Governmental Projects for the Creation of a Hydrogen Society
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Contact Information
Climate Change Projects Office,Climate Change Policy Division,Global Environment Bureau,Ministry of the Environment
In order to achieve decarbonization with hydrogen fuel, it will be necessary to implement consistent measures from production to storage and transportation to use.
The MOE promotes decarbonization by engaging in projects that demonstrate how hydrogen supply chains can be created utilizing local resources.
Produce hydrogen from wind power plant, and deliver it by simplified hydrogen fueling vehicles to use it for FC forklifts at local warehouses, factories or markets.
Produce hydrogen from livestock manure and transport it in curdles to use it for stationary fuel cells in the region.
Collect unused high purity byproduct hydrogen from caustic soda plants, compress and liquefy it to transport to utilize for stationary fuel cells or FCVs in the region.
Collect and purify hydrogen produced from waste plastics, transfer it through pipelines and utilize it at business facilities or in stationary fuel cells.
Produce hydrogen from a small hydropower plant, transport it via compressed hydrogen tube-trailers or curdles and utilize it for stationary fuel cells and FCVs in the dairy facilities and heated swimming pool in the region.
Store hydrogen that is produced from solar power in metal hydride, and transport it using the existing logistics to utilize at stationary fuel cells at households and a childcare center.
Produce hydrogen from wind power and mix it with a high calorific simulated gas similar to municipal natural gas, and transport it via pipelines to utilize it for commercial gas devices.
Produce hydrogen from wind power, store and transport it using on-vehicle and stationary metal hydride tanks and hydrogen delivery vehicles to utilize it for pure hydrogen fuel cells at a hot spring facility.
Hydrogen is produced from wind power and solar power in this project. The hydrogen is transported in curdles and then utilized for FC forklifts and FCVs in neighboring regions.
Hydrogen is produced at Fukushima Hydrogen Energy Research Field in this project. The hydrogen is transported by curdles and compressed hydrogen tube trailers, and then utilized for fuel cells and FCVs in the neighborhood.
Produce methane by Methanation using hydrogen from renewable energy sources and biogas produced by fermentation of food waste, transport through pipeline and utilize in city gas consuming appliances.
Utilizing an existing LP gas delivery network, hydrogen produced from wind power is delivered at low pressure in cylindrical
tanks which contain a hydrogen absorbing alloy.
The hydrogen is used in residential fuel cells, hydrogen boilers in small restaurants and lodging facilities, and hydrogen gas cutters in metal processing plants.
The MOE supports the development of hydrogen utilization technologies that will reduce CO2 emissions reduction and lead to the realization of a decarbonized society.
Primary partner: NASU DENKI-TEKKO CO., LTD.
Strategic partner: Ashikaga University
Implemented from fiscal 2017 to 2019
Development of a cassettes containing hydrogen-absorbing alloy, realize low-pressure, high density hydrogen storage at reduced costs with improved absorption and emission efficiency.
The MOE supports the development and implementation of applications in the transport and other sectors.
Primary partner: Denyo Co., Ltd.
Strategic partner: Toyota Motor Corp.
Implemented from fiscal 2019
The MOE supports the development of fuel cell power supply vehicles and fuel cell-based mobile power generators that can utilize hydrogen derived from renewable energy sources.
This vehicle contributes to decarbonization since its fuel cells supply power to operate the motor and electronic systems. Equipped with a hydrogen tank that has a maximum capability of around 100 km for one-way travel (200 km round trip), the vehicle is also capable of supplying electricity continuously for approximately 72 hours. Thus, it can provide electricity in the event of a natural disaster, thereby providing relief as a emergency energy source.
Primary partner:Toshiba Energy Systems & Solutions Corporation
Implemented from fiscal 2018
A control system for connecting multiple 100kW units for the downsizing of stationary fuel cells and making durability and power output improvements.
Primary partner: Toyota Industries Corp.
Implemented from fiscal 2014 to 2016
R&D support for a FC forklift and the potential of reduced costs and improvement of energy efficiency and durability leading to commercialization in 2016. These forklifts are not just environmentally friendly, they also boast a convenient, quick refueling time of approx. three minutes.
Primary partner:Hino Motors, Ltd.
Strategic partner:Toyota Motor Corporation
Implemented from fiscal 2013 to 2015
R&D support of a FC bus to improve power performance, reliability and durability leading to commercialization in 2017.
Supports the implementation of FC buses, which boast both environmental friendliness and comfort.
Primary partner:Tokyo R&D Co., Ltd.
Implemented from fiscal 2016 t o 2019
Aiming for mass production, the basic performance and practicality of FC trucks were tested through demonstrations on public roads.
Primary partner:Flat Field Co., Ltd.
Strategic partners:Waseda University Academic Solutions Corp., Techmation Co., Ltd.
Implemented from fiscal 2015 t o 2017
Developed an FC garbage truck, tested its basic performances, and identified optimal uses in actual garbage collection.
Primary partner:Toda Corporation
Strategic partners:Nagasaki Institute of Applied Science, Nippon Kaiji Kyokai
Implemented from fiscal 2014 to 2015
A water-proof, salt-resistant FC unit developed for boats demonstrated at sea.
Contact Information
Climate Change Projects Office,Climate Change Policy Division,Global Environment Bureau,Ministry of the Environment