mhurhangee/ep-ind-claims huggingface dataset:
A singing voice synthesizing method, comprising the steps of: (a) detecting a frequency spectrum by analyzing a frequency of a voice waveform corresponding to voice synthesis unit of a voice to be synthesized; (b) detecting a plurality of local peaks of a spectrum intensity on the frequency spectrum; (c) designating, for each of the plurality of the local peaks, a spectrum distribution region including the local peak and spectrums therebefore and thereafter on the frequency spectrum and generating amplitude spectrum data representing an amplitude spectrum distribution depending on a frequency axis for each said spectrum distribution region; (d) generating phase spectrum data representing a phase spectrum distribution depending on the frequency axis for each said spectrum distribution region; (e) designating a pitch for the voice to be synthesized; (f) adjusting the amplitude spectrum data by moving, for each said spectrum distribution region, the amplitude spectrum distribution represented by the amplitude spectrum data along the frequency axis in accordance with the pitch, while adjusting the spectrum intensity of the local peak according to a spectrum envelope EV of said frequency spectrum; (g) adjusting, for each said spectrum distribution region, the phase spectrum data in accordance with the adjusted amplitude spectrum data; and (h) converting the adjusted amplitude spectrum data and the adjusted phase spectrum data into a synthesized voice signal of a time region. (a) detecting a frequency spectrum by analyzing a frequency of a voice waveform corresponding to voice synthesis unit of a voice to be synthesized; (b) detecting a plurality of local peaks of a spectrum intensity on the frequency spectrum; (c) designating, for each of the plurality of the local peaks, a spectrum distribution region including the local peak and spectrums therebefore and thereafter on the frequency spectrum and generating amplitude spectrum data representing an amplitude spectrum distribution depending on a frequency axis for each said spectrum distribution region; (d) generating phase spectrum data representing a phase spectrum distribution depending on the frequency axis for each said spectrum distribution region; (e) designating a pitch for the voice to be synthesized; (f) adjusting the amplitude spectrum data by moving, for each said spectrum distribution region, the amplitude spectrum distribution represented by the amplitude spectrum data along the frequency axis in accordance with the pitch, while adjusting the spectrum intensity of the local peak according to a spectrum envelope EV of said frequency spectrum; (g) adjusting, for each said spectrum distribution region, the phase spectrum data in accordance with the adjusted amplitude spectrum data; and (h) converting the adjusted amplitude spectrum data and the adjusted phase spectrum data into a synthesized voice signal of a time region.
A portable suction device comprising: a body; a cartridge of liquefied carbon dioxide; the body including a gas inlet for receiving pressurized carbon dioxide from the cartridge; a gas flow path that extends from the gas inlet to an exhaust; a suction generator that has a suction inlet, the gas flow path extending through the suction generator, such that gas flow through the flow path generates a low pressure at the suction inlet; a collection container with a collection inlet and an outlet that is coupled to the suction inlet; a suction tube that has proximal and distal ends, the proximal end being connected to the collection inlet of the collection container; a valve located within the body for controlling gas flow through the flow path; a valve actuator for opening and closing the valve, and wherein the valve has a stem that is configured to pierce the cap of the cartridge with initial movement of the valve from a closed position and wherein, after the stem has pierced the cap of the cartridge, the valve can be opened and closed by operating said valve actuator. a body; a cartridge of liquefied carbon dioxide; the body including a gas inlet for receiving pressurized carbon dioxide from the cartridge; a gas flow path that extends from the gas inlet to an exhaust; a suction generator that has a suction inlet, the gas flow path extending through the suction generator, such that gas flow through the flow path generates a low pressure at the suction inlet; a collection container with a collection inlet and an outlet that is coupled to the suction inlet; a suction tube that has proximal and distal ends, the proximal end being connected to the collection inlet of the collection container; a valve located within the body for controlling gas flow through the flow path; a valve actuator for opening and closing the valve, and wherein the valve has a stem that is configured to pierce the cap of the cartridge with initial movement of the valve from a closed position and wherein, after the stem has pierced the cap of the cartridge, the valve can be opened and closed by operating said valve actuator.
