mhurhangee/ep-ind-claims huggingface dataset:
A reference amplifier apparatus for processing physiological measuring signals, for instance EEG signals, wherein the apparatus is provided with several channels with signal inputs for receiving input signals, which input signals each comprise a specific signal component and a signal component common to all input signals, wherein each channel is provided with an impedance transforming input amplifier, wherein the apparatus is configured for supplying to the non-inverting input of each input amplifier a respective input signal and, to the inverting input, an analogue reference signal which is equal for all channels, wherein the apparatus is provided with a digital signal processor (210; 310) and one or more analogue digital converters (5; 305) for supplying the signals provided by the input amplifiers to the digital signal processor (210; 310), wherein the signal processor (210; 310) is designed for converting signals received from the one or more analogue digital converters (5; 305) at least into one or more output signals, wherein the signal processor (210; 310) is designed for processing the signals received from the one or more analogue-digital converters (5; 305), for providing a digital reference signal, wherein the apparatus is provided with a digital-analogue converter for converting the digital reference signal into said analogue reference signal, characterised in that each channel is provided with a compensation amplifier (212; 312) of which a non-inverting input is arranged for receiving the signal of a respective input amplifier, and of which an output is directly or indirectly coupled to a said analogue-digital converter (5; 305), wherein an inverting input of the compensation amplifier (212; 312) is coupled via a digital-analogue converter to said signal processor (210; 310) for receiving a control signal therefrom.
DC voltage switch, having - a first connection for a first potential, - a second connection for the first potential and - a first connection for a second potential, wherein a switch is arranged between the first connection for the first potential and the second connection for the first potential, wherein a discharging apparatus is arranged between the first connection for the first potential and the first connection for the second potential, wherein the discharging apparatus has a switching element, characterised in that the switching element is designed as a semiconductor switch, in particular as a semiconductor switch which can be switched off or thyristor, wherein a thermistor is arranged electrically in series with the switching element as a resistor. - a first connection for a first potential, - a second connection for the first potential and - a first connection for a second potential, wherein a switch is arranged between the first connection for the first potential and the second connection for the first potential, wherein a discharging apparatus is arranged between the first connection for the first potential and the first connection for the second potential, wherein the discharging apparatus has a switching element, characterised in that the switching element is designed as a semiconductor switch, in particular as a semiconductor switch which can be switched off or thyristor, wherein a thermistor is arranged electrically in series with the switching element as a resistor.
A method of forming a cobalt layer on a substrate, comprising: exposing a substrate having a feature definition formed in a first surface of the substrate to a ruthenium precursor and hydrogen gas to form a ruthenium-containing layer on the first surface of the substrate and on a sidewall and bottom surface of the feature definition, comprising co-flowing the ruthenium precursor and the hydrogen gas; exposing the ruthenium-containing layer to a soak process at a temperature from about 100 degrees Celsius to about 600 degrees Celsius, the soak process comprising stopping the flow of the ruthenium precursor while continuing the flow of the hydrogen gas; exposing the substrate to a cobalt precursor to form a cobalt seed layer atop the ruthenium-containing layer; and depositing a cobalt bulk layer over the cobalt seed layer, wherein the cobalt bulk layer is deposited by a chemical vapor deposition process, a physical vapor deposition process, or an electroplating process. exposing a substrate having a feature definition formed in a first surface of the substrate to a ruthenium precursor and hydrogen gas to form a ruthenium-containing layer on the first surface of the substrate and on a sidewall and bottom surface of the feature definition, comprising co-flowing the ruthenium precursor and the hydrogen gas; exposing the ruthenium-containing layer to a soak process at a temperature from about 100 degrees Celsius to about 600 degrees Celsius, the soak process comprising stopping the flow of the ruthenium precursor while continuing the flow of the hydrogen gas; exposing the substrate to a cobalt precursor to form a cobalt seed layer atop the ruthenium-containing layer; and depositing a cobalt bulk layer over the cobalt seed layer, wherein the cobalt bulk layer is deposited by a chemical vapor deposition process, a physical vapor deposition process, or an electroplating process.
