mhurhangee/ep-ind-claims huggingface dataset:
An image stabilization control apparatus, comprising: a vibration correction unit configured to correct image shake occurring due to vibration applied to the image stabilization control apparatus; a first vibration detection unit (6807p, 6807y) configured to detect and output an angular velocity of the vibration; a second vibration detection unit (101p, 101y) configured to detect and output an acceleration of the vibration; a first filter configured to extract a signal in a predetermined frequency band based on an output of the first vibration detection unit; a second filter configured to extract a signal in a predetermined frequency band based on an output of the second vibration detection unit; a calculation unit configured to calculate a correction value based on the outputs of said first and second filters; an output correction unit configured to correct an integrated output of the first vibration detection unit (6807p, 6807y) using the correction value and to output the corrected output; and a driving unit configured to drive the vibration correction unit based on the output of the first vibration detection unit (6807p, 6807y) and the output of the output correction unit, wherein the first and second filters configured to extract a signal with a predetermined frequency band included in and narrower than a frequency band of hand shake. a vibration correction unit configured to correct image shake occurring due to vibration applied to the image stabilization control apparatus; a first vibration detection unit (6807p, 6807y) configured to detect and output an angular velocity of the vibration; a second vibration detection unit (101p, 101y) configured to detect and output an acceleration of the vibration; a first filter configured to extract a signal in a predetermined frequency band based on an output of the first vibration detection unit; a second filter configured to extract a signal in a predetermined frequency band based on an output of the second vibration detection unit; a calculation unit configured to calculate a correction value based on the outputs of said first and second filters; an output correction unit configured to correct an integrated output of the first vibration detection unit (6807p, 6807y) using the correction value and to output the corrected output; and a driving unit configured to drive the vibration correction unit based on the output of the first vibration detection unit (6807p, 6807y) and the output of the output correction unit,
A round sonotrode, comprising a sonotrode body which has a receiving space for a workpiece at its front end, which receiving space is surrounded by an annular web which has a weld surface at its front end face, wherein a workpiece holder is provided in the receiving space, characterized in that the sonotrode body has at least one cut-out which connects its outer jacket surface to the receiving space; and in that a holding element of the workpiece holder is led through the cut-out.
A method of reproducing stereophonic sound, the method comprising: acquiring image depth information indicating a distance between at least one object in an image signal and a reference location; acquiring sound depth information indicating a distance between at least one sound object in a sound signal and a reference location using representative depth value for each image section that constitutes the image signal; and providing sound perspective to the at least one sound object based on the sound depth information. acquiring image depth information indicating a distance between at least one object in an image signal and a reference location; acquiring sound depth information indicating a distance between at least one sound object in a sound signal and a reference location using representative depth value for each image section that constitutes the image signal; and providing sound perspective to the at least one sound object based on the sound depth information.
A polyurethane resin composition comprising a prepolymer and a polymerizable plasticizer consisting of a hydrocarbon chain, only one end of which bears more than one isocyanate function, said hydrocarbon chain comprising and/or being substituted with an aromatic ring and/or an aliphatic ring and/or said hydrocarbon chain being substituted with at least two hydrocarbon chains that may comprise an unsaturation, and the number of isocyanate functions being strictly greater than 1, preferably greater than 1.2, more preferentially greater than 1.5 and less than or equal to 2.2.
An isolated monoclonal anti-Repulsive Guidance Molecule a (RGMa) antibody that comprises a variable heavy chain region comprising a complementary determining region comprising the amino acid sequence of SEQ ID NO:2, a CDR2 comprising the amino acid sequence of SEQ ID NO:3, and a CDR3 comprising the amino acid sequence of SEQ ID NO:4, and a variable light chain region comprising a CDR1 comprising the amino acid sequence of SEQ ID NO:6, a CDR2 comprising the amino acid sequence of SEQ ID NO:7, and a CDR3 comprising the amino acid sequence of SEQ ID NO:8 or SEQ ID NO:73.
A lubricant tank, comprising: a lubricant tank body; a lubricant tank discharge passageway at least partially within said lubricant tank body; and a porous media within said lubricant tank body; characterised in that said lubricant tank discharge passageway includes an opening to allow lubricant transfer between said lubricant tank discharge passageway and said lubricant tank body, wherein said opening is through a wall of said lubricant tank discharge passageway, and wherein said porous media defines said opening. a lubricant tank body; a lubricant tank discharge passageway at least partially within said lubricant tank body; and a porous media within said lubricant tank body; characterised in that said lubricant tank discharge passageway includes an opening to allow lubricant transfer between said lubricant tank discharge passageway and said lubricant tank body, wherein said opening is through a wall of said lubricant tank discharge passageway, and wherein said porous media defines said opening.
