mhurhangee/patent-ind-claim-en huggingface dataset:
A tool for performing diagnostics on fire detection system comprising at least one detector, comprising: an induction coil comprising two halves that may be selectively opened and closed to surround a wire in the system and sense current through the wire; a diagnostic module ; and a conduit providing communication of data of the sensed current between the induction coil and the diagnostic module , wherein the diagnostic module is configured to decode the data to interpret communications sent through the wire; characterized in that the diagnostic module comprises an interface signal processing board for performing the decoding; and the interface signal processing board is programmed with an algorithm for converting the sensed data into signals from the at least one detector of the system an induction coil comprising two halves that may be selectively opened and closed to surround a wire in the system and sense current through the wire; a diagnostic module ; and a conduit providing communication of data of the sensed current between the induction coil and the diagnostic module , wherein the diagnostic module is configured to decode the data to interpret communications sent through the wire; the diagnostic module comprises an interface signal processing board for performing the decoding; and the interface signal processing board is programmed with an algorithm for converting the sensed data into signals from the at least one detector of the system
Cutting device for comminuting pasty substances, having (a) a nozzle having a nozzle housing which has at least one inlet having an entry flow cross section through which the pasty substance enters the nozzle , and an outlet having an exit flow cross section through which the pasty substance exits the nozzle , and a flow duct that leads from the inlet to the outlet ; and (b) a rotating cutting tool disposed on the outlet for cutting the exiting pasty substance, wherein the exit flow cross section has the shape of a closed or interrupted annular gap which is formed by a central member within the nozzle , said central member in the conveying direction of the pasty substance increasing in terms of the cross section, and by an internal wall of the flow duct , characterized in that the central member so as to be inclined in the conveying direction extends from the internal wall of the flow duct into the flow duct . (a) a nozzle having a nozzle housing which has at least one inlet having an entry flow cross section through which the pasty substance enters the nozzle , and an outlet having an exit flow cross section through which the pasty substance exits the nozzle , and a flow duct that leads from the inlet to the outlet ; and (b) a rotating cutting tool disposed on the outlet for cutting the exiting pasty substance, wherein
A method for controlling the operational state of a sensor device for break-in detection, the method being performed in the sensor device and comprising the steps of: determining , while in a low-power state , that a wake-up condition is true when a vibration measurement associated with a barrier is greater than a wake-up threshold; transitioning , when the wake-up condition is true, to an active state ; determining , while in the active state , when an activity condition is true, the activity condition being based on vibration measurements associated with the barrier ; increasing the wake-up threshold, and transitioning to the low-power state when the activity condition is not determined to be true within a first duration while in the active state ; and decreasing the wake-up threshold, when the sensor device stays in the low-power state longer than a second duration. determining , while in a low-power state , that a wake-up condition is true when a vibration measurement associated with a barrier is greater than a wake-up threshold; transitioning , when the wake-up condition is true, to an active state ; determining , while in the active state , when an activity condition is true, the activity condition being based on vibration measurements associated with the barrier ; increasing the wake-up threshold, and transitioning to the low-power state when the activity condition is not determined to be true within a first duration while in the active state ; and decreasing the wake-up threshold, when the sensor device stays in the low-power state longer than a second duration.
An ultrasonic flow metering system , comprising: a plurality of ultrasonic flowmeters (100, 100A-B), each of the flowmeters (100, 100A-B) comprising a flow processor configured to: maintain a plurality of velocity bins, each of the bins corresponding to a flow velocity range for the flowmeters (100, 100A-B), maintain, within each of the bins, a value indicative of past average velocity of fluid flow through a given one of the flowmeters (100, 100A-B) associated with a given one of the bins; determine, responsive to a given one of the flowmeters (100, 100A-B) having failed based on an unavailable measurement or a corrupted measurement, an estimated average fluid flow velocity through the system based on a measured average fluid flow velocity through a non-failed one of the flowmeters (100, 100A-B) and bins adjacent to the measured average fluid flow velocity, wherein the given one of the flowmeters (100, 100A-B) is a different one of the flowmeters (100, 100A-B) from the non-failed one of the flowmeters (100, 100A-B) that is to determine the estimated average fluid flow velocity responsive to the given one of the flowmeters (100, 100A-B) having failed. maintain a plurality of velocity bins, each of the bins corresponding to a flow velocity range for the flowmeters (100, 100A-B), maintain, within each of the bins, a value indicative of past average velocity of fluid flow through a given one of the flowmeters (100, 100A-B) associated with a given one of the bins; determine, responsive to a given one of the flowmeters (100, 100A-B) having failed based on an unavailable measurement or a corrupted measurement, an estimated average fluid flow velocity through the system based on a measured average fluid flow velocity through a non-failed one of the flowmeters (100, 100A-B) and bins adjacent to the measured average fluid flow velocity, wherein the given one of the flowmeters (100, 100A-B) is a different one of the flowmeters (100, 100A-B) from the non-failed one of the flowmeters (100, 100A-B) that is to determine the estimated average fluid flow velocity responsive to the given one of the flowmeters (100, 100A-B) having failed.
