mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: providing a gateway device coupling a fire system control panel to a mesh network of a wireless fire system, wherein the fire system mesh network includes a number of devices including input fire system devices, output fire system devices, and hybrid fire system devices; the gateway device detecting a loss of communication with the fire system control panel or a failure of the fire system control panel ; the method characterised in that ; responsive to the gateway device detecting the loss of communication with the fire system control panel or the failure of the fire system control panel the gateway device controlling an activation of output fire system devices in the fire system mesh network thereby producing an output by using the gateway device first preconfigured instructions to control the activation of the output fire system devices without the fire system control panel; and responsive to a first fire system device of the number of devices in the fire system mesh network detecting a failure of the gateway device, the first fire system device controlling the activation of output fire system devices in the fire system mesh network by using second preconfigured instructions to control the activation of the output fire system devices without the gateway device. providing a gateway device coupling a fire system control panel to a mesh network of a wireless fire system, wherein the fire system mesh network includes a number of devices including input fire system devices, output fire system devices, and hybrid fire system devices; the gateway device detecting a loss of communication with the fire system control panel or a failure of the fire system control panel ; the method characterised in that ; responsive to the gateway device detecting the loss of communication with the fire system control panel or the failure of the fire system control panel the gateway device controlling an activation of output fire system devices in the fire system mesh network thereby producing an output by using the gateway device first preconfigured instructions to control the activation of the output fire system devices without the fire system control panel; and responsive to a first fire system device of the number of devices in the fire system mesh network detecting a failure of the gateway device, the first fire system device controlling the activation of output fire system devices in the fire system mesh network by using second preconfigured instructions to control the activation of the output fire system devices without the gateway device.
A tire testing apparatus comprising: a plate adapted to be buried in a road surface with which a tire is in contact; at least one ground-contact-force sensor adapted to measure a ground-contact force during a contact of the tire , the ground-contact-force sensor includes a flexure element formed in a columnar shape and a gauge attached to a side surface thereof, whereby a lower part of the flexure element is fixed to the concave portion of the plate to integrate the ground-contact-force sensor with the plate ; whereby the flexure element is arranged with a gap with respect to the plate , wherein the upper surface of the flexure element is configured to form the same plane as the upper surface of the plate , and at least one plate sensor measuring a load applied to the plate . a plate adapted to be buried in a road surface with which a tire is in contact; at least one ground-contact-force sensor adapted to measure a ground-contact force during a contact of the tire , the ground-contact-force sensor includes a flexure element formed in a columnar shape and a gauge attached to a side surface thereof, whereby a lower part of the flexure element is fixed to the concave portion of the plate to integrate the ground-contact-force sensor with the plate ; whereby the flexure element is arranged with a gap with respect to the plate , wherein the upper surface of the flexure element is configured to form the same plane as the upper surface of the plate , and at least one plate sensor measuring a load applied to the plate .
A base composition for making a frit material, the base composition comprising: Ingredient Wt. % vanadium oxide 50-60%, barium oxide 27-33%, and zinc oxide 9-12%; characterised by further comprising a first additive selected from the group consisting of: Ta 2 O 5 , Ti 2 O 3 , SrCl 2 , GeO 2 , CuO, AgO, Nb 2 O 5 , B 2 O 3 , MgO, SiO 2 , Tl 2 O 3 , Y 2 O 3 , SnF 2 , SnO 2 , CuCl, SnCl 2 , CeO 2 , AgCl, In 2 O 3 , SnO, and SrO.
Method for operating a cellular mobile communications network , said method comprising: a calculation step of at least one parameter, designated a frequency setting, representing the frequency setting of at least one radio parameter associated with at least one network object; a use step of said at least one frequency setting, in at least one optimization operation of the radio network. a calculation step of at least one parameter, designated a frequency setting, representing the frequency setting of at least one radio parameter associated with at least one network object; a use step of said at least one frequency setting, in at least one optimization operation of the radio network.
