mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated device comprising: a pixel region comprising: a plurality of pixels, each pixel of the plurality of pixels having: a sample well on a surface of the integrated device, wherein the sample well is configured to receive a sample; at least one excitation-coupling structure configured to direct excitation energy to a vicinity of the sample well; at least one emission coupling component configured to generate different spatial distribution patterns for emission energies having different characteristic wavelengths, wherein one or more of the emission energies are emitted from the sample in the sample well in response to excitation energy delivered to the sample well; and at least one sensor configured to detect different projected patterns of the spatial distribution patterns, and to distinguish between different projected patterns; and at least one waveguide configured to deliver excitation energy to at least a portion of the plurality of pixels, and wherein the at least one excitation-coupling structure of at least some of the plurality of pixels is positioned to couple with the at least one waveguide. a pixel region comprising: a plurality of pixels, each pixel of the plurality of pixels having: a sample well on a surface of the integrated device, wherein the sample well is configured to receive a sample; at least one excitation-coupling structure configured to direct excitation energy to a vicinity of the sample well; at least one emission coupling component configured to generate different spatial distribution patterns for emission energies having different characteristic wavelengths, wherein one or more of the emission energies are emitted from the sample in the sample well in response to excitation energy delivered to the sample well; and at least one sensor configured to detect different projected patterns of the spatial distribution patterns, and to distinguish between different projected patterns; and a sample well on a surface of the integrated device, wherein the sample well is configured to receive a sample; at least one excitation-coupling structure configured to direct excitation energy to a vicinity of the sample well; at least one emission coupling component configured to generate different spatial distribution patterns for emission energies having different characteristic wavelengths, wherein one or more of the emission energies are emitted from the sample in the sample well in response to excitation energy delivered to the sample well; and at least one sensor configured to detect different projected patterns of the spatial distribution patterns, and to distinguish between different projected patterns; and at least one waveguide configured to deliver excitation energy to at least a portion of the plurality of pixels, and wherein the at least one excitation-coupling structure of at least some of the plurality of pixels is positioned to couple with the at least one waveguide.
A frangible fastener system comprising a first fastener configured to secure a first retained member to a base member, and a second fastener configured to couple with the first fastener along a first axis of the fastener system and secure a second retained member to the first retained member until receiving a breaking force such that a first end of the second fastener separates from the first fastener, and the second retained member separates from the first retained member responsive to the fastener system receiving the breaking force, wherein the second fastener comprises: a frangible portion located toward the first end of the second fastener configured to separate responsive to receiving the breaking force; and a tool engagement portion configured to engage a tightening tool, the tool engagement portion located adjacent to the frangible portion toward a second end of the second fastener along the first axis, the tool engagement portion and the second end of the second fastener remaining coupled with the first fastener after the first end of the second fastener separates from the first fastener. a frangible portion located toward the first end of the second fastener configured to separate responsive to receiving the breaking force; and a tool engagement portion configured to engage a tightening tool, the tool engagement portion located adjacent to the frangible portion toward a second end of the second fastener along the first axis, the tool engagement portion and the second end of the second fastener remaining coupled with the first fastener after the first end of the second fastener separates from the first fastener.
Use of a curable composition for forming a potting material or a sealing material, the curable composition comprising: (A) a compound having ≥ 2 alkenyl groups and a perfluoro(poly)ether group in one molecule, wherein the perfluoro(poly)ether group is a group of the formula: -(OC 6 F 12 ) a -(OC 5 F 10 ) b -(OC 4 F 8 ) c -(OC 3 X 10 6 ) d -(OC 2 F 4 ) e -(OCF 2 ) f - wherein a-d each independently are an integer of 0-30, e and f each independently are an integer of 1-200, (a+b+c+d+e+f) is ≥ 5, the order of the repeating units in parentheses with the subscript a, b, c, d, e or f is not limited, the ratio elf is ≥ 1.0, and X 10 each independently is H, F or Cl; (B) an organosilicon compound having two or more hydrogen atoms each bonding to a silicon atom, in one molecule; and (C) a catalyst. (A) a compound having ≥ 2 alkenyl groups and a perfluoro(poly)ether group in one molecule, wherein the perfluoro(poly)ether group is a group of the formula: -(OC 6 F 12 ) a -(OC 5 F 10 ) b -(OC 4 F 8 ) c -(OC 3 X 10 6 ) d -(OC 2 F 4 ) e -(OCF 2 ) f - wherein a-d each independently are an integer of 0-30, e and f each independently are an integer of 1-200, (a+b+c+d+e+f) is ≥ 5, the order of the repeating units in parentheses with the subscript a, b, c, d, e or f is not limited, the ratio elf is ≥ 1.0, and X 10 each independently is H, F or Cl; (B) an organosilicon compound having two or more hydrogen atoms each bonding to a silicon atom, in one molecule; and (C) a catalyst.
