mhurhangee/ep-ind-claims huggingface dataset:
A spacecraft, comprising a payload subsystem including a plurality of transmit antenna feeds, a digital channelizer, and a power amplification arrangement including a plurality of power amplifiers, the plurality of power amplifiers including at least one power amplifier having a commandably variable saturated power, the power amplification arrangement having at least one input communicatively coupled with an output of the digital channelizer and at least one output communicatively coupled with at least one of the plurality of transmit antenna feeds; and a processor configured to control the digital channelizer so as to allocate a commandable amount of bandwidth to each of a plurality of receive and/or transmit beams, and dynamically make an adjustment to the variable saturated power of the at least one power amplifier of the plurality of power amplifiers in the power amplification arrangement, wherein the adjustment is tailored to account for a change in operating power of the at least one power amplifier resulting from a change in bandwidth allocated by the digital channelizer to an individual beam associated with the at least one power amplifier. a payload subsystem including a plurality of transmit antenna feeds, a digital channelizer, and a power amplification arrangement including a plurality of power amplifiers, the plurality of power amplifiers including at least one power amplifier having a commandably variable saturated power, the power amplification arrangement having at least one input communicatively coupled with an output of the digital channelizer and at least one output communicatively coupled with at least one of the plurality of transmit antenna feeds; and a processor configured to control the digital channelizer so as to allocate a commandable amount of bandwidth to each of a plurality of receive and/or transmit beams, and dynamically make an adjustment to the variable saturated power of the at least one power amplifier of the plurality of power amplifiers in the power amplification arrangement, wherein the adjustment is tailored to account for a change in operating power of the at least one power amplifier resulting from a change in bandwidth allocated by the digital channelizer to an individual beam associated with the at least one power amplifier.
A current-sense resistor for measuring an electric current, with a) a plate-shaped first connecting part for introducing the electric current to be measured, wherein the plate-shaped first connecting part consists of an electrically conductive conductor material, b) a plate-shaped second connecting part for conducting away the electric current to be measured, wherein the plate-shaped second connecting part consists of an electrically conductive conductor material, c) a plate-shaped resistance element, which is connected in the current path between both connecting parts and through which the electric current to be measured flows, wherein the resistance element consists of a low-ohm resistance material and the resistance material comprises a greater specific resistance value than the conductor material of the connecting parts (2, 3), d) an incision (10, 11) in each of the plate-shaped first connecting part and the plate-shaped second connecting part, e) wherein the electric current to be measured flows along a main current direction between both connecting parts (2, 3), characterized in that f) the incisions (10, 11) are orientated at least on a portion of their length transversely with respect to the main current direction in order to reduce the temperature dependency of the measurement. a) a plate-shaped first connecting part for introducing the electric current to be measured, wherein the plate-shaped first connecting part consists of an electrically conductive conductor material, b) a plate-shaped second connecting part for conducting away the electric current to be measured, wherein the plate-shaped second connecting part consists of an electrically conductive conductor material, c) a plate-shaped resistance element, which is connected in the current path between both connecting parts and through which the electric current to be measured flows, wherein the resistance element consists of a low-ohm resistance material and the resistance material comprises a greater specific resistance value than the conductor material of the connecting parts (2, 3), d) an incision (10, 11) in each of the plate-shaped first connecting part and the plate-shaped second connecting part, e) wherein the electric current to be measured flows along a main current direction between both connecting parts (2, 3), characterized in that f) the incisions (10, 11) are orientated at least on a portion of their length transversely with respect to the main current direction in order to reduce the temperature dependency of the measurement.
Method to displace a volume of water from a sea pen with a sealed sea pen fabric, wherein a grid-shaped cage (40,150) is arranged down in the volume of water inside the sea pen, and the water is withdrawn from the sea pen through a pipe or hose with an intake arranged inside of the grid cage (40,150), so that the sea cage pen fabric is gradually brought to squeeze up against the outside of the grid.
