mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining the presence of a macrophilin-binding pharmaceutical in a sample, the method comprising the steps of: adding to the sample a binding competitor to displace the macrophilin-binding pharmaceutical from its immunophilin complexes, wherein the binding competitor is at least one of: (a) the compound represented by Formula IV: (b) the compound represented by Formula V: (c) the compound represented by Formula VI: or (d) the compound represented by Formula VII: adding a macrophilin-binding pharmaceutical-specific binding partner that binds to the pharmaceutical to form a binding partner/pharmaceutical complex, and wherein the binding partner does not significantly bind to the binding competitor; and detecting the binding partner/pharmaceutical complex and correlating the detection with an amount of pharmaceutical present in the sample, wherein the macrophilin-binding pharmaceutical is at least one of everolimus, sirolimus, and tacrolimus. adding to the sample a binding competitor to displace the macrophilin-binding pharmaceutical from its immunophilin complexes, wherein the binding competitor is at least one of: (a) the compound represented by Formula IV: (b) the compound represented by Formula V: (c) the compound represented by Formula VI: or (d) the compound represented by Formula VII: (a) the compound represented by Formula IV: (b) the compound represented by Formula V: (c) the compound represented by Formula VI: or (d) the compound represented by Formula VII: adding a macrophilin-binding pharmaceutical-specific binding partner that binds to the pharmaceutical to form a binding partner/pharmaceutical complex, and wherein the binding partner does not significantly bind to the binding competitor; and detecting the binding partner/pharmaceutical complex and correlating the detection with an amount of pharmaceutical present in the sample, wherein the macrophilin-binding pharmaceutical is at least one of everolimus, sirolimus, and tacrolimus.
A processing system comprising: an acquisition unit that acquires measurement data indicating a state of a power storage device; an item value calculation unit that calculates an item value affecting safety of the power storage device based on the measurement data; a safety determination unit that determines the safety of the power storage device based on the calculated item value; and a certification unit that outputs certification information certifying that the power storage device is safe, in a case where the determined safety satisfies a predetermined condition; wherein the safety determination unit estimates a period in which a state where the safety satisfies the predetermined condition is maintained, based on the calculated item value, wherein the certification unit outputs the period as an effective period of the certification information, and wherein the display control unit displays, as the certification information, a mark certifying that the power storage device is safe on a display, the display being included in the power storage device, or being installed around the power storage device. an acquisition unit that acquires measurement data indicating a state of a power storage device; an item value calculation unit that calculates an item value affecting safety of the power storage device based on the measurement data; a safety determination unit that determines the safety of the power storage device based on the calculated item value; and a certification unit that outputs certification information certifying that the power storage device is safe, in a case where the determined safety satisfies a predetermined condition; wherein the safety determination unit estimates a period in which a state where the safety satisfies the predetermined condition is maintained, based on the calculated item value, wherein the certification unit outputs the period as an effective period of the certification information, and wherein the display control unit displays, as the certification information, a mark certifying that the power storage device is safe on a display, the display being included in the power storage device, or being installed around the power storage device.
An oxidation catalyst composite for abatement of exhaust gas emissions from a lean burn engine comprising: a carrier substrate having a length, an inlet end and an outlet end, an oxidation catalyst catalytic material on the carrier, the oxidation catalyst catalytic material including a bottom washcoat layer and a top washcoat layer; the bottom washcoat layer comprising a refractory metal oxide support, a platinum (Pt) component and a palladium (Pd) component in weight ratio of Pt to Pd in the range of 4:1 to 1:4; and the top washcoat layer comprising a zeolite, Pt and a refractory metal oxide support, the top washcoat layer having an amount of palladium of below 10 % by weight of the platinum group metal in the top washcoat layer, the oxidation catalyst composite being effective to abate hydrocarbon and carbon monoxide, and oxidize NO to NO 2 in the lean burn engine exhaust, and wherein the top washcoat layer contains a higher loading of platinum group metals than the bottom washcoat layer to maximize NO oxidation. a carrier substrate having a length, an inlet end and an outlet end, an oxidation catalyst catalytic material on the carrier, the oxidation catalyst catalytic material including a bottom washcoat layer and a top washcoat layer; the bottom washcoat layer comprising a refractory metal oxide support, a platinum (Pt) component and a palladium (Pd) component in weight ratio of Pt to Pd in the range of 4:1 to 1:4; and the top washcoat layer comprising a zeolite, Pt and a refractory metal oxide support, the top washcoat layer having an amount of palladium of below 10 % by weight of the platinum group metal in the top washcoat layer, the oxidation catalyst composite being effective to abate hydrocarbon and carbon monoxide, and oxidize NO to NO 2 in the lean burn engine exhaust, and wherein the top washcoat layer contains a higher loading of platinum group metals than the bottom washcoat layer to maximize NO oxidation.