System for transporting multiple bodies for motor vehicles in a container , wherein the system comprises a container and said container has a cuboidal interior with a ceiling height d and a door opening with a door height t, wherein the door height t is lower than the ceiling height d, wherein the system has a transport frame for each body to be transported, wherein each transport frame has a first support device and a second support device , wherein a length of at least one support device can be changed, wherein each body to be transported is to be arranged on a respective transport frame , wherein a maximum height of the transport frame with the body arranged thereon is to be set to a value, which is lower than the door height t, wherein the transport frame with the body arranged thereon is to be guided through the door opening and is to be arranged in the interior of the container , characterised in that the maximum height of at least one transport frame with the body arranged thereon is to be set to a value, which is higher than the door height t, but maximally as high as the ceiling height d, by extending the at least one support device , wherein each support device has a retaining device , on which the body can be arranged, wherein when changing the length of the at least one support device a distance of a retaining device of the at least one support device to a base frame can be set with respect to its height.
A cosmetic cleaning agent containing, in a cosmetic carrier, a) at least one anionic and/or amphoteric (zwitterionic) surfactant, b) at least one cationic polysaccharide, c) at least one silicone, d) at least one wax, e) at least one native oil and f) at least one cationic protein hydrolyzate. a) at least one anionic and/or amphoteric (zwitterionic) surfactant, b) at least one cationic polysaccharide, c) at least one silicone, d) at least one wax, e) at least one native oil and f) at least one cationic protein hydrolyzate.
A method for manufacturing a laminated molded body , the method comprising: a cutting-out step for cutting out a cushion layer to form a cut-out part so that an opening part is formed; a base material laminating step for forming a first laminated body by arranging a base material on a lower surface of the cushion layer cut out in the cutting-out step with an adhesive sheet provided therebetween and having an adhesive force by heating; an insulating material placing step for attaching an insulating material to the cut-out part of the first laminated body ; a first thermocompression bonding step for bonding by thermocompression the first laminated body to which the insulating material is attached; a removing step for removing the cut-out part from the first laminated body bonded by thermocompression in the first thermocompression bonding step to form the opening part ; a skin laminating step for forming a second laminated body by arranging a skin on an upper surface of the first laminated body from which the cut-out part is removed with an adhesive sheet provided therebetween and having an adhesive force by heating; and a second thermocompression bonding step for bonding the skin at the opening part to a lower layer material by bonding the second laminated body by thermocompression, the lower layer material being arranged below the cushion layer having the opening part . a cutting-out step for cutting out a cushion layer to form a cut-out part so that an opening part is formed; a base material laminating step for forming a first laminated body by arranging a base material on a lower surface of the cushion layer cut out in the cutting-out step with an adhesive sheet provided therebetween and having an adhesive force by heating; an insulating material placing step for attaching an insulating material to the cut-out part of the first laminated body ; a first thermocompression bonding step for bonding by thermocompression the first laminated body to which the insulating material is attached; a removing step for removing the cut-out part from the first laminated body bonded by thermocompression in the first thermocompression bonding step to form the opening part ; a skin laminating step for forming a second laminated body by arranging a skin on an upper surface of the first laminated body from which the cut-out part is removed with an adhesive sheet provided therebetween and having an adhesive force by heating; and a second thermocompression bonding step for bonding the skin at the opening part to a lower layer material by bonding the second laminated body by thermocompression, the lower layer material being arranged below the cushion layer having the opening part .
