mhurhangee/ep-ind-claims huggingface dataset:
A partitioning wall element for a partitioning wall installation, wherein the partitioning wall element includes a telescoping element, which is deployable in a horizontal direction, wherein the telescoping element comprises a pressure beam and a screen profile, wherein the screen profile is retained in or at the pressure beam, wherein the screen profile comprises at least one first screen holding means (7, 8), which, in particular in a latching manner, cooperates with at least one corresponding pressure beam holding means (9, 10, 11) of the pressure beam, wherein the pressure beam holding means (9, 10, 11) and the screen holding means (7, 8) cooperate in such a manner that the screen profile is retainable in a first position in or at the pressure beam, in particular latchable, in which position is formed a first distance between a first abutment section of the pressure beam and the screen profile, and in a second position, is retainable, in particular latchable, in or at the pressure beam, in which position is formed a second distance between the first abutment section of the pressure beam and the screen profile, wherein a second screen holding means is provided, wherein the first screen holding means comprises a first web and the second screen holding means comprises a second web, wherein the first screen holding means includes a form closure means, which is configured at the web, and the second screen holding means includes a second form closure means, which is configured at the second web, characterized in that the first form closure means is disposed at a first height at the first web and the second form closure means at a second height at the second web, wherein the first height is different from the second height
A method for performing radio measurements in a wireless device in a communications system comprising at least one network node, the method comprising: obtaining an indication of a first cell carrier frequency associated with a first altitude range and an indication of a second cell carrier frequency associated with a second altitude range wherein the first altitude range is indicated by a first altitude value and a first threshold parameter, wherein the first threshold parameter indicates whether the first altitude range is above or below the first altitude value and the second altitude range is indicated by a second altitude value and a second threshold parameter, wherein the second threshold parameter indicates whether the second altitude range is above or below the second altitude value; determining an altitude of the wireless device; performing a radio measurement on a signal received from a cell operating on the first cell carrier frequency only when the altitude of the wireless device is within the first altitude range and performing a radio measurement on a signal received from a cell operating on the second cell carrier frequency only when the altitude of the wireless device is within the second altitude range, and reporting an information about the altitude or the altitude range of the wireless device at which the wireless device performed the radio measurement. obtaining an indication of a first cell carrier frequency associated with a first altitude range and an indication of a second cell carrier frequency associated with a second altitude range wherein the first altitude range is indicated by a first altitude value and a first threshold parameter, wherein the first threshold parameter indicates whether the first altitude range is above or below the first altitude value and the second altitude range is indicated by a second altitude value and a second threshold parameter, wherein the second threshold parameter indicates whether the second altitude range is above or below the second altitude value; determining an altitude of the wireless device; performing a radio measurement on a signal received from a cell operating on the first cell carrier frequency only when the altitude of the wireless device is within the first altitude range and performing a radio measurement on a signal received from a cell operating on the second cell carrier frequency only when the altitude of the wireless device is within the second altitude range, and reporting an information about the altitude or the altitude range of the wireless device at which the wireless device performed the radio measurement.
Displacement sensor arrangement, comprising at least one primary coil, at least one first and one second secondary coil (3, 4) and at least one soft magnetic coupling element, which magnetically couples the primary coil and the two secondary coils (3, 4), wherein the displacement sensor is designed such that a position and/or a deflection is recorded depending on the magnetic coupling between the primary coils and at least the first and second secondary coils (3, 4), wherein the displacement sensor arrangement comprises a signal processing unit, which is designed such that it carries out digital signal processing of at least one electrical variable of the two secondary coils (3, 4) and determines the position and/or deflection, characterized in that the signal processing unit comprises at least one Goertzel filter respectively for assessing and/or analyzing the at least one electrical variable of the first and the second secondary coils (3, 4).
