mhurhangee/ep-ind-claims huggingface dataset:
A radio frequency electronic circuit, including: (a) a phase shifter circuit configured for modifying the phase of an applied radio frequency signal in response to applied phase state digital control words selecting a phase state from a discrete set of phase states; and (b) a fine adjustment circuit (304, 804) series coupled to the phase shifter circuit and configured to substantially equalize insertion loss variations between phase states selected by the applied phase state digital control words, characterized in that the fine adjustment circuit includes a plurality of selectable adjustment attenuator circuits configured for providing selectable attenuation adjustment of the phase-modified applied radio frequency signal as a function of the applied phase state digital control words. (a) a phase shifter circuit configured for modifying the phase of an applied radio frequency signal in response to applied phase state digital control words selecting a phase state from a discrete set of phase states; and (b) a fine adjustment circuit (304, 804) series coupled to the phase shifter circuit and configured to substantially equalize insertion loss variations between phase states selected by the applied phase state digital control words,
A system for optimizing a patient's basal insulin dosage regimen over time, comprising: - a blood glucose meter (110, 210) for receiving a patient blood sample and generating a blood glucose data set corresponding to a blood glucose value of the patient blood sample, - detecting means for detecting when a patient-actuated operation is performed, the operation being indicative of the administration of a dose of an insulin containing drug, - memory means adapted to receive (a) blood glucose data sets corresponding to a plurality of blood glucose values as a function of time, (b) data representing detected patient-actuated operations as a function of time, and (c) data representing an initial basal insulin dosage regimen, - a processor operatively connected to the memory means, the processor being programmed to determine from the blood glucose data sets determined at a plurality of times whether and by how much to vary a component in the patient's present insulin dosage regimen in order to maintain the patient's future blood-glucose-level measurements within a predefined range, and - output means for communicating to the patient a component in the patient's insulin dosage regimen, characterized in that a given blood glucose data set can then be disregarded by the processor if no patient-actuated operation has been detected in a pre-defined amount of time prior to the generation of the given data set. - a blood glucose meter (110, 210) for receiving a patient blood sample and generating a blood glucose data set corresponding to a blood glucose value of the patient blood sample, - detecting means for detecting when a patient-actuated operation is performed, the operation being indicative of the administration of a dose of an insulin containing drug, - memory means adapted to receive (a) blood glucose data sets corresponding to a plurality of blood glucose values as a function of time, (b) data representing detected patient-actuated operations as a function of time, and (c) data representing an initial basal insulin dosage regimen, - a processor operatively connected to the memory means, the processor being programmed to determine from the blood glucose data sets determined at a plurality of times whether and by how much to vary a component in the patient's present insulin dosage regimen in order to maintain the patient's future blood-glucose-level measurements within a predefined range, and - output means for communicating to the patient a component in the patient's insulin dosage regimen,
Isolated peptide, represented by an amino acid sequence selected from: - SEQ ID No.: 9, - a fragment thereof chosen from the sequences SEQ ID No.: 10, SEQ ID No.: 11, SEQ. ID No.; 12, SEQ ID No.; 13, SEQ ID No.: 14 and SEQ ID No.: 15, or - a homolog thereof having a sequence identity of at least 85% and capable of binding by affinity to an amino acid sequence derived from an SASPase. - SEQ ID No.: 9, - a fragment thereof chosen from the sequences SEQ ID No.: 10, SEQ ID No.: 11, SEQ. ID No.; 12, SEQ ID No.; 13, SEQ ID No.: 14 and SEQ ID No.: 15, or - a homolog thereof having a sequence identity of at least 85% and capable of binding by affinity to an amino acid sequence derived from an SASPase.
An optical position encoder, comprising: a scale having multiple tracks separated in a direction perpendicular to travel, the tracks including an incremental track and an absolute track, the scale interacting with an incident first light beam to generate a second light beam having components carrying respective optical patterns produced by the incremental track and absolute track respectively; and a set of optical detectors including at least first and second detector arrays of differing properties to detect the respective optical patterns produced by the incremental track and absolute track respectively, each of the first and second detector arrays spanning multiple tracks of the scale and configured to respond to a respective detector-specific component of the second light beam more strongly than to another component of the second beam specific to another of the detector arrays, characterised by further comprising: an optic disposed between the scale and the set of optical detectors, the optic configured to filter the second light beam to i) pass predominantly a first component of the second light beam to the first detector array, and ii) pass predominantly a distinct second component of the second light beam to the second detector array. a scale having multiple tracks separated in a direction perpendicular to travel, the tracks including an incremental track and an absolute track, the scale interacting with an incident first light beam to generate a second light beam having components carrying respective optical patterns produced by the incremental track and absolute track respectively; and a set of optical detectors including at least first and second detector arrays of differing properties to detect the respective optical patterns produced by the incremental track and absolute track respectively, each of the first and second detector arrays spanning multiple tracks of the scale and configured to respond to a respective detector-specific component of the second light beam more strongly than to another component of the second beam specific to another of the detector arrays, characterised by further comprising: an optic disposed between the scale and the set of optical detectors, the optic configured to filter the second light beam to i) pass predominantly a first component of the second light beam to the first detector array, and ii) pass predominantly a distinct second component of the second light beam to the second detector array.
