Our plasma gasification of
waste is a new technology on the global market
Renewable electricity production is a very good business
opportunity for businesses.
Extra profit, investment that pays off in 40-60 months ROE
(Return on Equity) 15 – 25%
Our electricity power plant
PLASMA‑ENHANCED MSW GASIFICATION POWER
PLANT – TECHNICAL SUMMARY (2 t/h)
The system
converts 2 tons/hour of mixed municipal
solid waste (14 MJ/kg LHV, 10% moisture) into clean, tar‑free
syngas using a high‑temperature steam‑plasma
gasification reactor. The syngas directly fuels an industrial gas
turbine, producing 1.8 MW net electricity
and ~3.5 MWth usable heat. The
process is fully continuous, modular, water‑free and designed for high
availability.
1.
Feedstock & Preparation
Mixed MSW with
metal removal, optional shredding, and size reduction to 80–120 mm. Oxygen‑limited
feeding (<1% air ingress) via sealed lock‑hopper or screw/ram feeder.
2.
Reactor Architecture
Carbonization zone (800–900°C): devolatilization and char formation in reducing atmosphere.
Steam‑plasma zone (1400–1500°C):
complete tar destruction, plastics cracking, pollutant elimination; char
converted to CO and H₂. Syngas
recirculation (30–50%): thermal stabilization, higher LHV, improved
residence time. Bottom discharge:
continuous removal of vitrified slag and metals.
3.
Syngas Characteristics
H₂ 45–55%,
CO 20–30%, CH₄ 1–3%, CO₂ 12–18%, N₂ <10%. Tar <5
mg/Nm³, particulates <10 mg/Nm³. LHV 10–12 MJ/Nm³; outlet
temperature 650–800°C.
4.
Gas Cleaning
Dry system:
cyclone, ceramic/metal hot‑gas filter, optional sorbent injection, heat
exchanger. No water scrubbing, no wastewater.
5.
Power Generation
Industrial gas
turbine with 33% net electrical efficiency.
Net output: 1.8 MW, ~14,000
MWh/year (8000 h/yr). Fully automated PLC/SCADA control.
6.
District Heating (CHP)
Turbine exhaust
at 420–520°C provides 3.2–3.6 MWth.
High‑efficiency (82–88%) stainless/Inconel heat exchanger. District
heating supply: 85–95°C; return: 55–65°C; 6–10 bar. Annual heat output: ~28,000 MWhth. Closed-loop hydraulics,
N+1 pumps, SCADA monitoring.
7.
Energy & Mass Balance
Input: 2000 kg/h
MSW → 5.6 MWth. Syngas: 1500–1800 Nm³/h. Electricity: 1.8 MW. Heat:
~3.5 MWth. Residue: 80–120 kg vitrified slag + metals.
8.
Environmental Performance
Zero wastewater,
ultra‑low NOx, no tar emissions. Vitrified, non‑leachable
slag. Significantly lower CO₂ footprint than incineration due to higher
electrical efficiency.
9.
Key Advantages
High net electrical
efficiency (33%). No steam cycle → lower CAPEX, faster deployment. Tar‑free
syngas → minimal turbine maintenance. Modular, scalable, ideal for
decentralized WtE. Eligible for renewable
electricity support (METÁR) and stable district‑heat revenues.
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
Demonstration plant that can be visited,
electrical output: 1.85 MW
About the total tar-free gasification…
Our
syngas generator® that produces fuel for the gas engine power generator. A very important aspect at gasification, only pyrolyzed
carbon (from RDF / plastic / tire / etc.) can be gasified to a quality suitable
for a gas engine. Filter out the tar from the
synthesis gas with the resulting pyrolytic carbon, then gasify the tarry
pyrolytic coal. The tar produced during the refining of pyrolytic oil can be
gasified to produce electricit, very importante because it is very important to
know that the tar left over from the refining is 60% of the pyrolytic oil, this
is a big loss of energy, so this must also be used for electricity!
Introducing the sample
syngas generator® to investors
Plasma chemistry
When an electromagnetic wave propagates in the plasma,
certain reactions occur between the particles.
The main
types of reactions are:
- Elastic collision and inelastic collision: such
reactions lead to an exchange of energy between particles;
- Excitation and ionization: such reactions result in
an increase in the number of free electrons or a change in the energy
level of the atom.
- Charge transfer: this type of reaction results in
an equivalent charge transfer between the particles.