A method, comprising: receiving a Multiple-Input Multiple Output, MIMO, signal over multiple communication channels sent from an antenna array including a first set of antennas (44A-44D) having a first polarization and a second set of the antennas (48A-48D) having a second polarization that is orthogonal to the first polarization; calculating first feedback information relating to first interrelations between the antennas within either the first set or the second set; calculating second feedback information relating at least to second interrelations between the first set and the second set of the antennas; and transmitting the first feedback information at a first time/frequency granularity, and transmitting the second feedback information at a second time/frequency granularity that is finer than the first time/frequency granularity. receiving a Multiple-Input Multiple Output, MIMO, signal over multiple communication channels sent from an antenna array including a first set of antennas (44A-44D) having a first polarization and a second set of the antennas (48A-48D) having a second polarization that is orthogonal to the first polarization; calculating first feedback information relating to first interrelations between the antennas within either the first set or the second set; calculating second feedback information relating at least to second interrelations between the first set and the second set of the antennas; and transmitting the first feedback information at a first time/frequency granularity, and transmitting the second feedback information at a second time/frequency granularity that is finer than the first time/frequency granularity.
A method for the fabrication of a food supplement comprising providing a blood fraction of a subject, preferably a mammal, and drying the blood fraction, characterized in that, the dried blood fraction is subjected to a high-intensity heat treatment after drying, in which the fraction is heated to a temperature between 80.0 and 110.0°C, at a pressure between 200 and 500 kPa, for 0.1 to 10.0 seconds.
Use of an admixture as a plasticizer for hydraulic binder compositions comprising at least one cationic polymer and at least one anionic polymer, at least one of the polymers having a comb type of structure, wherein the anionic polymer/cationic polymer mass ratio is comprised from 99.9/0.1 to 60/40.
A refrigeration apparatus comprising: a refrigerant circuit including a use-side circuit, a heat-source-side circuit connected to the use-side circuit, and a refrigerant release circuit connected to the heat-source-side circuit; a refrigerant leakage detection unit (50, 74) that detects leakage of refrigerant in the use-side circuit; a control valve that is disposed in the refrigerant release circuit or the heat-source-side circuit and enables, when being in an opened state, the heat-source-side circuit to communicate with the refrigerant release circuit; and a control unit that controls states of devices (11, 13, 17, 22, 23, 41,...), characterized in that the refrigeration apparatus further comprises a refrigerant release mechanism that is disposed in the refrigerant release circuit and enables, when being in a first state, the refrigerant release circuit to communicate with an external space outside the refrigerant circuit, such that refrigerant in the refrigerant release circuit is released into the external space, wherein when no leakage of refrigerant in the use-side circuit is detected by the refrigerant leakage detection unit, the control unit controls the control valve to a closed state, when leakage of refrigerant in the use-side circuit is detected by the refrigerant leakage detection unit, the control unit switches the control valve from the closed state to the opened state and directly or indirectly causes the refrigerant release mechanism to shift to the first state, and the refrigerant release mechanism is a rupture disk that shifts to the first state when a pressure in the refrigerant release circuit becomes equal to or greater than a first threshold value. a refrigerant circuit including a use-side circuit, a heat-source-side circuit connected to the use-side circuit, and a refrigerant release circuit connected to the heat-source-side circuit; a refrigerant leakage detection unit (50, 74) that detects leakage of refrigerant in the use-side circuit; a control valve that is disposed in the refrigerant release circuit or the heat-source-side circuit and enables, when being in an opened state, the heat-source-side circuit to communicate with the refrigerant release circuit; and a control unit that controls states of devices (11, 13, 17, 22, 23, 41,...), characterized in that when no leakage of refrigerant in the use-side circuit is detected by the refrigerant leakage detection unit, the control unit controls the control valve to a closed state, when leakage of refrigerant in the use-side circuit is detected by the refrigerant leakage detection unit, the control unit switches the control valve from the closed state to the opened state and directly or indirectly causes the refrigerant release mechanism to shift to the first state, and the refrigerant release mechanism is a rupture disk that shifts to the first state when a pressure in the refrigerant release circuit becomes equal to or greater than a first threshold value.