A polyamide resin composition comprising: 50% to 99% by mass of a polyamide (P); and 1% to 50% by mass of an acid-modified polyolefin (Q) satisfying the following requirements to , a melt flow rate (MFR) as measured at 230°C under a load of 2.16 kg is 50 to 200 (g/10 min), an acid modification amount is 0.1% to 2.0% by mass, the acid-modified polyolefin (Q) includes a modified product (q1) of an elastomer including 10% to 95% by mole of an ethylene-derived skeleton unit, 0% to 80% by mole of a propylene-derived skeleton unit, and 3% to 40% by mole of a skeleton unit derived from an α-olefin having 4 to 8 carbon atoms (with a total amount of the ethylene-derived skeleton unit, the propylene-derived skeleton unit, and the skeleton unit derived from an α-olefin being 100% by mole), the elastomer being modified by maleic acid or an anhydride thereof. 50% to 99% by mass of a polyamide (P); and 1% to 50% by mass of an acid-modified polyolefin (Q) satisfying the following requirements to , a melt flow rate (MFR) as measured at 230°C under a load of 2.16 kg is 50 to 200 (g/10 min), an acid modification amount is 0.1% to 2.0% by mass, the acid-modified polyolefin (Q) includes a modified product (q1) of an elastomer including 10% to 95% by mole of an ethylene-derived skeleton unit, 0% to 80% by mole of a propylene-derived skeleton unit, and 3% to 40% by mole of a skeleton unit derived from an α-olefin having 4 to 8 carbon atoms (with a total amount of the ethylene-derived skeleton unit, the propylene-derived skeleton unit, and the skeleton unit derived from an α-olefin being 100% by mole), the elastomer being modified by maleic acid or an anhydride thereof.
A method comprising: receiving, at a user equipment , configuration for a mismatch timer, determining , at the user equipment , based on the mismatch timer, whether a control state mismatch occurred between the user equipment and a wireless network, the control state mismatch corresponding to an occasion where the user equipment is operating in a different control state than is expected by the wireless network, wherein the control state is a radio resource control state; the method being characterized by logging , at the user equipment, occurrences of control state mismatches and additional information related to at least one occurrence of a control state mismatch; and transmitting , from the user equipment, a report of the logged data of the additional information to the wireless network, wherein the additional information comprises a time value of said mismatch timer, wherein the time value comprises at least one of: a time that the RRC mismatch was detected, or a time value from when the user equipment transitioned to RRC_IDLE, wherein the additional information transmitted from the user equipment is used for optimization of network planning by adjusting the mismatch timer. receiving, at a user equipment , configuration for a mismatch timer, determining , at the user equipment , based on the mismatch timer, whether a control state mismatch occurred between the user equipment and a wireless network, the control state mismatch corresponding to an occasion where the user equipment is operating in a different control state than is expected by the wireless network, wherein the control state is a radio resource control state; the method being characterized by logging , at the user equipment, occurrences of control state mismatches and additional information related to at least one occurrence of a control state mismatch; and transmitting , from the user equipment, a report of the logged data of the additional information to the wireless network, wherein the additional information comprises a time value of said mismatch timer, wherein the time value comprises at least one of: a time that the RRC mismatch was detected, or a time value from when the user equipment transitioned to RRC_IDLE, wherein the additional information transmitted from the user equipment is used for optimization of network planning by adjusting the mismatch timer.
A process for applying dry refractory mixes that do not contain cement to a surface using a dry gunnite machine having a nozzle, comprising the steps of: providing dry refractory material containing a setting agent into a storage area for the dry gunnite machine ;; introducing the dry refractory material into an air flow generated within the dry gunnite machine ; introducing a liquid binder into the air flow generated by the dry gunnite machine , wherein the liquid binder is mixed with the dry refractory material at or proximate the nozzle ; and discharging the dry refractory mix through the nozzle for application to the surface to be coated with the refractory mix. providing dry refractory material containing a setting agent into a storage area for the dry gunnite machine ;; introducing the dry refractory material into an air flow generated within the dry gunnite machine ; introducing a liquid binder into the air flow generated by the dry gunnite machine , wherein the liquid binder is mixed with the dry refractory material at or proximate the nozzle ; and discharging the dry refractory mix through the nozzle for application to the surface to be coated with the refractory mix.
A catalytic system which can be used for the hydroconversion of heavy oils in slurry phase, characterized in that it comprises two catalysts with complementary functions in a finely dispersed form: a. a catalyst, having the function of hydrogenating agent, containing MoS 2 or WS 2 or mixtures thereof in lamellar form; b. a co-catalyst, having nanometric or micronic particle-sizes, selected from cracking and/or denitrogenation catalysts, wherein said co-catalyst is selected from zeolites Beta,Y and MCM-22. a. a catalyst, having the function of hydrogenating agent, containing MoS 2 or WS 2 or mixtures thereof in lamellar form; b. a co-catalyst, having nanometric or micronic particle-sizes, selected from cracking and/or denitrogenation catalysts, wherein said co-catalyst is selected from zeolites Beta,Y and MCM-22.
A method for performing a biometric function between a client and a server , the server being connected to a biometric database and an alphanumeric database, characterized in that the method comprises performing, by a processing unit of the client , steps of: (a) identifying a sequence of elementary blocks defined by the biometric function, each elementary block performing a given operation on said biometric database and/or said alphanumeric database implemented by a processing unit of the server ; (b) requesting the execution, by the processing unit of the server , of the identified sequence of elementary blocks, wherein each elementary block is chosen from a predetermined list of elementary blocks and wherein said predetermined list of elementary blocks comprises: - a biometric template insertion block; - a biometric template deletion block; - a biometric template updating block; - a biometric template matching block; - an alphanumeric matching block, and wherein the biometric function to be processed is chosen among a predetermined list of reference biometric functions, each reference biometric functions being defined as a sequence of elementary blocks, and wherein said predetermined list of reference biometric functions comprises: - an enrolment function; - an inquiry function; - a merging function; - a deletion function. (a) identifying a sequence of elementary blocks defined by the biometric function, each elementary block performing a given operation on said biometric database and/or said alphanumeric database implemented by a processing unit of the server ; (b) requesting the execution, by the processing unit of the server , of the identified sequence of elementary blocks, wherein each elementary block is chosen from a predetermined list of elementary blocks and wherein said predetermined list of elementary blocks comprises: - a biometric template insertion block; - a biometric template deletion block; - a biometric template updating block; - a biometric template matching block; - an alphanumeric matching block, - a biometric template insertion block; - a biometric template deletion block; - a biometric template updating block; - a biometric template matching block; - an alphanumeric matching block, - an enrolment function; - an inquiry function; - a merging function; - a deletion function.
A method of setting a Discontinuous Reception, DRX, parameter value, the method comprising: maintaining a preconfigured relationship table including a plurality of joint statuses of activity related to at least two logical channels for communication between a user equipment and a network , wherein each joint status of activity includes a combination of values indicative of an activity status of the at least two logical channels, and wherein each joint status of activity is associated, within the preconfigured relationship table , with a value for each of one or more DRX parameters; monitoring a traffic profile associated with traffic flow associated with the at least two logical channels, wherein the traffic flow comprises a plurality of data packets communicated on the at least two logical channels; identifying, based upon an observed characteristic of the plurality of data packets, a triggering event based on a receipt of a packet acknowledgement or protocol message acknowledgement on a corresponding one of the at least two logical channels; and in response to identifying the triggering event, setting a value of the activity status of the corresponding one of the at least two logical channels based on the triggering event; determining the joint status of activity related to the at least two logical channels; and implicitly setting the one or more DRX parameter value to a corresponding value that is associated with the determined joint status of activity in the preconfigured relationship table . maintaining a preconfigured relationship table including a plurality of joint statuses of activity related to at least two logical channels for communication between a user equipment and a network , wherein each joint status of activity includes a combination of values indicative of an activity status of the at least two logical channels, and wherein each joint status of activity is associated, within the preconfigured relationship table , with a value for each of one or more DRX parameters; monitoring a traffic profile associated with traffic flow associated with the at least two logical channels, wherein the traffic flow comprises a plurality of data packets communicated on the at least two logical channels; identifying, based upon an observed characteristic of the plurality of data packets, a triggering event based on a receipt of a packet acknowledgement or protocol message acknowledgement on a corresponding one of the at least two logical channels; and in response to identifying the triggering event, setting a value of the activity status of the corresponding one of the at least two logical channels based on the triggering event; determining the joint status of activity related to the at least two logical channels; and implicitly setting the one or more DRX parameter value to a corresponding value that is associated with the determined joint status of activity in the preconfigured relationship table .
