mhurhangee/ep-ind-claims huggingface dataset:
A device for energy harvesting from vibration, strain, turn and/or strike, the device comprises - a capacitor harvesting module comprising two capacitor plates (102a, 102b) arranged essentially parallel with each other so that at least one of the plates is adapted to move due to vibration, strain, turns and/or strike in an essentially perpendicular direction to the other capacitor plate and thereby forming a variable gap between the plates and changing the capacitance between the plates and to generate electrical power to a power output, - a thin dielectric film arranged between the capacitor plates (102a, 102b), and - a piezoelectric element adapted to generate a bias voltage to the capacitor harvesting module from vibration and/or strain, wherein said movement of the at least one capacitor plate (102a, 102b) is a vibration, where the gap reaches a maximum and minimum, the gap being at the minimum the capacitor plates are adapted to be in a semi-contact mode, wherein the thin dielectric film is between the capacitor plates so that the plates are separated essentially only by the thin dielectric film, wherein at least one of the capacitor plate is related to a spring element so that the spring element enables said plate to oscillate back and forth in relation to said other capacitor plate, the spring constant of which is advantageously selected so that the gap is minimized and maximized during the vibrations, strains, turns and/or strikes of the device, wherein a mass element is related to the at least one capacitor plate (102a, 102b) so that the mass element enables said plate to oscillate back and forth in relation to said other capacitor plate, the mass being advantageously selected so that the gap is minimized and maximized during the vibrations, strains, turns and/or strikes of the device, characterised in that the thin dielectric film has a thickness of 25 nm at maximum and the device 100 has a flip-chip mounting 300 of the energy harvesting device 100 in order to be flipchipped and provide extra proof mass. - a capacitor harvesting module comprising two capacitor plates (102a, 102b) arranged essentially parallel with each other so that at least one of the plates is adapted to move due to vibration, strain, turns and/or strike in an essentially perpendicular direction to the other capacitor plate and thereby forming a variable gap between the plates and changing the capacitance between the plates and to generate electrical power to a power output, - a thin dielectric film arranged between the capacitor plates (102a, 102b), and - a piezoelectric element adapted to generate a bias voltage to the capacitor harvesting module from vibration and/or strain,
A computer device for processing audio signals, the computer device including at least a processor and a memory, wherein the computer device is configured to: receive a first bitstream including a first audio signal including speech and a second bitstream including a second audio signal; sum the first bitstream and the second bitstream, thereby providing a combined audio signal comprising the first audio signal including the speech and the second audio signal; compress the combined audio signal to provide a compressed audio signal by matching amplitudes of the first audio signal and the second audio signal; and control a dynamic range of the compressed audio signal to provide an output audio signal (AS'); whereby a quality of the speech included in the output audio signal (AS') is improved. receive a first bitstream including a first audio signal including speech and a second bitstream including a second audio signal; sum the first bitstream and the second bitstream, thereby providing a combined audio signal comprising the first audio signal including the speech and the second audio signal; compress the combined audio signal to provide a compressed audio signal by matching amplitudes of the first audio signal and the second audio signal; and control a dynamic range of the compressed audio signal to provide an output audio signal (AS'); whereby a quality of the speech included in the output audio signal (AS') is improved.
High-voltage arrangement, preferably for a motor vehicle, comprising - a housing, - a high-voltage plug, which is arranged on the housing, for inserting a high-voltage mating plug, - a cover which can be fitted to and can be removed from the housing, and - a spring apparatus comprising at least one first spring element, characterized in that the first spring element blocks insertion of the high-voltage mating plug into the high-voltage plug with the cover removed, and in that the fitted cover pushes down the first spring element, so that the high-voltage mating plug can be inserted into the high-voltage plug. - a housing, - a high-voltage plug, which is arranged on the housing, for inserting a high-voltage mating plug, - a cover which can be fitted to and can be removed from the housing, and - a spring apparatus comprising at least one first spring element,
