mhurhangee/ep-ind-claims huggingface dataset:
A regulating system (10; 110; 210) for a horology movement (2; 12; 22) comprising a first sub-system (11; 111; 211) coupled to a second sub-system (12; 112; 212), the first sub-system including: • a first oscillator (O11; 0111; 0211) which includes a first balance (B11; B111; B211) and a first balance spring (S11; S111; S211); • a first element (M11; M111; M211) for displacement of the first balance spring (S11; S111; S211), which is designed to displace an end or an attachment of the first balance spring under the effect of an impulse; and • a first element (A11; A111; A211) for activation of the first displacement element (M11; M111; M211), the activation taking place at an instant, or substantially at an instant, when the speed of the first balance (B11; B111; B211) is zero, i.e. at an instant, or substantially at an instant, when the first balance is in a minimum or maximum angular position. • a first oscillator (O11; 0111; 0211) which includes a first balance (B11; B111; B211) and a first balance spring (S11; S111; S211); • a first element (M11; M111; M211) for displacement of the first balance spring (S11; S111; S211), which is designed to displace an end or an attachment of the first balance spring under the effect of an impulse; and • a first element (A11; A111; A211) for activation of the first displacement element (M11; M111; M211), the activation taking place at an instant, or substantially at an instant, when the speed of the first balance (B11; B111; B211) is zero, i.e. at an instant, or substantially at an instant, when the first balance is in a minimum or maximum angular position.
An oral care composition comprising: ethylcellulose; a binder; acetyl tributyl citrate; a fluoride compound; a solvent; and fumed silica. ethylcellulose; a binder; acetyl tributyl citrate; a fluoride compound; a solvent; and fumed silica.
An apparatus for determining information regarding a tissue or an object at or within the tissue, comprising: a pill endoscope comprising at least one first arrangement and at least one second arrangement and a spectrometer, the pill endoscope being configured to be situated inside a particular organ of a body, wherein the particular organ is an esophagus, wherein the at least one first arrangement while being situated inside the particular organ is configured to cause a generation of at least one electromagnetic radiation in the tissue, wherein the tissue comprises (i) a heart, (ii) major vessels attached to the heart, (iii) coronary artery, and/or (iv) blood therein; and wherein the at least one second arrangement is configured to: (a) detect acoustic signals that are responsive to an interaction between the tissue and the at least one electromagnetic radiation, and (b) measure or determine at least one of (i) at least one characteristic of the tissue, or (ii) information regarding the object at or in the tissue based on the detected acoustic signals; wherein the spectrometer is configured to measure light reemitted from the tissue to determine an optical spectra of the tissue; and at least one balloon arrangement which is configured to position the pill endoscope at a particular location within the particular organ. a pill endoscope comprising at least one first arrangement and at least one second arrangement and a spectrometer, the pill endoscope being configured to be situated inside a particular organ of a body, wherein the particular organ is an esophagus, wherein the at least one first arrangement while being situated inside the particular organ is configured to cause a generation of at least one electromagnetic radiation in the tissue, wherein the tissue comprises (i) a heart, (ii) major vessels attached to the heart, (iii) coronary artery, and/or (iv) blood therein; and wherein the at least one second arrangement is configured to: (a) detect acoustic signals that are responsive to an interaction between the tissue and the at least one electromagnetic radiation, and (b) measure or determine at least one of (i) at least one characteristic of the tissue, or (ii) information regarding the object at or in the tissue based on the detected acoustic signals; (a) detect acoustic signals that are responsive to an interaction between the tissue and the at least one electromagnetic radiation, and (b) measure or determine at least one of (i) at least one characteristic of the tissue, or (ii) information regarding the object at or in the tissue based on the detected acoustic signals; wherein the spectrometer is configured to measure light reemitted from the tissue to determine an optical spectra of the tissue; and at least one balloon arrangement which is configured to position the pill endoscope at a particular location within the particular organ.
