mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: means being adapted to define a plurality of posture states for a patient; means being adapted to define therapy parameter values for at least some of the posture states; means being adapted to control, while the patient occupies one of the plurality of posture states or is transitioning to the one posture state, and in response to determining that a value of a therapy parameter is undefined for the one posture state, delivery of therapy to the patient based on a value of the therapy parameter that was defined for one of the plurality of posture states in which the patient previously resided; means being adapted to receive patient input indicating; the value for the previously undefined therapy parameter value for the one posture state while the patient is in the one posture state or transitioning to the one posture state; and means being adapted to define the previously undefined therapy parameter value for the one posture state based on the patient input. means being adapted to define a plurality of posture states for a patient; means being adapted to define therapy parameter values for at least some of the posture states; means being adapted to control, while the patient occupies one of the plurality of posture states or is transitioning to the one posture state, and in response to determining that a value of a therapy parameter is undefined for the one posture state, delivery of therapy to the patient based on a value of the therapy parameter that was defined for one of the plurality of posture states in which the patient previously resided; means being adapted to receive patient input indicating; the value for the previously undefined therapy parameter value for the one posture state while the patient is in the one posture state or transitioning to the one posture state; and means being adapted to define the previously undefined therapy parameter value for the one posture state based on the patient input.
A frame loss concealment method, wherein a segment from a previously received or reconstructed audio signal is used as a prototype frame in order to create a substitution frame for a lost audio frame, the method comprising: - transforming the prototype frame into a frequency domain; - applying a sinusoidal model to the prototype frame to identify frequencies of sinusoidal components of the audio signal; - calculating a phase shift θ k for the identified sinusoidal components; - phase shifting the identified sinusoidal components by θ k; - creating the substitution frame by performing an inverse frequency transform of a frequency spectrum of the prototype frame; characterized in that - phase shifting the identified sinusoidal components comprises shifting a phase of all spectral coefficients in the prototype frame included in an interval M k around a sinusoid k by θ k; - phases of spectral coefficients that are not phase shifted are randomized; and - a magnitude spectrum of the prototype frame is kept unchanged. - transforming the prototype frame into a frequency domain; - applying a sinusoidal model to the prototype frame to identify frequencies of sinusoidal components of the audio signal; - calculating a phase shift θ k for the identified sinusoidal components; - phase shifting the identified sinusoidal components by θ k; - creating the substitution frame by performing an inverse frequency transform of a frequency spectrum of the prototype frame; - phase shifting the identified sinusoidal components comprises shifting a phase of all spectral coefficients in the prototype frame included in an interval M k around a sinusoid k by θ k; - phases of spectral coefficients that are not phase shifted are randomized; and - a magnitude spectrum of the prototype frame is kept unchanged.
A measurement data recording apparatus comprising: an acquisition portion configured to acquire time-series measurement data obtained by measuring a state of a target; a recording portion configured to record the acquired measurement data; a measurement data transmission portion configured to transmit the measurement data recorded in the recording portion to a generation apparatus configured to generate a determination model for determining a quality of the state of the target; a model reception portion configured to receive the determination model generated by the generation apparatus; and a determination portion configured to determine the quality of the state of the target from newly acquired measurement data using the received determination model, characterized in that the determination portion is adapted to perform determination using a difference between a determination threshold value in the determination model and an index value indicating the state of the target acquired from the determination model in response to input of a value corresponding to a measurement value of the measurement data, and output a determination result and at least the latest difference. an acquisition portion configured to acquire time-series measurement data obtained by measuring a state of a target; a recording portion configured to record the acquired measurement data; a measurement data transmission portion configured to transmit the measurement data recorded in the recording portion to a generation apparatus configured to generate a determination model for determining a quality of the state of the target; a model reception portion configured to receive the determination model generated by the generation apparatus; and a determination portion configured to determine the quality of the state of the target from newly acquired measurement data using the received determination model, characterized in that the determination portion is adapted to perform determination using a difference between a determination threshold value in the determination model and an index value indicating the state of the target acquired from the determination model in response to input of a value corresponding to a measurement value of the measurement data, and output a determination result and at least the latest difference.
