mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical stapling system, comprising: a first staple , comprising a metal wire deformed into a substantially U-shaped configuration having: a first base ; and two first staple legs extending from said first base , each first staple leg comprising a first tip; a second staple , comprising a metal wire deformed into a substantially U-shaped configuration having: a second base ; and two second staple legs extending from said second base , each second staple leg comprising a second tip; and a retention matrix, comprising: a first layer , comprising: a first side facing toward said first base and said second base; a second side facing away from said first base and said second base; first retention members configured to engage said first staple legs; second retention members configured to engage said second staple legs; and a cover extending along said second side of said first layer, wherein said cover is configured to receive said first tips and said second tips. a first staple , comprising a metal wire deformed into a substantially U-shaped configuration having: a first base ; and two first staple legs extending from said first base , each first staple leg comprising a first tip; a first base ; and two first staple legs extending from said first base , each first staple leg comprising a first tip; a second staple , comprising a metal wire deformed into a substantially U-shaped configuration having: a second base ; and two second staple legs extending from said second base , each second staple leg comprising a second tip; and a second base ; and two second staple legs extending from said second base , each second staple leg comprising a second tip; and a retention matrix, comprising: a first layer , comprising: a first side facing toward said first base and said second base; a second side facing away from said first base and said second base; first retention members configured to engage said first staple legs; second retention members configured to engage said second staple legs; and a cover extending along said second side of said first layer, wherein said cover is configured to receive said first tips and said second tips. a first layer , comprising: a first side facing toward said first base and said second base; a second side facing away from said first base and said second base; first retention members configured to engage said first staple legs; second retention members configured to engage said second staple legs; and a first side facing toward said first base and said second base; a second side facing away from said first base and said second base; first retention members configured to engage said first staple legs; second retention members configured to engage said second staple legs; and a cover extending along said second side of said first layer, wherein said cover is configured to receive said first tips and said second tips.
A vehicle interior equipment, the interior equipment comprising: - a structure having a visible external surface , a window being cut out in the external surface , the window being surrounded by an edge area of the external surface ; - an electronic display screen placed in the window and having a peripheral area adjacent to the edge area ; - a device for management of the electronic display screen ; wherein the edge area bears a visible decoration, the management device being configured for selectively placing the electronic display screen in an active condition in which information is displayed on the electronic display screen , or in a standby condition in which a decorative image is displayed on the electronic display screen , the decorative image being coordinated with the visible decoration so that at least the peripheral area of the electronic display screen and the edge area coincide visually, characterized in that the interior equipment comprises an optical film having at least one first area covering the edge area and a second area covering the electronic display screen , the first area having a first light transmission rate, the second area having a second light transmission rate of less than the first light transmission rate. - a structure having a visible external surface , a window being cut out in the external surface , the window being surrounded by an edge area of the external surface ; - an electronic display screen placed in the window and having a peripheral area adjacent to the edge area ; - a device for management of the electronic display screen ;
A method for selecting a target for a direction finding system, said method comprising: receiving at a direction finding, DF, device a first signal associated with a first user device ; receiving, at a control module , the first signal, wherein the first signal is content-rich; transmitting, by the DF device , a content-rich DF device signal to the control module , wherein the DF device signal is associated with the first signal; receiving, at the control module, the DF device signal ; receiving, at the control module , a content-rich second signal associated with a second user device ; identifying, at the control module , the first user device as an active target when a signal signature of the first signal matches a first selection criteria in a predefined rule set; identifying, at the control module , the second user device as an active tracking device when a signal signature of the second signal matches a second selection criteria in the predefined rule set; determining, by the control module , positional data associated with the first user device based on the first signal, the content-rich second signal, and/or the DF device signal ; wherein a content-rich signal comprises a signal where information associated with and/or obtained from the signal is based at least in part on the contents of the signal; wherein the control module is configured to transmit the positional data associated with the first user device to the second user device. receiving at a direction finding, DF, device a first signal associated with a first user device ; receiving, at a control module , the first signal, wherein the first signal is content-rich; transmitting, by the DF device , a content-rich DF device signal to the control module , wherein the DF device signal is associated with the first signal; receiving, at the control module, the DF device signal ; receiving, at the control module , a content-rich second signal associated with a second user device ; identifying, at the control module , the first user device as an active target when a signal signature of the first signal matches a first selection criteria in a predefined rule set; identifying, at the control module , the second user device as an active tracking device when a signal signature of the second signal matches a second selection criteria in the predefined rule set; determining, by the control module , positional data associated with the first user device based on the first signal, the content-rich second signal, and/or the DF device signal ; wherein a content-rich signal comprises a signal where information associated with and/or obtained from the signal is based at least in part on the contents of the signal; wherein the control module is configured to transmit the positional data associated with the first user device to the second user device.