A data encoding method performed by an encoding apparatus, the method comprising the steps of: • obtaining (step 201) column weigths and row weigths of a n × n generator matrix G being defined as G=F ⊗ n, wherein F ⊗ n is a Kronecker product of a matrix F raised to the power of n, and F is one of: 1 0 1 1 or 1 1 0 1 • determining (step 202) K sequence numbers from a first sequence of the generator matrix G, wherein the first sequence comprises sequence numbers of rows of the generator matrix G, and the first sequence does not comprise a sequence number of a column whose column weight is an odd number in the generator matrix G, wherein the determining the K sequence numbers from the first sequence of the generator matrix G comprises: o determining the K sequence numbers in descending order of the obtained row weights of the rows corresponding to all the sequence numbers in the first sequence; • determining a bit sequence u based on the K sequence numbers, wherein u comprises K information bits and a fixed bit, wherein the K sequence numbers are used to identify locations of the K information bits in u; • performing encoding based on u and the generator matrix G, to obtain encoded bits c = uG; and • sending the encoded bits to a receiving device. • obtaining (step 201) column weigths and row weigths of a n × n generator matrix G being defined as G=F ⊗ n, wherein F ⊗ n is a Kronecker product of a matrix F raised to the power of n, and F is one of: 1 0 1 1 or 1 1 0 1 • determining (step 202) K sequence numbers from a first sequence of the generator matrix G, wherein the first sequence comprises sequence numbers of rows of the generator matrix G, and the first sequence does not comprise a sequence number of a column whose column weight is an odd number in the generator matrix G, wherein the determining the K sequence numbers from the first sequence of the generator matrix G comprises: o determining the K sequence numbers in descending order of the obtained row weights of the rows corresponding to all the sequence numbers in the first sequence; o determining the K sequence numbers in descending order of the obtained row weights of the rows corresponding to all the sequence numbers in the first sequence; • determining a bit sequence u based on the K sequence numbers, wherein u comprises K information bits and a fixed bit, wherein the K sequence numbers are used to identify locations of the K information bits in u; • performing encoding based on u and the generator matrix G, to obtain encoded bits c = uG; and • sending the encoded bits to a receiving device.
A setting assistance apparatus, for assisting a setting of a plurality of control parameters of a motor control device, the setting assistance apparatus using a position of a shaft of a motor that drives a load machine to control the motor, the setting assistance apparatus comprising: a specification unit, for each of a plurality of states with different values of a position proportional gain among the plurality of control parameters, configured to specify a performance index value indicating a responsiveness of the load machine when the motor control device controls the motor in the each of the plurality of states; and a presentation unit, configured to present to a user the performance index value for the each of the plurality of states specified by the specification unit; characterized in that: the position of a shaft of a motor is detected by an encoder attached to the motor; and the motor control device controls the motor in each of the plurality of states by detecting the position of the load machine using a sensor. a specification unit, for each of a plurality of states with different values of a position proportional gain among the plurality of control parameters, configured to specify a performance index value indicating a responsiveness of the load machine when the motor control device controls the motor in the each of the plurality of states; and a presentation unit, configured to present to a user the performance index value for the each of the plurality of states specified by the specification unit; the position of a shaft of a motor is detected by an encoder attached to the motor; and the motor control device controls the motor in each of the plurality of states by detecting the position of the load machine using a sensor.
A method of batch fabricating a plurality of catheter arms for vascular denervation comprising: depositing a first polymer coating on a semiconductor substrate; forming metal traces on the first polymer coating; patterning and etching the substrate to the first polymer coating to create flexible joint regions; and fabricating the plurality of catheter arms with flexible joint regions. depositing a first polymer coating on a semiconductor substrate; forming metal traces on the first polymer coating; patterning and etching the substrate to the first polymer coating to create flexible joint regions; and fabricating the plurality of catheter arms with flexible joint regions.
