mhurhangee/ep-ind-claims huggingface dataset:
Method for selecting an emit power value of a radio signal implemented by at least one user equipment located in a first emit power zone defined around a base station to which said user equipment is attached, said method comprising the following steps: - obtaining a plurality of emit power values possible for said first emit power zone, said emit power values possible for said first zone being determined depending on at least: - a reference emit power value for said first emit power zone, - a reference emit power value for at least one second emit power zone defined around said base station and adjacent to the first emit power zone, - a value of a discretization increment defining a level of disparity between the possible power values, and - selecting an emit power value from said plurality of emit power values possible for said first emit power zone. - obtaining a plurality of emit power values possible for said first emit power zone, said emit power values possible for said first zone being determined depending on at least: - a reference emit power value for said first emit power zone, - a reference emit power value for at least one second emit power zone defined around said base station and adjacent to the first emit power zone, - a value of a discretization increment defining a level of disparity between the possible power values, and - selecting an emit power value from said plurality of emit power values possible for said first emit power zone. - a reference emit power value for said first emit power zone, - a reference emit power value for at least one second emit power zone defined around said base station and adjacent to the first emit power zone, - a value of a discretization increment defining a level of disparity between the possible power values, and - selecting an emit power value from said plurality of emit power values possible for said first emit power zone.
An apparatus for controlling a linear compressor, the apparatus comprising: a drive configured to drive the linear compressor based on a control signal; a detector configured to detect a motor current of the linear compressor; characterized in that the apparatus for controlling further comprises: an asymmetric current generator configured to generate an asymmetric motor current by applying a current offset to the detected motor current; and a controller configured to generate the control signal based on the asymmetric motor current, wherein the current offset is a value for changing an initial position of a piston of the linear compressor and wherein the current offset is changeable based on a change in the initial position of the piston of the linear compressor. wherein an initial value of the piston is moved by the current offset, wherein the initial value of the piston corresponds to the initial position of the piston, and wherein a moved amount of the initial value of the piston is proportional to a motor constant corresponding to a motor of the compressor and the current offset. a drive configured to drive the linear compressor based on a control signal; a detector configured to detect a motor current of the linear compressor; an asymmetric current generator configured to generate an asymmetric motor current by applying a current offset to the detected motor current; and a controller configured to generate the control signal based on the asymmetric motor current, wherein the current offset is a value for changing an initial position of a piston of the linear compressor and wherein the current offset is changeable based on a change in the initial position of the piston of the linear compressor. wherein an initial value of the piston is moved by the current offset, wherein the initial value of the piston corresponds to the initial position of the piston, and wherein a moved amount of the initial value of the piston is proportional to a motor constant corresponding to a motor of the compressor and the current offset.
An electronic lock, the electronic lock comprising: a locking mechanism comprising a bolt and one or more extensions coupled with the bolt; a cartridge comprising a body portion and one or more extension receiving portions, the one or more extension receiving portions configured to receive the one or more extensions of the locking mechanism; a first coil positioned around the cartridge; a core disposed within the cartridge and substantially within the first coil; a second coil (940a,b) positioned around the cartridge, the second coil being spaced from the first coil; a first sliding barrier disposed within the cartridge, the first sliding barrier selectively in communication with the one or more extensions of the locking mechanism; and a control circuit operative to energize the first and second (940a,b) coils to cause the first sliding barrier to move from a first position magnetically attracted to the core to a second position magnetically attracted to the second (940a,b) coil and thereby allow actuation of the locking mechanism, wherein the control circuit is further operative to energize the second (940a,b) coil once at least half of the first sliding barrier has passed within the second coil, and wherein a time period during which the second coil is energized at least partially overlaps with a time period during which the first coil is energized to cause the first coil to repel the first sliding barrier while the second coil attracts the first sliding barrier. a locking mechanism comprising a bolt and one or more extensions coupled with the bolt; a cartridge comprising a body portion and one or more extension receiving portions, the one or more extension receiving portions configured to receive the one or more extensions of the locking mechanism; a first coil positioned around the cartridge; a core disposed within the cartridge and substantially within the first coil; a second coil (940a,b) positioned around the cartridge, the second coil being spaced from the first coil; a first sliding barrier disposed within the cartridge, the first sliding barrier selectively in communication with the one or more extensions of the locking mechanism; and a control circuit operative to energize the first and second (940a,b) coils to cause the first sliding barrier to move from a first position magnetically attracted to the core to a second position magnetically attracted to the second (940a,b) coil and thereby allow actuation of the locking mechanism, wherein the control circuit is further operative to energize the second (940a,b) coil once at least half of the first sliding barrier has passed within the second coil, and wherein a time period during which the second coil is energized at least partially overlaps with a time period during which the first coil is energized to cause the first coil to repel the first sliding barrier while the second coil attracts the first sliding barrier.