A layered protective structure (100, 200, 300, 400) for protective garments and equipment, comprising three layers: a first layer (101, 201, 301, 401, 501), a second layer (102, 202, 302, 402a, 402b, 602) and a third layer (103, 203, 303, 403), and the protective structure is configured to be positioned in a garment or equipment in such a way that the third layer is the nearest of said layers to the user of the garment or equipment and the first layer is the farthest of said layers from the user, and the first layer comprises a first surface of the first layer, a second surface of the first layer and a mesh structure (106, 206, 506) having a multitude of first layer holes (108, 208, 508) extending from the first surface of the first layer to the second surface of the first layer, and the second layer is a grid-like structure having a multitude of second layer bulges (213, 613) and threads (214, 614) between adjacent second layer bulges, and the second layer is more elastic than the first layer, and the third layer is configured to hold the second layer and ensure an anatomical fit for the protective structure, characterised in that at least some of the edges of the first layer holes on the mesh structure have rim structures (109, 209, 509) extending towards the third layer from the mesh structure, and between the rim structures is a free space comprising passages and enlarged areas, and the second layer is configured to fit at least partly inside the free space between the rim structures.
An aerofoil having a leading edge point within a leading edge region and a pressure surface with a profile, wherein within the leading edge region the pressure surface profile has a local minimum of curvature, and the leading edge region extends along a fraction of the pressure surface length S p from the leading edge point, the fraction is less than 0.05 of the pressure surface length.
Method for optimising the frictional locking between wheel and rail, comprising the following steps: the reading-in of measured values for variables that can be measured with a sensor system of a rail vehicle, the determination of model values for further variables from the measured values by means of a model, the determination of a condition between wheel and rail from the read-in measured values and the model values determined by means of the model, the control of a braking or driving force acting between wheel and rail, taking account of the determined condition between wheel and rail, characterised in that the wear rate between wheel and rail is determined as model value by means of a model. the reading-in of measured values for variables that can be measured with a sensor system of a rail vehicle, the determination of model values for further variables from the measured values by means of a model, the determination of a condition between wheel and rail from the read-in measured values and the model values determined by means of the model, the control of a braking or driving force acting between wheel and rail, taking account of the determined condition between wheel and rail,
Injector for use in metallurgical plants, particularly in a basic oxygen furnace, in an argon oxygen decarburisation converter or in an electric arc furnace, with a primary nozzle, which is designed as a supersonic nozzle, for blowing an oxygen-rich gas onto a metal melt and a secondary nozzle, which is arranged coaxially with respect to the primary nozzle, for producing a coaxial jet surrounding the gas jet issuing from the primary nozzle, wherein the primary nozzle has a convergent section and a divergent section which adjoin one another at a radius of the narrowest cross-section r* and wherein for the primary nozzle the ratio of a nozzle length I to the radius at the narrowest cross-section r*, thus l/r*, lies between 2.1 and 11.6, preferably between 2.1 and 8.3, more preferably between 2.1 and 5.4, even more preferably between 2.1 and 5.0, and has, in particular, a value of 11.6, 8.3, 5.4, 5.0, 4.8, 4.2, 4.1, 3.6, 3.3, 3.1 or 2.1, characterised in that the primary nozzle and the secondary nozzle are defined by the following family of nozzle shapes in the respective nozzle case thereof: Primary nozzle Secondary nozzle Pressure p 0 [bar] Volume flow V̇ 0 [Nm 3 /min] Radius at the narrowest cross-section r* [mm] Outlet radius r 1 [mm] Nozzle length l [mm] Mach number M s [-] Temperature T s Coaxial gap height H s [mm] 4 20 12.0 14.0 50 ± 20 0.5 ± 0.2 1000 ± 200 7 ± 3 4 200 39 44.0 160 ± 20 0.5 ± 0.2 1000 ± 200 7 ± 3 14 20 6 10.0 50 ± 20 0.5 ± 0.2 1000 ± 200 7 ± 3 14 200 21 33.0 160 ± 20 0.5 ± 0.2 1000 ± 200 7 ± 3
Gas turbine engine component, comprising: - a ring element (14, 27) and - a plurality of circumferentially spaced load carrying vanes extending in a radial direction of the ring element (14, 27); wherein at least one of said vanes is made of a composite material, and wherein the at least one composite vane is fastened to the ring element (14, 27), said component further comprising: - first and second wall portions (20, 32) that are fixed in relation to the ring element (14, 27) and arranged on opposite sides of the composite vane; and - at least a first hole extending thorough the first wall portion, the composite vane and the second wall portion, wherein said first hole is adapted to receive a first insertion member, characterized in that the component is arranged such as to, with regard to the first hole, provide a tight fit (65a, 65b) for the first insertion member in the first wall portion as well as in the composite vane and to provide a loose fit with a radial play in the second wall portion, wherein the component comprises a second hole extending through the first wall portion, the composite vane and the second wall portion, wherein said second hole is adapted to receive a second insertion member, said first and second holes (61, 71) being positioned at a distance from each other as seen in an axial direction of the ring element (14, 27), wherein the component further being arranged such as to, with regard to the second hole, provide a tight fit (75a, 75b) for the second insertion member in the second wall portion as well as in the composite vane and to provide a loose fit with a radial play in the first wall portion. - a ring element (14, 27) and - a plurality of circumferentially spaced load carrying vanes extending in a radial direction of the ring element (14, 27); wherein at least one of said vanes is made of a composite material, and wherein the at least one composite vane is fastened to the ring element (14, 27), - first and second wall portions (20, 32) that are fixed in relation to the ring element (14, 27) and arranged on opposite sides of the composite vane; and - at least a first hole extending thorough the first wall portion, the composite vane and the second wall portion, wherein said first hole is adapted to receive a first insertion member,