A method for controlling a wireless power transmitting apparatus in a wireless power transmission system for transmitting high-frequency power from the wireless power transmitting apparatus to a wireless power receiving apparatus, wherein the wireless power transmitting apparatus comprises a power transmitting antenna including a first resonant circuit including a power transmitting coil (Lt), wherein the wireless power receiving apparatus comprises a power receiving antenna including a second resonant circuit including a power receiving coil (Lr), wherein, when the power transmitting antenna and the power receiving antenna are electromagnetically coupled to each other, the power transmitting antenna and the power receiving antenna have an odd-mode resonance frequency corresponding to an odd-mode resonant condition, and an even-mode resonance frequency corresponding to an even-mode resonant condition, and the even-mode resonance frequency is higher than the odd-mode resonance frequency, wherein the method includes: generating high-frequency power at a variable frequency from input power and supplying the high-frequency power to the power transmitting antenna, by a power transmitting circuit; and estimating a temperature of a foreign object near the power transmitting coil (Lt) or the power receiving coil (Lr), by at least one temperature estimation means and wherein, when the power transmitting circuit generates high-frequency power at one of the odd-mode resonance frequency and the even-mode resonance frequency, and the high-frequency power is transmitted from the wireless power transmitting apparatus to the wireless power receiving apparatus, and an estimated temperature of a foreign object near the power transmitting coil (Lt) or the power receiving coil (Lr) is equal to a first threshold or higher, the method includes changing the frequency of the high-frequency power generated by the power transmitting circuit to the other of the odd-mode resonance frequency and the even-mode resonance frequency. generating high-frequency power at a variable frequency from input power and supplying the high-frequency power to the power transmitting antenna, by a power transmitting circuit; and estimating a temperature of a foreign object near the power transmitting coil (Lt) or the power receiving coil (Lr), by at least one temperature estimation means and
A three-dimensional hologram image display apparatus which displays a three-dimensional hologram image by use of pixelated computed interference fringe patterns, comprising: a light modulation device which has an electro-optical effect in which a refractive index is varied in accordance with an applied electric field intensity; and an electric field controller configured to record computed interference fringe patterns in the light modulation device by varying an electric field intensity applied to the light modulation device in accordance with the computed interference fringe patterns; wherein pixel electrodes are provided on a surface of the light modulation device; the electric field controller is configured to vary the electric field intensity applied to the light modulation device by controlling voltages applied to the respective pixel electrodes in accordance with the respective pixels of the computed interference fringe patterns; characterized in that the electric field controller is configured to control the voltages applied to the respective pixel electrodes, in consideration of mutual functions of electric field intensities affecting adjacent pixels. a light modulation device which has an electro-optical effect in which a refractive index is varied in accordance with an applied electric field intensity; and an electric field controller configured to record computed interference fringe patterns in the light modulation device by varying an electric field intensity applied to the light modulation device in accordance with the computed interference fringe patterns; wherein pixel electrodes are provided on a surface of the light modulation device; the electric field controller is configured to vary the electric field intensity applied to the light modulation device by controlling voltages applied to the respective pixel electrodes in accordance with the respective pixels of the computed interference fringe patterns; characterized in that the electric field controller is configured to control the voltages applied to the respective pixel electrodes, in consideration of mutual functions of electric field intensities affecting adjacent pixels.
A method for determining stability in a gas turbine, comprising: receiving a guide vane command and a fuel stroke reference command associated with a gas turbine control system; determining a filtered VGV change by determining a difference between a VGV lag and a VGV moving average; determining a filtered FSR change by determining a difference between an FSR lag and an FSR moving average; and outputing a unit stability signal after a pickup delay time when the filtered VGV change is less than a predetermined VGV stability threshold and the filtered FSR change is less than a predetermined FSR stability threshold. receiving a guide vane command and a fuel stroke reference command associated with a gas turbine control system; determining a filtered VGV change by determining a difference between a VGV lag and a VGV moving average; determining a filtered FSR change by determining a difference between an FSR lag and an FSR moving average; and outputing a unit stability signal after a pickup delay time when the filtered VGV change is less than a predetermined VGV stability threshold and the filtered FSR change is less than a predetermined FSR stability threshold.
A process for fabricating an array of polymers comprising: providing a solid substrate comprising a reactive group protected by a protective group; coating said solid substrate with a film, said film comprising a photoacid generator, a sensitizer and a base, wherein the film is spun coated onto the substrate; activating said photoacid generator in selected areas by selective application of light to produce an acid wherein a step of baking is not performed following activation of the photoacid generator; and exposing said reactive group having said protective group to said acid under appropriate conditions such that said protecting group is removed to provide a monomer with an exposed reactive group wherein said step of exposure does not result in substantial damage to said polymers of the array. providing a solid substrate comprising a reactive group protected by a protective group; coating said solid substrate with a film, said film comprising a photoacid generator, a sensitizer and a base, wherein the film is spun coated onto the substrate; activating said photoacid generator in selected areas by selective application of light to produce an acid wherein a step of baking is not performed following activation of the photoacid generator; and exposing said reactive group having said protective group to said acid under appropriate conditions such that said protecting group is removed to provide a monomer with an exposed reactive group wherein said step of exposure does not result in substantial damage to said polymers of the array.