A capsule for preparing infused beverages, comprising a main body with a central axis, a first end and a second end, said main body comprising: - a side wall, which is axially symmetrical with respect to said central axis and converges from the first to the second end, - a bottom wall, which is connected to the side wall and is arranged at said second end, - a cavity for containing an ingredient for preparing beverages, said cavity being defined by said side wall and by said bottom wall, said bottom wall being openable for introducing pressurized liquid into said cavity, said cavity having an opening at the first end, - an annular flange connected to said side wall at said first end and radially extending outwards from said side wall, said flange having an inner surface that faces said second end and an outer surface opposite the inner surface; said capsule further comprising a frangible covering element fastened to the outer surface of said flange and overlapping said opening to hermetically seal said cavity, characterized in that the capsule is entirely made of a compostable material and in that said flange has: - a flexible inner area, which is directly connected to the side wall and is configured to flex under the action of a hollow piston of a beverage preparing machine; - an abutment surface arranged at said inner area and configured to be pushed by said piston; wherein said side wall comprises a main portion and a connecting portion, said connecting portion joining said main portion to said flange and increasing in thickness from said main portion to said flange, said connecting portion being deformable due to a pressure of said piston on said abutment surface to at least partially contact said piston and create a seal against said piston. - a side wall, which is axially symmetrical with respect to said central axis and converges from the first to the second end, - a bottom wall, which is connected to the side wall and is arranged at said second end, - a cavity for containing an ingredient for preparing beverages, said cavity being defined by said side wall and by said bottom wall, said bottom wall being openable for introducing pressurized liquid into said cavity, said cavity having an opening at the first end, - an annular flange connected to said side wall at said first end and radially extending outwards from said side wall, said flange having an inner surface that faces said second end and an outer surface opposite the inner surface; - a flexible inner area, which is directly connected to the side wall and is configured to flex under the action of a hollow piston of a beverage preparing machine; - an abutment surface arranged at said inner area and configured to be pushed by said piston; wherein said side wall comprises a main portion and a connecting portion, said connecting portion joining said main portion to said flange and increasing in thickness from said main portion to said flange, said connecting portion being deformable due to a pressure of said piston on said abutment surface to at least partially contact said piston and create a seal against said piston.
An aqueous cathodic electrocoat composition, the composition comprising: water; a crosslinkable resin comprising: a binder, and a crosslinking agent; a neutralizing agent for neutralizing the binder, wherein the neutralizing agent comprises a mixture of formic acid, dimethylolpropionic acid (DMPA), lactic acid, and acetic acid; and a pigment paste. water; a crosslinkable resin comprising: a binder, and a crosslinking agent; a binder, and a crosslinking agent; a neutralizing agent for neutralizing the binder, wherein the neutralizing agent comprises a mixture of formic acid, dimethylolpropionic acid (DMPA), lactic acid, and acetic acid; and a pigment paste.
A method for producing seals on faces of electrochemical reactor components intended to be stacked in order to form an electrochemical reactor, each component being in the form of a plate and having a first face and an opposing second face, the first face being designed to receive a first seal and the second face being designed to receive a second seal, the method comprising: - shaping the first seals on the first faces of the components, the first seals being at least partially polymerized; - depositing the second seals on the second face of the components; and - shaping the second seals by compressing a stack formed from the components alternating with the molding plates, each molding plate having a bearing face pressed against the first face of a component and comprising a groove designed to receive, without deforming, the first seal previously formed on the first face of said component, and a molding face pressed against the second face of another component and having a molding surface for shaping the second seal deposited on the second face of said other component as a result of compressing the stack; and - at least partially polymerizing the second seals. - shaping the first seals on the first faces of the components, the first seals being at least partially polymerized; - depositing the second seals on the second face of the components; and - shaping the second seals by compressing a stack formed from the components alternating with the molding plates, each molding plate having a bearing face pressed against the first face of a component and comprising a groove designed to receive, without deforming, the first seal previously formed on the first face of said component, and a molding face pressed against the second face of another component and having a molding surface for shaping the second seal deposited on the second face of said other component as a result of compressing the stack; and - at least partially polymerizing the second seals.