A method of detecting interference (I 3) in a wireless network, the interference comprising an intermodulation product of at least a first signal (C 1) and a second signal (C 2), the method comprising: generating, on the basis of at least the first signal (C 1) and the second signal (C 2), a plurality of delayed interference signals comprising simulated intermodulation products generated using a plurality of delay values; correlating each of the delayed interference signals with a waveform received in the wireless system to produce data representing a correlation for each delayed interference signal; selecting a delay value in dependence on a comparison of the data representing the correlations; and detecting the presence of an intermodulation product of at least the first signal (C 1) and the second signal (C 2) in the interference in dependence on the data representing the correlation for the selected delay value. generating, on the basis of at least the first signal (C 1) and the second signal (C 2), a plurality of delayed interference signals comprising simulated intermodulation products generated using a plurality of delay values; correlating each of the delayed interference signals with a waveform received in the wireless system to produce data representing a correlation for each delayed interference signal; selecting a delay value in dependence on a comparison of the data representing the correlations; and detecting the presence of an intermodulation product of at least the first signal (C 1) and the second signal (C 2) in the interference in dependence on the data representing the correlation for the selected delay value.
One or more computer-readable media having computer-executable components for conserving power for a mobile device, said components comprising: a first component for receiving notification that a radio of the mobile device has been powered on; a second component for identifying a plurality of recurrent schedules stored in a memory area that require the radio to be powered on each of said plurality of recurrent schedules having a next activation time and a tolerance factor; a third component for selecting one or more of the identified plurality of recurrent schedules for which a difference between the next activation time and a time of receipt of the notification by the first component is within the tolerance factor; and a fourth component for executing the schedules selected by the third component to use the radio. a first component for receiving notification that a radio of the mobile device has been powered on; a second component for identifying a plurality of recurrent schedules stored in a memory area that require the radio to be powered on each of said plurality of recurrent schedules having a next activation time and a tolerance factor; a third component for selecting one or more of the identified plurality of recurrent schedules for which a difference between the next activation time and a time of receipt of the notification by the first component is within the tolerance factor; and a fourth component for executing the schedules selected by the third component to use the radio.
A compound of Formula 1 or its pharmaceutically acceptable salt: wherein, R 1, R 2, and R 3 are, independently of each other, hydrogen; a halogen group; a nitro group; an amino group; a C 1 ∼C 6 alkyl group optionally substituted with halogen; or a hydroxycarbonyl group (with the proviso that R 1, R 2, and R 3 are not hydrogen at the same time), R 4, R 5, and R 6 are, independently of each other, hydrogen; a halogen group; a C 1 ∼C 6 alkyl group; a C 1 ∼C 6 alkoxy group optionally substituted with C 3 ∼C 6 cycloalkyl; a C 1 ∼C 6 alkylsulfanyl group; or a mono- or di-C 1 ∼C 6 alkylamino group, R 7 and R 8 are, independently of each other, hydrogen; a hydroxy group; a halogen group; or a hydroxycarbonyl group (with the proviso that R 7 and R 8 are not hydrogen at the same time), and Rg is hydrogen or a C 1 ∼C 6 alkyl group. R 1, R 2, and R 3 are, independently of each other, hydrogen; a halogen group; a nitro group; an amino group; a C 1 ∼C 6 alkyl group optionally substituted with halogen; or a hydroxycarbonyl group (with the proviso that R 1, R 2, and R 3 are not hydrogen at the same time), R 4, R 5, and R 6 are, independently of each other, hydrogen; a halogen group; a C 1 ∼C 6 alkyl group; a C 1 ∼C 6 alkoxy group optionally substituted with C 3 ∼C 6 cycloalkyl; a C 1 ∼C 6 alkylsulfanyl group; or a mono- or di-C 1 ∼C 6 alkylamino group, R 7 and R 8 are, independently of each other, hydrogen; a hydroxy group; a halogen group; or a hydroxycarbonyl group (with the proviso that R 7 and R 8 are not hydrogen at the same time), and Rg is hydrogen or a C 1 ∼C 6 alkyl group.
