Eight series, thirty-nine models, 0.5 to 200 m³/h
The model codes, flow rates, power ratings and materials below are the same data as our Chinese specification tables — one database, two languages, no translation drift between them.
Read this before the tables
- Flow is rated at the stated duty point. Actual capacity shifts with gas source, discharge pressure and temperature — which is why the NEO series is quoted as a range rather than a number.
- Power is installed motor rating, not measured draw. Specific energy must be computed as P ÷ Q at your duty point; the technology page shows how.
- Material matters more than model when chlorides are present. 316L is the floor for saline media regardless of flow.
- Sixteen further models are in development and are not counted in the thirty-nine. We list them separately rather than blending them into the catalogue as if they were orderable.
CRP Series
Large-scale process integration · 5–200 m³/h
Six models covering industrial wastewater plants, UASB/IC anaerobic digesters and municipal upgrades. 18 m standard head. Integrates with biogas processes; the 5–15% biogas yield improvement we quote is a range because it depends on feed strength and on how well the existing mixing already works.
| Model | Flow (m³/h) | Power (kW) | Voltage | Material |
|---|---|---|---|---|
| AR-CRP-0500 | 5 | 0.5 | 380V | SUS304 |
| AR-CRP-1000 | 10 | 1.0 | 380V | SUS304 |
| AR-CRP-3000 | 30 | 1.5 | 380V | SUS316L |
| AR-CRP-5000 | 50 | 2.2 | 380V | SUS316L |
| AR-CRP-10000 | 100 | 4.0 | 380V | SUS316L |
| AR-CRP-20000 | 200 | 7.5 | 380V | SUS316L |
FRY Series
Deep-water aeration · 10–70 m³/h
Four models with a 30 m head. The point is to deliver oxygen below the thermocline in reservoirs, ports and deep ponds — not to churn the surface. 316L throughout, because these units usually see raw surface water with variable chloride.
| Model | Flow (m³/h) | Power (kW) | Voltage | Material |
|---|---|---|---|---|
| AR-FRY-1000 | 10 | 1.1 | 380V | SUS316L |
| AR-FRY-3000 | 30 | 2.2 | 380V | SUS316L |
| AR-FRY-5000 | 50 | 3.0 | 380V | SUS316L |
| AR-FRY-7000 | 70 | 4.0 | 380V | SUS316L |
LOT Series
Aquaculture · 1–20 m³/h
Five models from 1 to 20 m³/h, 220 V up to 5 m³/h so a pond unit does not need three-phase power. Built for ponds, high-density ponds and RAS. We quote 60% lower oxygen cost and a 10% survival improvement from field comparisons — both track stocking density and feed load.
| Model | Flow (m³/h) | Power (kW) | Voltage | Material |
|---|---|---|---|---|
| AR-LOT-0100 | 1 | 0.25 | 220V | SUS316L |
| AR-LOT-0300 | 3 | 0.55 | 220V | SUS316L |
| AR-LOT-0500 | 5 | 0.75 | 220V | SUS316L |
| AR-LOT-1000 | 10 | 1.5 | 380V | SUS316L |
| AR-LOT-2000 | 20 | 2.2 | 380V | SUS316L |
CLW Series
Water-body restoration · 0.5–20 m³/h
Six models, 0.5–20 m³/h, producing 100–300 nm bubbles. Starts at 220 V, which matters because lakeside and wetland sites rarely have a spare three-phase supply. Lakes, rivers, landscape water, constructed wetlands.
| Model | Flow (m³/h) | Power (kW) | Voltage | Material |
|---|---|---|---|---|
| AR-CLW-0050 | 0.5 | 0.25 | 220V | SUS304 |
| AR-CLW-0100 | 1 | 0.37 | 220V | SUS304 |
| AR-CLW-0300 | 3 | 0.75 | 220V | SUS304 |
| AR-CLW-0500 | 5 | 1.1 | 380V | SUS316L |
| AR-CLW-1000 | 10 | 1.5 | 380V | SUS316L |
| AR-CLW-2000 | 20 | 2.2 | 380V | SUS316L |
NEO Series
Multi-gas platform · ≈2–50 m³/h
Four models running air, oxygen or ozone from the same skid, with online DO monitoring and automatic control. Flow is stated as a range because it moves with gas source and discharge pressure — a single number would be misleading.
