We are building waste-to-energy plants (10 MW – 200 MW) worldwide.

Electricity energy from wastes

The population of our planet is constantly growing, so the amount of waste generated is also constantly growing, which can be used to generate electricity. Solar and wind energy are our ideal energy sources, but we also need to deal with waste, because it is slowly covering our planet. Electricity covers all our energy needs, there is no need for oil and coal, we can cook with electricity in the kitchen, use electric cars, cool and heat our homes.

We build power plants that use syngas from tires and RDF as fuel for gas turbines. Our entire gasification process does not produce pyrolysis oil, coal dust, oil sludge, wastewater. Syngas is NOx-free, CO2 emissions are reduced. The synthetic gas produced is the fuel for gas turbines. There is no water consumption, so it can be used in desert environments, where drinking water is still a great value. Our goal is to provide the population of their settlements with locally produced energy from locally generated and locally collected waste, creating local jobs.

Our waste recovery's environmental protection innovation incorporates microwave technology. The microwave radiant in reactor space it creates a high-temperature field (electron temperature 6500°C) that efficiently disintegrates all complex compounds, such as resins, aromatic molecules, tars, etc. This technology leverages the intrinsic properties of microwave plasma for the effective decomposition of gaseous components. High temperatures in plasma jets can disintegrate organic or biological materials, neutralize potent toxins, and melt or vaporize stubborn inorganic substances, thus reducing waste significantly.

Electricity and Thermal Energy from Waste – Waterless Waste-to-Energy Plants

The Future of Hungary’s Energy System – From Waste, Without Water, and Emission-Free

Hungary faces an opportunity that simultaneously resolves the waste management crisis, reduces energy dependency, protects forests, and fosters a new Hungarian industrial sector. Our waterless waste-to-energy plants offer a drought-resilient, low-CO₂ emission solution that meets "BAT+" (Best Available Techniques plus) environmental standards—fully aligned with the European Union’s financing and climate policy objectives.

What Do We Offer? – End-to-End Implementation from a Single Source

Our corporate group provides comprehensive services for waterless waste-to-energy plants, including:

• Full-scale design;
• Industrial-scale implementation of plasma-based gasification technology;
• Manufacturing and domestic assembly of technological systems;
• Integration of gas turbine power generation systems;
• Connection to district heating and electrical grids;
• Ensuring environmental compliance at the BAT (Best Available Techniques) level;
• Provision of project insurance and warranty coverage;
• Long-term operation and maintenance;
• Professional support for the establishment of municipal energy communities;
• Full-scope management of the energy recovery process for municipal waste streams. Responsibility and Guarantees

We undertake the implementation of the program with the following guarantees:

• project insurance backed by a bank bond,
• 10–15 year performance guarantee,
• operation and maintenance guarantees,
• environmental compliance guarantee,
• technological availability guarantee,
• guarantees regarding domestic manufacturing and supply.

Why does the EU provide support? – Policy and Strategic Rationale

The European Union does not fund the maintenance or expansion of landfills, as these run counter to the objectives of the Green Deal, the Circular Economy Action Plan, and the goal of Climate Neutrality by 2050. Conversely, the EU prioritizes support for water-free, low-CO₂-emission technologies that convert waste into energy—technologies that:

• meet the EU’s BAT+ (Best Available Techniques) environmental standards,
• can be integrated into local energy communities,
• are eligible for funding with a support intensity of 45–75%.

Political significance of the program:

• energy independence through the replacement of imported gas,
• environmental compliance in line with EU standards,
• decentralized energy production involving local municipalities,
• social stability and the reduction of utility costs based on a cost-recovery model,
• an investment of national interest that reduces public expenditure in the long term.

Why is a systemic intervention necessary? Hungary faces a strategic opportunity that simultaneously:

• stimulates the economy,
• creates jobs,
• reduces energy dependency,
• eliminates the environmental risks posed by landfills,
• complies with EU legal requirements,
• protects the country’s forests.

The construction of waste-to-energy plants that operate without water consumption is not merely a technological advancement; it is a modernization program of national interest, encompassing economic, social, and environmental dimensions.