Distance measuring device for measuring a distance from a target object, comprising: a photon source for emitting photons to the target object; a photon detector, for detecting photons returning from the target object, an evaluation unit for determining the distance from the target object on the basis of a propagation time of photons, wherein the photon detector comprises a paralyzable photon-sensitive element having at least one SPAD, and a photo transmission element, characterized in that the photon transmission element is configured as a variable liquid-crystal attenuator; and the photon detector furthermore comprises a photon intensity measuring unit and a control unit, wherein the photon intensity measuring unit is configured as a light sensor designed to measure a light intensity impinging on the light sensor and to forward a corresponding measurement signal to the control unit; and wherein the control unit is designed to drive the photon transmission element configured as a variable liquid-crystal attenuator in accordance with the measurement signal and actively to vary the transmitted photon intensity in a manner dependent on the photon intensity measured by the photon intensity measuring unit. a photon source for emitting photons to the target object; a photon detector, for detecting photons returning from the target object, an evaluation unit for determining the distance from the target object on the basis of a propagation time of photons, wherein the photon detector comprises a paralyzable photon-sensitive element having at least one SPAD, and a photo transmission element, characterized in that the photon transmission element is configured as a variable liquid-crystal attenuator; and the photon detector furthermore comprises a photon intensity measuring unit and a control unit, wherein the photon intensity measuring unit is configured as a light sensor designed to measure a light intensity impinging on the light sensor and to forward a corresponding measurement signal to the control unit; and wherein the control unit is designed to drive the photon transmission element configured as a variable liquid-crystal attenuator in accordance with the measurement signal and actively to vary the transmitted photon intensity in a manner dependent on the photon intensity measured by the photon intensity measuring unit.
Process for producing organochlorosilanes in a fluidized bed reaction by reacting reaction gas, comprising organic compound having chlorine bound to carbon, with catalytic composition comprising silicon, copper catalysts and promoters, in which the fluidized bed reaction is carried out in a fluidized bed reactor, wherein the hydraulic diameter of the fluidized bed reactor d hyd, the superficial gas velocity in the fluidized bed reactor u L and the particle Sauter diameter of the catalytic composition d 32 are selected such that, in a Cartesian coordination system, in which Ar is plotted against Re, points on the surface are formed wherein the surface is limited by equations 1 and 2 Ar = 2 ⋅ 10 − 5 ⋅ R e 2 + 0,08 ∗ Re − 120 Ar = 2 ⋅ 10 − 5 ⋅ R e 2 − 1,07 ∗ Re + 14100 wherein the lower limit Ar = 0.5 and the upper limit Ar = 3000, where Ar is the dimensionless Archimedes number, which is determined by equation 3 Ar = g ⋅ d 32 3 v F 2 ⋅ ρ P − ρ F ρ F where g is the acceleration due to gravity [m/s 2], d 32 is the particle Sauter diameter [m], pp is the particle solid density [kg/m 3], ρ F is the fluid density [kg/m 3], ν F is the kinematic viscosity of the fluid [m 2 /s], where Re is the dimensionless Reynolds number, which is determined by equation 4 Re = u L ⋅ d hyd v F where u L is the superficial gas velocity in the fluidized bed reactor [m/s], d hyd is the hydraulic plant diameter [m] in the fluidized bed reactor, which is determined by equation 5 d hyd = 4 ∗ A q, free U ges, wet where A q,free is the free cross-sectional flow [m 2] in the fluidized bed reactor and U ges,wet corresponds to the wet circumference [m] in each case of all internals in the fluidized bed reactor, and wherein the hydraulic diameter of the fluidized bed reactor d hyd is from 0.2 m to 1.5 m. g is the acceleration due to gravity [m/s 2], d 32 is the particle Sauter diameter [m], pp is the particle solid density [kg/m 3], ρ F is the fluid density [kg/m 3], ν F is the kinematic viscosity of the fluid [m 2 /s], where Re is the dimensionless Reynolds number, which is determined by equation 4 u L is the superficial gas velocity in the fluidized bed reactor [m/s], d hyd is the hydraulic plant diameter [m] in the fluidized bed reactor, which is determined by equation 5 A q,free is the free cross-sectional flow [m 2] in the fluidized bed reactor and U ges,wet corresponds to the wet circumference [m] in each case of all internals in the fluidized bed reactor, and wherein the hydraulic diameter of the fluidized bed reactor d hyd is from 0.2 m to 1.5 m.
