mhurhangee/patent-ind-claim-en huggingface dataset:
A fiber-containing polymethyl methacrylate prepreg comprising: a plurality of fibers; and a polymerized resin comprising the polymethyl methacrylate, wherein the polymerized resin is formed from a reactive resin composition comprising methyl methacrylate and greater than 95 wt.% of the methyl methacrylate is polymerized to form polymethacrylate and wherein the plurality of fibers are reactive fibers with a reactive agent present on the surface of the reactive fibers, the reactive agent present on the surface of the reactive fibers comprises: a silane coupling moiety, and a reactive acrylate or methacrylate moiety, said reactive agent reacts towards the reactive matrix resin to covalently bond the thermoplastic resin matrix to the fibers. a plurality of fibers; and a polymerized resin comprising the polymethyl methacrylate, wherein the polymerized resin is formed from a reactive resin composition comprising methyl methacrylate and greater than 95 wt.% of the methyl methacrylate is polymerized to form polymethacrylate and wherein the plurality of fibers are reactive fibers with a reactive agent present on the surface of the reactive fibers, the reactive agent present on the surface of the reactive fibers comprises: a silane coupling moiety, and a reactive acrylate or methacrylate moiety, said reactive agent reacts towards the reactive matrix resin to covalently bond the thermoplastic resin matrix to the fibers. a silane coupling moiety, and a reactive acrylate or methacrylate moiety, said reactive agent reacts towards the reactive matrix resin to covalently bond the thermoplastic resin matrix to the fibers.
Composition characterized in that the composition is a UV-crosslinkable and meltable pressure-sensitive adhesive comprising (i) mixtures of UV-crosslinkable polyacrylate polymers, selected from (i.a) mixtures of UV-crosslinkable polymers with at least one photoinitiator bonded covalently to the backbone of the polymers and (i.b) mixtures of UV-crosslinkable polyacrylate polymers, acrylate monomers and at least one photoinitiator, and (ii) at least one UV stabilizer; (iii) at least one stabilizer with respect to thermal reactions and ageing processes, from the group of primary and secondary ageing inhibitors; and in that the UV stabilizer is present in the composition with a defined concentration which is harmonized with the concentration of the photoinitiator and is dependent on the ratio of the absorption maxima according to formulae 1 and 2 below, which are each applied subject to conditions I) and II): I) the wavelength of the absorption maximum of the UV stabilizer and of the photoinitiator are different by plus/minus less than 50 nm, 0.01 ≤ c UV − stabilizer c photoinitiator ≤ 0.25 , where c is the concentration of the respective substance in mol/100 g polymer, II) the wavelength of the absorption maximum of the UV stabilizer and of the photoinitiator are different by plus/minus greater than or equal to 50 nm, 0.05 ≤ c UV − stabilizer c photoinitiator ≤ 0.55 , where c is the concentration of the respective substance in mol/100 g polymer. (i) mixtures of UV-crosslinkable polyacrylate polymers, selected from (i.a) mixtures of UV-crosslinkable polymers with at least one photoinitiator bonded covalently to the backbone of the polymers and (i.b) mixtures of UV-crosslinkable polyacrylate polymers, acrylate monomers and at least one photoinitiator, and (i.a) mixtures of UV-crosslinkable polymers with at least one photoinitiator bonded covalently to the backbone of the polymers and (i.b) mixtures of UV-crosslinkable polyacrylate polymers, acrylate monomers and at least one photoinitiator, and (ii) at least one UV stabilizer; (iii) at least one stabilizer with respect to thermal reactions and ageing processes, from the group of primary and secondary ageing inhibitors; and I) the wavelength of the absorption maximum of the UV stabilizer and of the photoinitiator are different by plus/minus less than 50 nm, 0.01 ≤ c UV − stabilizer c photoinitiator ≤ 0.25 , where c is the concentration of the respective substance in mol/100 g polymer, II) the wavelength of the absorption maximum of the UV stabilizer and of the photoinitiator are different by plus/minus greater than or equal to 50 nm, 0.05 ≤ c UV − stabilizer c photoinitiator ≤ 0.55 , where c is the concentration of the respective substance in mol/100 g polymer.
A laundry appliance , comprising: a cabinet defining an aperture in a front surface thereof ; a drum disposed within the cabinet , wherein the drum defines an access opening that aligns with the aperture ; a door coupled to the cabinet and operable between closed and opened positions relative to the aperture ; a bellows extending along a perimeter of the aperture and proximate the access opening ; and a deflector extending along at least a portion of the perimeter of the aperture , characterized in that the deflector is coupled to the cabinet proximate the aperture and extends into an interior of the drum over the bellows . a cabinet defining an aperture in a front surface thereof ; a drum disposed within the cabinet , wherein the drum defines an access opening that aligns with the aperture ; a door coupled to the cabinet and operable between closed and opened positions relative to the aperture ; a bellows extending along a perimeter of the aperture and proximate the access opening ; and a deflector extending along at least a portion of the perimeter of the aperture , characterized in that the deflector is coupled to the cabinet proximate the aperture and extends into an interior of the drum over the bellows .