A compound of Formula or a stereoisomer or tautomeric form thereof, wherein: One X is S and the other two X represent CR 4; R 2 is Fluoro or Hydrogen; R 1 and R 3 are independently selected from the group consisting of Hydrogen, Fluoro, Chloro, Bromo, CHF 2, CH 2 F, CF 3, CN and methyl, wherein at least one of R 1 and R 3 is not Hydrogen and R 1 and R 3 are not ortho methyl or ortho Chloro; One R 4 is Hydrogen, and the other R 4 is selected from the group consisting of Hydrogen, halogen, C 1 -C 3 alkyl, cyclopropyl, CHF 2, CH 2 F and CF 3; R 5 is Hydrogen; R 6 is selected from the group consisting of C 1 -C 6 alkyl, C 1 -C 3 alkyl-R 7 and a 3-7 membered saturated ring optionally containing one or more heteroatoms each independently selected from the group consisting of O, S and N, such 3-7 membered saturated ring or C 1 -C 6 alkyl optionally being substituted with one or more substituents each independently selected from the group consisting of Hydrogen, Fluoro, OH, CF 3 and C 1 -C 4 alkyl; R 7 is a 3-7 membered saturated ring optionally containing one or more heteroatoms each independently selected from the group consisting of O, S and N, or C(=O)-R 8; R 8 is selected from the group consisting of C 1 -C 3 alkoxy and-NH 2; wherein if R 1 is Methyl, R 2 is Fluoro, and R 3 is Hydrogen, R 6 is not Methyl; or a pharmaceutically acceptable salt or a solvate thereof. One X is S and the other two X represent CR 4; R 2 is Fluoro or Hydrogen; R 1 and R 3 are independently selected from the group consisting of Hydrogen, Fluoro, Chloro, Bromo, CHF 2, CH 2 F, CF 3, CN and methyl, wherein at least one of R 1 and R 3 is not Hydrogen and R 1 and R 3 are not ortho methyl or ortho Chloro; One R 4 is Hydrogen, and the other R 4 is selected from the group consisting of Hydrogen, halogen, C 1 -C 3 alkyl, cyclopropyl, CHF 2, CH 2 F and CF 3; R 5 is Hydrogen; R 6 is selected from the group consisting of C 1 -C 6 alkyl, C 1 -C 3 alkyl-R 7 and a 3-7 membered saturated ring optionally containing one or more heteroatoms each independently selected from the group consisting of O, S and N, such 3-7 membered saturated ring or C 1 -C 6 alkyl optionally being substituted with one or more substituents each independently selected from the group consisting of Hydrogen, Fluoro, OH, CF 3 and C 1 -C 4 alkyl; R 7 is a 3-7 membered saturated ring optionally containing one or more heteroatoms each independently selected from the group consisting of O, S and N, or C(=O)-R 8; R 8 is selected from the group consisting of C 1 -C 3 alkoxy and-NH 2; wherein if R 1 is Methyl, R 2 is Fluoro, and R 3 is Hydrogen, R 6 is not Methyl; or a pharmaceutically acceptable salt or a solvate thereof.
An infant seat having a fixed angle between a seat bottom and a seat back and having two side walls joined to the seat bottom and the seat back, wherein the seat is formed of a base segment and a junction segment that meet one another in a junction plane that intersects the planes of the seat bottom, the seat back and the side walls, the base segment, which extends only from the junction plane forming a smaller opening to the large access opening of the seat, is formed as a rigid ring of lesser depth than the seat, and the junction segment, which extends from the junction plane to the confluence between the seat bottom and the seat back, is movable relative to the base segment, such that the junction segment can occupy a deployed position, in which the two segments (12,14) together define a basket shape, and a transport position, in which the junction segment lies within the volume bounded by the base segment.
An electric power steering device comprising: a steered shaft that changes a steering angle of steered wheels responding to steering operation; a motor that applies assist force to the steered shaft; a drive pulley that includes helical teeth and is connected to an output shaft of the motor; a driven pulley that includes helical teeth and is arranged coaxially with the steered shaft; and a belt that includes helical teeth meshing with the helical teeth (11, 22) of a set of the drive pulley and the driven pulley, and is wound around the set of the pulleys (10, 20), characterized in that the helical teeth of at least one of the pulleys (10, 20) and the belt each have a tooth thickness that is reduced from a center toward both ends of a helical tooth in the width direction of the pulleys (10, 20) or the belt. a steered shaft that changes a steering angle of steered wheels responding to steering operation; a motor that applies assist force to the steered shaft; a drive pulley that includes helical teeth and is connected to an output shaft of the motor; a driven pulley that includes helical teeth and is arranged coaxially with the steered shaft; and a belt that includes helical teeth meshing with the helical teeth (11, 22) of a set of the drive pulley and the driven pulley, and is wound around the set of the pulleys (10, 20), characterized in that the helical teeth of at least one of the pulleys (10, 20) and the belt each have a tooth thickness that is reduced from a center toward both ends of a helical tooth in the width direction of the pulleys (10, 20) or the belt.
