HYDROGEN Power Plant

Green HYDROGEN 

& TURNKEY

GREEN HYDROGEN POWER PLANT

Innovation, 
is in DNA of DABITRON activity
Hydrogen may become a key element a 100 per cent clean, renewable energy future and meet the clean energy needs of people, economies, and their environments.
The Challenges of Intermittent Renewable Energy. 

One of the challenges related to the integration of renewable energies into the energy system is their intermittency.

Intermittent renewables are challenging because they disrupt the conventional methods for planning the daily operation of the electric grid.


Their power fluctuates over multiple time horizons, forcing the grid operator to adjust its day-ahead, hour-ahead, and real-time operating procedures.


Take the example of solar panels. Electricity generated through solar photovoltaic panels is clean inexhaustible, contributing to sustainable local development in three different areas: social, economic, and environmental.

Solar energy is inherently only available during daylight hours, so the grid operator must adjust the day-ahead plan to include generators that can quickly adjust their power output to compensate for the rise and fall in solar generation. Furthermore, power plants that typically produce electricity all day every day might instead be asked to turn off during the middle of the day so that the energy produced from solar can be used in lieu of fossil electricity.


To effectively use renewable energy, appropriate energy storage technology will need to be developed.

Hydrogen: what it is and why it is interesting for the energy sector. 

Hydrogen has a critical role to play in helping the world reach net zero emissions.


Hydrogen can be used as a raw material, as a fuel or as an energy carrier. It has many possible applications in the industrial, transport, energy and construction sectors. It therefore offers a solution to decarbonise industrial processes, especially in economic sectors where reducing emissions is urgent and difficult to achieve.


Hydrogen is a versatile energy-carrying element that can be deployed to assist with a variety of energy sector goals.


Hydrogen has long been touted as the “fuel of the future”. With global momentum to achieve decarbonization driven by new targets, regulations and technological advancements in hydrogen production, that future is now - a fuel of tomorrow and today.  Here are principaly reasons why hydrogen is becomes one the vital renewable energy source of tomorrow and today:

  • No direct CO2 emissions2.
  • Plentiful and versatile.
  • High energy density.
  • Storage potential.
  • An industrial fuel. 


Hydrogen is a secondary source of energy. It stores and transports energy produced from other resources (fossil fuels, water, and biomass).


Clean hydrogen — produced from renewable energy, can allow for the decarbonization of a range of key sectors such as energy production, mining & minerals industry, iron and steel production, and long-haul transportation.

  • What is hydrogen?

    Hydrogen is the most common element in the universe. The first chemical element in the periodic table, hydrogen is the initial "fuel" of stars. In the universe, 92% of what is known is made up of hydrogen. It is the stuff that stars are made of and a fundamental building block of all life on Earth. Its name means "water generator" and was coined in the late eighteenth century. 70% of the Earth's surface is covered with water (H 2 O), a chemical compound made up of hydrogen (H) and oxygen (O). Hydrocarbons, such as methane (CH 4 ) and crude oil, are also important hydrogen-containing compounds. Most hydrogen is therefore found in chemical compounds: on its own it is an invisible, odorless and non-toxic hydrogen gas, lighter than air and which only liquefies at a temperature of -252°C. 


    It can be used to produce other compounds or as a fuel to produce energy. Is possible to produce, accumulate, move and use energy in different ways thanks to this very versatile element. It can be produced using renewable energy, nuclear, natural gas, coal and oil. The emission-free properties make green hydrogen a promising candidate for the transition to a new energy carrier. With green hydrogen, the goal of a low-carbon economy becomes achievable. 

  • What are the 3 Main types of hydrogen Production?

    Three main types of hydrogen are "grey" hydrogen, "blue" hydrogen and "green" hydrogen.

  • What is "grey” hydrogen?

    Hydrogen produced using energy from hydrocarbons, particularly natural gas, is known as “ grey ” hydrogen.

  • What is "blue” hydrogen?

    Hydrogen produced from natural gas and later decarbonised  using carbon capture and storage is sometimes called blue or decarbonised hydrogen. 

  • What is "green” hydrogen?

    Hydrogen produced via electrolysis, by splitting water into oxygen and hydrogen using electricity from renewable sources is sometimes called green or renewable hydrogen.

  • Is "green" hydrogen safe?

    Yes, hydrogen is safe if handled correctly. Hydrogen is a non-toxic gas at room temperature and atmospheric pressure. Hydrogen is explosive under certain conditions when mixed with air – similar to natural gas. When handled responsibly, green hydrogen is less dangerous than other flammable fuels. Therefore, tried and tested international standards exist on how to design and monitor hydrogen installations.

  • What are the hydrogen applications?

    Hydrogen has long been used in the chemical industry for many manufacturing processes. The interest in hydrogen for storage and generation of electrical energy has only been focused on more strongly in recent years. Above all, the very volatile electricity generated from photovoltaic and wind power plants strengthens the need for flexible energy storage. There are a multitude of possible applications for hydrogen technologies:

    • Production of electricity, heat and water for various end uses.
    • Power generation and energy storage.
    • Combined heat and power generation.
    • Energy storage of renewable energies.
    • Hydrogen generation and Storage.
    • Industrial processes.
    • Transportation and mobility.
    • Residential and commercial gas utility systems.
    • Export market.

