mhurhangee/ep-ind-claims huggingface dataset:
A method for monitoring a bearing equipping a rotary device, comprising: - a step of obtaining a vibration signal acquired by an accelerometer sensor, said vibration signal containing a vibrational signature of the bearing; - a step of processing the vibration signal comprising the elimination of a deterministic component of the vibration signal; - a step of obtaining, for a determined defect liable to affect the bearing, a characteristic theoretical frequency of this defect and a determined maximum deviation around this theoretical frequency; - a step (E40-E50) of computing, as a function of a cyclic frequency, a so-called integrated cyclic coherence of the processed vibration signal averaged over a predetermined band of spectral frequencies; - a step of estimating a so-called actual frequency of the defect on the basis of the integrated cyclic coherence, of the characteristic theoretical frequency of the defect and of the determined maximum deviation around this theoretical frequency; - a step of computing a diagnostic indicator of the defect by summing an integer number M of integrated cyclic coherences of the vibration signal evaluated as M cyclic frequencies respectively equal to M harmonics of the estimated actual frequency of the defect; - a step (E80-E90) of comparing the diagnostic indicator of the defect with a predetermined threshold for this defect; and - in the event of the threshold being exceeded by the diagnostic indicator, a step of detecting the defect on the bearing. - a step of obtaining a vibration signal acquired by an accelerometer sensor, said vibration signal containing a vibrational signature of the bearing; - a step of processing the vibration signal comprising the elimination of a deterministic component of the vibration signal; - a step of obtaining, for a determined defect liable to affect the bearing, a characteristic theoretical frequency of this defect and a determined maximum deviation around this theoretical frequency; - a step (E40-E50) of computing, as a function of a cyclic frequency, a so-called integrated cyclic coherence of the processed vibration signal averaged over a predetermined band of spectral frequencies; - a step of estimating a so-called actual frequency of the defect on the basis of the integrated cyclic coherence, of the characteristic theoretical frequency of the defect and of the determined maximum deviation around this theoretical frequency; - a step of computing a diagnostic indicator of the defect by summing an integer number M of integrated cyclic coherences of the vibration signal evaluated as M cyclic frequencies respectively equal to M harmonics of the estimated actual frequency of the defect; - a step (E80-E90) of comparing the diagnostic indicator of the defect with a predetermined threshold for this defect; and - in the event of the threshold being exceeded by the diagnostic indicator, a step of detecting the defect on the bearing.
A kit of smoking apparatus for forming a smoking article comprising: a container (10, 10'); a pouch of loose tobacco (1, 1') provided within the container (10, 10'); and a retaining member (5, 5') for retaining an elongate smoking article making element, characterised in that said retaining member is provided within the container (10, 10'); the kit further comprising: an elongate smoking article making element (3, 3') adhered to the retaining member (5, 5'), wherein said elongate smoking article making element is removable from the retaining member by a user. a container (10, 10'); a pouch of loose tobacco (1, 1') provided within the container (10, 10'); and a retaining member (5, 5') for retaining an elongate smoking article making element, characterised in that said retaining member is provided within the container (10, 10'); the kit further comprising: an elongate smoking article making element (3, 3') adhered to the retaining member (5, 5'), wherein said elongate smoking article making element is removable from the retaining member by a user.
A process for the transposition of β-pinene epoxide to myrtanal characterised in that it comprises carrying out a reaction with this epoxide in the presence of a microporous and crystalline catalyst with pores with a diameter of at least 0.52 nm that has an empirical formula in its calcinated and dehydrated form of H w (M w Ti x Sn y Zr z Si 1-w-x-y-z)O 2 where M is at least a metal with valence + 3 selected from Al, B, Ga, Fe, Cr and combinations of these; w is a molar fraction of M with a value of between 0 and 2(x + y + z); x is a molar fraction of titanium and has a value of between 0 and 0.06; y is a molar fraction of tin and has a value of between 0 and 0.06; z is a molar fraction of zirconium and has a value of between 0 and 0.06; and where at least one of the three values "x", "y" or "z" is different from zero. and wherein the catalyst has a crystalline structure with an X-ray diffractogram of a zeolite beta. M is at least a metal with valence + 3 selected from Al, B, Ga, Fe, Cr and combinations of these; w is a molar fraction of M with a value of between 0 and 2(x + y + z); x is a molar fraction of titanium and has a value of between 0 and 0.06; y is a molar fraction of tin and has a value of between 0 and 0.06; z is a molar fraction of zirconium and has a value of between 0 and 0.06; and where at least one of the three values "x", "y" or "z" is different from zero.
