Carbon capture and storage
Locking carbon underground or on the seabed is a cumbersome, risky and costly storage strategy. The gas does not go away; it only moves.
A new paradigm in emission control
NEO SGPT Greenhouse Gas Splitting Unit
Not capture. Breakdown at the source.
SGPT is neither a filter nor a storage system. It is a thermocatalytic, electromagnetic-resonance unit that breaks CO₂, CO and NOₓ down at source into their elements: solid carbon, oxygen and nitrogen.
−95.0%CO, field measurement
−83.3%CO₂, field measurement
0 ppmNOₓ, field measurement
CO₂ → C + O₂broken down at source
Where today’s methods stop
Storing carbon is not a solution
Current approaches either store greenhouse gas underground or on the seabed, or turn one gas into another. The targets of the Kyoto Protocol and the Paris Agreement call for more fundamental steps.
Catalytic converter
It burns toxic CO and produces extra CO₂ in the process. The greenhouse effect is not reduced; pollution just changes form.
Costly and temperature-bound
Conventional systems depend on high exhaust temperatures and on precious metals such as platinum and rhodium.
SGPT technology
Three principles: break down, recover, scale
Mass breakdown
Target gases (CO₂, CO, NOₓ) are not captured; they are broken down into their elements at molecular level.
Maximum recovery
Toxic emissions are converted into industrial-grade solid carbon (C), nitrogen (N₂) and oxygen (O₂). The outputs have a global warming potential (GWP) of zero.
Modular engineering
Designed to EPA and EU directives, the SI unit system and ASME/API standards. Capacity scales by adding modules.
Point energy field
Resonance tuned to the molecule’s own frequency
CO₂ is one of the most stable molecules, with some of the strongest interatomic bonds. Rather than heating the whole gas mass, SGPT overcomes this barrier by directing energy precisely at the bond itself.
- Resonant targeting: the electromagnetic field is tuned to the 1337 cm⁻¹ vibrational mode of CO₂, using a modulator architecture that lowers the activation energy needed for dissociation.
- Low electrical input: the declared electrical input is in the order of 100 W, verified on site against project capacity and gas flow.
- Radical dissociation: bond cleavage is initiated at very low energy; the products are solid carbon and free oxygen.
Mass balance
The zero-waste formula
Three core reactions take place in a reactor built to the ASME pressure-vessel standard. All incoming gases become elements with no greenhouse effect.
CO₂→C+O₂
2 CO→2 C+O₂
2 NOₓ→N₂+x O₂
Input: 1 m³ CO₂40,34 mol25 °C, 1 bar absolute · n = P·V / R·T
By-product 1: pure solid carbon (C)≈ 484,5 gBy-product 2: free oxygen (O₂)≈ 1.290,8 g
Calculation: 40.34 mol × 12.011 g/mol C = 484.5 g; 40.34 mol × 31.998 g/mol O₂ = 1,290.8 g. Stoichiometric values assuming full conversion; the actual conversion rate is measured on site and depends on gas composition and residence time.
Engineering and quality
Engineering standards without compromise
- Material: AISI 316L stainless steel for high resistance to oxidation and corrosive acid condensate.
- Vessel and piping: ASME Section VIII Division 1 (min. 3 mm corrosion allowance) and ASME B31.3 process piping. Seamless carbon steel (P235GH, P265GH) for high-temperature lines.
- Fluid mechanics: gas velocity capped at 40 m/s and pressure drop below 0.1 bar/m (Darcy–Weisbach).
- Quality and safety: 100% radiographic (RT) / ultrasonic (UT) testing, ASME Section IX welding procedures, ATEX (Ex-proof) motors and valves, IP65 for outdoor installation.
ASME VIII-1ASME B31.3ASME IXAISI 316LATEXIP65
Evidence I · Laboratory
Verified by gas chromatography (GC-TCD)
Test conditions: silica column, helium carrier, 10 ml/min flow, TCD at 150 °C. Oven profile: controlled ramp from 50 °C to 200 °C to separate light gases. Results are per 1 ml gas injection.
CO₂ peak area: 602
Calculated volume: 602 × 0.0005 = 0.3 ml. After treatment the area approaches zero.
O₂ peak area: 1,448
Calculated volume: 1,448 × 0.0005 = 0.7 ml. A measured increase in free oxygen.
Evidence II · Field
Field emission performance
Real values measured with a BILSA exhaust emission analyser on a petrol/LPG vehicle installation.
Before%2,20
SGPT on%0,11
Reduction in CO concentration by volume.
Before%16,13
SGPT on%2,69
Reduction in CO₂ concentration by volume.
Before—
SGPT on0 ppm
No measurable level left of the gases that cause acid rain.
Before1,57
SGPT on1,89
Free-oxygen formation raised the air/fuel ratio.
Field values come from a single vehicle installation. For industrial sources, performance is measured and reported per project, based on gas flow, composition and temperature.
Comparison
Conventional catalytic converter vs NEO SGPT
| Criterion | Conventional catalytic converter | NEO SGPT |
|---|---|---|
| CO₂ handling | Does not reduce CO₂. Burns CO and adds CO₂. | Splits the CO₂ molecule directly. |
| Operating conditions and energy | Needs high exhaust temperature and precious metals such as platinum/rhodium. | Runs on low-power, point-focused electrical energy. |
| Output | Turns one toxic gas into another greenhouse gas. | Harmless elements: C, O₂, N₂ (GWP = 0). |
Circular economy
From emissions to raw material
The carbon collected in the reactor is not waste but a saleable product, turning the unit into a source of income that offsets its running costs.
Continuous discharge
The roughly 484.5 g of carbon separated from every 1 m³ of CO₂ is discharged automatically by a rotary valve and pneumatic conveyors so the system never clogs.
Digital certification
The collected mass is weighed in real time by load cells and reported to ERP/SCADA as a digital carbon-footprint record.
From waste to value
The pure carbon is sold back to industry as carbon black, paint pigment and rubber filler.
Applications
Scalable from exhaust pipe to stack
Automotive
Modular integration into car and commercial-vehicle exhaust lines to cut carbon-emission liabilities.
Heavy industry
Cement, brick and iron-and-steel plants. No need for scrubber/FGD wastewater ponds, with a targeted footprint reduction of up to 80%.
Power generation
At coal- and gas-fired plant stacks: on-site breakdown instead of carbon capture and storage.
Cities and housing
Cutting urban air pollution at residential boiler rooms and district-heating stacks.
Site-specific analysis
A first step towards a carbon-neutral future.
Talk to our engineers about a preliminary assessment and capacity projection for your emission source.
Send us: source type (stack, exhaust, process gas), gas flow (Nm³/h), temperature, your latest emission report if available (CO₂ / CO / NOₓ / O₂) and details of the installation area.
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