Automated irrigation
Timers, programmed valves and moisture sensors decide when and how much to irrigate, without a manual trip to the field.
Agricultural automation: from automated irrigation to autonomous agricultural robotics
Automation in the field
TRL 5 prototype · under validation
Agricultural automation isn't a single technology — it's a spectrum that runs from an irrigation timer to a robot navigating on its own between crop rows. Caatinga Rover sits on that spectrum as a robotic automation hypothesis: an electric base that takes remote commands today and is under validation to repeat routes under supervision tomorrow.
The automation spectrum
Types of agricultural automation
Each category solves a different problem and can exist on its own or combined with the others.
GPS/RTK-guided machinery
Tractors and implements follow routes with centimeter precision, reducing overlap and rework — the operator still drives, but the path is assisted.
Sensors and monitoring (IoT)
Soil, weather and crop sensors send data that supports decisions — without, on their own, performing any physical task in the field.
Autonomous agricultural robotics
A mobile base performs the physical task — moving, cutting, applying — with growing autonomy and human supervision. This is where Caatinga Rover sits.
Technical criterion
Automation isn't all or nothing
Between "doing it by hand" and a "fully autonomous system" there are intermediate stages — and skipping stages without evidence is the main expectation mistake in agricultural robotics. A robot can automate movement and still depend on the operator to decide when to stop.
That's why Caatinga Rover communicates its real stage (TRL 5 prototype) instead of selling the idea of full autonomy before it's validated.
Caatinga Rover
Three automation stages in the prototype
Human supervision remains central at any of these stages.
T1 — Remote control
The operator directly commands movement and implement activation.
T2 — Assisted route
The operator teaches the route once; the system can repeat it under supervision, with a stop available at any time.
T3 — Point-to-point navigation
GPS RTK/IMU, geofencing and obstacle detection to reduce dependence on a previously taught route — depends on development and safety trials.
Learn about Caatinga Rover's features · See the validation method
From base to implement
Automation depends on the task, not just the base
An automated base without the right implement doesn't perform the task on its own — mobility and tool need to evolve together.
1.25 m mower
Automating movement only makes sense when combined with an implement that performs the task with verifiable quality and safety.
Learn about the between-row mower →Trellis and arbor sprayer
Automated application demands even more positioning precision than simple movement — flow rate, drift and distance matter as much as the route.
Learn about the sprayer →Modular implements
See every module under validation and development on the technical implements page.
Visit the implements page →Why we start simple
Responsible automation starts with remote control
It's tempting to announce full autonomy before having field evidence. Caatinga Robotics chose the opposite path: validate remote control and assisted routing first, log real failures and conditions, and only then move toward point-to-point navigation with less operator dependence.
That discipline is what separates a promise of automation from automation actually validated — and it's the criterion guiding every new Caatinga Rover module.
Task-driven demonstration
Assess my operation
Assess the automation level for my operation
Tell us about the repetitive task and area conditions for an initial demonstration or test-area assessment.