An apparatus to be used in a Radio Access Network, RAN, node , the apparatus comprising: processing circuitry in communication with a Non-Real Time RAN Intelligent Controller, Non-RT RIC, of a Service Management and Orchestration, SMO, entity (502; 602) of an Open RAN, O-RAN, (500; 600; 800) and a Near-RT RIC in the O-RAN, and a memory coupled to the processing circuitry, characterized in that, to configure the RAN node for multi-access network traffic management in the O-RAN (500; 600; 800), the processing circuitry is configured to: encode spectrum utilization information associated with spectrum used by one or more user equipments, UEs , in communication with the RAN node , the encoded spectrum utilization information being for transmission to the Non-RT RIC (512; 612; 802); transmit the encoded spectrum utilization information to the Non-RT RIC (512; 612; 802); decode a spectrum adjustment policy from the Near-RT RIC (514; 614; 804) associated with the RAN node , the spectrum adjustment policy originating at the Non-RT RIC (512; 612; 802) and based on the spectrum utilization information; and reassign the spectrum used by the one or more UEs based on the spectrum adjustment policy; and in that the memory is configured to store the spectrum adjustment policy. processing circuitry in communication with a Non-Real Time RAN Intelligent Controller, Non-RT RIC, of a Service Management and Orchestration, SMO, entity (502; 602) of an Open RAN, O-RAN, (500; 600; 800) and a Near-RT RIC in the O-RAN, and a memory coupled to the processing circuitry, characterized in that, to configure the RAN node for multi-access network traffic management in the O-RAN (500; 600; 800), the processing circuitry is configured to: encode spectrum utilization information associated with spectrum used by one or more user equipments, UEs , in communication with the RAN node , the encoded spectrum utilization information being for transmission to the Non-RT RIC (512; 612; 802); transmit the encoded spectrum utilization information to the Non-RT RIC (512; 612; 802); decode a spectrum adjustment policy from the Near-RT RIC (514; 614; 804) associated with the RAN node , the spectrum adjustment policy originating at the Non-RT RIC (512; 612; 802) and based on the spectrum utilization information; and reassign the spectrum used by the one or more UEs based on the spectrum adjustment policy; and encode spectrum utilization information associated with spectrum used by one or more user equipments, UEs , in communication with the RAN node , the encoded spectrum utilization information being for transmission to the Non-RT RIC (512; 612; 802); transmit the encoded spectrum utilization information to the Non-RT RIC (512; 612; 802); decode a spectrum adjustment policy from the Near-RT RIC (514; 614; 804) associated with the RAN node , the spectrum adjustment policy originating at the Non-RT RIC (512; 612; 802) and based on the spectrum utilization information; and reassign the spectrum used by the one or more UEs based on the spectrum adjustment policy; and in that the memory is configured to store the spectrum adjustment policy.
