mhurhangee/ep-ind-claims huggingface dataset:
A method of updating tap weights in a digital pre-distorter, DPD, the DPD configured to compensate for a non-linear operation of a power amplifier, the method comprising: computing an average power of each input to a plurality of tap weight calculators over a plurality of samples; computing an approximate logarithm of the average power of each input; and modulating a step size of an adaptation process to update each tap weight, the step size being modulated based on the approximate logarithm of the average power of the input. computing an average power of each input to a plurality of tap weight calculators over a plurality of samples; computing an approximate logarithm of the average power of each input; and modulating a step size of an adaptation process to update each tap weight, the step size being modulated based on the approximate logarithm of the average power of the input.
Upending system for an elongated tubular element like an offshore foundation pile or a turbine mast, the system comprising; - a pile frame for supporting a elongated tubular element, the pile frame comprising a pile support member for engaging a pile wall in order to avoid movement of the elongated tubular element with respect to the pile frame, and a coupling section, - a support structure for supporting the pile frame, wherein the coupling section is rotatably supported by the support structure to allow rotation of the pile frame with respect to the support structure, characterized in that the support structure and the coupling section of the pile frame are configured such that the pile frame is detachably coupled to the support structure. - a pile frame for supporting a elongated tubular element, the pile frame comprising a pile support member for engaging a pile wall in order to avoid movement of the elongated tubular element with respect to the pile frame, and a coupling section, - a support structure for supporting the pile frame, wherein the coupling section is rotatably supported by the support structure to allow rotation of the pile frame with respect to the support structure,
A compound with the formula or a pharmaceutically acceptable salt thereof for use in treating, reducing the risk of developing or preventing a disorder associated with neovascularization and/or inflammation, wherein the disease associated with inflammation is selected from vasculitis, nephritis, diabetic vasculopathy, diabetic nephropathy, diabetic retinopathy, renal fibrosis, tumor necrosis factor receptor associated periodic syndrome (TRAPS), Graft rejection in transplantation, liver diseases, pancreatitis, atherosclerosis, pulmonary fibrosis, chronic obstructive pulmonary disease, adult respiratory distress syndrome, auto-inflammatory diseases, familial Mediterranean fever; and wherein the disease associated with neovascularization and/or inflammation is an ophthalmological disorder associated with retinal or choroidal neovascularization and/or an ophthalmological disorder associated with inflammation; preferably the ophthalmological disorder associated with neovascularization is age-related macular degeneration, neovascular (wet) AMD, or atrophic (dry) AMD retinopathy, preferably retinopathy of prematurity; diabetic retinopathy; diabetic proliferative retinopathy, retinal vein occlusion; branch retinal vein occlusion, central retinal vein occlusion; or Stargardt's disease. or a pharmaceutically acceptable salt thereof for use in treating, reducing the risk of developing or preventing a disorder associated with neovascularization and/or inflammation, wherein the disease associated with inflammation is selected from vasculitis, nephritis, diabetic vasculopathy, diabetic nephropathy, diabetic retinopathy, renal fibrosis, tumor necrosis factor receptor associated periodic syndrome (TRAPS), Graft rejection in transplantation, liver diseases, pancreatitis, atherosclerosis, pulmonary fibrosis, chronic obstructive pulmonary disease, adult respiratory distress syndrome, auto-inflammatory diseases, familial Mediterranean fever; and wherein the disease associated with neovascularization and/or inflammation is an ophthalmological disorder associated with retinal or choroidal neovascularization and/or an ophthalmological disorder associated with inflammation; preferably the ophthalmological disorder associated with neovascularization is age-related macular degeneration, neovascular (wet) AMD, or atrophic (dry) AMD retinopathy, preferably retinopathy of prematurity; diabetic retinopathy; diabetic proliferative retinopathy, retinal vein occlusion; branch retinal vein occlusion, central retinal vein occlusion; or Stargardt's disease.
