AMR Intralogistics Automation for Scalable Material Flow
Create a stable, scalable material flow between warehouses, custom automated assembly lines and process areas. Nextomation designs and integrates intralogistics automation based on autonomous mobile robots, conveyors, buffers and control systems — from material flow analysis and simulation to commissioning, ramp-up and long-term support.
AMR route & mission simulation
Reliable production starts with reliable material flow
Even a well-designed production line cannot maintain target output if components arrive late, finished products are not collected on time or buffers are managed reactively. Intralogistics connects warehouse operations, production planning and line performance. When that flow is unstable, operators compensate manually, forklifts multiply and production becomes dependent on urgent interventions.
We engineer intralogistics as part of the production system. The objective is not simply to introduce AMR robots. It is to ensure that the correct material reaches the correct process point at the correct time — safely, predictably and with the data needed to control every mission.
AMR applications
What we automate in industrial intralogistics
AMR systems connect warehouses, production lines and process stations, creating a scalable material flow adapted to changing production needs.
Material supply
Warehouse-to-line supply
Automated transport of components from storage areas directly to production and assembly lines.
Line logistics
Line feeding and buffer replenishment
Continuous component delivery based on production demand, buffer status and process priorities.
Process transport
Work-in-progress transport
Coordinated movement of parts and semi-finished products between consecutive production processes.
Output logistics
Finished goods collection
Automatic collection and transfer of completed products to packing, storage or dispatch areas.
Return flow
Empty container and packaging returns
Organised return of empty containers, pallets and reusable packaging to designated collection points.
Workstation servicing
Machine and workstation servicing
Automated delivery and collection of materials, tools and components at machines and manual workstations.
Controlled transport
Restricted and controlled zones
Controlled transport through cleanrooms, safety zones and areas with limited personnel access.
AMR solutions designed around your material flow
Autonomous mobile robots navigate without fixed tracks, magnetic tape or inductive guide wires. They use a digital map and onboard sensors to localise themselves, stop safely and select an available route. This makes AMRs particularly suitable for high-mix production, changing layouts, multiple pick-up and drop-off points and phased automation rollouts.
The mobile platform is only one part of the system. We select and engineer the complete application, including payload, centre of gravity, route profile, docking method, charging strategy, safety functions and the top module used to handle the load.
One mobile platform. Multiple load-handling concepts.
AMR top modules and load handling
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Lifting modules for dedicated racks and platforms
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Roller conveyors for pallets, containers and automated handover
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Towing and hook systems for transport carts
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KLT, bin, rack and pallet handling modules
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Custom docking and centring systems
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Mobile manipulators combining an AMR with a robotic arm and vision system
A complete AMR system, not a standalone vehicle
Reliable intralogistics requires coordinated control of AMR fleets, process points and production data. We integrate robots with MES, WMS and ERP systems, production lines, warehouse equipment, doors, lifts, conveyors, buffers and identification systems.
Fleet management generates, queues and prioritises missions, controls traffic and charging, prevents route conflicts, confirms load transfers and reports completion. A production-order change can automatically trigger material removal, new component replenishment and buffer preparation.
AMR fleet and system integration
Mission orchestration
- Mission generation, queuing and priority rules
Traffic and charging
- Fleet traffic, waiting zones and route-conflict management
- Charging strategy and charger utilisation
Load and equipment
- Load identification using barcode, QR, RFID or production data
- Signal exchange with PLCs, machines and third-party equipment
Production data
- MES, WMS and ERP integration
- Data buffering and defined behaviour after communication loss
Open fleet and security
- Multi-vendor fleet concepts and VDA 5050 interface assessment
- User roles, access management and cybersecurity requirements
Simulation before you commit CAPEX
AMR fleet size should not be based on a simple average of distance and travel time. Real performance depends on transport peaks, mission priorities, intersections, charging, docking, blocked routes and the interaction between multiple vehicles.
Our material flow simulation verifies whether the proposed number of robots, chargers, buffers and docking points can support the required production plan. It identifies bottlenecks before physical implementation and documents the assumptions, utilisation results, risks and recommended countermeasures.
What the simulation validates
Fleet and individual robot utilisation
We verify utilisation across the complete fleet and each vehicle, revealing capacity reserves, imbalanced workloads and robots that become critical to the required output.
Mission queue length and priority behaviour
The model tests how missions accumulate, how priority rules affect waiting time and whether urgent line-feeding tasks are completed without destabilising the remaining flow.
