mhurhangee/ep-ind-claims huggingface dataset:
A behind the ear hearing aid comprising a microphone for reception of sound and conversion of the received sound into a corresponding first audio signal, a signal processor for processing the first audio signal into a second audio signal compensating a hearing loss of a user of the hearing aid, a receiver that is connected to an output of the signal processor for converting the second audio signal into an output sound signal, a transceiver (34, 82) for wireless data communication interconnected with an antenna (37, 80) for emission and reception of an electromagnetic field, CHARACTERISED IN THAT: the antenna (37, 80) comprises a first actively fed resonant structure (40, 61, 85, 95) provided proximate a first side of the hearing aid, a second actively fed resonant structure (41, 62, 86, 96) provided proximate a second side of the hearing aid, a conducting segment (42, 65, 89) short circuiting the first resonant structure (40, 61, 85, 95) and the second resonant structure (41, 62, 86, 96) to provide a current bridge between the first side of the hearing aid and the second side of the hearing aid, and wherein the antenna (37,80) is a balanced antenna. a microphone for reception of sound and conversion of the received sound into a corresponding first audio signal, a signal processor for processing the first audio signal into a second audio signal compensating a hearing loss of a user of the hearing aid, a receiver that is connected to an output of the signal processor for converting the second audio signal into an output sound signal, a transceiver (34, 82) for wireless data communication interconnected with an antenna (37, 80) for emission and reception of an electromagnetic field, CHARACTERISED IN THAT: the antenna (37, 80) comprises a first actively fed resonant structure (40, 61, 85, 95) provided proximate a first side of the hearing aid, a second actively fed resonant structure (41, 62, 86, 96) provided proximate a second side of the hearing aid, a conducting segment (42, 65, 89) short circuiting the first resonant structure (40, 61, 85, 95) and the second resonant structure (41, 62, 86, 96) to provide a current bridge between the first side of the hearing aid and the second side of the hearing aid, and wherein the antenna (37,80) is a balanced antenna. the antenna (37, 80) comprises a first actively fed resonant structure (40, 61, 85, 95) provided proximate a first side of the hearing aid, a second actively fed resonant structure (41, 62, 86, 96) provided proximate a second side of the hearing aid, a conducting segment (42, 65, 89) short circuiting the first resonant structure (40, 61, 85, 95) and the second resonant structure (41, 62, 86, 96) to provide a current bridge between the first side of the hearing aid and the second side of the hearing aid, and wherein the antenna (37,80) is a balanced antenna.
A method for a serving device of establishing a computational puzzle for use in communication between a client device and the serving device, the method comprising: - establishing, in the serving device, the computational puzzle (p) based on a key shared by the client device and the serving device and on a solution (s', s") to the computational puzzle (p), wherein the establishing further comprises encoding, by the serving device, auxiliary information in a second part (s") of the solution (s', s"), the method being characterized in that the auxiliary information comprises information about resources to use for a subsequent message between the client device and the serving device. - establishing, in the serving device, the computational puzzle (p) based on a key shared by the client device and the serving device and on a solution (s', s") to the computational puzzle (p), wherein the establishing further comprises encoding, by the serving device, auxiliary information in a second part (s") of the solution (s', s"),
A method for a User Equipment, UE, communicating with a base station to receive an enhanced Physical Downlink Control CHannel, EPDCCH, transmitted by the base station in Resource Elements, REs, of a set of Physical Resource Blocks, PRBs, a single PRB of the set of PRBs comprising a number of frequency sub-carriers over a Transmission Time Interval, TTI, using an aggregation level of L Control Channel Elements, CCEs, in one of M candidate EPDCCH locations, the method comprising: determining by the UE whether the number of REs in a PRB available for transmitting EPDCCHs is smaller than a predetermined number; determining by the UE a first number of M candidate EPDCCH locations for decoding respective EPDCCHs if the number of REs in a PRB available for transmitting EPDCCHs is smaller than the predetermined number; and determining by the UE a second number of M candidate EPDCCH locations for decoding respective EPDCCHs if the number of REs in a PRB available for transmitting EPDCCHs is larger than or equal to the predetermined number wherein the first number is different than the second number. determining by the UE whether the number of REs in a PRB available for transmitting EPDCCHs is smaller than a predetermined number; determining by the UE a first number of M candidate EPDCCH locations for decoding respective EPDCCHs if the number of REs in a PRB available for transmitting EPDCCHs is smaller than the predetermined number; and determining by the UE a second number of M candidate EPDCCH locations for decoding respective EPDCCHs if the number of REs in a PRB available for transmitting EPDCCHs is larger than or equal to the predetermined number wherein the first number is different than the second number.