Form I crystal of (R,E)-N-(4-(3-chloro-4-(pyridin-2-ylmethoxy)-phenylamino)-3-cyano-7-ethoxyquinolin-6-yl)-3-(1-methylpyrrolidin-2-yl) acrylamide dimaleate characterized in that using Cu-Kα radiation to obtain the X-ray diffraction patterns represented by 2θ angles and interplanar crystal spacing, the crystal has X-ray diffraction patterns as shown in figure 1 in which there are characteristic peaks at 6.28(14.06), 6.74(13.10), 10.60(8.34),11.58 (7.64),13.50(6.55), 14.90(5.94), 15.80(5.60), 18.26(4.85), 20.66(4.30),21.14(4.20),22.96(3.87),24.34(3.65),25.54(3.49),and 26.12(3.41).
Refrigerated display counter comprising: - a frame, - a back wall suitable for facing an operator, - a front wall suitable for facing the consumers, - two side walls; - a refrigerated compartment defined by the frame and the walls, - a refrigeration system that is configured in such a way to cool the refrigerated compartment, - support means disposed in the refrigerated compartment in order to support products to be displayed, and - insulation panels (3, 4) disposed on the walls of the refrigerated display counter, wherein said insulation panels comprise two insulation panels of vacuum insulation panel type that are disposed on the back wall and on the front wall of the refrigerated display counter, respectively, wherein the insulation panels of VIP type are disposed in recessed seats (13, 14) obtained in said back wall and in said front wall and are protected by external protection layers; wherein the external protection layer is coupled with said frame of the refrigerated display counter by means of removable coupling means; characterized in that the external protection layer of the back wall comprises: - a flange that protrudes in lower position in order to be engaged with a base section disposed under the back wall; and - a rib that protrudes in upper position in order to be engaged with an upper section disposed above the back wall; and the external protection layer of the front wall comprises: - a flange that protrudes in lower position in order to be engaged with a base section disposed under the front wall; and - a rib that protrudes in upper position in order to be engaged with an upper section disposed above the front wall. - a frame, - a back wall suitable for facing an operator, - a front wall suitable for facing the consumers, - two side walls; - a refrigerated compartment defined by the frame and the walls, - a refrigeration system that is configured in such a way to cool the refrigerated compartment, - support means disposed in the refrigerated compartment in order to support products to be displayed, and - insulation panels (3, 4) disposed on the walls of the refrigerated display counter, - a flange that protrudes in lower position in order to be engaged with a base section disposed under the back wall; and - a rib that protrudes in upper position in order to be engaged with an upper section disposed above the back wall; and - a flange that protrudes in lower position in order to be engaged with a base section disposed under the front wall; and - a rib that protrudes in upper position in order to be engaged with an upper section disposed above the front wall.
A blood treatment filter including, a housing having an inlet and an outlet, and a filter unit which is stored in the housing and filters blood containing erythrocytes, platelets, and leukocytes as blood components, wherein the filter unit includes a main filter unit for substantially removing leukocytes from the blood and passing the other blood components there through, and a pre-filter unit which passes the blood components there through, and the main filter unit has a removal rate of 85 to 99% for first micro particles having an average particle size of 3 μm which are contained in a suspension passing there through by gravity so that an average flow speed of the suspension is 50 mL/min, and the absolute surface zeta potential value of the main filter is -2.0 to +2.0 mV the pre-filter unit has a permeability rate of 70 to 90% for micro particles having an average particle size of 6 μm which are contained in the suspension passing there through by gravity so that an average flow speed of the suspension is 50 mL/min, and the absolute surface zeta potential value of the pre-filter is -2.0 to +2.0 mV, and the filter unit has a treated blood amount per unit volume of 10 to 20 mL/cm 3 for the blood which passes there through by gravity.
