mhurhangee/patent-ind-claim-en huggingface dataset:
A 2-dimensional hybrid pixel array detector configured to detect radioactive rays, comprising: a detection unit configured to detect the radioactive rays incident in a region of each pixel ; and a plurality of readout chips including counting circuits respectively connected to each of the pixels by bump bondings, wherein the counting circuits have a smaller set pitch than a set pitch of the pixels along a certain direction in a detection surface, the shape of the pixel arranged in the vicinity of facing edges of the plurality of readout chips is identical to the shape of the pixel in the central region of the plurality of readout chips , the regions occupied by the pixels at least partially overlap with the regions occupied by the counting circuits corresponding to the pixels , and the connection is made in the overlapping regions, and characterized in that the counting circuits closest to the facing edges of the plurality of readout chips electrically connect to corresponding pixels at positions biased toward the facing edges. a detection unit configured to detect the radioactive rays incident in a region of each pixel ; and a plurality of readout chips including counting circuits respectively connected to each of the pixels by bump bondings, wherein the counting circuits have a smaller set pitch than a set pitch of the pixels along a certain direction in a detection surface, the shape of the pixel arranged in the vicinity of facing edges of the plurality of readout chips is identical to the shape of the pixel in the central region of the plurality of readout chips , the regions occupied by the pixels at least partially overlap with the regions occupied by the counting circuits corresponding to the pixels , and the connection is made in the overlapping regions, and characterized in that the counting circuits closest to the facing edges of the plurality of readout chips electrically connect to corresponding pixels at positions biased toward the facing edges.
A method comprising: providing an integrated microwave circuit (305 to 308, 605 to 608, 705 to 708) for performing a first function relating to microwave transmission and/or reception and, responsive to a transistor bias voltage, supporting a first desired RF performance characteristic; providing an elemental device , disposed within the microwave circuit; providing at least one of a known voltage and current to the elemental device; measuring at least one elemental device parameter of the elemental device whilst the known voltage and/or current is applied; determining, in response to measuring the elemental device parameter, first calibration data that, when stored within a programmable memory store and utilized by a transistor bias voltage generating circuit , results in a first predetermined transistor bias voltage in response to which the integrated microwave circuit performs the first function and exhibits approximately the first desired performance characteristic, the first calibration data being indicative of one of a plurality of predetermined transistor bias voltages, different calibration data resulting in different transistor bias voltages, each predetermined transistor bias voltage supporting different performance characteristics of the integrated microwave circuit; and storing the first calibration data within the programmable memory store. providing an integrated microwave circuit (305 to 308, 605 to 608, 705 to 708) for performing a first function relating to microwave transmission and/or reception and, responsive to a transistor bias voltage, supporting a first desired RF performance characteristic; providing an elemental device , disposed within the microwave circuit; providing at least one of a known voltage and current to the elemental device; measuring at least one elemental device parameter of the elemental device whilst the known voltage and/or current is applied; determining, in response to measuring the elemental device parameter, first calibration data that, when stored within a programmable memory store and utilized by a transistor bias voltage generating circuit , results in a first predetermined transistor bias voltage in response to which the integrated microwave circuit performs the first function and exhibits approximately the first desired performance characteristic, the first calibration data being indicative of one of a plurality of predetermined transistor bias voltages, different calibration data resulting in different transistor bias voltages, each predetermined transistor bias voltage supporting different performance characteristics of the integrated microwave circuit; and storing the first calibration data within the programmable memory store.