Peak-hour throughput and line-feeding reliability
We test the concept against transport peaks rather than averages to confirm that production points remain supplied during the most demanding operating periods.
Charger and buffer capacity
Charging strategy, charger utilisation and buffer occupancy are assessed together to identify undersized resources and avoid hidden constraints during ramp-up.
Traffic conflicts, waiting zones and passing points
Intersections, narrow sections and shared routes are analysed to locate congestion, define waiting zones and determine where passing points improve mission performance.
Impact of a blocked route or robot failure
Failure and route-unavailability scenarios show whether the system can maintain critical missions and where alternative paths or capacity reserves are required.
Response to changes in the production schedule
We validate how revised production priorities influence missions, replenishment, buffer demand and fleet capacity before those changes reach the shop floor.
AMR vs AGV: which solution fits the process?
Traditional automated guided vehicles usually follow predefined routes based on magnetic tape, markers, guide wires or fixed navigation points. Autonomous mobile robots use a digital map and dynamic path planning, which gives them greater flexibility when layouts, routes and priorities change.
AMR is not automatically the best answer for every transport task. We compare the alternatives against throughput, flexibility, space, risk and lifecycle cost. We select the transport technology around the material flow—not the other way around. The right concept may combine AMRs, AGVs and fixed conveyors within one coordinated intralogistics system.
Digital map and dynamic path planning without fixed tracks.
Predefined routes using tape, markers, guide wires or fixed navigation points.
Routes and process points can be adapted in the digital environment.
Route changes may require physical navigation infrastructure to be modified.
Can select an available alternative route when process and safety conditions allow.
Typically stops and waits until its predefined route becomes available.
Fleet management coordinates missions, priorities, traffic and charging.
Well suited to repeatable transport controlled by fixed process logic.
Supports phased rollouts and changing pick-up or drop-off points.
Effective when routes, volumes and process points remain stable.
High-mix production, variable missions and layouts that evolve over time.
Stable, repetitive transport with clearly defined routes and priorities.
Where AMR automation creates the most value
AMR automation delivers the strongest business case where repetitive material transport competes with value-added work and changing demand makes reliable line supply difficult to maintain manually. AMR robots combine repeatable transport demand with enough process variability to benefit from dynamic routing, mission control and phased fleet expansion.
AMR opportunity map
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01
Repetitive internal transport consumes significant operator time.
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02
Multiple production points require dynamic replenishment.
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03
Product mix, order sequence or plant layout changes frequently.
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Material shortages cause micro-stoppages or line downtime.
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Transport distances are significant and demand varies during the shift.
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Limited operator availability constrains production scaling.
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Manual forklift traffic creates congestion or safety concerns.
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08
The organisation needs a scalable route from one pilot to a larger fleet.
The strongest AMR business cases combine repeatable transport demand, measurable production losses and enough variability to benefit from dynamic routing and scalable fleet management.
Define the right intralogistics concept with an experienced robotics engineer
Discuss your current material flow, transport bottlenecks or initial AMR concept with Nextomation. We will help identify the processes with the highest automation potential, highlight key technical and organisational risks and define a practical next step.
- Material flow review
- Pilot selection
- Risks and next steps
Share your layout, transport data or initial challenge. The consultation is free and non-binding.
Call an AMR when the process needs it
Create transport missions and monitor the AMR fleet through a simple operator interface. The application on the right is fully interactive — select a route, define the load and priority, call an AMR and see the workflow in action.
AMR Dispatch
New PickupDropoff mission
Select the pickup and delivery points.
Business outcomes of intralogistics automation
Intralogistics automation turns internal material movements into a controlled production process—improving stability, safety, scalability and access to reliable operational data. Move from reactive internal transport to a controlled, measurable and scalable material flow that supports production performance.
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More stable line feeding
Reduce production disruption caused by late delivery, missing materials and unmanaged transport peaks.
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Predictable material flow
Standardise missions, priorities and response rules instead of relying on event-driven firefighting.
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Safer internal transport
Reduce manually driven movements and define consistent behaviour in shared production areas.
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Scalable automation
Start with a selected process and extend the architecture as volumes, routes or production areas change.
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Better traceability
Record missions, material movements, confirmations and exceptions across the internal logistics process.
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Lower lifecycle cost of change
Adapt digital maps, routes and mission logic more easily than fixed transport infrastructure when production evolves.
Safety engineered for the complete application
An AMR operates alongside people, forklifts, machines and other vehicles. Safety therefore has to be assessed for the complete system—the robot, top module, load, speed, route, docking process and interaction with the surrounding environment.