An arrangement (10, 300) for administering a selected dosage of insulin or other drugs from a cartridge (20, 320) by advancing a plug (24, 324) displaceably guided in said cartridge, comprising rotatable or revolving components for adjusting the dosage and a sensor arrangement for contactless sensing of the adjusted dosage, as well as (a) magnets (440, 442, 444, 446, 448, 450) on one of the revolving or rotating components for adjusting the dosage, (b) magnetic sensors (397, 398) for detecting a rotational movement of the magnets and (c) evaluation and/or display means for evaluating and/or displaying a dosage corresponding to the detected movement, which has been determined from the detected rotational movement, characterized in that the magnets and magnetic sensors are configured and arranged such that with each rotation of the revolving or rotating components for adjusting the dosage by 60°, the orientation of the magnetic fields detected by the magnetic sensors is reversed. (a) magnets (440, 442, 444, 446, 448, 450) on one of the revolving or rotating components for adjusting the dosage, (b) magnetic sensors (397, 398) for detecting a rotational movement of the magnets and (c) evaluation and/or display means for evaluating and/or displaying a dosage corresponding to the detected movement, which has been determined from the detected rotational movement,
An electromagnetic relay comprising: a coil for generating an electromagnetic force when energized; a movable member (22, 25, 26) capable of being attracted by the electromagnetic force of the coil; two fixed contact retainers (16a, 16b) having fixed contacts (17a, 17b); a plate-like movable element having a first movable contact and a second movable contact capable of contacting the fixed contacts (17a, 17b) and separating from the fixed contacts (17a, 17b); a contact pressure spring for biasing the movable element in a direction for bringing the fixed contacts (17a, 17b) and the first and second movable contacts (29a, 29b) into contact with each other; and a first and second permanent magnet (30a, 30b) arranged to be lateral to an outer periphery of a movable contact intermediate portion of the movable element positioned between the first movable contact and the second movable contact, wherein when the movable member (22, 25, 26) is attracted by the electromagnetic force of the coil, the movable member (22, 25, 26) moves in a direction for separating from the movable element and the fixed contacts (17a,17b) contact the first movable contact and the second movable contact because the contact pressure spring biases the movable element, a south pole of the second permanent magnet is positioned on the movable element side, and the north pole of the same is positioned on a side opposite to the movable element, and a current I flowing through the movable element flows substantially linearly from the first movable contact to the second movable contact, so that a line connecting the north pole and the south pole of the first and second permanent magnets (30a, 30b) is perpendicular to the flow direction of the current I characterized in that the movable contact intermediate portion of the movable element is sandwiched between the first and second permanent magnets (30a, 30b) while the first movable contact and the second movable contact are not sandwiched between the first and second permanent magnets (30a, 30b), and a Lorentz force acting on the movable element is directed in a direction for bringing the fixed contacts (17a, 17b) and the first and second movable contacts (29a, 29b) into contact with each other. a coil for generating an electromagnetic force when energized; a movable member (22, 25, 26) capable of being attracted by the electromagnetic force of the coil; two fixed contact retainers (16a, 16b) having fixed contacts (17a, 17b); a plate-like movable element having a first movable contact and a second movable contact capable of contacting the fixed contacts (17a, 17b) and separating from the fixed contacts (17a, 17b); a contact pressure spring for biasing the movable element in a direction for bringing the fixed contacts (17a, 17b) and the first and second movable contacts (29a, 29b) into contact with each other; and a first and second permanent magnet (30a, 30b) arranged to be lateral to an outer periphery of a movable contact intermediate portion of the movable element positioned between the first movable contact and the second movable contact, wherein
A radar apparatus for detecting multipath signal propagation when determining an elevation angle of an object, comprising an antenna array with which the radar apparatus is arranged: to form at least three separate antenna beams (11, 12, 13) comprising a first antenna beam having an angle of elevation above horizontal, and a separate second antenna beam having an angle of elevation at or above horizontal which is less than that of the first antenna beam, and a separate third antenna beam having an angle of elevation below horizontal; wherein the apparatus is arranged to transmit radio pulses from the antenna array; to receive return radio signals within the first, second and third antenna beams (11, 12, 13); to calculate a measure of the magnitude of a return radio signal received within the third antenna beam using all of said received radio signals collectively; and, to detect multipath signal propagation using said measure. to form at least three separate antenna beams (11, 12, 13) comprising a first antenna beam having an angle of elevation above horizontal, and a separate second antenna beam having an angle of elevation at or above horizontal which is less than that of the first antenna beam, and a separate third antenna beam having an angle of elevation below horizontal; wherein the apparatus is arranged to transmit radio pulses from the antenna array; to receive return radio signals within the first, second and third antenna beams (11, 12, 13); to calculate a measure of the magnitude of a return radio signal received within the third antenna beam using all of said received radio signals collectively; and, to detect multipath signal propagation using said measure.