A refrigerant circuit system (1, 1A, 1B; 1C), comprising: a compressor (10A, 10B; 10) configured to compress a refrigerant; a use-side heat exchanger configured to condense the refrigerant compressed by the compressor (10A, 10B; 10); an expansion valve configured to depressurize the refrigerant; a heat-source-side heat exchanger configured to evaporate the refrigerant depressurized by the expansion valve; an overheating heat exchanger configured to perform heat exchange between the refrigerant flowing into the expansion valve and the refrigerant flowing into the compressor (10A, 10B; 10) from the heat-source heat exchanger; a bypass circuit configured to bypass a flow of the refrigerant passing through the overheating heat exchanger; a flow rate adjustment unit configured to adjust a flow rate of the refrigerant passing through the overheating heat exchanger; means (31, 32) for obtaining a temperature related to the compressor (10A, 10B; 10); and a control device configured to control the flow rate adjustment unit, wherein the control device controls the flow rate adjustment unit so that a flow rate of the refrigerant passing through the overheating heat exchanger decreases if a temperature related to the compressor (10A, 10B; 10) is equal to or higher than a predetermined non-overheating switching control value, characterized in that the control device decreases the number of rotations of the compressor (10A, 10B; 10) if a temperature related to the compressor (10A, 10B; 10) is equal to or higher than a first predetermined limit value higher than the non-overheating switching control value. a compressor (10A, 10B; 10) configured to compress a refrigerant; a use-side heat exchanger configured to condense the refrigerant compressed by the compressor (10A, 10B; 10); an expansion valve configured to depressurize the refrigerant; a heat-source-side heat exchanger configured to evaporate the refrigerant depressurized by the expansion valve; an overheating heat exchanger configured to perform heat exchange between the refrigerant flowing into the expansion valve and the refrigerant flowing into the compressor (10A, 10B; 10) from the heat-source heat exchanger; a bypass circuit configured to bypass a flow of the refrigerant passing through the overheating heat exchanger; a flow rate adjustment unit configured to adjust a flow rate of the refrigerant passing through the overheating heat exchanger; means (31, 32) for obtaining a temperature related to the compressor (10A, 10B; 10); and a control device configured to control the flow rate adjustment unit, wherein the control device controls the flow rate adjustment unit so that a flow rate of the refrigerant passing through the overheating heat exchanger decreases if a temperature related to the compressor (10A, 10B; 10) is equal to or higher than a predetermined non-overheating switching control value, characterized in that the control device decreases the number of rotations of the compressor (10A, 10B; 10) if a temperature related to the compressor (10A, 10B; 10) is equal to or higher than a first predetermined limit value higher than the non-overheating switching control value.
Device for checking track magnets of inductive safeguard in rail-bound traffic, wherein the device has at least a module for generating an electromagnetic signal with a test frequency that serves to activate a constant current source, wherein the test frequency is continuously variable in a frequency range from 400 Hz to 2400 Hz, wherein the test-frequency-modulated output current of the constant current source is connected by means of a connecting device to the railway-line track magnets and excites the resonant circuit of the track magnet, and the device has measuring units for measuring the phase shift between current and voltage across the track magnet, wherein the device has at least three Frequency generators that can be activated separately or synchronously, wherein all frequency generators produce signals with the same frequency when synchronously activated, which can differ in terms of their phase position, characterised in that the phase difference is adjustable such that it is +45° between the output of the one frequency generator serving as reference and that of a further frequency generator and -45° between the reference signal and that of the second further frequency generator.
A method to synthesize a voice in a target style, comprising: receiving as input at least one waveform, each corresponding to an utterance in the target style; extracting features of the at least one waveform to create at least one embedding vector; using a voice identification system on an embedding vector of the at least one embedding vector, producing a known embedding vector corresponding to a voice identified by the voice identification system as being a closest correspondence to the embedding vector; designating the known embedding vector as an initial embedding vector for a speech synthesizer; adapting the speech synthesizer based on the initial embedding vector; and synthesizing a voice in the target style with the adapted speech synthesizer. receiving as input at least one waveform, each corresponding to an utterance in the target style; extracting features of the at least one waveform to create at least one embedding vector; using a voice identification system on an embedding vector of the at least one embedding vector, producing a known embedding vector corresponding to a voice identified by the voice identification system as being a closest correspondence to the embedding vector; designating the known embedding vector as an initial embedding vector for a speech synthesizer; adapting the speech synthesizer based on the initial embedding vector; and synthesizing a voice in the target style with the adapted speech synthesizer.
