mhurhangee/ep-ind-claims huggingface dataset:
LAS glass ceramic having an average coefficient of thermal expansion CTE in the range from 0 to 50°C of not more than 0 ± 0.1 × 10 -6 /K and thermal hysteresis at least within the temperature range from 10°C to 35°C of < 0.1 ppm, and comprising the following components in mol% based on oxide: SiO 2 60 - 70 Li 2 O 7 - 9.4 MgO+ZnO 0 - < 0.6 Fluorine 0 - 0.3 at least one component selected from the group consisting of P 2 O 5, R 2 O, where R 2 O may be Na 2 O and/or K 2 O and/or Cs 2 O and/or Rb 2 O, and RO, where RO may be CaO and/or BaO and/or SrO, nucleating agent in a content of 1.5 to 6 mol%, where nucleating agent is at least one component selected from the group consisting of TiO 2, ZrO 2, Ta 2 O 5, Nb 2 O 5, SnO 2, MoO 3, WO 3, HfO 2, wherein the LAS glass ceramic contains not more than 0.05 mol% As 2 O 3 as refining agent. at least one component selected from the group consisting of P 2 O 5, R 2 O, where R 2 O may be Na 2 O and/or K 2 O and/or Cs 2 O and/or Rb 2 O, and RO, where RO may be CaO and/or BaO and/or SrO, nucleating agent in a content of 1.5 to 6 mol%, where nucleating agent is at least one component selected from the group consisting of TiO 2, ZrO 2, Ta 2 O 5, Nb 2 O 5, SnO 2, MoO 3, WO 3, HfO 2, wherein the LAS glass ceramic contains not more than 0.05 mol% As 2 O 3 as refining agent.
A method for imaging an object, the method comprising the steps of: accommodating a positioning of the object relative to an imaging system, wherein a shape of the object is describable in terms of one or more shape parameters; creating scan data by determining a coordinate of the object at a set of points along an arc by the imaging system, wherein the coordinate of the object is a Z coordinate of an object layer; characterised in that the method further comprises the steps of determining an object shape parameter and an object position parameter based on the scan data by a system control module by extracting an amplitude and a phase of the scan data; and determining a center of the object layer based on the extracted amplitude and phase; wherein: the object is a portion of a spherical surface layer of an eye; the determined object shape parameter comprises a radius of the spherical surface layer; and the determined object position parameter comprises an XY coordinate of a center of the object. accommodating a positioning of the object relative to an imaging system, wherein a shape of the object is describable in terms of one or more shape parameters; creating scan data by determining a coordinate of the object at a set of points along an arc by the imaging system, wherein the coordinate of the object is a Z coordinate of an object layer; characterised in that the method further comprises the steps of determining an object shape parameter and an object position parameter based on the scan data by a system control module by extracting an amplitude and a phase of the scan data; and determining a center of the object layer based on the extracted amplitude and phase; wherein: the object is a portion of a spherical surface layer of an eye; the determined object shape parameter comprises a radius of the spherical surface layer; and the determined object position parameter comprises an XY coordinate of a center of the object. the object is a portion of a spherical surface layer of an eye; the determined object shape parameter comprises a radius of the spherical surface layer; and the determined object position parameter comprises an XY coordinate of a center of the object.
A dual mode chemical rocket engine having a primary reaction chamber for hydrogen peroxide comprising a catalyst bed for hydrogen peroxide, which primary reaction chamber is connected to a secondary reaction chamber having means for injection therein of a fuel-rich monopropellant, characterized in that the fuel-rich monopropellant is a liquid ADN based, or HAN based monopropellant.
A solid oxide fuel cell system comprising: a chromium-getter material, wherein the chromium-getter material comprises a material that is configured to react with chromium to remove chromium species from chromium vapor; and an inert substrate comprising alumina, wherein the chromium-getter material comprises calcium carbonate and is bonded to the inert substrate to form a coated substrate that is configured to remove chromium species from chromium vapor in the solid oxide fuel cell system before the chromium species can react with a cathode in the solid oxide fuel cell system. a chromium-getter material, wherein the chromium-getter material comprises a material that is configured to react with chromium to remove chromium species from chromium vapor; and an inert substrate comprising alumina, wherein the chromium-getter material comprises calcium carbonate and is bonded to the inert substrate to form a coated substrate that is configured to remove chromium species from chromium vapor in the solid oxide fuel cell system before the chromium species can react with a cathode in the solid oxide fuel cell system.
Screen for treating a liquid to pasty medium, having a multiplicity of screen openings and a coated feed side pointing counter to the flow direction and a discharge side pointing in the flow direction, characterized in that the discharge side is coated, and the coatings (5, 6) applied to the main body (7, 8) of the feed and discharge side are formed differently.
