mhurhangee/patent-ind-claim-en huggingface dataset:
Component carrier , wherein the component carrier comprises: a stack comprising at least one electrically conductive layer structure and at least one electrically insulating layer structure ; a semiconductor component embedded in the stack ; characterised by a highly conductive block provided with a sinter connection structure on one main surface of the highly conductive block , wherein the highly conductive block is an electrically highly conductive block with an electrical conductivity at 20°C of at least 5·10 6 S/m and/or a thermally highly conductive block with a thermal conductivity of at least 50 W/mK; the highly conductive block is embedded in the stack and inserted into a cavity , a bottom of which is delimited by the electrically conductive layer structure , and the sinter connection structure of the highly conductive block is connected to the electrically conductive layer structure delimiting the bottom of the cavity so that the highly conductive block is thermally coupled with the semiconductor component via the electrically conductive layer structure in between. a stack comprising at least one electrically conductive layer structure and at least one electrically insulating layer structure ; a semiconductor component embedded in the stack ; characterised by a highly conductive block provided with a sinter connection structure on one main surface of the highly conductive block , wherein the highly conductive block is an electrically highly conductive block with an electrical conductivity at 20°C of at least 5·10 6 S/m and/or a thermally highly conductive block with a thermal conductivity of at least 50 W/mK; the highly conductive block is embedded in the stack and inserted into a cavity , a bottom of which is delimited by the electrically conductive layer structure , and the sinter connection structure of the highly conductive block is connected to the electrically conductive layer structure delimiting the bottom of the cavity so that the highly conductive block is thermally coupled with the semiconductor component via the electrically conductive layer structure in between.
A method of transmitting from a user equipment, UE with semi persistent scheduling, SPS, comprising: receiving , by the UE from a network entity , an SPS configuration for the UE, wherein the SPS configuration includes a SPS-radio network temporary identifier, SPS-RNTI and a periodicity; receiving , by the UE from the network entity, allocation information for the UE based at least on the SPS-RNTI, wherein the allocation information includes a subcarrier spacing configuration; and transmitting , from the UE to the network entity, based at least on the subcarrier spacing configuration. receiving , by the UE from a network entity , an SPS configuration for the UE, wherein the SPS configuration includes a SPS-radio network temporary identifier, SPS-RNTI and a periodicity; receiving , by the UE from the network entity, allocation information for the UE based at least on the SPS-RNTI, wherein the allocation information includes a subcarrier spacing configuration; and transmitting , from the UE to the network entity, based at least on the subcarrier spacing configuration.
An assembly for sealing a junction of a manhole and a pipe comprising: a pipe liner ; wherein the assembly further comprises: a first tubular sleeve having a proximal end , a distal end , a tubular body , an initial tubular conformation with an outer diameter (D1, D2) approximately equal to the pipe diameter, and a strained conformation wherein the tubular body is folded over itself such that the outer diameter is reduced to fit into the pipe; the first tubular sleeve comprising a hydrophilic material; an adhesive on at least a portion of an outer wall of the first tubular sleeve ; and the pipe liner positioned within the first tubular sleeve and extending generally greater than the tubular body . a pipe liner ; wherein the assembly further comprises: a first tubular sleeve having a proximal end , a distal end , a tubular body , an initial tubular conformation with an outer diameter (D1, D2) approximately equal to the pipe diameter, and a strained conformation wherein the tubular body is folded over itself such that the outer diameter is reduced to fit into the pipe; the first tubular sleeve comprising a hydrophilic material; an adhesive on at least a portion of an outer wall of the first tubular sleeve ; and the pipe liner positioned within the first tubular sleeve and a first tubular sleeve having a proximal end , a distal end , a tubular body , an initial tubular conformation with an outer diameter (D1, D2) approximately equal to the pipe diameter, and a strained conformation wherein the tubular body is folded over itself such that the outer diameter is reduced to fit into the pipe; the first tubular sleeve comprising a hydrophilic material; an adhesive on at least a portion of an outer wall of the first tubular sleeve ; and the pipe liner positioned within the first tubular sleeve and extending generally greater than the tubular body .
Arrangement to cool a coil , comprising an enclosure , which at least partially incorporates or houses the coil , and a device to create an airflow to cool the coil , wherein the coil comprises at least one cooling channel to guide the airflow through the windings of the coil and an outer air duct lying radially inside an outer part of the coil, wherein an air guidance plate is placed at a lower part of the outer air duct and of the coil to prevent bypasses of the airflow and/ or to block at least partially the airflow through and/or along the outer air duct , and characterized in that a barrier overhang of the lower part of the coil is shortened in an axial direction of the coil with respect to a barrier overhang of the lower part of the coil that lies radially inside the outer air duct to place the air guidance plate .
