mhurhangee/ep-ind-claims huggingface dataset:
A bicycle helmet for protecting the head of a wearer, the helmet comprising: an outer shell; an energy dissipating inner layer coupled to the outer shell, the inner layer defining an inner surface; a pair of front attachment locations integrally formed with the energy dissipating inner layer and inwardly offset from the inner surface at a frontal portion of the helmet, wherein the front attachment locations are located one-quarter to one-third of the helmet periphery from the frontal portion of the helmet with one front attachment location located on each side of the helmet; a rear attachment location inwardly offset from the inner surface at a rear portion of the helmet; and an internal ventilation system configured for direct engagement with the head of the wearer for supporting the helmet upon the head of the wearer, wherein the internal ventilation system, the front attachment locations, and the rear attachment location cooperate to define a gap between the head of the wearer and the inner surface, wherein the internal ventilation system comprises a finger having a portion coupled to a front attachment location and a distal end coupled to the rear attachment location, and wherein the entire finger between the front attachment location and the rear attachment location is offset from the inner surface wherein a first portion of the gap is formed as a forehead gap that extends between the pair of front attachment locations. an outer shell; an energy dissipating inner layer coupled to the outer shell, the inner layer defining an inner surface; a pair of front attachment locations integrally formed with the energy dissipating inner layer and inwardly offset from the inner surface at a frontal portion of the helmet, wherein the front attachment locations are located one-quarter to one-third of the helmet periphery from the frontal portion of the helmet with one front attachment location located on each side of the helmet; a rear attachment location inwardly offset from the inner surface at a rear portion of the helmet; and an internal ventilation system configured for direct engagement with the head of the wearer for supporting the helmet upon the head of the wearer, wherein the internal ventilation system, the front attachment locations, and the rear attachment location cooperate to define a gap between the head of the wearer and the inner surface, wherein the internal ventilation system comprises a finger having a portion coupled to a front attachment location and a distal end coupled to the rear attachment location, and wherein the entire finger between the front attachment location and the rear attachment location is offset from the inner surface wherein a first portion of the gap is formed as a forehead gap that extends between the pair of front attachment locations.
A compound that is N-(2-amino-1-(3-chloro-5-fluorophenyl)ethyl)-1-(5-methyl-2-((tetrahydro-2H-pyran-4-yl)amino)pyrimidin-4-yl)-1H-imidazole-4-carboxamide: or a pharmaceutically acceptable salt, solvate, hydrate, or stereoisomer thereof.
A power tool comprising: an electric brushless direct current (BLDC) motor (302; 362) having a rotor and a stator defining a plurality of phases; a power unit (306; 366) including: a first switch circuit (328; 386) connected electrically between a first power supply (312; 370) and the motor (302; 362), and a second switch circuit (326; 388) connected electrically between a second power supply (310; 372) and the motor (302; 362); and a controller (330; 390) configured to control a switching operation of the first switch circuit and the second switch circuit to regulate a supply of power from at least one of the first power supply and/or the second power supply to the motor; wherein the stator defines three phases (PU, PV, PW) with each phase (PU, PV, PW) corresponding to two windings electrically connected, wherein each of the first switch circuit and the second switch circuit is configured as a three-phase inverter circuit; characterized in that each phase (PU, PV, PW) is electrically coupled to both the first switch circuit and the second switch circuit and is selectively driven by one of the first switch circuit or the second switch circuit. an electric brushless direct current (BLDC) motor (302; 362) having a rotor and a stator defining a plurality of phases; a power unit (306; 366) including: a first switch circuit (328; 386) connected electrically between a first power supply (312; 370) and the motor (302; 362), and a second switch circuit (326; 388) connected electrically between a second power supply (310; 372) and the motor (302; 362); and a controller (330; 390) configured to control a switching operation of the first switch circuit and the second switch circuit to regulate a supply of power from at least one of the first power supply and/or the second power supply to the motor; wherein the stator defines three phases (PU, PV, PW) with each phase (PU, PV, PW) corresponding to two windings electrically connected, wherein each of the first switch circuit and the second switch circuit is configured as a three-phase inverter circuit; characterized in that each phase (PU, PV, PW) is electrically coupled to both the first switch circuit and the second switch circuit and is selectively driven by one of the first switch circuit or the second switch circuit.