A lighting device, comprising: a first magnet that is movable; a lighting component that connects with the first magnet to project light on a flame sheet from different positions; a first coil that is disposed adjacent to the magnet to apply a magnetic force to move the first magnet in response to a driving current in the first coil; a sensing unit that acquires an audio signal from an environmental sound and converts the audio signal into an electronic signal; and a driving circuit that connects with the first coil and the lighting component, the lighting device being characterized by the fact that: the driving circuit provides the driving current to the first coil according to a characteristic parameter of the electronic signal such that the lighting component moves with a speed and a direction in response to an intensity, a speed and a tune of a piece of music in the environmental sound, wherein the characteristic parameter includes one or more of an amplitude, a frequency and an envelope of the electronic signal, and the characteristic parameter corresponds to the intensity, speed and tune of the music. a first magnet that is movable; a lighting component that connects with the first magnet to project light on a flame sheet from different positions; a first coil that is disposed adjacent to the magnet to apply a magnetic force to move the first magnet in response to a driving current in the first coil; a sensing unit that acquires an audio signal from an environmental sound and converts the audio signal into an electronic signal; and a driving circuit that connects with the first coil and the lighting component, the lighting device being characterized by the fact that: the driving circuit provides the driving current to the first coil according to a characteristic parameter of the electronic signal such that the lighting component moves with a speed and a direction in response to an intensity, a speed and a tune of a piece of music in the environmental sound, wherein the characteristic parameter includes one or more of an amplitude, a frequency and an envelope of the electronic signal, and the characteristic parameter corresponds to the intensity, speed and tune of the music. the driving circuit provides the driving current to the first coil according to a characteristic parameter of the electronic signal such that the lighting component moves with a speed and a direction in response to an intensity, a speed and a tune of a piece of music in the environmental sound, wherein the characteristic parameter includes one or more of an amplitude, a frequency and an envelope of the electronic signal, and the characteristic parameter corresponds to the intensity, speed and tune of the music.
A composition for preventing odors containing odorless microorganisms of Caulobacter vibrioides HKMC-14 (Accession number: KCCM 11685P), Bradyrhizobium diazoefficiens HKMC-15 (Accession number: KCCM 11686P), and Bradyrhizobium daqingense HKMC-16 (Accession number: KCCM 11687P), or a culture solution thereof.
A composite oxide comprising lithium, niobium, and tantalum, a mass ratio of tantalum with respect to niobium being in a range of from 0.01% to 1.0%, and wherein the composite oxide is represented by the general formula Li 1-x K x Nb 1-y-z Ta y Fe z O 3, where subscript x is within a range of 0 ≤ x ≤ 2.4 × 10 -2, and subscript y is within a range of 5.1 × 10 -5 ≤ y ≤ 5.1 × 10 -3, and subscript z is within a range of 0 ≤ z ≤ 8.2 × 10 -3.
An isolated antibody or fragment thereof, wherein the antibody or fragment thereof is capable of specifically binding to at least one HBV derived peptide in association with a major histocompatibility complex -class I molecule, wherein the HBV derived peptide comprises HBc18-27.
Cable drum for winding an electric cable between the drum flanges (11, 12) of a winding drum, on the front drum flange of which one or more plug socket inserts are arranged for plugging-in of electric plugs, wherein the winding drum with a pivot bearing (42, 44, 45) is mounted rotatably on a bearing plate which is connected to a base frame having one or more mainstays (5, 6), wherein the winding drum is mounted rotatably on a drum axis inclined upwards at the angle obliquely to the horizontal so that the front drum flange of the winding drum with the control grip arranged there has an increased floor distance from the assembly plane, characterised in that an inclined position of the flanges (11, 12) of the winding drum is present even when a cable drum is resting with the base frame lying on an assembly plane.