A cutting insert for a shoulder milling tool , the cutting insert having a trigonal shape and a median plane extending through the cutting insert , the cutting insert comprising a first surface , an opposite second surface , and a circumferential surface extending between the first surface and the second surface , the first and second surfaces extending on opposite sides of the median plane , wherein the cutting insert comprises at least one cutting edge extending along an intersection between the first surface and the circumferential surface , the at least one cutting edge , as seen in a view towards the first surface , extending along a corner of the cutting insert , wherein the at least one cutting edge comprises a main cutting edge , a corner cutting edge , and a surface-wiping secondary cutting edge , wherein the main cutting edge adjoins to the corner cutting edge , and the corner cutting edge adjoins to the surface-wiping secondary cutting edge , characterised in that the surface-wiping secondary cutting edge is inclined in relation to the median plane such that the distance to the median plane decreases in a direction toward the corner cutting edge , wherein the corner cutting edge , as seen in a side view along the median plane and towards the main cutting edge , comprises a concave curve , and wherein the first surface comprises a flat centre surface transforming into an inclined main rake face adjacent to the main cutting edge , wherein the entire main cutting edge and the inclined main rake face extends at a greater distance from the median plane than the flat centre surface . the cutting insert comprises at least one cutting edge extending along an intersection between the first surface and the circumferential surface , the at least one cutting edge , as seen in a view towards the first surface , extending along a corner of the cutting insert , wherein the at least one cutting edge comprises a main cutting edge , a corner cutting edge , and a surface-wiping secondary cutting edge , wherein the main cutting edge adjoins to the corner cutting edge , and the corner cutting edge adjoins to the surface-wiping secondary cutting edge , characterised in that the surface-wiping secondary cutting edge is inclined in relation to the median plane such that the distance to the median plane decreases in a direction toward the corner cutting edge , wherein the corner cutting edge , as seen in a side view along the median plane and towards the main cutting edge , comprises a concave curve , and wherein the first surface comprises a flat centre surface transforming into an inclined main rake face adjacent to the main cutting edge , wherein the entire main cutting edge and the inclined main rake face extends at a greater distance from the median plane than the flat centre surface .
A computer-implemented method for secure computing, comprising: receiving and processing , by a network device , routing requests in a network; sending an indication , by the network device, into the network that the network device is able to perform a type of secure compute, wherein the indication is added to a header of a packet when processing the routing requests; performing the type of secure compute , by the network device, based on an input received via the network from an input device; ensuring , by the network device, that a result of the secure compute is trusted as a correct result of the secure compute; and providing the trusted result of the secure compute from the network device to a result device connected to the network. receiving and processing , by a network device , routing requests in a network; sending an indication , by the network device, into the network that the network device is able to perform a type of secure compute, wherein the indication is added to a header of a packet when processing the routing requests; performing the type of secure compute , by the network device, based on an input received via the network from an input device; ensuring , by the network device, that a result of the secure compute is trusted as a correct result of the secure compute; and providing the trusted result of the secure compute from the network device to a result device connected to the network.
A method of forming a cover glass element, comprising: obtaining a first glass sheet and a second glass sheet, the second glass sheet having a plurality of through-holes formed therein; bringing the first glass sheet and the second glass sheet into contact, such that a surface of the second glass sheet having the plurality of through-holes is in substantial contact with a surface of the first glass sheet; heating the first glass sheet and the second glass sheet to a temperature sufficient to cause the first glass sheet and the second glass sheet to bond to form a combined cover sheet; and machining the combined cover sheet to form a plurality of cover glass element each having a first planar region, from the first glass sheet, of a determined thickness and a determined flatness and at least one edge region formed, at least in part, by the second glass sheet. obtaining a first glass sheet and a second glass sheet, the second glass sheet having a plurality of through-holes formed therein; bringing the first glass sheet and the second glass sheet into contact, such that a surface of the second glass sheet having the plurality of through-holes is in substantial contact with a surface of the first glass sheet; heating the first glass sheet and the second glass sheet to a temperature sufficient to cause the first glass sheet and the second glass sheet to bond to form a combined cover sheet; and machining the combined cover sheet to form a plurality of cover glass element each having a first planar region, from the first glass sheet, of a determined thickness and a determined flatness and at least one edge region formed, at least in part, by the second glass sheet.
