or after the braided fibre rope fails is greater than the maximum permissible strand load of the textile traction and/or suspension means, and wherein at least one sensor element for detecting a break of the braided fibre rope is located in the braided fibre rope and/or in the sheath layer and/or in the means.
Composite composition containing a) a matrix containing at least one thermoplastic, wherein the at least one thermoplastic is selected from the group consisting of polyesters, b) at least one reinforcing substance of cellulose fibres, and c) at least one adhesion-reducing additive bonded covalently and/or via secondary valencies to the cellulose, characterised in that the adhesion-reducing additive is thermodynamically incompatible with the thermoplastic of the matrix and is a hydrophobic polymer grafted with maleic anhydride or a copolymer containing maleic anhydride or a mixture of several of the abovementioned adhesion-reducing additives, characterised in that the number-average molecular weight of the adhesion-reducing additive is between 500 g/mol and 10,000 g/mol and the reinforcing substance is at least partially or completely wetted or sheathed by the adhesion-reducing additive, wherein the fineness of the cellulose fibres is between 0.01 and 18 dtex. a) a matrix containing at least one thermoplastic, wherein the at least one thermoplastic is selected from the group consisting of polyesters, b) at least one reinforcing substance of cellulose fibres, and c) at least one adhesion-reducing additive bonded covalently and/or via secondary valencies to the cellulose,
A method for modeling in angiography, the method comprising: obtaining a first sequence of frames of CINE acquisition data, the CINE acquisition data of the frames representing a curved medical device over a heart cycle, wherein each frame is synchronized or labeled with a phase of the heart cycle as measured with an ECG device; modeling the curved medical device as a function of phase of the heart cycle, the modeling providing a time-varying model of the curved medical device using a function of a phase dependent regressor with sine, cosine, or sine and cosine features for enforcing periodic behavior; obtaining a second sequence of frames of fluoroscopy, data, wherein each frame is synchronized or labeled with a phase of the heart cycle as measured with an ECG device, the fluoroscopy data of the frames representing the curved medical device over the heart cycle; tracking the curved medical device in the frames of the fluoroscopy data as a function of the time-varying model of the curved medical device; and generating a fluoroscopy image of the curved medical device, the fluoroscopy image indicating the curved medical device from the tracking. obtaining a first sequence of frames of CINE acquisition data, the CINE acquisition data of the frames representing a curved medical device over a heart cycle, wherein each frame is synchronized or labeled with a phase of the heart cycle as measured with an ECG device; modeling the curved medical device as a function of phase of the heart cycle, the modeling providing a time-varying model of the curved medical device using a function of a phase dependent regressor with sine, cosine, or sine and cosine features for enforcing periodic behavior; obtaining a second sequence of frames of fluoroscopy, data, wherein each frame is synchronized or labeled with a phase of the heart cycle as measured with an ECG device, the fluoroscopy data of the frames representing the curved medical device over the heart cycle; tracking the curved medical device in the frames of the fluoroscopy data as a function of the time-varying model of the curved medical device; and generating a fluoroscopy image of the curved medical device, the fluoroscopy image indicating the curved medical device from the tracking.
A method to separate an eight-membered monocyclic unsaturated hydrocarbon at an initial concentration C i, from a hydrocarbon mixture further comprising additional nonlinear unsaturated C 8 H 2m hydrocarbons with 4≤m≤8, the method comprising providing a 10-ring pore molecular sieve having a sieving channel with a 10-ring sieving aperture with a minimum crystallographic free diameter greater than 3Å and a ratio of the maximum crystallographic free diameter to the minimum crystallographic free diameter between 1 and 2, the 10-ring pore molecular sieve having a T1/T2 ratio ≥ 20:1 wherein T1 is an element independently selected from Si and Ge or a combination thereof, and T2 is an element independently selected from Al, B and Ga or a combination thereof, the 10-ring pore molecular sieve further having a counterion selected from NH 4 +, Li +, Na +, K + and Ca ++ or a combination thereof, and contacting the hydrocarbon mixture with the 10-ring pore molecular sieve at a temperature of -20°C to 60 °C for a time and under conditions to obtain a sieved hydrocarbon mixture comprising the eight-membered monocyclic unsaturated hydrocarbon at a separation concentration C s > C i. providing a 10-ring pore molecular sieve having a sieving channel with a 10-ring sieving aperture with a minimum crystallographic free diameter greater than 3Å and a ratio of the maximum crystallographic free diameter to the minimum crystallographic free diameter between 1 and 2, the 10-ring pore molecular sieve having a T1/T2 ratio ≥ 20:1 wherein T1 is an element independently selected from Si and Ge or a combination thereof, and T2 is an element independently selected from Al, B and Ga or a combination thereof, the 10-ring pore molecular sieve further having a counterion selected from NH 4 +, Li +, Na +, K + and Ca ++ or a combination thereof, and contacting the hydrocarbon mixture with the 10-ring pore molecular sieve at a temperature of -20°C to 60 °C for a time and under conditions to obtain a sieved hydrocarbon mixture comprising the eight-membered monocyclic unsaturated hydrocarbon at a separation concentration C s > C i.