Redundant automation system for controlling a technical apparatus, comprising - a field bus - a first automation device and - a second automation device, wherein - the first automation device has a first control program and - the second automation device has a second control program for controlling the technical apparatus, wherein - the first and the second control programs (11a, 12a) are so embodied as to execute the same control tasks in each case for the technical apparatus, wherein - the first automation device has a first data interface which is connected to the field bus and the second automation device has a second data interface which is connected to the field bus, wherein - the first data interface is assigned a first address and the second data interface is assigned a second address, characterised by a reference means comprising a reference data interface which is connected to the field bus and to which a reference address is assigned, wherein the reference means is so embodied as to activate a first connection path between further automation components (51,...,54), these being connected to the field bus, and the first automation device, and is furthermore so embodied as to recognise a failure of the first automation device and thereupon to activate a second connection path between the automation components (51,...,54), these being connected to the field bus, and the second automation device. - a field bus - a first automation device and - a second automation device, wherein - the first automation device has a first control program and - the second automation device has a second control program for controlling the technical apparatus, wherein - the first and the second control programs (11a, 12a) are so embodied as to execute the same control tasks in each case for the technical apparatus, wherein - the first automation device has a first data interface which is connected to the field bus and the second automation device has a second data interface which is connected to the field bus, wherein - the first data interface is assigned a first address and the second data interface is assigned a second address,
A system for inducing a subject to fall to sleep, the system comprising - a light pattern generator for generating a time varying light pattern in view of the subject; - a breathing rate measuring unit for measuring a breathing frequency of the subject; and - a control unit connected to the breathing rate measuring unit and the light pattern generator, for controlling the light pattern generator, characterized in that control unit is configured to control a pattern frequency of the generated light pattern dependent on the measured breathing frequency and a pre-selected desired frequency, to a value between the measured breathing frequency and the pre-selected desired frequency. - a light pattern generator for generating a time varying light pattern in view of the subject; - a breathing rate measuring unit for measuring a breathing frequency of the subject; and - a control unit connected to the breathing rate measuring unit and the light pattern generator, for controlling the light pattern generator, characterized in that control unit is configured to control a pattern frequency of the generated light pattern dependent on the measured breathing frequency and a pre-selected desired frequency, to a value between the measured breathing frequency and the pre-selected desired frequency.
Mould configuration suited for use in a thermoforming forming station arranged to form one or more objects comprising a mould made from a polymer material by additive manufacturing and provided with an upper end, side walls and a bottom which is spaced apart from the upper end defining a mould volume, wherein the mould volume consists of a recess corresponding with the shape of the object as an upper zone, a lower zone which extends below the upper zone and divided from the upper zone by a recess wall, wherein the lower zone is provided with one or more open spaces which fluidly connect the lower surface of the recess wall with one or more openings in the bottom of the mould, a heat exchanger module facing the bottom of the mould comprising cooling means and cooling medium displacement means and cooling medium inlet openings and cooling medium outlet openings, wherein the cooling medium inlet openings and the cooling medium outlet openings are in fluid communication with the one or more openings in the bottom of the mould. a mould made from a polymer material by additive manufacturing and provided with an upper end, side walls and a bottom which is spaced apart from the upper end defining a mould volume, wherein the mould volume consists of a recess corresponding with the shape of the object as an upper zone, a lower zone which extends below the upper zone and divided from the upper zone by a recess wall, wherein the lower zone is provided with one or more open spaces which fluidly connect the lower surface of the recess wall with one or more openings in the bottom of the mould, a heat exchanger module facing the bottom of the mould comprising cooling means and cooling medium displacement means and cooling medium inlet openings and cooling medium outlet openings, wherein the cooling medium inlet openings and the cooling medium outlet openings are in fluid communication with the one or more openings in the bottom of the mould.