Method for protecting lines, in which a reactor device (7, 8, 27-30) for reactive power compensation is provided on an electrical line (2, L1, L2, L3), and a resonant current (I CT) is measured on the line side of the reactor device (7, 8, 27-30) by means of a first measuring device (9, 24-26) after opening of a circuit breaker (5, 21-23), characterized in that a voltage is measured by means of a second line-side measuring device (10, 31-33) after opening of the circuit breaker (5, 21-23), and in that a current (I SH) in the reactor device is calculated by means of an evaluation device on the basis of the measured voltage, and the calculated current (I SH) is subtracted from the measured resonant current (I CT) by means of the evaluation device in order to obtain a corrected current (I CB). a reactor device (7, 8, 27-30) for reactive power compensation is provided on an electrical line (2, L1, L2, L3), and a resonant current (I CT) is measured on the line side of the reactor device (7, 8, 27-30) by means of a first measuring device (9, 24-26) after opening of a circuit breaker (5, 21-23), characterized in that a voltage is measured by means of a second line-side measuring device (10, 31-33) after opening of the circuit breaker (5, 21-23), and in that a current (I SH) in the reactor device is calculated by means of an evaluation device on the basis of the measured voltage, and the calculated current (I SH) is subtracted from the measured resonant current (I CT) by means of the evaluation device in order to obtain a corrected current (I CB).
A method, comprising: receiving wireless signals transmitted through a space over a time period, wherein the wireless signals are transmitted between wireless communication devices (204A, 204B, 204C) in a wireless communication network and are formatted according to a wireless communication standard; identifying a first training field and a second, different training field in an orthogonal frequency-division multiplexing (OFDM)-based PHY frame of each wireless signal; characterized by generating, for each wireless signal: a first time-domain channel estimate based on a first frequency-domain signal included in the first training field of the wireless signal; and a second time-domain channel estimate based on a second frequency-domain signal included in the second training field of the wireless signal, wherein a temporal resolution of the first time-domain channel estimate is lower than a temporal resolution of the second time-domain channel estimate; determining whether motion has occurred in the space during the time period based on the first time-domain channel estimates; and determining a location of the motion within the space based on the second time-domain channel estimates. receiving wireless signals transmitted through a space over a time period, wherein the wireless signals are transmitted between wireless communication devices (204A, 204B, 204C) in a wireless communication network and are formatted according to a wireless communication standard; identifying a first training field and a second, different training field in an orthogonal frequency-division multiplexing (OFDM)-based PHY frame of each wireless signal; characterized by generating, for each wireless signal: a first time-domain channel estimate based on a first frequency-domain signal included in the first training field of the wireless signal; and a second time-domain channel estimate based on a second frequency-domain signal included in the second training field of the wireless signal, wherein a temporal resolution of the first time-domain channel estimate is lower than a temporal resolution of the second time-domain channel estimate; a first time-domain channel estimate based on a first frequency-domain signal included in the first training field of the wireless signal; and a second time-domain channel estimate based on a second frequency-domain signal included in the second training field of the wireless signal, wherein a temporal resolution of the first time-domain channel estimate is lower than a temporal resolution of the second time-domain channel estimate; determining whether motion has occurred in the space during the time period based on the first time-domain channel estimates; and determining a location of the motion within the space based on the second time-domain channel estimates.
A composition comprising (i) a nucleic acid encapsulated in a biocompatible, hydrophobic, non-bioerodible, polymeric microparticle, wherein: (a) the microparticle comprises a biocompatible, hydrophobic, non-bioerodible polymer; (b) the microparticle does not release a detectable amount of the nucleic acid for at least one month after delivery to an individual's skin; and (c) the microparticle comprises up to 10 % (w/w) nucleic acid; and (ii) a tattoo ink, wherein the ink comprises at least one pigment or dye. (i) a nucleic acid encapsulated in a biocompatible, hydrophobic, non-bioerodible, polymeric microparticle, wherein: (a) the microparticle comprises a biocompatible, hydrophobic, non-bioerodible polymer; (b) the microparticle does not release a detectable amount of the nucleic acid for at least one month after delivery to an individual's skin; and (c) the microparticle comprises up to 10 % (w/w) nucleic acid; and (a) the microparticle comprises a biocompatible, hydrophobic, non-bioerodible polymer; (b) the microparticle does not release a detectable amount of the nucleic acid for at least one month after delivery to an individual's skin; and (c) the microparticle comprises up to 10 % (w/w) nucleic acid; and (ii) a tattoo ink, wherein the ink comprises at least one pigment or dye.