An anastomosis device for positioning between two adjacent body tissues, the device comprising: a wire , wherein said wire has a first state and a second state, wherein, in said first state, the wire has a substantially linear form, wherein when the wire is in said second state, the wire forms a coil having at least a first loop and a second loop , and wherein said wire is adapted to transform from the first state to the second state when exposed to a temperature greater than a threshold value; and a plurality of magnets positioned over said wire, wherein each of said plurality of magnets has a lumen through which said wire extends, wherein, in each of said first loop and second loop, a portion of adjacent magnets of said plurality of magnets are configured to not attach to each other, and wherein a portion of said plurality of magnets in the first loop are configured to attract a portion of said plurality of magnets in the second loop; wherein the anastomosis device is configured for positioning via a catheter within a body cavity proximate at least one of said adjacent body tissues and to be released within the body cavity such that, when it transforms from the first state to the second state, tissue between two adjacent body tissues is caught between the first loop and the second loop, thereby being compressed and resulting in the anastomosis. a wire , wherein said wire has a first state and a second state, wherein, in said first state, the wire has a substantially linear form, wherein when the wire is in said second state, the wire forms a coil having at least a first loop and a second loop , and wherein said wire is adapted to transform from the first state to the second state when exposed to a temperature greater than a threshold value; and a plurality of magnets positioned over said wire, wherein each of said plurality of magnets has a lumen through which said wire extends, wherein, in each of said first loop and second loop, a portion of adjacent magnets of said plurality of magnets are configured to not attach to each other, and wherein a portion of said plurality of magnets in the first loop are configured to attract a portion of said plurality of magnets in the second loop;
A device for monitoring a two-wire line , in particular a two-wire line of a fire protection system, comprising a passive terminating component for terminating the two-wire line , wherein the passive terminating component has a chargeable energy storage , a constant current source for providing a measuring current to the passive terminating component, a voltage detection unit for detecting a voltage curve (U(t)) at output terminals of the two-wire line , a control unit for controlling the constant current source and for evaluating the detected voltage curve (U(t)), the control unit being configured to determine a series resistance (R L ) and a parallel resistance (Rs) of the two-wire line , the control unit being configured to evaluate the voltage curve (U(t)) in response to a change in the provided measuring current and to charge the chargeable energy storage during a predetermined first period (T1) by controlling the constant current source and to evaluate a self-discharging of the chargeable energy storage during a subsequent second period (T2) after the switching off of the constant current source . a passive terminating component for terminating the two-wire line , wherein the passive terminating component has a chargeable energy storage , a constant current source for providing a measuring current to the passive terminating component, a voltage detection unit for detecting a voltage curve (U(t)) at output terminals of the two-wire line , a control unit for controlling the constant current source and for evaluating the detected voltage curve (U(t)), the control unit being configured to determine a series resistance (R L ) and a parallel resistance (Rs) of the two-wire line , the control unit being configured to evaluate the voltage curve (U(t)) in response to a change in the provided measuring current and to charge the chargeable energy storage during a predetermined first period (T1) by controlling the constant current source and to evaluate a self-discharging of the chargeable energy storage during a subsequent second period (T2) after the switching off of the constant current source .
A method for wireless communication at a user equipment, UE, comprising: receiving a grant for a transport block, TB, comprising a plurality of resource elements, where the TB is jointly transmitted by a first transmission reception point, TRP, and punctured by a second TRP; receiving a first demodulation reference signal, DMRS, and a second DMRS, wherein the first DMRS is specific to the first TRP, and the second DMRS is specific to one or more of: the second TRP or a combination of the first TRP and the second TRP; identifying a first portion of the resource elements punctured by the second TRP; and receiving , based at least in part on the first DMRS, a transmission from the first TRP of the first portion of the resource elements; and receiving , based at least in part on the second DMRS, a joint transmission of a second portion of the resource elements from the first TRP and the second TRP. receiving a grant for a transport block, TB, comprising a plurality of resource elements, where the TB is jointly transmitted by a first transmission reception point, TRP, and punctured by a second TRP; receiving a first demodulation reference signal, DMRS, and a second DMRS, wherein the first DMRS is specific to the first TRP, and the second DMRS is specific to one or more of: the second TRP or a combination of the first TRP and the second TRP; identifying a first portion of the resource elements punctured by the second TRP; and receiving , based at least in part on the first DMRS, a transmission from the first TRP of the first portion of the resource elements; and receiving , based at least in part on the second DMRS, a joint transmission of a second portion of the resource elements from the first TRP and the second TRP.
An intake device for a vertical pump, comprising an inlet section with an inlet opening for a fluid to be pumped by the vertical pump, the inlet section extending in a first direction (D1) for horizontally guiding a flow of the fluid, an outlet section with an outlet opening for delivering the fluid to an inlet of the pump, the outlet section extending in a second direction (D2) being perpendicular to the first direction (D1), and a diverting section for diverting the flow of fluid from the first direction (D1) to the second direction (D2), the diverting section connecting the inlet section with the outlet section , and having a bottom wall opposing the outlet opening as well as a back wall opposing the inlet opening , wherein the inlet section is tapering towards the diverting section for decreasing a cross section area of the inlet section , wherein the diverting section comprises a splitter member being arranged on the bottom wall and being designed to taper in the second direction (D2) towards the outlet opening , wherein the outlet section comprises a reducing part for decreasing a cross section area of the outlet section , the reducing part being designed in an essentially bell shaped manner and wherein the inlet section comprises a bottom , a cover and two side walls each connecting the bottom with the cover , characterized in that the inlet section comprises a partition wall extending in the first direction (D1) from the inlet opening towards the diverting section , and extending in the second direction (D2) from the bottom to the cover and wherein the partition wall is extending at the bottom wall of the diverting section and ending at the splitter member .
