Nano Flow Irrigation
2026 field-validation engagements are under technical review.Choose how to participate
Choose a pathway
Participate in field validation

Help build the field evidence for continuous ultra-low-flow irrigation.

Growers, sponsors, researchers, and industry partners can participate in structured field validation of Nano Flow Irrigation.

The value of a pilot is the dataset, not the acreage. Choose the role that matches what you can contribute: funding, a qualified site, technical capability, or commercial interest.

Technical inquiries receive a response within two business days.

Participate

Choose how you want to participate.

Funding, field access, technical validation, and commercial demand are distinct pathways. Choose the one that matches what you can contribute or what you need next.

01

Fund a pilot

Help finance measured field validation.

For manufacturers, agencies, investors, and conservation programs.

02

Host a pilot

Provide a qualified field location.

For growers, research farms, and land managers with usable water and operating access.

03

Validate with us

Contribute independent expertise or resources.

For universities, consultants, laboratories, sensor firms, and equipment specialists.

04

Explore deployment

Register interest in using Nano Flow Irrigation after validation.

For growers, operators, designers, and commercial partners assessing future use.

Field-validation scales

Choose your path

Every level produces participant-specific field evidence. The planned dripline footprint increases with the technical question - from controlled performance, to field consistency, to commercial-system scalability.

1,000 ftPerformance~0.11–0.67 GPM*
10,000 ftField consistency~1.1–6.7 GPM*
75,000 ftCommercial scalability~8.3–50 GPM*

*Illustrative planning envelope using a nominal emitter discharge range of approximately 0.01–0.04 GPH per emitter and 12–18-inch emitter spacing. The displayed range reflects the combined low/high cases across emitter discharge and spacing. Actual flow depends on the selected configuration, operating pressure, site hydraulics, and measured emitter performance.

Sponsorship funds defined field evidence

The scale does not simply buy more dripline. Each step changes the hydraulic complexity, spatial sampling, monitoring architecture, comparison design, and decision the evidence can support.

Level I

1,000-ft Benchmark

$15,000+

Primary questionDoes Nano Flow Irrigation work under this site’s defined conditions?

  • One controlled, isolated test zone
  • Master flow plus inlet and distal pressure
  • Concentrated root-zone monitoring
  • Baseline water and soil characterization
  • Technical benchmark and proceed-or-reject decision

Planned scale: 1,000 linear feet of Nano Flow Irrigation dripline under the agreed standard scope.

Level III

75,000-ft Commercial Benchmark

$75,000+

Primary questionDoes Nano Flow Irrigation operate as a commercial irrigation system—and how does lower instantaneous demand change the required infrastructure?

  • Multi-zone commercial distribution architecture
  • Master and representative zone-level flow
  • Distributed pressure, soil, salinity, and durability monitoring
  • Filtration loading, pumping demand, maintenance, and operating labor
  • Benchmark report plus replication and economic roadmap

Planned scale: 75,000 linear feet at one benchmark site—not multiple complete sites.

Review the unified program. The Nano Flow Irrigation Pilot Validation Program 2026 combines participation pathways, package comparisons, evidence boundaries, measurement architecture, responsibilities, and next steps in one document.

Download the Pilot Validation Program
What gets measured

One connected evidence chain.

Each workstream supports a decision about water delivery, field performance, maintenance, or commercial replication.

  1. 01Water appliedVolume, runtime, weather, and crop context
  2. 02Pressure & flowHydraulics, discharge, and uniformity
  3. 03Root zoneMoisture or tension by position and depth
  4. 04SalinityWater chemistry and spatial soil EC
  5. 05MaintenanceFiltration, restriction, flushing, and durability
  6. 06Crop & systemOutcomes, energy, labor, sizing, and economics
Flow versus pressure chart showing measured Nano Flow Irrigation emitter discharge across a range of operating pressures
Measured flow-versus-pressure behavior helps define the operating envelope that field pilots must validate.
Where the protocol began

Yuma showed us what the next generation of pilots must measure.

The Yuma Ag Center record is a transparent field-learning sequence—not a claim that the first trial controlled every variable or proved every performance outcome.

Nano Flow Irrigation field trial rows in Yuma, Arizona
Yuma field-trial context. Source water, filtration, pressure, hardware, and fertigation conditions changed across phases.

What was tested

  • Gravity and later pressurized operation
  • Surface and buried outlets
  • Agricultural water, filtration changes, and fertigation exposure
  • Pressure, discharge, soil tension, chemistry, and operating observations

What was observed

  • Ultra-low discharge under documented pressure conditions
  • Measurable root-zone moisture response during the recorded observation periods
  • Operating behavior varied with installation position and pressure
  • Water handling, filtration, and pressure remain variables to control and quantify

What remains unresolved

  • Long-duration discharge uniformity
  • Causes of observed restriction
  • Matched buried-versus-surface performance
  • Crop-scale water balance, salinity, and full-cycle maintenance
  • These are unresolved questions, not adverse findings

What the next pilots control

  • Stable inlet and terminal pressure logging
  • Matched controls and prespecified criteria
  • Baseline and post-treatment water characterization
  • Replicated moisture and salinity sampling
Participation inquiry

Describe the opportunity or need.

Required fields are marked *. The remaining details help us prepare; they can be supplied later.