A variable speed drive arrangement comprising: • a load; • an epicyclic gearbox to supply mechanical drive to the load; • a converter electrically coupled with a power grid; • a primary electrical machine to supply mechanical power to the epicyclic gearbox and to receive electrical power • a secondary electrical machine mechanically coupled to the epicyclic gearbox and electrically coupled to the converter; and • a first electrical circuit breaker to selectively electrically couple the primary electrical machine to the secondary electrical machine or to the power grid; wherein the secondary electrical machine is adapted to supply or extract mechanical power from the epicyclic gearbox and to receive or deliver electrical power to the converter and a controller and wherein the controller is arranged to schedule output frequency from the converter in the range zero Hertz to maximum frequency, and characterised in that the controller is arranged to schedule switching of the first electrical circuit breaker and to switch phase connections to the secondary electrical machine to effect control of the direction of rotation of the secondary electrical machine. • a load; • an epicyclic gearbox to supply mechanical drive to the load; • a converter electrically coupled with a power grid; • a primary electrical machine to supply mechanical power to the epicyclic gearbox and to receive electrical power • a secondary electrical machine mechanically coupled to the epicyclic gearbox and electrically coupled to the converter; and • a first electrical circuit breaker to selectively electrically couple the primary electrical machine to the secondary electrical machine or to the power grid;
A method of constructing a channel mask (Mo) for an autostereoscopic display, the display comprising an electronically controlled screen covered by a parallax filter device that includes a refractive medium and is configured to obscure certain areas on the screen for a left eye of a viewer and to obscure certain other areas on the screen for a right eye of the viewer, the channel mask (Mo) being a two-dimensional geometric object that permits to assign to each point on the screen one of a number of viewing positions of an eye of the viewer, the channel mask dividing the surface of the screen into separate channel zones that, from a given position of the viewer, are visible by not more than one eye of the viewer, with boundaries (40, 42) between the channel zones being determined by corresponding features of the parallax filter device, characterized in that the channel mask is constructed by tracing light rays (32, 34) that propagate from selected points on the screen and are refracted at the parallax filter device, said boundaries (40, 42) being determined by refracted light rays that connect a reference point for the position of the viewer to said features of the parallax filter device.
A method for wireless communication by a wireless communication device, comprising: obtaining a first information block that includes a fixed number, N1, of information bits; performing a first encoding operation on one or more of the information bits that produces a number, LS, of amplitude-shaped bits; arranging the LS amplitude-shaped bits into a second information block that includes a number, LUS, of the information bits from the first information block, the sum of LS and LUS being less than or equal to a fixed amount, N2; selectively adding one or more padding bits to the second information block so that a length of the second information block is equal to N2; adding, to the second information block, one or more signaling bits indicating the number of amplitude-shaped bits in the second information block; performing a second encoding operation on the second information block that produces one or more codewords, each codeword including a respective subset of bits of the second information block and one or more parity bits resulting from the second encoding operation; arranging the subsets of bits of the second information block and the parity bits into a plurality of symbols, each symbol having an amplitude based on the respective bits arranged in the symbol, the first encoding operation producing the amplitude-shaped bits so that the amplitudes of the plurality of symbols have a non-uniform distribution; and transmitting a wireless packet, including the plurality of symbols, to at least one receiving device. obtaining a first information block that includes a fixed number, N1, of information bits; performing a first encoding operation on one or more of the information bits that produces a number, LS, of amplitude-shaped bits; arranging the LS amplitude-shaped bits into a second information block that includes a number, LUS, of the information bits from the first information block, the sum of LS and LUS being less than or equal to a fixed amount, N2; selectively adding one or more padding bits to the second information block so that a length of the second information block is equal to N2; adding, to the second information block, one or more signaling bits indicating the number of amplitude-shaped bits in the second information block; performing a second encoding operation on the second information block that produces one or more codewords, each codeword including a respective subset of bits of the second information block and one or more parity bits resulting from the second encoding operation; arranging the subsets of bits of the second information block and the parity bits into a plurality of symbols, each symbol having an amplitude based on the respective bits arranged in the symbol, the first encoding operation producing the amplitude-shaped bits so that the amplitudes of the plurality of symbols have a non-uniform distribution; and transmitting a wireless packet, including the plurality of symbols, to at least one receiving device.