An engine system comprising: an idle-stop control unit which performs idle-stop control of stopping a fuel injection to an engine in an engine idling state upon stopping a vehicle; an electric assist turbocharger connected to an intake and exhaust system of the engine and obtained by a combination of a motor and a turbocharger; and a starter for starting the engine ; wherein the idle-stop control unit restarts the engine by resuming the fuel injection to the engine while operating the motor upon detecting a reaccelerating operation during the idle-stop control and decrease of the engine speed, characterized in that the idle-stop control unit restarts the engine by resuming the fuel injection to the engine while operating the motor without operating the starter, when an engine speed upon detecting the reaccelerating operation during the idle-stop control and decrease of the engine speed is equal to or higher than a first speed at which the engine is able to continue a combustion cycle during the operation of the motor ; wherein the first speed is higher than zero and lower than a second speed which is a lowest limit speed at which the engine is able to keep a combustion cycle by resuming the fuel injection without operating the starter and the motor. an idle-stop control unit which performs idle-stop control of stopping a fuel injection to an engine in an engine idling state upon stopping a vehicle; an electric assist turbocharger connected to an intake and exhaust system of the engine and obtained by a combination of a motor and a turbocharger; and a starter for starting the engine ; wherein the idle-stop control unit restarts the engine by resuming the fuel injection to the engine while operating the motor upon detecting a reaccelerating operation during the idle-stop control and decrease of the engine speed, characterized in that the idle-stop control unit restarts the engine by resuming the fuel injection to the engine while operating the motor without operating the starter, when an engine speed upon detecting the reaccelerating operation during the idle-stop control and decrease of the engine speed is equal to or higher than a first speed at which the engine is able to continue a combustion cycle during the operation of the motor ; wherein the first speed is higher than zero and lower than a second speed which is a lowest limit speed at which the engine is able to keep a combustion cycle by resuming the fuel injection without operating the starter and the motor.
An article of footwear having an upper and a sole structure secured to the upper, the sole structure comprising: an upper barrier polymer layer bonded to a lower barrier polymer layer and forming a sealed chamber with (a) an exterior surface and (b) an interior surface located opposite the exterior surface, at least a portion of the interior surface defining a cavity within the chamber that receives a fluid; and a plate located within the cavity, the plate having (a) a first surface secured to the interior surface of the chamber and (b) a second surface located opposite the first surface, the second surface defining an indentation extending into and across at least a portion of the plate , wherein: (a) the indentation defines a generally triangular, linear, or water-droplet-shaped cross-section, (b) when tracing the cross-sectional profile from edge areas , which are defined in a surface of plate and are located immediately adjacent to and on opposite sides of the indentations , to portions of the plate spaced away from the edge areas , a thickness of the plate decreases rapidly at first, then decreases slowly toward the a thickness of the remainder of the plate , and (c) the edge areas are formed to have a saw-toothed, trapezoidal, curving, circular, rippling, or otherwise wavy configuration. an upper barrier polymer layer bonded to a lower barrier polymer layer and forming a sealed chamber with (a) an exterior surface and (b) an interior surface located opposite the exterior surface, at least a portion of the interior surface defining a cavity within the chamber that receives a fluid; and a plate located within the cavity, the plate having (a) a first surface secured to the interior surface of the chamber and (b) a second surface located opposite the first surface, the second surface defining an indentation extending into and across at least a portion of the plate , wherein: (a) the indentation defines a generally triangular, linear, or water-droplet-shaped cross-section, (b) when tracing the cross-sectional profile from edge areas , which are defined in a surface of plate and are located immediately adjacent to and on opposite sides of the indentations , to portions of the plate spaced away from the edge areas , a thickness of the plate decreases rapidly at first, then decreases slowly toward the a thickness of the remainder of the plate , and (c) the edge areas are formed to have a saw-toothed, trapezoidal, curving, circular, rippling, or otherwise wavy configuration. (a) the indentation defines a generally triangular, linear, or water-droplet-shaped cross-section, (b) when tracing the cross-sectional profile from edge areas , which are defined in a surface of plate and are located immediately adjacent to and on opposite sides of the indentations , to portions of the plate spaced away from the edge areas , a thickness of the plate decreases rapidly at first, then decreases slowly toward the a thickness of the remainder of the plate , and (c) the edge areas are formed to have a saw-toothed, trapezoidal, curving, circular, rippling, or otherwise wavy configuration.