A method comprising: receiving, at a first processing device of an input/output module, IOM, , new firmware data for the IOM; sending an output hold command from the first processing device to a second processing device of the IOM; upgrading firmware of the IOM with the new firmware data using the first processing device and attempting a reboot of the first processing device; in response to the output hold command and during the upgrading of the firmware and the rebooting of the first processing device, using the second processing device to cause a field circuit of the IOM to hold at least one previous output signal for one or more external devices ; and in response to not receiving a new command from the first processing device at the second processing device after causing the field circuit to hold the at least one previous output signal, using the second processing device to cause the field circuit to output at least one failsafe output signal for the one or more external devices, wherein the IOM are outside of the process controller . receiving, at a first processing device of an input/output module, IOM, , new firmware data for the IOM; sending an output hold command from the first processing device to a second processing device of the IOM; upgrading firmware of the IOM with the new firmware data using the first processing device and attempting a reboot of the first processing device; in response to the output hold command and during the upgrading of the firmware and the rebooting of the first processing device, using the second processing device to cause a field circuit of the IOM to hold at least one previous output signal for one or more external devices ; and in response to not receiving a new command from the first processing device at the second processing device after causing the field circuit to hold the at least one previous output signal, using the second processing device to cause the field circuit to output at least one failsafe output signal for the one or more external devices, wherein the IOM are outside of the process controller .
A temperature adjusting apparatus comprising: a heat exchanger ; a high-temperature radiator; a parent supply pipe arranged for being flowed through by a high-temperature fluid to be supplied to the high-temperature radiator; a high-temperature pipe which is branched from the parent supply pipe and is connected to the high-temperature radiator; a first supply pipe which is branched from the parent supply pipe and passes through the heat exchanger ; a second supply pipe which is branched from the parent supply pipe; a mixed supply pipe arranged for being flowed through by a mixed fluid being a mixture of a first portion of the fluid which has flowed through the first supply pipe and a second portion of the fluid which has flowed through the second supply pipe , wherein the mixed supply pipe is to be connected, in use, to a low-temperature radiator; a return pipe arranged for being flowed through by the mixed fluid which has been supplied to the low-temperature radiator and from which heat has been radiated, the return pipe passing through the heat exchanger ; a mixture adjusting valve that is configured to adjust a temperature of the mixed fluid by adjusting a mixture ratio of the first portion of the fluid and the second portion of the fluid in the mixed fluid; a temperature sensor provided at the mixed supply pipe ; and a control unit that is configured to measure the temperature of the mixed fluid by using the temperature sensor provided at the mixed supply pipe , and to adjust the degree of opening of the mixture adjusting valve according to the measured temperature. a heat exchanger ; a high-temperature radiator; a parent supply pipe arranged for being flowed through by a high-temperature fluid to be supplied to the high-temperature radiator; a high-temperature pipe which is branched from the parent supply pipe and is connected to the high-temperature radiator; a first supply pipe which is branched from the parent supply pipe and passes through the heat exchanger ; a second supply pipe which is branched from the parent supply pipe; a mixed supply pipe arranged for being flowed through by a mixed fluid being a mixture of a first portion of the fluid which has flowed through the first supply pipe and a second portion of the fluid which has flowed through the second supply pipe , wherein the mixed supply pipe is to be connected, in use, to a low-temperature radiator; a return pipe arranged for being flowed through by the mixed fluid which has been supplied to the low-temperature radiator and from which heat has been radiated, the return pipe passing through the heat exchanger ; a mixture adjusting valve that is configured to adjust a temperature of the mixed fluid by adjusting a mixture ratio of the first portion of the fluid and the second portion of the fluid in the mixed fluid; a temperature sensor provided at the mixed supply pipe ; and a control unit that is configured to measure the temperature of the mixed fluid by using the temperature sensor provided at the mixed supply pipe , and to adjust the degree of opening of the mixture adjusting valve according to the measured temperature.