An otic pharmaceutical composition comprising: a therapeutically effective amount of a TrkB agonist, wherein the TrkB agonist is an antibody or a binding fragment thereof comprising light chain complementarity-determining regions (CDRs) comprising SEQ ID NOs: 14-16 and heavy chain CDRs comprising SEQ ID NOs: 17-19; and a pharmaceutical acceptable carrier, for use in a method of treating an otic condition, wherein the otic condition is selected from ototoxicity, chemotherapy induced hearing loss, excitotoxicity, sensorineural hearing loss, noise induced hearing loss, Meniere's Disease/Syndrome, endolymphatic hydrops, labyrinthitis, Ramsay Hunt's Syndrome, vestibular neuronitis, tinnitus, presbycusis, and microvascular compression syndrome, wherein the otic composition is capable of being administered on or near the round window membrane via intratympanic injection. a therapeutically effective amount of a TrkB agonist, wherein the TrkB agonist is an antibody or a binding fragment thereof comprising light chain complementarity-determining regions (CDRs) comprising SEQ ID NOs: 14-16 and heavy chain CDRs comprising SEQ ID NOs: 17-19; and a pharmaceutical acceptable carrier, for use in a method of treating an otic condition, wherein the otic condition is selected from ototoxicity, chemotherapy induced hearing loss, excitotoxicity, sensorineural hearing loss, noise induced hearing loss, Meniere's Disease/Syndrome, endolymphatic hydrops, labyrinthitis, Ramsay Hunt's Syndrome, vestibular neuronitis, tinnitus, presbycusis, and microvascular compression syndrome, wherein the otic composition is capable of being administered on or near the round window membrane via intratympanic injection.
Folding top for motor vehicles, wherein the folding top is adjustable between a closed position spanning a passenger compartment and an open position deposited in a storage space, comprising a multiplicity of roof bows arranged transversely with respect to the direction of travel, wherein the roof bows are attached to a roof kinematic system and are arranged on the passenger compartment side of the folding top or on the outer side of the vehicle, characterized in that the roof kinematic system components are at least partially arranged outside the passenger compartment and the folding top and serve as a roof rail for transporting luggage.
Adrenocorticotropic hormone (ACTH) peptide (ACTH 1-39 peptide) for use in delaying progression of Amyotrophic Lateral Sclerosis in an individual suspected of having, or predisposed to Amyotrophic Lateral Sclerosis, wherein the ACTH peptide is to be administered as a first dose and one or more subsequent doses.
An implantable medical device, comprising: a device housing, the device housing defining an interior; a first power source (102; 304; 510; 610) comprising a first plurality of substantially planar electrodes assembled in a first power source case, the first power source including at least a first power source face; an electronics module (150; 404; 504; 604) including a first substantially planar electronics face, and a second electronics face substantially opposed to the first substantially planar electronics face; and a second power source (104; 304; 510; 610) comprising a second plurality of substantially planar electrodes assembled in a second power source case, wherein the first power source, the electronics module, and the second power source are arranged in a stack in the interior of the device housing such that the first substantially planar electronics face is adjacent to, and substantially coextensive with, the first power source face, and the second power source is positioned adjacent to, and adapted to interface with, the second electronics face, wherein the first and second power source cases sandwich the electronics module. a device housing, the device housing defining an interior; a first power source (102; 304; 510; 610) comprising a first plurality of substantially planar electrodes assembled in a first power source case, the first power source including at least a first power source face; an electronics module (150; 404; 504; 604) including a first substantially planar electronics face, and a second electronics face substantially opposed to the first substantially planar electronics face; and a second power source (104; 304; 510; 610) comprising a second plurality of substantially planar electrodes assembled in a second power source case, wherein the first power source, the electronics module, and the second power source are arranged in a stack in the interior of the device housing such that the first substantially planar electronics face is adjacent to, and substantially coextensive with, the first power source face, and the second power source is positioned adjacent to, and adapted to interface with, the second electronics face, wherein the first and second power source cases sandwich the electronics module.