Clean Resources
We are Providing Integrated Solutions for Diverse Industries: Empowering Sustainable Futures.
Captainwatt
Industrial Overview
Cogeneration (CHP) is a highly efficient process that generates electricity and useful heat from a single energy source, reducing both energy costs and emissions. Tri-generation (CCHP) systems build on this by using waste heat for cooling, delivering even greater efficiency and cost savings. Ideal for facilities with high energy demands—such as industrial plants, hospitals, and commercial buildings—CCHP systems offer a smart, sustainable solution by minimizing waste and optimizing energy use.
Our H₂ generator can be integrated with system attachments to convert captured CO₂ into value-added products—creating a profitable opportunity for emissions reduction. Carbon utilization technologies offer various pathways to transform captured CO₂ into market-ready products, supporting India’s circular economy.
Exploring Our Industries
Halcyon Supply Chain Solutions is committed to excellence across industries. From renewable energy to e-mobility and military support, we deliver cutting-edge solutions that empower sustainable growth and innovation in each sector we serve.
Fields we work on
Renewable Energy
E-Mobility
Military Support Systems
What is Hydrogen?
Hydrogen is a chemical element with many capabilities. On Earth, it rarely occurs in its pure form and must be extracted from compounds with other elements—an energy-intensive process. Hydrogen can be further processed into various downstream products, including hydrogen-based synthetic energy carriers and so-called “e-fuels” such as methanol, ammonia, synthetic methane, and synthetic fuels.
What Does Hydrogen Have to Do with Climate Neutrality?
Hydrogen can help make emission-intensive processes and products either emission-free or significantly lower in emissions. Since the United States has committed to achieving net-zero carbon emissions by 2050, such solutions are increasingly in demand. However, industries will need years to transition. This requires long-term investments, and in some cases, the construction of entirely new facilities. Companies are also seeking constructive support from policymakers to ensure that investing in climate-friendly plants and business models is worthwhile.
Hydrogen can help make certain emission-intensive products and processes—ones that modern societies are unwilling or unable to abandon—more climate-friendly.
Hydrogen is an important technology for climate protection. However, it is misleading to present hydrogen as a universal solution or a miracle technology. In many areas, cheaper alternatives exist for reducing emissions. Additionally, due to economic and technical factors, the availability of hydrogen will be limited.
What Does Hydrogen Have to Do with Renewably Generated Electricity?
You need renewable energy to produce green hydrogen.
Green hydrogen is obtained through electrolysis, a process that splits water (H₂O) into hydrogen (H₂) and oxygen (O). This requires green electricity. As many may recall from chemistry class, the process looks something like this:
While electrolysis itself doesn’t depend on the electricity source, for climate protection purposes, only renewable electricity—primarily from wind and solar—is suitable.
You can store clean electricity in gaseous hydrogen and later convert it back into electricity.
When you produce gaseous hydrogen, it can act as an electricity storage system. This will become increasingly important as renewable energy’s share in the electricity mix grows.
However, considerable energy is lost during storage and reconversion. Therefore, it’s usually more energy-efficient and cost-effective to use electricity directly.
Three steps to using hydrogen as a storage system
1.
Electrolysis with water and renewable electricity.
2.
Storage and transport of gaseous hydrogen.
3.
Re-conversion of hydrogen into
electricity.
Green and Blue: What Do Hydrogen Colors Mean?
Hydrogen itself has no color—the colors indicate the method and raw materials used in production.
- Green Hydrogen is produced with renewable energy and is virtually emission-free. While some emissions may occur during plant construction, this is common to all infrastructure.
- Blue Hydrogen, like gray hydrogen, is produced using natural gas. CO₂ emissions are captured and stored underground, making it “climate-neutral” in theory. However, this is controversial due to additional emissions from natural gas use and a lack of large-scale production facilities.
- Pink Hydrogen is produced using nuclear power.
- Yellow Hydrogen is produced using grid electricity (a mix of fossil, nuclear, and renewable sources).