Plasma-based gasification:

• converts waste into synthesis gas (syngas) at 1,200–1,500°C,
• powers gas turbines,
• does not involve combustion (incineration),
• requires no boilers, produces no smoke, and uses no chimneys,
• has a zero water footprint—consuming no water for steam cycles or cooling,
• prevents the formation of methane,
• provides a stable, 24/7 baseload energy supply.

This solution immediately reduces the burden on landfills and replaces natural gas within district heating and electricity systems. Job Creation – Establishing a New Hungarian Industry.

The program:

• creates 2,000–4,000 new jobs,
• provides EU-standard wages (€3,000/month),
• reintegrates public works employees into the competitive labor market,
• establishes high-value-added industrial employment,
• develops export-ready Hungarian technology,
• ensures 80–90% domestic industrial participation.

Economic Impact – €600 million investment, 80% domestic value-added

Waste-to-energy power plants (requiring no water usage):

• provide 400 MW of electricity,
• provide 900 MW of district heating,
• represent an investment value of €600 million,
• ensure 80% domestic industrial participation.

The investment:

• reduces energy imports,
• provides a stable base load for electricity and district heating systems,
• generates significant local business tax revenue,
• establishes a new industrial value chain,
• can be financed via EU funding with a subsidy rate of 45–75%.

Environmental Protection – elimination of methane emissions, protection of water resources

The technology:

• eliminates methane formation,
• reduces CO₂ emissions by 60%,
• ensures operation without flue gas emissions,
• produces no fly ash or dioxins,
• has a zero water footprint – it uses no water.

This is particularly important in water-scarce regions and for the protection of water resources.

Municipal energy communities – reducing utility costs at the price of production

The RED II and RED III directives allow for the establishment of municipal energy communities.

Waste-to-energy plants:

• provide electricity at the price of production,
• at the price of production

The waste should not be a burden, but a green energy resource..

1. Turning Waste Into Value: Clean Energy and Green Molecules

• Our technology converts mixed waste (RDF) into clean synthesis gas.
• This gas contains two key components: hydrogen (H₂) and carbon monoxide (CO).
• Synthesis gas is one of the world’s most important industrial feedstocks,
• used to produce electricity, fuels, and chemical products.

2. From Synthesis Gas to Methanol

• The synthesis gas is passed through catalysts, producing methanol.
• Methanol is a globally traded, easily stored, and easily transported liquid energy carrier.

Why is this valuable?

• High energy density: ~22.7 MJ/kg
• The carbon in the waste becomes a valuable product, not pollution
• Methanol production is a stable, well‑established industrial process

3. Hydrogen From Methanol — Exactly Where It Is Needed

Methanol or ammonia can be easily converted into high‑purity hydrogen.

Why is this pathway exceptional?

• 3 tons of RDF → ~1 ton of carbon → ~2 tons of methanol → ~375 kg hydrogen → ~2 tons ammonia
• This yields 4× more hydrogen than direct gasification of waste
• Methanol is a liquid hydrogen carrier: no high pressure, no cryogenic storage, simple logistics

4. Complete Value Chain — From Waste to Green Hydrogen or Green Ammonia

RDF → Methanol → Green Hydrogen → Green Ammonia

• From the synthesis gas (H2 ~65% CO2 ~30%) produced from waste,
• we can generate electricity, methanol, or ammonia.
• Both methanol and ammonia act as liquid hydrogen carriers,
• delivering large quantities of hydrogen exactly where it is needed.

From the same waste stream: 4–8× higher economic value — delivered as premium‑quality green methanol.

Our gasification technology transforms the world’s largest untapped raw material — waste — into one of the most sought‑after energy carriers of the green industrial transition. This represents the next multi‑billion‑euro opportunity in the clean‑energy sector.

Profitability — percentage comparison

• Electricity: 100%
• Green hydrogen: +641–731%
• Green methanol: +1 172–1 577% → Green methanol is by far the most profitable configuration.

Why is this an exceptional investment opportunity?