A topography marking system (E) for marking in real size at least some construction information on a construction surface, said system (E) comprising at least: (a) a frame adapted to form a rigid non deformable frame, (b) a marking system, (c) a moving support for the marking system, said moving support being mounted on the frame or on an element thereof, and being adapted for ensuring movements of the marking system with respect to the frame, in at least two perpendicular directions (X,Y), in which said marking system comprises at least: (d) a spraying device for spraying a painting composition suitable to be burnt, possibly after partial or complete drying or curing, on said construction surface, so as to paint on said construction surface at least one painted band, characterized in that the system further comprises: (d) a displacement system for moving the frame relative to the construction surface, and (e) an engraving laser for burning the said at least one painted band for marking on the said at least one painted band some construction information; and and in that (f) the marking system comprises at least one topographic prism. (a) a frame adapted to form a rigid non deformable frame, (b) a marking system, (c) a moving support for the marking system, said moving support being mounted on the frame or on an element thereof, and being adapted for ensuring movements of the marking system with respect to the frame, in at least two perpendicular directions (X,Y), (d) a spraying device for spraying a painting composition suitable to be burnt, possibly after partial or complete drying or curing, on said construction surface, so as to paint on said construction surface at least one painted band, characterized in that the system further comprises: (d) a displacement system for moving the frame relative to the construction surface, and (e) an engraving laser for burning the said at least one painted band for marking on the said at least one painted band some construction information; and and in that (f) the marking system comprises at least one topographic prism. (d) a displacement system for moving the frame relative to the construction surface, and (e) an engraving laser for burning the said at least one painted band for marking on the said at least one painted band some construction information; and and in that (f) the marking system comprises at least one topographic prism.
A grease composition for a speed reducer part of an on-vehicle electric component, the grease composition containing a base oil and a thickener, wherein the base oil is a mixed oil of poly-α-olefin and mineral oil, wherein the base oil has a kinematic viscosity of 4 to 19 mm 2 /s at 100°C and a pour point of -30°C or lower, the thickener is a mixture of a diurea compound expressed by formula and a diurea compound expressed by formula R 1 -NHCONH-R 2 -NHCONH-R 1 R 3 -NHCONH-R 2 -NHCONH-R 3 wherein R 1 is a straight-chain alkyl group having 8 or 18 carbon atoms, R 2 is a divalent aromatic hydrocarbon group having 6 to 15 carbon atoms, and R 3 is an aryl group having 6 to 7 carbon atoms, and a penetration of the grease composition as measured according to JIS K2220 7 is 235 to 265. the base oil is a mixed oil of poly-α-olefin and mineral oil, wherein the base oil has a kinematic viscosity of 4 to 19 mm 2 /s at 100°C and a pour point of -30°C or lower, the thickener is a mixture of a diurea compound expressed by formula and a diurea compound expressed by formula R 1 -NHCONH-R 2 -NHCONH-R 1 R 3 -NHCONH-R 2 -NHCONH-R 3 wherein R 1 is a straight-chain alkyl group having 8 or 18 carbon atoms, R 2 is a divalent aromatic hydrocarbon group having 6 to 15 carbon atoms, and R 3 is an aryl group having 6 to 7 carbon atoms, and a penetration of the grease composition as measured according to JIS K2220 7 is 235 to 265.
An electrical spring contact clamp for a meter plug-in clamp which is used to connect an electricity meter to the electrical power supply network, the spring contact clamp comprising a contact tulip with a first clamping leg and a second clamping leg , which are connected to one another via a connecting section and are used for contacting and clamping a contact pin of the electricity meter on both sides; and a contact tab integrally connected to the contact tulip for making contact with the electrical power supply network; wherein the spring contact clamp also comprises a first transfer section , which electrically and mechanically connects the first clamping leg to the contact tab at a distance from the connecting section , characterized in that spring contact clamp comprises a second transfer section , which electrically and mechanically connects the second clamping leg to the contact tab at a distance from the connecting section . a contact tulip with a first clamping leg and a second clamping leg , which are connected to one another via a connecting section and are used for contacting and clamping a contact pin of the electricity meter on both sides; and a contact tab integrally connected to the contact tulip for making contact with the electrical power supply network; wherein the spring contact clamp also comprises a first transfer section , which electrically and mechanically connects the first clamping leg to the contact tab at a distance from the connecting section , characterized in that spring contact clamp comprises a second transfer section , which electrically and mechanically connects the second clamping leg to the contact tab at a distance from the connecting section .
Method for carrying out hydraulic balancing of a heating system in an automated manner, comprising at least one heat generator , heat consumers each with at least one valve , a temperature sensor in the feed line of the heat generator and a temperature sensor in the return line of the heat generator , characterized in that the heat consumer with the lowest return line temperature is ascertained, and in that , starting from the lowest return line temperature, the valve position of the valves of the other heat consumers is determined in such a way that all return line temperatures lie in a prespecifiable range.