Electrosurgical system for generating high-frequency alternating current for ablating body tissue, having - a high-frequency voltage supply unit which is connected or to be connected electrically to a first and second electrode and which is configured to supply these electrodes with a high-frequency alternating voltage; - a feedback unit which is electrically connected to the first and second electrodes and which is configured to generate an output signal dependent on an electrical resistance between the first and the second electrode; and - a control unit which is configured to control the high-frequency voltage supply unit such that it is possible to switch automatically between at least one first and one second operating mode, wherein in the first operating mode the alternating voltage is limited by a first threshold value U 1 and in the second operating mode the alternating voltage is limited by a second threshold value U 2 , wherein U 1 is greater than U 2 and wherein an automated change from the first operating mode into the second operating mode takes place when a rate of increase in the electrical resistance between the first and second electrodes lies above a predetermined threshold value G, characterized in that the control unit is furthermore configured to control the high-frequency voltage supply unit such that an automated change from the second operating mode into the first operating mode takes place when the electrical resistance between the first and the second electrode is below a predetermined threshold value W. - a high-frequency voltage supply unit which is connected or to be connected electrically to a first and second electrode and which is configured to supply these electrodes with a high-frequency alternating voltage; - a feedback unit which is electrically connected to the first and second electrodes and which is configured to generate an output signal dependent on an electrical resistance between the first and the second electrode; and - a control unit which is configured to control the high-frequency voltage supply unit such that it is possible to switch automatically between at least one first and one second operating mode, wherein in the first operating mode the alternating voltage is limited by a first threshold value U 1 and in the second operating mode the alternating voltage is limited by a second threshold value U 2 , wherein U 1 is greater than U 2 and wherein an automated change from the first operating mode into the second operating mode takes place when a rate of increase in the electrical resistance between the first and second electrodes lies above a predetermined threshold value G,
A method for obtaining information useful to determine the effect of acute sun exposure on the skin of an individual, the method comprising the steps of: (a) obtaining genomic DNA from skin cells derived from the individual, wherein the skin cells include epidermal skin cells; and (b) observing cytosine methylation of at least two CpG loci in the genomic DNA selected from the group consisting of: cg22821554 cg08781365 cg09914773 cg07166800 cg04935109 cg08903441 cg04424885 cg03819134 cg13852284 cg03985520 cg12577010 cg18156845 cg12907959 cg06769820 cg08267250 cg23224396 cg13896748 cg02152631 cg05888872 cg04659582 cg06427571 cg17206555 cg10494639 cg16777510 cg16293892 cg24349610 cg02261047 cg23225508 cg17117459 cg22923895 cg10113820 cg13213009 cg02491003 cg16808156 cg00772091 cg17341765 cg02018681 cg01823161 cg06066180 cg26166717 cg15674181 cg00297912 cg19145082 cg15701237 cg15084618 cg17180088 cg02215357 cg05355684 cg05799507 cg08584947 cg06650378 cg26063719 cg10634273 cg24591969 cg16929393 cg12474705 cg10481072 cg23976431 cg00953443 cg24534872 cg19990373 cg06958636 cg00813560 cg16210355 cg19187110 cg07619697 cg14043049 cg16246713 cg10557907 cg00067720 cg19256731 cg08644276 cg09353052 cg04921068 cg12906649 cg23660755 cg24990283 cg19413397, so that information useful to determine the effect of acute sun exposure on the skin is obtained. (a) obtaining genomic DNA from skin cells derived from the individual, wherein the skin cells include epidermal skin cells; and (b) observing cytosine methylation of at least two CpG loci in the genomic DNA selected from the group consisting of: cg22821554 cg08781365 cg09914773 cg07166800 cg04935109 cg08903441 cg04424885 cg03819134 cg13852284 cg03985520 cg12577010 cg18156845 cg12907959 cg06769820 cg08267250 cg23224396 cg13896748 cg02152631 cg05888872 cg04659582 cg06427571 cg17206555 cg10494639 cg16777510 cg16293892 cg24349610 cg02261047 cg23225508 cg17117459 cg22923895 cg10113820 cg13213009 cg02491003 cg16808156 cg00772091 cg17341765 cg02018681 cg01823161 cg06066180 cg26166717 cg15674181 cg00297912 cg19145082 cg15701237 cg15084618 cg17180088 cg02215357 cg05355684 cg05799507 cg08584947 cg06650378 cg26063719 cg10634273 cg24591969 cg16929393 cg12474705 cg10481072 cg23976431 cg00953443 cg24534872 cg19990373 cg06958636 cg00813560 cg16210355 cg19187110 cg07619697 cg14043049 cg16246713 cg10557907 cg00067720 cg19256731 cg08644276 cg09353052 cg04921068 cg12906649 cg23660755 cg24990283 cg19413397, so that information useful to determine the effect of acute sun exposure on the skin is obtained.
