mhurhangee/ep-ind-claims huggingface dataset:
Hose which, in particular, transports a coolant and has at least the following layer structure: - an inner layer composed of a crosslinked rubber mixture which acts, in particular, as a media-resistant inner layer in contact with the coolant; and - an outer layer composed of a crosslinked rubber mixture which, on the outside, is resistant to the external influences in the area of use, wherein the inner layer and the outer layer form an adhesive bond, characterized in that - the crosslinked rubber mixture of the inner layer contains at least one EPDM rubber and/or at least one EPM rubber, and - the crosslinked rubber mixture of the outer layer contains at least one silicone rubber. - an inner layer composed of a crosslinked rubber mixture which acts, in particular, as a media-resistant inner layer in contact with the coolant; and - an outer layer composed of a crosslinked rubber mixture which, on the outside, is resistant to the external influences in the area of use, wherein the inner layer and the outer layer form an adhesive bond, characterized in that - the crosslinked rubber mixture of the inner layer contains at least one EPDM rubber and/or at least one EPM rubber, and - the crosslinked rubber mixture of the outer layer contains at least one silicone rubber.
A slave device for a communication system, the slave device comprising: a first connector connectable to a master device; a second connector connectable to another slave device; a switch configured to alternatively connect to the first connector or the second connector according to a connection way via which the slave device is connected to the master device and the other slave device, provided that the first connector is connected to the master device; and a communicator connected to the first connector and the switch, configured to transmit and receive a first communication signal to and from the first connector, and configured to transmit and receive a second communication signal to and from the switch. a first connector connectable to a master device; a second connector connectable to another slave device; a switch configured to alternatively connect to the first connector or the second connector according to a connection way via which the slave device is connected to the master device and the other slave device, provided that the first connector is connected to the master device; and a communicator connected to the first connector and the switch, configured to transmit and receive a first communication signal to and from the first connector, and configured to transmit and receive a second communication signal to and from the switch.
Process for preparing a solution of sulfonated polymer and a basic phophonic acid, characterized in that the polymer is dissolved in an aprotic solvent and to this solution the basic phosphonic acid is added.
Method for treating an article made of fibrous material, able to provide said article with antibacterial and/or antifungal properties by the application on a surface of said article of particles of a metal oxide, said method comprising the steps of: i) generating said particles by flame synthesis of said particles from a precursor compound and ii) depositing in a controlled manner said particles on a surface of said article by thermophoresis. i) generating said particles by flame synthesis of said particles from a precursor compound and ii) depositing in a controlled manner said particles on a surface of said article by thermophoresis.
A system comprising: a primary machine, a hydraulic machine and a frequency converter disposed in an assembly casing, wherein the hydraulic machine is a hydraulic pump or a hydraulic motor adapted for operating by means of a work fluid, which enters the hydraulic machine at a first pressure and exits it at a second pressure, distinct from the first pressure, said system being characterized in that it comprises a cooling circuit, adapted for a same coolant to go through a plurality of ducts adapted for cooling the primary machine, the frequency converter and the hydraulic machine, the coolant is identical to a work fluid of the hydraulic machine. a primary machine, a hydraulic machine and a frequency converter disposed in an assembly casing, wherein the hydraulic machine is a hydraulic pump or a hydraulic motor adapted for operating by means of a work fluid, which enters the hydraulic machine at a first pressure and exits it at a second pressure, distinct from the first pressure, said system being characterized in that it comprises a cooling circuit, adapted for a same coolant to go through a plurality of ducts adapted for cooling the primary machine, the frequency converter and the hydraulic machine, the coolant is identical to a work fluid of the hydraulic machine.
A method for steering a drill bit within a pay zone (840, 1210) in a lateral well, the method comprising: receiving acoustic signature data from an acoustic signal analyzing apparatus, wherein the acoustic signature data comprises an amplitude spectrum (420, 910, 920, 930, 940) and one or more acoustic characteristics evaluated from an acoustic signal provided by a sensor (33, 301, 321, 351) attached to one of a drive shaft and a packing box of a drill rig, and generated in real-time as a result of rotational contact of the drill bit with encountered rock in the lateral well during drilling and transmitted upwards along a drill string and drive shaft, the acoustic characteristics comprising for example mean frequency, normalized deviation of the frequency, or mean amplitude; comparing the received real-time acoustic signature data to predetermined acoustic signatures (910, 920, 930, 940) determined for a plurality of rock samples; identifying the rock type being encountered by the drill bit based on the comparison; and steering the drill bit in a predefined direction, in real-time, based on the identified rock type, for maintaining the drill bit within the pay zone of the lateral well. receiving acoustic signature data from an acoustic signal analyzing apparatus, wherein the acoustic signature data comprises an amplitude spectrum (420, 910, 920, 930, 940) and one or more acoustic characteristics evaluated from an acoustic signal provided by a sensor (33, 301, 321, 351) attached to one of a drive shaft and a packing box of a drill rig, and generated in real-time as a result of rotational contact of the drill bit with encountered rock in the lateral well during drilling and transmitted upwards along a drill string and drive shaft, the acoustic characteristics comprising for example mean frequency, normalized deviation of the frequency, or mean amplitude; comparing the received real-time acoustic signature data to predetermined acoustic signatures (910, 920, 930, 940) determined for a plurality of rock samples; identifying the rock type being encountered by the drill bit based on the comparison; and steering the drill bit in a predefined direction, in real-time, based on the identified rock type, for maintaining the drill bit within the pay zone of the lateral well.
A centering sub-system including a first centering element, a second centering element and a ground plate, wherein the first centering element defines a first guiding axis and is adapted to engage with a first corresponding centering element (10b, 10c) of a corresponding centering sub-system (1b, 1c) along an engaging direction, wherein the first centering element is configured to allow a relative movement between the first centering element and the first corresponding centering element (10b, 10c) along the first guiding axis during engaging; wherein the second centering element defines a second guiding axis and is adapted to engage with a second corresponding centering element of the corresponding centering sub-system (1b, 1c), wherein the second centering element is configured to allow a relative movement between the second centering element and the second corresponding centering element (20b, 20c) along the second guiding axis during engaging; and wherein the first guiding axis and the second guiding axis are nonparallel, and wherein each of the first guiding axis and the second guiding axis is different from the engaging direction, wherein the ground plate comprises at least one receptacle that holds a centering element (10a, 12a, 20a, 22a), and wherein the receptacle is configured to thermally decouple the centering element (10a, 12a, 20a, 22a) from the ground plate. the first centering element defines a first guiding axis and is adapted to engage with a first corresponding centering element (10b, 10c) of a corresponding centering sub-system (1b, 1c) along an engaging direction, wherein the first centering element is configured to allow a relative movement between the first centering element and the first corresponding centering element (10b, 10c) along the first guiding axis during engaging; wherein the second centering element defines a second guiding axis and is adapted to engage with a second corresponding centering element of the corresponding centering sub-system (1b, 1c), wherein the second centering element is configured to allow a relative movement between the second centering element and the second corresponding centering element (20b, 20c) along the second guiding axis during engaging; and wherein the first guiding axis and the second guiding axis are nonparallel, and wherein each of the first guiding axis and the second guiding axis is different from the engaging direction, wherein the ground plate comprises at least one receptacle that holds a centering element (10a, 12a, 20a, 22a), and wherein the receptacle is configured to thermally decouple the centering element (10a, 12a, 20a, 22a) from the ground plate.
Method for selecting first and second plastic threads of a musical string, in particular a musical string for a string instrument, wherein the musical string has at least one load-bearing string core, wherein the string core has a predefinable plurality of plastic threads, wherein the plastic threads comprise a first group of first plastic threads and a second group of second plastic threads, wherein the first plastic threads differ from the second plastic threads in a predefinable physical, in particular mechanical, property, characterized in that, in a creep test, in each case a constant weight is applied to the first and second plastic threads and the elongation thereof is determined, and the first and second plastic threads are selected such that, when a predefined tuning weight is applied thereto, the time-dependent length of one of the first plastic threads and the time-dependent length of one of the second plastic threads are identical only at a first point in time so that, for a first duration of tensioning of the musical string with the tuning weight, substantially the first group bears the tuning weight up to the first point in time, and thereafter substantially the second group bears the tuning weight.