Cooking appliance component, in particular comprising a cooking chamber suitable for carrying out pyrolysis, and comprising a component wall that delimits the cooking appliance component at least in part, the component wall comprising a metal substrate that has an enamel coating applied thereto at least in part, the component wall having at least one surface portion which is kept free of the enamel coating and is therefore electrically conductive, which portion is intended for making electrical contact with the metal substrate, characterised in that the electrical contact resistance at the electrically conductive surface portion after the enamel coating has been applied to the metal substrate is increased to a maximum of four times, in particular to at most twice or 1.5 times, in that both the outer surface and the inner surface of the metal substrate, apart from the surface portion, are substantially completely covered with an enamel layer, and in that the metal substrate consists at least in part of a heat-resistant and also austenitic or ferritic steel from the group having a material number and material short name designation 1.4742, 1.4762, 1.4724, 1.4713, 1.4878, 1.4828, 1.4821, 1.4876, 1.4872, 1.4835 or 1.4841.
A titanium alloy comprising: 4.75 - 6.75 wt. % Al; 6.75 - 8.5 wt. % (Nb + Ta), wherein the titanium alloy includes at least 6.75 wt. % Nb; 1.5 - 3.5 wt. % Sn; up to 5.0 wt. % Zr; and up to 2.5 wt. % Mo, the balance being titanium, optional incidental elements, and impurities, wherein: the incidental elements comprise up to 0.60 wt. % Si, up to 0.20 wt. % O, and up to 0.10 wt. % C; and the impurities comprise up to 0.1 wt. % Fe, up to 0.1 wt. % Ni, up to 0.3 wt. % Cu, and up to 0.3 wt. % Cr. 4.75 - 6.75 wt. % Al; 6.75 - 8.5 wt. % (Nb + Ta), wherein the titanium alloy includes at least 6.75 wt. % Nb; 1.5 - 3.5 wt. % Sn; up to 5.0 wt. % Zr; and up to 2.5 wt. % Mo, the balance being titanium, optional incidental elements, and impurities, wherein: the incidental elements comprise up to 0.60 wt. % Si, up to 0.20 wt. % O, and up to 0.10 wt. % C; and the impurities comprise up to 0.1 wt. % Fe, up to 0.1 wt. % Ni, up to 0.3 wt. % Cu, and up to 0.3 wt. % Cr. the incidental elements comprise up to 0.60 wt. % Si, up to 0.20 wt. % O, and up to 0.10 wt. % C; and the impurities comprise up to 0.1 wt. % Fe, up to 0.1 wt. % Ni, up to 0.3 wt. % Cu, and up to 0.3 wt. % Cr.
An optical element comprising: an optical layer having a concavo-convex surface formed on one surface thereof; and a wavelength-selective reflection layer formed on the concavo-convex surface, wherein the wavelength-selective reflection layer directionally reflects a light ray having a specific wavelength band, while transmitting light rays having wavelength bands other than the specific wavelength band, and the concavo-convex surface is provided with a plurality of first structural elements that are extended in a first direction within the surface of the optical layer and a plurality of second structural elements that are extended in a second direction within the surface of the optical layer, and located so as to be spaced apart from one another, with the first direction and the second direction intersecting with each other. an optical layer having a concavo-convex surface formed on one surface thereof; and a wavelength-selective reflection layer formed on the concavo-convex surface, wherein the wavelength-selective reflection layer directionally reflects a light ray having a specific wavelength band, while transmitting light rays having wavelength bands other than the specific wavelength band, and the concavo-convex surface is provided with a plurality of first structural elements that are extended in a first direction within the surface of the optical layer and a plurality of second structural elements that are extended in a second direction within the surface of the optical layer, and located so as to be spaced apart from one another, with the first direction and the second direction intersecting with each other.
