mhurhangee/ep-ind-claims huggingface dataset:
An asynchronous polar transmitter comprising: a baseband generation unit configured to generate phase data bits and amplitude data bits of an output pulse, a bandwidth control unit downstream to the baseband generation unit configured to regulate the width of the output pulse, and a pulse shaping unit downstream to the bandwidth control unit configured to generate a predefined amplitude envelope of the output pulse, wherein the pulse shaping unit comprises a delay-line with a plurality of taps (301 1,301 2,...,301 N), where each tap output is configured to be amplitude weighted in order to generate the amplitude envelope of the output pulse, and wherein the pulse shaping unit is further configured to control the delay (303 1,303 2,...,303 N) and amplitude weighting (305 1,305 2,...,305 N) at each tap output of the delay-line with respect to a sequence of data bits to be transmitted. a baseband generation unit configured to generate phase data bits and amplitude data bits of an output pulse, a bandwidth control unit downstream to the baseband generation unit configured to regulate the width of the output pulse, and a pulse shaping unit downstream to the bandwidth control unit configured to generate a predefined amplitude envelope of the output pulse, wherein the pulse shaping unit comprises a delay-line with a plurality of taps (301 1,301 2,...,301 N), where each tap output is configured to be amplitude weighted in order to generate the amplitude envelope of the output pulse, and wherein the pulse shaping unit is further configured to control the delay (303 1,303 2,...,303 N) and amplitude weighting (305 1,305 2,...,305 N) at each tap output of the delay-line with respect to a sequence of data bits to be transmitted.
A spring type control device comprising: · a spring for delivering energy rapidly in order to move a movable contact of a circuit breaker or a switch; · a rotary shaft (7A, 7B) for transmitting the energy needed for loading the spring; · a toothed wheel receiving the energy delivered by the spring via an outer set of teeth and designed to drive the rotary shaft (7A, 7B) while loading the spring; · a rachet system for coupling and uncoupling the toothed wheel and the rotary shaft (7A, 7B); · a cam secured to the rotary shaft (7A, 7B) for transmitting the energy delivered by the spring to the movable contact of the circuit breaker or switch; · a support arm secured to the rotary shaft (7A, 7B) carrying the rachet system and around which the toothed wheel is placed; and · a pivot fastened to the support arm, being axially offset relative to the rotary shaft (7A, 7B) and mechanically connected to the closure spring; the device being characterized in that the rotary shaft (7A, 7B), the cam, the support arm, and the pivot constitute a single part in the form of a crankshaft, the pivot being placed centrally between the cam and the support arm, the pivot being connected to a first end of the spring by a connecting rod, the connecting rod being mounted by a first end pivotally connected on the pivot and having a second end connected to the first end of the spring, the rotary shaft (7A, 7B) being made up of two portions (7A, 7B), one of the portions beside the cam and the other portion beside the support arm. · a spring for delivering energy rapidly in order to move a movable contact of a circuit breaker or a switch; · a rotary shaft (7A, 7B) for transmitting the energy needed for loading the spring; · a toothed wheel receiving the energy delivered by the spring via an outer set of teeth and designed to drive the rotary shaft (7A, 7B) while loading the spring; · a rachet system for coupling and uncoupling the toothed wheel and the rotary shaft (7A, 7B); · a cam secured to the rotary shaft (7A, 7B) for transmitting the energy delivered by the spring to the movable contact of the circuit breaker or switch; · a support arm secured to the rotary shaft (7A, 7B) carrying the rachet system and around which the toothed wheel is placed; and · a pivot fastened to the support arm, being axially offset relative to the rotary shaft (7A, 7B) and mechanically connected to the closure spring;
An ophthalmic lens comprising: a polymerized lens comprising at least one polymer; and a lens component configured to impart reduced light transmittance over a plurality of wavelength regions, comprising: a first light transmittance-reducing dye configured to impart a first region of reduced light transmittance having a center located between about 485 nanometers and 510 nanometers; a second light transmittance-reducing dye configured to impart a second region of reduced light transmittance having a center located between about 570 nanometers and 600 nanometers; wherein reduced light transmittance is a reduction in % transmittance of at least 50% as compared to a region outside a reduced light transmittance region and between 400 nanometers and 680 nanometers; and wherein the ophthalmic lens optionally comprises a polarizing wafer construct, characterized in that the lens component comprises a third light transmittance-reducing dye configured to impart a third region of reduced light transmittance having a center located between about 685 nanometers and 715 nanometers. a polymerized lens comprising at least one polymer; and a lens component configured to impart reduced light transmittance over a plurality of wavelength regions, comprising: a first light transmittance-reducing dye configured to impart a first region of reduced light transmittance having a center located between about 485 nanometers and 510 nanometers; a second light transmittance-reducing dye configured to impart a second region of reduced light transmittance having a center located between about 570 nanometers and 600 nanometers; a first light transmittance-reducing dye configured to impart a first region of reduced light transmittance having a center located between about 485 nanometers and 510 nanometers; a second light transmittance-reducing dye configured to impart a second region of reduced light transmittance having a center located between about 570 nanometers and 600 nanometers; wherein reduced light transmittance is a reduction in % transmittance of at least 50% as compared to a region outside a reduced light transmittance region and between 400 nanometers and 680 nanometers; and wherein the ophthalmic lens optionally comprises a polarizing wafer construct, characterized in that the lens component comprises a third light transmittance-reducing dye configured to impart a third region of reduced light transmittance having a center located between about 685 nanometers and 715 nanometers.