  • How to use hydrogen ?

    As an energy carrier, hydrogen can be converted to electricity, heat or kinetic energy and can be used:

    • For stationary applications, through the production of electricity and/or heat in buildings (principle of combined heat and power production)
    • For industrial applications by using hydrogen as a chemical compound
    • For mobile applications by using hydrogen as a driving force

  • What are hydrogen technologies?

    Hydrogen technologies are mechanical or chemical applications in which hydrogen is used. A distinction can be made between five types of hydrogen technologies:

    1. Technologies for hydrogen production.
    2. Technologies for hydrogen use.
    3. Technologies for hydrogen storage.
    4. Technologies for hydrogen distribution. 
    5. Technologies for infrastructure. 

  • Hydrogen supply systems

    The hydrogen supply systems investigated in this work are concerned with hydrogen that is produced from water electrolysis. 

    The three hydrogen supply systems investigated are as follows:

    • (1) Decentralized-Standalone (Dec-Sa). In this system, hydrogen is produced at the refueling station, with a standalone system using dedicated wind power plants and/or solar PV that are located in the vicinity of the refueling station and provide the electricity for the electrolyzer. Hydrogen storage tanks are used to store the hydrogen between production and demand at the refueling station.
    • (2) Decentralized-Grid-connected (Dec-Gc). This is similar to the Dec-Sa system but uses electricity supplied from the local electricity grid to power the electrolyzer. Current and possible future electricity price scenarios are used.
    • (3) Centralized-Grid-connected (Cen-Gc). This is a large-scale, centralized hydrogen production system using electrolysis, from which the hydrogen is distributed to several refueling stations via trucks. Large-scale, lined rock cavern (LRC) centralized storage is used to smoothen the seasonal variations, while a storage system similar to that used in the decentralized systems (Dec-Sa and Dec-Gc) is used to store the hydrogen at a higher pressure at the refueling station. Current and possible future electricity price scenarios are used.

Advantages of green hydrogen:


  • Produced from renewable energy sources: The conventional production method extracts hydrogen using fossil fuels. With green hydrogen, renewable energy is used to power the electrolysis process that breaks down water into hydrogen.


  • Storage: Unlike wind and solar energy, hydrogen can be stored. Regardless of the weather conditions, it is available at all times.


  • Versatile areas of use: Green hydrogen can be used in several sectors, including transportation, energy and industry, can be used as a fuel, to generate electricity and heat and as a raw material in industrial processes and products, making it a versatile solution for the clean energy transition.


  • Reduces COâ‚‚ emissions: Green hydrogen produces no greenhouse gas emissions during its production and use, thus contributing to the reduction of CO2 emissions and a cleaner environment. Through electrolysis using renewable energy, the only byproduct of hydrogen is oxygen which can be used for other applications or simply released into the environment. CO2 emissions can also be reduced by replacing fossil fuels and fossil raw materials with renewable hydrogen.


  • Improved air quality: By reducing the use of fossil fuels, green hydrogen can help to improve air quality and reduce health risks associated with air pollution.


  • Economic opportunities: The development and growth of the green hydrogen industry can create new jobs and economic opportunities, particularly in the manufacturing and installation of hydrogen production and storage equipment.


  • Transition to a low-carbon economy: Green hydrogen plays a vital role in supporting the transition to a low-carbon economy, as it provides a clean and sustainable alternative to fossil fuels.





It can be transported in the form of gas by pipelines or in liquid form by ships. It can be transformed into electricity and methane as heating for buildings and can be used in the chemical industry, to produce ammonia, agricultural fertilizers and petroleum products, and in the metallurgical industry for the treatment of metals.

Drawing on renewable energy, green hydrogen works towards the implementation of energy systems, with the following objectives:
  • Decarbonize: combining renewable energy, zero CO2 and zero particulates,
  • Decentralize: local energy production and use.
  • Optimize: use of surplus production,  intelligent management of the network
All this makes hydrogen a key component in achieving both the EU and global goals of achieving zero carbon use by 2050, as stated in the Paris Agreement.
How green hydrogen works. 
Once produced, green hydrogen can be used as an energy source in various sectors, including mobility, industry, heating and electricity.

Additionally, green hydrogen can be used as a form of renewable energy storage: during periods of high solar or wind energy production, excess energy can be used to produce green hydrogen via water electrolysis. The hydrogen produced can, therefore, be stored and used when renewable energy is not available, ensuring a constant and reliable energy supply. Continued technological advances demonstrate that green hydrogen will be an increasingly important component of the clean energy of the future.

MICROGRID

Power Plants

Learn More →

NEW 

Energy Solutions 

Learn More →

Hydrogen can provide a cost-effective, clean energy infrastructure, contributing to energy supply security both at local and country levels.


