“Places that generate electricity” are returning to our daily lives.
Until now, electricity was generated at distant power plants and transported over long transmission lines.
However, large-scale centralized mechanisms such as power outages, CO₂, and geopolitical risks during disasters are showing signs of cracking.
Solar, small wind power, fuel cells, micro gas power generation.
We believe in the idea of placing several small power generation units right next to our daily lives,
We design forms of energy that do not stop during both normal and emergency situations.
Recommended for people like this
- Considering the introduction of self-consumption solar power or fuel cells, but unsure where to start.
- Considering business continuity during disasters, we want to review power generation plans, including UPS and emergency power generation.
- Municipalities, schools, and welfare facilities want to establish equipment resilient to power outages.
- We want to design our own energy balance, including microgrid cogeneration.
- There is interest not only in large storage batteries but also in alternative technologies such as capacitors.
Areas of Practice
| Category | Handling Technologies | How it works for daily life |
| Power generation | Microgas Power Generation Small Fuel Cells Small Wind Power Generation Solar Power Generation | Reduce electricity purchases from utilities to lower CO₂ emissions and electricity costs. |
| combined heat and power | Compact cogeneration system LNG Gas Supply | Improving heating and hot water supply efficiency and reducing fuel costs |
| Energy Storage and Power Quality | Secondary Battery System Secondary Battery Replacement Capacitors New Ways UPS | Absorbs uneven power generation from solar and wind power to achieve stable supply |
| emergency use | Emergency Power Generation System | Even during disasters or power outages, medical equipment, communications, and refrigeration are kept on the road. |
Delivery Approach
- Visualizing the current electricity balance: measuring power consumption patterns and power quality across the entire facility
- Designing combinations of distributed power sources: presenting and comparing multiple proposals on how to combine generation, storage, and power quality corrections
- Equipment selection and commissioning: No specific manufacturer restrictions. Proposing optimal combinations from a technology-neutral standpoint
- Post-operation effectiveness measurement and improvement: Regular tuning based on data