play a critical role
Global energy consumption is rising rapidly due to population growth and economic development, and reducing CO2 emissions-the primary driver of global warming-has become a major challenge.
As energy use accelerates, dependence on limited resources and environmental load continue to grow. In response, countries around the world are pursuing a range of initiatives to secure energy resources and maintain a stable electricity supply.
Hydrogen energy, in particular, is gaining significant attention as a key solution for achieving a decarbonized society. At the same time, expectations are increasing for the development and commercialization of various energy storage technologies, including large‑scale batteries.
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Greenhouse gas emissionsThermal power generation and the combustion of oil and natural gas release large amounts of carbon dioxide (CO2), a major contributor to global warming -
Resource depletion and sustainabilityEnergy demand continues to grow as emerging economies expand, but fossil fuels are finite resources and cannot be used indefinitely -
Stable supply of renewable energySolar and wind power are clean sources of energy, but they are easily affected by weather conditions, making stable supply difficult -
Catalyst developmentDeveloping catalyst materials is essential for the widespread adoption of hydrogen as a new energy source. Highly advanced material fabrication and analysis technologies are required to support catalyst material research -
Difficulty in ecomaterial developmentThere is an urgent need to develop eco-friendly materials such as carbon-neutral materials that do not increase CO2 emissions even when combusted
Solved IssuesDecarbonization- Contributes to research on zeolite, which is expected to support CO2 conversion catalysts, energy-efficient separation membranes, and highly efficient purification of renewable resources
- High-precision and rapid elemental analysis
- Analytical capabilities that support the reduction of CO2 emissions alongside resource recycling
Solved IssuesDecarbonization- Essential for green hydrogen production and the development of renewable energy materials. Nanoscale structural and compositional analysis supports research into photocatalysts using NiO and Pt
- Enables high-resolution visualization and analysis at the forefront of material development, including the elucidation of catalyst surface microstructures, particle distribution, and degradation mechanisms
- Applicable to identifying harmful particles in emissions and evaluating the performance of catalysts and adsorbents, contributing to optimal resource utilization and sustainable energy supply
Solved IssuesDecarbonization- We are working to contribute to the entire hydrogen value chain
- Providing components for fuel cells used in fuel cell vehicles (FCVs) and water electrolysers
- Implementing foreign object control to identify iron (Fe) using inline X-ray transmission inspection devices in the manufacturing process of fuel cell stacks (the main part of an FCV)
Solved IssuesNature Positive- Enables optimal resource utilization through degradation analysis of renewable energy materials
- Can be used to evaluate environmental impacts associated with the introduction of renewable energy
- Enhances device durability and extends operational lifespans, thereby contributing to a sustainable energy supply
Solved IssuesCircular Economy- Enables on‑site analysis of solar panels, fuel cells, and other materials in recycling operations
- Used for material identification of pipes and structural components at power plants, oil fields, and similar sites, as well as for verifying weld quality
- Enables non-destructive, immediate analysis