An electronic governor system, comprising: a motor; a transmission coupled to the motor, wherein a reduction ratio of the transmission is greater than or equal to 40:1; a throttle plate coupled to the transmission, the throttle plate movable to a plurality of positions between closed and wide-open; wherein power is supplied to the motor to move the throttle plate to a desired position; and wherein the reduction ratio of the transmission maintains the throttle plate in the desired position without power being supplied to the motor to maintain the throttle plate in the desired position. a motor; a transmission coupled to the motor, wherein a reduction ratio of the transmission is greater than or equal to 40:1; a throttle plate coupled to the transmission, the throttle plate movable to a plurality of positions between closed and wide-open; wherein power is supplied to the motor to move the throttle plate to a desired position; and wherein the reduction ratio of the transmission maintains the throttle plate in the desired position without power being supplied to the motor to maintain the throttle plate in the desired position.
A burner comprising: a cap; and a burner head which is bounded by a peripheral side wall, said burner head being topped by the cap, said side wall having a multiplicity of slots distributed peripherally and at least partially assisting in forming primary flame orifices, said slots having an inlet and an outlet and at least one stop (28, 58) at least proximate to at least one slot, wherein a first gas flow rate at the stop exceeds a second gas flow rate downstream of the stop within the slot; and wherein the stop (28, 58) is located at least partially internal of the slot in the burner head and a cross sectional area of the slot at the stop (28, 58) is in a range of about 50% to 98% of a cross sectional area of a portion of the slot downstream of the stop (28, 58). a cap; and a burner head which is bounded by a peripheral side wall, said burner head being topped by the cap, said side wall having a multiplicity of slots distributed peripherally and at least partially assisting in forming primary flame orifices, said slots having an inlet and an outlet and at least one stop (28, 58) at least proximate to at least one slot, wherein a first gas flow rate at the stop exceeds a second gas flow rate downstream of the stop within the slot; and wherein the stop (28, 58) is located at least partially internal of the slot in the burner head and a cross sectional area of the slot at the stop (28, 58) is in a range of about 50% to 98% of a cross sectional area of a portion of the slot downstream of the stop (28, 58).
A catheter, comprising: an elongated body; at least one electrode disposed on an intermediate portion of the elongate body; and at least one contact force sensor assembly operably connected to the at least one electrode, wherein the contact force sensor assembly comprises: an elongated strain gauge attached to an interior wall of the at least one electrode, the elongated strain gauge comprising: a circuit, at least one wire configured to electrically link the circuit to a system controller, a first attachment portion configured to connect the strain gauge to the at least one wire, and a second attachment portion configured to secure the strain gauge to the interior wall of the at least one electrode, and a detent operably attached to the strain gauge and disposed within a correspondingly shaped opening in a wall of the at least one electrode. an elongated body; at least one electrode disposed on an intermediate portion of the elongate body; and at least one contact force sensor assembly operably connected to the at least one electrode, wherein the contact force sensor assembly comprises: an elongated strain gauge attached to an interior wall of the at least one electrode, the elongated strain gauge comprising: a circuit, at least one wire configured to electrically link the circuit to a system controller, a first attachment portion configured to connect the strain gauge to the at least one wire, and a second attachment portion configured to secure the strain gauge to the interior wall of the at least one electrode, and a detent operably attached to the strain gauge and disposed within a correspondingly shaped opening in a wall of the at least one electrode. an elongated strain gauge attached to an interior wall of the at least one electrode, the elongated strain gauge comprising: a circuit, at least one wire configured to electrically link the circuit to a system controller, a first attachment portion configured to connect the strain gauge to the at least one wire, and a second attachment portion configured to secure the strain gauge to the interior wall of the at least one electrode, and a circuit, at least one wire configured to electrically link the circuit to a system controller, a first attachment portion configured to connect the strain gauge to the at least one wire, and a second attachment portion configured to secure the strain gauge to the interior wall of the at least one electrode, and a detent operably attached to the strain gauge and disposed within a correspondingly shaped opening in a wall of the at least one electrode.
