IP Library › Granted Patent US 11,217,808
Granted Patent B2
US 11,217,808 · App. 16/760,654 · Granted Jan 4, 2022

Raw material of electrolyte solution, method for manufacturing electrolyte solution and method for manufacturing redox flow battery

Inventors: Hirokazu Kaku (Osaka, JP); Ryouta Tatsumi (Osaka, JP); Tatsuya Tsurumura (Osaka, JP)
Assignees: SUMITOMO ELECTRIC INDUSTRIES, LTD.; TAYCA CORPORATION
H01M8/1016H01M8/08H01M8/188H01M2004/8684H01M2004/8689H01M2300/0005
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Quick Facts
Patent No.
US 11,217,808
App. No.
16/760,654
Granted
Jan 4, 2022
Kind
B2
Abstract

A raw material of an electrolyte solution that is to be dissolved in a solvent to form an electrolyte solution, and the raw material of an electrolyte solution is a raw material of an electrolyte solution that is a solid or semisolid that contains Ti in an amount of 2 mass % to 83 mass % inclusive, Mn in an amount of 3 mass % to 86 mass % inclusive, and S in an amount of 6 mass % to 91 mass % inclusive.

Claims (21)

1. A raw material of an electrolyte solution that is to be dissolved in a solvent to form an electrolyte solution, comprising:

Ti in an amount of 2 mass % to 83 mass % inclusive;

Mn in an amount of 3 mass % to 86 mass % inclusive; and

S in an amount of 6 mass % to 91 mass % inclusive,

wherein the raw material of an electrolyte solution is a solid or semisolid, and

wherein all of the first to third highest peaks in X-ray diffraction are located in at least one range of 20.0° to 25.0° inclusive and 27.5° to 32.5° inclusive of 2θ, and the first highest peak is located in a range of 27.5° to 32.5° inclusive of 2θ.

2. The raw material of an electrolyte solution according to claim 1 ,

wherein a peak in X-ray diffraction is located in at least one range of 11.90°±0.5°, 24.05°±0.5°, 30.75°±0.5°, and 41.35°±0.5° of 2θ.

3. The raw material of an electrolyte solution according to claim 1 ,

wherein a peak in X-ray diffraction is located in at least one range of 19.45°±0.5°, 26.00°±0.5°, 48.10°±0.5°, and 54.00°±0.5° of 2θ.

4. The raw material of an electrolyte solution according to claim 1 ,

wherein a peak in X-ray diffraction is located in at least one range of 22.80°±0.5°, 40.20°±0.5°, and 43.70°±0.5° of 2θ.

5. A method for manufacturing an electrolyte solution, comprising

a step of dissolving the raw material of an electrolyte solution according to claim 1 in a solvent of an electrolyte solution.

6. A method for manufacturing a redox flow battery, comprising

a step of storing an electrolyte solution in tanks to be connected to a battery cell provided with a positive electrode, a negative electrode, and a membrane interposed between the positive electrode and the negative electrode,

wherein the raw material of an electrolyte solution is a solid or semisolid comprising:

Ti in an amount of 2 mass % to 83 mass % inclusive;

Mn in an amount of 3 mass % to 86 mass % inclusive; and

S in an amount of 6 mass % to 91 mass % inclusive, and

wherein all of the first to third highest peaks in X-ray diffraction are located in at least one range of 20.0° to 25.0° inclusive and 27.5° to 32.5° inclusive of 2θ, and the first highest peak is located in a range of 27.5° to 32.5° inclusive of 2θ.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Apr 30, 2020
From: KAKU, HIROKAZU; TATSUMI, RYOUTA; TSURUMURA, TATSUYA
To: SUMITOMO ELECTRIC INDUSTRIES, LTD.; TAYCA CORPORATION
Reel/Frame 052538/0446 →
Priority Claims (1)
JP JP2017-214891 · Nov 7, 2017 · national
Continuity (1)
Related Publication 20200350607A1 · Nov 5, 2020