A method of determining body exit of an ingestible capsule comprising the steps of: recording measurements from a pressure sensor included in said capsule as said capsule passes through at least an end portion of a gastrointestinal tract of a subject; transmitting said measurements to a processor outside of said gastrointestinal tract of said subject; wherein the processor performs the following steps: identifying an increasing pressure sequence in said measurements between a selected start time and a transmission end time; comparing said sequence to a reference; and using said comparison to make a determination regarding said capsule exiting said gastrointestinal tract of said subject. recording measurements from a pressure sensor included in said capsule as said capsule passes through at least an end portion of a gastrointestinal tract of a subject; transmitting said measurements to a processor outside of said gastrointestinal tract of said subject; wherein the processor performs the following steps: identifying an increasing pressure sequence in said measurements between a selected start time and a transmission end time; comparing said sequence to a reference; and using said comparison to make a determination regarding said capsule exiting said gastrointestinal tract of said subject. identifying an increasing pressure sequence in said measurements between a selected start time and a transmission end time; comparing said sequence to a reference; and using said comparison to make a determination regarding said capsule exiting said gastrointestinal tract of said subject.
An actuator device for a wind turbine, in particular for a rotor blade of a wind turbine, with an actuator component and a control component, wherein the actuator component has at least one actuator layer with a preferential direction and, substantially parallel to the actuator layer, at least one exciting layer, wherein the actuator layer comprises a photoactuator, wherein the photoactuator is designed to change a strain and/or stress of the actuator layer in the preferential direction on the basis of excitation light, wherein the exciting layer is designed to guide excitation light into the actuator layer, wherein the control component comprises a light source and a light guide, wherein the light source is arranged away from the exciting layer and is connected to the exciting layer by means of the light guide, characterized in that the light guide runs through the exciting layer in different directions, which have a counter-running element and are in particular opposite. wherein the actuator component has at least one actuator layer with a preferential direction and, substantially parallel to the actuator layer, at least one exciting layer, wherein the actuator layer comprises a photoactuator, wherein the photoactuator is designed to change a strain and/or stress of the actuator layer in the preferential direction on the basis of excitation light, wherein the exciting layer is designed to guide excitation light into the actuator layer, wherein the actuator layer comprises a photoactuator, wherein the photoactuator is designed to change a strain and/or stress of the actuator layer in the preferential direction on the basis of excitation light, wherein the exciting layer is designed to guide excitation light into the actuator layer, wherein the control component comprises a light source and a light guide, wherein the light source is arranged away from the exciting layer and is connected to the exciting layer by means of the light guide, characterized in that the light guide runs through the exciting layer in different directions, which have a counter-running element and are in particular opposite.
A method for manufacturing paper, paperboard or cardboard comprising the steps of (a) pulping a cellulosic material containing a starch; (b) treating the cellulosic material containing the starch with one or more biocides; and (h) adding an ionic polymer and an auxiliary ionic polymer to the cellulosic material; wherein the ionic polymer as well as the auxiliary ionic polymer is cationic; wherein the ionic polymer has a higher average molecular weight than the auxiliary ionic polymer; wherein the relative difference between the ionicity of the auxiliary ionic polymer and the ionicity of the ionic polymer is at least 5 mole.-%; wherein the ionicity is the molar content of ionic monomer units relative to the total amount of monomer units; wherein the ionic polymer comprises cationic monomer units derived from N,N,N-trialkylammoniumalkyl (meth)acrylate, N,N,N-trialkylammoniumalkyl (meth)acrylamide or diallyldialkyl ammonium halide; and wherein the auxiliary ionic polymer comprises monomer units derived from N,N,N-trialkylammoniumalkyl (meth)acrylamide or diallyldimethyl ammonium chloride. (a) pulping a cellulosic material containing a starch; (b) treating the cellulosic material containing the starch with one or more biocides; and (h) adding an ionic polymer and an auxiliary ionic polymer to the cellulosic material; wherein the ionic polymer as well as the auxiliary ionic polymer is cationic; wherein the ionic polymer has a higher average molecular weight than the auxiliary ionic polymer; wherein the relative difference between the ionicity of the auxiliary ionic polymer and the ionicity of the ionic polymer is at least 5 mole.-%; wherein the ionicity is the molar content of ionic monomer units relative to the total amount of monomer units; wherein the ionic polymer comprises cationic monomer units derived from N,N,N-trialkylammoniumalkyl (meth)acrylate, N,N,N-trialkylammoniumalkyl (meth)acrylamide or diallyldialkyl ammonium halide; and wherein the auxiliary ionic polymer comprises monomer units derived from N,N,N-trialkylammoniumalkyl (meth)acrylamide or diallyldimethyl ammonium chloride.
