SUSTAINABLE OASIS RESEARCH

Field Tests

A system that works on a bench still has to survive weather, changing loads, imperfect conditions and everyday human use.

Sustainable Oasis field tests move promising ideas from controlled experiments into real environments where performance can be observed over time.

BENCH TEST FIELD DEPLOYMENT OBSERVE MEASURE IMPROVE REPLICATE

FIELD TEST DISCIPLINE

A field test asks a different question.

Bench experiments isolate variables. Field tests examine how the system behaves when those variables begin interacting with the real world.

LAB

Controlled Test

Reduce variables so one physical relationship can be studied clearly.

FIELD

Real Conditions

Introduce weather, changing loads, imperfect installations and real operating cycles.

TIME

Long-Term Behaviour

Observe performance across days, seasons and repeated use instead of one short test.

USER

Practical Use

Determine whether the system remains understandable, maintainable and useful outside the laboratory.

FIELD TEST REGISTRY

Real places become research environments.

Each Sustainable Oasis site can generate a different type of evidence while using the same measurement and documentation principles.

FT-001 · MONTREAL

Garage Lab

Use a controlled workshop environment to prototype energy, water, automation and small productive systems before larger deployment.

DEVELOPMENT SITE Explore Garage Lab →
FT-002 · MODULAR

Container Workshop

Test compact infrastructure, modular equipment placement, monitoring and integrated system design inside a standardized physical platform.

DEVELOPMENT SITE Explore Container Workshop →
FT-003 · VIETNAM

Vietnam Oasis

Study real terrain, gravity-fed water systems, storage, growing infrastructure and distributed renewable systems under site conditions.

FIELD SITE Explore Vietnam Oasis →
FT-004 · MOBILE

Mobile Oasis

Future field platform for testing how proven systems perform when packaged into transportable infrastructure.

FUTURE Explore Mobile Oasis →
FT-005 · INTEGRATION

Complete Oasis Site

Future full-system field test combining energy, water, food, shelter and automation in one productive environment.

FUTURE Explore Complete Oasis →

FT-001 — GARAGE LAB

Prototype before scaling.

The Garage Lab provides a place to test components at a manageable scale before committing them to larger infrastructure.

It can also become the integration point where sensors, SO-EMS, water systems and digital monitoring begin working together.

TEST ENVIRONMENT Garage Lab
DEVELOPMENT
ENERGY TEST generation & storage
WATER TEST flow & recovery
CONTROL TEST sensors & automation
DATA LOG Control Room

FT-002 — CONTAINER WORKSHOP

Test integration inside a repeatable platform.

Containers provide standardized dimensions that make it easier to document equipment placement, wiring, storage, water routing and modular upgrades.

The objective is not to assume that every Oasis should use containers. The objective is to understand what works inside a known physical platform.

Container Workshop Project
SPACE

Layout

Test compact placement of equipment while preserving safe service access.

MOD

Modular Systems

Add or replace system modules without rebuilding the entire platform.

DATA

Repeatability

Document dimensions and layouts so later versions can be compared.

FT-003 — VIETNAM OASIS

Let the terrain become part of the experiment.

A sloped site creates opportunities to test gravity, elevation, water storage, growing zones and distributed infrastructure under real terrain conditions.

WELL

Water Supply

Measure real source flow, pumping demand and storage behaviour.

HEAD

Gravity

Quantify elevation differences, pressure and useful gravity-fed water movement.

FOOD

Growing Zones

Compare food production across terrain, irrigation and seasonal conditions.

ENERGY

Distributed Power

Compare solar, wind or other practical sources with real site demand.

Vietnam Oasis Project

FIELD VARIABLES

Real environments introduce variables the lab cannot.

01

Weather

Temperature, sunlight, rainfall and wind change system performance.

02

Load

Real consumption varies throughout the day and across different users.

03

Terrain

Elevation, drainage, orientation and access affect physical infrastructure.

04

Maintenance

Dust, moisture, wear and serviceability influence long-term usefulness.

05

Human Behaviour

Real users interact with infrastructure differently than a laboratory procedure.

STANDARD FIELD TEST RECORD

Every field test should leave a usable record.

01

Site

Identify location type, climate and relevant physical conditions.

02

System

Identify the exact equipment and configuration being tested.

03

Baseline

Record expected performance before beginning the field test.

04

Measurements

Capture real operating data using known units and timestamps.

05

Conditions

Record weather, loads and other conditions that may influence the result.

06

Maintenance

Record failures, repairs, cleaning and adjustments.

07

Result

Compare real performance with the expected baseline.

08

Lesson

Document what should be preserved, changed or tested again.

ENERGY FIELD TESTS

Compare predicted generation with real production.

Solar production, battery autonomy and energy recovery calculations become useful benchmarks when physical systems are installed.

SO-EMS can eventually compare estimated values against measured watt-hours.

ENERGY FIELD DATA Current Control Room Snapshot
—
GENERATED — kWh
CONSUMED — kWh
STORED — kWh
RECOVERED — kWh

WATER FIELD TESTS

Compare calculated collection with real water.

Roof losses, rainfall variation, tank capacity and actual household or irrigation demand can all change the real result.

Field measurements help us replace theoretical collection assumptions with observed site performance.

WATER FIELD DATA Current Control Room Snapshot
—
COLLECTED — litres
STORED — litres
REUSED — litres

FOOD FIELD TESTS

A real harvest is stronger evidence than a projection.

Field tests should record harvest mass together with growing area, irrigation and relevant operating conditions.

Repeating those measurements over multiple cycles can reveal whether a growing method remains productive outside ideal conditions.

Food Production Calculator
FOOD FIELD DATA Current Control Room Snapshot
—
HARVEST — kg
AREA — m²
WATER USED — litres
FOOD / WATER — kg / 1000 L

AUTOMATION FIELD TESTS

Reliability matters more than complexity.

Sensor and control systems should continue behaving predictably when exposed to real wiring, moisture, connectivity failures and changing operating conditions.

SENSOR

Accuracy

Compare field readings with trusted reference measurements.

NETWORK

Connectivity

Observe what happens when communications are lost or interrupted.

CTRL

Fail-Safe Behaviour

Verify that pumps, relays and valves enter appropriate states when sensors or controllers fail.

HUMAN

Manual Override

Confirm that important systems remain understandable and controllable by people.

Automation System →

THE IMPORTANT COMPARISON

Estimated versus measured.

Sustainable Oasis planning tools create expected performance. Field testing tells us what actually happened.

The difference between those two values is not a failure. It is information that improves the next design.

FIELD TEST → RESULT

Observations become useful when they are documented.

DEPLOY OBSERVE LOG COMPARE CONCLUDE DOCUMENT
PREVIOUS

Experiments

Review the controlled experiments that create candidates for field deployment.

Explore Experiments →
NEXT

Results

Organize successful, failed and inconclusive outcomes without rewriting the original hypothesis.

Explore Results →
STANDARD

Methodology

Apply consistent measurement and documentation standards across laboratory and field work.

Research Methodology →

FIELD TEST → REALITY

A prototype tells us what can work. A field test tells us what survives reality.