A system for the detection of one or more nucleic acid analytes in a liquid sample, the system comprising: (a) a first unit comprising (i) a permanent magnet defining a magnetic field; (ii) a support defining a well for holding the liquid sample, said well comprising magnetic particles having a mean particle diameter between 700 and 950 nm, preferably between 700 and 850 nm, and having an RF coil disposed about the well, the RF coil configured to detect a signal produced by exposing the liquid sample to a bias magnetic field created using the permanent magnet and an RF pulse sequence; and (iii) one or more electrical elements in communication with the RF coil, the electrical elements configured to amplify, rectify, transmit, and/or digitize the signal; and (b) a second unit comprising a removable cartridge sized to facilitate insertion into and removal from the system, wherein the removable cartridge is a modular cartridge comprising (i) a reagent module for holding one or more assay reagents, (ii) a detection module comprising a detection chamber for holding a liquid sample comprising the magnetic particles and the one or more analytes, and, optionally, (iii) a sterilizable inlet module, wherein the reagent module, the detection module, and, optionally, the sterilizable inlet module, can be assembled into the modular cartridge prior to use, and wherein the detection chamber is removable from the modular cartridge, preferably, wherein the system further comprises a system computer with processor for implementing an assay protocol and storing assay data, and wherein the removable cartridge further comprises (i) a readable label indicating the analyte to be detected, (ii) a readable label indicating the assay protocol to be implemented, (iii) a readable label indicating a patient identification number, (iv) a readable label indicating the position of assay reagents contained in the cartridge, or (v) a readable label comprising instructions for the programmable processor. (a) a first unit comprising (i) a permanent magnet defining a magnetic field; (ii) a support defining a well for holding the liquid sample, said well comprising magnetic particles having a mean particle diameter between 700 and 950 nm, preferably between 700 and 850 nm, and having an RF coil disposed about the well, the RF coil configured to detect a signal produced by exposing the liquid sample to a bias magnetic field created using the permanent magnet and an RF pulse sequence; and (iii) one or more electrical elements in communication with the RF coil, the electrical elements configured to amplify, rectify, transmit, and/or digitize the signal; and (b) a second unit comprising a removable cartridge sized to facilitate insertion into and removal from the system, wherein the removable cartridge is a modular cartridge comprising (i) a reagent module for holding one or more assay reagents, (ii) a detection module comprising a detection chamber for holding a liquid sample comprising the magnetic particles and the one or more analytes, and, optionally, (iii) a sterilizable inlet module,
A process for preparing a polypropylene having broad molecular weight distribution, the process comprising a continuous or batch prepolymerization and at least the following two stages of polymerization: a first stage of continuous liquid phase polymerization, which is homopolymerization of propylene carried out in the presence of a Ziegler-Natta catalyst and a less amount of hydrogen gas as a molecular weight control agent, to provide a high molecular weight fraction of the polypropylene; and a second stage of polymerization, which is homopolymerization of propylene carried out in the presence of the resulting polymer from the first stage of polymerization and a larger amount of the molecular weight control agent, to provide a low molecular weight fraction of the polypropylene, wherein either no external electron donor compound is used in the first stage of polymerization, while an external electron donor compound is used in the second stage of polymerization; or an amount of an external electron donor compound is used in the first stage of polymerization, while an amount, which is larger than that employed in the first stage of polymerization, of the external electron donor compound is used in the second stage of polymerization to give a final polymer having an isotacticity higher than that of the polymer produced in the first stage of polymerization, and wherein a ratio of the output of the first stage of polymerization to the output of the second stage of polymerization is in a range of from 30:70 to 70:30.
A battery-monitoring device comprising: a plurality of monitoring units configured to monitor states of batteries; and a control unit configured to communicate with the plurality of monitoring units by using identifying information that has been allocated to each of the plurality of monitoring units that are connected in series, wherein when a signal that has been output from a preceding control unit or monitoring unit has been input to each of the plurality of monitoring units, each of the monitoring units is configured to allocate as identifying information for itself identifying information that corresponds to at least one of a duty ratio, a frequency, and a number of pulses per unit time of the input signal, and to output to a subsequent monitoring unit a signal whose duty ratio, frequency, and/or number of pulses per unit time differs from the at least one of the duty ratio, the frequency, and the number of pulses per unit time of the input signal. a plurality of monitoring units configured to monitor states of batteries; and a control unit configured to communicate with the plurality of monitoring units by using identifying information that has been allocated to each of the plurality of monitoring units that are connected in series, wherein when a signal that has been output from a preceding control unit or monitoring unit has been input to each of the plurality of monitoring units, each of the monitoring units is configured to allocate as identifying information for itself identifying information that corresponds to at least one of a duty ratio, a frequency, and a number of pulses per unit time of the input signal, and to output to a subsequent monitoring unit a signal whose duty ratio, frequency, and/or number of pulses per unit time differs from the at least one of the duty ratio, the frequency, and the number of pulses per unit time of the input signal.