Method for preparing an injection device for an optical fibre, characterised by the fact that it comprises the steps consisting of:. cutting in a bevel one end of an auxiliary multimode optical fibre polished at an end at an angle of approximately 1° to 20°, and. placing and fixing this bevelled end of the auxiliary fibre, on the edge of the multimode section of a main fibre having a numerical aperture larger than the numerical aperture of the auxiliary fibre, said main fibre having a core surrounded by a multimode section itself surrounded by a low-index sheath and an external mechanical sheath, the auxiliary initiation fibre being fixed to the main fibre, by fusion after local removal of the low-index sheath and the external mechanical sheath of the main fibre and after having placed a glass having a low Tg at the fusion zone between the auxiliary fibre and the main fibre in order to prevent deformation of the auxiliary fibre during fusion.. cutting in a bevel one end of an auxiliary multimode optical fibre polished at an end at an angle of approximately 1° to 20°, and. placing and fixing this bevelled end of the auxiliary fibre, on the edge of the multimode section of a main fibre having a numerical aperture larger than the numerical aperture of the auxiliary fibre, said main fibre having a core surrounded by a multimode section itself surrounded by a low-index sheath and an external mechanical sheath, the auxiliary initiation fibre being fixed to the main fibre, by fusion after local removal of the low-index sheath and the external mechanical sheath of the main fibre and after having placed a glass having a low Tg at the fusion zone between the auxiliary fibre and the main fibre in order to prevent deformation of the auxiliary fibre during fusion.
A propeller comprising at least one propeller cylindrical casing, a hub, adapted to be coupled to an engine, and mounted inside said propeller cylindrical casing, and at least one blade rotatable pivoted to said propeller cylindrical casing, said hub being rotatable with respect to said propeller cylindrical casing, or vice versa, for at least one non-zero angular interval (α) for the adjustment of the fluid-dynamic pitch of said at least one blade, said hub comprising at least one contact surface (20, 21) movable between at least one direct or indirect disengagement position, and at least one direct or indirect engagement position with at least one relative limit stop abutment of said at least one angular interval (α), said limit stop abutment comprising at least one region of at least one movable element arranged in at least one seat of said propeller cylindrical casing for the modification of the position of said limit stop abutment of said at least one angular interval (α), wherein said at least one movable element is at least partially threaded to be installed in said at least one seat comprising at least one threaded portion, the rotation with the consequent axial displacement of said threaded movable element in said at least one threaded seat modifying the position of said limit stop abutment of said at least one angular interval (α), said propeller being characterized in that it comprises means (51, 52) for adjusting the position of said at least one movable element, in one or more discrete intervals, for modifying the position of said at least one limit stop abutment of said at least one angular interval (α), wherein said adjustment means (51, 52) of the position in one or more discrete intervals of said at least one movable element comprise at least one groove provided on at least part of the surface of said at least one movable element and at least one block element which engages at least partially with said at least one groove of said movable element and at least partially with said propeller cylindrical casing.
An instrument tracking device for cooperating with an instrument during a surgical procedure, the instrument having an elongated housing extending along a first longitudinal axis and including a working member at a distal tip, the instrument tracking device comprising: a body having a distal end and a proximal end, the body forming an opening through the body along a second longitudinal axis, the opening defining a passthrough in the body from the distal end to the proximal end; a first tracking coil disposed in the body and defining a first tracking coil axis that is substantially coaxial with the second longitudinal axis, the first tracking coil generating a first output signal indicative of a position of the working member; and a connection mechanism configured to cooperate between the elongated housing and the body to secure the body to the elongated housing of the instrument upon passing at least a portion of the elongated housing through the passthrough of the body in an assembled position, wherein the first and second longitudinal axes are collinear in the assembled position. a body having a distal end and a proximal end, the body forming an opening through the body along a second longitudinal axis, the opening defining a passthrough in the body from the distal end to the proximal end; a first tracking coil disposed in the body and defining a first tracking coil axis that is substantially coaxial with the second longitudinal axis, the first tracking coil generating a first output signal indicative of a position of the working member; and a connection mechanism configured to cooperate between the elongated housing and the body to secure the body to the elongated housing of the instrument upon passing at least a portion of the elongated housing through the passthrough of the body in an assembled position, wherein the first and second longitudinal axes are collinear in the assembled position.