A method of applying a hardfacing composition to a surface of an earth-boring tool, comprising: embedding grains of hard material in a molten cobalt-based metal alloy including between 20.0 wt.% and 45.0 wt% ruthenium on a surface of an earth-boring tool; and cooling and solidifying the molten cobalt-based metal alloy with the grains of hard material embedded therein; wherein the grains of hard material comprise at least one of a transition metal carbide, a transition metal nitride, and a transition metal oxide. embedding grains of hard material in a molten cobalt-based metal alloy including between 20.0 wt.% and 45.0 wt% ruthenium on a surface of an earth-boring tool; and cooling and solidifying the molten cobalt-based metal alloy with the grains of hard material embedded therein; wherein the grains of hard material comprise at least one of a transition metal carbide, a transition metal nitride, and a transition metal oxide.
An antenna array (500; 600) for electrically coupling with at least one sub-millimeter-sized antenna, the at least one sub-millimeter-sized antenna being embedded in an ophthalmic device, the antenna array comprising: a base (540; 640); a first substrate (510; 610) supported by the base, wherein the first substrate has a first shape configured to interface with the ophthalmic device having one or more shapes, one of which is complementary to the first shape; and one or more arrays of isolated, submillimeter-sized antennas (560; 660) configured to provide near-field coupling between at least one of the isolated, submillimeter-sized antennas in the array and at least one submillimeter-sized antenna in the ophthalmic device, wherein at least one of the array of isolated, submillimeter-sized antennas and the ophthalmic device are movable relative to each other. a base (540; 640); a first substrate (510; 610) supported by the base, wherein the first substrate has a first shape configured to interface with the ophthalmic device having one or more shapes, one of which is complementary to the first shape; and one or more arrays of isolated, submillimeter-sized antennas (560; 660) configured to provide near-field coupling between at least one of the isolated, submillimeter-sized antennas in the array and at least one submillimeter-sized antenna in the ophthalmic device, wherein at least one of the array of isolated, submillimeter-sized antennas and the ophthalmic device are movable relative to each other.
A beamforming method for directional signal transmission, wherein a multiple antenna beamformer is configured to conduct a data transmission to a beamformee, the beamforming method comprising: selecting (S1) a subset of antennas to be used for data transmission out of all multiple antennas of the beamformer; and initializing (S2) each antenna of the selected subset of the multiple antennas with a beamforming vector for implicit beamforming, the beamforming vector further comprises data about magnitude and phase depending on transfer functions between the antennas of the beamformee and the selected antennas of the multiple antenna beamformer; wherein the method further comprises the step of determining a first beamforming vector configured to set magnitude and phase of each selected antenna of the multiple antenna beamformer for implicit beamforming based on at least one packet transmitted by the beamformee adapting a power angle profile of each antenna of the selected subset of the multiple antennas of the beamformer using the first beamforming vector; selecting (S1) the subset of antennas according to the adapted power angle profiles and the first beamforming vector. selecting (S1) a subset of antennas to be used for data transmission out of all multiple antennas of the beamformer; and initializing (S2) each antenna of the selected subset of the multiple antennas with a beamforming vector for implicit beamforming, the beamforming vector further comprises data about magnitude and phase depending on transfer functions between the antennas of the beamformee and the selected antennas of the multiple antenna beamformer; wherein the method further comprises the step of determining a first beamforming vector configured to set magnitude and phase of each selected antenna of the multiple antenna beamformer for implicit beamforming based on at least one packet transmitted by the beamformee adapting a power angle profile of each antenna of the selected subset of the multiple antennas of the beamformer using the first beamforming vector; selecting (S1) the subset of antennas according to the adapted power angle profiles and the first beamforming vector.
A method, comprising: receiving, with a first electronic device, an ASK modulated carrier signal transmitted from a second electronic device and including data encoded with an amplitude-shift keying scheme; demodulating said ASK modulated carrier signal, resulting in a demodulated signal in which data having a first binary state have a lower frequency than data having a second binary state; applying an edge detector to said demodulated signal; applying a low-pass filter to the signal provided by said edge detector, resulting in an on-off keying signal in which: data having said first binary state are represented by durations of nonzero amplitude; and; data having said second binary state are represented by durations of substantially zero amplitude. receiving, with a first electronic device, an ASK modulated carrier signal transmitted from a second electronic device and including data encoded with an amplitude-shift keying scheme; demodulating said ASK modulated carrier signal, resulting in a demodulated signal in which data having a first binary state have a lower frequency than data having a second binary state; applying an edge detector to said demodulated signal; applying a low-pass filter to the signal provided by said edge detector, resulting in an on-off keying signal in which: data having said first binary state are represented by durations of nonzero amplitude; and; data having said second binary state are represented by durations of substantially zero amplitude. data having said first binary state are represented by durations of nonzero amplitude; and; data having said second binary state are represented by durations of substantially zero amplitude.