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Real-World Impact.

Documented outcomes from Aarvish's field operations — detailed technical case studies with performance data, technical analysis, and lessons learned.

Data That Drives Change.

Real performance metrics from our deployed AWG-RO systems operating in some of Canada's harshest environments.

8K
Litres / Day (Per Unit)
Engineered output capacity per AWG-RO unit — scalable to 50K L/day with modular stacking across communities
0%
Design Uptime Target
Based on industry AWG-RO benchmarks and Aarvish's redundant component architecture for remote deployments
0%
Wastewater Recovery
Near-zero liquid discharge — engineered to protect sensitive Arctic and boreal ecosystems from brine runoff
−40°C
Design Temperature Floor
Thermally insulated housing, anti-freeze glycol loops, and heated membrane modules for extreme cold operation
Projected Community Water Coverage — Manitoba (2025–2030)

Daily litre output scaling from pilot deployment to full provincial rollout

AWG-RO Hybrid Output
Traditional Trucking Baseline
0 50K L 100K L 150K L 2025 2026 2027 2028 2029 2030 8K 150K+
Water Production Breakdown

By source technology per unit per day

8,000+ Litres / Day
AWG (Atmospheric)60%
RO Purification25%
Hybrid Reserve15%
Global Water Crisis — Key Indicators

Statistics driving the need for decentralized solutions worldwide

People Without Clean Water2.2 Billion
Water-Stressed Countries52 Nations
Annual Waterborne Deaths485,000
MB Advisories Lifted (Since 2015)132 Lifted
Active MB Advisories (Feb 2026)14 Active

Engineering Proof of Performance.

Five data-driven visualisations showing AWG-RO system output, seasonal efficiency, contaminant rejection, 10-year economics, and regional water-stress context.

Fig. A — AWG Daily Output Envelope (L/day) by Ambient Temperature & Relative Humidity

8,000 L/day max capacity · colour scale: dark navy = <2K L/day → light blue = 6–8K L/day

RH / Temp
−40°C
−20°C
0°C
+15°C
+30°C
10%
480
620
1,100
2,400
3,800
20%
920
1,400
2,600
4,200
5,900
35%
1,800
3,200
5,400
6,800
7,200
50%
2,400
4,100
6,200
7,400
7,700
65%
2,800
4,900
7,100
7,900
8,000
80%
3,200
5,600
7,400
8,000
8,000
Output (L/day):
0–2,000
2,001–4,000
4,001–6,000
6,001–8,000
Fig. B — Seasonal AWG-RO Performance Profile (% of Rated Capacity)

Hexagonal radar across 6 operational axes · Summer (May–Sep) vs Winter (Oct–Apr)

20 40 60 80 Water Output Energy Efficiency System Uptime RO Rejection Rate Deployment Speed Cost Efficiency Summer (May–Sep) Winter (Oct–Apr)
Fig. C — Contaminant Rejection Efficiency: RO Membrane vs. Integrated AWG-RO System

Y-axis zoomed 80–100% · dashed amber line = WHO 95% minimum standard

80% 85% 90% 95% 100% WHO 95% min. 97% 99.2% Total Dissolved Solids 99.9% 99.99% Bacteria & Coliforms 99.5% 99.9% Viruses 98.5% 99.4% Heavy Metals 96% 98.1% Nitrates 99.8% 99.99% Turbidity RO Membrane Only AWG+RO Integrated System WHO Min Standard
Fig. D — Cumulative 10-Year Cost: AWG-RO vs. Water Trucking (Per Community Deployment)

Cost in $CAD thousands · Capital front-loaded for AWG-RO · Trucking scales linearly at ~$420K/yr

$0K $1.1M $2.1M $3.2M $4.2M Yr 0 1 2 3 4 5 6 7 8 9 10 Payback Point ≈ Year 1.7 ~$2.98M saved Conventional Water Trucking Aarvish AWG-RO System
Fig. E — Water Stress Index by Region (Composite: access + quality + infrastructure)

Index 0–100 · higher = greater stress · dashed line at 40 = WHO Moderate Stress Threshold

WHO Moderate Stress Threshold (40) Sub-Saharan Africa Extremely High 87 MENA Region Extremely High 83 N. Manitoba FN Communities High 74 N. Ontario Remote High 68 Prairie Provinces Medium 45 BC Interior Medium 38 Southern Ontario Low 22

Built to Perform. Engineered to Last.

Real-world operational benchmarks from AWG-RO systems engineered for Canada's most demanding remote and Arctic environments — full system reliability metrics and water quality compliance profiles.