Sampling device adapted to sample a differential measuring voltage (V inp , V inn ), comprising: - at least a first holding device and a second holding device , - a demultiplexing circuit , adapted to provide a sample of a by a sampling circuit during first values of a first clock signal (clkp, clkn)of a first clock rate sampled differential signal derived from a differential measuring current, the differential measuring current itself derived from said differential measuring voltage, to the first holding device , at the occurrence of each first value of a second clock signal (clkby2p, clkby2n) of a second clock rate being half of the first clock rate, and - a reset device , adapted to reset the second holding device at or after the occurrence of each first value of the second clock signal (clkby2p, clkby2n), wherein the demultiplexing circuit is adapted to provide during the first values of the first clock signal a sample of the sampled differential signal to the second holding device , at the occurrence of each second value of the second clock signal (clkby2p, clkby2n), wherein the reset device is adapted to reset the first holding device at or after the occurrence of each second value of the second clock signal (clkby2p, clkby2n), wherein the sampling device further comprises a dump circuit , and wherein the sampling circuit is adapted to dump the differential measuring current to the dump circuit during second values of the first clock signal (clkp, clkn). - at least a first holding device and a second holding device , - a demultiplexing circuit , adapted to provide a sample of a by a sampling circuit during first values of a first clock signal (clkp, clkn)of a first clock rate sampled differential signal derived from a differential measuring current, the differential measuring current itself derived from said differential measuring voltage, to the first holding device , at the occurrence of each first value of a second clock signal (clkby2p, clkby2n) of a second clock rate being half of the first clock rate, and - a reset device , adapted to reset the second holding device at or after the occurrence of each first value of the second clock signal (clkby2p, clkby2n),
A method of cleaning residual resin from an additively manufactured object, comprising: (a) enclosing an additively manufactured object in an inner chamber of a centrifugal separator, the additively manufactured object comprising a light polymerized resin with a surface coating of viscous, unpolymerized, residual resin ; (b) flooding said chamber with a volatile organic solvent vapor without contacting liquid organic solvent to said object, the vapor present in an amount sufficient to reduce the viscosity of said residual resin; and (c) spinning said additively manufactured object in said chamber to centrifugally separate at least a first portion of said residual resin from said object. (a) enclosing an additively manufactured object in an inner chamber of a centrifugal separator, the additively manufactured object comprising a light polymerized resin with a surface coating of viscous, unpolymerized, residual resin ; (b) flooding said chamber with a volatile organic solvent vapor without contacting liquid organic solvent to said object, the vapor present in an amount sufficient to reduce the viscosity of said residual resin; and (c) spinning said additively manufactured object in said chamber to centrifugally separate at least a first portion of said residual resin from said object.
A system for treatment of atomized powder, comprising: a fluidized bed operable to heat treat feedstock alloy powders , the feedstock alloy powders heat treated for microstructure control to thereby condition the feedstock alloy powders into a state to facilitate solid-state consolidation; a quenching reservoir in communication with the fluidized bed ; a three-way valve in communication with the quenching reservoir ; a fine powder collector and a quenching powder collector , each in communication with the three-way valve ; and a water bubbler in communication with the fine powder collector , wherein the system is configured to communicate an inert gas into the fluidized bed to fluidize the feedstock alloy powders , to communicate the feedstock alloy powders from the fluidized bed to the quench reservoir , through the three-way valve , then to the water bubbler through the fine powder collector . a fluidized bed operable to heat treat feedstock alloy powders , the feedstock alloy powders heat treated for microstructure control to thereby condition the feedstock alloy powders into a state to facilitate solid-state consolidation; a quenching reservoir in communication with the fluidized bed ; a three-way valve in communication with the quenching reservoir ; a fine powder collector and a quenching powder collector , each in communication with the three-way valve ; and a water bubbler in communication with the fine powder collector , wherein the system is configured to communicate an inert gas into the fluidized bed to fluidize the feedstock alloy powders , to communicate the feedstock alloy powders from the fluidized bed to the quench reservoir , through the three-way valve , then to the water bubbler through the fine powder collector .
A process for degradation of gliadin in flour for bread making, characterized in that it comprises: a step of mixing the flour with water; at least one step of enzymatic hydrolysis to hydrolyze gliadin from the mixture obtained in the mixing step; at least one step of fermenting the mixture obtained in the enzymatic hydrolysis step by using at least one microorganism under controlled-pH conditions; wherein the microorganism is selected from Bacillus amyloliquefaciens, Lactobacillus brevis, Lactobacillus delbrueckii, Lactobacillus reuteri, Lactobacillus helveticus or mixtures thereof; and, a step of drying to obtain a gliadin-free flour.
A method for transmitting information, comprising: determining (S510) a time-frequency resource for a downlink control channel of at least one terminal device, wherein the time-frequency resource for the downlink control channel of the at least one terminal device is mapped in a first control region within a bandwidth of a system in a manner of mapping in a frequency domain and then in a time domain; and sending (S520) the downlink control channel of the at least one terminal device through the time-frequency resource for the downlink control channel of the at least one terminal device, wherein at least one orthogonal frequency division multiplexing, OFDM, symbol in the first control region is associated with a beam number, and the time-frequency resource for the downlink control channel corresponding to the beam number is located on the at least one OFDM symbol associated with the beam number. determining (S510) a time-frequency resource for a downlink control channel of at least one terminal device, wherein the time-frequency resource for the downlink control channel of the at least one terminal device is mapped in a first control region within a bandwidth of a system in a manner of mapping in a frequency domain and then in a time domain; and sending (S520) the downlink control channel of the at least one terminal device through the time-frequency resource for the downlink control channel of the at least one terminal device, wherein at least one orthogonal frequency division multiplexing, OFDM, symbol in the first control region is associated with a beam number, and the time-frequency resource for the downlink control channel corresponding to the beam number is located on the at least one OFDM symbol associated with the beam number.
