mhurhangee/ep-ind-claims huggingface dataset:
A color filter comprising a substrate and a cured layer of a photosensitive resist composition comprising a polyacrylate monomer of formula or a deoxy compound thereof, wherein n is 2, 3 or 4; R 1, R 2, and R 3 are independently from each other H or a group of formula R 4 is independently from each other H or methyl; with the proviso that at least three groups of formula are present; a binder; a pigment; and a photopolymerization initiator, wherein the color filter is obtainable by a process comprising the steps of coating the photosensitive resist composition on the substrate, drying, exposing and developing to form a film. a polyacrylate monomer of formula or a deoxy compound thereof, wherein n is 2, 3 or 4; R 1, R 2, and R 3 are independently from each other H or a group of formula R 4 is independently from each other H or methyl; with the proviso that at least three groups of formula are present; wherein n is 2, 3 or 4; R 1, R 2, and R 3 are independently from each other H or a group of formula R 4 is independently from each other H or methyl; with the proviso that at least three groups of formula are present; a binder; a pigment; and a photopolymerization initiator,
A method comprising: obtaining at least one image comprising at least one object (103, 104, 105); calculating a background mask, the background mask being a mask of image pixels which are not part of any object in the image; calculating an object mask, the object mask being a mask of image pixels which are part of the object to be gripped; calculating a gripper mask, the gripper mask being a mask of image pixels corresponding to gripping parts of the gripper; calculating a gripping area mask, the gripping area mask representing a minimum area/volume within the gripper which a gripped part of an object must fulfil; overlaying the gripper mask on the background mask in at least one location; calculating the overlap of the gripper mask and the background mask at the at least one location; overlaying the gripping area mask on the object mask in at least one location; calculating the overlap of the gripping area mask and the object mask at the at least one location; selecting a gripping location based on the overlapping calculations; and issuing at least one instruction to a gripper to grip the object at the selected gripping location. obtaining at least one image comprising at least one object (103, 104, 105); calculating a background mask, the background mask being a mask of image pixels which are not part of any object in the image; calculating an object mask, the object mask being a mask of image pixels which are part of the object to be gripped; calculating a gripper mask, the gripper mask being a mask of image pixels corresponding to gripping parts of the gripper; calculating a gripping area mask, the gripping area mask representing a minimum area/volume within the gripper which a gripped part of an object must fulfil; overlaying the gripper mask on the background mask in at least one location; calculating the overlap of the gripper mask and the background mask at the at least one location; overlaying the gripping area mask on the object mask in at least one location; calculating the overlap of the gripping area mask and the object mask at the at least one location; selecting a gripping location based on the overlapping calculations; and issuing at least one instruction to a gripper to grip the object at the selected gripping location.
A method for aligning a wind turbine with the wind direction, characterised in the steps of: - measuring at least a first pressure at a first side of the wind turbine's nacelle; - determining the pressure difference between the measured first pressure and a second pressure; - and rotating the nacelle in dependence to the determined pressure difference. - measuring at least a first pressure at a first side of the wind turbine's nacelle; - determining the pressure difference between the measured first pressure and a second pressure; - and rotating the nacelle in dependence to the determined pressure difference.
A method for an apparatus comprising an xDSL transceiver (200, 300), the method comprising; receiving a packet using deinterleaving and RS decoding, wherein the packet comprises a header field and a plurality of bytes and wherein the header field comprises a sequence identifier; storing the packet in a memory of the apparatus, such as in a retransmission buffer, for the storing of packets for retransmission functions; and transmitting a message over a path with no delay due to interleaving, wherein the message includes an acknowledgement or a negative acknowledgement indicating whether a packet needs to be retransmitted, wherein the transmitted message is transmitted on subcarriers which operate with an SNR margin that is higher than 6 dB. receiving a packet using deinterleaving and RS decoding, wherein the packet comprises a header field and a plurality of bytes and wherein the header field comprises a sequence identifier; storing the packet in a memory of the apparatus, such as in a retransmission buffer, for the storing of packets for retransmission functions; and transmitting a message over a path with no delay due to interleaving, wherein the message includes an acknowledgement or a negative acknowledgement indicating whether a packet needs to be retransmitted, wherein the transmitted message is transmitted on subcarriers which operate with an SNR margin that is higher than 6 dB.