- This kind of reaction mainly takes place in the
collision process of ions and neutral particles.
- Charge recombination: it has two forms - diffusion
and recombination.
- Diffusion is the process by which a charged
particle reaches the wall and electrode to disappear.
- Recombination is a process
in which positive ions capture a free electron and combine with electrons
or negative ions to form new neutral atoms.
Our waste recovery's environmental
protection innovation incorporates microwave technology
- Microwave reactors are remarkable
for their ability to achieve average operating temperatures around 6500 ℃,
with material heating rates ranging from 100-1000 °C/s. The high
temperatures, coupled with the strong ionizing effect of microwave plasma,
result in the complete breakdown of complex carbon-containing molecules
into simpler molecules and ions. The microwave in reactor space it creates
a high-temperature field (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.
Microwave steam
plasma torch
Without fossil fuels heat source 6500℃
NOx and CO2 free emissions
Solar and wind power plants with
waste-to-energy
Solar and wind energy are excellent
renewable sources of electricity, but we also need to deal with the increasing
amount of waste that can also produce electricity. Profits can be increased by
sharing the grid connection of solar and wind power plants. It is fed into the
grid during sunny or windy weather, but when the wind turbines stop or the
sun's intensity decreases, for example at night, the electricity produced from
municipal waste is utilized by utilizing the maximum (100%) of the existing
grid connection capacity, 24 hours a day.
I am looking for co-investors and
project owners for the global construction of waste-to-electricity power
plants. Our waste-to-electricity technology is new on the world market, the
electricity can meet all of humanity's energy needs. With the growing global
population, waste production is also increasing, so waste-to-electricity power
plants are an ideal solution. Our advanced plasma gasification technology
avoids the production of pyrolysis oil, coal dust and tar. The resulting
synthesis gas serves as a clean fuel for gas turbines that generate
electricity, making the technology ideal for desert environments where drinking
water is a precious resource.
Wind turbine blades
Wind turbine blades can be reused
in a non-thermal microwave plasma field where the electron temperature is much
higher than the generated gas temperature, including the vibrational and
rotational temperature of the molecules. In the plasma space, all complex
compounds such as resins, aromatic molecules and tars are effectively degraded
and separated from the inorganic glass fiber reinforcement.
Our environmental protection
innovation is the application of microwave technology. During the conversion of
waste to syngas in the non-thermal microwave plasma field, the temperature of
the electrons is much higher than the temperature of the generated gas,
including the vibrational and rotational temperature of the molecules. In the
plasma space, all complex compounds such as resins, aromatic molecules and tars
are effectively degraded and separated from the inorganic part.
Plasmas contain reactive
substances, especially ions, radicals or other oxidizing compounds, which can
break down polluting molecules, organic particles, e.g. tar
and soot. It is excellent for the
removal of heavily polluted air pollutants such as volatile organic compounds
(VOC) and their fluorine-containing derivatives (FOC), the synthesis of special
gases and the production of nanoparticles.
Extraction of non-ferrous metals and
precious metals from electronic waste.
Electronic
waste, PCB, plastic waste with metal, etc. which it is only possible to safely
smelt the non-ferrous metal - precious metal content after carbonization. The
resulting non-ferrous metal - precious metal alloy can be decomposed into its
highly pure 99.99% alloying metals (gold, palladium, silver, copper, aluminium,
tin, lead, etc.)
Our
innovation in environmental protection is the use of microwave technology Carbonization prior to smelting facilitates environmental
approval in terms of emission limits, because during carbonization, we filter
out the polluting components in the organic and inorganic condensate /
condensate that would have gone out the smelter's chimney without
carbonization. The carbonisation of waste in microwave vapor plasma.
The main
advantage of steam plasma reactors is that there is no
nitrogen in the microwave vapor plasma the plasma reactor, the gasifier and the
plasma afterburner chamber, so there is no nitrogen oxides is 40 times more
toxic CO, minimum carbon dioxid and odorless the emissione. The hydrogen
introduced into the reaction space with the steam plasma slows down the
reactions of gaseous sulphur, phosphorus and free chlorine formation to remove
in the gas purification unit. When reacting with chlorine-containing
substances, the microwave vapor plasma does not produce dioxin, which is one of
the most toxic substances.
Hybrid Energy System for Continuous Data
Center Operation.
Europe’s digital infrastructure is expanding rapidly, but stable,
low-carbon energy supply remains a major challenge for data centers.
- Our
project implements a hybrid, circular and flexible energy architecture
that is fully aligned with the priorities of the Innovation Fund, Horizon
Europe and REPowerEU.
- We
integrate renewable energy sources, advanced waste-to-energy technology
and plasma-enhanced gasification (>1500°C) to
produce hydrogen-rich syngas for continuous, fossil-free baseload power
generation.
- A
combined cycle turbine block (gas + steam) ensures high efficiency, while
the recovered heat supports district heating, cooling and desalination,
enabling full sectoral connectivity.
- This
approach results in significant greenhouse gas emission reductions,
diverts waste from landfills and reduces grid load by enabling partial or
full off-grid operation.
- The
system is modular (5-50MW), scalable in data centres, industrial parks and
urban energy networks, and supports the EU’s goals for a circular economy,
energy security and climate neutrality.
- By
converting waste into clean energy and integrating electricity and thermal
power plants, the project provides a replicable EU model for sustainable
digital infrastructure and regional economic growth.
Molecular Recycling of
wastes (Gasification)
Peter Kalenuk PhD, UNIVASTUM
- Mechanical separation are necessary but insufficient. They
cannot process the heterogenous, contaminated, and complex waste streams
that constitute the residual 30-50%. The Molecular Frontier – Gasification
as the Ultimate "Separation" If the limit of physical separation
is the molecule, then technologies that achieve molecular deconstruction
represent the pinnacle of recycling philosophy. This is where advanced
gasification and related thermochemical processes enter.
- How It Works: From Waste to Syngas. Unlike mass-burn
incineration that simply oxidizes waste to produce heat, advanced
gasification is a controlled thermal process using high heat (typically
700°C to 1500°C) in an oxygen-limited environment. This "partial
oxidation" does not combust the waste but instead breaks apart the
molecular bonds in virtually all organic components (plastics, paper,
textiles, food waste, biomass) and even some inorganics. The complex
hydrocarbons, carbohydrates, and polymers are shattered, reforming into a
primarily gaseous mixture called synthesis gas or "syngas." This
syngas is predominantly carbon monoxide (CO) and hydrogen (H₂)—the
universal molecular building blocks of chemistry.
- The New Products – Building a Circular Society from Molecular
Feedstock. This is where the vision becomes tangible. The molecules from
our waste are no longer destined for a hole in the ground or a smokestack;
they become the literal foundation for a sustainable industrial society.
Conclusion…
- For too long, "recycling" has been synonymous with
sorting and melting. "Waste-to-Energy" has meant just
that—getting BTU value from destruction. This paradigm has hit its logical
and practical limit at a global recovery rate of roughly 50%.
- The next frontier is chemical. By embracing molecular
recycling through gasification, we stop seeing a tangled mess of waste and
start seeing a reservoir of carbon, hydrogen, and oxygen atoms—the very
atoms that make up our fuels, our products, and our built environment.
- We move from managing waste to mining the anthropogenic mine.
The ultimate form of recycling is not putting a bottle back into a bottle.
It is breaking that bottle, and everything around it, down to its
elemental essence and then having the technological sovereignty to rebuild
from those molecules the materials and energy a sustainable civilization
requires. That is the true meaning of maximum processing and reuse. The
technology exists.
- The question now is one of will, investment, and policy to
integrate this final, decisive piece into the global circular economy
puzzle.
- Protecting our planet’s environment from the pollution caused
by the increasing amount of waste. Utilizing the increasing amount of
household waste instead of sending it to landfills is key to protecting
our planet.
- Governments support and funding are vital for poorer
continents, as they cannot afford to put recycling before landfills.
Recycling helps everyone, even richer nations, as we all live on the same
planet.
- Poorer continents, countries often seek our investment and
financial support, as their environmental and economic situation is
difficult. We would welcome opportunities for cooperation, including
technology partnerships, power plant projects and investment ventures.
- The energy source for our power plants is syngas generated
from waste. Our gasification technology completely transforms waste at
very high temperatures, producing syngas that is free of NOx, tar,
pyrolysis oil and coal dust. This syngas powers gas turbines and engines,
which are particularly suitable for water-scarce desert regions.
- Methanol is a great alternative to fossil fuels like diesel
and gasoline. By boosting the hydrogen content of synthesis gas to over
60%, it’s possible to produce methanol, essentially a form of liquid
hydrogen.
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
- 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
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." 