A method of communication at a base station, comprising: performing a first access procedure for access to a shared radio frequency spectrum band during a time period using a first subset of antennas associated with the base station; performing a second access procedure for access to the shared radio frequency spectrum band during the time period using a second subset of antennas associated with the base station different from the first subset of antennas; identifying that the first subset of antennas can access the shared radio frequency spectrum band based at least in part on performing the first access procedure; and accessing the shared radio frequency spectrum band using the first subset of antennas, wherein the accessing the shared radio frequency spectrum band using the first subset of antennas comprises transmitting a preamble indicating a successful access procedure using the first subset of antennas. performing a first access procedure for access to a shared radio frequency spectrum band during a time period using a first subset of antennas associated with the base station; performing a second access procedure for access to the shared radio frequency spectrum band during the time period using a second subset of antennas associated with the base station different from the first subset of antennas; identifying that the first subset of antennas can access the shared radio frequency spectrum band based at least in part on performing the first access procedure; and accessing the shared radio frequency spectrum band using the first subset of antennas, wherein the accessing the shared radio frequency spectrum band using the first subset of antennas comprises transmitting a preamble indicating a successful access procedure using the first subset of antennas.
A drive control device for a multi-axle-driving electrified vehicle including a first driving axle that is rotationally driven by a first electric motor and a second driving axle that is rotationally driven by a second electric motor , the drive control device comprising: an axle load distribution change control unit configured to perform axle load distribution change control for changing an axle load distribution for the first driving axle and the second driving axle; and a drive control unit configured to control operations of the first electric motor and the second electric motor, wherein the drive control unit is configured to perform driving force change control for changing driving forces of the first electric motor and the second electric motor when the axle load distribution change control unit performs the axle load distribution change control. an axle load distribution change control unit configured to perform axle load distribution change control for changing an axle load distribution for the first driving axle and the second driving axle; and a drive control unit configured to control operations of the first electric motor and the second electric motor, wherein the drive control unit is configured to perform driving force change control for changing driving forces of the first electric motor and the second electric motor when the axle load distribution change control unit performs the axle load distribution change control.
A method for denoxifying gases from an incineration or combustion boiler , in a catalytic reactor comprising at least two modules containing a catalyst capable of denoxifying said gases, said process comprising - a treatment phase consisting of introducing the gases to be treated from the said boiler into the inlet of the catalytic reactor , passing them through the said at least two modules , and then discharging the treated gases at the outlet of the catalytic reactor ; - a regeneration phase for the regeneration of one module of said at least two modules consisting of introducing regeneration gases into the inlet of the catalytic reactor , passing them into the said module to be regenerated and separately discharging the gases resulting from the regeneration at the outlet of the catalytic reactor ; the method being characterized in that the gases from the regeneration are returned to the boiler , the boiler has at least one economiser and the gases from the regeneration are reintroduced upstream of the at least one economizer ; and the process includes a step of recovering energy from the regeneration gases via the economizer of the boiler . - a treatment phase consisting of introducing the gases to be treated from the said boiler into the inlet of the catalytic reactor , passing them through the said at least two modules , and then discharging the treated gases at the outlet of the catalytic reactor ; - a regeneration phase for the regeneration of one module of said at least two modules consisting of introducing regeneration gases into the inlet of the catalytic reactor , passing them into the said module to be regenerated and separately discharging the gases resulting from the regeneration at the outlet of the catalytic reactor ; the method being characterized in that the gases from the regeneration are returned to the boiler , the boiler has at least one economiser and the gases from the regeneration are reintroduced upstream of the at least one economizer ; and the process includes a step of recovering energy from the regeneration gases via the economizer of the boiler .
An individual impression tray made of a pre-printed semifinished product for obtaining an impression of a dental arch, said individual impression tray made of a pre-printed semifinished product being substantially U-shaped and having a recess on one side and a corresponding protrusion on the opposite side, said individual impression tray made of a pre-printed semifinished product having at least an externally protruding wing and characterised in that it comprises at least one retaining portion that, in use, remains visible and that is adapted to hold the impression material; said at least one retaining portion being constituted by portions of fibres of a material selected from the group consisting of: woven fabric, non woven fabric, knitted fabric, or a combination thereof.