A pneumatic tire provided with an electronic component at a position to the outer side of the carcass in the tire axial direction, wherein E* 50°C at 50°C and E* 150°C at 150°C of the first rubber member having the largest E*(50°C) at 50°C among rubber members for a tire located inward in the tire axial direction from a position where the electronic component is provided, and E* 50°C at 50°C and E* 150°C at 150°C of the second rubber member having the largest E*(50°C) at 50°C among rubber members for a tire located outward in the tire axial direction from a position where the electronic component is provided, satisfy E* 50°C is larger E* 50°C, and satisfy the following formula: E * 1 50 ° C / E * 2 50 ° C − E * 1 150 ° C / E * 2 150 ° C ≧ 1.0, wherein the values E* are measured using a viscoelastic spectrometer in accordance with the prescription of "JIS K 6394" under an initial strain of 10%, at an amplitude of ±2.0% and a frequency of 10Hz, under tensile deformation mode. E* 50°C at 50°C and E* 150°C at 150°C of the first rubber member having the largest E*(50°C) at 50°C among rubber members for a tire located inward in the tire axial direction from a position where the electronic component is provided, and E* 50°C at 50°C and E* 150°C at 150°C of the second rubber member having the largest E*(50°C) at 50°C among rubber members for a tire located outward in the tire axial direction from a position where the electronic component is provided, satisfy E* 50°C is larger E* 50°C, and satisfy the following formula: E * 1 50 ° C / E * 2 50 ° C − E * 1 150 ° C / E * 2 150 ° C ≧ 1.0, wherein the values E* are measured using a viscoelastic spectrometer in accordance with the prescription of "JIS K 6394" under an initial strain of 10%, at an amplitude of ±2.0% and a frequency of 10Hz, under tensile deformation mode.
A method for releasing residual pressurised fluid from an aerosol canister, said method comprising the manual opening of a vent assembly for said canister, the vent assembly comprising first and second members and a receiving part, characterised by the receiving part having an outer surface configured to form a fluid seal against an edge of a hole in the canister, and an internal volume having a longitudinal axis, the second member disposed within the internal volume of the receiving part and configured for linear translation along the longitudinal axis relative to the receiving part, the first member rotatably engaged with the second member, rotation of the first member relative to the second member configured to impart translation of the second member along the longitudinal axis such that, in a first position, the second member forms a fluid seal against the receiving part and, in a second position, a fluid passage is formed between the second member and an inner surface of the receiving part.
A vehicle air conditioning system comprising: an in-vehicle air conditioner that includes a refrigerant circulation circuit including a compressor and an evaporator; a weather information acquiring section configured to acquire weather information at a current location of a vehicle; an evaporator drying determining section configured to estimate a water retention amount of the evaporator based on the weather information acquired by the weather information acquiring section and an operation state of the in-vehicle air conditioner, and to determine whether the evaporator is in a dry state; and a compressor stop permitting section configured to output a permission signal for permitting stop of the compressor on a condition that the evaporator drying determining section determines that the evaporator is in the dry state. an in-vehicle air conditioner that includes a refrigerant circulation circuit including a compressor and an evaporator; a weather information acquiring section configured to acquire weather information at a current location of a vehicle; an evaporator drying determining section configured to estimate a water retention amount of the evaporator based on the weather information acquired by the weather information acquiring section and an operation state of the in-vehicle air conditioner, and to determine whether the evaporator is in a dry state; and a compressor stop permitting section configured to output a permission signal for permitting stop of the compressor on a condition that the evaporator drying determining section determines that the evaporator is in the dry state.
A device, comprising: a dielectric layer disposed on a substrate; an opening etched in the dielectric layer; metallic material filling the opening to form an interconnect structure comprising a via and a wire; a first diffusion barrier layer disposed only (i) on a bottom surface of the via and (ii) on a bottom surface of the wire; a metallic liner layer covering sidewall and bottom surfaces of the opening in the dielectric layer and on the first diffusion barrier layer; a self-formed second diffusion barrier layer formed in sidewall surfaces of the opening of the dielectric layer, wherein the self-formed second diffusion barrier layer comprises manganese atoms which are diffused into the sidewall surfaces of the dielectric layer. a dielectric layer disposed on a substrate; an opening etched in the dielectric layer; metallic material filling the opening to form an interconnect structure comprising a via and a wire; a first diffusion barrier layer disposed only (i) on a bottom surface of the via and (ii) on a bottom surface of the wire; a metallic liner layer covering sidewall and bottom surfaces of the opening in the dielectric layer and on the first diffusion barrier layer; a self-formed second diffusion barrier layer formed in sidewall surfaces of the opening of the dielectric layer, wherein the self-formed second diffusion barrier layer comprises manganese atoms which are diffused into the sidewall surfaces of the dielectric layer.