A secure integrated airspace management system, the secure integrated airspace management system including one or more secure global registries or databases storing: (i) unique digital aircraft identification numbers ("aircraft IDs"); (ii) details of each registered owner of an aircraft ("owner IDs"); (iii) details of each pilot of an aircraft ("pilot IDs"); in which the secure integrated airspace management system is configured to receive, prior to a flight, data from an authentication module in an aircraft declaring the identity of its pilot ("pilot ID") and the identity of the aircraft ("aircraft ID"), in which the aircraft ID is an International Mobile Equipment Identity based format number; and the secure integrated airspace management system is configured to then validate and authenticate the aircraft against information stored in the secure global registries or databases and to send a signal authorizing the aircraft to fly, and without which that aircraft is not permitted to fly; and in which the secure integrated airspace management system is configured to receive, from a communications module in each aircraft it has validated and authenticated, location data, such as the heading, position, speed and altitude, so that the secure integrated airspace management system can track all of these aircraft. (i) unique digital aircraft identification numbers ("aircraft IDs"); (ii) details of each registered owner of an aircraft ("owner IDs"); (iii) details of each pilot of an aircraft ("pilot IDs");
An air conditioning indoor unit comprising: a casing in which an air outlet is formed; a fan that can change the air volume of outlet air blown out from the air outlet; a flap (31, 32) that can change the air direction, in the up and down direction, of the outlet air; an air volume control unit that is configured to adjust the air volume by controlling the rotational speed of the fan in accordance with an air volume value it has determined; and an air direction control unit that is configured to adjust the air direction by controlling the angle of the flap and can switch between a first air direction in which the outlet air heads toward a ceiling and a second air direction in which the outlet air heads downward, characterized in that when the air direction switches from the second air direction to the first air direction, the air volume control unit is configured to determine the air volume value so as to exclude a predetermined small-air-volume-range corresponding to set values less than a predetermined set value. a casing in which an air outlet is formed; a fan that can change the air volume of outlet air blown out from the air outlet; a flap (31, 32) that can change the air direction, in the up and down direction, of the outlet air; an air volume control unit that is configured to adjust the air volume by controlling the rotational speed of the fan in accordance with an air volume value it has determined; and an air direction control unit that is configured to adjust the air direction by controlling the angle of the flap and can switch between a first air direction in which the outlet air heads toward a ceiling and a second air direction in which the outlet air heads downward, characterized in that when the air direction switches from the second air direction to the first air direction, the air volume control unit is configured to determine the air volume value so as to exclude a predetermined small-air-volume-range corresponding to set values less than a predetermined set value.
A porous composite material comprising: a MAX phase solid having a formula M n+1 AX n, where n=1-3, M is an early transition metal selected from the group consisting of Sc, Ti, Zr, Hf, V, Nb, Ta, Cr, Mo, and combinations thereof, A is an A-group element selected from the group consisting of Cd, Al, Gd, In, Tl, Si, Ge, Sn, Pb, P, As, S, and combinations thereof, and X includes at least one of carbon and nitrogen; and a high temperature melting point metallic material interdispersed with the MAX phase solid, wherein the high temperature melting point metallic material is a metal or an alloy having a base metal selected from the group consisting of Y, Sc, Be, and combinations thereof. a MAX phase solid having a formula M n+1 AX n, where n=1-3, M is an early transition metal selected from the group consisting of Sc, Ti, Zr, Hf, V, Nb, Ta, Cr, Mo, and combinations thereof, A is an A-group element selected from the group consisting of Cd, Al, Gd, In, Tl, Si, Ge, Sn, Pb, P, As, S, and combinations thereof, and X includes at least one of carbon and nitrogen; and a high temperature melting point metallic material interdispersed with the MAX phase solid, wherein the high temperature melting point metallic material is a metal or an alloy having a base metal selected from the group consisting of Y, Sc, Be, and combinations thereof.
A compound of Formula: or a pharmaceutically acceptable salt, solvate or hydrate thereof; wherein: X = CF 3 or Cl; and n = 1 or 2. X = CF 3 or Cl; and n = 1 or 2.
Annular flange to be welded to a tubular segment of a power pylon, said annular flange having an end face to face an end face of an opposing flange (5, 6), the annular flange (5, 6) having through bores distributed in a circle, wherein the end face has a central annular recessed zone, said central annular recessed zone being flanked by a radially outward engagement surface and a radially inward engagement surface which form the interface with the opposing flange (5, 6), characterized in that the central annular recessed zone is machined in said end face, and in that the engagement surfaces (17, 18) are machined such that they each form an even plane, wherein the radially inward engagement surface is a little recessed with respect to the outward engagement surface.
