Discover our tailored services designed to elevate your brand, enhance user experience.
Oxidative breakdown of drilling muds, formation waters, and complex hydrocarbons. High‑penetration nanofluidic dispersions permeate heterogeneous formations, enhancing desorption and microbial stimulation—even in arid, offshore, or permafrost conditions.
Nano‑mist and gel deployments address subsurface leaks and chronic seepage. Enables surface/subsurface oxidation of BTEX without disruptive excavation; continuous in‑situ neutralization at the soil–fluid interface.
Targeted destruction of phenolics, aromatics, and SVOCs via reactive microbubble + catalyst systems; stratified dosing and automated control minimize residues and secondary emissions.
Precision remediation of VOCs, halogenated compounds, and PAHs with redox‑adaptive control and real‑time catalyst activity tuning.
Stabilization of cyanide‑laden effluents and residues from tailings/heaps via redox‑modulated dispersion; tuned to porosity, mineralogy, and hydrological gradients.
Fast‑acting injectable multi‑phase formulations for spills in ports, terminals, fuel yards; rapid activation, HSE compliance, and sensor compatibility.
Three equal tiles:
Ultra‑fine aerosol of nanobubbles + catalytic nanoparticles in a pressurized carrier; excels for VOCs, H₂S, methane—swift oxidative neutralization.
Stabilized colloid for subsurface injection; infiltrates vadose & saturated zones for deep in‑situ breakdown + biostimulation via oxygen enrichment.
Viscoelastic gel with immobilized catalysts & slow‑release nanobubbles; long residence time for passive zones (wetlands, lagoons, hotspots).
Faster time‑to‑remediation via multi‑depth interfacial kinetics (−50–70%).
In‑situ, non‑invasive application; minimal disruption/cost.
Dual pathway: chemical oxidation + biostimulation via O₂ nanobubbles.
Ambient operation; curbs secondary toxic gas emissions (e.g., H₂S, CH₄).
Residue‑free inputs;
biodegradable/recyclable components.Flexible modalities; real‑time tunability to site pH, porosity, moisture.
Advection–Diffusion–Reaction equation governs transport & degradation of contaminants under nanobubble injection; finite‑difference simulations confirm effective penetration in moist sandy loam.
Parametric DOE across representative contaminants confirms robust biodegradation: 58.2% (heavy HC), 73.5% (light oil), 65.1% (phenol/PAH), 80.3% (mixed oil+VOC) with specified depth/flow/time configurations.
Heavy Hydrocarbon — 30 cm, 1.0 L/min, 12 h → 58.2% biodegradation
Light Oil — 50 cm, 2.0 L/min, 8 h → 73.5%
Phenol/PAH — 40 cm, 1.5 L/min, 10 h → 65.1%
Mixed (Oil+VOC) — 60 cm, 2.2 L/min, 14 h → 80.3%
Our tri-phasic nano-catalytic platform shows faster pollutant reduction and stronger bio-activation than control conditions. Below are lab time-series (lower = better) and a compact comparison with widely used pilot methods.
Canada (BioVent, passive aeration): ~50% (slow, low control)
Germany (Fentox, Fenton+surfactants): 60–70% (toxic residuals, multistage)
UAE (Nano‑O₂, nanobubble+ozone): ~78% (high cost at depth)
This Platform (Tri‑phasic catalytic): 85–90%, modular & site‑adaptive.
.png)
.png)
Fe³⁺ + H₂O₂ with O₂/O₃ nanobubbles generate ROS (Fenton-like). As bubbles collapse, micro-currents drive particles into radial/dendritic self-assemblies (FeOOH, γ-Fe₂O₃, Fe₃O₄). These structures are both evidence of efficient oxidation and a visual fingerprint of the reaction. Applications: structured catalysts/filters, corrosion-resistant coatings, sensors; also a public-facing branding asset for eco-restoration storytelling. Add a short “Safety” note (ventilation/PPE; optimize ozone 5–10%).
Read More
The video shows the controlled injection of oxygen nanobubbles into a soil matrix. As the bubbles migrate downward, their diffusion front gradually penetrates the medium, reducing pollutant density and stimulating oxidative reactions. The measured displacement (≈7 mm) and force (~10⁻⁶ N) confirm both the mobility of nanobubbles and their ability to accelerate in-situ degradation processes.
Phase I — Superficial Bio‑Oxygenative Activation – O₂ nanobubbles stimulate aerobic microbes and start oxidative biodegradation.
Phase II — Catalysis‑Driven Subsurface Penetration – Reactive nanogases + engineered catalysts target SVOCs/asphaltenes via enhanced electron transfer.
Phase III — Energy‑Coupled Molecular Disintegration – UV, magnetic induction, pulsed electric fields, acoustic cavitation—lower activation energy and complete breakdown.
Concurrent gas–liquid–solid catalysis, amplified by optional external energy fields (UV, electromagnetic, electrochemical). Tunable gas mix, catalyst dispersion, phase‑ratios, and injection dynamics—optimized for soil texture, porosity, moisture, speciation, depth.