A solar tracking system comprising: at least one solar tracking bearing (20A, 20B), atop a support post, the solar tracking bearing comprising a pair of stationary outer bearing races (24a, 24b) attached on either side of a bearing support element, and a rotatable inner bearing held by the pair of outer bearing races, the rotatable inner bearing race having a beam slot for seating a torque tube beam therein; a torque tube beam seated in the beam slot; a frame on which one or more photovoltaic modules can be mounted, the frame being secured to the torque tube beam; characterised by an electromechanical actuator operable to control the inclination angle of the frame by causing the torque tube beam to rotate in the at least one solar tracking bearing, wherein the pair of outer bearing races (24a, 24b) are arranged to form a groove between them above a topmost part of the inner bearing support element, and the rotatable inner bearing race has a tongue to engage the groove. at least one solar tracking bearing (20A, 20B), atop a support post, the solar tracking bearing comprising a pair of stationary outer bearing races (24a, 24b) attached on either side of a bearing support element, and a rotatable inner bearing held by the pair of outer bearing races, the rotatable inner bearing race having a beam slot for seating a torque tube beam therein; a torque tube beam seated in the beam slot; a frame on which one or more photovoltaic modules can be mounted, the frame being secured to the torque tube beam; characterised by an electromechanical actuator operable to control the inclination angle of the frame by causing the torque tube beam to rotate in the at least one solar tracking bearing, wherein the pair of outer bearing races (24a, 24b) are arranged to form a groove between them above a topmost part of the inner bearing support element, and the rotatable inner bearing race has a tongue to engage the groove.
An apparatus comprising: a level shifter to receive at least one input signal having a first voltage range and provide at least one level-shifted signal having a second voltage range; a first circuit to process the at least one input signal based on a first logic function and provide a first intermediate signal having the first voltage range; a second circuit to process the at least one level-shifted signal based on a second logic function and provide a second intermediate signal having the second voltage range; and an output circuit to receive the first and second intermediate signals and provide an output signal having a third voltage range larger than each of the first and second voltage ranges, the output circuit comprising a NMOS transistor, and a PMOS transistor, the NMOS transistor having a gate coupled to circuit ground, a source coupled to the output of the second circuit and arranged to receive the second intermediate signal and a drain configured to provide the output signal, the PMOS transistor having a gate coupled to circuit ground, a source coupled to the output of the first circuit and arranged to receive the first intermediate signal and a drain coupled to the drain of the NMOS transistor. a level shifter to receive at least one input signal having a first voltage range and provide at least one level-shifted signal having a second voltage range; a first circuit to process the at least one input signal based on a first logic function and provide a first intermediate signal having the first voltage range; a second circuit to process the at least one level-shifted signal based on a second logic function and provide a second intermediate signal having the second voltage range; and an output circuit to receive the first and second intermediate signals and provide an output signal having a third voltage range larger than each of the first and second voltage ranges, the output circuit comprising a NMOS transistor, and a PMOS transistor, the NMOS transistor having a gate coupled to circuit ground, a source coupled to the output of the second circuit and arranged to receive the second intermediate signal and a drain configured to provide the output signal, the PMOS transistor having a gate coupled to circuit ground, a source coupled to the output of the first circuit and arranged to receive the first intermediate signal and a drain coupled to the drain of the NMOS transistor.
A clustered functional organosiloxane of unit formula: where subscript n is 2 to 2,000, each subscript d is independently 0 to 995, subscript o' = 0 to 100, subscript n' = (o' + 1), each R is an independently selected monovalent hydrocarbon group, each R 1 is independently selected from the group consisting of monovalent hydrocarbon groups and monovalent halogenated hydrocarbon groups, and each R 8 is a hydrogen atom or a curable group, with the proviso that at least one R 8 per molecule is a curable group other than hydrogen.
An apparatus comprising means for: obtaining adjacent channel leakage ratio information from a first user equipment, UE, regarding first and second adjacent frequency bands (400, 402), wherein the apparatus is configured to communicate in frequency-division duplexing, FDD, mode with a plurality of UE comprising the first UE and a second UE, the first frequency band configured for uplink communication between the apparatus and the first UE and the second frequency band configured for downlink communication between the apparatus and the second UE; obtaining channel condition information regarding the second UE indicating channel condition associated with the first frequency band and channel condition associated with the second frequency band; and adapting guard band between the first and second adjacent frequency bands (400, 402) based on the adjacent channel leakage ratio information and the channel condition information. obtaining adjacent channel leakage ratio information from a first user equipment, UE, regarding first and second adjacent frequency bands (400, 402), wherein the apparatus is configured to communicate in frequency-division duplexing, FDD, mode with a plurality of UE comprising the first UE and a second UE, the first frequency band configured for uplink communication between the apparatus and the first UE and the second frequency band configured for downlink communication between the apparatus and the second UE; obtaining channel condition information regarding the second UE indicating channel condition associated with the first frequency band and channel condition associated with the second frequency band; and adapting guard band between the first and second adjacent frequency bands (400, 402) based on the adjacent channel leakage ratio information and the channel condition information.