A wearable electronic device, comprising: a processor configured to implement a user interface for allowing a user to interact with the wearable electronic device; a display and a touch panel in communication with the processor, wherein the display and the touch panel provide a touch-sensitive display configured to allow a user to interact with the wearable electronic device on the basis of the user interface by touching the touch panel; and a bezel rotatably mounted on the housing of the wearable electronic device, wherein the bezel comprises at least two pointing elements (209a-d) configured to activate the touch panel at a plurality of different locations of the touch panel and wherein the plurality of different locations of the touch panel define a plurality of different positions of the bezel relative to the housing allowing the user to interact with the wearable electronic device by using the bezel; wherein in a default state of the bezel at least one pointing element of the at least two pointing elements (209a-d) is in constant contact with the touch panel and at least one other pointing element of the at least two pointing elements (209a-d) is out of contact with the touch panel. a processor configured to implement a user interface for allowing a user to interact with the wearable electronic device; a display and a touch panel in communication with the processor, wherein the display and the touch panel provide a touch-sensitive display configured to allow a user to interact with the wearable electronic device on the basis of the user interface by touching the touch panel; and a bezel rotatably mounted on the housing of the wearable electronic device, wherein the bezel comprises at least two pointing elements (209a-d) configured to activate the touch panel at a plurality of different locations of the touch panel and wherein the plurality of different locations of the touch panel define a plurality of different positions of the bezel relative to the housing allowing the user to interact with the wearable electronic device by using the bezel; wherein in a default state of the bezel at least one pointing element of the at least two pointing elements (209a-d) is in constant contact with the touch panel and at least one other pointing element of the at least two pointing elements (209a-d) is out of contact with the touch panel.
A method for controlling a three-level brake chopper comprising: apositivedirect current pole (dc+), a negative direct current pole (dc-) and a neutral direct current pole, wherein the positive direct current pole (dc+) and the neutral direct current pole are connected by afirst capacitance and wherein the negative direct current pole (dc-) and the neutral direct current pole are connected by a second capacitance; a first controllable semiconductor switch connected between the positive direct current pole (dc+) and a first connection point; a second controllable semiconductor switch connected between the first connection point and the neutral direct current pole; a third controllable semiconductor switch connected between the neutral direct current pole and a second connection point; a fourth controllable semiconductor switch connected between the second connection point and the negative direct current pole (dc-); and resistance means (Rbrk; Rbrk1, Rbrk2) connected between the first connection point and the second connection point, the method comprising: in response to detecting a fault in the resistance means (Rbrk; Rbrk1, Rbrk2), controlling the second controllable semiconductor switch and the third controllable semiconductor switch into a conducting state. apositivedirect current pole (dc+), a negative direct current pole (dc-) and a neutral direct current pole, wherein the positive direct current pole (dc+) and the neutral direct current pole are connected by afirst capacitance and wherein the negative direct current pole (dc-) and the neutral direct current pole are connected by a second capacitance; a first controllable semiconductor switch connected between the positive direct current pole (dc+) and a first connection point; a second controllable semiconductor switch connected between the first connection point and the neutral direct current pole; a third controllable semiconductor switch connected between the neutral direct current pole and a second connection point; a fourth controllable semiconductor switch connected between the second connection point and the negative direct current pole (dc-); and resistance means (Rbrk; Rbrk1, Rbrk2) connected between the first connection point and the second connection point, the method comprising: in response to detecting a fault in the resistance means (Rbrk; Rbrk1, Rbrk2), controlling the second controllable semiconductor switch and the third controllable semiconductor switch into a conducting state.
