mhurhangee/ep-ind-claims huggingface dataset:
A system for monitoring bearing health, the system comprising: at least one sensor (30, 31, 32, 36, 37, 38) for sensing temperature, vibration and overload, wherein the at least one sensor (30, 31, 32, 36, 37, 38) includes each of a temperature sensor, a vibration sensor, and an overload sensor. a fuzzy logic enabled device operatively connected to the at least one sensor, the fuzzy logic enabled device including a memory storing a fuzzy logic rule set presented in the following Table: Rule Set for Bearing Health Monitoring Temperature Overload Vibration Failure Low Low Low Low Low Low Medium Medium Low Low High High Low Medium Low Medium Low Medium Medium Medium Low Medium High High Low High Low High Low High Medium High Low High High High Medium Low Low Medium Medium Low Medium Medium Medium Low High High Medium Medium Low Medium Medium Medium Medium Medium Medium Medium High High Medium High Low High Medium High Medium High Medium High High High High Low Low High High Low Medium High High Low High High High Medium Low High High Medium Medium High High Medium High High High High Low High High High Medium High High High High Imminent the fuzzy logic enabled device being configured to determine a component (20, 22) condition based on an input from the at least one sensor, wherein the fuzzy logic enabled device employs the fuzzy logic rule set to determine a possibility of potential bearing (20, 22) failure. at least one sensor (30, 31, 32, 36, 37, 38) for sensing temperature, vibration and overload, wherein the at least one sensor (30, 31, 32, 36, 37, 38) includes each of a temperature sensor, a vibration sensor, and an overload sensor. a fuzzy logic enabled device operatively connected to the at least one sensor, the fuzzy logic enabled device including a memory storing a fuzzy logic rule set presented in the following Table: Rule Set for Bearing Health Monitoring Temperature Overload Vibration Failure Low Low Low Low Low Low Medium Medium Low Low High High Low Medium Low Medium Low Medium Medium Medium Low Medium High High Low High Low High Low High Medium High Low High High High Medium Low Low Medium Medium Low Medium Medium Medium Low High High Medium Medium Low Medium Medium Medium Medium Medium Medium Medium High High Medium High Low High Medium High Medium High Medium High High High High Low Low High High Low Medium High High Low High High High Medium Low High High Medium Medium High High Medium High High High High Low High High High Medium High High High High Imminent the fuzzy logic enabled device being configured to determine a component (20, 22) condition based on an input from the at least one sensor, wherein the fuzzy logic enabled device employs the fuzzy logic rule set to determine a possibility of potential bearing (20, 22) failure.
A film comprising: a matrix layer formed with a polyimide obtained from pyromellitic dianhydride and m-tolidine; a first adhesive layer formed on one surface of the matrix layer formed with first thermoplastic polyimide; and a second adhesive layer formed on the other surface of the matrix layer formed with second thermoplastic polyimide, wherein a maximum height roughness of a first interface between the matrix layer and the first adhesive layer and a maximum height roughness of a second interface between the matrix layer and the second adhesive layer are 1.0 μm or less, wherein the maximum height roughness is measured according to JIS B 0601. a matrix layer formed with a polyimide obtained from pyromellitic dianhydride and m-tolidine; a first adhesive layer formed on one surface of the matrix layer formed with first thermoplastic polyimide; and a second adhesive layer formed on the other surface of the matrix layer formed with second thermoplastic polyimide, wherein a maximum height roughness of a first interface between the matrix layer and the first adhesive layer and a maximum height roughness of a second interface between the matrix layer and the second adhesive layer are 1.0 μm or less, wherein the maximum height roughness is measured according to JIS B 0601.
A method of producing a modified panel, comprising: providing a panel, which has a first major face that is opposed to a second major face and at least one minor face extending between the major faces; providing a foam composition; applying the foam composition to a minor face of the panel; and curing the applied foam composition, thereby forming a layer of cured polymeric foam, wherein the cured polymeric foam is a polyurethane foam, a silicone foam or an epoxy foam, wherein the panel is selected from the group consisting of a man-made vitreous fibre (MMVF) panel and a wood wool cement panel. providing a panel, which has a first major face that is opposed to a second major face and at least one minor face extending between the major faces; providing a foam composition; applying the foam composition to a minor face of the panel; and curing the applied foam composition, thereby forming a layer of cured polymeric foam, wherein the cured polymeric foam is a polyurethane foam, a silicone foam or an epoxy foam, wherein the panel is selected from the group consisting of a man-made vitreous fibre (MMVF) panel and a wood wool cement panel.
