Abstract: A diamond sensor unit includes: a diamond having a color center with electron spin; an excitation light irradiation part that irradiates the diamond with excitation light; a first patch antenna that receives electromagnetic waves; an electromagnetic wave irradiation part that irradiates the diamond with the electromagnetic waves received by the first patch antenna; a detection part that detects radiated light radiated from the color center of the diamond after the diamond is irradiated with the excitation light and the electromagnetic waves; and an optical waveguide that transmits the excitation light and the radiated light.

Abstract: A diamond sensor unit includes: a sensor part that includes a diamond having a color center with electron spin; an irradiation part that irradiates the diamond with excitation light; a detection part that detects radiated light from the color center of the diamond; and an optical waveguide that transmits the excitation light, and the radiated light.

Abstract: A redox flow battery is provided that comprises a cell including two electrodes and a separation membrane. The two electrodes are a positive electrode and a negative electrode between which the separation membrane is arranged. At least one of the two electrodes includes an electrode member that has a non-carbon-based porous sheet and a carbon-based conductive film formed on the porous sheet. The electrode member is configured such that an electrolyte solution can flow in the thickness direction of the electrode member.

Abstract: An electricity storage battery is described, including an anode electrolyte solution 32 that contains a zinc redox material and an amine represented by a general formula (1) below: In the general formula (1), n is one of the integers 0 to 4, and each of R1, R2, R3 and R4 independently represents hydrogen, methyl or ethyl.

Abstract: A positive electrode electrolyte (22) and a negative electrode electrolyte (32) that are used in this energy storage battery have a pH within the range from 2 to 8 (inclusive). An ion exchange membrane, which is obtained by graft-polymerizing styrenesulfonate to a resin film base material that uses an ethylene-vinyl alcohol copolymer as a matrix, is used as a diaphragm (12) of this energy storage battery.

Abstract: A redox flow battery is described, mainly including a charge/discharge cell, a cathode electrolyte tank, and an anode electrolyte tank. The inside of the charge/discharge cell is divided into a cathode cell and an anode cell by a diaphragm. A collector plate and a cathode are contained in the cathode cell. An aqueous solution containing a Mn-polyethyleneimine complex is supplied from the cathode electrolyte tank to the cathode through a supply pipe. Thereby, an energy storage battery that has durability sufficient for practical applications in a wide range of fields can be provided.

Abstract: An electricity storage battery is described, including a cathode electrolyte solution that contains a manganese redox material and an amine represented by a general formula (1) below: In the general formula (1), n is one of the integers 0 to 4, and each of R1, R2, R3 and R4 independently represents hydrogen, methyl or ethyl, with the proviso that at least one of R1, R2, R3 and R4 is methyl when n is 0.

Abstract: A redox flow battery includes a charge/discharge cell (11), a first tank (23) for storing a positive-electrode electrolyte (22), and a second tank (33) for storing a negative-electrode electrolyte (32). The positive-electrode electrolyte (22) contains, for example, an iron redox-based substance and citric acid. The negative-electrode electrolyte (32) contains, for example, a titanium redox substance and citric acid. The amount of dissolved oxygen in the negative-electrode electrolyte (32) in the second tank (33) is no greater than 1.5 mg/L.

Abstract: An electricity storage battery is described, including an anode electrolyte solution 32 that contains a zinc redox material and an amine represented by a general formula (1) below: In the general formula (1), n is one of the integers 0 to 4, and each of R1, R2, R3 and R4 independently represents hydrogen, methyl or ethyl.

Abstract: An electricity storage battery is described, including a cathode electrolyte solution that contains a manganese redox material and an amine represented by a general formula (1) below: In the general formula (1), n is one of the integers 0 to 4, and each of R1, R2, R3 and R4 independently represents hydrogen, methyl or ethyl, with the proviso that at least one of R1, R2, R3 and R4 is methyl when n is 0.

Abstract: A redox flow battery is described, mainly including a charge/discharge cell, a cathode electrolyte tank, and an anode electrolyte tank. The inside of the charge/discharge cell is divided into a cathode cell and an anode cell by a diaphragm. A collector plate and a cathode are contained in the cathode cell. An aqueous solution containing a Mn-polyethyleneimine complex is supplied from the cathode electrolyte tank to the cathode through a supply pipe. Thereby, an energy storage battery that has durability sufficient for practical applications in a wide range of fields can be provided.

Abstract: A positive electrode electrolyte (22) and a negative electrode electrolyte (32) that are used in this energy storage battery have a pH within the range from 2 to 8 (inclusive). An ion exchange membrane, which is obtained by graft-polymerizing styrenesulfonate to a resin film base material that uses an ethylene-vinyl alcohol copolymer as a matrix, is used as a diaphragm (12) of this energy storage battery.