A method of omni-orientational wireless energy transfer between a transmitter unit and a receiver unit, the method comprising: providing a first electromagnetic resonator including a transmitter coil coupled to a power supply to transmit power through a magnetic flux to a receiver coil over an operating distance, wherein the transmitter coil forms a first outline of a first surface; and placing a second electromagnetic resonator at the operating distance from the first electromagnetic resonator, the second electromagnetic resonator including the receiver coil coupled to an electrical load, wherein the receiver coil forms a second outline of a second surface shaped differently than the first surface; wherein at least one of the first surface or the second surface is a non-degenerate two-dimensional surface having at least one concave portion occupying three spatial dimensions and configured to direct or intercept at least a portion of the magnetic flux over different orientations of the electromagnetic resonators at the operating distance, independent of the operating distance. providing a first electromagnetic resonator including a transmitter coil coupled to a power supply to transmit power through a magnetic flux to a receiver coil over an operating distance, wherein the transmitter coil forms a first outline of a first surface; and placing a second electromagnetic resonator at the operating distance from the first electromagnetic resonator, the second electromagnetic resonator including the receiver coil coupled to an electrical load, wherein the receiver coil forms a second outline of a second surface shaped differently than the first surface; wherein at least one of the first surface or the second surface is a non-degenerate two-dimensional surface having at least one concave portion occupying three spatial dimensions and configured to direct or intercept at least a portion of the magnetic flux over different orientations of the electromagnetic resonators at the operating distance, independent of the operating distance.
A method of receiving downlink data by a device in a wireless communication system, wherein plural frequency blocks are configured in a bandwidth, and downlink data reception can be scheduled per frequency block, the method comprising: receiving downlink scheduling information including 1) a frequency block indicator indicating a frequency block of the plural frequency blocks and 2) resource allocation information assigned only for the indicated frequency block among the plural frequency blocks; and receiving the downlink data via a time-frequency region indicated by the resource allocation information, within the indicated frequency block among the plural frequency blocks. receiving downlink scheduling information including 1) a frequency block indicator indicating a frequency block of the plural frequency blocks and 2) resource allocation information assigned only for the indicated frequency block among the plural frequency blocks; and receiving the downlink data via a time-frequency region indicated by the resource allocation information, within the indicated frequency block among the plural frequency blocks.
A polymer conductor sheet comprising (i) a polymer sheet (1, 5, 9) comprising at least two adjacent zones within the same polymer sheet, which zones run in longitudinal direction of the polymer sheet (1, 5, 9), wherein a first zone is sufficiently ductile and/or adhesive to fix the position of an elongated conductor on its surface facing the outside of the polymer sheet (1, 5, 9), and a second zone adjacent to the first zone, and (ii) at least one elongated conductor positioned on the surface of the first zone facing the outside of the polymer sheet (1, 5, 9), characterized in that the second zone has a different degree of polymerization and/or crosslinking than the first zone. (i) a polymer sheet (1, 5, 9) comprising at least two adjacent zones within the same polymer sheet, which zones run in longitudinal direction of the polymer sheet (1, 5, 9), wherein a first zone is sufficiently ductile and/or adhesive to fix the position of an elongated conductor on its surface facing the outside of the polymer sheet (1, 5, 9), and a second zone adjacent to the first zone, and a first zone is sufficiently ductile and/or adhesive to fix the position of an elongated conductor on its surface facing the outside of the polymer sheet (1, 5, 9), and a second zone adjacent to the first zone, and (ii) at least one elongated conductor positioned on the surface of the first zone facing the outside of the polymer sheet (1, 5, 9),
A nonlinear crystal (24, 34) comprising: a first curved face (25, 35) and an opposing second curved face (26, 36); an optical axis for a fundamental optical field incident upon the first curved face (25, 35) at an angle of Ψ with the optical axis; and an axis of rotation (29, 39), wherein rotation of the nonlinear crystal (24, 34) about the axis of rotation (29, 39) allows for maintenance of a phase matching condition within the nonlinear crystal (24, 34), wherein a radius of curvature of the first (25, 35) and second curved faces (26, 36) are equal and centred on the axis of rotation to provide the nonlinear crystal (24, 34) with rotational symmetry about at least one axis of the nonlinear crystal (24, 24), and the first curved face comprises a first section of a curved surface of a right circular cylinder and the second curved face comprises a second section of a curved surface of a right circular cylinder, or the first curved face comprises a first section of a sphere and the second curved face comprises a second section of the sphere, wherein a normal (27, 37) to the first curved face (24, 34) is located at an angle of -θ with the optical axis and chosen such that |θ| + |Ψ| = Brewster-angle (β) for the nonlinear crystal (24, 34) and a normal (28, 38) to the second curved surface (26, 36) is located at an angle of θ with the optical axis of the nonlinear crystal. a first curved face (25, 35) and an opposing second curved face (26, 36); an optical axis for a fundamental optical field incident upon the first curved face (25, 35) at an angle of Ψ with the optical axis; and an axis of rotation (29, 39), wherein rotation of the nonlinear crystal (24, 34) about the axis of rotation (29, 39) allows for maintenance of a phase matching condition within the nonlinear crystal (24, 34), wherein a radius of curvature of the first (25, 35) and second curved faces (26, 36) are equal and centred on the axis of rotation to provide the nonlinear crystal (24, 34) with rotational symmetry about at least one axis of the nonlinear crystal (24, 24), and the first curved face comprises a first section of a curved surface of a right circular cylinder and the second curved face comprises a second section of a curved surface of a right circular cylinder, or the first curved face comprises a first section of a sphere and the second curved face comprises a second section of the sphere, wherein a normal (27, 37) to the first curved face (24, 34) is located at an angle of -θ with the optical axis and chosen such that |θ| + |Ψ| = Brewster-angle (β) for the nonlinear crystal (24, 34) and a normal (28, 38) to the second curved surface (26, 36) is located at an angle of θ with the optical axis of the nonlinear crystal.