A method implemented in a master node of controlling a transmission timing for a plurality of slave nodes in a communication network, the method comprising: determining a skew timing ( T skew ) from a difference between a second delay ( T second ) and a first delay ( T first ), wherein the first delay ( T first ) represents a transmission time between the master node and a first slave node , and wherein the second delay (T second ) represents a transmission time between the master node and a second slave node ; determining an initial timing error ( x init ) from a difference between a reference skew timing T skew ref and the skew timing ( T skew ); applying a deadzone mapping to the initial timing error ( x init ) to determine a final timing error ( x final ), wherein the deadzone mapping is configured to adjust the initial timing error ( x init ) responsive to a comparison between the initial timing error ( x init ) and a timing error range, said timing error range including an upper limit ( u max ) and a lower limit ( u min ) used to bound the timing error range; and controlling the first delay ( T first ) and the second delay ( T second ) using the final timing error ( x final ) to keep the skew timing ( T skew ) within the timing error range. determining a skew timing ( T skew ) from a difference between a second delay ( T second ) and a first delay ( T first ), wherein the first delay ( T first ) represents a transmission time between the master node and a first slave node , and wherein the second delay (T second ) represents a transmission time between the master node and a second slave node ; determining an initial timing error ( x init ) from a difference between a reference skew timing T skew ref and the skew timing ( T skew ); applying a deadzone mapping to the initial timing error ( x init ) to determine a final timing error ( x final ), wherein the deadzone mapping is configured to adjust the initial timing error ( x init ) responsive to a comparison between the initial timing error ( x init ) and a timing error range, said timing error range including an upper limit ( u max ) and a lower limit ( u min ) used to bound the timing error range; and controlling the first delay ( T first ) and the second delay ( T second ) using the final timing error ( x final ) to keep the skew timing ( T skew ) within the timing error range.
Tetrahydrobiopterin (BH4) or a pharmaceutically acceptable salt thereof for use in treating conditions associated with elevated phenylalanine levels wherein the BH4 or salt thereof is for oral administration once a day 5 to 60 minutes after a meal and wherein the condition is selected from the group consisting of mild phenylketonuria (PKU), classic PKU and hyperphenylalaninemia.
A suction instrument for providing suction at a site within a patient comprising: (a) a cannula assembly comprising: (i) a proximal end, (ii) a distal end, (iii) a suction lumen extending from the proximal end to the distal end, wherein the cannula is formed of a rigid material; and (b) a sensor assembly comprising: (i) a position sensor fixed relative to the cannula assembly on a portion of the cannula assembly exterior to the suction lumen, and (ii) a communication wire in electrical communication with the sensor, wherein the communication wire extends along a length of the cannula assembly exterior to the suction lumen. (a) a cannula assembly comprising: (i) a proximal end, (ii) a distal end, (iii) a suction lumen extending from the proximal end to the distal end, wherein the cannula is formed of a rigid material; and (i) a proximal end, (ii) a distal end, (iii) a suction lumen extending from the proximal end to the distal end, wherein the cannula is formed of a rigid material; and (b) a sensor assembly comprising: (i) a position sensor fixed relative to the cannula assembly on a portion of the cannula assembly exterior to the suction lumen, and (ii) a communication wire in electrical communication with the sensor, wherein the communication wire extends along a length of the cannula assembly exterior to the suction lumen. (i) a position sensor fixed relative to the cannula assembly on a portion of the cannula assembly exterior to the suction lumen, and (ii) a communication wire in electrical communication with the sensor, wherein the communication wire extends along a length of the cannula assembly exterior to the suction lumen.
A method for disabling and enabling a feature of a tracking device , said method being performed by a system comprising the tracking device , a tracking server , a first mobile device and a second mobile device , said method comprising: receiving, by the tracking server , an instruction from the first mobile device to disable the feature of the tracking device , the tracking device associated with the first mobile device and configured to be remotely controlled by the first mobile device via the tracking server ; receiving, by the second mobile device , a tracking signal from the tracking device ; receiving, by the tracking server , a notification from the second mobile device that the second mobile device is within a communication range of the tracking device ; in response to receiving the instruction to disable the feature of the tracking device and the notification that the second mobile device is within a communication range of the tracking device , transmitting, by the tracking server to the second mobile device , the instruction for the tracking device to disable the feature; providing, by the second mobile device , the instruction to the tracking device ; in response to receiving the instruction, disabling, by the tracking device , the feature of the tracking device ; when the first mobile device is within the communication range of the tracking device , automatically transmitting, by the first mobile device to the tracking device , a second instruction to re-enable the feature; and enabling, by the tracking device , the feature according to the second instruction. receiving, by the tracking server , an instruction from the first mobile device to disable the feature of the tracking device , the tracking device associated with the first mobile device and configured to be remotely controlled by the first mobile device via the tracking server ; receiving, by the second mobile device , a tracking signal from the tracking device ; receiving, by the tracking server , a notification from the second mobile device that the second mobile device is within a communication range of the tracking device ; in response to receiving the instruction to disable the feature of the tracking device and the notification that the second mobile device is within a communication range of the tracking device , transmitting, by the tracking server to the second mobile device , the instruction for the tracking device to disable the feature; providing, by the second mobile device , the instruction to the tracking device ; in response to receiving the instruction, disabling, by the tracking device , the feature of the tracking device ; when the first mobile device is within the communication range of the tracking device , automatically transmitting, by the first mobile device to the tracking device , a second instruction to re-enable the feature; and enabling, by the tracking device , the feature according to the second instruction.
