Mobile robots for intralogistics and production

Novomatix integrates AMR and AGV solutions for internal transport, feeding, and transfer flows, and for automating the repetitive movements in the warehouse and in production.

Automotive 3PL Electronics Manufacturing FMCG Pharma Warehousing & logistics
Mobile robot portfolio

The right platform for each flow

No single type of mobile robot suits every application. The load, how it is picked up and set down, the route, the space available, and how it ties into the process decide the architecture — AMR vs AGV, compared in detail.

The Novomatix portfolio runs from repetitive pallet transport and line feeding to fork transfer, cart handling, and applications that call for lifting or stacking. We select the robot from the real flow, not from the brand.

Flows and processes

Flows and processes we automate

Internal movements that are repetitive, time-consuming, or dependent on operator availability are natural candidates for automation. Once you know what moves, from where and to where, the transfer type and the process point to the right robot architecture.

How the robot picks up and sets down the load

The load interface and the transfer point decide the robot architecture.

  1. Floor
  2. Conveyor
  3. Rack
  4. Pallet station
  5. Cart
  6. Machine / cell
Platform robot Carries the load on its own platform. To pick up and set down it needs a compatible transfer point.
  1. Floor — no direct transfer
  2. Conveyor — requires a transfer station
  3. Rack — no direct transfer
  4. Pallet station — direct pickup and delivery
  5. Cart — direct pickup at compatible carts, depending on the model
  6. Machine / cell — requires a pallet station
Fork-type robot Can pick up and set down the load directly at several kinds of transfer point. Access depends on aisle width, the geometry of the point, and the space available for manoeuvring.
  1. Floor — direct pickup and delivery
  2. Conveyor — direct pickup and delivery
  3. Rack — direct pickup and delivery
  4. Pallet station — direct pickup and delivery
  5. Cart — direct pickup and delivery
  6. Machine / cell — direct pickup and delivery

Direct pickup / delivery Direct, depending on the model Requires a station / interface No direct transfer

Both architectures are checked against the space available. Platform robots are generally more compact and need less manoeuvring room, but they depend on compatible transfer points. Fork-type robots can serve several kinds of interface directly, yet access depends on aisle width and on the space available for approach and manoeuvring.

Some platform robot models can directly pick up carts designed for under-run robot access. Rack pickup and placement, including at height, depend on the robot model and lift configuration.

At a conveyor the transfer runs through a station: the process conveyor is designed to the interface height of the station, which is configured for the robot.

Where autonomous transport comes in

The typical zones of the internal flow where autonomous missions take over the movement.

  1. Inbound 01

    Receiving and putaway

    From the goods-in area to buffer, storage, or intermediate points.

  2. 02

    Replenishment

    Feeding the picking or consumption areas so the flow does not stall.

  3. Production 03

    Line feeding

    Components and materials to the line, at a steady pace.

  4. 04

    Transfer between stages

    Between operations, work cells, and successive stations.

  5. Outbound 05

    End-of-line removal

    From the end of the line to buffer, staging, or palletizing.

  6. 06

    Dispatch preparation

    To consolidation and the points where deliveries are prepared.

The zones are a way of reading the operation, not a mandatory six-step route. Few flows contain all of them, and most projects start from a single one.

AMR and AGV mobile robots in an operational context in the warehouse and in production
OPERATIONAL CONTEXT

Mobile automation has to be designed around the real flow

A mobile robot operates in an environment where its routes cross pedestrian traffic and other equipment, where pickup and drop-off points carry different physical constraints, and where the working rhythm varies by shift, season, or order.

  • the pickup and drop-off points define the right transfer type
  • the layout and the mixed-traffic areas shape the choice of solution
  • correct integration reduces operational variability and improvisation
  • scaling is easier when the process is thought through from the start
SOLUTION SELECTION

How to choose the right AMR/AGV solution

Not every mobile robot suits every flow. The right selection starts from the process, not from the product. We therefore always assess the application by its pickup method, its load, the manoeuvring space, and the integration requirements.

Load pickup and drop-off

The first criterion is how the robot takes and releases the load: from the floor, from a station, from a conveyor, from a rack, or from a standardized intermediate point.

Load geometry, weight, and format

The dimensions of the load, its height, its stability, and its mass directly influence the type of robot, the ground clearance, the fork or platform type, and the dynamics of the movement.

Layout, aisles, and traffic

Aisle width, intersections, pedestrian areas, high-speed doors, lifts, and pinch points change the choice of solution and the operating rules substantially.

Integration, traffic, and safety

A good project is not only the right robot, but also the way it works with operators, with the surrounding equipment, and with the software systems already in place.

THE INTEGRATOR'S ROLE

What Novomatix delivers beyond the robot

The value of an AMR/AGV project lies not only in the equipment, but in how it is integrated into the operation. Novomatix delivers complete projects, from selecting the solution through to commissioning and later scaling.

Assessment and solution selection

We assess what is transported, how often, over what distance, and under what layout and traffic conditions, in order to identify the platform and configuration that cover the application without oversizing it.

Flow integration and operating logic

We configure how the robots connect to stations, conveyors, buffers, and existing processes. Where the project calls for it, we define the rules for traffic, dispatch, prioritization, and coordination between several vehicles.

Safety, commissioning, and scaling

We approach the project with a focus on safe operation and a controlled introduction into production or the warehouse. We build projects so they can evolve in stages, from an initial application to further flows or areas.

OPERATIONAL BENEFITS

What you gain by automating internal transport

Automating with mobile robots is not simply replacing a manual movement. It means better control over the flow, less operational variability, and a better basis for scaling.

A more predictable flow

Repetitive transport becomes easier to plan, to monitor, and to fit into the operational rhythm of the warehouse or the production floor.

Less dependence on manual transport

Operators can focus more on higher-value work, and repetitive internal movements are standardized more consistently.

Scaling in stages

Many projects can start with one clear use case and extend later, according to results and priorities.

Cleaner integration into the operation

When the project is designed properly, mobile robots become part of the operational system rather than an isolated element bolted onto the process.

SUPPORT, SERVICE, AND CONTINUITY

AMR/AGV also means support after GoLive

Performance in operation does not depend on the robot alone, but on how interventions, planned maintenance, and safety checks are handled. Our services page sets out how we approach operational support for AMR/AGV projects.

  • Structured diagnostics and interventions
  • Planned maintenance and safety checks
  • Support for extension and optimization after GoLive
See services
FREQUENTLY ASKED QUESTIONS

Quick answers about AMR/AGV mobile robots

Do you have an internal flow you want to automate?

Tell us which internal transport you want to improve, what kind of load you handle, and the context you operate in. We will propose the right direction for your process.

Talk to a specialist