Open-source · Offline-first · Edge-ready

Climate intelligence where connectivity ends.

A transparent AI and IoT reference platform designed to help trained adults monitor climate risk in school gardens, community nutrition gardens, and vulnerable smallholder settings—without collecting personal or child data.

Current status: early reference implementation for supervised research and proposed pilots. Independent validation is required.

LOCAL ASSESSMENT
DEMO-001
Latest synthetic reading39.0°CHeat stress reference threshold exceeded
Humidity82%
Soil moisture16%
Sync stateLocal
Combined reference risk90 / 100

Explainable reasons and next checks are available on-device.

Works without continuous internet
3non-identifying demo sites
360labelled synthetic records
7documented API routes
98.93%measured Python test coverage
00 — Reviewer brief

CLIMATE VENTURES ALIGNMENT · NO ENDORSEMENT CLAIMED

Directly aligned to published climate-tech needs. Deliberately honest about the evidence still required.

UNICEF’s published 2026 Climate Ventures themes include hyper-local heat and humidity alerts for schools, low-cost IoT monitoring, open-source frontier technology, and deployment in low-resource settings. FarmAssist maps to those technical needs through an offline environmental intelligence layer—without claiming validated health or nutrition outcomes.

Read the published Climate Ventures call
Priority area 2Early warning, early action

Hyper-local temperature, humidity, and soil-moisture checks designed for trained adults supporting schools and communities.

Priority area 3Low-cost monitoring

An edge-ready reference architecture for environmental sensors, local decisions, and delayed synchronization.

Core requirementWorking open prototype

Functional software, reproducible tests, open licenses, human-readable configuration, and synthetic demonstration data.

Deployment realityLow bandwidth by default

Essential assessment stays local; connectivity improves coordination but does not gate the core workflow.

1 billion

children live in countries facing high climate and environmental risk.

466 million

children live in areas with at least twice as many extreme-heat days as in the 1960s.

Source: UNICEF Office of Innovation, Climate Ventures 2026 ↗
01 — The challenge

Environmental signals matter. Connectivity should not decide who can act.

Climate stress can damage garden productivity, while intermittent networks can delay monitoring and response. Many tools also introduce unnecessary identity, location, or cloud dependencies.

FarmAssist demonstrates a different path: collect only essential environmental observations, process risk locally, show the logic behind every alert, and synchronize approved, non-identifying indicators when a connection returns.

02 — How it works

A complete local-to-public intelligence loop.

Four deliberately simple layers. No black-box claim, no identity layer, no permanent connection required.

01
OBS

Observe

Temperature, humidity, soil moisture, crop stage, and non-personal stress notes.

02
EDGE

Assess locally

Configurable thresholds generate risk levels, reasons, and adult next-checks on-device.

03
QUEUE

Queue safely

Approved observations wait locally, remain reviewable, and use UUIDs to avoid duplicate submission.

04
SYNC

Share aggregates

When connectivity returns, only privacy-reviewed environmental indicators move upstream.

Python 3.12FastAPISQLiteTypeScript PWAOpenAPIDockerMIT + CC BY 4.0
02B — Verifiable demo path

Five steps a technical reviewer can verify in minutes.

UNICEF’s published selection process verifies that a prototype exists, matches the proposal, and reflects the software and hardware work described.

01

Enter

Submit a synthetic environmental observation without personal data.

02

Assess

Run the configurable risk engine locally without continuous internet.

03

Explain

Inspect thresholds, reasons, confidence boundaries, and next checks.

04

Queue

Review an approved observation held safely on the device.

05

Sync

Reconnect and publish only non-identifying aggregate indicators.

Input contractStrict JSON Schema
Duplicate safetyUUID + HTTP 409
Model logicPublic JSON thresholds
Public outputAggregate only
Official selection process ↗
03 — Explainability

REFERENCE ASSESSMENT · SYNTHETIC EXAMPLE

Every risk has a reason. Every reason leads to a check.

The current model is a deterministic threshold engine, not a predictive claim. Its JSON configuration is public, human-readable, versionable, and designed for local agronomic review.

Suggested human review

Confirm shaded sensor placement, inspect root-zone moisture, and consult a qualified agronomist.

SignalReadingRisk
Heat stressAt or above the 38°C reference threshold
39.0°CHigh
Water stressAt or below the 18% reference threshold
16.0%High
Humidity diseaseAbove the 75% reference threshold
82.0%Moderate
Reference model only · crop- and region-specific validation not yet completed
04 — Safeguarding by architecture

Designed to be useful without becoming invasive.

Data minimization is a product boundary, not a policy footnote. The open schema deliberately excludes identity, health, contact, household, and precise-location fields.