Medical device and secure control system comprising a wearable medical device and a medical device controller , the medical device controller comprising a communications module including at least a short range wireless communications capability for communication with a consumer electronic device including any one or more of a smartphone, a personal computer, a smartwatch and a computer tablet, the medical device controller further comprising a memory storing a computer program and encryption keys configured to establish an encrypted communication with the consumer electronics device, and a processor configured to execute the computer program, the medical device controller and the medical device storing each at least one journal for exchange of journal entries between the medical device controller and the consumer electronic device and between the medical device controller and the medical device , the journal entries comprising user identification, user rights, and operations instructed to the medical device, the medical device controller configured to transmit via said encrypted communication: i) a data entry image for presentation on a graphical display of the consumer electronic device, or ii) instructions to upload an entry image stored in the memory of the consumer electronic device, and to receive via said encrypted communication an instruction for operation of the medical device, the medical device controller configured to transmit said instruction for operation of the medical device to the medical device. i) a data entry image for presentation on a graphical display of the consumer electronic device, or ii) instructions to upload an entry image stored in the memory of the consumer electronic device, and to receive via said encrypted communication an instruction for operation of the medical device,
A method, comprising: in response to receipt at a first authority of a first request for a domain, the first request including an Internet Prototocol Version 4, IPv4, source address of a client caching nameserver, CCNS, making the first request, returning to the CCNS information identifying at least one Internet Protocol Version 6, IPv6, authority and zero or more IPv4 authorities, wherein the information comprises the IPv4 source address of the CCNS encoded in an IPv6 address of the at least one IPv6 authority; receiving, at the IPv6 authority, a second request for the domain, the second request being an IPv6 request and including anIPv6 address of the CCNS; extracting, at the IPv6 authority, the IPv4 source address from the IPv6 address of the at least one IPv6 authority; and at the IPv6 authority, saving an association between the IPv4 source address of the CCNS and the IPv6 address of the CCNS; wherein the first authority, the at least one IPv6 authority and the zero or more IPv4 authorities are authoritative nameservers. in response to receipt at a first authority of a first request for a domain, the first request including an Internet Prototocol Version 4, IPv4, source address of a client caching nameserver, CCNS, making the first request, returning to the CCNS information identifying at least one Internet Protocol Version 6, IPv6, authority and zero or more IPv4 authorities, wherein the information comprises the IPv4 source address of the CCNS encoded in an IPv6 address of the at least one IPv6 authority; receiving, at the IPv6 authority, a second request for the domain, the second request being an IPv6 request and including anIPv6 address of the CCNS; extracting, at the IPv6 authority, the IPv4 source address from the IPv6 address of the at least one IPv6 authority; and at the IPv6 authority, saving an association between the IPv4 source address of the CCNS and the IPv6 address of the CCNS; wherein the first authority, the at least one IPv6 authority and the zero or more IPv4 authorities are authoritative nameservers.
A process for forming an anode formed as a porous mass for an electrolytic device comprising the steps of: (a) providing multiple components of a valve metal in a billet of a ductile material; (b) working the billet to a series of reduction steps to form said valve metal components into elongated components; (c) cutting the elongated components from step b), and leaching the ductile metal from the elongated components releasing elongated elements formed of the valve metal; (d) washing the elongated elements from step c) with water and mixing the washed elongated elements with water to form a slurry in which the elements are evenly distributed; (e) drying the washed elements to form dried elongated washed elements; (f) mixing the dried elongated washed elements from step (e) with electrically conductive particles in powder form, and agglomerating the mixture of dried elongated washed elements and electrically conductive particles; (g) assembling, pressing and sintering the agglomerated mixture of dried elongated washed particles and electrically conductive parties into as a porous mass for forming an anode for an electrolytic device. (a) providing multiple components of a valve metal in a billet of a ductile material; (b) working the billet to a series of reduction steps to form said valve metal components into elongated components; (c) cutting the elongated components from step b), and leaching the ductile metal from the elongated components releasing elongated elements formed of the valve metal; (d) washing the elongated elements from step c) with water and mixing the washed elongated elements with water to form a slurry in which the elements are evenly distributed; (e) drying the washed elements to form dried elongated washed elements; (f) mixing the dried elongated washed elements from step (e) with electrically conductive particles in powder form, and agglomerating the mixture of dried elongated washed elements and electrically conductive particles; (g) assembling, pressing and sintering the agglomerated mixture of dried elongated washed particles and electrically conductive parties into as a porous mass for forming an anode for an electrolytic device.
Hybrid grease, comprising (A) 10 to 50% by weight of a grease based on a synthetic hydrocarbon oil or polyglycol, containing 50 to 90% by weight of base oil, selected from synthetic hydrocarbon oil, PAO, or polyglycol, 10 to 25% by weight of thickener, 0 to 10% by weight of additives, and (B) 50 to 90% by weight of a silicone grease, containing 70 to 90% by weight of silicone oil, selected from the group consisting of polydimethyl siloxane, polyphenyl methyl siloxane, or mixtures thereof, 5 to 30% by weight of thickener, and 0 to 10% by weight of additives, wherein the thickener is a soap thickener, and is selected from the group consisting of lithium-12-hydroxy stearate and lithium stearate. (A) 10 to 50% by weight of a grease based on a synthetic hydrocarbon oil or polyglycol, containing 50 to 90% by weight of base oil, selected from synthetic hydrocarbon oil, PAO, or polyglycol, 10 to 25% by weight of thickener, 0 to 10% by weight of additives, and (B) 50 to 90% by weight of a silicone grease, containing 70 to 90% by weight of silicone oil, selected from the group consisting of polydimethyl siloxane, polyphenyl methyl siloxane, or mixtures thereof, 5 to 30% by weight of thickener, and 0 to 10% by weight of additives,
A spacecraft comprising: a bus having a nadir side and a zenith side opposite the nadir side ; a momentum subsystem configured to store angular momentum relative to a center of mass of the spacecraft ; a propulsion subsystem that includes a plurality of electric thrusters (314-317) installed on the zenith side of the bus to produce a change in velocity (delta-V) on the spacecraft , wherein each of the electric thrusters (314-317) is coupled to the bus by a two-axis gimbal assembly (324-327); and a controller configured to: identify a target spin axis for the spacecraft about which the spacecraft is configured to spin in at least a portion of a transfer orbit; to determine gimbal angles for at least one of the electric thrusters (314-317) so that thrust forces from the at least one electric thruster are parallel to the target spin axis ; and to initiate a burn of the at least one electric thruster (314-317) at the gimbal angles, the controller being configured to control the momentum subsystem to compensate for a thruster torque produced by the burn of the at least one electric thruster (314-317) at the gimbal angles. a bus having a nadir side and a zenith side opposite the nadir side ; a momentum subsystem configured to store angular momentum relative to a center of mass of the spacecraft ; a propulsion subsystem that includes a plurality of electric thrusters (314-317) installed on the zenith side of the bus to produce a change in velocity (delta-V) on the spacecraft , wherein each of the electric thrusters (314-317) is coupled to the bus by a two-axis gimbal assembly (324-327); and a controller configured to: identify a target spin axis for the spacecraft about which the spacecraft is configured to spin in at least a portion of a transfer orbit; to determine gimbal angles for at least one of the electric thrusters (314-317) so that thrust forces from the at least one electric thruster are parallel to the target spin axis ; and to initiate a burn of the at least one electric thruster (314-317) at the gimbal angles, the controller being configured to control the momentum subsystem to compensate for a thruster torque produced by the burn of the at least one electric thruster (314-317) at the gimbal angles.
Method for manufacturing a stiffened panel of composite materials, comprising: - a skin in laminar form that comprises an inner face (1.1) and an outer face (1.2), and - stiffeners located on the inner face (1.1) of said skin and situated in longitudinal and transverse directions thereto , wherein the manufacturing method comprises the following steps: - providing a skin , - making a plurality of through drill holes on the skin located in correspondence with areas where the placement of stiffeners is expected, - introducing threaded bolts in the through drill holes , wherein the threaded bolts comprise a body and a head , such that the head of the threaded bolt remains housed in the skin , - after the introduction of the bolts through the skin , locating a threaded nut on the free end of the threaded bolts opposite the head , - once the bolts have been introduced into the skin , manufacturing the stiffeners on the inner face (1.1) of the skin by stacking on top of the inner face (1.1) of the skin a plurality of layers of composite material such that the threaded bolts and the threaded nut remain embedded within the stiffeners - a skin in laminar form that comprises an inner face (1.1) and an outer face (1.2), and - stiffeners located on the inner face (1.1) of said skin and situated in longitudinal and transverse directions thereto , - providing a skin , - making a plurality of through drill holes on the skin located in correspondence with areas where the placement of stiffeners is expected, - introducing threaded bolts in the through drill holes , wherein the threaded bolts comprise a body and a head , such that the head of the threaded bolt remains housed in the skin , - after the introduction of the bolts through the skin , locating a threaded nut on the free end of the threaded bolts opposite the head , - once the bolts have been introduced into the skin , manufacturing the stiffeners on the inner face (1.1) of the skin by stacking on top of the inner face (1.1) of the skin a plurality of layers of composite material such that the threaded bolts and the threaded nut remain embedded within the stiffeners
A method in a User Equipment, UE, connectable to an adhoc network and configured to enter Discontinuous Reception, DRX, mode when connected to the ad-hoc network, the method comprising the steps of: determining a node in the ad-hoc network that is able to provide a reference signal, wherein the determining step includes requesting the node to provide the reference signal, and receiving an accept signal or message from the requested node which is able to provide the reference signal, wherein the provided reference signal comprises of a periodic pattern in which the reference signal is transmitted from the node providing the reference signal or a quasiperiodic pattern in which periodic bursts of reference signals are transmitted from the node providing the reference signal, wherein the request for the reference signal comprises parameters associated with the DRX operation of the request-sending UE; receiving the reference signal from the determined node; entering DRX mode; using the received reference signal for maintaining synchronization during the DRX mode; and leaving the DRX mode. determining a node in the ad-hoc network that is able to provide a reference signal, wherein the determining step includes requesting the node to provide the reference signal, and receiving an accept signal or message from the requested node which is able to provide the reference signal, wherein the provided reference signal comprises of a periodic pattern in which the reference signal is transmitted from the node providing the reference signal or a quasiperiodic pattern in which periodic bursts of reference signals are transmitted from the node providing the reference signal, wherein the request for the reference signal comprises parameters associated with the DRX operation of the request-sending UE; receiving the reference signal from the determined node; entering DRX mode; using the received reference signal for maintaining synchronization during the DRX mode; and leaving the DRX mode.