A method for measuring the insulation resistance (Riso) with respect to ground of a DC voltage input of a running transformerless inverter and of DC voltage sources connected to the DC voltage input, - wherein a periodic test voltage signal (Ut) with a lower frequency than that of an alternating current that is emitted by the running inverter at its AC voltage output is modulated onto the voltage at the DC voltage input, and - wherein a ground current induced by the test voltage signal (Ut) is determined, characterized in that the test voltage signal (Ut) is generated in such a way with respect to a given ground reference of the AC voltage output that it is modulated onto the voltage at the DC voltage input while the inverter is running. - wherein a periodic test voltage signal (Ut) with a lower frequency than that of an alternating current that is emitted by the running inverter at its AC voltage output is modulated onto the voltage at the DC voltage input, and - wherein a ground current induced by the test voltage signal (Ut) is determined,
Method for actuating a starter device, wherein the starter device comprises a starter pinion which is intended to be engaged in a rotating gear rim of a decelerating internal combustion engine, wherein the internal combustion engine comprises a drive shaft, comprising a. determining a rotational speed (n, n1, n2, n3) of the drive shaft (222 in a previously determined angular position (a) with a certain angle (αn, αOT, αUT) b. comparing this rotational speed (n, n1, n2, n3) with a predetermined rotational speed value (nG), and c. if the rotational speed (n, n1, n2, n3) is less than or equal to the predetermined rotational speed value (nG), initiating the toe-in of the starter pinion in the direction of the gear rim as soon as a further predetermined event (nStart, aStart) has been detected, wherein the further event comprises the adoption of a further predetermined angular position (Start), and/or the attainment of a further rotational speed (nStart), characterized in that the specified rotational speed value (nG) is 150 revolutions per minute, and wherein the further predetermined event is detected after comparing the rotational speed within a same or a subsequent range of values, wherein a range of values comprises a range between the angle 0° and the angle 720° divided by the number of cylinders of the internal combustion engine. a. determining a rotational speed (n, n1, n2, n3) of the drive shaft (222 in a previously determined angular position (a) with a certain angle (αn, αOT, αUT) b. comparing this rotational speed (n, n1, n2, n3) with a predetermined rotational speed value (nG), and c. if the rotational speed (n, n1, n2, n3) is less than or equal to the predetermined rotational speed value (nG), initiating the toe-in of the starter pinion in the direction of the gear rim as soon as a further predetermined event (nStart, aStart) has been detected, wherein the further event comprises the adoption of a further predetermined angular position (Start), and/or the attainment of a further rotational speed (nStart),
A method for operating a first transmit-receive point, the method comprising: receiving, by the first TRP, a first measurement report from a user equipment, the first measurement report including an identifier of a second TRP; requesting, by the first TRP, a second measurement report from the UE, the second measurement report to include automatic neighbor relation information associated with the second TRP, wherein the ANR information includes a beam specific information; receiving, by the first TRP, the second measurement report including a first subset of the ANR information; determining, by the first TRP, a neighbor configuration with the second TRP in accordance with the first subset of the ANR information; and establishing, by the first TRP, a wireless link with the second TRP, wherein the first subset of the ANR information comprises beamforming parameters of the second TRP, and wherein determining the neighbor configuration comprises: imposing, by the first TRP, a bound on a search space used to search for the second TRP; and establishing, by the first TRP, the wireless link with the second TRP when the second TRP is discovered. receiving, by the first TRP, a first measurement report from a user equipment, the first measurement report including an identifier of a second TRP; requesting, by the first TRP, a second measurement report from the UE, the second measurement report to include automatic neighbor relation information associated with the second TRP, wherein the ANR information includes a beam specific information; receiving, by the first TRP, the second measurement report including a first subset of the ANR information; determining, by the first TRP, a neighbor configuration with the second TRP in accordance with the first subset of the ANR information; and establishing, by the first TRP, a wireless link with the second TRP, wherein the first subset of the ANR information comprises beamforming parameters of the second TRP, and wherein determining the neighbor configuration comprises: imposing, by the first TRP, a bound on a search space used to search for the second TRP; and establishing, by the first TRP, the wireless link with the second TRP when the second TRP is discovered. imposing, by the first TRP, a bound on a search space used to search for the second TRP; and establishing, by the first TRP, the wireless link with the second TRP when the second TRP is discovered.