Never collected

No child profiles

No child names, health records, biometrics, school-child identity, phone numbers, or personal farmer identity.

Never published

No precise locations

Public endpoints expose aggregate environmental indicators—not rows, notes, coordinates, or small-group breakdowns.

Always required

Adult human review

Alerts are uncertain prompts for trained adults, never autonomous instructions and never a responsibility placed on children.

Before any pilot

Institutional safeguards

Consent, approval, access controls, retention rules, incident procedures, and accountable agronomic partners.

The platform is not a medical device, emergency-warning system, or substitute for qualified agronomic, safeguarding, nutrition, or public-health advice.

05 — Measurement

Built to measure progress without inventing it.

These are designed indicators for future supervised evaluation. No current outcome values are claimed.

01

Valid environmental observations

02

Observations processed offline

03

Synchronization success rate

04

Alert-generation latency

05

Active non-identifying sites

06

Sensor-data completeness

07

High-risk periods detected

08

Aggregate users trained

09

Future alert-interpretation rate

10

Connected-operation uptime

05B — Evidence ledger

Built, demonstrated, documented—or clearly marked as future work.

This ledger prevents prototype evidence from being confused with field validation or child-impact evidence.

Review questionEvidence availableStatus
Working prototype

API, risk engine, PWA, queue, synthetic generator

Built & tested
Open-source commitment

MIT software; CC BY 4.0 docs and synthetic data

Release-ready
Low-resource deployment

Local processing, SQLite, installable PWA, Docker

Demonstrated
Child-centred safety

No child profiles; aggregate-only publication boundary

Documented
Field validation

Supervised protocol, approvals, sensor and agronomic review

Not yet completed
Outcome evidence

Pre-defined technical and future usability indicators

Future evaluation
06 — Twelve-month pathway

From public alpha to evaluation-ready implementation toolkit.

A proposed sequence subject to funding, approvals, implementation partners, and evidence at each gate.

01
Months 1–2

Foundation

Architecture, safeguarding, licensing, schema, repository, baseline prototype.

02
Months 3–4

Offline product

Risk API, dashboard, local-first workflow, local-language framework.

03
Months 5–6

Edge & indicators

IoT ingestion, synchronization, public indicators, documentation.

04
Months 7–9

Pilot readiness

Approvals, training materials, usability and data-quality testing.

05
Months 10–11

Independent review

Model improvement, accessibility, interoperability, review preparation.

06
Month 12

Release pathway

Evaluation report, implementation toolkit, proposed stable release, scale plan.

06B — Execution foundation

JOITA BIOSEED AI PRIVATE LIMITED · INDIA

Built by a team already working across software, AI, IoT, agronomy, and field research.

The proposed child-climate module is new and unvalidated, but it is not starting without technical and domain foundations.

01

Offline-first FarmAssist test build and agronomic advisory workflows.

02

Programmer-led software development with AI and IoT experience.

03

Field-research workflows across three farmer locations covering approximately 25 acres in Haryana.

04

Laboratory and field-validation capacity for proposed supervised evaluation.

05

AgriTrust edge-hardware concepts and related industrial-design applications.

These capabilities support delivery readiness; they do not constitute validation of the UNICEF-specific module, model performance, child outcomes, or school deployment.

Proposed funding request

USD 100,000

Funding would convert a transparent prototype into independently reviewable public infrastructure.

Planned work covers offline product maturity, reference IoT ingestion, accessibility and localization, safeguarding and pilot preparation, data-quality evaluation, independent-review readiness, documentation, and an implementation toolkit.

Validated architectureOffline productReference IoT adaptersSafeguarding packageSupervised-pilot toolkitEvaluation report

No UNICEF endorsement, selection, partnership, or funding is claimed.

07 — Why open

Public code makes the promise inspectable.

The repository includes the working API and PWA, risk configuration, schema, deterministic synthetic generator, tests, licenses, model and dataset cards, privacy threat model, safeguarding protocol, governance, and release history.

PUBLIC REPOSITORYv0.1.0-alpha
farmassist-child-climate-open
  • MIT-licensed software
  • CC BY 4.0 documentation and synthetic data
  • Reproducible installation and testing
  • Continuous integration and secret scanning
  • Transparent limitations and change control
Inspect the public repository Run the synthetic demo
Open-source evidence liveThe complete v0.1.0-alpha prototype is public and independently inspectable.

Review the implementation, synthetic demonstration data, automated tests, governance documents, safeguarding controls, model limitations, and release history on GitHub.

JOITA BIOSEED AI PRIVATE LIMITED · INDIA

Climate resilience should work at the edge—and stay accountable in the open.

Project lead: Dr. Meenakshi Sharma · joitabioseedai@gmail.com