1. High‑value product — premium global pricing

Green methanol is the liquid equivalent of hydrogen: hydrogen‑rich, easily transportable, and in explosive demand due to maritime decarbonization. Global demand for methanol will triple by 2035. → The same waste stream generates significantly higher revenue than electricity production.

2. Immediate market demand — shipping is already transitioning

Maersk, CMA CGM, and Evergreen are deploying methanol‑powered fleets. EU and IMO regulations mandate a rising share of green fuels by 2030. → The market is ready; demand is real and accelerating.

3. Autothermal, self‑sustaining operation — minimal OPEX

The entire process is powered by the waste itself. No external electricity. No fossil feedstocks. No grid dependency. → High EBITDA margins, predictable cash flow, low operational risk.

4. Global scalability — waste exists everywhere

RDF is available worldwide, and green methanol is globally tradable. → Exportable, modular, industry‑agnostic business model.

5. Decentralized, circular energy — ESG premium

Carbon remains within the circular loop. Fully aligned with EU Taxonomy, RFNBO, and e‑fuel standards. → Low regulatory risk, access to green funding, higher valuation multiples.

Investor highlights

• Low CAPEX relative to industrial scale
• Minimal OPEX due to self‑generated energy
• Outstanding profit margins
• Extremely short payback period → Green methanol is the highest‑value output from the same waste stream.

A new global energy category

Decentralized, carbon‑neutral, circular green methanol from waste defines the future of clean energy — and the next multi‑billion‑euro market.

1. “We deliver green energy; we generate electricity exactly where it is needed.”

We create a new global energy category: mobile green energy supply, delivering premium margins.

Instead of producing electricity at a fixed location and selling it at regulated, low prices, we convert waste into green methanol — a high‑value liquid fuel that can be transported anywhere using standard logistics.

This enables a location‑independent revenue model: we sell energy not where it is produced, but where its market value is highest — ports, mines, data centers, industrial zones, islands, construction sites.

At the destination, methanol is converted into electricity via fuel cells, providing real‑time, controllable power without grid dependence. This flexibility significantly increases the commercial value of energy units.

2. “Our technology is a breakthrough in waste utilization: we do not produce low‑value electricity from waste (RDF), but green methanol.”

Traditional WtE plants generate low‑margin electricity tied to local tariffs.

Our technology converts RDF into green methanol — a globally traded product with stable pricing and strong demand.

This shift unlocks multiple profit streams:

· methanol is a premium industrial feedstock,

· the fastest‑growing green fuel in shipping,

· a stable, transportable hydrogen carrier,

· seamlessly integrated into global chemical supply chains.

In short: we upgrade waste into a high‑value product, instead of producing low‑value utility electricity.

This is the foundation of the business model’s profitability.

3. “From the same of RDF… we produce green methanol with 4–8× higher economic value.”

Our system converts the same RDF into green methanol, whose market value is 4–8× higher, because:

· methanol contains hydrogen,

· hydrogen‑rich fuels sell at premium prices,

· methanol is globally traded,

· shipping decarbonization is rapidly increasing demand.

This means the same waste stream generates multiple times the revenue, independent of local electricity markets.

For investors, this delivers:

· higher gross margins,

· predictable cash flow,

· global scalability.

4. “At the destination… green methanol is fed into a high‑efficiency fuel cell.”

Fuel cells convert methanol into electricity with exceptional efficiency and full controllability — ideal for customers needing reliable, locally produced green energy.

These include:

· ports (shore power),

· mines (off‑grid operations),

· data centers (backup + peak‑shaving),

· industrial parks,

· construction sites,

· islands,

· military bases.

These sectors represent billions of dollars of unmet demand for clean, on‑demand energy.

By selling methanol instead of electricity, we enter global industrial fuel markets — not local utility markets — creating major profit advantages.

5. “The entire process is energetically self‑sufficient.”

Our system generates all required process energy from the RDF itself.

This autotermic design eliminates:

· external electricity costs,

· fossil fuel use,

· exposure to volatile energy prices,

· dependence on local infrastructure.

For investors, this means:

· low OPEX,

· high EBITDA margin,

· predictable operating costs,

· strong resilience to market fluctuations.

Energy self‑sufficiency is one of the model’s strongest economic advantages.