A device for puncturing a tire of a fleeing vehicle, comprising: - at least one puncturing module having a lower face; - a support for said puncturing module(s) having an upper face; - an interfacial zone in which the faces and face each other; - said puncturing module(s) comprising at least two puncturing members, means for grouping the puncturing members allowing them to be kept sufficiently spaced to limit their number, but sufficiently close for at least one puncturing member to damage said tire of said fleeing vehicle, and at least two positioning means of the puncturing members holding the puncturing members in a position allowing them to present the puncturing member to said tire at the desired angle, while being adapted and configured to permit the detachment of said puncturing members, - said puncturing module or modules and said support being connected by a connecting means which forms a favoured rupture zone having the capacity to break when a fleeing vehicle passes or when the support is reloaded in puncturing module or modules, situated in said interface zone ZI; characterized in that: - said at least two puncturing members are detachable from the corresponding puncturing module; and - said means for grouping the puncturing members is a carrier plate. - at least one puncturing module having a lower face; - a support for said puncturing module(s) having an upper face; - an interfacial zone in which the faces and face each other; - said puncturing module(s) comprising at least two puncturing members, means for grouping the puncturing members allowing them to be kept sufficiently spaced to limit their number, but sufficiently close for at least one puncturing member to damage said tire of said fleeing vehicle, and at least two positioning means of the puncturing members holding the puncturing members in a position allowing them to present the puncturing member to said tire at the desired angle, while being adapted and configured to permit the detachment of said puncturing members, - said puncturing module or modules and said support being connected by a connecting means which forms a favoured rupture zone having the capacity to break when a fleeing vehicle passes or when the support is reloaded in puncturing module or modules, situated in said interface zone ZI; - said at least two puncturing members are detachable from the corresponding puncturing module; and - said means for grouping the puncturing members is a carrier plate.
A method for centrally controlling of the handling telecommunications features comprising: receiving, at a centralized data-processing system (203-1, 203-N), a first message from a first client endpoint that is a member of a private domain, wherein said first client endpoint attempts to subscribe to a first telecommunications feature via said first message; determining, at said centralized data-processing system (203-1, 203-N) and based at least in part upon a capability of at least one member of the private domain, which one of: a designated client endpoint (202-2, 202-M) that is a member of said private domain, and said centralized data-processing system (203-1, 203-N) is to handle said first telecommunications feature; and when said first telecommunications feature is to be handled by said designated client endpoint (202-2, 202-M), transmitting a second message from said centralized data-processing system (203-1, 203-N) to at least one member client endpoint (202-1, 202-M) in said private domain, wherein said second message is transmitted after receiving said first message, wherein all of the client endpoints in said private domain share at least one attribute. receiving, at a centralized data-processing system (203-1, 203-N), a first message from a first client endpoint that is a member of a private domain, wherein said first client endpoint attempts to subscribe to a first telecommunications feature via said first message; determining, at said centralized data-processing system (203-1, 203-N) and based at least in part upon a capability of at least one member of the private domain, which one of: a designated client endpoint (202-2, 202-M) that is a member of said private domain, and said centralized data-processing system (203-1, 203-N) a designated client endpoint (202-2, 202-M) that is a member of said private domain, and said centralized data-processing system (203-1, 203-N) is to handle said first telecommunications feature; and when said first telecommunications feature is to be handled by said designated client endpoint (202-2, 202-M), transmitting a second message from said centralized data-processing system (203-1, 203-N) to at least one member client endpoint (202-1, 202-M) in said private domain, wherein said second message is transmitted after receiving said first message, wherein all of the client endpoints in said private domain share at least one attribute.