A method for sensing and removing the effects of rotational variability from the nip profile of a sensing roll of a nip press , comprising: providing the sensing roll having a working length (L) and a plurality of cross-directional positions (1-14) disposed along the working length; wherein said sensing roll comprises multiple operational parameter measuring sensors at each cross-directional position, the plurality of sensors being spaced apart circumferentially from the other; and measuring the operational parameter with each sensor at each cross-directional location as the sensor moves into a nip region of the nip press; characterized by for each cross-directional position, averaging the operational parameter measurements from each of the multiple sensors placed at the cross-directional position to determine an average operational parameter measurement at the cross-directional position; and utilizing the average operational parameter measurements from each cross-directional position to provide a nip operational parameter profile for the nip press. providing the sensing roll having a working length (L) and a plurality of cross-directional positions (1-14) disposed along the working length; wherein said sensing roll comprises multiple operational parameter measuring sensors at each cross-directional position, the plurality of sensors being spaced apart circumferentially from the other; and measuring the operational parameter with each sensor at each cross-directional location as the sensor moves into a nip region of the nip press; characterized by for each cross-directional position, averaging the operational parameter measurements from each of the multiple sensors placed at the cross-directional position to determine an average operational parameter measurement at the cross-directional position; and utilizing the average operational parameter measurements from each cross-directional position to provide a nip operational parameter profile for the nip press.
An aqueous composition comprising (i) one or more aqueous polymers and (ii) from 2 to 100 ppm of one or more compounds selected from a triphenylmethyl alkyl aryl ether having a formula (Ph 3 C) m Ar(OR) n , wherein Ph is a phenyl group, Ar is an aromatic ring containing group having from six to twenty carbon atoms, R is a C 1 -C 18 alkyl group, m is an integer of from 1 to 2, and n is an integer of from 1 to 4.
A system , comprising: a gas turbine engine configured to combust an oxidant and a fuel to generate an exhaust gas ; a catalyst bed configured to treat at least a portion of the exhaust gas from the gas turbine engine to generate a treated exhaust gas ; a differential temperature monitor configured to monitor a differential temperature between a first temperature of the portion of exhaust gas upstream of the catalyst bed and a second temperature of the treated exhaust gas downstream of the catalyst bed; and an oxidant-to-fuel ratio system configured to adjust a parameter to maintain an efficacy of the catalyst bed based at least in part on the differential temperature in order to maintain a target equivalence ratio. a gas turbine engine configured to combust an oxidant and a fuel to generate an exhaust gas ; a catalyst bed configured to treat at least a portion of the exhaust gas from the gas turbine engine to generate a treated exhaust gas ; a differential temperature monitor configured to monitor a differential temperature between a first temperature of the portion of exhaust gas upstream of the catalyst bed and a second temperature of the treated exhaust gas downstream of the catalyst bed; and an oxidant-to-fuel ratio system configured to adjust a parameter to maintain an efficacy of the catalyst bed based at least in part on the differential temperature in order to maintain a target equivalence ratio.
A method of preparing a compound of Formula I-a, comprising (i) reacting ethyl nicotinate and N-vinylpyrrolidone in the presence of an alcoholate base to 3-nicotinoyl-1-vinylpyrrolidin-2-one; (ii) reacting the 3-nicotinoyl-1-vinylpyrrolidin-2-one with an acid to myosmine; (iii) reducing the myosmine to nornicotine using a reducing agent; and (iv) methylating the nornicotine to obtain the compound of formula la, wherein the alcoholate base in step (i) is an alkali metal alcoholate chosen from sodium ethanolate, potassium ethanolate, and mixtures thereof, and wherein the method is carried out in a one-pot process. (i) reacting ethyl nicotinate and N-vinylpyrrolidone in the presence of an alcoholate base to 3-nicotinoyl-1-vinylpyrrolidin-2-one; (ii) reacting the 3-nicotinoyl-1-vinylpyrrolidin-2-one with an acid to myosmine; (iii) reducing the myosmine to nornicotine using a reducing agent; and (iv) methylating the nornicotine to obtain the compound of formula la, wherein the alcoholate base in step (i) is an alkali metal alcoholate chosen from sodium ethanolate, potassium ethanolate, and mixtures thereof, and wherein the method is carried out in a one-pot process. wherein the alcoholate base in step (i) is an alkali metal alcoholate chosen from sodium ethanolate, potassium ethanolate, and mixtures thereof, and wherein the method is carried out in a one-pot process.