Why is Blue Hydrogen Controversial?
Even if most CO2 is captured and stored underground, the extraction and transport of natural
gas produce “upstream emissions,” especially methane—a gas 28 times more harmful to the
climate than CO2 over 100 years, and 84 times more harmful over 20 years.
Environmental groups criticize blue hydrogen for this reason.
Some experts and industry leaders support blue hydrogen as a transitional solution until green hydrogen is available in sufficient quantities. They argue that it’s essential to build hydrogen infrastructure now—especially in sectors such as steel and heavy manufacturing, where existing installations are nearing reinvestment.
The United States federal strategy, exemplified through initiatives such as the Bipartisan Infrastructure Law and the Inflation Reduction Act, places a significant emphasis on the development of clean hydrogen hubs and a commitment to green hydrogen, while continuing to support blue hydrogen as a transitional fuel. In this context, the U.S. Department of Energy is making strategic investments in both forms of hydrogen to promote a diversified approach towards decarbonization.
In a similar vein, the government of India is actively advancing green hydrogen development as a foundational element of its energy transition and decarbonization strategy, underpinned by the National Green Hydrogen Mission and related policies. Specifically, India has set an ambitious objective of reducing carbon emissions by 50% by the year 2030, with the aspiration for the entire economy to achieve net zero status by 2070.
What Role Does Hydrogen Play in a Climate-Neutral Industry?
Hydrogen is vital for decarbonizing certain key industrial processes by 2050 in the United States.
- In the chemical industry, green hydrogen can be used to produce green ammonia—an essential input and the most CO₂-intensive petrochemical product.
- In the steel industry, hydrogen can replace coal in blast furnaces or natural gas in direct reduction plants.
The U.S. Department of Energy has also launched the Hydrogen Energy Earthshot initiative to accelerate breakthroughs in clean hydrogen across these sectors.
Engagement of H₂ Generators and Fuel Cells
Methane-fed fuel cell backup power systems, paired with steam methane reforming (SMR) hydrogen generators, offer:
Longer runtimes
Lower noise
Reduced emissions
These systems are ideal for telecommunications, building security, commerce, and transportation, where reliable backup power is critical.
Microsoft has explored hydrogen fuel cells as a zero-emission alternative for data center backup power, showing they can replace traditional diesel generators.
Hydrogen Generators and Fuel Cells: Key Benefits
Energy Efficiency
Consume 35% less energy than diesel generators • Zero
Future-Ready
Compatible with renewable methanol for future compliance
Harmful Emissions
No NOₓ, SOₓ, or particulates; 28% lower CO₂ emissions
Carbon Neutral Potential
When using renewable methanol, emissions can be minimal, and carbon capture is feasible
Reliable Operation
Few moving parts = low maintenance
costs
Hydrogen—especially green hydrogen—is expensive and requires substantial infrastructure. Today, it is more of a premium energy carrier, akin to champagne, used in specific, hard-to abate sectors like heavy industry, long-distance transport, and aerospace.
As technology matures and costs fall, hydrogen may become the “wine” of the energy transition—a common, practical solution.
Modes of operands for the green energy.
1.
Deployment of containerized electrolyses on site green energy H2 generation
2.
Storage & logistics H2 SKU’S Insulated Tanks & cryogenic bottles.
3.
Storage alternative generated O2 application medical gas.
4.
Inlet clean energy H2 use for Gas fired engines turbine containerized plant for electricity generation.
5.
Usage direct electricity to the turnkey plants & off shower applications.
6.
Charging AC2DC containers BESS paring with GT & Solar generated energy.
7.
E-mobility charging stations outlets & mobile DC2DC – Software support
8.
ENERGY STORAGE AS- A-SERVICE (ESAAS)
9.
The green energy net zero carbon module SOP carbon commodities carbon credit certificate.
10.
Collaboration R & D good laboratories prototype system integrations empowering youth as nation’s builder.
11.
Develop self reliant renewable generation equipments meet suitable to Indigenous geographical paradox.