Switched power converter comprising a base plate on which a plurality of elongated heat sinks (2a, 2b, 2c) are arranged parallel to each other and which base plate further has two end faces (5a, 5b) at the respective ends of the base plate extending parallel to the elongated heat sinks, the power converter further comprising power transistors (3a, 3b, 3d) arranged on both sides of each heat sink, the converter further comprising a plurality of spring elements (4a, 4b, 4c, 4d), each being arranged to press against a first power transistor arranged on one side of the respective heat sink and a second power transistor arranged on the oppositely facing side of the adjacent heat sink when being arranged between two heat sinks, and being arranged to press against a base plate end face and a third power transistor arranged on the oppositely facing side of the adjacent heat sink when arranged between a base plate end face and a heat sink, said spring elements thereby applying a force to the power transistors for pressing the transistors against the heat sinks; and a printed circuit board on which the power transistors (3a, 3b, 3d) are mounted, which printed circuit board is arranged on top of the heat sinks (2a, 2b, 2c) with the transistors facing the base plate; the converter being characterized in that it further comprises a plurality of housings (8a, 8b, 8c, 8d) which are mounted on the board, each arranged to house the respective spring element (4a, 4b, 4c, 4d), said housings being arranged to fit between the first and the second power transistors in case the housing is to be inserted between two heat sinks and being arranged to fit between the third power transistor and one of the base plate end faces (5a, 5b) in case the housing is to be inserted between a heat sink and an end face.
A variable-speed gear arrangement for a vehicle, having a shaft, having a camshaft adjuster as a harmonic drive device for adjusting the shaft, wherein the harmonic drive device has an output gear, wherein the output gear defines a main axis of rotation, having a fastening means, wherein the shaft is connected to the output gear by the fastening means, wherein the fastening means presses the shaft and the output gear together in the axial direction so that a clamping connection is formed, wherein the clamping connection comprises at least the shaft and the output gear as clamping connection partners, characterized in that the output gear has a deformation portion, wherein the deformation portion has a contact surface and a deformation surface, wherein, in a first assembly state the deformation portion, contacts another of the clamping connection partners with the contact surface and, at the same time, the deformation surface forms a free deformation area to the clamping composite partner, wherein the contact surface is arranged radially outside the deformation area, and wherein in a second assembly state the contact surface and the deformation surface abut flatly against the other clamping connection partner.
A security element or document, such as a banknote, comprising: - a substrate with first and second sides (I, II) and exhibiting at least one window region made of a substantially transparent material; - a micro-optical structure provided on the first side of the substrate and extending over at least a part of the window region; and - a printed feature (P1-P3) printed on the second side of the substrate over at least a part of the window region, the printed feature (P1-P3) being provided in register with the micro-optical structure to produce an optically-variable effect upon looking at the printed feature (P1-P3) from the first side of the substrate through the micro-optical structure and the window region, wherein the security element or document further comprises a protective layer acting as printable primer layer and provided on the second side of the substrate over the window region and on top of the printed feature (P1-P3), which protective layer covers the printed feature (P1-P3) when seen from the second side of the substrate and further acts as a contrast-enhancing layer for the optically-variable effect, characterised in that the printed feature (P1-P3) is a multicolour feature printed by Simultan offset printing, wherein the protective layer is overprinted on top of the printed feature (P1-P3), wherein the protective layer is a layer having a substantially uniform colour appearance that closely matches that of an unprinted surface of the substrate, wherein the protective layer is applied by screen printing. - a substrate with first and second sides (I, II) and exhibiting at least one window region made of a substantially transparent material; - a micro-optical structure provided on the first side of the substrate and extending over at least a part of the window region; and - a printed feature (P1-P3) printed on the second side of the substrate over at least a part of the window region, the printed feature (P1-P3) being provided in register with the micro-optical structure to produce an optically-variable effect upon looking at the printed feature (P1-P3) from the first side of the substrate through the micro-optical structure and the window region,
A heating element for shaving razor comprising: an insulating member having a base and at least one electrical terminal (60a, 60b, 60c, 60d and 60e); the heating element being characterized by: a flexible printed circuit board having a base with at least one electrical terminal (54a, 54b, 54c, 54d and 54e) electrically and mechanically coupled to the corresponding electrical terminal (60a, 60b, 60c, 60d and 60e) of the insulating member; and a non electrically conductive underfiller encapsulant between the base of the insulating member and the base of the flexible printed circuit board, wherein the underfiller encapsulant provides a water tight seal around the electrical terminals. an insulating member having a base and at least one electrical terminal (60a, 60b, 60c, 60d and 60e); the heating element being characterized by: a flexible printed circuit board having a base with at least one electrical terminal (54a, 54b, 54c, 54d and 54e) electrically and mechanically coupled to the corresponding electrical terminal (60a, 60b, 60c, 60d and 60e) of the insulating member; and a non electrically conductive underfiller encapsulant between the base of the insulating member and the base of the flexible printed circuit board, wherein the underfiller encapsulant provides a water tight seal around the electrical terminals. a flexible printed circuit board having a base with at least one electrical terminal (54a, 54b, 54c, 54d and 54e) electrically and mechanically coupled to the corresponding electrical terminal (60a, 60b, 60c, 60d and 60e) of the insulating member; and a non electrically conductive underfiller encapsulant between the base of the insulating member and the base of the flexible printed circuit board, wherein the underfiller encapsulant provides a water tight seal around the electrical terminals.