A method for detecting unauthorized accesses of secured online resources, the method being carried out in a network security system implemented in a computer or electronic device coupled to the secured online resources, the method comprising: collecting average parameter values during a data collection period, wherein the average parameter values include an average time between clicks for a specified website page and a website page view order in an average user activity session; monitoring a user activity session of a client; and determining if the user activity session is indicative of a hidden session by an attacker, wherein determining includes comparing a time between clicks for the specified website page during the user activity session to the average time between the clicks for the specified website page and comparing a website page view order for the user activity session with the website page view order in the average user activity session. collecting average parameter values during a data collection period, wherein the average parameter values include an average time between clicks for a specified website page and a website page view order in an average user activity session; monitoring a user activity session of a client; and determining if the user activity session is indicative of a hidden session by an attacker, wherein determining includes comparing a time between clicks for the specified website page during the user activity session to the average time between the clicks for the specified website page and comparing a website page view order for the user activity session with the website page view order in the average user activity session.
An MTC device authentication method, characterized by, comprising: performing, by an MTC gateway, mutual authentication with a core network node; performing, by the MTC gateway, mutual authentication with an MTC device; reporting, by the MTC gateway, a result of the mutual authentication with the MTC device to the core network node; and providing, by the MTC gateway, a non access stratum link protection key K between the MTC device and the core network node according to a key K1 or a key K2; wherein: the key K1 is a key generated in a process of the mutual authentication performed by the MTC gateway and the core network node, and the key K2 is a non access stratum key derived by the MTC gateway according to a key algorithm A1 and the key K1. performing, by an MTC gateway, mutual authentication with a core network node; performing, by the MTC gateway, mutual authentication with an MTC device; reporting, by the MTC gateway, a result of the mutual authentication with the MTC device to the core network node; and providing, by the MTC gateway, a non access stratum link protection key K between the MTC device and the core network node according to a key K1 or a key K2; wherein: the key K1 is a key generated in a process of the mutual authentication performed by the MTC gateway and the core network node, and the key K2 is a non access stratum key derived by the MTC gateway according to a key algorithm A1 and the key K1.
A joint for coupling a first object and a second object to each other, the joint comprising: - a sledge configured to be movably coupled to a guiding, - a saddle coupled to the sledge, - an elongated structure protruding from the saddle, - a first connector extending from the elongated structure to a first coupler configured to be coupled to the first object, - a second connector extending from the elongated structure to the first coupler, wherein the second connector is spaced apart from the first connector, - a first joint structure connected to the first coupler, - a second joint structure connected to the first coupler, - a third joint structure connected to a second coupler configured to be coupled to the second object, - a fourth joint structure connected to the second coupler, - and wherein the first joint structure is hinged to the third joint structure and the second joint structure is hinged to the fourth joint structure. - a sledge configured to be movably coupled to a guiding, - a saddle coupled to the sledge, - an elongated structure protruding from the saddle, - a first connector extending from the elongated structure to a first coupler configured to be coupled to the first object, - a second connector extending from the elongated structure to the first coupler, wherein the second connector is spaced apart from the first connector, - a first joint structure connected to the first coupler, - a second joint structure connected to the first coupler, - a third joint structure connected to a second coupler configured to be coupled to the second object, - a fourth joint structure connected to the second coupler, - and wherein the first joint structure is hinged to the third joint structure and the second joint structure is hinged to the fourth joint structure.
An implantable receiver coil assembly (206, 212) for an implantable medical device, the receiver coil comprising an external coil 206 and an internal coil 212, the external coil 206 and the internal coil 212 being spatially separated coil units and comprised by a housing 202 of an internal component 200, the spatial separation being along a thickness T of the housing; an insulated wire 210 following shape of the housing 202 to connect the external coil 206 to a hermetically sealed electronic circuitry 204 comprised within the housing 202, characterized in that following shape of the housing 202 comprises the insulated wire 210 running from the external coil 206 along an inner periphery, corresponding to thickness T of the housing, to the hermetically sealed electronic circuitry 204, and the inner periphery, along its thickness T, comprises a groove path comprising a depth such that the insulated wire 210, running within the groove path, is flush with surface of the inner periphery. an external coil 206 and an internal coil 212, the external coil 206 and the internal coil 212 being spatially separated coil units and comprised by a housing 202 of an internal component 200, the spatial separation being along a thickness T of the housing; an insulated wire 210 following shape of the housing 202 to connect the external coil 206 to a hermetically sealed electronic circuitry 204 comprised within the housing 202, characterized in that following shape of the housing 202 comprises the insulated wire 210 running from the external coil 206 along an inner periphery, corresponding to thickness T of the housing, to the hermetically sealed electronic circuitry 204, and the inner periphery, along its thickness T, comprises a groove path comprising a depth such that the insulated wire 210, running within the groove path, is flush with surface of the inner periphery.