A pumping system comprising: at least one pump (20a,20b); and a reservoir, the reservoir comprising: first and second chambers (38, 36); and a piston having first and second ends (48, 44) disposed in the first and second chambers (38, 36), respectively, the first and second ends (48, 44) isolating a first area (52, 112) from a second area (50, 46) within the first and second chambers (38, 36); wherein the first area of the first chamber is in fluid communication with a high pressure fluid source and the second area of the first chamber is in fluid communication with a low pressure fluid source; characterised in that: an orifice is formed in the first end, the orifice configured to allow fluid communication between the first and second areas (52, 50) of the first chamber; the high pressure fluid source is a pump discharge (20a, 20b); and the low pressure fluid source is a pump inlet. at least one pump (20a,20b); and a reservoir, the reservoir comprising: first and second chambers (38, 36); and a piston having first and second ends (48, 44) disposed in the first and second chambers (38, 36), respectively, the first and second ends (48, 44) isolating a first area (52, 112) from a second area (50, 46) within the first and second chambers (38, 36); wherein the first area of the first chamber is in fluid communication with a high pressure fluid source and the second area of the first chamber is in fluid communication with a low pressure fluid source; characterised in that: an orifice is formed in the first end, the orifice configured to allow fluid communication between the first and second areas (52, 50) of the first chamber; the high pressure fluid source is a pump discharge (20a, 20b); and the low pressure fluid source is a pump inlet. first and second chambers (38, 36); and a piston having first and second ends (48, 44) disposed in the first and second chambers (38, 36), respectively, the first and second ends (48, 44) isolating a first area (52, 112) from a second area (50, 46) within the first and second chambers (38, 36); wherein the first area of the first chamber is in fluid communication with a high pressure fluid source and the second area of the first chamber is in fluid communication with a low pressure fluid source; characterised in that: an orifice is formed in the first end, the orifice configured to allow fluid communication between the first and second areas (52, 50) of the first chamber; the high pressure fluid source is a pump discharge (20a, 20b); and the low pressure fluid source is a pump inlet. an orifice is formed in the first end, the orifice configured to allow fluid communication between the first and second areas (52, 50) of the first chamber; the high pressure fluid source is a pump discharge (20a, 20b); and the low pressure fluid source is a pump inlet.
Displacement vessel with air cavities at the bottom formed by subsequent rows of transverse fittings installed on said bottom, and two restricting longitudinal keels which run on both sides of said bottom, and an air pipeline serving to deliver air to the cavities from an air-pumping unit, characterized in that these fittings and keels can be retracted and set upright by a drive.
A physical layer protocol data unit, PPDU sending method, comprising: obtaining, by a sending apparatus, a physical layer protocol data unit, PPDU, wherein the PPDU includes a high efficiency-signal field A, HE-SIG-A and a high efficiency-signal field B, HE-SIG-B; and the HE-SIG-A includes a field used to indicate a quantity of OFDM symbols in the HE-SIG-B, wherein when a value of the field is a specific value, the value is used to indicate that the quantity of OFDM symbols included in the HE-SIG-B is greater than or equal to 16; and when a value of the field is another value, the value is used to indicate the quantity of OFDM symbols included in the HE-SIG-B; and sending, by the sending apparatus, the PPDU. obtaining, by a sending apparatus, a physical layer protocol data unit, PPDU, wherein the PPDU includes a high efficiency-signal field A, HE-SIG-A and a high efficiency-signal field B, HE-SIG-B; and the HE-SIG-A includes a field used to indicate a quantity of OFDM symbols in the HE-SIG-B, wherein when a value of the field is a specific value, the value is used to indicate that the quantity of OFDM symbols included in the HE-SIG-B is greater than or equal to 16; and when a value of the field is another value, the value is used to indicate the quantity of OFDM symbols included in the HE-SIG-B; and sending, by the sending apparatus, the PPDU.