An electrical plug comprising a first plug housing having a first side configured for connection to a complementary plug and having a second side with at least one opening which widens in a plug-in direction (x) to form a hollow space; a sealing means which is attachable to the second side of the first plug housing; and a holding means which holds the sealing means at the second side of the first plug housing, wherein the sealing means has at least one opening which is aligned with the opening of the first plug housing in the plug-in direction (x); wherein the opening in the sealing means is smaller than the opening in the first plug housing; wherein at least one second plug housing, in whose interior contact parts are held, can be held in the at least one hollow space of the first plug housing; wherein the sealing means has recesses (44, 45) at a first side which faces the second side of the first plug and/or at a second side which faces the holding means, characterized in that the holding means has projections in the plug-in direction (x) and/or against the plug-in direction, with the projections of the holding means which project in the plug-in direction (x) being plugged in the recesses of the sealing means.
Ramjet drive comprising an engine gap and a valve for controlling an amount of fuel required for the drive, the valve being implemented with a valve adjustment unit, which is configured to be actuable by a control electronics unit, characterised in that the valve is combined with the valve adjustment unit and the control electronics unit to form a thermally insulated valve assembly, the valve assembly being arranged in the engine gap, the valve assembly being embedded in a structure, and the structure being provided with a housing part comprising a housing cover which forms an air insulation gap.
A liquid adhesive composition comprising: (a) lignin present in an amount of from 5 % w/w to 35 % w/w of the adhesive composition and having a weight average molecular weight of about 10,000g/mol to about 70,000 g/mol; (b) a plant protein composition selected from the group consisting of: - ground plant meal derived from corn, wheat, sunflower, cotton, rapeseed, canola, castor, soy, camelina, flax, jatropha, mallow, peanuts, sugarcane bagasse, tobacco, or a combination thereof; and - an isolated water-insoluble/water dispersible protein fraction, wherein the plant protein composition is present in an amount of from 15 % w/w to 35 % w/w of the adhesive composition, (c)water present in an amount of from 30% w/w to 65% w/w of the adhesive composition, and (d) an epoxide compound. (a) lignin present in an amount of from 5 % w/w to 35 % w/w of the adhesive composition and having a weight average molecular weight of about 10,000g/mol to about 70,000 g/mol; (b) a plant protein composition selected from the group consisting of: - ground plant meal derived from corn, wheat, sunflower, cotton, rapeseed, canola, castor, soy, camelina, flax, jatropha, mallow, peanuts, sugarcane bagasse, tobacco, or a combination thereof; and - an isolated water-insoluble/water dispersible protein fraction, wherein the plant protein composition is present in an amount of from 15 % w/w to 35 % w/w of the adhesive composition, - ground plant meal derived from corn, wheat, sunflower, cotton, rapeseed, canola, castor, soy, camelina, flax, jatropha, mallow, peanuts, sugarcane bagasse, tobacco, or a combination thereof; and - an isolated water-insoluble/water dispersible protein fraction, wherein the plant protein composition is present in an amount of from 15 % w/w to 35 % w/w of the adhesive composition, (c)water present in an amount of from 30% w/w to 65% w/w of the adhesive composition, and (d) an epoxide compound.
Endoscope with a direction of view (21, 23, 25) which is adjustable within a predetermined angular range, comprising: a movable light-guiding device at the distal end of the endoscope, the direction of view (21, 23, 25) of the endoscope depending on the orientation thereof, a hinge device (40, 50; 70) for movably holding the light-guiding device, wherein the hinge device (40, 50; 70) is embodied for a movability of the light-guiding device, which comprises more than only one pivotability about a single pivot axis, wherein the movability of the light-guiding device comprises a sequence of pivot movements about different pivot axes which are parallel to one another, wherein the hinge device comprises a first hinge, which defines a first pivot axis, and a second hinge, which defines a second pivot axis, characterized in that the light-guiding device comprises at least either a prism or a mirror. a movable light-guiding device at the distal end of the endoscope, the direction of view (21, 23, 25) of the endoscope depending on the orientation thereof, a hinge device (40, 50; 70) for movably holding the light-guiding device, wherein the hinge device (40, 50; 70) is embodied for a movability of the light-guiding device, which comprises more than only one pivotability about a single pivot axis, wherein the movability of the light-guiding device comprises a sequence of pivot movements about different pivot axes which are parallel to one another, wherein the hinge device comprises a first hinge, which defines a first pivot axis, and a second hinge, which defines a second pivot axis, characterized in that the light-guiding device comprises at least either a prism or a mirror.