An optical communication base station configured to receive an upstream optical signal having an upstream bit rate specific to each one of a plurality of lower order communication units from a corresponding one of said plurality of lower order communication units, and configured to transmit a downstream optical signal having a downstream bit rate specific to each one of said plurality of lower order communication units to a designated one of said plurality of lower order communication units, said optical communication base station comprising: (i) a first optical signal conversion unit configured to change the bit rate of said upstream optical signal and thereby convert said upstream optical signal into a fixed bit-rate inter-station optical signal to be received by a receiving correspondent station; and (ii) a second optical signal conversion unit configured to convert said inter-station optical signal received from a transmitting correspondent station into said downstream optical signal by changing the bit rate of said inter-station optical signal according to said designated lower order communication unit, wherein said first optical signal conversion unit comprises: A) an optical-to-electrical conversion unit configured to convert said upstream optical signal into an electrical signal; B) a code decision unit configured to make code decisions on said electrical signal at a provisional decision clock frequency corresponding to a bit rate equal to an integral multiple of the highest of said upstream bit rates; C) a storage unit configured to temporarily store a code sequence obtained as a provisional code sequence by said code decisions; and D) a code correction unit configured to regenerate an original code sequence by correcting code sequence length of said provisional code sequence temporarily stored in said storage unit. (i) a first optical signal conversion unit configured to change the bit rate of said upstream optical signal and thereby convert said upstream optical signal into a fixed bit-rate inter-station optical signal to be received by a receiving correspondent station; and (ii) a second optical signal conversion unit configured to convert said inter-station optical signal received from a transmitting correspondent station into said downstream optical signal by changing the bit rate of said inter-station optical signal according to said designated lower order communication unit, A) an optical-to-electrical conversion unit configured to convert said upstream optical signal into an electrical signal; B) a code decision unit configured to make code decisions on said electrical signal at a provisional decision clock frequency corresponding to a bit rate equal to an integral multiple of the highest of said upstream bit rates; C) a storage unit configured to temporarily store a code sequence obtained as a provisional code sequence by said code decisions; and D) a code correction unit configured to regenerate an original code sequence by correcting code sequence length of said provisional code sequence temporarily stored in said storage unit.
A communication device comprising: a first communication unit configured to execute radio communication by using a first communication method, the first communication method allowing the radio communication to be executed within a first communication range; a second communication unit configured to execute radio communication by using a second communication method, the second communication method allowing the radio communication to be executed within a second communication range; and a permission processing unit configured to generate communication permission information to permit executing the radio communication by the first communication method, wherein the second communication unit is configured to receive setting information for establishing the radio communication by the first communication method, and wherein the first communication unit is configured to execute the radio communication by using the first communication method with another communication device that receives the setting information and the communication permission information, characterized in that upon the other communication device exiting from the second communication range, the communication device disconnects the communication that is established with the other communication device by the first communication method, wherein the second communication range is included in the first communication range. a first communication unit configured to execute radio communication by using a first communication method, the first communication method allowing the radio communication to be executed within a first communication range; a second communication unit configured to execute radio communication by using a second communication method, the second communication method allowing the radio communication to be executed within a second communication range; and a permission processing unit configured to generate communication permission information to permit executing the radio communication by the first communication method, wherein the second communication unit is configured to receive setting information for establishing the radio communication by the first communication method, and wherein the first communication unit is configured to execute the radio communication by using the first communication method with another communication device that receives the setting information and the communication permission information, characterized in that
A method of controlling a wind turbine, the wind turbine comprising a wind direction sensor, a number of pitch-adjustable rotor blades, a yawing system, and a control system for yawing the wind turbine rotor relative to the wind and for changing the pitch of the rotor blades, the method comprising: - measuring a wind direction parameter by the wind direction sensor, wherein the wind direction parameter is indicative of the wind direction relative to the wind turbine; - calibrating a relative wind direction derived from the wind direction parameter as a function of a predetermined offset parameter; - adjusting the calibrated relative wind direction as a function of a wind direction compensation parameter, wherein the wind direction compensation parameter depends on the calibrated relative wind direction; - determining a control parameter of the wind turbine as a function of the adjusted relative wind direction; and - controlling the wind turbine according to the control parameter. - measuring a wind direction parameter by the wind direction sensor, wherein the wind direction parameter is indicative of the wind direction relative to the wind turbine; - calibrating a relative wind direction derived from the wind direction parameter as a function of a predetermined offset parameter; - adjusting the calibrated relative wind direction as a function of a wind direction compensation parameter, wherein the wind direction compensation parameter depends on the calibrated relative wind direction; - determining a control parameter of the wind turbine as a function of the adjusted relative wind direction; and - controlling the wind turbine according to the control parameter.