A steering wheel remote control (1509, 1613, 1702) comprising: a plurality of touch sensors (12, 14, 21, 52, 62, 72, 82, 100, 113, 141, 146, 1501, 1502, 1606, 1607, 1708, 1709) disposed about a steering wheel (10, 20, 31, 91); and a controller (1503, 1608, 1707), wherein the controller (1503, 1608, 1707) is configured to analyse information from the plurality of touch sensors (12, 14, 21, 52, 62, 72, 82, 100, 113, 141, 146, 1501, 1502, 1606, 1607, 1708, 1709) to make decisions and to provide coupling to a device capable of controlling a remote wireless device (1507, 1605, 1703) and the plurality of touch sensors includes a first plurality of touch sensors (12, 14, 52, 62, 72, 82, 100, 113, 1501, 1607, 1708) on the front side of the steering wheel, characterised in that the plurality of touch sensors further includes a second plurality of touch sensors (21, 141, 146, 1502, 1606, 1709) on the rear side of the steering wheel (10, 20, 31, 91) that are distributed evenly for the purpose of detecting a hands position on the steering wheel (10, 20, 31, 91), whereby the rear side touch sensors (21, 141, 146, 1502, 1606, 1709) are configured to coordinate a process for recognition of finger gestures and to activate ones of the touch sensors (12, 14, 52, 62, 72, 82, 100, 113, 1501, 1607, 1708) on the front side of the steering wheel above the detected hands position and the controller is configured to only make said decisions based on information from activated touch sensors on the front side of the steering wheel. a plurality of touch sensors (12, 14, 21, 52, 62, 72, 82, 100, 113, 141, 146, 1501, 1502, 1606, 1607, 1708, 1709) disposed about a steering wheel (10, 20, 31, 91); and a controller (1503, 1608, 1707), wherein the controller (1503, 1608, 1707) is configured to analyse information from the plurality of touch sensors (12, 14, 21, 52, 62, 72, 82, 100, 113, 141, 146, 1501, 1502, 1606, 1607, 1708, 1709) to make decisions and to provide coupling to a device capable of controlling a remote wireless device (1507, 1605, 1703) and the plurality of touch sensors includes a first plurality of touch sensors (12, 14, 52, 62, 72, 82, 100, 113, 1501, 1607, 1708) on the front side of the steering wheel, characterised in that the plurality of touch sensors further includes a second plurality of touch sensors (21, 141, 146, 1502, 1606, 1709) on the rear side of the steering wheel (10, 20, 31, 91) that are distributed evenly for the purpose of detecting a hands position on the steering wheel (10, 20, 31, 91), whereby the rear side touch sensors (21, 141, 146, 1502, 1606, 1709) are configured to coordinate a process for recognition of finger gestures and to activate ones of the touch sensors (12, 14, 52, 62, 72, 82, 100, 113, 1501, 1607, 1708) on the front side of the steering wheel above the detected hands position and the controller is configured to only make said decisions based on information from activated touch sensors on the front side of the steering wheel.
Wind turbine comprising - a rotor, wherein the rotor is rotatable around an approximately horizontally arranged rotor axis and comprisesat least one rotor blade extending crosswise, approximately perpendiculartothe rotor axis, - an adjustment device for adjusting the at least one rotor blade, wherein the torque being caused by the wind load with respect to the rotor axis is adjustable by the adjustment, and - a stabilization arrangement, by which the rotor can be stabilized with respect to the rotor axis in at least one defined rotational position having a low load, characterized in that the stabilization arrangement comprises a couplingdevice which can be coupled to the adjustment device, by which, in case of a deviation from the defined rotational position or in case of a rotational motion of the rotor away from the defined rotational position, an adjustment of the at least one rotor blade can be induced forgeneratinga torque counteracting the deviation, respectively the rotational motion. - a rotor, wherein the rotor is rotatable around an approximately horizontally arranged rotor axis and comprisesat least one rotor blade extending crosswise, approximately perpendiculartothe rotor axis, - an adjustment device for adjusting the at least one rotor blade, wherein the torque being caused by the wind load with respect to the rotor axis is adjustable by the adjustment, and - a stabilization arrangement, by which the rotor can be stabilized with respect to the rotor axis in at least one defined rotational position having a low load, in case of a deviation from the defined rotational position or in case of a rotational motion of the rotor away from the defined rotational position,