Method for preparing the start-up of an internal combustion engine by means of a bolt-driven starter generator which has a stator winding and a rotor winding, wherein the starter generator is operated in such a way that its generated torque rises gradually over a time period of more than two rotor winding time constants, wherein the rotor winding is firstly energized, and a start of energization of the stator winding takes place as a function of an exciter current through the rotor winding and/or as a function of time.
A system to detect a source of a complex heart rhythm disorder, the system comprising: a plurality of sensors (20, 23) disposed at multiple locations in relation to a heart to sense heart activation signals; and a processor interfacing with the plurality of sensors (20, 23), wherein the processor is configured to: collect from the plurality of sensors data associated with the heart activation signals, the data comprising an activation onset time of each heart activation signal at each location such that a plurality of activation onset times within the heart activation signals at a plurality of locations is collected; generate an activation trail from the data based on the sequential order of the plurality of activation onset times within the heart activation signals at the plurality of locations, wherein the activation trail represents a discernible signature pattern indicative of a localized source responsible for perpetuation of the complex heart rhythm disorder; and generate a clinical representation that identifies a region of the heart associated with the localized source. a plurality of sensors (20, 23) disposed at multiple locations in relation to a heart to sense heart activation signals; and a processor interfacing with the plurality of sensors (20, 23), wherein the processor is configured to: collect from the plurality of sensors data associated with the heart activation signals, the data comprising an activation onset time of each heart activation signal at each location such that a plurality of activation onset times within the heart activation signals at a plurality of locations is collected; generate an activation trail from the data based on the sequential order of the plurality of activation onset times within the heart activation signals at the plurality of locations, wherein the activation trail represents a discernible signature pattern indicative of a localized source responsible for perpetuation of the complex heart rhythm disorder; and generate a clinical representation that identifies a region of the heart associated with the localized source. collect from the plurality of sensors data associated with the heart activation signals, the data comprising an activation onset time of each heart activation signal at each location such that a plurality of activation onset times within the heart activation signals at a plurality of locations is collected; generate an activation trail from the data based on the sequential order of the plurality of activation onset times within the heart activation signals at the plurality of locations, wherein the activation trail represents a discernible signature pattern indicative of a localized source responsible for perpetuation of the complex heart rhythm disorder; and generate a clinical representation that identifies a region of the heart associated with the localized source.
Gravure printing unit for printing onto a substrate (S; S') according to a gravure printing method, said gravure printing unit having a forme cylinder, which comprises on its circumference an image-forming pattern of recesses, and having an inking unit by which the pattern of recesses provided on the forme cylinder is inked, wherein the forme cylinder can be partially inked from an inking device via a first inking unit cylinder, which has recesses in the region of its outer cylindrical surface that correspond to recesses on the forme cylinder, and via a second inking unit cylinder, which cooperates with the first inking unit cylinder and which comprises ink-transferring elevations (524; 524') or raised areas on its circumference, characterized in that the first inking unit cylinder having the recesses is configured as temperature-controllable, in that control means are comprised, via which the temperature at the first inking unit cylinder can be varied in a targeted manner during operation, and in that for adjusting and/or modifying the transfer of ink during operation, a drive means (687; 783) is provided, by which a variation of the printing pressure (δ; δ1; δ2; 53) can be brought about in at least one of the nip points (776; 777; 778) between two inking unit cylinders and/or printing unit cylinders (512; 519; 531; 503) involved in the transfer of ink between inking device and printing nip, while physical contact between said cylinders is maintained.
Process for the production of an acoustically resistive structure that can be inserted in an alveolar structure so as to obtain a coating for the acoustic treatment, whereby said acoustically resistive structure comprises at least one porous layer and at least one reinforcement structure assembled by gluing, characterized in that it consists in: - Applying an amorphous-type adhesive on said at least one reinforcement structure, - Perforating or micro-perforating the reinforcement structure after the application of the amorphous-type adhesive, said adhesive not being altered at the peripheries of perforations or micro-perforations, and - Applying against the face of the reinforcement structure that is coated with amorphous-type adhesive said at least one porous layer. - Applying an amorphous-type adhesive on said at least one reinforcement structure, - Perforating or micro-perforating the reinforcement structure after the application of the amorphous-type adhesive, said adhesive not being altered at the peripheries of perforations or micro-perforations, and - Applying against the face of the reinforcement structure that is coated with amorphous-type adhesive said at least one porous layer.
An electrical connector assembly for coupling a first implantable medical device to a second implantable medical device (120; 122; 124), said electrical connector assembly comprising a male element having one or more male contacts adapted to be electrically coupled with said first implantable medical device and a female element comprising a socket having one or more correspondent female contacts adapted to be electrically coupled with said second implantable medical device (120; 122; 124) and adapted for receiving said one or more male contacts, characterised in that said one or more male contacts are sealed to said male element through a glass or ceramic sealing material, in that said male element is a feedthrough connector, in that said male contacts are feedthrough pins, and in that said female contacts of said socket comprise a contact structure comprised of a plurality of conductive elongated wires which extend along the internal surface of said female contact in a hyperboloid arrangement, thereby providing an electrical coupling between said female contact and the corresponding male contact in a plurality of points.
Method for managing a station for gravimetric dispensing of condensed gas in the liquid state, said station comprising a stationary storage tank, a dispensing circuit connected to the stationary tank and provided with a dispensing valve and a dispensing nozzle for connection to an onboard tank on a vehicle, a degassing circuit provided with a degassing valve and a degassing connector for connection to the onboard tank, the method comprising regulating the vapour pressure in the stationary tank to a target pressure (Pobjective), making it possible to control the vapour pressure in the stationary tank to maintain a pressure differential (ΔP) between the stationary tank and the onboard tank during a dispensing cycle where the onboard tank is connected to the dispensing circuit, so that the condensed gas in the liquid state can flow at a predetermined gravity flow rate from the stationary tank to the onboard tank, said method being characterised in that it comprises, before a dispensing cycle starts, steps of: estimating, on the basis of temperature measurements along the dispensing circuit, a first pressure value (Pmax), corresponding to a maximum pressure that will be reached in the onboard tank during a first phase of increasing the pressure of the dispensing cycle after it starts; estimating, on the basis of the temperature of the condensed gas in the liquid state delivered into the onboard tank and the composition of the condensed gas in the liquid state, a second pressure value, corresponding to the saturation pressure (Psat) reached in the onboard tank during a second phase of stabilisation of the pressure following the first phase of the dispensing cycle; the target pressure (Pobjective) of the stationary tank being calculated permanently between two successive dispensing cycles according to the estimation of said first and second pressure values. estimating, on the basis of temperature measurements along the dispensing circuit, a first pressure value (Pmax), corresponding to a maximum pressure that will be reached in the onboard tank during a first phase of increasing the pressure of the dispensing cycle after it starts; estimating, on the basis of the temperature of the condensed gas in the liquid state delivered into the onboard tank and the composition of the condensed gas in the liquid state, a second pressure value, corresponding to the saturation pressure (Psat) reached in the onboard tank during a second phase of stabilisation of the pressure following the first phase of the dispensing cycle; the target pressure (Pobjective) of the stationary tank being calculated permanently between two successive dispensing cycles according to the estimation of said first and second pressure values.
Composition comprising (a) at least 85 parts per weight (ppw) based on 100 ppw of the composition of a polypropylene, and (b) not more than 15 parts per weight (ppw) based on 100 ppw of the composition of a high density polyethylene (HDPE), wherein said high density polyethylene (HDPE) has particle top cut d 90 of below 1000 μm. (a) at least 85 parts per weight (ppw) based on 100 ppw of the composition of a polypropylene, and (b) not more than 15 parts per weight (ppw) based on 100 ppw of the composition of a high density polyethylene (HDPE),
A method of providing microwave energy by introducing an antenna comprising a flexible radiating element into or adjacent to a target material, the method comprising: delivering microwave energy through the antenna to the target material; obtaining a returned power measurement of the antenna; determining a change in an electrical length of the antenna using the returned power measurement and altering delivery of the microwave energy based on the change in electrical length. delivering microwave energy through the antenna to the target material; obtaining a returned power measurement of the antenna; determining a change in an electrical length of the antenna using the returned power measurement and altering delivery of the microwave energy based on the change in electrical length.
Bearing assembly for the rotatable connection of a rotary element, preferably designed as a soil roller, to a support frame associated with the rotary element, via at least one bearing journal and via at least one bearing unit comprising a bearing housing, the bearing unit being arranged on the rotary element or on the support frame by means of the bearing housing and the bearing journal being accordingly arranged on the support frame or on the rotary element, and the bearing unit being designed to compensate for an angular offset (α) between the longitudinal axes of the bearing housing and the bearing journal, the bearing unit comprising a sealing arrangement, that the sealing arrangement is designed to preferably at least approximately liquid-tightly and/or dust-tightly seal off a circumferential gap between bearing journal and bearing housing, characterized in that the bearing housing is designed to be at least approximately oil-tight and/or dust-tight by means of both the sealing arrangement, which seals the circumferential gap between the bearing journal and bearing housing and interacts with the bearing journal, and a detachable bearing cap, which has a circumferential sealing lip, in that the sealing arrangement comprises at least one rotating face, at least one bearing race and at least one first and one second bearing ring (19a, 19b), in that the rotating face and the bearing race are formed from a preferably identical and highly alloyed metal material, in that the rotating face and the bearing race each have at least one lapped, preferably polished, raceway (20a, 20b), preferably on the surfaces (20a, 20b) which face one another.
