ECI monitoring concept illustration
01. Irrigation canal monitoring
Observe bank edges, vegetation encroachment, visible obstructions, and changes near gates and flow-control infrastructure. Build a consistent history for personnel to review.
Independent concept proposal • Parker, Arizona • November 2026
Proposed Design and Implementation for the Colorado River Indian Tribes for Farm Monitoring
A practical proposal for ‘Amat Kuhwely (formerly CRIT Farms): use solar-powered, cellular-connected cameras and the Environmental Change Intelligence platform to build a long-term visual record of irrigation canals, standing water, vegetation, soil movement, and infrastructure conditions.
Prepared by HerbDev / Environmental Change Intelligence. This proposal is unsolicited and has not been commissioned, reviewed, or endorsed by the Colorado River Indian Tribes or ‘Amat Kuhwely.
Review deployment optionsSee monitoring scenarios5Proposed pilot stations
30Photos per day, network-wide
2.7 GBOriginal imagery / 30 days
24/7Unattended station operation (design goal)
The opportunity
Infrastructure investment deserves a reliable observation record.
Public announcements about the expansion of CRIT farming operations emphasize infrastructure improvements and water-use efficiency. ECI offers a proposed way to document visible change over time with consistent, reviewable photographic evidence—not a claim of already-proven performance on CRIT farmland.
The concept is deliberately narrow at the outset: observe selected, authorized sites; capture images at fixed viewpoints; maintain originals; compare images with relevant baselines; and surface changes for qualified staff to review.
Photos can identify visible standing water, erosion, obstruction, vegetation appearance, or changed canal geometry. They do not by themselves measure irrigation efficiency, soil moisture, water volume, or diagnose crop stress. Those require additional calibrated instrumentation and validation.
What the farm receives
- Consistent photographs without daily site visits
- Timestamped before/after visual histories
- Human-reviewed change alerts
- Field-level station and battery status
- Exportable evidence for inspections and maintenance
- Organization-controlled data and access
Illustrative monitoring scenarios
Three practical ways to begin.
The photographs below show real agricultural conditions, including locations near Parker and Yuma, Arizona. They are reference imagery, not observations collected by ECI or evidence of current conditions at CRIT Farms. Each scenario also includes an original ECI technical illustration.
ECI monitoring concept illustration
02. Standing water and drainage
Identify visible pooling and whether its apparent extent persists or changes between scheduled photographs. Prioritize field visits for human confirmation.
ECI monitoring concept illustration
03. Erosion and soil movement
Compare canal banks, access roads, and drainage edges with stable reference views. Review potential soil displacement and record site actions over time.
Historical context: Colorado River Indian Reservation
This public-domain 1972 EPA/National Archives photograph documents irrigation infrastructure on the Colorado River Indian Reservation near Blythe. It is included as historical context only and does not depict today's farm conditions or a current ECI installation.
Photo: Charles O'Rear / US EPA / National Archives (public domain).
Technical design
Five stations. One secure ECI observation history.
At each field station
- Fixed-position weather-rated 5 MP IP camera, with Reolink as a candidate vendor subject to exact-model testing
- Raspberry Pi 4 edge agent for capture schedules, retries, and health checks
- Industrial LTE router with a private local network
- 300 W solar array, MPPT controller, nominal 12.8 V / 100 Ah LiFePO4 battery
- 128 GB local capture buffer, protected enclosure, pole, antenna, and electrical protection
On the ECI platform
- Six scheduled JPEG captures per camera daily
- Authenticated HTTPS upload with outage recovery
- Private originals, checksums, and audit trail
- Existing ECI image registration and change-analysis integration
- iPhone field access, iPad review, and Mac administration
Remote station ingestion and dashboard capabilities are proposed development, not represented as presently deployed features.
Power planning assumption: a 12 W average station load requires about 288 Wh per day. A 300 W panel array is a preliminary sizing choice, not a certified site-specific design. Battery enclosure temperature, winter solar yield, pole wind loading, protection, and exact equipment specifications require on-site engineering review.
Deployment choices
Three options, sized to the decision.
Indicative USD planning ranges—not binding quotes, bids, or confirmed supplier pricing. Final scope, labor, site access, cellular coverage, hardware, hosting, and required software work must be confirmed with the farm.
One observation station
$2,500–$5,000
Installed test station budget, exclusive of substantial platform productization and site-specific civil work.
- One solar/cellular camera station
- Canal, standing-water, or erosion view
- Scheduled capture and offline buffering
- Basic secure intake and image history
- 30-day acceptance study
Five-station field pilot
$9,800–$14,000
Provisional hardware and field-installation allowance; software engineering quoted separately.
- Five independent solar/LTE stations
- 30 original JPEGs per day
- Three prioritized monitoring scenarios
- Remote status and image history
- ECI integration and validation plan
25-station deployment
$45,000–$80,000
Illustrative scalable equipment and field-installation budget; detailed site survey and software/operations costs separate.
- Phased rollout after pilot acceptance
- Farm/field-level access controls
- Maintenance and alert procedures
- Historical reporting and evaluation
- Long-term operational support plan
Reference five-station cost breakdown
| Budget line | Five-station estimate |
|---|---|
| Cameras, Pi controllers, LTE routers, storage | $2,125 |
| Solar panels, MPPT controllers, LiFePO4 batteries | $3,925 |
| Enclosures, poles, protection, cabling, antennas | $2,750 |
| Hardware subtotal | $8,800 |
| Installation and commissioning allowance | $1,000–$5,200 |
| Indicative installed pilot range | $9,800–$14,000 |
| Estimated recurring LTE/hosting/storage | $70–$190/month |
Not included: platform engineering fees, additional sensors, substantial earthwork, electrical engineering sign-off, permits, site travel, taxes, insurance, maintenance labor, or data-review labor. The 25-station option is a preliminary scaled budget, not a verified quantity discount.
Implementation and delivery
Start with evidence. Expand only after validation.
Phase 1 — Bench & site survey
Validate precise Reolink model/API, station power use, server delivery, location permissions, antenna signal, solar siting, and data ownership.
Phase 2 — One-station field trial
Install an authorized observation point; assess image consistency, outage recovery, heat performance, and false-positive changes.
Phase 3 — Five-station pilot
Commission the five stations, establish baselines, train authorized reviewers, and issue a measured pilot report with acceptance criteria.
Implementation and ongoing ownership options
HerbDev can discuss a scoped engineering engagement, a managed monitoring service, or a dedicated/full-time technical leadership role to design, integrate, validate, and maintain these systems. Any position or engagement would be subject to the farm's needs, authorization, and agreed terms.
This proposal is an introduction to a possible solution, not an application to an announced or verified job opening.
Proposed success measures
- Scheduled capture completeness
- Server-verified original-image integrity
- Offline recovery behavior
- Station uptime and battery margin
- Human-validated change-detection quality
- Operational value to the reviewing team
Invitation to review
Would a small field pilot be useful?
I would welcome the opportunity to review the concept with ‘Amat Kuhwely's farm operations, irrigation, and technical leadership; identify the highest-value observation locations; and develop a site-specific quote and verification plan.
Contact HerbDevExplore the ECI platformContact: herb.trevathan@icloud.com • HerbDev
Data governance: any installation requires written site authorization. The organization operating the land should approve capture locations, data ownership, access rights, retention, and any sharing before observations begin. This site contains illustrative content and proposed—not commissioned—work.