A dynamic spinal implant configured to be inserted between two adjacent vertebrae, the device comprising: a first endplate configured to contact the inferior face of a first vertebrae; a second endplate substantially opposite the first endplate and configured to contact the superior face of a second, adjacent vertebrae; an inner structure disposed between the first endplate and the second endplate; and a bone graft or bone substitute material disposed within the dynamic spinal implant, wherein the inner structure is configured to generate a modified strain tensor on the bone graft and/or bone substitute material disposed within the dynamic spinal implant, wherein the inner structure is configured to modify a mechanical load to promote bone growth within the inner structure, and wherein the dynamic spinal implant comprises at least one resonating element. a first endplate configured to contact the inferior face of a first vertebrae; a second endplate substantially opposite the first endplate and configured to contact the superior face of a second, adjacent vertebrae; an inner structure disposed between the first endplate and the second endplate; and a bone graft or bone substitute material disposed within the dynamic spinal implant, wherein the inner structure is configured to generate a modified strain tensor on the bone graft and/or bone substitute material disposed within the dynamic spinal implant, wherein the inner structure is configured to modify a mechanical load to promote bone growth within the inner structure, and wherein the dynamic spinal implant comprises at least one resonating element.
An oncolytic herpes simplex virus encoding a CTLA-4 inhibitor, wherein the CTLA-4 inhibitor is an anti-CTLA-4 antibody, or an antigen binding fragment thereof, and wherein: (a) the virus further comprises a GM-CSF-encoding gene; and/or (b) the virus further comprises an immune co-stimulatory pathway activating molecule-encoding gene encoding CD40 ligand (CD40L), ICOS ligand, GITR ligand, 4-1-BB ligand, OX40 ligand, TL1A, CD30 ligand, CD27 or flt3 ligand; and/or (c) the virus further comprises an immune co-stimulatory pathway activating molecule-encoding gene, wherein the sequence of the immune co-stimulatory pathway activating molecule-encoding gene is codon optimized so as to increase expression levels in target cells; and/or (d) the virus further comprises a fusogenic protein-encoding gene; and/or (e) the CTLA-4 inhibitor is encoded by a codon optimized sequence so as to increase expression levels in target cells; and/or (f) the virus does not express functional ICP34.5, does not express functional ICP47, and expresses the US11 gene as an immediate early gene. (a) the virus further comprises a GM-CSF-encoding gene; and/or (b) the virus further comprises an immune co-stimulatory pathway activating molecule-encoding gene encoding CD40 ligand (CD40L), ICOS ligand, GITR ligand, 4-1-BB ligand, OX40 ligand, TL1A, CD30 ligand, CD27 or flt3 ligand; and/or (c) the virus further comprises an immune co-stimulatory pathway activating molecule-encoding gene, wherein the sequence of the immune co-stimulatory pathway activating molecule-encoding gene is codon optimized so as to increase expression levels in target cells; and/or (d) the virus further comprises a fusogenic protein-encoding gene; and/or (e) the CTLA-4 inhibitor is encoded by a codon optimized sequence so as to increase expression levels in target cells; and/or (f) the virus does not express functional ICP34.5, does not express functional ICP47, and expresses the US11 gene as an immediate early gene.
Method for operating a workstation of an open-end rotor spinning machine with an open-end winding device for producing a yarn and a winding device for producing a cross-wound package, wherein the open-end winding device is equipped with an opening roller comprising a single electric motor drive and the power consumption of the drive of the opening roller is constantly measured, characterised in that the open-end rotor spinning machine comprises a yarn clearer for monitoring the lateral dimension or mass of a yarn and the signal of the yarn clearer and the power consumption of the opening roller are linked in order to receive information in terms of fluctuations in the lateral dimension or mass of the sliver processed by the workstation by means of a signal issued when sliver fluctuations exceed a specified limit.