A method comprising: placing material by a material placement machine to form a composite structure; inspecting the placed composite structure for defects and electronically storing positional data defining a defect location of each of the defects; determining whether a defect detected by the inspecting is unacceptable for being outside certain predefined tolerances and criteria; characterized by: determining whether the defect determined to be unacceptable is repairable by the material placement machine without user intervention; and automatically causing the material placement machine to return to the defect location as defined by the positional data by electronically accessing the positional data and to place material sufficient for repairing, at the defect location, the defect determined to be unacceptable and repairable by the material placement machine without user intervention. placing material by a material placement machine to form a composite structure; inspecting the placed composite structure for defects and electronically storing positional data defining a defect location of each of the defects; determining whether a defect detected by the inspecting is unacceptable for being outside certain predefined tolerances and criteria; characterized by: determining whether the defect determined to be unacceptable is repairable by the material placement machine without user intervention; and automatically causing the material placement machine to return to the defect location as defined by the positional data by electronically accessing the positional data and to place material sufficient for repairing, at the defect location, the defect determined to be unacceptable and repairable by the material placement machine without user intervention. determining whether the defect determined to be unacceptable is repairable by the material placement machine without user intervention; and automatically causing the material placement machine to return to the defect location as defined by the positional data by electronically accessing the positional data and to place material sufficient for repairing, at the defect location, the defect determined to be unacceptable and repairable by the material placement machine without user intervention.
A method for degrading insoluble arabinoxylan-containing material in a xylan-containing material, comprising admixing said xylan-containing material with a xylanase comprising a polypeptide sequence shown herein as SEQ ID No. 3, SEQ ID No. 2, or SEQ ID No. 1; or a variant or homologue thereof having at least 75% identity with SEQ ID No. 3 or SEQ ID No. 2 or SEQ ID No. 1; or a polypeptide sequence which comprises SEQ ID No. 3, SEQ ID No. 2 or SEQ ID No. 1 with a conservative substitution of at least one and less than 15 of the amino acids; or a xylanase which is encoded by a nucleotide sequence shown herein as SEQ ID No. 6, SEQ ID No. 5 or SEQ ID No. 4, or a nucleotide sequence which can hybridize to SEQ ID No. 6, SEQ ID No. 5 or SEQ ID No. 4 under high stringency conditions, or a nucleotide sequence which has at least 75% identity with SEQ ID No. 6, SEQ ID No. 5 or SEQ ID No. 4, or a nucleotide sequence which differs from SEQ ID No. 6 or SEQ ID No. 5 or SEQ ID No. 4 due to the degeneracy of the genetic code.
A polypeptide comprising a sequence at least 70% identical to SEQ ID NO: 1, wherein the polypeptide comprises no more than 100 total amino acid residues.
A link determining method for an optical packet switching system, comprising: parsing out, by a control manager, routing information carried in an optical label of an optical packet before switching; generating, by the control manager, reference optical label information and an enabling signal according to the routing information; sending, by the control manager, the reference optical label information and the enabling signal to a link determining device; determining, by the control manager when the enabling signal is active, whether an alarm signal sent by the link determining device is received; and determining, by the control manager according to the alarm signal if the alarm signal sent by the link determining device is received, whether a link corresponding to the alarm signal is abnormal.
A folder superstructure comprising: a former; a first top of former roll located upstream of the former; and a second top of former roll forming a nip with the first top of former roll, characterized in that the first top of former roll has a compressible outer layer. a former; a first top of former roll located upstream of the former; and a second top of former roll forming a nip with the first top of former roll, characterized in that the first top of former roll has a compressible outer layer.
A method of wireless communication, comprising: transmitting channel state information reference signal, CSI-RS, configuration information of an interfering channel to a user equipment, UE, to mitigate interference caused by interfering CSI-RSs transmitted on the interfering channel, when a cell ID associated with the interfering channel is associated with a virtual cell ID. transmitting channel state information reference signal, CSI-RS, configuration information of an interfering channel to a user equipment, UE, to mitigate interference caused by interfering CSI-RSs transmitted on the interfering channel, when a cell ID associated with the interfering channel is associated with a virtual cell ID.