We define behaviour at crossings, doors, airlocks, restricted-visibility areas, shared forklift routes and docking zones. Depending on the risk assessment, the concept may include dynamic protective fields, safety laser scanners, speed zones, audible and visual warnings, additional sensors, one-way routes, markings or physical separation. We also define responses to fire alarms, evacuation, power failure, network loss and blocked routes.
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Assess
Robot, top module, load, route, speed and complete operating environment.
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Detect
Laser scanners, protective fields, additional sensors and load monitoring.
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Control
Speed zones, warnings, one-way routes, markings and physical separation.
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Respond
Defined behaviour for alarms, evacuation, power loss, network loss and blocked routes.
Integration experience across demanding industries
Nextomation combines robotics, vision systems, simulation, control systems and production engineering to connect internal logistics with the wider manufacturing process. We develop intralogistics concepts for automotive, electronics and communication, consumer goods, defence and other industrial environments where production stability, traceability and flexibility are critical.
Our role can cover the full lifecycle: facility audit, process concept, simulation, technology selection, custom mechanical engineering, system integration, commissioning, training, ramp-up and after-sales support.
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Automotive
Integrated material flow for safety-critical, high-volume production of ADAS, e-drive and mechatronic vehicle systems.
Explore automotive automation -
Electronics & Communication
Precise, traceable handling for electronic modules, displays, connectors and communication components.
Explore electronics automation -
Consumer Goods
Flexible intralogistics for batteries, eBike components, smart home devices and multi-variant production.
Explore consumer goods automation -
Defence
Scalable and traceable production systems for defence components, electronics, ammunition and mission-critical manufacturing processes.
Defence manufacturing
Frequently asked questions about AMR intralogistics
Practical answers about intralogistics automation, autonomous mobile robots, fleet sizing, system integration, safety and return on investment.
What is intralogistics automation?
Intralogistics automation uses connected transport, handling, storage and control technologies to manage the movement of materials inside a plant or warehouse. It may include AMR or AGV vehicles, conveyors, buffers, identification systems, fleet software and integration with MES, WMS or ERP.
What is an AMR robot?
An autonomous mobile robot is a mobile platform that uses a digital map, sensors and navigation software to move materials without fixed tracks. It can stop, reroute or wait when the environment changes, subject to the designed safety and traffic rules.
What is the difference between an AMR and an AGV?
An AGV traditionally follows a predefined path based on physical or fixed navigation infrastructure. An AMR generally localises itself on a digital map and can plan an alternative available route. The best option depends on throughput, layout stability, traffic and lifecycle requirements.
How many AMR robots does a factory need?
Fleet size depends on mission frequency, distance, payload, speed, docking time, traffic conflicts, charging and production peaks. Simulation is the most reliable way to verify the number of vehicles and chargers before investment.
Can AMR robots integrate with MES, WMS and ERP?
Yes. Integration can generate missions from production or warehouse demand, assign priorities, confirm material transfers and report completion. The exact architecture depends on the available interfaces, data quality and required fallback behaviour.
Can robots from different manufacturers work in one fleet?
A higher-level fleet system may coordinate vehicles from different manufacturers. VDA 5050 supports a common communication interface, but compatibility, supported functions and complete system behaviour still require engineering and testing.
Are AMR robots safe around people?
AMRs can include certified safety functions such as laser scanners, protective fields and emergency stops. Safe operation still depends on the complete application, including load, top module, speed, stopping distance, routes and interaction with people and other vehicles.
When is a conveyor better than an AMR?
A conveyor may be more economical for continuous, high-throughput transport between fixed points. AMRs are often more suitable for variable routes, changing layouts and multiple process points. Hybrid systems can combine both.
How should an AMR project begin?
Begin with a material flow audit and a clearly defined operational problem. Then select a commercially relevant pilot, validate the concept with simulation and define integration, safety, service and ramp-up requirements before purchasing the fleet.
How is AMR return on investment calculated?
A robust business case includes current transport labour, line stoppages, shortages, safety risk, buffer cost, integration, licences, energy, service and the value of future flexibility. ROI should not be based only on headcount reduction.
Plan your intralogistics concept before selecting the fleet
If material shortages, manual transport or changing production priorities are limiting performance, start with the flow. Nextomation can analyse your current process, identify the right pilot and verify the concept before you commit to a full AMR rollout.
Share your layout, transport data or initial challenge. Our engineering team will help define the next step.