A fluoropolymer medical device comprising: an elongated tubular fluoropolymer body having an outer surface, a proximal end portion, a distal end portion, and a lumen extending at least partially through the distal end portion; one or more ceramic coatings, the one or more ceramic coatings being deposited on the outer surface of the elongated tubular fluoropolymer body by a technique selected from atomic layer deposition, pulsed laser deposition, molecular beam epitaxy, sputter deposition, laser induced forward transfer, matrix assisted pulsed laser evaporation, and matrix assisted pulsed laser evaporation direct write; and one or more outer coatings, the one or more outer coatings independently comprising an ink coating or an adhesive coating, the one or more outer coatings being adhered to the one or more ceramic coatings. an elongated tubular fluoropolymer body having an outer surface, a proximal end portion, a distal end portion, and a lumen extending at least partially through the distal end portion; one or more ceramic coatings, the one or more ceramic coatings being deposited on the outer surface of the elongated tubular fluoropolymer body by a technique selected from atomic layer deposition, pulsed laser deposition, molecular beam epitaxy, sputter deposition, laser induced forward transfer, matrix assisted pulsed laser evaporation, and matrix assisted pulsed laser evaporation direct write; and one or more outer coatings, the one or more outer coatings independently comprising an ink coating or an adhesive coating, the one or more outer coatings being adhered to the one or more ceramic coatings.
A safety circuit for an elevator system, comprising a first circuit having a plurality of switching contacts (6.1, 6.2, 6.n) and a second circuit having a plurality of switching contacts (5.1, 5.2, 5.n), wherein the switching contacts (6.1, 6.2, 6.n) of the first circuit are connected in series and the switching contacts (5.1, 5.2, 5.n) of the second circuit are connected in parallel, characterized in that at least one switching contact (6.1, 6.2, 6.n) of the first circuit is associated with a switching contact (5.1, 5.2, 5.n) of the second circuit, and that the switching states of two switching contacts (6.1, 5.1) associated with one another are in opposite switching states.
A method for preparing calcium monohydrogen phosphate comprising the steps of: a) digesting in an aqueous medium, for a first period of time, a source of phosphate using an acid, with a pulp being formed comprising an aqueous phase containing calcium phosphate in solution and a solid phase containing impurities, b) a first separation between said aqueous phase containing calcium phosphate in solution and said solid phase containing impurities, for a second period of time, c) neutralizing said aqueous phase containing calcium phosphate in solution to a pH sufficient to obtain a precipitation in an aqueous medium of calcium phosphate insoluble as said calcium monohydrogen phosphate, and d) a second separation between said aqueous medium and said calcium monohydrogen phosphate, characterised in that said first period of time of said step a) of digestion is greater than said second period of time of said step b) above. a) digesting in an aqueous medium, for a first period of time, a source of phosphate using an acid, with a pulp being formed comprising an aqueous phase containing calcium phosphate in solution and a solid phase containing impurities, b) a first separation between said aqueous phase containing calcium phosphate in solution and said solid phase containing impurities, for a second period of time, c) neutralizing said aqueous phase containing calcium phosphate in solution to a pH sufficient to obtain a precipitation in an aqueous medium of calcium phosphate insoluble as said calcium monohydrogen phosphate, and d) a second separation between said aqueous medium and said calcium monohydrogen phosphate,
A method of obtaining measurement values from a plurality of input channels, the method comprising: receiving, at a multiplexer device, a plurality of input signals representing respective measurement values from a corresponding plurality of input channels; and the multiplexer device alternately selecting between the plurality of input channels and processing the input signals to thereby generate a multiplexed output signal, wherein the multiplexed output signal includes a sequence of values representing respective measurement values for one or more of the input channels from which input signals were provided to the multiplexer device, characterized in that the multiplexer device when generating the multiplexed output signal encodes the measurement values for the plurality of input channels from which input signals were provided to the multiplexer device in such a manner that respective measurement values from different ones of the plurality of input channels can be identified directly from the multiplexed output signal. receiving, at a multiplexer device, a plurality of input signals representing respective measurement values from a corresponding plurality of input channels; and the multiplexer device alternately selecting between the plurality of input channels and processing the input signals to thereby generate a multiplexed output signal, wherein the multiplexed output signal includes a sequence of values representing respective measurement values for one or more of the input channels from which input signals were provided to the multiplexer device, characterized in that the multiplexer device when generating the multiplexed output signal encodes the measurement values for the plurality of input channels from which input signals were provided to the multiplexer device in such a manner that respective measurement values from different ones of the plurality of input channels can be identified directly from the multiplexed output signal.