Spacer for a multipane insulating glazing unit comprising at least a composite composed of: a. a glass-fiber-reinforced, polymeric main body comprising two pane contact surfaces (1 a, 1b) running parallel to each other, an adhesive surface, and a glazing interior surface (1 d), wherein the pane contact surfaces (1a, 1b) and the adhesive surface are bonded to each other directly or via bonding surfaces (1 e), b. an insulation film on the adhesive surface or the adhesive surface and the bonding surfaces, wherein the insulation film comprises at least one polymeric film and wherein the insulation film is structured multilayered with metallic layers and/or ceramic layers characterized in that the at least one polymeric film has a thickness of 10 μm to 100 μm, and that the insulation film additionally comprises at least one polymeric layer having a thickness of 5 μm to 80 μm, at least two metallic layers having a thickness of each layer of 10 nm to 1500 nm, and/or at least two ceramic layers having a thickness of each layer of 10 nm to 1500 nm, wherein the at least two metallic layers and/or the at least two ceramic layers are arranged alternatingly with the at least one polymeric layer. a. a glass-fiber-reinforced, polymeric main body comprising two pane contact surfaces (1 a, 1b) running parallel to each other, an adhesive surface, and a glazing interior surface (1 d), wherein the pane contact surfaces (1a, 1b) and the adhesive surface are bonded to each other directly or via bonding surfaces (1 e), b. an insulation film on the adhesive surface or the adhesive surface and the bonding surfaces, wherein the insulation film comprises at least one polymeric film and wherein the insulation film is structured multilayered with metallic layers and/or ceramic layers
A self-centering vise (100, 200) comprising a body, two or more jaws constrained to the body and actuators of the jaws, wherein the jaws are movable with respect to the body, on a lying plane of the jaws, close to and away from a workpiece gripping axis, to clamp a workpiece on said workpiece gripping axis and to release the workpiece, in response to the stresses imparted by said actuators, and characterized in that each actuator comprises a thrust element susceptible to displacements parallel to the lying plane of the jaws in response to the stresses imparted by a fluid fed to the vise (100, 200), and each jaw comprises two guides inclined and symmetrical with respect to the displacement direction (B-B) of the jaw, and said thrust element comprises two walls (10, 11) inclined and symmetrical with respect to the displacement direction (X-X) of the same thrust element, and actuator exerts its own thrust simultaneously on two jaws (3-4; 4-5; 3-5) by slidingly engaging the guides of two jaws with its own inclined walls (10, 11). wherein the jaws are movable with respect to the body, on a lying plane of the jaws, close to and away from a workpiece gripping axis, to clamp a workpiece on said workpiece gripping axis and to release the workpiece, in response to the stresses imparted by said actuators, and characterized in that each actuator comprises a thrust element susceptible to displacements parallel to the lying plane of the jaws in response to the stresses imparted by a fluid fed to the vise (100, 200), and each jaw comprises two guides inclined and symmetrical with respect to the displacement direction (B-B) of the jaw, and said thrust element comprises two walls (10, 11) inclined and symmetrical with respect to the displacement direction (X-X) of the same thrust element, and actuator exerts its own thrust simultaneously on two jaws (3-4; 4-5; 3-5) by slidingly engaging the guides of two jaws with its own inclined walls (10, 11).
An alloy for overlay welding that is to be used in overlay welding, the alloy comprising: C in an amount of 0.2 mass% to 0.6 mass%, Si in an amount of more than 0 mass% to 1.0 mass%, Mn in an amount of more than 0 mass% to 0.6 mass% or less, Cr in an amount of 25 mass% to 35 mass%, Ni in an amount of 35 mass% to 50 mass%, Nb in an amount of 0.5 mass% to 2.0 mass%, Al in an amount of 3.0 mass% to 6.0 mass%, Y in an amount of 0.005 mass% to 0.05 mass%, and Fe and inevitable impurities including N as a remaining portion, the alloy optionally further comprising a rare earth element in an amount of 0.01 mass% to 0.20 mass%; and/or one or more elements selected from the group consisting of W in an amount of more than 0 mass% to 2.0 mass% or less, Mo in an amount of more than 0 mass% to 1.0 mass% or less, Ti and/or Zr in a total amount of more than 0 mass% to 0.5 mass% or less, and Hf in an amount of more than 0 mass% to 0.5 mass% or less.
Internal combustion engine comprising one or more cylinders, inside each of which a piston slides, and two crankshafts (2 and 21), which are provided with cranks integral with two gear wheels that have equal diameter (30 and 23) being fixed on the engine crankcase and are free to rotate, characterised in that a) each piston is connected to the first crank of the first crankshaft integral with the first gear wheel through a first connecting rod, a rod, and a second connecting rod, b) an end of the rod is connected to one end of an arm, the latter being free to rotate at the end around a pin fixed on the engine crankcase, c) the two gear wheels (30 and 23) meshing each other, d) the second crank of the second crankshaft is connected to the arm by means of a third connecting rod. a) each piston is connected to the first crank of the first crankshaft integral with the first gear wheel through a first connecting rod, a rod, and a second connecting rod, b) an end of the rod is connected to one end of an arm, the latter being free to rotate at the end around a pin fixed on the engine crankcase, c) the two gear wheels (30 and 23) meshing each other, d) the second crank of the second crankshaft is connected to the arm by means of a third connecting rod.