A syringe packaging system , comprising: a pre-filled syringe including a syringe barrel having a proximal end , a distal end , a sidewall extending therebetween and defining a chamber , and a stopper slidably disposed within the chamber of the syringe barrel , the proximal end of the syringe barrel having a syringe barrel cut flange , wherein the syringe barrel cut flange includes a first flat wall portion and a first arcuate wall portion ; and a packaging member enclosing the pre-filled syringe , the packaging member including a tube having a proximal end and a distal end , the proximal end including a tube cut flange , wherein the tube cut flange includes a second flat wall portion and a second arcuate wall portion wherein, with the syringe barrel contained within the tube , the syringe barrel cut flange is aligned with the tube cut flange such that the first flat wall portion of the cut flange of the syringe barrel is aligned with the second flat wall portion of the tube and the first arcuate wall portion of the cut flange of the syringe barrel is aligned with the second arcuate wall portion of the tube ; and a plunger rod having a proximal end and a distal end engageable with a portion of the stopper , and a cap having a first end and a second end , the second end including a cut skirt , including a third flat wall portion and a third arcuate wall portion , with the prefilled syringe enclosed within the packaging member , the cut skirt of the cap surrounds the syringe barrel cut flange and the cut skirt is cut to have the same shape as the flange of the tube . a pre-filled syringe including a syringe barrel having a proximal end , a distal end , a sidewall extending therebetween and defining a chamber , and a stopper slidably disposed within the chamber of the syringe barrel , the proximal end of the syringe barrel having a syringe barrel cut flange , wherein the syringe barrel cut flange includes a first flat wall portion and a first arcuate wall portion ; and a packaging member enclosing the pre-filled syringe , the packaging member including a tube having a proximal end and a distal end , the proximal end including a tube cut flange , wherein the tube cut flange includes a second flat wall portion and a second arcuate wall portion wherein, with the syringe barrel contained within the tube , the syringe barrel cut flange is aligned with the tube cut flange such that the first flat wall portion of the cut flange of the syringe barrel is aligned with the second flat wall portion of the tube and the first arcuate wall portion of the cut flange of the syringe barrel is aligned with the second arcuate wall portion of the tube ; and a plunger rod having a proximal end and a distal end engageable with a portion of the stopper , and a cap having a first end and a second end , the second end including a cut skirt , including a third flat wall portion and a third arcuate wall portion , with the prefilled syringe enclosed within the packaging member , the cut skirt of the cap surrounds the syringe barrel cut flange and the cut skirt is cut to have the same shape as the flange of the tube .
A golf club head comprising: a face section ; a crown section; a sole section; a heel section; and a toe section, wherein a hollow section separated from an outside is formed, the face section includes, on a back surface, a first thick section disposed substantially at a center in a toe-heel direction going from the toe section to the heel section, a second thick section disposed closer to the sole section than the first thick section, and a thin section thinner than the first thick section and the second thick section and disposed so as to surround an entire periphery of the first thick section and an entire periphery of the second thick section, and the first thick section includes a first portion disposed substantially at a center in both the toe-heel direction and a crown-sole direction going from the crown section to the sole section and having a longitudinal direction coincident with the toe-heel direction, and a second portion protruding from a part at a center of the first portion in the longitudinal direction toward the crown section. a face section ; a crown section; a sole section; a heel section; and a toe section, wherein a hollow section separated from an outside is formed, the face section includes, on a back surface, a first thick section disposed substantially at a center in a toe-heel direction going from the toe section to the heel section, a second thick section disposed closer to the sole section than the first thick section, and a thin section thinner than the first thick section and the second thick section and disposed so as to surround an entire periphery of the first thick section and an entire periphery of the second thick section, and the first thick section includes a first portion disposed substantially at a center in both the toe-heel direction and a crown-sole direction going from the crown section to the sole section and having a longitudinal direction coincident with the toe-heel direction, and a second portion protruding from a part at a center of the first portion in the longitudinal direction toward the crown section.
A kit for preparing a dental prosthesis, said kit having: - a master model manufactured by means an of additive technology using an arrangement of material in successive layers , such as 3D printing, the master model having at least one reference surface (S) intended to receive the dental prosthesis element bearing thereon, said reference surface (S) being produced during the manufacture of the master model by additive technology, - a fixing screw with an outer thread intended to removably fix a dental prosthesis element on the master model , wherein: - the master model has at least one threaded cavity , of which the inner thread , intended to receive said fixing screw by screwing, is produced during the manufacture of the master model by additive technology, - the outer thread of the fixing screw has: • a pitch (P) greater than or equal to 10 times the thickness (E) of the layers , • a thread height (H) greater than or equal to 5 times the thickness (E) of the layers . - a master model manufactured by means an of additive technology using an arrangement of material in successive layers , such as 3D printing, the master model having at least one reference surface (S) intended to receive the dental prosthesis element bearing thereon, said reference surface (S) being produced during the manufacture of the master model by additive technology, - a fixing screw with an outer thread intended to removably fix a dental prosthesis element on the master model , - the master model has at least one threaded cavity , of which the inner thread , intended to receive said fixing screw by screwing, is produced during the manufacture of the master model by additive technology, - the outer thread of the fixing screw has: • a pitch (P) greater than or equal to 10 times the thickness (E) of the layers , • a thread height (H) greater than or equal to 5 times the thickness (E) of the layers . • a pitch (P) greater than or equal to 10 times the thickness (E) of the layers , • a thread height (H) greater than or equal to 5 times the thickness (E) of the layers .
Use of fine particles for suppressing permeation of a liquid layer into a resin forming an underlying surface of a structural body, wherein said liquid layer is held on the underlying surface of the resin of the structural body, wherein said fine particles are dispersed in the resin.