An RF tag system for conducting radio communications between an RF tag reader and an RF tag (20, 30) using radio waves of VHF band or above, the RF tag system is configured for operating in an environment with a scheduled start semi-passive RF tag and a remote start semi-passive RF tag, the RF tag reader is configured for reading and writing both of the RF tags (20, 30), in the scheduled start semi-passive RF tag, an RF signal from the RF tag reader is received, and an impedance is converted in a resonant stub voltage multiplier circuit that detects a query from the RF tag reader; and in the remote start semi-passive RF tag, the RF signal from the RF tag reader is received, the RF signal is subjected to voltage boost and to ASK demodulation in a stub resonance voltage multiplier-rectifier circuit, a pulse code key detecting circuit is configured to check a remote start key and is configured to take the signal as power feed for operation, and a signal is outputted to feed power to a control circuit, only when the remote start key is matched with a unique key of the remote start semi-passive RF tag, and the pulse code key detecting circuit determines whether a pulse width is within a certain range. the RF tag system is configured for operating in an environment with a scheduled start semi-passive RF tag and a remote start semi-passive RF tag, the RF tag reader is configured for reading and writing both of the RF tags (20, 30), in the scheduled start semi-passive RF tag, an RF signal from the RF tag reader is received, and an impedance is converted in a resonant stub voltage multiplier circuit that detects a query from the RF tag reader; and in the remote start semi-passive RF tag, the RF signal from the RF tag reader is received, the RF signal is subjected to voltage boost and to ASK demodulation in a stub resonance voltage multiplier-rectifier circuit, a pulse code key detecting circuit is configured to check a remote start key and is configured to take the signal as power feed for operation, and a signal is outputted to feed power to a control circuit, only when the remote start key is matched with a unique key of the remote start semi-passive RF tag, and the pulse code key detecting circuit determines whether a pulse width is within a certain range.
A method for evaluating a subject's responsiveness to treatment with a Psap peptide, the method comprising: determining a level of CD36 in a sample obtained from a subject having cancer, wherein an elevated level of CD36 in the sample compared to a control level indicates that the subject is responsive to or likely to be responsive to treatment with a Psap peptide, wherein the Psap peptide consists of the amino acid sequence DWLPK (SEQ ID NO: 2) or an amino acid substitution variant thereof, wherein the amino acid substitution is: a) Tyrosine for Tryptophan; b) an amino acid substitution for Leucine selected from Valine orAlanine, or a non-canonical amino acid of similar size, or a derivative thereof; c) Arginine for Lysine; d) a D-isomer of Aspartic Acid for an L-isomer of Aspartic Acid and/or a D-isomer of Leucine for a L-isomer of Leucine; e) a D-isomer of Tryptophan for an L-isomer of Tryptophan and/or a D-isomer of Proline for an L-isomer of Proline; or combinations thereof. a) Tyrosine for Tryptophan; b) an amino acid substitution for Leucine selected from Valine orAlanine, or a non-canonical amino acid of similar size, or a derivative thereof; c) Arginine for Lysine; d) a D-isomer of Aspartic Acid for an L-isomer of Aspartic Acid and/or a D-isomer of Leucine for a L-isomer of Leucine; e) a D-isomer of Tryptophan for an L-isomer of Tryptophan and/or a D-isomer of Proline for an L-isomer of Proline; or combinations thereof.
A method for purifying an easily polymerizable substance by distillation, comprising: a step of introducing a crude liquid containing the easily polymerizable substance into a distillation column, a step of discharging a bottoms liquid from a collection part of the distillation column, and a first separation step of introducing the bottoms liquid into a wet cyclone, to separate a first purified liquid containing the easily polymerizable substance from a liquid containing an insoluble solid, wherein the easily polymerizable substance is an unsaturated carboxylic acid or an ester thereof. a step of introducing a crude liquid containing the easily polymerizable substance into a distillation column, a step of discharging a bottoms liquid from a collection part of the distillation column, and a first separation step of introducing the bottoms liquid into a wet cyclone, to separate a first purified liquid containing the easily polymerizable substance from a liquid containing an insoluble solid, wherein the easily polymerizable substance is an unsaturated carboxylic acid or an ester thereof.