A method for simulating a film grain block, comprising the steps of: - establishing at least one parameter at least in part in accordance with an attribute of an incoming image; - accessing a database of preselected film grain blocks; - establishing at least one block of film grain in accordance with the at least one parameter by: - accessing one of the preselected film grain blocks, and selecting a source pattern for a film grain block based on the at least one parameter; and - applying de blocking filtering only to the vertical edges of the film grain block. - establishing at least one parameter at least in part in accordance with an attribute of an incoming image; - accessing a database of preselected film grain blocks; - establishing at least one block of film grain in accordance with the at least one parameter by: - accessing one of the preselected film grain blocks, and selecting a source pattern for a film grain block based on the at least one parameter; and - applying de blocking filtering only to the vertical edges of the film grain block.
A feeding device configured to supply a radio frequency signal to each of n (n is an integer of 2 or more) antenna elements A1, A2,... and An which are included in a phased array antenna, the feeding device comprising: n feeding circuits F1, F2,... and Fn; and a multiplexer configured to generate a sum signal V IF+LO (t) by adding an intermediate frequency signal V IF (t) and a local signal V LO (t), each feeding circuit Fi (i = 1, 2,... n) including: a time delay element (TDi) configured to generate a delayed sum signal V IF+LO (t-Δti) by imparting a time delay Δti to the sum signal V IF+LO (t); a demultiplexer (Dpi) configured to generate a delayed intermediate frequency signal V IF (t-Δti) and a delayed local signal V LO (t-Δti) by demultiplexing the delayed sum signal V IF+LO (t-Δti); and a transmission mixer (TMXi) configured to generate a delayed radio frequency signal V RF (t-Δti) by multiplying the delayed intermediate frequency signal V IF (t-Δti) by the delayed local signal V LO (t-Δti), each feeding circuit Fi being configured to supply the delayed radio frequency signal V RF (t-Δti) to a corresponding antenna element Ai. n feeding circuits F1, F2,... and Fn; and a multiplexer configured to generate a sum signal V IF+LO (t) by adding an intermediate frequency signal V IF (t) and a local signal V LO (t), each feeding circuit Fi (i = 1, 2,... n) including: a time delay element (TDi) configured to generate a delayed sum signal V IF+LO (t-Δti) by imparting a time delay Δti to the sum signal V IF+LO (t); a demultiplexer (Dpi) configured to generate a delayed intermediate frequency signal V IF (t-Δti) and a delayed local signal V LO (t-Δti) by demultiplexing the delayed sum signal V IF+LO (t-Δti); and a transmission mixer (TMXi) configured to generate a delayed radio frequency signal V RF (t-Δti) by multiplying the delayed intermediate frequency signal V IF (t-Δti) by the delayed local signal V LO (t-Δti), a time delay element (TDi) configured to generate a delayed sum signal V IF+LO (t-Δti) by imparting a time delay Δti to the sum signal V IF+LO (t); a demultiplexer (Dpi) configured to generate a delayed intermediate frequency signal V IF (t-Δti) and a delayed local signal V LO (t-Δti) by demultiplexing the delayed sum signal V IF+LO (t-Δti); and a transmission mixer (TMXi) configured to generate a delayed radio frequency signal V RF (t-Δti) by multiplying the delayed intermediate frequency signal V IF (t-Δti) by the delayed local signal V LO (t-Δti), each feeding circuit Fi being configured to supply the delayed radio frequency signal V RF (t-Δti) to a corresponding antenna element Ai.
A composition for treatment of an ocular condition, comprising a muscarinic acetylcholine receptor M3 agonist, and oxymetazoline, and optionally a non-steroidal anti-inflammatory agent (NSAID) having COX-2 selectivity; wherein the ocular condition is presbyopia, mild hyperopia, irregular astigmatism, or hyperopic accommodative esotropia.
Device for coating particulate material consisting of pharmaceutical tablets, comprising a central column arranged so as to be disposed vertically, a supply means for supplying the device with particulate material to be coated and a discharge means for discharging coated particulate material, the device comprising a conveying ramp connected to the central column and a plurality of spray means for spraying a coating agent, each spray means being arranged so as to orient said spray towards said particulate material while it is conveyed in the device, characterised in that said supply means is arranged at the top of the device and said discharge means is arranged at the base of said device and in that said conveying ramp comprises a plurality of ramp sections arranged one above the other so as to define, between two successive sections (4a, 4b), a drop zone for said particulate material to fall between each of said successive sections.