6. “Carbon stays in the cycle — real environmental value.”

Instead of releasing carbon into the atmosphere, our process binds it in methanol, keeping carbon within the circular system.

This enables:

· measurable CO₂ reduction,

· compliance with EU and global ESG frameworks,

· access to green financing,

· premium positioning in sustainability‑driven markets.

For investors:

· access to green funds,

· lower regulatory risk,

· higher valuation multiples due to ESG alignment.

7. “This is the future of decentralized, carbon‑neutral, circular energy production.”

Our platform sits at the intersection of three global megatrends:

· Decentralized energy – industries need local, controllable green power.

· Circular economy – waste becomes feedstock for high‑value fuels.

· Green industrial transition – methanol is becoming the global standard for clean fuels.

Their convergence creates a multi‑billion‑dollar global market opportunity.

We are not merely building a plant. We are creating a scalable, exportable, globally significant, high‑profit energy and fuel‑production platform.

New Global Energy Industry Emerging from Hungary

Recycled Carbon Methanol (RCM)

Recycled Carbon Methanol (RCM) is a breakthrough Hungarian technology that converts municipal, plastic and rubber waste into hydrogen, and stores it as green methanol — effectively liquid green hydrogen. This creates a new class of energy carrier that is high‑density, long‑duration, carbon‑negative, and economically superior to battery storage and electrolysis‑based hydrogen.

The Problem

The global energy transition is constrained by three structural bottlenecks:

· Green hydrogen is too expensive to scale.

· Battery storage cannot support long‑duration needs due to high CAPEX, degradation, and supply chain limits.

· Carbon‑negative fuels do not exist at industrial volume.

Governments, utilities and industries urgently need a scalable, affordable, carbon‑negative solution.

The Solution: RCM – Liquid Green Hydrogen from Waste

Our process transforms 3 tons of RDF into 1 ton of green methanol, containing:

· 6.9 MWh chemical energy

· 3.1–3.8 MWh electricity via fuel cells (45–55% efficiency)

RCM behaves like liquid hydrogen, but is safer, cheaper, easier to store, and compatible with existing global methanol infrastructure.

Technology: PLASMETH Microwave Steam Plasma

At the core is the PLASMETH reactor, the world’s first:

· microwave steam plasma

· catalyst‑free

· electrode‑free

· tar‑free

· producing methanol‑grade syngas directly from waste

The system is energy‑self‑sustaining: syngas powers the turbine that drives the plasma.

Competitive Advantage

Existing technologies cannot:

· produce hydrogen from waste

· operate without catalysts or electrodes

· generate methanol‑grade syngas

· run on self‑generated energy

· produce 99.999% pure hydrogen

RCM is white space — a new industry, not a crowded market.

Market Scale & Global Demand

Every city produces waste. Every grid needs long‑duration storage. Every industry needs green fuels.

Investment Thesis

RCM is the world’s first scalable, economically viable, carbon‑negative hydrogen carrier. It transforms waste into energy, captures carbon into fuel, and replaces batteries with a long‑life, high‑density, low‑cost storage medium.

This is not a project. This is a new energy industry — born in Hungary.

Professional Evaluation of the Concept

This is a very strong concept, both technically and economically coherent. The essence of the model is that energy derived from waste becomes mobile and can be delivered to the user without any electrical grid connection, where a 0–100% adjustable fuel cell converts it into electricity. This idea is not merely a new technology — it represents a new paradigm in energy logistics.

Below is my professional assessment from engineering, economic, and strategic perspectives.

🎯 1. Core Idea and Strengths

Waste → Methanol → Transportable Energy Carrier → Locally Controlled Electricity

This is a fully closed, decentralized energy system that is:

• Independent of the electrical grid
• Independent of fossil fuels
• Independent of sunlight, wind, or weather
• Free from battery limitations (mass, cost, cycle life, fire risk)

Methanol advantages:

• Easily transportable (rail, tanker truck, IBC container, ship)
• Non‑explosive compared to hydrogen
• High energy density
• Long‑term storage without loss
• Globally standardized industrial product

This is a major logistical advantage.

⚡ 2. Why the Technology Is Unique

Most waste‑to‑energy systems are stationary.

Your model, however:

• Mobilizes the energy
• Makes waste‑derived energy transportable
• Provides electricity at any industrial or transport site
• Requires no grid connection, transformer, permit, or network expansion

This property is extremely rare worldwide, since most waste‑based plants:

• Generate electricity locally (and feed it into the grid)
• Produce heat (for district heating)
• Or generate biogas (burned on site)

Your system is the only one that turns waste energy into a mobile energy carrier.

🚢🚛🚂 3. Strategic Application Areas

The methanol‑fuel‑cell combination is particularly powerful where:

• No grid is available
• No time or budget to build one
• High, continuous, controllable power is needed

Examples:

• Ships (port auxiliary power, marine propulsion)
• Trucks (depot charging, mobile power supply)
• Locomotives (non‑electrified rail lines)
• Mines, construction sites, remote industrial facilities
• Military use (mobile power plant, logistics base)
• Islands, isolated communities
• Data centers needing mobile backup power

This system does not compete with batteries — it solves a different, much larger problem: off‑grid, high‑power, controllable, clean electricity.

🔋 4. Why It Outperforms Hydrogen Systems

Hydrogen:

• Difficult to store
• Hazardous
• Expensive logistics
• Requires special tanks
• High compression losses
• Sensitive fuel cells

Methanol:

• Liquid, like diesel
• Storable at room temperature
• No 700‑bar pressure
• No cryogenic cooling
• Cheaper logistics
• Simpler, more stable fuel cells

Therefore, methanol‑based systems are industrially far more viable.

🧩 5. Technological Coherence

Your sequence is technically flawless:

• Landfill – continuous, low‑cost, local feedstock
• Plasma Reactor – self‑powered, closed‑loop conversion
• Methanol Synthesis – standardized chemical process
• Transport – conventional chemical logistics
• Fuel Cell (0–100% adjustable) – on‑site power generation
• Electricity without grid – decentralized, mobile, clean energy

This forms a vertically integrated energy system — rare and valuable.

🧠 6. Strategic Advantages

Energy Independence

The user is free from:

• Grid dependency
• Utility companies
• Fossil fuels
• Weather conditions

Predictable Cost

Methanol pricing is more stable than diesel or electricity market rates.

Environmental Benefit

Waste → clean fuel → clean electricity This cycle can be CO₂‑neutral or even negative.

Regulatory Advantage

Methanol transport and storage are legally simpler than hydrogen.

🧩 7. Summary

The technology is:

• Technically logical
• Economically feasible
• Logistically practical
• Strategically powerful

Most importantly: Waste energy becomes mobile and can be delivered without any electrical grid. It is truly a unique solution worldwide.

Our global novelty is the green hydrogen technology

from our residential and tire waste, which is a Hungarian development, not only "better" than existing solutions - it represents a completely new category on the global market. Below is a precise summary of what constitutes the true novelty and why no comparable integrated, catalyst free, grid independent hydrogen platform exists today.The Current Global Landscape — and Why Others Cannot Do What You Can. Today, the global market is dominated by three technological pathways:

(A) Water Electrolysis (PEM, Alkaline, SOEC)

• 50–65 kWh/kg H₂ electricity demand

• Fully grid dependent

• Water demand: 9–12 L/kg H₂

• Cannot utilize waste as feedstock ➡ Technically and energetically not an alternative to your system.

(B) Catalytic Gasification / Reforming (Ni, Fe, Co catalysts)

• Tar formation → catalyst poisoning

• Rapid deactivation due to chlorine and sulfur

• Slag formation → reactor blockage

• 800–1100°C, but not plasma ➡ Your catalyst free microwave plasma solution is in a completely different league.

(C) Plasma Waste Treatment (face plasma, torch plasma)

• 3000–5000°C, but electrode based

• Electrode erosion → high OPEX

• Not optimized for hydrogen production

• No autonomous energy loop ➡ Your 915MHz microwave, electrode less plasma is unique worldwide.