Submodule for a modular multilevel converter comprising - at least one unipolar energy store, - a first and a second connection terminal (16, 17) and - a power semiconductor circuit comprising power semiconductor switches (T1, T4, 19) that can be turned on and off by means of a control signal and free-wheeling diodes (D1, D2) connected in parallel with an assigned power semiconductor switch (T1,T4) in the opposite direction, wherein, depending on the control of the power semiconductor switches (T1, T4, 19), the voltage dropping across one or all of the energy stores or else a zero voltage can be generated between the first and the second connection terminals (16,17), and wherein the power semiconductor circuit forms a bridging branch situated between the potential points of the first and second connection terminals (16, 17), characterised in that only the power semiconductor switches arranged in the bridging branch are reverse conductive power semiconductor switches which can be turned on and off in their through direction by means of a control signal and are also conductive contrary to their switchable through direction. - at least one unipolar energy store, - a first and a second connection terminal (16, 17) and - a power semiconductor circuit comprising power semiconductor switches (T1, T4, 19) that can be turned on and off by means of a control signal and free-wheeling diodes (D1, D2) connected in parallel with an assigned power semiconductor switch (T1,T4) in the opposite direction, wherein, depending on the control of the power semiconductor switches (T1, T4, 19), the voltage dropping across one or all of the energy stores or else a zero voltage can be generated between the first and the second connection terminals (16,17), and wherein the power semiconductor circuit forms a bridging branch situated between the potential points of the first and second connection terminals (16, 17), characterised in that only the power semiconductor switches arranged in the bridging branch are reverse conductive power semiconductor switches which can be turned on and off in their through direction by means of a control signal and are also conductive contrary to their switchable through direction.
A system comprising: a controller configured to control one or more control cabin services associated with one or more passengers; a portable electronic device configured to wirelessly connect to the controller; a seat configured to be located within an aircraft; a seat location identifier associated with the seat of one passenger of the passengers; and an application on the portable electronic device that interfaces with the controller when the portable electronic device is wirelessly connected to the controller, wherein the application is arranged to control the one or more cabin services associated with the seat of the one passenger; and in which a user interface is provided on the electronic device when the application is installed thereon and arranged such that on activating a button command control on the interface, a control signal for the one or more cabin services is communicated to the controller; in which the controller is arranged to validate the received control signal as a valid signal for the one or more cabin services for a particular flight; and wherein the application is configured only to be valid for the particular flight of the aircraft; wherein the seat location identifier comprises a QR code, and wherein a unique QR code identification is assigned to the seat and positioned to allow for scanning by the portable electronic device; wherein the seat location identifier defines a unique IP address for connecting the portable electronic device to the controller. a controller configured to control one or more control cabin services associated with one or more passengers; a portable electronic device configured to wirelessly connect to the controller; a seat configured to be located within an aircraft; a seat location identifier associated with the seat of one passenger of the passengers; and an application on the portable electronic device that interfaces with the controller when the portable electronic device is wirelessly connected to the controller, wherein the application is arranged to control the one or more cabin services associated with the seat of the one passenger; and in which a user interface is provided on the electronic device when the application is installed thereon and arranged such that on activating a button command control on the interface, a control signal for the one or more cabin services is communicated to the controller; in which the controller is arranged to validate the received control signal as a valid signal for the one or more cabin services for a particular flight; and wherein the application is configured only to be valid for the particular flight of the aircraft; wherein the seat location identifier comprises a QR code, and wherein a unique QR code identification is assigned to the seat and positioned to allow for scanning by the portable electronic device; wherein the seat location identifier defines a unique IP address for connecting the portable electronic device to the controller.
A stable, concentrated (pre-dilute) aqueous fabric softening composition having a viscosity of from 300 to 1000, preferably 300 to 850, more preferably 400 to 800 mPa.s at 116 s -1 which composition is capable of being diluted with water in a 3:1 weight ratio of water: softening composition such that the resulting diluted softening composition is physically stable and has a viscosity of from 40 to 100 mPa.s at116 s -1, preferable 50 to 90 mPa.s at 116 s -1, the composition comprising a) a cationic fabric softener b) 0.7 to 2.5 % by weight of a cationic cross-linked polymer that is desirable from the polymerization of from 5 to 100 mole percent of cationic vinyl addition monomer, from 0 to 95 mole percent of acrylamide and from 50 to 1000 ppm, preferably 350 to 1000 ppm, more preferably 500 to 1000 ppm of a difunctional vinyl addition monomer cross-linking agent, c) from 0.001 to 0.2 by weight of electrolyte. a) a cationic fabric softener b) 0.7 to 2.5 % by weight of a cationic cross-linked polymer that is desirable from the polymerization of from 5 to 100 mole percent of cationic vinyl addition monomer, from 0 to 95 mole percent of acrylamide and from 50 to 1000 ppm, preferably 350 to 1000 ppm, more preferably 500 to 1000 ppm of a difunctional vinyl addition monomer cross-linking agent, c) from 0.001 to 0.2 by weight of electrolyte.