An atherectomy catheter device, the device comprising: an elongate body; a hollow distal tip extending from a distal end of the elongate body configured to be aligned with the elongate body or angled relative to the elongate body; a drive shaft extending proximally to distally within the elongate body; a bushing coupled to the hollow distal tip, the bushing having a hinge point connected to one side of the elongate body, an inner flange positioned distal to the hinge point, a first channel therethrough and a second channel extending at an angle relative to and overlapping with the first channel; and a cutting and optical coherence tomography imaging assembly (103, 192) coupled to the drive shaft, the cutting and imaging assembly having a distal cutting edge and a neck region that passes through the bushing, wherein the neck region sits within the first channel when the hollow distal tip is aligned with the elongate body and through the second channel when the hollow distal tip is angled relative to the elongate body, characterized in that the inner flange extends radially inwards and the neck region is tapered such that distal movement of the drive shaft within the bushing causes the radially extending inner flange to move along the tapered neck region of the cutting and imaging assembly, rotating the hollow distal tip and bushing about the hinge point and axially aligning the hollow distal tip with the elongate body to at least partially cover the distal cutting edge. an elongate body; a hollow distal tip extending from a distal end of the elongate body configured to be aligned with the elongate body or angled relative to the elongate body; a drive shaft extending proximally to distally within the elongate body; a bushing coupled to the hollow distal tip, the bushing having a hinge point connected to one side of the elongate body, an inner flange positioned distal to the hinge point, a first channel therethrough and a second channel extending at an angle relative to and overlapping with the first channel; and a cutting and optical coherence tomography imaging assembly (103, 192) coupled to the drive shaft, the cutting and imaging assembly having a distal cutting edge and a neck region that passes through the bushing, wherein the neck region sits within the first channel when the hollow distal tip is aligned with the elongate body and through the second channel when the hollow distal tip is angled relative to the elongate body, characterized in that the inner flange extends radially inwards and the neck region is tapered such that distal movement of the drive shaft within the bushing causes the radially extending inner flange to move along the tapered neck region of the cutting and imaging assembly, rotating the hollow distal tip and bushing about the hinge point and axially aligning the hollow distal tip with the elongate body to at least partially cover the distal cutting edge.
A system for automatically adapting a graphical user interface, GUI, of a device, the GUI comprising one or more interactive elements and non-interactive elements, the system comprising: a sensor component configured to collect data regarding physical interaction with the device and to generate a sensor code based on the collected data, the collected data representing a position and a size of a first interacting object contacting the device and a spatial orientation of a second interacting object surrounding the device without touching the device, the spatial orientation being detected by spatial sensors comprised by the sensor component; a database configured to store the generated sensor code, the database serving as a look-up table for correlating the generated sensor code with a corresponding physical contact parameter, the physical contact parameter relating to a particular manner of operating the device; and an adaptation component (103; 702) configured to match the generated sensor code with the respective physical contact parameter retrieved from the database, to analyze the physical contact parameter and to modify the graphical user interface as a function of the physical contact parameter to optimize the interaction with the device, wherein the modifying the graphical user interface comprises modifying an arrangement of at least one of the one or more interactive elements or the non-interactive elements of the GUI; and wherein the physical contact parameter encompasses a distance of the second interacting object from the device. a sensor component configured to collect data regarding physical interaction with the device and to generate a sensor code based on the collected data, the collected data representing a position and a size of a first interacting object contacting the device and a spatial orientation of a second interacting object surrounding the device without touching the device, the spatial orientation being detected by spatial sensors comprised by the sensor component; a database configured to store the generated sensor code, the database serving as a look-up table for correlating the generated sensor code with a corresponding physical contact parameter, the physical contact parameter relating to a particular manner of operating the device; and an adaptation component (103; 702) configured to match the generated sensor code with the respective physical contact parameter retrieved from the database, to analyze the physical contact parameter and to modify the graphical user interface as a function of the physical contact parameter to optimize the interaction with the device, wherein the modifying the graphical user interface comprises modifying an arrangement of at least one of the one or more interactive elements or the non-interactive elements of the GUI; and wherein the physical contact parameter encompasses a distance of the second interacting object from the device.
An adapter for connecting a ventilation hose to a ventilator, the ventilation hose comprising at least a hose inhalation conduit, the adapter comprising an adapter inhalation conduit having a first end arranged for connection to the hose inhalation conduit of the ventilation hose and a second end arranged for connection to an inhalation gas supply of the ventilator; and an adapter exhalation conduit having a first end arranged for connection to a hose exhalation conduit and a second end openable to atmosphere; and means for closing the second end for providing a positive end expiration pressure; characterized by the adapter exhalation conduit comprising a flow sensor for providing a signal representing a flow of fluid arriving via the first end of the adapter exhalation conduit.
A method of wireless communication performed by a user equipment, UE, the method comprising: receiving from a network channel quality indicator, CQI, requirements for reporting a CQI; determining whether the CQI is to be reported periodically based on the CQI requirements; and scheduling a discontinuous reception, DRX, wake-up time based on the determination and adaptively shorten the UE awake duration when reporting the CQI is not required at a first subframe of a DRX on-duration. receiving from a network channel quality indicator, CQI, requirements for reporting a CQI; determining whether the CQI is to be reported periodically based on the CQI requirements; and scheduling a discontinuous reception, DRX, wake-up time based on the determination and adaptively shorten the UE awake duration when reporting the CQI is not required at a first subframe of a DRX on-duration.