Abstract: A method for treating and/or alleviating nervous diseases is provided. The method for treating and/or alleviating nervous diseases includes: administering an effective amount of a water extract of a plant of Gracilariaceae or a ferment thereof to a subject in need thereof to treat and/or alleviate a nervous disease thereof, wherein the ferment of the water extract of a plant of Gracilariaceae is a lactic acid bacteria ferment.

Abstract: The present disclosure provides a method for treating and/or alleviating nervous diseases, including: administering an effective amount of a water extract of a plant of Gracilariaceae or a ferment thereof to a subject in need thereof to treat and/or alleviate a nervous disease thereof, wherein the ferment of the water extract of a plant of Gracilariaceae is a lactic acid bacteria ferment.

Abstract: A method for manufacturing high purity sulfuric acid is provided. A mixed solution subsequently undergoes a first preheating step, a second preheating step, a distilling step and an evaporating step to remove peroxide, water, oxygen and insoluble impurities, so as to obtain the first gas containing sulfur trioxide, sulfuric acid and hydrogen oxide. And then, the sulfur trioxide is absorbed by a sulfuric acid solution, thereby forming the high purity sulfuric acid.

Abstract: The present disclosure provides a method for treating and/or alleviating nervous diseases, including: administering an effective amount of a water extract of a plant of Gracilariaceae or a ferment thereof to a subject in need thereof to treat and/or alleviate a nervous disease thereof, wherein the ferment of the water extract of a plant of Gracilariaceae is a lactic acid bacteria ferment.

Abstract: A method for manufacturing high purity sulfuric acid is provided. A mixed solution subsequently undergoes a first preheating step, a second preheating step, a distilling step and an evaporating step to remove peroxide, water, oxygen and insoluble impurities, so as to obtain the first gas containing sulfur trioxide, sulfuric acid and hydrogen oxide. And then, the sulfur trioxide is absorbed by a sulfuric acid solution, thereby forming the high purity sulfuric acid.

Abstract: A method for manufacturing high purity sulfuric acid is provided. A mixed solution subsequently undergoes a first preheating step, a second preheating step, a distilling step and an evaporating step to remove peroxide, water, oxygen and insoluble impurities, so as to obtain the first gas containing sulfur trioxide, sulfuric acid and hydrogen oxide. And then, the sulfur trioxide is absorbed by a sulfuric acid solution, thereby forming the high purity sulfuric acid.

Abstract: A method for manufacturing high purity sulfuric acid is provided. A mixed solution subsequently undergoes a first preheating step, a second preheating step, a distilling step and an evaporating step to remove peroxide, water, oxygen and insoluble impurities, so as to obtain the first gas containing sulfur trioxide, sulfuric acid and hydrogen oxide. And then, the sulfur trioxide is absorbed by a sulfuric acid solution, thereby forming the high purity sulfuric acid.

Abstract: The monitoring apparatus for nano-transfer printing process is installed at a specific location in the surrounding of a transfer printing unit, and, during any stage of the transfer printing process, performs monitoring or measuring the filling height, filling rate and filling profile of the forming material inside the transfer printing unit. The monitoring apparatus includes a detection unit, a measuring unit and an analysis unit. The detection unit emits a detection ray to the transfer printing unit. The measuring unit receives a reaction signal of the detection ray passing through the transfer printing unit. The analysis unit analyzes the reaction signal to determine the filling height, the filling rate and filling profile of the forming material inside the transfer printing unit.

Abstract: The monitoring apparatus for uniformity and residual thickness of nano-transfer printing process is installed at a specific location in the surrounding of a transfer printing unit, and, during any stage of the transfer printing process, performs monitoring or measuring the forming rate and forming profile of the forming material inside the transfer printing unit. The monitoring apparatus includes a detection unit, a measuring unit and an analysis unit. The detection unit emits a detection ray to the transfer printing unit. The measuring unit receives a reaction signal of the detection ray passing through the transfer printing unit. The analysis unit analyzes the reaction signal to determine transfer uniformity and the material residual thickness in the transfer print unit.