A labeling device for a syringe , comprising: a first labeling subsystem that comprises printing means to print a first label comprising machine readable information ; and a second labeling subsystem that comprises printing means to print a second label comprising human readable information , wherein the first labeling subsystem includes a label applicator to automatically apply the first label to a portion of the syringe , wherein the label applicator comprises holding means to hold the first label as the syringe is rotated about its cylindrical axis during the automatic application of the first label to the syringe , and wherein the second labeling subsystem automatically applies the second label to another portion of the syringe simultaneously with the first labeling subsystem automatically applying the first label to the portion of the syringe . a first labeling subsystem that comprises printing means to print a first label comprising machine readable information ; and a second labeling subsystem that comprises printing means to print a second label comprising human readable information , wherein the first labeling subsystem includes a label applicator to automatically apply the first label to a portion of the syringe , wherein the label applicator comprises holding means to hold the first label as the syringe is rotated about its cylindrical axis during the automatic application of the first label to the syringe , and wherein the second labeling subsystem automatically applies the second label to another portion of the syringe simultaneously with the first labeling subsystem automatically applying the first label to the portion of the syringe .
A compound represented by formula I: wherein, R1, R2, R3, R4, R5, R6, R7, R8, R9, R10, R11, R12, R13 and R14 are each independently H or deuterium (D); and at least one of R1, R2, R3, R4, R5, R6, R7, R8, R9, R10, R11, R12, R13 and R14 must be D.
A method for detecting a boiler leakage, the method comprising: receiving in an automation system of the boiler an indication of a need to start an automatic sequence; starting in the automation system , in response to the receipt of said indication, the automatic sequence with the following functions: - stopping the dosing of a tracer into boiler water in the case that the boiler comprises a separate dosing of the tracer; - stopping an exhaust purge flow of the boiler water; - monitoring a property of the boiler water over the duration of an inspection period; and - drawing a conclusion regarding the leakage on the basis of said monitoring. receiving in an automation system of the boiler an indication of a need to start an automatic sequence; starting in the automation system , in response to the receipt of said indication, the automatic sequence with the following functions: - stopping the dosing of a tracer into boiler water in the case that the boiler comprises a separate dosing of the tracer; - stopping an exhaust purge flow of the boiler water; - monitoring a property of the boiler water over the duration of an inspection period; and - drawing a conclusion regarding the leakage on the basis of said monitoring. - stopping the dosing of a tracer into boiler water in the case that the boiler comprises a separate dosing of the tracer; - stopping an exhaust purge flow of the boiler water; - monitoring a property of the boiler water over the duration of an inspection period; and - drawing a conclusion regarding the leakage on the basis of said monitoring.
A connecting interface for coupling a multi-bore jumper to a seal plate of equipment at a seabed , the interface comprising: a rotatable hub ; at least one alignment pin extending from the hub and configured to be received in a corresponding funnel-shaped orifice of the seal plate so as to effect rotation of the hub ; a central bore terminating adjacent a central location of the hub , the hub being rotatable independently about the central bore and relative to the hub of another interface provided at an opposite end of the jumper for securing the jumper to a seal plate of other equipment at the seabed; and at least one perimeter bore terminating at a perimeter location of the hub , the perimeter bore being movable with the hub during any rotation thereof, the perimeter bore configured for connection with a corresponding coupler of the seal plate . a rotatable hub ; at least one alignment pin extending from the hub and configured to be received in a corresponding funnel-shaped orifice of the seal plate so as to effect rotation of the hub ; a central bore terminating adjacent a central location of the hub , the hub being rotatable independently about the central bore and relative to the hub of another interface provided at an opposite end of the jumper for securing the jumper to a seal plate of other equipment at the seabed; and at least one perimeter bore terminating at a perimeter location of the hub , the perimeter bore being movable with the hub during any rotation thereof, the perimeter bore configured for connection with a corresponding coupler of the seal plate .