A system for detecting cardiac arrhythmias, comprising: a heart rate analyzer circuit configured to: monitor a ventricular heart rate corresponding to a plurality of heart beats; identify, from the plurality of heart beats during a detection period, slow heart beats with corresponding heart rates falling below a rate threshold; identify, during the detection period, one or more sustained slow beat sequences each including two or more of the slow heart beats; and determine a first prevalence indicator of the identified slow heart beats, and a second prevalence indicator of the one or more SSB sequences; and an arrhythmia detector circuit configured to detect a slow and persistent rhythm when the first determined prevalence indicator exceeds a first prevalence threshold, and the second determined prevalence indicator exceeds a second prevalence threshold. a heart rate analyzer circuit configured to: monitor a ventricular heart rate corresponding to a plurality of heart beats; identify, from the plurality of heart beats during a detection period, slow heart beats with corresponding heart rates falling below a rate threshold; identify, during the detection period, one or more sustained slow beat sequences each including two or more of the slow heart beats; and determine a first prevalence indicator of the identified slow heart beats, and a second prevalence indicator of the one or more SSB sequences; and monitor a ventricular heart rate corresponding to a plurality of heart beats; identify, from the plurality of heart beats during a detection period, slow heart beats with corresponding heart rates falling below a rate threshold; identify, during the detection period, one or more sustained slow beat sequences each including two or more of the slow heart beats; and determine a first prevalence indicator of the identified slow heart beats, and a second prevalence indicator of the one or more SSB sequences; and an arrhythmia detector circuit configured to detect a slow and persistent rhythm when the first determined prevalence indicator exceeds a first prevalence threshold, and the second determined prevalence indicator exceeds a second prevalence threshold.
A method of transmitting data in a terminal capable of near field communication NFC, comprising: selecting a user interaction type of a user interaction, from among a plurality of types of user interactions; detecting a user interaction input to the terminal, wherein the detected user interaction corresponds to the selected user interaction type; storing a record of transmission of the data through the NFC within a predetermined time from a time point when the user interaction of the selected type of user interaction is detected; determining predetermined data mapped to the detected user interaction, based on a predetermined number or more of previous transmissions of the predetermined data through the NFC within the predetermined time; and transmitting the predetermined data mapped to the detected user interaction to another device through the NFC. selecting a user interaction type of a user interaction, from among a plurality of types of user interactions; detecting a user interaction input to the terminal, wherein the detected user interaction corresponds to the selected user interaction type; storing a record of transmission of the data through the NFC within a predetermined time from a time point when the user interaction of the selected type of user interaction is detected; determining predetermined data mapped to the detected user interaction, based on a predetermined number or more of previous transmissions of the predetermined data through the NFC within the predetermined time; and transmitting the predetermined data mapped to the detected user interaction to another device through the NFC.
A dynamic beater comprising a spring mass unit, said unit having a mass M and a stiffness K actuated by a drive motor and presenting a device for coupling to a host structure for damping, the beater presenting a first acceleration sensor delivering a first signal s 1 and a second acceleration sensor for mounting on the host structure and delivering a second signal s 2, and also having a power amplifier supplying an output signal for controlling the drive motor in response to an input signal E, characterized in that the first sensor is secured to the mass M, in that the beater comprises a first and a second servo-control loop respectively for the first and second sensors, and in that the input signal E is defined by these two loops and is a function of a difference between the signals (s 1, s 2) from the second and first acceleration sensors after passing at least one of said signals (s 1, s 2) through at least one lowpass filter (F 1, F 2) and/or phase delay type filter.