A movable portion transmission system using wireless power transmission which is performed via a rotary member, said movable portion transmission system comprising: a primary transmission power supply to supply electric power; a transmitter and receiver configured with a transmission antenna to perform wireless transmission of the electric power from said primary transmission power supply, and a reception antenna to receive the electric power from said transmission antenna with which said reception antenna pairs up; a transmission power supply circuit to establish a resonance condition of said transmission antenna with which said transmission power supply circuit pairs up; and a reception power supply circuit to establish a resonance condition of said reception antenna with which said reception power supply circuit pairs up, wherein said transmission antenna comprises a transmission side coil in a spiral shape which is arranged while being centered at an axial center of said rotary member, and said reception antenna comprises a reception side coil in a spiral shape which is arranged with a gap therefrom to said transmission side coil while being centered at the axial center of said rotary member. a primary transmission power supply to supply electric power; a transmitter and receiver configured with a transmission antenna to perform wireless transmission of the electric power from said primary transmission power supply, and a reception antenna to receive the electric power from said transmission antenna with which said reception antenna pairs up; a transmission power supply circuit to establish a resonance condition of said transmission antenna with which said transmission power supply circuit pairs up; and a reception power supply circuit to establish a resonance condition of said reception antenna with which said reception power supply circuit pairs up, wherein said transmission antenna comprises a transmission side coil in a spiral shape which is arranged while being centered at an axial center of said rotary member, and said reception antenna comprises a reception side coil in a spiral shape which is arranged with a gap therefrom to said transmission side coil while being centered at the axial center of said rotary member.
An internal combustion engine assembly for a motor vehicle comprising: an engine; an electric motor; a balance shaft comprising an eccentric mass, wherein the electric motor is configured to selectively rotate the balance shaft in order to balance a vibration characteristic of the engine; a further balance shaft comprising a further eccentric mass, wherein the electric motor is configured to selectively rotate the further balance shaft relative to the engine in order to balance the vibration characteristic of the engine; characterized in that the internal combustion engine assembly further comprises: a variable speed transmission operatively disposed between the electric motor and the balance shaft, the variable speed transmission being configured such that the speed and/or direction of rotation of the balance shaft may be varied; a further variable speed transmission operatively disposed between the electric motor and the further balance shaft, the further variable speed transmission being configured such that the speed and/or direction of rotation of the further balance shaft may be varied. an engine; an electric motor; a balance shaft comprising an eccentric mass, wherein the electric motor is configured to selectively rotate the balance shaft in order to balance a vibration characteristic of the engine; a further balance shaft comprising a further eccentric mass, wherein the electric motor is configured to selectively rotate the further balance shaft relative to the engine in order to balance the vibration characteristic of the engine; characterized in that the internal combustion engine assembly further comprises: a variable speed transmission operatively disposed between the electric motor and the balance shaft, the variable speed transmission being configured such that the speed and/or direction of rotation of the balance shaft may be varied; a further variable speed transmission operatively disposed between the electric motor and the further balance shaft, the further variable speed transmission being configured such that the speed and/or direction of rotation of the further balance shaft may be varied. a variable speed transmission operatively disposed between the electric motor and the balance shaft, the variable speed transmission being configured such that the speed and/or direction of rotation of the balance shaft may be varied; a further variable speed transmission operatively disposed between the electric motor and the further balance shaft, the further variable speed transmission being configured such that the speed and/or direction of rotation of the further balance shaft may be varied.
A method comprising: mixing a foaming agent in a liquid medium; receiving, via a first window, incident light on a solution, wherein the solution comprises the liquid medium, a gas dissolved in the liquid medium, and a plurality of nanostructures (120, 135) in contact with the liquid medium; generating heat in the liquid medium based on oscillations of a subset of the plurality of nanostructures in response to the incident light; releasing at least a portion of the gas from the solution as gas bubbles in response to the generated heat; and scattering, by the released gas bubbles, the incident light to prevent the incident light from reaching a second window. mixing a foaming agent in a liquid medium; receiving, via a first window, incident light on a solution, wherein the solution comprises the liquid medium, a gas dissolved in the liquid medium, and a plurality of nanostructures (120, 135) in contact with the liquid medium; generating heat in the liquid medium based on oscillations of a subset of the plurality of nanostructures in response to the incident light; releasing at least a portion of the gas from the solution as gas bubbles in response to the generated heat; and scattering, by the released gas bubbles, the incident light to prevent the incident light from reaching a second window.