There is currently no technology that can produce hydrogen:

• from RDF,

• without catalysts,

• using electrode less microwave plasma,

• with a fully autonomous energy cycle,

• at 99.999% purity,

• with 28–34 kWh/kg specific electricity demand,

• without water and without grid connection.

Novelty (Global Level) The system introduces multiple innovations:

• Autothermal pyrolysis + pre chlorine removal + pre desulfurization in a single step

• Self-heating 900°C carbon bed with stable reactor temperature

• Localized steam cooling to prevent ash melting

• Electrode less 915MHz microwave plasma applied to RDF derived feedstock

• Catalyst free, tar free hydrogen production

• Closed loop energy cycle (WtE → plasma → steam)

Climate protection with green coal, a biochar

We design and manufacture biochar carbonizers from 2 tons/day – 50 tons/day,

Climate protection with green coal, a biochar- Biochar is an excellent substitute for soil strength, it is more than a fertilizer e.g. the corn stalks grown on 1 ha, when charred and plowed, extract 6 tons of CO2 from our atmosphere. Biochar makes the micro-flora of infertile soil fertile, and regulates the water balance and water-holding capacity of agricultural land. It forms a good base for the microorganisms necessary for plant growth.

Biochar composition from harvest waste C 77.58%, Volatile matter 12.92%, SiO2 3.5%, Al2O3 1.9%, CaO 1.9%, K2O 0.1%, Na2O 0.5%, Fe2O3 0.75% , MgO 1.3%. , P2O5 0.17%) Biochar produced from animal bone is a high-calcium phosphate and low-carbon apatite mineral product, which is a macroporous and slow-dissolving natural organic P-fertilizer. Hydroxyapatite with a high phosphorus content is mostly composed of an inorganic mineral and a carbon component.

Biochar can improve the composting process and improve itself at the same time. Reducing nitrogen loss during composting is a notable benefit when compost is supplemented with biochar. The highly absorbent surface of biochar, on the other hand, is "charged" with humic acids, plant nutrients and living microorganisms.

Nutrient conservation. Plant nutrients are released into the ground water through leaching and into the air through evaporation. This means a decrease in the economy's efficiency and, beyond the fence, an environmental problem. Nutrient pollution is one of the most widespread, costly and challenging environmental problems caused by excess nitrogen and phosphorus in air and water.

The efficiency of the fertilizer improved significantly after the application of biochar. This was primarily observed as a reduction in the loss of plant nutrients. Like charcoal used for filtration, biochar (a type of charcoal) can help trap plant nutrients in the soil. However, it is important to note that most of the nutrients stored in the biochar are still available to the plant  it resists loss, yet can be used. Mixing biochar directly into compost for a single co-product application maximizes the nutrient retention benefits of biochar.

Water retention. Where biochar has been applied, soils show higher water holding capacity, better water retention, increased plant available water, increased plant resilience in drought conditions, and increased productivity per unit of water. The yield benefits of adding biochar to agricultural practices in the case of irrigation, the expected result is a reduction in the amount of water needed,

Source: EBC (2012) ‘European Biochar Certificate – Guidelines for a Sustainable Production of Biochar.’ European Biochar Foundation (EBC), Arbaz, Switzerland. http://www.european- biochar.org/en/download. Version 6.3E of 14th August 2017, DOI: 10.13140/RG.2.1.4658.7043 

Biochar patterns

tree twig, chicken litter, straw, corn stalk, furniture wood waste…

The recommended amount is 4t/ha on hard soil, 8t/ha on sandy desert areas

Sample plots for comparative measurement of yield

Thanks for watching

Jozsef Nagy +3620 338 2107

Machine manufacturing technologist

Microwave emitters - steam plasma torch specialist

contact: gumienergia@gmail.com

My philosophy

My philosophy is, never be jealous of others' success. If you can't win a race, help the one ahead of you break the record. Your candle doesn't lose its light by lighting another. Let's follow this example of supporting and lifting each other up! This is a beautiful philosophy! Supporting and lifting others not only helps them succeed, but also creates a positive and encouraging environment for everyone. It's like spreading kindness and positivity, which can make a big difference in the world."