An in vitro method for the analysis of a patient's endometrial receptivity comprising the following steps a. assessing the expression levels of the NALP-3 and Thrombomodulin (TM) proteins with the same analytical method, in an endometrial biopsy sample and/or in an endometrial fluid sample and/or in a menstrual blood sample of said patient B. calculating the ratio between the expression level of the NALP-3 and TM proteins [NALP-3 expression/TM expression] wherein, when said value is greater than 1, it is a marker of inflammatory alteration of the endometrium of said patient and of an altered endometrial receptivity with respect to a healthy endometrium. a. assessing the expression levels of the NALP-3 and Thrombomodulin (TM) proteins with the same analytical method, in an endometrial biopsy sample and/or in an endometrial fluid sample and/or in a menstrual blood sample of said patient B. calculating the ratio between the expression level of the NALP-3 and TM proteins [NALP-3 expression/TM expression] wherein, when said value is greater than 1, it is a marker of inflammatory alteration of the endometrium of said patient and of an altered endometrial receptivity with respect to a healthy endometrium.
An ultraviolet (UV) polymerization reactor for microencapsulation of phase change material (PCM), comprising: a collection tank having a mechanical stirrer and a thermocouple disposed therein, the tank being adapted to receive a phase change material in an emulsion; a magnetic pump; a flow distributor; an enclosed thin-film quartz reactor disposed above the tank, the magnetic pump is configured to recirculate the emulsion from the tank through the flow distributor and onto the reactor so that the emulsion falls from the reactor in a thin film and into the tank; and a plurality of UV lamps positioned around the enclosed thin-film reactor for providing UV light for initiating and continuing polymerization of monomers in the thin film emulsion in order to microencapsulate the PCM in polymer shells. a collection tank having a mechanical stirrer and a thermocouple disposed therein, the tank being adapted to receive a phase change material in an emulsion; a magnetic pump; a flow distributor; an enclosed thin-film quartz reactor disposed above the tank, the magnetic pump is configured to recirculate the emulsion from the tank through the flow distributor and onto the reactor so that the emulsion falls from the reactor in a thin film and into the tank; and a plurality of UV lamps positioned around the enclosed thin-film reactor for providing UV light for initiating and continuing polymerization of monomers in the thin film emulsion in order to microencapsulate the PCM in polymer shells.
A driver circuit for driving a load, the driver circuit comprising: a gate driver (114A-C) for providing an associated control signal to each of one or more switching elements coupled to the driver circuit, a first one of the switching elements coupled between a high supply voltage and a switching node of the load, and a second one of the switching elements coupled between the switching node and a low supply voltage; and a zero crossing detector characterized in that the zero crossing detector is configured to detect a zero crossing of a signal of the one or more switching elements and the load, the zero crossing detector comprising: a first counter coupled to the switching node, wherein the first counter is configured to count in a predetermined direction based on a detected voltage of the switching node; a second counter coupled to one of the control signals, wherein the second counter is configured to count in a predetermined direction based on a detected voltage of the control signal; wherein the zero crossing detector is configured to generate a difference between a count value of the first counter and a count value of the second counter, wherein the zero crossing detector is configured to generate a zero crossing output signal based, at least in part, upon the difference. a gate driver (114A-C) for providing an associated control signal to each of one or more switching elements coupled to the driver circuit, a first one of the switching elements coupled between a high supply voltage and a switching node of the load, and a second one of the switching elements coupled between the switching node and a low supply voltage; and a zero crossing detector characterized in that the zero crossing detector is configured to detect a zero crossing of a signal of the one or more switching elements and the load, the zero crossing detector comprising: a first counter coupled to the switching node, wherein the first counter is configured to count in a predetermined direction based on a detected voltage of the switching node; a second counter coupled to one of the control signals, wherein the second counter is configured to count in a predetermined direction based on a detected voltage of the control signal; wherein the zero crossing detector is configured to generate a difference between a count value of the first counter and a count value of the second counter, wherein the zero crossing detector is configured to generate a zero crossing output signal based, at least in part, upon the difference. a first counter coupled to the switching node, wherein the first counter is configured to count in a predetermined direction based on a detected voltage of the switching node; a second counter coupled to one of the control signals, wherein the second counter is configured to count in a predetermined direction based on a detected voltage of the control signal; wherein the zero crossing detector is configured to generate a difference between a count value of the first counter and a count value of the second counter, wherein the zero crossing detector is configured to generate a zero crossing output signal based, at least in part, upon the difference.