A method for preparing superabsorbent polymer, comprising steps of: preparing a hydrogel polymer by carrying out a thermal polymerization or photopolymerization of a monomer composition comprising a water soluble ethylenically unsaturated monomer and a polymerization initiator; drying and grinding the hydrogel polymer to prepare a base resin powder; adding a surface cross-linking agent to the base resin powder and conducting surface cross-linking to prepare surface cross-linked base resin powder; and hydrating the surface cross-linked base resin powder by pulse spraying water, wherein a pulse on rate, which is a rate of time for which spraying is achieved according to pulse application in the spraying process, is 10 to 50 % of the total pulse spraying time, and a water introduction flow, which is the flow of fluid introduced into a reactor, during the pulse spraying is 0.02 to 0.05 m 3 /hr, wherein a scattering index of droplet generated during the pulse spraying, according to the following Mathematical Formula 1, is 5 to 10: Scattering index = Re droplet / Re air × 100 in the Mathematical Formula 1, Re droplet is Reynolds number of droplet, and Re air is Reynolds number of air, wherein the Reynolds numbers are defined and calculated as disclosed in the specification, wherein 95wt% or more of the superabsorbent polymer has a particle size of 150 to 850 μm, and the content of coarse particles having particle size greater than 850,um is 5wt% or less, based on the total weight of the superabsorbent polymer, as measured according to EDANA WSP 220.3. preparing a hydrogel polymer by carrying out a thermal polymerization or photopolymerization of a monomer composition comprising a water soluble ethylenically unsaturated monomer and a polymerization initiator; drying and grinding the hydrogel polymer to prepare a base resin powder; adding a surface cross-linking agent to the base resin powder and conducting surface cross-linking to prepare surface cross-linked base resin powder; and hydrating the surface cross-linked base resin powder by pulse spraying water, wherein a pulse on rate, which is a rate of time for which spraying is achieved according to pulse application in the spraying process, is 10 to 50 % of the total pulse spraying time, and a water introduction flow, which is the flow of fluid introduced into a reactor, during the pulse spraying is 0.02 to 0.05 m 3 /hr, wherein a scattering index of droplet generated during the pulse spraying, according to the following Mathematical Formula 1, is 5 to 10: Scattering index = Re droplet / Re air × 100 in the Mathematical Formula 1, Re droplet is Reynolds number of droplet, and Re air is Reynolds number of air, wherein the Reynolds numbers are defined and calculated as disclosed in the specification, wherein 95wt% or more of the superabsorbent polymer has a particle size of 150 to 850 μm, and the content of coarse particles having particle size greater than 850,um is 5wt% or less, based on the total weight of the superabsorbent polymer, as measured according to EDANA WSP 220.3.
A bearer migration method, comprising: acquiring load information of a Non-Standalone, NSA, node; and performing bearer migration according to the acquired load information; characterized in that, acquiring load information of an NSA node comprises: in response to that the bearer migration needs to be performed, transmitting, by a current Long-Term Evolution, LTE, side, a load request message to candidate NSA nodes, and acquiring load information of the candidate NSA nodes; and wherein, performing bearer migration according to the acquired load information, comprises: sorting, by the current LTE side, according to the acquired load information of the candidate NSA nodes, acquired candidate NSA nodes in a preset load sorting mode to form a target NSA node list; and selecting, by the current LTE side, from the target NSA node list, a target NSA node for user equipment, UE, bearer migration attempts until the bearer migration is successful. acquiring load information of a Non-Standalone, NSA, node; and performing bearer migration according to the acquired load information; characterized in that, acquiring load information of an NSA node comprises: in response to that the bearer migration needs to be performed, transmitting, by a current Long-Term Evolution, LTE, side, a load request message to candidate NSA nodes, and acquiring load information of the candidate NSA nodes; and wherein, performing bearer migration according to the acquired load information, comprises: sorting, by the current LTE side, according to the acquired load information of the candidate NSA nodes, acquired candidate NSA nodes in a preset load sorting mode to form a target NSA node list; and selecting, by the current LTE side, from the target NSA node list, a target NSA node for user equipment, UE, bearer migration attempts until the bearer migration is successful. in response to that the bearer migration needs to be performed, transmitting, by a current Long-Term Evolution, LTE, side, a load request message to candidate NSA nodes, and acquiring load information of the candidate NSA nodes; and wherein, performing bearer migration according to the acquired load information, comprises: sorting, by the current LTE side, according to the acquired load information of the candidate NSA nodes, acquired candidate NSA nodes in a preset load sorting mode to form a target NSA node list; and selecting, by the current LTE side, from the target NSA node list, a target NSA node for user equipment, UE, bearer migration attempts until the bearer migration is successful. sorting, by the current LTE side, according to the acquired load information of the candidate NSA nodes, acquired candidate NSA nodes in a preset load sorting mode to form a target NSA node list; and selecting, by the current LTE side, from the target NSA node list, a target NSA node for user equipment, UE, bearer migration attempts until the bearer migration is successful.