| Model | Flow (m³/h) | Gas options | Material | Benchmark |
|---|---|---|---|---|
| AR-NEO-0200 | ≈2–9 | Air / O₂ / O₃ | SUS316L | Moleaer Neo N — small frame |
| AR-NEO-0500 | ≈5–15 | Air / O₂ / O₃ | SUS316L | Moleaer Neo N — mid frame |
| AR-NEO-2000 | ≈20–30 | Air / O₂ / O₃ | SUS316L | Moleaer Neo N — large frame |
| AR-NEO-5000 | ≈50–62.5 | Air / O₂ / O₃ | SUS316L | Moleaer Neo N — flagship |
ARFU Precision Flotation
Oil–water separation and DAF retrofit · 5–200 m³/h
Five models, 5–200 m³/h. 94% TSS removal, 60–75% lower energy and 50–75% lower chemical dosing against conventional dissolved air flotation at the same capacity. Retrofits into existing DAF basins, keeping the civil works and the scrapers.
| Model | Flow (m³/h) | Power (kW) | Voltage | Material |
|---|---|---|---|---|
| ARFU-200 | 5–10 | 2.2 | 380V | SUS304 |
| ARFU-400 | 10–20 | 4.0 | 380V | SUS304 |
| ARFU-800 | 20–50 | 5.5 | 380V | SUS316L |
| ARFU-2000 | 50–100 | 7.5 | 380V | SUS316L |
| ARFU-5000 | 100–200 | 15 | 380V | SUS316L |
OWS Series
Oilfield produced water · 5–200 m³/h
Four packaged units combining hypergravity swirl separation, nanobubble flotation and SiC membrane, targeting below 10 mg/L oil in water for reinjection. Configured per project water analysis, not sold as a fixed package — polymer-laden frac flowback needs different pre-treatment from conventional produced water.
| Model | Flow (m³/h) | Power (kW) | Voltage | Material |
|---|---|---|---|---|
| AR-OWS-0010 | 5–10 | 3.0 | 380V | SUS316L+Ti |
| AR-OWS-0050 | 20–50 | 5.5 | 380V | SUS316L+Ti |
| AR-OWS-0100 | 50–100 | 7.5 | 380V | SUS316L+Ti |
| AR-OWS-0200 | 100–200 | 15 | 380V | Duplex 2205 |
SiC Ceramic Membranes
Tubular, flat-sheet and multi-channel elements
Tubular (1200×40 and 1000×40 mm), flat sheet (250×250 mm) and multi-channel (19 and 37 channel) elements. 20 nm and 50 nm pore sizes, 300–600 LMH, pH 1–14, 316L housings. The same membrane is used inside our generators as the gas-dispersion medium.
| Model | Element | Pore size | Flux (LMH) | Length | Housing |
|---|---|---|---|---|---|
| SiC-T-1200 | Tubular 1200 × 40 | 20 nm | 300–400 | 1200 mm | SUS316L |
| SiC-T-1000 | Tubular 1000 × 40 | 20 nm | 300–400 | 1000 mm | SUS316L |
| SiC-P-250 | Flat sheet 250 × 250 | 50 nm | 200–300 | 250 mm | SUS316L |
| SiC-M-19 | Multi-channel 19 channels | 20 nm | 300–500 | 1000 mm | SUS316L |
| SiC-M-37 | Multi-channel 37 channels | 20 nm | 400–600 | 1000 mm | SUS316L |
Need a model selection, not a catalogue?
Tell us the flow, the target parameter and the water analysis. We will name one model and explain why the others do not fit.
Request selection → One-page spec matrix