A method for profile handling of a communications device , the method being performed by a local profile assistant of a proxy device , the method comprising: obtaining (S102) an indication of handling a profile of the communications device ; establishing (S104) a first secure communications link with a local profile assistant of the communications device ; establishing (S106) a second secure communications link with a subscription management entity of the communications device ; receiving (S112) information pertaining to handling of the profile by the local profile assistant of the communications device , the information being received from the subscription management entity over the second secure communications link; providing (S120) the information to the local profile assistant of the communications device over the first secure communications link; and the method being characterised in that it comprises providing (S120a) an InstallBPP message to the communications device , wherein the InstallBPP message comprises the profile but lacks transaction ID. obtaining (S102) an indication of handling a profile of the communications device ; establishing (S104) a first secure communications link with a local profile assistant of the communications device ; establishing (S106) a second secure communications link with a subscription management entity of the communications device ; receiving (S112) information pertaining to handling of the profile by the local profile assistant of the communications device , the information being received from the subscription management entity over the second secure communications link; providing (S120) the information to the local profile assistant of the communications device over the first secure communications link; and the method being characterised in that it comprises providing (S120a) an InstallBPP message to the communications device , wherein the InstallBPP message comprises the profile but lacks transaction ID.
An adjustable steering column assembly , comprising a telescopic shroud which comprises an outer tubular portion and an inner tubular portion wherein the outer tubular portion receives the inner tubular portion such that the overall length of the shroud can be adjusted by relative movement of the two portions , a support bracket that in use is secured to a fixed part of a vehicle and a releasable clamp assembly which is movable between an unclamped position in which the shroud can be adjusted telescopically and a clamped position in which the outer tubular portion clamps onto the inner tubular portion thereby preventing telescopic movement of the shroud during normal use of the steering column assembly , in which the outer tubular portion includes an elongated slot and two clamp rails , each located on a respective side of the slot and including an elongated opening through which a clamp bolt of the clamp assembly passes, the clamp assembly locking the shroud relative to the support bracket when in the clamped position, characterised in that at least one of the clamp rails varies in cross-section at the various positions at which the clamp rails may be clamped such that, in use, the clamp rails resiliently deform when the clamp assembly is in the clamped position by an amount dependent on the relative telescopic position of the inner and outer tubular portions due to differences in the cross-section of the clamp rail at any given position, wherein the sides of each clamp rail which face the support bracket are parallel to each other.
A compound, or a pharmaceutically acceptable salt, solvate, or crystal form thereof, wherein the compound is selected from: Name of Compound Structure of Compound 3-O-angeloyl-13-O-acetyl-ingenol 3-O-angeloyl-13-O-butanoyl-ingenol 3-O-angeloyl-13-O-hexanoyl-ingenol 3-O-angeloyl-13-O-decanoyl-ingenol 3-O-(2,3-dimethylbutenoyl)-13-O-dodecanoyl-ingenol 3-O-(3,5-diethylisoxazolyl-4-formyl)-13-O-dodecanoyl-ingenol
A method for making polymeric objects having a surface on which are formed arrays of nanofibers for the purpose of modifying the wettability of the surface, characterized in that the method comprises: providing a first cylindrical roll with an array of nanoholes formed in a circumferential surface thereof; providing a source of flowable polymer; rotating the first cylindrical roll; applying the flowable polymer to the rotating first cylindrical roll at a first angular location so that the flowable polymer coats at least a portion of the circumferential surface of the rotating first cylindrical roll and flows into at least a portion of the nanoholes; cooling the flowable polymer while rotating the coated first cylindrical roll to a second angular position; and removing the cooled polymer coated on the first cylindrical roll from the first cylindrical roll as an elongate film; wherein the polymer that flowed into the nanoholes forms the array of nanofibers on a surface of the elongate film. providing a first cylindrical roll with an array of nanoholes formed in a circumferential surface thereof; providing a source of flowable polymer; rotating the first cylindrical roll; applying the flowable polymer to the rotating first cylindrical roll at a first angular location so that the flowable polymer coats at least a portion of the circumferential surface of the rotating first cylindrical roll and flows into at least a portion of the nanoholes; cooling the flowable polymer while rotating the coated first cylindrical roll to a second angular position; and removing the cooled polymer coated on the first cylindrical roll from the first cylindrical roll as an elongate film; wherein the polymer that flowed into the nanoholes forms the array of nanofibers on a surface of the elongate film.