A respiratory conduit suitable for use with a medical tube delivering gas from a source of gas flow to a patient , the respiratory conduit comprising: a lumen extending along a longitudinal axis and a wall surrounding the lumen, the lumen defining a gas-flow path when in use; and, an overmolded component securely connected to the wall and extending across the lumen, the overmolded component comprising: at least a Printed Circuit Board (PCB) with a sensor portion disposed in the lumen; and, a temperature sensor provided on a surface of the sensor portion characterized in that , the sensor portion projects along the longitudinal axis and is configured to extend upstream along the gas-flow path towards the source of the gas flow in use; and, the temperature sensor is positioned longitudinally upstream from a connection of the component to the wall along the gas-flow path adjacent an upstream leading edge of the sensor portion . a lumen extending along a longitudinal axis and a wall surrounding the lumen, the lumen defining a gas-flow path when in use; and, an overmolded component securely connected to the wall and extending across the lumen, the overmolded component comprising: at least a Printed Circuit Board (PCB) with a sensor portion disposed in the lumen; and, a temperature sensor provided on a surface of the sensor portion characterized in that , the sensor portion projects along the longitudinal axis and is configured to extend upstream along the gas-flow path towards the source of the gas flow in use; and, at least a Printed Circuit Board (PCB) with a sensor portion disposed in the lumen; and, a temperature sensor provided on a surface of the sensor portion characterized in that , the sensor portion projects along the longitudinal axis and is configured to extend upstream along the gas-flow path towards the source of the gas flow in use; and, the temperature sensor is positioned longitudinally upstream from a connection of the component to the wall along the gas-flow path adjacent an upstream leading edge of the sensor portion .
A sealing cushion for a respiratory mask assembly , the sealing cushion comprising a patient interface portion having a resiliently deformable membrane for engagement with a patient's face, and an aperture formed therein for receiving a nasal and/or mouth region of a patient's face, wherein an inner surface of the membrane comprises a plurality of projections , the projections being arranged such that each projection is engageable with an adjacent projection on deformation of the membrane during engagement of the membrane with the patient's face, in use, thereby providing the membrane with an increased resistance to deformation in a deformed configuration, wherein groups of projections are arranged in a plurality of localised regions of the membrane , and wherein the projections in a group of projections extend substantially transversely across the membrane , characterized in that said projections are aligned along a transverse axis.
A process for the hydroxylation of the carbon atom 21 of a steroid, comprising the steps of: a) providing a cell expressing (i) a heterologous mammalian CYP21A2 protein or a functional variant thereof, wherein the functional variant has at least 20% of the ability of the unaltered CYP21A2 protein to 21-hydroxylate a steroid, (ii) at least one heterologous electron transfer system capable of transferring electrons to CYP21A2, and (iii) one or more chaperones facilitating folding of CYP21A2; and b) adding the steroid to the cell, wherein the steroid is medrane or deltamedrane. a) providing a cell expressing (i) a heterologous mammalian CYP21A2 protein or a functional variant thereof, wherein the functional variant has at least 20% of the ability of the unaltered CYP21A2 protein to 21-hydroxylate a steroid, (ii) at least one heterologous electron transfer system capable of transferring electrons to CYP21A2, and (iii) one or more chaperones facilitating folding of CYP21A2; and (i) a heterologous mammalian CYP21A2 protein or a functional variant thereof, wherein the functional variant has at least 20% of the ability of the unaltered CYP21A2 protein to 21-hydroxylate a steroid, (ii) at least one heterologous electron transfer system capable of transferring electrons to CYP21A2, and (iii) one or more chaperones facilitating folding of CYP21A2; and b) adding the steroid to the cell,