A printed circuit board including a dielectric substance and integrated with a two-axis fluxgate sensor, comprising: a first soft magnetic core formed lengthwise in a first axial direction; a first excitation coil formed of a metal film and wound around the first soft magnetic core; a first pick-up coil formed of a metal film and wound around the first soft magnetic core and the first excitation coil; a second soft magnetic core formed lengthwise in a second axial direction, the second axial direction being perpendicular to the first axial direction; a second excitation coil formed of a metal film and wound around the second soft magnetic core; a second pick-up coil formed of a metal film and wound around the second soft magnetic core and the second excitation coil; a first pad for establishing conductivity between the first coils and an external circuit; and a second pad for establishing conductivity between the second coils and an external circuit wherein the first soft magnetic core comprises two bars (1,2) on the same plane, and wherein the first excitation coil is alternately wound around the two bars substantially in a figure-eight pattern, and characterized in that the first soft magnetic core is disposed on a first surface of the dielectric substance and the second soft magnetic core is disposed on a second surface of the dielectric substance opposite to the first surface. a first soft magnetic core formed lengthwise in a first axial direction; a first excitation coil formed of a metal film and wound around the first soft magnetic core; a first pick-up coil formed of a metal film and wound around the first soft magnetic core and the first excitation coil; a second soft magnetic core formed lengthwise in a second axial direction, the second axial direction being perpendicular to the first axial direction; a second excitation coil formed of a metal film and wound around the second soft magnetic core; a second pick-up coil formed of a metal film and wound around the second soft magnetic core and the second excitation coil; a first pad for establishing conductivity between the first coils and an external circuit; and a second pad for establishing conductivity between the second coils and an external circuit wherein the first soft magnetic core comprises two bars (1,2) on the same plane, and wherein the first excitation coil is alternately wound around the two bars substantially in a figure-eight pattern, and characterized in that the first soft magnetic core is disposed on a first surface of the dielectric substance and the second soft magnetic core is disposed on a second surface of the dielectric substance opposite to the first surface.
Method for locating faults in an electrical system comprising a plurality of modules (M1-M3) that can be powered independently with current, the method comprising the measuring of an acoustic signal that accompanies an electrical arc generated by a defective module and being characterized in that it further comprises the following steps: - application (Asp) to each of the modules of a current which is modulated by a signal (C1-C3) specific to the module, - identification (IDMd) of a signature of one of the specific signals in the measured acoustic signal in order to identify the defective module (Mj). - application (Asp) to each of the modules of a current which is modulated by a signal (C1-C3) specific to the module, - identification (IDMd) of a signature of one of the specific signals in the measured acoustic signal in order to identify the defective module (Mj).
A method of tethering first and second wireless communication devices to enable the second device to gain access to a packet data network through the first device, the first device being a wireless electronic device according to claim 8, the method being implemented by the first device and comprising: establishing a wireless connection between the first device and the packet data network; sending and receiving tethering information with the second device using a third wireless interface; characterized by: if the wireless connection with the PDN is through a first wireless interface, automatically establishing a tethered connection with the second device via a different second wireless interface and connecting the second device to the PDN through the second interface; if the wireless connection with the PDN is not through the first wireless interface, automatically establishing a tethered connection with the second device via the first wireless interface and connecting the second device to the PDN through the first interface. establishing a wireless connection between the first device and the packet data network; sending and receiving tethering information with the second device using a third wireless interface; characterized by: if the wireless connection with the PDN is through a first wireless interface, automatically establishing a tethered connection with the second device via a different second wireless interface and connecting the second device to the PDN through the second interface; if the wireless connection with the PDN is not through the first wireless interface, automatically establishing a tethered connection with the second device via the first wireless interface and connecting the second device to the PDN through the first interface. if the wireless connection with the PDN is through a first wireless interface, automatically establishing a tethered connection with the second device via a different second wireless interface and connecting the second device to the PDN through the second interface; if the wireless connection with the PDN is not through the first wireless interface, automatically establishing a tethered connection with the second device via the first wireless interface and connecting the second device to the PDN through the first interface.
A biological inhibitor of ROR1 capable of inducing cell death in a cell expressing ROR1, wherein the said biological inhibitor is an antibody, and wherein the extracellular domain to which the biological inhibitor binds has an amino acid sequence selected from the group consisting of YMESLHMQGEIENQI, CQPWNSQYPHTHTFTALRFP and RSTIYGSRLRIRNLDTTDTGYFQ.