One or more computer-readable media having computer-executable instructions embodied thereon that, when executed, perform a method for throttling requests from one or more virtual machines (VMs) to a hard-disk drive using a filter driver, the method comprising: receiving a subject request from a service application running on the one or more VMs; accessing a disk-drive model that behaves substantially similar to the hard-disk drive, wherein the process of accessing comprises: (a) reading the disk-drive model's simulation of performance, characteristics of the hard-disk drive; and (b) reading the disk-drive model's simulation of a current state of a disk head of the hard-disk drive; computing a projected execution time to carry out the subject request as a function of the performance characteristics and the current state of the disk head; measuring an actual execution time to carry out the subject request upon passing the subject request to the hard-disk drive; and throttling traffic of the requests from the VMs to the hard-disk drive using a comparison of the projected execution time and the actual execution time receiving a subject request from a service application running on the one or more VMs; accessing a disk-drive model that behaves substantially similar to the hard-disk drive, wherein the process of accessing comprises: (a) reading the disk-drive model's simulation of performance, characteristics of the hard-disk drive; and (b) reading the disk-drive model's simulation of a current state of a disk head of the hard-disk drive; (a) reading the disk-drive model's simulation of performance, characteristics of the hard-disk drive; and (b) reading the disk-drive model's simulation of a current state of a disk head of the hard-disk drive; computing a projected execution time to carry out the subject request as a function of the performance characteristics and the current state of the disk head; measuring an actual execution time to carry out the subject request upon passing the subject request to the hard-disk drive; and throttling traffic of the requests from the VMs to the hard-disk drive using a comparison of the projected execution time and the actual execution time
Composition for use in the remineralization of teeth, which comprises a fluoride-containing component and a calcium-containing component, characterized in that the calcium-containing component comprises a nanoparticulate calcium salt and in that the composition is designed for the successive application of the fluoride-containing component and the calcium-containing component to the tooth surface, wherein the fluoride-containing component is applied to the tooth before the calcium-containing component.
A piece insertion method for a pipe, comprising the steps of: - providing a pipe and providing at least one piece to be inserted into said pipe, - ejecting said piece from an ejection unit, - advancing said at least one piece inside said pipe by a piece advancing unit and placing said piece on a lifting device located inside the pipe which moves according to an upwards and downwards lifting motion, wherein said lifting device is actuated by at least one of the group consisting of an electro-mechanical actuator, an electromagnetic actuator, a magnetostrictive actuator, and an electrical actuator, and - catapulting said piece in the air inside the pipe towards an inner surface of said pipe using said upward lifting motion of said lifting device, such that when said piece comes into contact with said inner surface of said pipe for the first time, in order to be welded against said inner surface, said piece is parallel or substantially parallel to said inner surface on impact. - providing a pipe and providing at least one piece to be inserted into said pipe, - ejecting said piece from an ejection unit, - advancing said at least one piece inside said pipe by a piece advancing unit and placing said piece on a lifting device located inside the pipe which moves according to an upwards and downwards lifting motion, wherein said lifting device is actuated by at least one of the group consisting of an electro-mechanical actuator, an electromagnetic actuator, a magnetostrictive actuator, and an electrical actuator, and - catapulting said piece in the air inside the pipe towards an inner surface of said pipe using said upward lifting motion of said lifting device, such that when said piece comes into contact with said inner surface of said pipe for the first time, in order to be welded against said inner surface, said piece is parallel or substantially parallel to said inner surface on impact.
A step-by-step electric relay structure of a bistable type, comprising a mechanical part and an electric part, said mechanical part comprising push-button means (P.P.) to be operated by a user and said electric part comprising coil means, capacitor means (C1, C2, C3), resistor means (R1-R4) and diode means (R-S) operatively interconnected to one another, wherein said coil means (A or B) comprise two coils (A and B) coupled to one another, thereby, as said push-button means are operated by said user to provide a switching or exchanging of at least a contact of said relay structure, said capacitors (C1, C2, C3 or C1 through R1-R3) are charged, characterized in that one (A or B) of said two coils (A and B) is shorted, thereby providing said electric relay structure with a logic SET function and a logic RESET function.
A method in a first primary device for enabling personalized usage of a secondary device by a first user of the first primary device, the method comprising: - receiving (3:1) triangulation information from the secondary device, the triangulation information comprising signal strength measurements by the secondary device of signals transmitted from a set of devices (202a-c) associated with the first primary device and forming a limited area of proximity to the first primary device, - determining (3:2) whether the secondary device is located within said limited area based on the received triangulation information, - establishing (3:3) a connection with the secondary device when determined to be located within the limited area, - sending (3:4) identity information of the first user to the secondary device as a basis for adapting (3:6) functions and settings in the secondary device to provide personalized usage of the secondary device by the first user, wherein the personalized usage comprises the secondary device being adapted for a specific user or owner in the way the secondary device functions and/or operates, and - sending an adaptation release message to the secondary device to release adaptation to the first user from the secondary device when the secondary device moves out of the limited area. - receiving (3:1) triangulation information from the secondary device, the triangulation information comprising signal strength measurements by the secondary device of signals transmitted from a set of devices (202a-c) associated with the first primary device and forming a limited area of proximity to the first primary device, - determining (3:2) whether the secondary device is located within said limited area based on the received triangulation information, - establishing (3:3) a connection with the secondary device when determined to be located within the limited area, - sending (3:4) identity information of the first user to the secondary device as a basis for adapting (3:6) functions and settings in the secondary device to provide personalized usage of the secondary device by the first user, wherein the personalized usage comprises the secondary device being adapted for a specific user or owner in the way the secondary device functions and/or operates, and - sending an adaptation release message to the secondary device to release adaptation to the first user from the secondary device when the secondary device moves out of the limited area.