A 100% renewable Non-Intermittent local renewable energy generation solution that help guide the transition towards a sust ainable and decarbonised energy model.

DABITRON New Energy Solutions - local Non-Intermittent Green Hydrogen Power Plant

Hydrogen As An Clean Energy Source

Turnkey DABITRON Green Hydrogen Power Plants ‘end-to-end local clean energy power solution,’ can help you meet your energy independence and decarbonisation goals.

Technologies for hydrogen use.

To generate zero-carbon electricity, the hydrogen used is either “green”, which means hydrogen derived from water by electrolysis using energy from renewable sources.

Technologies for hydrogen infrastructure.

At DABITRON we are developing projects for the production of hydrogen from renewable sources through the electrolysis of water (so-called green hydrogen). 

DABITRON " Renewable Power-to-Hydrogen-to-Power " Solutions
Due to existing uncertainties along the entire value chain and the dynamic regulatory framework, green hydrogen power plant projects require a high degree of entrepreneurial thinking and action – which is at the core of DABITRON’s DNA.

Responding to the challenge of intermittent renewable energy DABITRON offer a local Hydrogen Power solution that delivers non-intermittently 100% renewable electricity that help encourage a mix of renewable sources that produces just the right amount of energy when we need it, and reduces the need for costly energy storage. A solucion to manage fluctuations in renewable energy and that can be used to integrate renewable energy without the need for costly energy storage.

Hydrogen is one of the most abundant elements in the universe – DABITRON develop and provide innovative DABITRON H2 SYSTEM LOOP ® (and/ or DABITRON DH2SL ®) green hydrogen power plant (on-grid/ off-grid) to encourage the adoption of hydrogen as a key player in the energy sector, that contributes to building a local energy sector with net-zero emissions. DABITRON end-to-end green electricity solutions to power electrolyzers making green hydrogen which will be used as an energy carrier to produce electricity for the local marketplace. 
Turnkey ‘end-to-end local clean energy power solutions,’ for energy supply (for large 100% clean energy buyers) at cost competitive and high quality tailored services for power and utilities sector, industrial and commercial applications as well as in transport. We help clients across all sectors unlock opportunities to meet the rising demand for power, maintain secure and reliable energy supplies, reduce greenhouse gas emissions, to deliver future energy sch emes and help create energy access for any community, a Sustainable Development in harmony with the environment. 

Our end-to-end green electricity DABITRON H2 SYSTEM LOOP ® multi-megawatt turnkey Non-Intermittent Green Hydrogen Power Plants solutions, are a unique combination of business know-how, search, services and technology, providing a unique one-stop control over all internal operations. 
DABITRON Hydrogen value chain:
DABITRON’s broad portfolio encompasses the full hydrogen value chain from production to consumption:
Technologies for hydrogen infrastructure.
Technologies for hydrogen production.
Technologies for hydrogen storage.
Technologies for hydrogen use.
We aim to provide:
The main low-car bon hydrogen production projects we are involved in are:
Integrating photovoltaic (PV) solar systems. Microgrid Energy Efficiency Projects in Canary Islands, Europe, Sub-Saharan Africa, Africa, Australia, South America and not only.

Hydrogen storage

Green Hydrogen storage used as a sustainable fuel.

Energy Storage of additional solar energy to be used at night. Microgrid Energy Efficiency Projects in Canary Islands, Europe, Sub-Saharan Africa, Africa, Australia, South America and not only.

Power generation

Green Hydrogen used for generating electricity.

Hibrid solar pv systems. Combines features of On-grid system with Solar Energy Storage. Microgrid Energy Efficiency Projects in Canary Islands, Europe, Sub-Saharan Africa, Africa, Australia, South America and not only.

Sustainable mobility

Green Hydrogen used for H-mobility.

Values and opportunities to deployment of local non-intermittent 100% renewable energy generation

DABITRON H2 SYSTEM LOOP ® (DH2SL®)

Green Hydrogen Power Plant 

Our Hybrid Energy Projects for a Better Future

Renewable Power-to-Hydrogen-to-Power

DABITRON NON-INTERMITTENT GREEN HYDROGEN POWER PLANTS SOLUTION
Our vision for a Sustainable Future is a building a decentralized electricity market that enables renewable energy producers and consumers to share energy in a cleaner, more efficient, more economical, more transparent and connected way than ever before. We are therefore focused on developing the needed infrastructure for hybrid energy projects as local Green Hydrogen Power that delivers non-intermittently 100% renewable electricity generation for a future decentralized energy world and a local Sustainable Development. 
  • Microgrid energy solutions solar power
  • Microgrid energy solutions solar power for industrial and mining industry

    hydrogen refuelling station

    electronic-vehicle charging and/or Hydrogen refuelling station

    Button
    • Renewable Power-to-Hydrogen-to-Power


    DABITRON H2 SYSTEM LOOP ® multi-megawatt turnkey Non-Intermittent Green Hydrogen Power Plants, a 100% renewable energy solution that help guide the transition towards a sustainable and decarbonised energy model.
    Go to DABITRON DH2SL →
    Share by: