N2Trans GmbH

Voltumna^® Synergy Storage Power Plant

The Voltumna^® Synergy Storage Power Plant is a combination of the Voltumna^® Nitrogen Storage and the Voltumna^® Battery Container. The Voltumna Synergy Storage Power Plant differs from its competitors by precisely this combination of liquid air and a high-performance battery. As a result, the synergy storage system achieves a charge and discharge rate of 5 C. Practically all large-scale storage systems worldwide operate at 0.2 - 0.5 C, occasionally at 1 C.

The Voltumna^® Synergy Storage Power Plant is adaptable and can be used at all levels of the electricity system: to support power generation, to stabilise transmission and distribution grids and as a backup power source for end users, as well as a fast charging station for the expansion of e-mobility. Our patented cryogenic technology is based on best practices from the fields of turbo machinery, engine and generator technology, power generation and industrial gases.

Advantages of the Voltumna^® Synergy Storage Power Plant

Our power storage unit combines nitrogen technology with a high-performance battery
Active battery management in combination with nitrogen as storage medium
Overall efficiency of ~ 54% without external heat source
Additional heat energies increase the efficiency exponentially

up to 6C charging
up to 6C discharge
Wider operating temperature range
Charging efficiency of more than 98%
better performance at low temperatures
Long life up to > 50,000 charge cycles at 0.5C
Minimal overheating or heat emission during operation (waste heat during the charging process as well as during conversion can be used again for nitrogen power production)
Containers are stackable and can therefore be scaled as required
4C battery containers from 1.112MWh capacity and up to 5 MW output

With N2 (nitrogen) there is no environmental pollution at all
So-called "efficiency losses" are absolutely negligible, as we do not cause any damage to nature or people with our technology.
We are able to cushion energy bottlenecks with the cleanest technology on earth "N2"
With the help of our overall technology, we can cleanly (without "any pollution") and directly intervene in current energy supply to counteract enormous gaps in supply and similar situations to ensure neutral grid stability.
All this without causing even the slightest damage to nature.

4C battery containers from 1.112MWh capacity and up to 5 MW output
Hybrid storage battery + nitrogen from 20MWh cpacity and starting from 5 MW output

Voltumna^® Nitrogen Storage

The Voltumna^® Nitrogen Storage System is a cryogenic energy storage system. Cryogenic energy storage refers to the use of cryogenic liquids, such as liquid air or liquid nitrogen, as energy storage. With liquid air storage, an incredibly high energy density can be achieved, and is thus comparable to batteries. This is 20 times higher than with air compression storage and a whole 400 times higher than with common pumped storage hydro power station. Energy storage is possible for up to 4 weeks with almost no losses. Our patented storage system is an ideal solution for transferring surplus electricity from summer to winter. Efficiencies of up to 93% can be achieved here (confirmed by expert opinion from the Swiss Federal Office of Energy).

Working principle of the Voltumna^® Nitrogen Storage System

Stage 1: Charging the system

Using the standardised air separation process, air is separated into nitrogen (~78%), oxygen (~21%), argon (~0.93%) and other gases The nitrogen is cooled down to minus 196° Celsius in a liquefaction plant by using electrical energy until nitrogen liquefies. Approximately 700-800 litres of gaseous nitrogen become about 1 litre of liquid nitrogen.

Stage 2: Energy Storage

The liquid nitrogen is stored in a cryogenic tank at low pressure, which acts as an energy store. Depending on the size, up to several GWh of energy can be stored.

Stage 3: Energy Recovery

When electricity is needed, the liquid nitrogen is converted back into gas form via a patented pre-evaporator and further heat is added to the system via heat exchangers. This causes 1 litre of liquid nitrogen to expand again to 700-800 times its original size. If additional heat energy is added, e.g. from the stored heat from the compressors, this increases the efficiency exponentially. This creates a high-pressure gas from which energy is extracted in several patented stages and drives different motors, which in turn set several electric generators in motion to produce electricity.

N2 TRANS Next-Generation Tyre Recycling

Fluidized pyrolysis, SynDiesel & Hygimed deashing – turning scrap tyres into premium resources

3D model of a complete plant for tyre pyrolysis, oil upgrading and rCB production

Our 360° circular-economy solution recovers scrap tyres completely: a continuous fluidized-bed pyrolysis breaks the rubber down into pyrolysis oil, syngas and pyrolytic carbon black. The oil is upgraded on site into market-ready synthetic diesel (SynDiesel), while the carbon black is purified without heat in the patented Hygimed process into high-grade recovered carbon black (rCB) – suitable for manufacturing new tyres. The syngas serves as the plant's heat source. A closed loop that maximises yield and minimises emissions.

Continuous Pyrolysis

Catalytic fluidized-bed pyrolysis separates scrap tyres into liquid and solid raw materials – three months of unattended continuous operation.

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SynDiesel Upgrading

On-site distillation and water-gas-shift reaction (approx. 50 % hydrogen) for producing synthetic fuel.

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Hygimed Deashing

Cold purification process for recovered carbon black to ASTM standards with less than 0.7 % ash.

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Innovation 1: Continuous Fluidized-Bed Pyrolysis

Unlike conventional fast pyrolysis, the fluidized-bed reactor uses a controlled, slow heating profile. This maximises the liquid fuel yield and preserves the structure of the carbon black. Thousands of spiral and dispersion plates inside the reactor ensure even heating and complete pyrolysis – without coking.

Cut-away view of the fluidized-bed pyrolysis reactor

3 Months Non-Stop

Fully automatic, unattended continuous operation minimises downtime and labour costs.

Zoned & Slow Heating

Independently controlled heating zones – optimal conditions from devolatilisation to carbonisation.

Integrated Catalysis

Advanced reactor geometry with catalyst mixing zones for efficient cracking.

High-Temperature Steel

Reactor made of 14 mm SS 310S, creep- and oxidation-resistant, insulated with aluminium silicate wool.

Dynamic Sealing

Oxygen-free feeding during operation – no air ingress, no odour, no risk of explosion.

Cool Carbon Black Discharge

Discharge at ≤ 60 °C via a water-cooled section – no risk of auto-ignition.

Self-Cleaning Condensers

Automatic anti-blocking system ensures lasting heat-exchange efficiency.

Multi-Stage Emission Control

Cooler, dust collector, DeNOx and desulphurisation neutralise SOx, dioxins and particulates.

Pyrolysis line with condensation

Pyrolysis reactor with zoned burners

Feeder with dynamic sealing

Control room & video monitoring

Key Data of the Pyrolysis Line

Capacity	30 t of tyre rubber per day per line – modular (e.g. 60–70 t/day with two lines)
Operation	continuous, up to 3 months without stopping
Reactor	Ø 1.6 m × 24 m, 14 mm wall thickness
Heating	6 burners fired with the non-condensable pyrolysis gas
Carbon black discharge	three-stage, water-cooled, ≤ 60 °C
Control	control cabinet with touch display, frequency-controlled drives
Flue gas treatment	cooler, dust collector, DeNOx, desulphurisation & odour removal
Footprint	approx. 60 × 10 m (pyrolysis line)

The pyrolysis line is supplied as a complete system: lifting conveyor and sealed feeder, rotary reactor with double-insulated bearing and sealing zones, three-stage carbon black discharge, oil-gas separator, condensers with automatic flushing, oil tanks, flame arrestors and flue gas treatment.

SynDiesel Upgrading to Synthetic Diesel

From pyrolysis oil to market-ready fuel – on site, without external processing

Standard tyre pyrolysis oil is viscous, high in sulphur and only moderately stable in storage. The integrated upgrading line cleans the syngas, enriches it with hydrogen and continuously distils the oil into synthetic diesel – with much lower sulphur content, lower viscosity and a higher flash point.

Step 1

Syngas Cleaning & Buffering

A wash removes particles and CO₂; buffer tank and cooling tower stabilise the gas flow, a compressor raises it to 20–50 bar.

Step 2

Amine Scrubber & ZnO Filter

Deep purification of the syngas and final desulphurisation.

Step 3

WGS Reactor (Water-Gas Shift)

Steam enriches the syngas to approx. 50 % hydrogen; an adiabatic cooler removes the moisture.

Step 4

Continuous Distillation

The pyrolysis oil is continuously distilled into market-ready SynDiesel and stored in tanks.

Distillation Unit

Throughput	10 t of oil per day
Yield	85–90 % diesel; sulphur and asphalt levels adjustable on request
Feedstock	pyrolysis oil, used mineral oil, crude oil
Power demand	18 kW
Heating	pyrolysis oil, syngas, coal or natural gas
Operation	continuous, unpressurised (< 0.02 MPa)
Staff	1–2 per shift, 24-h operation
Footprint	approx. 25 × 35 m

Profitable at Every Stage

Low OPEX: 1–2 operators per shift and low energy demand, as syngas is recycled as the heat source
Low CAPEX: highly modular system that grows with demand
Two premium revenue streams: SynDiesel as fuel at market price and rCB N330/N550 for the tyre industry

Quality Advantage: SynDiesel vs. Standard Pyrolysis Oil

Parameter	Standard pyrolysis oil	Moderate treatment	Complete treatment
Density (kg/L at 15 °C)	0.95–1.03	0.90–0.96	0.85–0.92
Viscosity (cSt at 40 °C)	6–15	4–10	2–6
Heating value (MJ/kg)	40–42	42–44	44–46
Sulphur content (%)	0.8–1.5	0.4–0.9	0.05–0.3
Aromatics (%)	55–75	45–65	25–50
Olefins (%)	10–25	5–15	< 5
Paraffins (%)	5–15	10–25	25–45
Flash point (°C)	20–35	30–45	40–60
Storage stability	poor	moderate	good
Carbon residue (%)	3–8	2–5	1–3
Ash (ppm)	500–2,000	200–800	< 200

Comparative analysis of tyre pyrolysis oils, typical values.

Hygimed Deashing – Premium rCB from Scrap Tyres

Cold purification of pyrolytic carbon black – ash content below 0.7 %

The problem: conventional pCB

Raw pyrolytic carbon black (pCB) contains too many mineral impurities and steel residues. As such, it is unusable for high-quality tyre production.

The solution: Hygimed deashing

A patented (January 2026), heat-free process without aggressive chemicals reduces the ash content to below 0.7 % – the gateway to the premium market for recovered carbon black (rCB).

The 3-Stage Cold Purification Process

Stage 1

Mechanical Pre-Treatment

Magnetic separators remove steel residues, a jet mill grinds the pCB to ≤ 40 µm. Dry triboelectric separation removes a large share of the inorganic particles.

Stage 2

Chemical-Physical Purification

Controlled extraction with ultrasound and jet-pump hydrodynamics gently washes the ash out of surfaces and pores – without damaging the carbon matrix.

Stage 3

Oxygen-Free Drying

After washing and centrifuging, a rotary furnace dries the rCB in the absence of oxygen, heated with residual syngas. This improves BET surface area and dispersion in rubber compounds.

Process scheme of the deashing process: pyrolysis, jet mill, acid wash, sonication, centrifuge, dryer, reverse osmosis

The process runs continuously and requires no high-temperature treatment, aggressive chemicals or harmful residues. It takes the unique aggregate structure of carbon black particles into account and removes inorganic impurities from the surface and the pores without damaging the carbon matrix.

Wash water is recovered via a reverse osmosis unit. The technology suits compact on-site units as well as large industrial installations – a standard module processes 1,000 kg of pCB per hour.

Certified Premium Quality: ASTM N330 & N550

0.33 % Ash content limit ≤ 0.75 %

2.8 % Fines content limit ≤ 7 %

82 g/kg Iodine adsorption target 82 ± 5

Certified values. Our rCB is not a waste product but an engineered material specified to ASTM D8178 that can replace fossil virgin carbon black (vCB) in the manufacture of tyres and technical rubber goods.

Competitive Edge: Hygimed vs. Industrial Standard

Parameter	Industrial standard	Hygimed deashing
Electricity demand	high	low
Heat demand	very high	very low (drying only)
CO₂ emissions	very high	very low
NOx/SOx emissions	very high	none
Capital investment	very high	low
Complexity	high	simple
Mobility	no	yes
Scalability	complex & expensive	modular design
Hazardous waste	high	none
Operating costs	very high	very low

Main Components of the rCB Line

Jet mill

Triboelectric separator

Ultrasonic cleaning

Continuous centrifuge

Reverse osmosis

Rotary dryer

Pictures for illustration only.

Ecological Dividend

Zero Waste

No aggressive chemicals, no harmful residues – scrap tyres are fully recovered and process water is reclaimed.

Minimal Emissions

Patented smoke scrubbers and syngas as heat source drastically cut NOx, SOx and CO₂ emissions.

CO₂ Credit

rCB replaces fossil-based virgin carbon black – with a positive carbon balance and potential for tradable CO₂ certificates.

Real disruption happens when economic profit and ecological responsibility are united through technology.

N2 TRANS Water from Air

Atmospheric Water Generation (AWG) – Empowering Tomorrow, One Drop at a Time

Atmospheric Water Generation (AWG) transforms the boundless moisture in the air we breathe into a sustainable, inexhaustible asset. The result: absolute water independence.

Extracts pure drinking water directly from ambient humidity – optimal at 70 % relative humidity, functions down to 30 %.
Eliminates reliance on volatile municipal sources and environmentally damaging plastic supply chains.
Seamlessly scalable architecture – from compact residential units to heavy-duty industrial installations producing 3,000 litres per day.

Drinking water generated directly from the air

The N2 TRANS Difference

100 % In-House Manufacturing

Ensures stringent quality control, robust material use (stainless steel & galvanized iron), and rapid, continuous technological innovation.

Zero Plastic & Zero Waste

Completely eliminates single-use plastics, toxic nanoplastics, and the carbon footprint associated with water logistics.

Patented Ozonization

Integrated, next-generation purification technology that destroys microorganisms without leaving harmful chemical residues.

Global SDG Alignment

Actively supports 8 UN Sustainable Development Goals, including Clean Water & Sanitation, Gender Equality, Sustainable Cities, and Climate Action.

The Science of Purity: 4-Step Filtration

Purification in four steps

Step 1: Air Filter

An anti-static filter removes dust and micro-particles from the ambient air before condensation.

Step 2: Water Dust Filter

Removes external physical particles as the condensation process begins in the collection tank.

Step 3: Multi-Stage Water Filter

A rigorous sequence of sediment, pre-carbon, ultrafiltration (UF), and post-carbon filters removes odours, organics (up to 5 microns), and dissolved salts, finishing with a mineral cartridge to restore essential nutrients.

Step 4: Ozone Generator

The final, active purification stage ensures crystal-clear, bacteria-free water in the purified storage tank.

Next-Generation Disinfection: The Ozone Advantage

3,000× more effective than chlorine

3,741× more effective than UV

Our patented ozone generator acts as a potent oxidizer and disinfectant. It reliably destroys microorganisms without leaving the harmful chemical residues associated with traditional municipal water treatment – ensuring the purest form of drinking water.

Dewpoint Series

A solution for every scale – from 25 to 3,000 litres of drinking water per day

Residential & Office 25 L / day

Compact, quiet, and designed for daily household or small team consumption. Operating at 230 V AC / 50 Hz with efficient 500 W power consumption.

Smart

25 L / day

Storage tank	17 L
Power consumption	500 W
Weight	62 kg

Highly portable; doubles as an indoor dehumidifier and air filter.

Smart+

25 L / day

Storage tank	19 L total
Power consumption	500 W + 500 W
Weight	67 kg

Integrated hot water option for versatile beverage needs.

Prime

25 L / day

Storage tank	23 L
Power consumption	500 W
Weight	75 kg total

Split-unit design for ultimate space saving.

Commercial 100 – 500 L / day

Robust, environment-friendly 230 V AC / 50 Hz systems engineered for medium-to-large foot traffic in call centers, hospitals, schools, and corporate complexes.

Super

100 L / day

Storage tank	62 L
Power consumption	2 kW
Refrigerant	R-410A

Small factories and call centers (serving 50–75 people).

Hyper

250 L / day

Storage tank	220 L
Power consumption	3 kW
Refrigerant	R-410A

Large commercial offices, educational institutions, and hospitals.

Mega

500 L / day

Storage tank	220 L
Power consumption	7 kW
Refrigerant	R-410A

Mid-sized commercial complexes requiring high-volume reliability.

Industrial & Community 1,000 – 3,000 L / day

High-yield 415 V AC / 50 Hz, 3-phase systems built for factories, extreme environments, outdoor installations, community supply, and large-scale disaster relief.

Ultra

1,000 L / day

Storage tank	395 L
Power consumption	13 kW
Weight	700 kg

Large-scale applications, remote locations, and rapid disaster relief.

Royale

2,200 L / day

Storage tank	750 L
Power consumption	26 kW
Weight	1,400 kg

Outdoor, industrial compact design in galvanized iron & stainless steel.

Amber

3,000 L / day

Storage tank	2,500 L
Power consumption	40 kW
Weight	6,000 kg

Fully self-contained 20 ft container-based unit.

The Economics of Water Independence

Traditional Sourcing

Volatile municipal utility costs
Endless logistical overhead for bottled water delivery
Hidden disposal fees for plastic waste
High supply chain vulnerability

The AWG Paradigm

Highly predictable OPEX (fixed electricity + standard consumables)
Zero logistics and zero plastic disposal costs
Complete protection against local water scarcity

Strategic shift: Equipment rental and OPEX models turn capital expenditure into a predictable monthly operating expense that guarantees water security.

Confront Water Scarcity Head-On.

Partner with N2 TRANS GmbH to secure your sustainable, independent water future today.

Get in touch

N2life Power from Biomass

Transforming organic waste into clean energy – without incineration

The N2life system is a non-incineration thermal technology that converts organic waste – biomass, food waste, sludge, manure and even waste containing up to 30 % plastic – into hydrogen-rich syngas. An AI-controlled generator turns it into electricity right on site, transforming a costly disposal liability into reliable, off-grid baseload power.

Zero incineration: no smoke, no wastewater – only dry ash remains
600–1,000 kWh of electricity per ton of dry biomass
Fully automatic and AI-controlled, requiring minimal manual intervention
Integrated CO₂ absorption for exceptionally low emissions
Besides electricity, also hydrogen, synthetic natural gas (SNG) or heat

N2life biomass gasification system with generator

Infinite Flexibility: Your Waste is the Fuel

N2life processes a broad range of organic residues, turning unpredictable waste into a predictable, high-yield energy stream. Requirements: moisture below 20 % and a particle size of max. 5 cm – an optional pretreatment line prepares the material accordingly.

Suitable feedstock: straw, corn stalk, bagasse, wood chips, shells, rice husk, manure, sargassum

Agricultural Biomass

Straw, corn stalk, sugarcane bagasse, banana biomass

Forestry & Processing

Wood chips, bamboo waste, coconut, palm and peanut shells, rice husk

Municipal & Industrial

Cow manure, sargassum, food waste, sludge and organic waste mixed with up to 30 % plastics

The 4-Stage Process

Stage 1

Pretreatment

Automatic dewatering, shredding and mixing. Even organic waste mixed with plastics is homogenized into a uniform feedstock.

Stage 2

Thermal Decomposition

Operating at 320–700 °C, the reactor performs carbonization, oxidation and thermal oxidation-reduction, extracting raw syngas without combustion.

Stage 3

Syngas Purification

The gas is cooled, de-dusted, scrubbed and filtered. Integrated CO₂ absorption guarantees exceptionally low emissions.

Stage 4

Electricity Generation

The hydrogen-rich syngas feeds an AI-controlled generator for continuous electricity – or is diverted to hydrogen enrichment and SNG production.

Process flow from biomass to electricity

Biomass storage & conveyor
Skip charger
Gasification reactor
Cyclone dust removal
Gas cleaning & cooling
Syngas generator

Technology in Detail

Reversed flow with a controlled vacuum system at the bottom of the reactor
Enlarged oxidation zone for more stable, uniform reactions
Complete containment of all process gases – without complex high-pressure systems
Two-stage purification for particle-free syngas before power generation

Vacuum principle: operation under negative pressure – in case of a leak, air flows in but no gas escapes
Encapsulated processes: fully closed reactor and gas handling systems
Explosion protection: continuous extraction prevents ignitable gas mixtures
CO monitoring: integrated sensors for permanent ambient air control
CE certified

Intelligent PLC system standardizes feedstock intake and optimizes gas composition in real time
Automatic start/stop, load sharing and alarm protection
Full remote monitoring and control
Automatic shutdown on abnormal pressure or temperature values
Clear LCD display, configurable in English and German

Continuous intake: waste is processed as it is generated
The reactor operates continuously for maximum thermal efficiency
Optional on-site gas storage buffers the syngas
On-demand generation: the genset delivers exactly when demand peaks, reducing peak tariff costs

N2life Models & Technical Data

Modular systems from 20 to 1,000 kW electrical output – for commercial and industrial sites

Each system consists of the gasifier (HBF) and the matching syngas generator (HTG). The compact, modular design requires only 20–150 m² of space and can be installed directly at industrial or agricultural sites without special infrastructure.

Capacity	0.72–36 t of dry biomass per day
Electricity yield	600–1,000 kWh per ton of dry matter
Own consumption	approx. 10 % of generator output
Syngas heating value	approx. 4–4.5 MJ/Nm³
Waste heat	optionally recoverable (approx. 5–10 % extra)
Footprint	20–150 m²

Gasifier	Genset	Biomass (kg/h)	Biomass (t/day)	Gross output (kW)	Net output (kW)	Electricity (MWh/day)
Commercial Scale
HBF-60W	HTG-20GF	30	0.72	20	17	0.48
HBF-100W	HTG-30GF	45	1.08	30	27	0.72
HBF-120W	HTG-40GF	60	1.44	40	36	0.96
HBF-150W	HTG-50GF	75	1.8	50	45	1.2
HBF-200W	HTG-60GF	90	2.16	60	55	1.44
HBF-250W	HTG-80GF	120	2.88	80	72	1.92
HBF-300W	HTG-100GF	150	3.6	100	90	2.4
Industrial & Utility Scale
HBF-500W	HTG-150GF	225	5.4	150	135	3.6
HBF-600W	HTG-200GF	300	7.2	200	180	4.8
HBF-900W	HTG-300GF	450	10.8	300	270	7.2
HBF-1200W	HTG-400GF	600	14.4	400	360	9.6
HBF-1500W	HTG-500GF	750	18	500	450	12
HBF-1800W	2 × HTG-300GF	960	23.04	600	540	14.4
HBF-2500W	2 × HTG-400GF	1,200	28.8	800	720	19.2
HBF-3000W	2 × HTG-500GF	1,500	36	1,000	900	24

Net = generator output minus the system's own consumption. Electricity per day based on gross output in 24-hour continuous operation. Yield depends on type and quality of the feedstock.

N2life Compared

	N2life (non-incineration)	Standard Incineration	Natural Gas Generator
Carbon footprint	Integrated CO₂ absorption, near-zero emissions	High toxic emissions	Fossil-fuel dependent
Residues	No smoke, no wastewater, dry ash only	Toxic slag, wastewater	Greenhouse gas emissions
Feedstock cost	Free or negative – utilizes waste	High operational & disposal cost	Volatile market pricing
Energy yield	600–1,000 kWh per ton of dry biomass	Low conversion rate	Consumes refined fuel

Emission Values

−55 % CO₂ in exhaust gas compared to a natural gas generator (full load: 4,400 vs. 9,850 ppm)

21.5 ppm NO_x at full load – on par with a natural gas generator (21.3 ppm)

0 ppm unburned hydrocarbons (HC) at full load

Syngas composition: H₂ 11.4 % · CO 21 % · CH₄ 5.5 %. Exhaust gas values measured before emission control and CO₂ capture. No visible smoke, negligible tar formation.

Applications

Hotels & Tourism

Shopping Centers

Industry

Agriculture

Waste Treatment

Emergency & Backup

Turn Waste into Energy.

Talk to us about the right N2life system for your site and your feedstock.

Get in touch

Wind Turbines

Two innovative wind technologies – quiet, fuel-free and flexible to deploy

Complementing our storage, water and biomass solutions, we offer two novel wind turbines that capture wind from every direction and generate electricity even at low wind speeds – on buildings, at industrial sites or as stand-alone installations.

Technology 1

Vertical Axis Wind Turbine with Spherical Rotor

The sphere-shaped rotor receives wind from all directions – no yaw mechanism is needed. The system runs quietly, needs no fuel and adjusts itself in strong winds without having to be shut down.

Starts generating at 3 m/s wind speed
Receives wind from all directions, no yaw mechanism
Low-noise operation
Capacity from 1 kW to 1,000 kW
Self-adjusting in strong winds, no shutdown required

Where it can be installed

Roofs of large buildings and skyscrapers
Moving objects such as ships
Artificial air flows: cooling towers, industrial and ventilation fans, airfields

Two prototypes with 5 kW and 3 kW capacity have already been built in Bolu, Turkey.

Prototype of the spherical rotor wind turbine

Compact Systems

Capacity	Rotor diameter	Total height
5 kW	3.1 m	11.8 m
10 kW	4.4 m	15.3 m
30 kW	7.8 m	27.9 m
50 kW	9.1 m	31.2 m

Large Systems

Capacity	Number of wings	Rotor diameter	Rotor height	Tower height
50 kW	29	6.9 m	3.5 m	31 m
100 kW	43	9.1 m	4.8 m	44 m
200 kW	45	13.3 m	6.9 m	59 m
500 kW	45	25.5 m	12.2 m	76 m
1,000 kW	47	39.2 m	19.1 m	98 m

Technology 2

Venturi Wind Turbine

The funnel-shaped venturi design accelerates the incoming wind, generating electricity even in very light winds. At the same time, installation costs are much lower than for conventional wind turbines.

Operates at wind speeds as low as 1 m/s
Much lower installation costs
Capacity from 5 kW to 1 MW
No fuel needed
Can also produce pure water from air humidity

Capacity	Rotor diameter	Height
5 kW	3.5 m	6 m
200 kW	23 m	34 m
500 kW	35 m	52 m
1,000 kW	50 m	70 m

Want to know which wind turbine suits your site? We are happy to advise you.

Request a consultation

Our Solutions

Voltumna® Energy Storage

Water from Air

N2life Biomass

Wind Turbines

Tyre Pyrolysis

Voltumna® Synergy Storage Power Plant

Advantages of the Voltumna® Synergy Storage Power Plant

Voltumna® Nitrogen Storage

Working principle of the Voltumna® Nitrogen Storage System

Stage 1: Charging the system

Stage 2: Energy Storage

Stage 3: Energy Recovery

Voltumna® High Capacity Battery Container

Battery Cell Safety Tests

N2 TRANS Next-Generation Tyre Recycling

Continuous Pyrolysis

SynDiesel Upgrading

Hygimed Deashing

Innovation 1: Continuous Fluidized-Bed Pyrolysis

3 Months Non-Stop

Zoned & Slow Heating

Integrated Catalysis

High-Temperature Steel

Dynamic Sealing

Cool Carbon Black Discharge

Self-Cleaning Condensers

Multi-Stage Emission Control

Pyrolysis line with condensation

Pyrolysis reactor with zoned burners

Feeder with dynamic sealing

Control room & video monitoring

Key Data of the Pyrolysis Line

SynDiesel Upgrading to Synthetic Diesel

Syngas Cleaning & Buffering

Amine Scrubber & ZnO Filter

WGS Reactor (Water-Gas Shift)

Continuous Distillation

Distillation Unit

Profitable at Every Stage

Quality Advantage: SynDiesel vs. Standard Pyrolysis Oil

Hygimed Deashing – Premium rCB from Scrap Tyres

The problem: conventional pCB

The solution: Hygimed deashing

The 3-Stage Cold Purification Process

Mechanical Pre-Treatment

Chemical-Physical Purification

Oxygen-Free Drying

Certified Premium Quality: ASTM N330 & N550

Competitive Edge: Hygimed vs. Industrial Standard

Main Components of the rCB Line

Jet mill

Triboelectric separator

Ultrasonic cleaning

Continuous centrifuge

Reverse osmosis

Rotary dryer

Ecological Dividend

Zero Waste

Minimal Emissions

CO2 Credit

N2 TRANS Water from Air

The N2 TRANS Difference

100 % In-House Manufacturing

Zero Plastic & Zero Waste

Patented Ozonization

Global SDG Alignment

The Science of Purity: 4-Step Filtration

Purification in four steps

Step 1: Air Filter

Step 2: Water Dust Filter

Step 3: Multi-Stage Water Filter

Step 4: Ozone Generator

Next-Generation Disinfection: The Ozone Advantage

Dewpoint Series

Residential & Office 25 L / day

Smart

Smart+

Prime

Commercial 100 – 500 L / day

Voltumna^® Energy Storage

Voltumna^® Synergy Storage Power Plant

Advantages of the Voltumna^® Synergy Storage Power Plant

Voltumna^® Nitrogen Storage

Working principle of the Voltumna^® Nitrogen Storage System

Voltumna^® High Capacity Battery Container

CO₂ Credit