A method for adjusting a signal for transmission by a mobile communication device, comprising: converting a baseband transmission signal to a radio frequency signal; providing said RF signal to a transmit adjuster of said mobile communication device; producing a plurality of RF transmit signals based on said RF signal; determining one or more quality indicators, the one or more quality indicators comprising at least one of a power control group boundary signal, a power control group index, a PN code per active finger, a reverse power control bit per active finger, an energy per chip over noise power spectral density ratio per active finger, a channel estimate I/Q per active finger, an energy per bit over noise power spectral density, a transmit AGC signal, a total receive power, and any combination of the preceding; wherein at least one of the one or more quality indicators is received from an alternative source to a baseband processor; establishing a transmit signal adjustment according to the one or more quality indicators; adjusting at said transmit adjuster at least one of the plurality of RF transmit signals according to the signal adjustment to produce a phase difference between the one or more adjusted RF transmit signals; and transmitting said plurality of adjusted RF transmit signals on a respective plurality of antenna elements of the mobile device. converting a baseband transmission signal to a radio frequency signal; providing said RF signal to a transmit adjuster of said mobile communication device; producing a plurality of RF transmit signals based on said RF signal; determining one or more quality indicators, the one or more quality indicators comprising at least one of a power control group boundary signal, a power control group index, a PN code per active finger, a reverse power control bit per active finger, an energy per chip over noise power spectral density ratio per active finger, a channel estimate I/Q per active finger, an energy per bit over noise power spectral density, a transmit AGC signal, a total receive power, and any combination of the preceding; wherein at least one of the one or more quality indicators is received from an alternative source to a baseband processor; establishing a transmit signal adjustment according to the one or more quality indicators; adjusting at said transmit adjuster at least one of the plurality of RF transmit signals according to the signal adjustment to produce a phase difference between the one or more adjusted RF transmit signals; and transmitting said plurality of adjusted RF transmit signals on a respective plurality of antenna elements of the mobile device.
In a graphical modeling environment having at least one executable graphical model with a plurality of executable time-based components, the time-based components representing dynamic systems having inputs, states, and outputs that change continuously or discretely at specific points in time, a method, comprising the steps of: displaying a view of the executable graphical model, said executable graphical model including a first set of executable time-based components, said first set of executable time-based components comprising at least one user-configurable, executable graphical post component having at least one input port for receiving at least one input signal, said at least one user-configurable, executable graphical post component being configured to post an event when a condition associated with said at least one input signal of said at least one user-configurable, executable graphical post component is satisfied; associating at least one time-based component of a second set of time-based components with said event; scheduling the execution of the first set of first set of executable time-based components at one or more predetermined rates, identifying when said condition is satisfied during execution of said executable graphical model; posting, by said user-configurable, executable graphical post component, an occurrence of said event in said graphical modeling environment to an event handler; notifying said at least one time-based component of the second set that is associated with said event of said occurrence of said event; and executing said at least one time-based component only conditionally in response to said notifying. displaying a view of the executable graphical model, said executable graphical model including a first set of executable time-based components, said first set of executable time-based components comprising at least one user-configurable, executable graphical post component having at least one input port for receiving at least one input signal, said at least one user-configurable, executable graphical post component being configured to post an event when a condition associated with said at least one input signal of said at least one user-configurable, executable graphical post component is satisfied; associating at least one time-based component of a second set of time-based components with said event; scheduling the execution of the first set of first set of executable time-based components at one or more predetermined rates, identifying when said condition is satisfied during execution of said executable graphical model; posting, by said user-configurable, executable graphical post component, an occurrence of said event in said graphical modeling environment to an event handler; notifying said at least one time-based component of the second set that is associated with said event of said occurrence of said event; and executing said at least one time-based component only conditionally in response to said notifying.