A method of multi-radio wireless communication in a system comprising a User Equipment, UE, (116, 122, 250, 510, 600, 910) and a base station, comprising: identifying by the UE at least one coexistence issue corresponding to a set of communication resources of the UE (116, 122, 250, 510, 600, 910); and communicating by the UE an indication of the at least one coexistence issue to a base station (100, 210, 522, 532, 930); characterised by: receiving the indication of the at least one coexistence issue at the base station; and assigning at the base station at least one parameter associated with communication at the UE, said assigning being in response to the received indication, wherein the assigning at least one parameter involves selectively scheduling a measurement gap pattern for the UE, to mitigate the at least one coexistence issue. identifying by the UE at least one coexistence issue corresponding to a set of communication resources of the UE (116, 122, 250, 510, 600, 910); and communicating by the UE an indication of the at least one coexistence issue to a base station (100, 210, 522, 532, 930); characterised by: receiving the indication of the at least one coexistence issue at the base station; and assigning at the base station at least one parameter associated with communication at the UE, said assigning being in response to the received indication, wherein the assigning at least one parameter involves selectively scheduling a measurement gap pattern for the UE, to mitigate the at least one coexistence issue. receiving the indication of the at least one coexistence issue at the base station; and assigning at the base station at least one parameter associated with communication at the UE, said assigning being in response to the received indication, wherein the assigning at least one parameter involves selectively scheduling a measurement gap pattern for the UE, to mitigate the at least one coexistence issue.
A sealing for a kitchen appliance, characterized in that the radial cross-section of sealing is wedge-shaped, the wedge angle α being from 1 to 20 degrees, preferably 5 to 10 degrees, with the thickness of the sealing reducing with increasing radius of the sealing.
An on-vehicle detector, comprising: a torque detecting portion for magnetically detecting a torque transmitted to a rotating shaft rotated by steering operation; and a rotation detecting portion for magnetically detecting a rotation of the rotating shaft, wherein the rotation detecting portion comprises a magnet with a pair of magnetic poles and a magnetic detection element, the magnet being disposed on a side of the rotating shaft so as to rotate simultaneously with the rotating shaft and the magnetic detection element being fixed to a vehicle body to detect a change in magnetic flux density caused by the magnet approaching or moving away in accordance with the rotation of the rotating shaft, and the magnet is disposed at a region of a circumferential direction of the rotating shaft and the magnet is consisted of an N-pole at one end and an S-pole at another end in the circumferential direction, characterized in that the magnetic detection element comprises a detection direction of the magnetic flux density along the circumferential direction of the rotating shaft. a torque detecting portion for magnetically detecting a torque transmitted to a rotating shaft rotated by steering operation; and a rotation detecting portion for magnetically detecting a rotation of the rotating shaft, wherein the rotation detecting portion comprises a magnet with a pair of magnetic poles and a magnetic detection element, the magnet being disposed on a side of the rotating shaft so as to rotate simultaneously with the rotating shaft and the magnetic detection element being fixed to a vehicle body to detect a change in magnetic flux density caused by the magnet approaching or moving away in accordance with the rotation of the rotating shaft, and the magnet is disposed at a region of a circumferential direction of the rotating shaft and the magnet is consisted of an N-pole at one end and an S-pole at another end in the circumferential direction, characterized in that the magnetic detection element comprises a detection direction of the magnetic flux density along the circumferential direction of the rotating shaft.
A cast slab provided when molten metal is poured into a mold and solidified while an electromagnetic force is applied to the molten metal by an electromagnetic coil arranged in the proximity of the mold, characterized by the cast slab comprising a corner point (c) of a central negative segregation line (m) of a negative segregation zone of an average profile of the negative segregation zone composed of a multilayer structure, or a virtual corner point (c') extrapolated from two adjoining sides of the central segregation lime (m) of an arcuate negative segregation zone; and parallel lines are drawn from point on two adjoining sides, which are distant from the corner point to the inside of the cast slab by 5 mm, to the two adjoining sides, and a difference between shell thickness D, at the point of intersection with the central segregation line (m) and shell thickness D2 at the center in the cast slab width direction is not more than 3 mm, the negative segregation zone is formed in the inner circumferential direction of the mold having pitch P defined by the following expression is a range of Do±15 mm in the thickness direction with respect to solidified shell thickness D o (mm) at the core center in the casting direction determined by solidified shell thickness D (mm) defined by the following expression D = K L / V n D: Solidified shell thickness L: Length from meniscus to core center of electromagnetic coil V: Rate of casting K: Coefficient of solidification n: Constant P = U × t / 2 u: Rate of solidification (dD/dt (mm/s)) t: period of vibration whereby the cast slab having an equi-axed crystal ratio of not less than 50% on the inside of a negative segregation zone composed of a multilayer structure, on the inside of dentrite or a crystalline structure zone composed of a multilayer-shaped deflection structure, and whereby the cast slab having a negative zone composed of multilayer structure, the pitch of which is not more than 2 mm and the number of the Layers of which is not less than three, a dendrite or a crystalline structure zone composed of a deflection structure of a multilayer, wherein the thickness of the negative segregation zone, centrite or crystalline structure zone is not more than 30 mm. D: Solidified shell thickness L: Length from meniscus to core center of electromagnetic coil V: Rate of casting K: Coefficient of solidification n: Constant u: Rate of solidification (dD/dt (mm/s)) t: period of vibration