A method for controlling a three-dimensional user interface of a display device, the method comprising: displaying one or more widgets (32, 39, 43, 50, 60, 61) having a depth with one of several discrete levels on a display of the display device; detecting a user's gesture in a direction perpendicular to the display on a widget selected among the one or more widgets (32, 39, 43, 50, 60, 61) using a three-dimensional proximity sensor (33a, 33b, 33c); and modifying the depth level of the selected widget (32, 39, 43, 50, 60, 61) according to the detected user's gesture. displaying one or more widgets (32, 39, 43, 50, 60, 61) having a depth with one of several discrete levels on a display of the display device; detecting a user's gesture in a direction perpendicular to the display on a widget selected among the one or more widgets (32, 39, 43, 50, 60, 61) using a three-dimensional proximity sensor (33a, 33b, 33c); and modifying the depth level of the selected widget (32, 39, 43, 50, 60, 61) according to the detected user's gesture.
An anchoring device for a device intended for implantation at a native heart valve annulus, said anchoring device comprising: a central portion being a ring; characterized in that the central portion comprises exactly two anchors (14a, 14p) extending therefrom, each of said anchors (14a, 14p) having a proximal fixed end secured to the central portion and terminating in a free end, said anchors (14a, 14p) being spaced slightly away from and running radially outside and substantially parallel to the outer circumference of the central portion in a curved fashion, forming valve leaflet-receiving slots (18a, 18p) between the anchors and the central portion, wherein the fixed ends of the anchors are spaced apart 90 degrees to 140 degrees about the circumference of the device. a central portion being a ring; characterized in that the central portion comprises exactly two anchors (14a, 14p) extending therefrom, each of said anchors (14a, 14p) having a proximal fixed end secured to the central portion and terminating in a free end, said anchors (14a, 14p) being spaced slightly away from and running radially outside and substantially parallel to the outer circumference of the central portion in a curved fashion, forming valve leaflet-receiving slots (18a, 18p) between the anchors and the central portion, wherein the fixed ends of the anchors are spaced apart 90 degrees to 140 degrees about the circumference of the device.
A frame structure, such as a sash or a stationary frame for a window or door, including side, top and bottom frame pieces (11, 12, 13, 14; 21, 22, 23, 24), a weather-protecting shielding arrangement covering at least parts of the frame pieces adapted to face the exterior of a building in a mounted position of the frame structure, and at least one elongate fastening member interconnecting the weather-protecting shielding arrangement to at least one frame piece, where said frame structure comprising a core and a cover layer applied to the core by moulding and encasing the core, said core comprising at least one core member (251, 252, 253), where said fastening member projects into a fastening member reception section formed by the material used for the cover layer forming a plug extending into a hole or recess in at least one core member, filling the hole or recess substantially entirely, and where said hole or recess extends in a length direction of the fastening member reception section from a surface of the core member facing a surface of a frame piece (11, 12, 13, 14; 21, 22, 23, 24), characterized in that at least one core member (251, 252, 253) is made of wood or a wood-based material, and that the distance D end in the length direction from the surface of the frame piece to the end of the plug defines a maximum allowable fastening member penetration depth D pen, and in that D end -D pen ≥ 1 mm. where said fastening member projects into a fastening member reception section formed by the material used for the cover layer forming a plug extending into a hole or recess in at least one core member, filling the hole or recess substantially entirely, and where said hole or recess extends in a length direction of the fastening member reception section from a surface of the core member facing a surface of a frame piece (11, 12, 13, 14; 21, 22, 23, 24), characterized in that at least one core member (251, 252, 253) is made of wood or a wood-based material, and that the distance D end in the length direction from the surface of the frame piece to the end of the plug defines a maximum allowable fastening member penetration depth D pen, and in that D end -D pen ≥ 1 mm.