A network system comprising: a backbone network that is constituted by combining a plurality of switch devices (1, 2); and a subnetwork that is constituted by a plurality of switch devices (3, 4, 5) connected linearly, where the switch devices (3, 5) positioned at both ends of the linear connection are connected to the backbone network, characterized in that among physical ports included in the switch devices (1, 2), that constitute the backbone network, a first physical port, that is one of two physical ports (11, 21) to which the subnetwork is connected, is configured to block a packet with a first specific logical port number having arrived from the subnetwork, and to pass all packets other than a packet with the first specific logical port number, and a second physical port, that is the other of the two physical ports (11, 21), is configured to pass only a packet with the first specific logical port number having arrived from the backbone network, and to block all packets other than a packet with the first specific logical port number, wherein each of the packets is a broadcast packet, or a multicast packet. a backbone network that is constituted by combining a plurality of switch devices (1, 2); and a subnetwork that is constituted by a plurality of switch devices (3, 4, 5) connected linearly, where the switch devices (3, 5) positioned at both ends of the linear connection are connected to the backbone network,
A personal care device like a shaving device comprising a base structure and a head structure, wherein the head structure comprises a first coupling element and at least a head support structure configured to hold at least one treatment head, whilst the base structure comprises a second coupling element, which coupling elements (5, 6) can releasably be coupled to each other for coupling the head structure to the base structure, wherein by rotating the coupled coupling elements with respect to each other in a first rotational direction about a central axis a first inclined surface (15a, 26) of at least one of the first and second coupling elements (5, 6) cooperates with a first co-operating surface of the other of the first and second coupling elements (5, 6) thereby driving the first and second coupling elements (5, 6) away from each other in an axial direction extending parallel to the central axis, and wherein by rotating the coupled coupling elements with respect to each other in a second rotational direction about the central axis, opposite to the first rotational direction, a second inclined surface (15b, 26) of at least one of the first and second coupling elements (5, 6) cooperates with a second co-operating surface of the other of the first and second coupling elements (5, 6) thereby driving the first and second coupling elements (5, 6) away from each other in said axial direction, wherein the first and second inclined surfaces (15a, 15b, 26) each include an obtuse angle with a tangential direction extending tangentially to the central axis, and wherein the first and second inclined surfaces are inclined in opposite directions relative to said tangential direction, characterized in that the first and second inclined surfaces (15a, 15b, 26) each include a further obtuse angle with a radial direction extending radially to the central axis.
A method for the production of poly(alkylene) guanidines, comprising at least the following steps: a) providing an alkylene diamine of the formula NH 2 -(CH 2) m -NH 2 where m = 4-12, in a reaction vessel and heating of the alkylene diamine to a temperature equal to or above the melting temperature of the respective alkylene diamine in a range from 25°C to 115°C, as a result of which a melt of the alkylene diamine is formed; b) portion-wise adding of a guanidinium salt and reacting with the alkylene diamine until the formation of alkylene(guanidine) monomers is concluded, which may be ascertained by the end of NH 3 release; c) reacting the monomers formed in step b) at at least the minimum temperature at which the polymerisation to the desired poly(alkylene) guanidine begins, the minimum polymerisation temperature being at least 120°C, until the formation of the poly(alkylene) guanidine is concluded; wherein the molar ratio of alkylene diamine to guanidinium salt lies in the range from 1.2:1 to 1:1 and steps a) and b) for the formation of alkylene(guanidine) monomers are performed at a temperature below the minimum polymerisation temperature and all of the method steps are carried out while stirring. a) providing an alkylene diamine of the formula NH 2 -(CH 2) m -NH 2 where m = 4-12, in a reaction vessel and heating of the alkylene diamine to a temperature equal to or above the melting temperature of the respective alkylene diamine in a range from 25°C to 115°C, as a result of which a melt of the alkylene diamine is formed; b) portion-wise adding of a guanidinium salt and reacting with the alkylene diamine until the formation of alkylene(guanidine) monomers is concluded, which may be ascertained by the end of NH 3 release; c) reacting the monomers formed in step b) at at least the minimum temperature at which the polymerisation to the desired poly(alkylene) guanidine begins, the minimum polymerisation temperature being at least 120°C, until the formation of the poly(alkylene) guanidine is concluded;