An acoustic damping composition comprising: a binder resin including an addition polymer having a carboxylic functional group, the binder resin having a glass transition temperature of not greater than -25°C; and first elastomeric particles forming a separate phase from the binder resin. a binder resin including an addition polymer having a carboxylic functional group, the binder resin having a glass transition temperature of not greater than -25°C; and first elastomeric particles forming a separate phase from the binder resin.
An adhesive composition comprising: a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm) of 35°C or higher and 44°C or less as measured by differential scanning calorimetry, wherein the polymer is a copolymer of a monofunctional polysiloxane and one type of monomer, wherein the polymer having a melting temperature of 35°C or higher and 44°C or less comprises, based on 100 parts by weight of the polymer having a melting temperature of 35°C or higher and 44°C or less, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the monomer in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight, wherein the monomer is represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R1 is hydrogen or a methyl group; and n is an integer of 10 to 30. a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm) of 35°C or higher and 44°C or less as measured by differential scanning calorimetry, wherein the polymer is a copolymer of a monofunctional polysiloxane and one type of monomer, wherein the polymer having a melting temperature of 35°C or higher and 44°C or less comprises, based on 100 parts by weight of the polymer having a melting temperature of 35°C or higher and 44°C or less, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the monomer in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight, wherein the monomer is represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R1 is hydrogen or a methyl group; and n is an integer of 10 to 30.
A method for adjusting an original prescription for an eye of a patient, for use in manufacturing of an ophthalmic lens for correcting the vision of a patient, said method using an electronic processing system for simulating a real optical system, the method comprising the steps of: (a) obtaining, by the electronic processing system, an original prescription based on an eye vision measurement performed by virtue of said real optical system; (b) obtaining, by the electronic processing system, supplementary input data associated with an eye vision measurement in which said original prescription was obtained; said supplementary input data comprising at least one of: eye data and measuring instrument data; and (c) calculating, by the electronic processing system, an adjusted prescription to reflect the effect of said supplementary input data on said eye vision measurement; characterized in that said step (c) is performed by using at least said original prescription and the simulated optical system simulating said real optical system and being calculated by using at least said original prescription and said supplementary input data, wherein a measuring instrument data is at least one of a tilt of a measuring instrument, an observation angle of the patient, a geometry of the lens used in the measuring instrument, a refraction index of the lens used in the measuring instrument, a center thickness of the lens used in the measuring instrument, an edge thickness of the lens in the measuring instrument, or a diameter of the lens used in the measuring instrument, and wherein an eye data is one of a strength of illumination during the eye measurement or a pupil diameter. (a) obtaining, by the electronic processing system, an original prescription based on an eye vision measurement performed by virtue of said real optical system; (b) obtaining, by the electronic processing system, supplementary input data associated with an eye vision measurement in which said original prescription was obtained; said supplementary input data comprising at least one of: eye data and measuring instrument data; and (c) calculating, by the electronic processing system, an adjusted prescription to reflect the effect of said supplementary input data on said eye vision measurement;
A method for direct growth of multilayer graphene used in a pellicle for extreme ultraviolet lithography, the method comprising: forming few-layer graphene on a silicon nitride substrate; forming a metal catalyst layer on the few-layer graphene; forming an amorphous carbon layer on the metal catalyst layer; and directly growing multilayer graphene from the few-layer graphene used as a seed layer by interlayer exchange between the metal catalyst layer and the amorphous carbon layer through heat treatment, wherein carbon in the amorphous carbon layer passes through the metal catalyst layer and is moved to the few-layer graphene. forming few-layer graphene on a silicon nitride substrate; forming a metal catalyst layer on the few-layer graphene; forming an amorphous carbon layer on the metal catalyst layer; and directly growing multilayer graphene from the few-layer graphene used as a seed layer by interlayer exchange between the metal catalyst layer and the amorphous carbon layer through heat treatment, wherein carbon in the amorphous carbon layer passes through the metal catalyst layer and is moved to the few-layer graphene.