Method for supporting a driver when monitoring the load-carrying limits in an industrial truck, wherein the industrial truck has a mast having a load-receiving means, in particular a load fork, which is guided so as to be height-adjustable on the mast, an optically readable lifting height display which is formed by a graduation (16, 18) and a marking (14, 17) interacting with this graduation (16, 18) being attached to the mast, wherein the graduation (16, 18) and the marking (14, 17) are disposed on parts of the mast and/or of the load-receiving means that move relative to one another during a lifting movement, characterized in that the industrial truck has a control device having a display device and detection means for a load weight, wherein the control device determines from a signal of the detection means a load weight, and determines and displays on the display device a maximum lifting height associated with this load weight.
System for controlling a compensation unit without differential of an at least temporarily driveable axle of a motor vehicle, wherein the compensation unit comprises - an input member - a first output member, which can be coupled with the input member via a first friction clutch for transmitting drive power to a first drive wheel, and - a second output member, which can be coupled with the input member via a second friction clutch for transmitting drive power to a second drive wheel, wherein a control means is envisaged, with which the clutch torques that can be transmitted by the first clutch and the second clutch can be set by changing a correcting variable, and the control means is set up in such a way that the first clutch and the second clutch are controlled independent from the drive condition with the same adjustable correcting variable at the same height, characterised in that the system comprises a hydraulic pump, the correcting variable is hydraulic pressure, and the system is set up in such a way that changing the correcting variable can be set during driving operation independent of the driving condition and targeted by changing the rotation speed of the hydraulic pump. - an input member - a first output member, which can be coupled with the input member via a first friction clutch for transmitting drive power to a first drive wheel, and - a second output member, which can be coupled with the input member via a second friction clutch for transmitting drive power to a second drive wheel,
A vibration damping control apparatus for a vehicle, the apparatus being applied to a vehicle including a generator that is driven by an internal combustion engine to generate electric power, a regulator that controls field current passing through an excitation winding of the generator, so that generated voltage of the generator turns to externally instructed adjusting voltage (Va), and a battery that charges the generated power of the generator, characterized in that the apparatus comprises: an adjusting voltage setting means (70, 80, 90, S71 to S74, S81 to S87, S91 to S98) for setting the adjusting voltage based on a charge supply power request value required for controlling a residual capacity of the battery, and a drive torque request value for the generator required for suppressing vibration of the vehicle, and characterized in that the adjusting voltage setting means comprises: a capacity retention component calculating means for calculating, from the charge supply power request value, a voltage command value of a capacity retention component (Vdc) of the adjusting voltage, the component being required for controlling a residual capacity of the battery and having a frequency lower than that of vibration of the vehicle; and a vibration suppression component value calculating means (70, 90) for calculating, from the drive torque request value, a voltage command value of a vibration suppression component (ΔVC) of the adjusting voltage, the component corresponding to drive torque of the generator and being required for suppressing vibration of the vehicle, the component having frequency not less than that of vibration of the vehicle; wherein the voltage command value of the vibration suppression component (ΔVC) is superposed on the voltage command value of the capacity retention component (Vdc) to provide a waveform as an adjusting voltage (Va) for use as a voltage command value for the generator. a capacity retention component calculating means for calculating, from the charge supply power request value, a voltage command value of a capacity retention component (Vdc) of the adjusting voltage, the component being required for controlling a residual capacity of the battery and having a frequency lower than that of vibration of the vehicle; and a vibration suppression component value calculating means (70, 90) for calculating, from the drive torque request value, a voltage command value of a vibration suppression component (ΔVC) of the adjusting voltage, the component corresponding to drive torque of the generator and being required for suppressing vibration of the vehicle, the component having frequency not less than that of vibration of the vehicle; wherein the voltage command value of the vibration suppression component (ΔVC) is superposed on the voltage command value of the capacity retention component (Vdc) to provide a waveform as an adjusting voltage (Va) for use as a voltage command value for the generator.