Method for the corrosion-protective treatment of a composite structure which in addition to surfaces made of zinc also has at least surfaces made of iron, in which at least the following method steps are carried out in succession: i) Optional cleaning and degreasing of the metal surface; ii) Passivating pretreatment of the metal surface by bringing it into contact with an acidic aqueous composition containing a) water-soluble inorganic compounds of Zr and/or Ti, b) water-soluble inorganic fluoride compounds that release fluoride ions, c) water-soluble inorganic metal compounds that release copper ions; iii) Post-treatment of the pretreated metal surface by bringing it into contact with an aqueous composition, wherein method step iii), with a rinsing step but no drying step in between, is followed by a self-depositing dip coating operation or an electrodip coating operation, characterized in that the aqueous composition in method step iii) contains at least one organic compound having at least one aromatic heterocycle, the aromatic heterocycle containing at least one nitrogen atom. i) Optional cleaning and degreasing of the metal surface; ii) Passivating pretreatment of the metal surface by bringing it into contact with an acidic aqueous composition containing a) water-soluble inorganic compounds of Zr and/or Ti, b) water-soluble inorganic fluoride compounds that release fluoride ions, c) water-soluble inorganic metal compounds that release copper ions; a) water-soluble inorganic compounds of Zr and/or Ti, b) water-soluble inorganic fluoride compounds that release fluoride ions, c) water-soluble inorganic metal compounds that release copper ions; iii) Post-treatment of the pretreated metal surface by bringing it into contact with an aqueous composition,
A compound of formula I in which R 1 represents ethyl, isopropyl, isobutyl, cyclobutyl; R 2 represents R 3 represents hydrogen, fluoro, C 1 -C 3 -alkyl optionally substituted with one or more fluorine atoms; R 4 represents hydrogen or fluoro; R 5 represents which groups are optionally substituted with one or more fluorine atoms and/or one or more C 1 -C 3 -alkyl fluorinated with one or more fluorine atoms. R 1 represents ethyl, isopropyl, isobutyl, cyclobutyl; R 2 represents R 3 represents hydrogen, fluoro, C 1 -C 3 -alkyl optionally substituted with one or more fluorine atoms; R 4 represents hydrogen or fluoro; R 5 represents
An image forming method in an image forming system including a master RIP and at least one slave RIP, said master RIP conducting rasterize processing of a print job for causing a first printer connected to said master RIP to print, and said master RIP being capable of conducting rasterize processing of a print job for causing a second printer connected to said slave RIP to print by said slave RIP, instead of said slave RIP, said image forming method comprising: step (a) of storing, in said slave RIP, a printer profile for every paper to be printed by said second printer; the master RIP determines whether there is a user's instructions to generate a print job; when it is determined that there is the user's instruction to generate a print job, the master RIP causes the user to select a printer from a displayed list of second printers, to select a paper from a displayed list of papers, and to select a color conversion method from a displayed list of color conversion methods; wherein the method comprises the following steps: step (b) of transmitting the printer profile stored at said step (a) which is suitable for the paper selected by the user from said slave RIP to said master RIP; step (c) of setting, in said master RIP, said selected paper to be printed by said second printer, in the print job; step (d) of conducting, in said master RIP, rasterize processing and color conversion of the print job by using the selected color conversion method and the transmitted printer profile which is suitable for the paper selected by the user; and step (e) of transmitting the print job subjected to the rasterize processing and color conversion at said step (d) from said master RIP to said slave RIP. step (b) of transmitting the printer profile stored at said step (a) which is suitable for the paper selected by the user from said slave RIP to said master RIP; step (c) of setting, in said master RIP, said selected paper to be printed by said second printer, in the print job; step (d) of conducting, in said master RIP, rasterize processing and color conversion of the print job by using the selected color conversion method and the transmitted printer profile which is suitable for the paper selected by the user; and step (e) of transmitting the print job subjected to the rasterize processing and color conversion at said step (d) from said master RIP to said slave RIP.
A method for Discontinuous Reception, DRX, comprising: determining, by a terminal device, at least one DRX configuration in a plurality of DRX configurations; and detecting, by the terminal device, a Physical Downlink Control Channel, PDCCH, according to the at least one DRX configuration, characterized in that each DRX configuration in the plurality of DRX configurations corresponds to at least one resource configuration, and the at least one resource configuration comprises at least one of the following: a serving cell configuration, a Bandwidth Part, BWP, configuration, a Control Resource Set,CORESET, configuration and a search space configuration; wherein the detecting, by the terminal device, the PDCCH according to the at least one DRX configuration comprises: detecting, by the terminal device, the PDCCH according to each DRX configuration and the resource configuration corresponding to each DRX configuration. determining, by a terminal device, at least one DRX configuration in a plurality of DRX configurations; and detecting, by the terminal device, a Physical Downlink Control Channel, PDCCH, according to the at least one DRX configuration, characterized in that each DRX configuration in the plurality of DRX configurations corresponds to at least one resource configuration, and the at least one resource configuration comprises at least one of the following: a serving cell configuration, a Bandwidth Part, BWP, configuration, a Control Resource Set,CORESET, configuration and a search space configuration; wherein the detecting, by the terminal device, the PDCCH according to the at least one DRX configuration comprises: detecting, by the terminal device, the PDCCH according to each DRX configuration and the resource configuration corresponding to each DRX configuration.
Laser device for joining work pieces made of plastic by means of beam transmission welding technology, with a processing head that has focusing devices for the laser beam, where the focusing device that is closest to the work pieces has a rotatably supported cylinder lens in the shape of a roller that focuses the laser beam along a single axis and that presses the work pieces together in the form of a line in an area around the impact point of the laser beam, characterized in that the processing head has a pendulum-type suspension for the rotatable cylinder lens.