A solvent composition comprising: at least 80 wt.% of trans-1,2-dichloroethylene (t-DCE); and 0.1 to 20 wt.% of at least one organic compound selected from the group consisting of methanol, ethanol, n-propanol, iso-propanol, n-butanol, iso-butanol, t-butanol, methyl acetate, ethyl acetate, t-butyl acetate, dimethoxy methane, dimethoxy ethane, dimethoxy propane, acetone, methyl ethyl ketone, methyl isobutyl ketone, nitromethane, dimethylcarbonate, acetic acid, acetonitrile, diethyl ether, ethylene glycol, diethylene glycol, diethylene glycol dimethyl ether, glycerin, methyl t-butyl ether, dimethyl-formamide, pyridine, dimethyl sulfoxide, butyleneoxide, furan, tetrahydrofuran, dioxane, toluene, xylene, pentane, hexane, cyclohexane, octane, pentene, hexene, cyclohexene, heptane, benzene, and combinations thereof, wherein: the at least one organic compound is flammable by itself; the composition is nonflammable, and the composition comprises less than 1 wt.% of halogenated organic compounds other than t-DCE. at least 80 wt.% of trans-1,2-dichloroethylene (t-DCE); and 0.1 to 20 wt.% of at least one organic compound selected from the group consisting of methanol, ethanol, n-propanol, iso-propanol, n-butanol, iso-butanol, t-butanol, methyl acetate, ethyl acetate, t-butyl acetate, dimethoxy methane, dimethoxy ethane, dimethoxy propane, acetone, methyl ethyl ketone, methyl isobutyl ketone, nitromethane, dimethylcarbonate, acetic acid, acetonitrile, diethyl ether, ethylene glycol, diethylene glycol, diethylene glycol dimethyl ether, glycerin, methyl t-butyl ether, dimethyl-formamide, pyridine, dimethyl sulfoxide, butyleneoxide, furan, tetrahydrofuran, dioxane, toluene, xylene, pentane, hexane, cyclohexane, octane, pentene, hexene, cyclohexene, heptane, benzene, and combinations thereof, wherein: the at least one organic compound is flammable by itself; the composition is nonflammable, and the composition comprises less than 1 wt.% of halogenated organic compounds other than t-DCE. the at least one organic compound is flammable by itself; the composition is nonflammable, and the composition comprises less than 1 wt.% of halogenated organic compounds other than t-DCE.
A method of evaluating an earth formation having a gas therein, the method comprising: (a) irradiating the earth formation with a source of neutrons in a borehole in the earth formation; and (b) measuring radiation from the earth formation resulting from interaction of the neutrons with formation nuclei at at least two detectors (105, 106); (c) determining from the measurements a value of a gas zone parameter indicative of a gas saturation S g at at least one depth in the borehole, wherein the GZP is a ratio of a radiation measurement from one of the at least two detectors (105, 106) to a radiation measurement from another of the at least two detectors (105, 106); the method characterized by: (d) establishing, using a look-up table, boundary values of the GZP at a fixed gas pressure, the boundary values comprising gas saturation values of 0% and 100%, the look-up tables generated by using a Monte Carlo simulation; and (e) estimating from the determined value of the GZP and the at least two established values of GZP a value of S g. (a) irradiating the earth formation with a source of neutrons in a borehole in the earth formation; and (b) measuring radiation from the earth formation resulting from interaction of the neutrons with formation nuclei at at least two detectors (105, 106); (c) determining from the measurements a value of a gas zone parameter indicative of a gas saturation S g at at least one depth in the borehole, wherein the GZP is a ratio of a radiation measurement from one of the at least two detectors (105, 106) to a radiation measurement from another of the at least two detectors (105, 106); (d) establishing, using a look-up table, boundary values of the GZP at a fixed gas pressure, the boundary values comprising gas saturation values of 0% and 100%, the look-up tables generated by using a Monte Carlo simulation; and (e) estimating from the determined value of the GZP and the at least two established values of GZP a value of S g.
Thermoresistive gas sensor with a flat lattice through which a gas can flow, with lattice webs, which consist of a semiconductor material with a predetermined type of conductivity and are arranged in the plane of the lattice in parallel next to one another, wherein the lattice webs are embodied running in an s shape in the plane of the lattice and are connected electrically in parallel.