Abstract: Plasma producing method and apparatus wherein a plurality of high-frequency antennas are arranged in a plasma producing chamber, and a high-frequency power supplied from a high-frequency power supply device (including a power source, a phase controller and the like) is applied to a gas in the chamber from the antennas to produce inductively coupled plasma. At least some of the plurality of high-frequency antennas are arranged in a fashion of such parallel arrangement that the antennas successively neighbor to each other and each of the antennas is opposed to the neighboring antenna. The high-frequency power supply device controls a phase of a high-frequency voltage applied to each antenna, and thereby controls an electron temperature of the inductively coupled plasma.

Abstract: A plasma generating method and apparatus which use plural high-frequency antennas 2 to generate inductively coupled plasma, and a plasma processing apparatus using the apparatus. The antennas 2 are identical to one another. Application of a high-frequency electric power to the antennas 2 is performed from a high-frequency power source 4 which is disposed commonly to the antennas 2, through one matching circuit 5 and one busbar 3. The busbar 3 is partitioned into sections the number of which is equal to that of the antennas, while setting a portion which is connected to the matching circuit 5, as a reference. One-end portions of the antennas are connected to corresponding sections 31, 32, 33 through power supplying lines 311, 321, 331. The other end portions of the antennas are grounded. The impedances of the sections of the busbar, and those of the power supplying lines are adjusted so that same currents flow through the antennas, and a same voltage is applied to the antennas.

Abstract: The present invention provides a method of designing a redox flow battery system that can prevent system efficiency loss caused by weak generation power or load power at the time of electric charge or discharge, without using any lead storage battery, and can also provide further improved system efficiency. In the present invention, generating equipment that varies irregularly in output of power generation is provided with the redox flow battery to smooth the output of power generation. An average value of output distribution of the battery with respect to the smoothed output of power generation and standard deviation are determined. Then, at least either of a specified output of the battery and a specified output of the converter for converting the battery output is determined based on the standard deviation.

Abstract: One or more high-frequency antennas is allocated to and disposed in one cubic space C having a side of 0.4 [m] in a plasma generating chamber 1 or in each of plural cubic spaces C, each having a side of 0.4 [m], adjacent ones of the plural cubic spaces being continuous to each other without forming a gap therebetween. The total length L [m] of the high-frequency antennas in each of the cubic spaces C is set in a range which satisfies relationships of (0.2/P)<L<(0.8/P) with respect to an inductively coupled plasma generation pressure P [Pa] which is set in the plasma generating chamber 1.

Abstract: A plasma generating method and apparatus which use plural high-frequency antennas 2 to generate inductively coupled plasma, and a plasma processing apparatus using the apparatus. The antennas 2 are identical to one another. Application of a high-frequency electric power to the antennas 2 is performed from a high-frequency power source 4 which is disposed commonly to the antennas 2, through one matching circuit 5 and one busbar 3. The busbar 3 is partitioned into sections the number of which is equal to that of the antennas, while setting a portion which is connected to the matching circuit 5, as a reference. One-end portions of the antennas are connected to corresponding sections 31, 32, 33 through power supplying lines 311, 321, 331. The other end portions of the antennas are grounded. The impedances of the sections of the busbar, and those of the power supplying lines are adjusted so that same currents flow through the antennas, and a same voltage is applied to the antennas.

Abstract: Plasma producing method and apparatus as well as plasma processing apparatus utilizing the plasma producing apparatus wherein a plurality of high-frequency antennas are arranged in a plasma producing chamber, and a high-frequency power supplied from a high-frequency power supply device (including a power source, a matching box and the like) is applied to a gas in the chamber from the antennas to produce inductively coupled plasma. At least some of the plurality of high-frequency antennas are arranged in a fashion of such parallel arrangement that the antennas successively neighbor to each other and each of the antennas is opposed to the neighboring antenna. The high-frequency power supply device supplies the high-frequency power to each antenna from terminals of the antennas on the same side.

Abstract: Plasma producing method and apparatus as well as plasma processing apparatus including the plasma producing apparatus wherein one or more high-frequency antennas are arranged in a plasma producing chamber, and a high-frequency power is applied to a gas in the chamber from the antenna(s) to produce inductively coupled plasma. Impedance of the high-frequency antenna is set in a range of 45 ? or lower.

Abstract: Plasma producing method and apparatus wherein a plurality of high-frequency antennas are arranged in a plasma producing chamber, and a high-frequency power supplied from a high-frequency power supply device (including a power source, a phase controller and the like) is applied to a gas in the chamber from the antennas to produce inductively coupled plasma. At least some of the plurality of high-frequency antennas are arranged in a fashion of such parallel arrangement that the antennas successively neighbor to each other and each of the antennas is opposed to the neighboring antenna. The high-frequency power supply device controls a phase of a high-frequency voltage applied to each antenna, and thereby controls an electron temperature of the inductively coupled plasma.