Controlled environments,engineered for the tropics.

Greenhouses and plant factories designed for heat, humidity, and year-round pest pressure. Systems shaped by the climate we actually grow in.

Why we work on this

Grow more, on less land,with far less water.

Indonesia is losing farmland to cities while demand for clean, consistent produce keeps climbing. Controlled-environment agriculture answers both: it lifts yield per square metre, recirculates its water, and produces to a schedule instead of to the weather.

Doing that here means solving a tropical problem: shedding heat and moisture, holding a stable vapour pressure deficit, and keeping pests out all year. Our work at the Smart Agriculture Research Center starts from those conditions, and from hardware an Indonesian grower can afford, maintain, and repair.

Researchers working inside a smartagri greenhouse

The tropical difference

What the equatorchanges.

Four conditions define tropical growing, and between them they drive nearly every design decision we make.

Humidity, not cold, is the constraint

The task here is getting heat and moisture out rather than holding them in, so vapour pressure deficit, not temperature alone, becomes the control target.

Light is abundant, heat comes with it

Sunlight is rarely the limit near the equator. Managing the heat that arrives alongside it is what separates a working structure from an oven.

Pest pressure never pauses

Without a cold season to break life cycles, exclusion and hygiene have to carry the load year-round rather than seasonally.

Rain is a resource, not a nuisance

High rainfall makes roof catchment the cleanest and cheapest irrigation source available, provided storage and first-flush handling are designed in.

Capabilities

What we bringto the table.

Instrumentation, control, and crop science developed in our own greenhouses and plant factory, and taught to the people who will run yours.

  • Climate control systems
  • Hyperspectral plant sensing
  • IoT sensor networks
  • Hydroponics and fertigation
  • Plant factory systems
  • Automation and dashboards
  • Water recirculation
  • Pollination and IPM

How we work together

From a questionto a running facility.

A typical collaboration, from the first look at the crop and the site to the first seasons of running it together.

Step 01

Scope and site

We look at the crop, the market, the site, and the water and power available, then say plainly whether a controlled environment is the right answer.

Step 02

Design and trial

A design brief and, where it matters, an instrumented trial block so the numbers behind the plan come from your site rather than a catalogue.

Step 03

Build and instrument

Structure, climate, and irrigation implemented together, with sensing and control installed from the start rather than retrofitted.

Step 04

Operate and improve

Protocols, training, and joint operation through the first cycles, then regular reviews where the logged data sets the next season's targets.

Knowledge

From thefield notes.

Let's grow the futureof farming together.

Partner with our researchers, pilot smartagri on your fields, or join the team building data-driven agriculture.