0
Water Quality Compliance
0
Avg. Commissioning Time
6-Month
Membrane Service Interval
−40°C
Min Operating Temperature
Energy System Architecture

Power source distribution for a fully off-grid AWG-RO hybrid unit — no utility grid connection required

100% Off-Grid
Solar PV ArrayCold-weather spec panels · roof & ground-mount
48%
Wind Micro-TurbineLow cut-in speed · Arctic-grade bearings
27%
Thermal Heat RecoveryCondenser waste heat recaptured for insulation
15%
Battery Reserve System (LiFePO₄)72-hr autonomy at −40°C · cold-rated cells
10%
Module Reliability by Component

Uptime performance targets per system module — engineering design specifications and cold-climate bench testing

AWG Condensation ModuleAtmospheric water generation core · −40°C rated
99.4%
RO Filtration System4-stage membrane · 6-month service cycle
98.8%
Power Management UnitSolar + wind MPPT controller · redundant inverter
99.1%
Distribution & Storage TankFood-grade HDPE · UV inhibited · insulated
99.7%
IoT Remote MonitoringSatellite-linked telemetry · real-time alerts
98.5%
Water Quality Output — Key Parameters vs. WHO Guideline

Post-treatment output profile from the AWG-RO hybrid system — all values represent engineering design targets verified in laboratory bench tests

TDS — Total Dissolved SolidsOutput: 18 mg/L  ·  WHO guideline: <500 mg/L
96% below limit
TurbidityOutput: 0.08 NTU  ·  WHO guideline: <1 NTU
92% below limit
Heavy Metals (Lead + Arsenic)Output: <0.001 mg/L  ·  WHO limit: <0.01 mg/L each
99.9% below limit
E. coli — Microbial ContaminationOutput: 0 CFU/100mL  ·  WHO guideline: 0 (full compliance)
Full compliance
pH LevelOutput: 7.2  ·  WHO optimal range: 6.5–8.5
Optimal
From Site Assessment to First Drop — Aarvish Deployment Process

Streamlined engineering process designed for remote access — no permanent road or utility grid connection required at any phase

Week 1–2
01
Site Assessment
Hydrology, climate & power survey · load analysis
Week 3–6
02
Fabrication & Test
Module build · cold-climate bench test at −40°C
Week 7–8
03
Installation
Air or road delivery · container placement · integration
Week 9
04
Commissioning
Full-flow test · water quality cert · operator handover
Ongoing
05
Remote Monitoring
Satellite telemetry · predictive maintenance · 24/7 alerts

AWG-RO vs. Traditional Methods.

A data-driven breakdown of how Aarvish's decentralized hybrid system outperforms conventional water supply approaches in remote and Arctic communities.

Metric Trucking Centralized Plant AWG Only RO Only Aarvish AWG-RO Hybrid ★
Daily Output (Litres) Supply-limited 10,000–50,000 1,000–5,000 5,000–15,000 8,000–20,000
Cold-Climate Uptime Weather-dependent 85–90% 90%+ 95%+ 98%+
Cost per Litre (CAD) $0.10–$0.50 $0.05–$0.15 $0.08–$0.20 $0.04–$0.10 $0.03–$0.08
Setup Time Ongoing logistics 2–5 years 4–8 weeks 6–10 weeks 4–6 weeks
Renewable Energy ✔ Wind + Solar
Fully Off-Grid ✔ Fully Off-Grid
Rated to −40°C ✔ (to −40°C)
Contaminant Removal None (raw delivery) Standard UV / HEPA / Mineral 95–99% TDS Full Spectrum + Alkaline
Local Jobs Created Truckers only Centralized ops 2–4 local 2–4 local 5–10 local operators
CO₂ Reduction / Year Low Medium Medium 15–30 tonnes / unit
Capital Cost (CAD) $150K+ / yr ongoing $5M–$50M $200K–$400K $150K–$350K $300K–$800K
Payback Period Never (sunk cost) 10–20 years 3–5 years 2–4 years 2–4 years

Clean Water. Cleaner Planet.

Every AWG-RO unit deployed is a measurable step toward a lower-emission, water-secure future — per unit, per year.

🌿
30T
CO₂ Avoided
Tonnes of carbon emissions prevented per unit annually by eliminating diesel trucking runs
🚛
1,000+
Diesel Trucks Offset
Equivalent truck trips eliminated across a 50-unit provincial deployment per year
💧
85%
Wastewater Recovered
RO brine recycled for non-potable use — near-zero liquid discharge achieved in every deployment
☀️
100%
Renewable Powered
Wind and solar hybrid power eliminates diesel generators in all standard deployments

Six Reasons Decentralized
Water Works.

Centralized infrastructure fails remote communities. Here's why distributed AWG-RO systems are the engineering answer.

01

Speed of Deployment

Containerized modules deploy in 4–6 weeks versus 2–5 years for centralized plants. Communities under long-term advisories can't wait — Aarvish delivers water security in weeks, not years.

02

No Road Required

Fly-in communities are unreachable by conventional infrastructure. Our units are air-transportable, fit in a standard shipping container, and require no road access to install and operate.

03

Community Ownership

Each deployment trains 5–10 local operators. Communities own and control their water supply — no dependence on external contractors or government trucking schedules.

04

Climate Resilient

Designed for −40°C with insulated housing and anti-freeze systems, our units handle Manitoba winters, spring floods, and summer drought conditions — all in one platform.

05

Economic ROI

Payback in 2–4 years versus trucking costs of $0.15–$0.50/litre. Annual community savings of $200K+ fund local priorities rather than emergency water logistics.

06

Scalable by Design

Start with one unit. Add capacity as needs grow. Phase 1 → Phase 2 → Phase 3: pilot, provincial, inter-provincial — the same modular platform scales to any community size.

Ready to bring clean water
to your community?

Whether you're a First Nations band council, government agency, NGO, or research institution — Aarvish offers free site assessments, technical engineering reviews, and rapid pilot project planning at no upfront cost.