A method of processing in real-time a data stream exchanged between a source (10.1;10.2) and a server over a telecommunications network, the method being carried out by a classifier, said classifier storing a set of at least one test, and a list of existing TCP connections, the method comprising: - receiving a TCP segment of the data stream, the TCP segment including data payload, said payload comprising at least a portion of a HTTP message; - identifying a first TCP connection to which the TCP segment belongs or creating a new first TCP connection for the received TCP segment; - detecting, in the portion of the HTTP message, presence of JSON data; - in the case where JSON data is detected, building a tree graph based on the JSON data; - performing at least one test of the set on properties of the built tree graph to determine whether the JSON data is invalid; - if the JSON data is invalid, interrupting the first TCP connection; wherein if the JSON data is not classified as invalid after performing the at least one test, then a semantic classification based on JSON schema completed with JSON content specification is performed on the JSON data to classify the JSON data as valid or invalid.. - receiving a TCP segment of the data stream, the TCP segment including data payload, said payload comprising at least a portion of a HTTP message; - identifying a first TCP connection to which the TCP segment belongs or creating a new first TCP connection for the received TCP segment; - detecting, in the portion of the HTTP message, presence of JSON data; - in the case where JSON data is detected, building a tree graph based on the JSON data; - performing at least one test of the set on properties of the built tree graph to determine whether the JSON data is invalid; - if the JSON data is invalid, interrupting the first TCP connection;
System of ventilation of the electrical machine rotor, consisting of a shell enclosing a shaft; the ventilation system consists of the shell placed under the winding coils' ends; the space between the shell and the shaft to provide the cooling air feed to the rotor; radial spacers between the adjacent coils' sides; ventilation ducts for cooling of coils' ends; space between the shell and the lower turns of the coils' ends, divided with the longitudinal spacers mounted therein into the zones of the cooling air inlet to the ventilation ducts and the zones of the cooling air outlet from the ventilation ducts, characterized in that the longitudinal spacers are mounted opposite the rotor teeth at a pitch of a rotor slot; the shell at the zones of the cooling air inlet to the ventilation ducts is provided with radial ducts made at a pitch of two rotor slots; ventilation ducts are U-shaped and made in the radial spacers; the system of ventilation being configured such that cooling air goes under the shell along the shaft, and a certain part of the airflow is used for cooling of the coils' ends; wherein cooling airflow enters the inlet zones via radial ducts of the shell, goes by ventilation ducts, cooling the coils' ends, and is discharged at the outlet zones; and wherein cooling air outflow goes from outlet zones either in the direction of the coil ends closing or in the direction of the rotor slotted part.
Method to prepare water-soluble polymers by inverse emulsions polymerization comprising (i) preparation of an aqueous monomer solution, if necessary, adjusting pH value of the aforementioned monomer solution, (ii) preparation of an organic solution consisting of a water-immiscible organic liquid that does not interfere with the radical polymerization reaction in step (iv) and (v), said organic solution containing one or more surfactants, (iii) addition of the aqueous phase of step (i) to the organic phase of step (ii) to prepare a water-in-oil emulsion, (iv) removal of oxygen and initiation of the polymerization reaction by addition of an initiator system, (v) adjusting the reaction temperature by cooling and/or heating to allow complete polymerization of the monomers into a polymer, (vi) optionally addition of an inverter surfactant for facilitated inversion or further additives, wherein the initiator system of step (iv) is a redox initiator system, said redox initiator system consisting of at least one oxidizing agent and at least one reducing agent, and wherein the oxidizing agent is first added to the reaction mixture followed by the all-at-once addition of the reducing agent that optionally also removes residual oxygen, said water-soluble polymer preferably is a synthetic polymer, preferably a copolymer or terpolymer. (i) preparation of an aqueous monomer solution, if necessary, adjusting pH value of the aforementioned monomer solution, (ii) preparation of an organic solution consisting of a water-immiscible organic liquid that does not interfere with the radical polymerization reaction in step (iv) and (v), said organic solution containing one or more surfactants, (iii) addition of the aqueous phase of step (i) to the organic phase of step (ii) to prepare a water-in-oil emulsion, (iv) removal of oxygen and initiation of the polymerization reaction by addition of an initiator system, (v) adjusting the reaction temperature by cooling and/or heating to allow complete polymerization of the monomers into a polymer, (vi) optionally addition of an inverter surfactant for facilitated inversion or further additives,