A heat ray-shielding film obtained by kneading and mixing a heat ray-shielding particle-containing composition, polyvinyl acetal resin, and a plasticizer and thereafter molding the mixture into a film shape, characterized in that the heat ray-shielding particle-containing composition, contains a composite tungsten oxide particle expressed by a general formula M y WO z (wherein M is one or more kinds of element selected from Cs, Rb, K, Tl, In, Ba, Li, Ca, Sr, Fe, Sn, Al, and Cu, satisfying 0.1 ≤ y ≤ 0.5, 2.2 ≤ z ≤ 3.0), and having a hexagonal crystal structure, an amino group polymer dispersant having an amino group as a functional group, and having a thermal decomposition temperature of 200°C or more, and a hydroxyl group polymer dispersant and/or a carboxyl group polymer dispersant having an acrylic backbone, having a hydroxyl group (-OH group) and/or a carboxyl group (-COOH) as a functional group, and having a thermal decomposition temperature of 200°C or more, and an organic solvent having a boiling point of 120°C or less, and wherein a content of the organic solvent is 5 mass% or less in the heat ray-shielding particle-containing composition, and 50 wt. part or more and 9900 wt. part or less of the amino group polymer dispersant and 5 wt. part or more and 1000 wt. part or less of the hydroxyl group polymer dispersant and/or the carboxyl group polymer dispersant are contained, based on 100 wt. part of the composite tungsten oxide particles in the heat ray-shielding particle-containing composition.
A control box defining a lateral direction , a longitudinal direction , and a transverse direction , the control box comprising: a housing defining an interior , the housing comprising a cover and a stiffener , the stiffener removably connected in contact with the cover , the stiffener comprising an outer frame and at least one cross-member ; a heat sink removably connected in contact with the stiffener ; a first circuit board disposed within the interior , the first circuit board positioned between the stiffener and the heat sink ; and a second circuit board disposed within the interior , the second circuit board positioned between the cover and the stiffener , wherein the cover , stiffener , and heat sink are stacked along the transverse direction ; characterized in that the first circuit board comprises a plurality of computing components and the stiffener further includes a plurality of fingers , and wherein the circuit board contacts one or more of the plurality of fingers , and the first circuit board further comprises a thermal interface material disposed on one or more of the computing components , and wherein the thermal interface material contacts one or more of the fingers . a housing defining an interior , the housing comprising a cover and a stiffener , the stiffener removably connected in contact with the cover , the stiffener comprising an outer frame and at least one cross-member ; a heat sink removably connected in contact with the stiffener ; a first circuit board disposed within the interior , the first circuit board positioned between the stiffener and the heat sink ; and a second circuit board disposed within the interior , the second circuit board positioned between the cover and the stiffener , wherein the cover , stiffener , and heat sink are stacked along the transverse direction ; characterized in that the first circuit board comprises a plurality of computing components and the stiffener further includes a plurality of fingers , and wherein the circuit board contacts one or more of the plurality of fingers , and the first circuit board further comprises a thermal interface material disposed on one or more of the computing components , and wherein the thermal interface material contacts one or more of the fingers .
A system comprising: one or more pumps configured to pump blood in a fluid flow path at a collective rate over 4 liters per minute; one or more convection dialysis modules coupled to the fluid flow path and configured to perform dialysis on at least a portion of the blood, the one or more convection dialysis modules configured to remove substances from the blood that are over 5,000 Daltons in size; and one or more heat exchangers coupled to the fluid flow path and configured to heat the blood to a temperature over 42 degrees Celsius. one or more pumps configured to pump blood in a fluid flow path at a collective rate over 4 liters per minute; one or more convection dialysis modules coupled to the fluid flow path and configured to perform dialysis on at least a portion of the blood, the one or more convection dialysis modules configured to remove substances from the blood that are over 5,000 Daltons in size; and one or more heat exchangers coupled to the fluid flow path and configured to heat the blood to a temperature over 42 degrees Celsius.