A method of operating a combustion system to attenuate combustion dynamics, wherein the combustion system comprises a plurality of fuel nozzles, the plurality of fuel nozzles comprising at least two first fuel nozzles and at least two second fuel nozzles; the method comprising: flowing, via a compressor section, an overall supply of air to the combustion system, wherein at least a portion of the overall supply of air is provided through the plurality of fuel nozzles; flowing, via a fuel supply system, an overall flow of fuel to the combustion system; flowing, to the at least two first fuel nozzles of the combustion system, a first supply of fuel defining a richer fuel-air mixture at the first fuel nozzles; flowing, to the at least two second fuel nozzles of the combustion system, a second supply of fuel defining a leaner fuel-air mixture at the second fuel nozzles, where the at least two first fuel nozzles and the at least two second fuel nozzles are in alternating circumferential arrangement along a circumferential direction in the combustion system; and igniting the richer fuel-air mixture and the leaner fuel-air mixture to produce an overall fuel-air ratio at a combustion chamber of the combustion system, characterised in that the method further comprises: determining a desired overall fuel-air ratio at the combustion chamber based at least on the overall supply of air and the overall flow of fuel, and: determining a fuel split to the at least two first fuel nozzles and to the at least two second fuel nozzles based on the overall flow of fuel that is further based at least on an operating condition of the engine, the overall supply of air, and the desired overall fuel-air ratio. flowing, via a compressor section, an overall supply of air to the combustion system, wherein at least a portion of the overall supply of air is provided through the plurality of fuel nozzles; flowing, via a fuel supply system, an overall flow of fuel to the combustion system; flowing, to the at least two first fuel nozzles of the combustion system, a first supply of fuel defining a richer fuel-air mixture at the first fuel nozzles; flowing, to the at least two second fuel nozzles of the combustion system, a second supply of fuel defining a leaner fuel-air mixture at the second fuel nozzles, where the at least two first fuel nozzles and the at least two second fuel nozzles are in alternating circumferential arrangement along a circumferential direction in the combustion system; and igniting the richer fuel-air mixture and the leaner fuel-air mixture to produce an overall fuel-air ratio at a combustion chamber of the combustion system,
Device for forming a curved excision in the cornea, comprising - a laser beam source, which focuses laser radiation into the cornea and produces optical breakthroughs there, wherein a curved contact lens for pressing onto a surface of the cornea deforms the latter into a specific curved shape, - a scanning device (6, 10), which three-dimensionally adjusts the focal point, and - a control device, which activates the scanning device (6, 10) in order to form the excision by arranging the optical breakthroughs in series in the cornea, are provided, - wherein the scanning device (6, 10) has an adjustable optical unit for adjusting the focal point in a first spatial direction (z), and wherein the control device activates the scanning device (6, 10) in such a way that the focal point is guided on the basis of contour lines which lie in planes that are perpendicular to the first spatial direction (z), - wherein the control device activates the scanning device (6, 10) in such a way that the control device takes into account the deformation of the cornea into the curved shape brought about by the contact lens by a coordinate transformation as follows φ ′ = φ α ′ ⋅ R ′ = α ⋅ R R G − R ′ = R Cv − R where α, φ and R are spherical coordinates before the deformation of the cornea, α', φ' and R' are spherical coordinates after the deformation of the cornea, R Cv is a radius of curvature of the surface of the undeformed cornea and R G is a radius of curvature of the contact lens. - a laser beam source, which focuses laser radiation into the cornea and produces optical breakthroughs there, wherein a curved contact lens for pressing onto a surface of the cornea deforms the latter into a specific curved shape, - a scanning device (6, 10), which three-dimensionally adjusts the focal point, and - a control device, which activates the scanning device (6, 10) in order to form the excision by arranging the optical breakthroughs in series in the cornea, are provided, - wherein the scanning device (6, 10) has an adjustable optical unit for adjusting the focal point in a first spatial direction (z), and wherein the control device activates the scanning device (6, 10) in such a way that the focal point is guided on the basis of contour lines which lie in planes that are perpendicular to the first spatial direction (z), - wherein the control device activates the scanning device (6, 10) in such a way that the control device takes into account the deformation of the cornea into the curved shape brought about by the contact lens by a coordinate transformation as follows φ ′ = φ α ′ ⋅ R ′ = α ⋅ R R G − R ′ = R Cv − R where α, φ and R are spherical coordinates before the deformation of the cornea, α', φ' and R' are spherical coordinates after the deformation of the cornea, R Cv is a radius of curvature of the surface of the undeformed cornea and R G is a radius of curvature of the contact lens.
A method for configuring a hazard detector comprising a processing system and having a plurality of features and a default configuration profile that specifies predetermined ones of the plurality of features as enabled or disabled, the method comprising: providing an opportunity for a user to input (102; 808; 3002) a designated location for installation of the hazard detector (500; 3102; 3302) within a residence (200; 202); the processing system in response to receiving the designated location for installation of the hazard detector, identifying (104; 810; 3006) at least one feature of the plurality of features to enable or disable based upon the designated location for installation of the hazard detector; and the processing system in response to identifying the at least one feature, instantiating (110; 816; 3008) a command to enable or disable the at least one feature of the plurality of features of the hazard detector. providing an opportunity for a user to input (102; 808; 3002) a designated location for installation of the hazard detector (500; 3102; 3302) within a residence (200; 202); the processing system in response to receiving the designated location for installation of the hazard detector, identifying (104; 810; 3006) at least one feature of the plurality of features to enable or disable based upon the designated location for installation of the hazard detector; and the processing system in response to identifying the at least one feature, instantiating (110; 816; 3008) a command to enable or disable the at least one feature of the plurality of features of the hazard detector.
A method for assessing a human patient's risk of developing or progression of Alzheimer's disease, the method comprising assessing the patient's level of antibodies reactive with phosphorylcholine and/or a PC-conjugate in an ex vivo sample taken from the human patient, wherein the PC-conjugate comprises phosphorylcholine linked to a carrier, optionally via a spacer, and wherein the carrier is a protein, a carbohydrate, a lipid, a polymer, latex beads, or colloid metal.