Hydrogen/Fuel Ammonia
Using High-Accuracy Gas Analysis Technologies and a Wide Range of Green Environmental Conservation Analytical Technologies to Achieve a Stable Energy Supply
Hydrogen
Hydrogen does not emit CO2 when burned. Furthermore, it can be created using a wide variety of techniques, such as by the electrolysis of water or by steam reforming. Consequently, it is attracting attention as a next-generation clean energy source.
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Quantitation of Hydrogen and Methane Dissolved in Hexanes, Toluene and Water
The amount of gases dissolved in a liquid solution may alter the functionality of the solution and affect the stability and reactivity of other dissolved components.
This article introduces analysis of hydrogen and methane in hexanes, toluene and water using the Shimadzu BID-2030
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Ammonia Fuel
Ammonia is attracting attention as a carbon-free energy source that does not emit CO2 when burned. It is also expected to serve as a carrier for hydrogen energy.
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High-Sensitivity Analysis of Ammonia, Methylamine, and Trimethylamine in Environmental and Energy Fields
The dielectric barrier discharge ionization detector (BID) permits detection of nearly all compounds, except for helium and neon, at higher sensitivity than that possible with TCD and FID detectors. Here, we introduce examples of analysis at the ppm level of ammonia and methylamine in water, and of trimethylamine in water by GC-BID.
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Photocatalysts and Artificial Photosynthesis
Artificial photosynthesis is a technology that uses a photocatalyst and sunlight to perform photosynthesis artificially. It can convert light energy into useful compounds and is expected to be used as a next-generation renewable energy source.
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Photocatalysts and Artificial Photosynthesis
This describes relevant Shimadzu analytical instruments and analysis examples from the photocatalyst and artificial photosynthesis fields. Examples of using a spectrophotometer, GC, or GCMS system to analyze or characterize reaction products are introduced.
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Hydrogen (H2)-based steelmaking
About 14 % of Japan’s CO2 emissions comes from the steel industry, making it one of the main sources of CO2 emissions. Therefore, reducing the CO2 emissions from steel production is very important. Hydrogen reduction steel manufacturing uses hydrogen gas as a reducing agent instead of coke to remove the oxygen from iron ore by binding it with hydrogen and emitting it as H2O (water).
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State Analysis of Iron Oxide Scale
Removal of the oxidized scale that forms on the surface of steel products has a large influence on the surface properties of the products, research and development have been conducted to clarify the relationship between the growth rate of oxidized scale and the surface properties, high temperature adhesion, and the peelability of the scale.
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Applicable Products
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Measurement of Quantum Yield from Photocatalytic Carbon Dioxide Reduction Reactions
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Analysis of CO Generated from CO2 Reduction Reactions
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High-Resolution Analysis of Various Gases
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Measurement of Titanium Oxide Particle Size
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Analysis of State of Oxidized Scale Generated on Steel Surfaces
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Visualization of Photoinduced Charge Distribution