Rotary electrical machine comprising a rotor provided with a body having an axis (X), the rotor body comprising a plurality of longitudinal cavities arranged to each receive at least one permanent magnet , - magnetic poles each formed by the permanent magnets housed in two adjacent cavities forming a V in a plane (P) orthogonal to the axis (X) of the rotor body , - the rotor comprising at least one part for holding the permanent magnets in the cavities , - the holding part comprises two elongate strips , each strip comprising at least one boss designed to apply a force (F1) for holding the corresponding permanent magnet in the cavity , characterized in that the holding part further comprises at least two connecting arms between the two strips , the boss extending axially between the two connecting arms. - magnetic poles each formed by the permanent magnets housed in two adjacent cavities forming a V in a plane (P) orthogonal to the axis (X) of the rotor body , - the rotor comprising at least one part for holding the permanent magnets in the cavities , - the holding part comprises two elongate strips , each strip comprising at least one boss designed to apply a force (F1) for holding the corresponding permanent magnet in the cavity ,
An insert for a sole assembly comprising a foam material, the foam material comprising a reaction product of 10 to 100 phr hydrogenated or nonhydrogenated acrylonitrile butadiene copolymer, 5 to 40 phr modified hydrogenated acrylonitrile butadiene copolymer, and 10 to 90 phr alpha olefin copolymer, and a blowing agent in an amount suitable to form the foam material; wherein the modified hydrogenated acrylonitrile butadiene copolymer is modified with zinc oxide, zinc diacrylate, or both; wherein the density of the foam material is less than 0.25 g/cm 3 ; and wherein the alpha olefin copolymer is a copolymer of ethylene and octene-1. wherein the modified hydrogenated acrylonitrile butadiene copolymer is modified with zinc oxide, zinc diacrylate, or both; wherein the density of the foam material is less than 0.25 g/cm 3 ; and wherein the alpha olefin copolymer is a copolymer of ethylene and octene-1.
An antimicrobial composition comprising: a solution comprising hydrated copper sulfate in water; and an equimolar amount of a zinc salt in solution; a basic ammonium salt added to the solution to generate an insoluble a copper-zinc-ammonium complex; and at least one water soluble acid selected from the group consisting of sulfuric, hydrochloric, phosphoric and phosphorous acids added to the solution to solubilize the copper-zinc-ammonium complex and to control the pH of the clear blue acid-solubilized copper-zinc-ammonium solution thus formed. a solution comprising hydrated copper sulfate in water; and an equimolar amount of a zinc salt in solution; a basic ammonium salt added to the solution to generate an insoluble a copper-zinc-ammonium complex; and at least one water soluble acid selected from the group consisting of sulfuric, hydrochloric, phosphoric and phosphorous acids added to the solution to solubilize the copper-zinc-ammonium complex and to control the pH of the clear blue acid-solubilized copper-zinc-ammonium solution thus formed.
A dual lumen drainage cannula configured for use in a veno-arterial extracorporeal membrane oxygenation, VA ECMO, system, the dual lumen drainage cannula comprising: a first drainage tube having a proximal end, a distal end, and at least one aperture defined in at least one wall of the first drainage tube proximate to the distal end of the first drainage tube; a second drainage tube having a proximal end, a distal end, and at least one aperture defined in at least one wall of the second drainage tube proximate to the distal end of the second drainage tube, wherein the first drainage tube passes through the second drainage tube, and wherein the distal end of the second drainage tube is coupled to a portion of the first drainage tube between the proximal end and the distal end of the first drainage tube; characterized in that a sleeve positioned adjacent to an interior wall of the second drainage tube, wherein at least one wall of the sleeve is formed of a flexible material so as to be expandable and collapsible within the second drainage tube. a first drainage tube having a proximal end, a distal end, and at least one aperture defined in at least one wall of the first drainage tube proximate to the distal end of the first drainage tube; a second drainage tube having a proximal end, a distal end, and at least one aperture defined in at least one wall of the second drainage tube proximate to the distal end of the second drainage tube, wherein the first drainage tube passes through the second drainage tube, and wherein the distal end of the second drainage tube is coupled to a portion of the first drainage tube between the proximal end and the distal end of the first drainage tube; characterized in that a sleeve positioned adjacent to an interior wall of the second drainage tube, wherein at least one wall of the sleeve is formed of a flexible material so as to be expandable and collapsible within the second drainage tube.