The Kyuden Group aims to achieve carbon neutrality by the year 2050.
Starting from Kyushu, the Kyuden Group will lead the way to Japan's decarbonization

The Kyuden Group aims to achieve carbon neutrality by the year 2050 and carbon negative as early as possible before 2050, by reducing GHG emissions in its supply chain and contributing to the reduction of emissions across society.
*: By promoting electrification and developing renewable energy, we aim to generate GHG reductions that exceed the Kyuden Group's own emissions, thereby achieving this "carbon negative" status in relation to society's overall GHG emissions through our business activities.

Source: Created by the Kyuden Group based on the "Calculation of Supply Chain Emissions" from the Ministry of the Environment *: Following the GHG Protocol, which is the international standard for calculating and reporting GHG emissions, emissions are calculated for three different scopes (categories) of emission types.
*1: In accordance with the GHG Protocol, Scopes 1, 2, and 3 are included. *2: Such as the construction of high-efficiency LNG power stations, co-firing of hydrogen and ammonia in existing power stations, CCS, and procurement from low-carbon sources. *3: Such as efforts to expand renewable energy, and explore the development and installation of next-generation innovative nuclear reactors. Note: The achievement of carbon neutrality by 2050 and the environmental targets for 2035 outlined in this roadmap are contingent upon the establishment of national policy support and technological advancements. As such, this roadmap may be subject to revision based on changing circumstances.
To achieve carbon neutrality by 2050 and realize carbon-negative status as early as possible, we will pursue medium- to long-term technical development and related initiatives with a view to future social implementation.
*1: By creating artificial reservoirs at depths of 3 km or more, geothermal power generation becomes feasible regardless of location (in Kyushu, high-temperature layers are relatively shallow). Under high-temperature and high-pressure (supercritical) conditions, this approach enables higher efficiency and greater output compared to conventional geothermal power generation. *2: High-efficiency solar power generation using quantum dots with a broader light absorption spectrum than conventional solar panels. When adopted during solar panel replacement, it enables approximately twice the power generation from the same surface area.
*1: By creating artificial reservoirs at depths of 3 km or more, geothermal power generation becomes feasible regardless of location (in Kyushu, high-temperature layers are relatively shallow). Under high-temperature and high-pressure (supercritical) conditions, this approach enables higher efficiency and greater output compared to conventional geothermal power generation. *2: High-efficiency solar power generation using quantum dots with a broader light absorption spectrum than conventional solar panels. When adopted during solar panel replacement, it enables approximately twice the power generation from the same surface area.

*: CO2 capture, utilization, and storage


