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Smart intralogistics is the connected management of materials inside a warehouse or production facility. It covers the movement of components, parts, kits and finished products between storage, picking, assembly, packaging and dispatch areas.

A traditional process often depends on manual transport and fixed instructions. An operator collects a part, moves it to a station and confirms the next step. Each additional movement increases the risk of delay or incorrect picking.

In a smart system, the movement of a product is connected with digital information. Controllers manage local equipment, transport systems move materials between stations and supervisory software shows the current status of the operation.

A typical system may combine:

• programmable logic controllers;
  
• automated transfer systems;
  
• industrial robots;
  
• sensors and operator terminals;
  
• MES and ERP connections;
  
• visualisation platforms;
  
• safety systems.

The aim is not simply to remove people from the process. Operators can continue to perform picking, kitting or assembly, while automated equipment handles repetitive movement and provides better process information.

The Linear Transfer System with Smart Carriage technology illustrates this approach. The carriage can store route information, detect products, communicate with stations and exchange data with MES systems and databases.

Modern facilities must often handle different products within the same production environment. Each product may require a different route or sequence of operations.
A fixed conveyor can become restrictive when requirements change. Smart intralogistics allows the flow to be connected with the product and its processing needs.
The Smart Carriage can retain information about its course and the product it carries. This makes it possible to direct different products to different stations instead of forcing them through one identical sequence.
The Linear Transfer System can also connect horizontal and vertical tracks. Parallel lines may handle different operations and merge later when products reach the appropriate stage.
This flexibility is particularly useful in high-mix, low-volume production. It supports smaller batches and allows manufacturers to adapt the process without completely rebuilding the transport system.
Smart intralogistics also connects warehouse operations with the wider organisation. Integration with ERP and MES systems links physical material movement with orders, resources and production output.

For an example of connected automation in manufacturing, see this smart automotive factory.

Automated material flow uses transfer systems, conveyors, sensors, robots and control software to move products through a facility.
Its value depends on more than speed. The system must also provide accurate positioning, repeatable movement, safe operation and reliable communication between equipment.
The Smart Carriage can travel at speeds of up to 4 m/s with loads of up to 5 kg. At lower acceleration and speed, it can handle payloads of up to 12 kg.
Its positioning and repeat accuracy can reach plus or minus 0.1 mm. This is important when a product must be presented to a robot, gripper or processing station in a precise position.
The minimum distance between carriages can be less than 1 mm. This allows multiple carriages to operate on one track and supports a dense flow of products.
The carriage also includes 24VDC onboard power. Sensors, grippers and actuators can therefore be powered while the carriage is moving.
This makes the transport unit an active part of the production process. It can carry a product, support handling functions and communicate with the next station.
The system can also work with Mitsubishi Electric MELFA industrial robots. A carriage brings the product to the robot, positions it accurately and waits while the robot performs its task.
Once the operation is finished, the carriage moves the product to another destination. Transport and processing therefore become part of one coordinated sequence.

The wider range of material handling solutions can be used in automated warehousing, baggage handling, postal automation and manufacturing.

Digital warehouse transformation connects physical warehouse activities with control, monitoring and information systems. It does not always require replacing every machine at once.
A company can begin with one process or one group of machines. After testing the communication and control architecture, the solution can be expanded.

• PLCs and motion control
  
  MELSEC programmable logic controllers can manage local machine functions, including movement, sensors, positioning and communication. Local control allows time-sensitive decisions to be executed close to the equipment. At the same time, status information can be shared with supervisory and enterprise systems.
  Motion control is essential for flexible transport. A Smart Carriage must accelerate, stop at the right location and coordinate its position with a robot or station.
  Servo motion technology supports this level of control. It helps maintain repeatable positioning when the product must be processed during or immediately after transport.
  
  
• Guided operator systems
  
  Not every activity needs to be fully robotic. Operators may still perform picking, replenishment, kitting or assembly. Guided Operator Solutions use Poka Yoke principles to reduce mistakes at the source. A light indicates the correct picking location, a sensor confirms the action and a door-operated terminal can prevent access to the wrong position.
  
  These functions are useful in:

• picking;
  
• parts replenishment;
  
• kitting;
  
• cell production;
  
• assembly support.
  
  During kitting, an operator may need to collect several components from different bins. The system helps indicate the right location and supports confirmation that the correct part has been selected.
  
  
• Visualisation and data storage
  
  Operators need to know where equipment is operating, whether a product is waiting and which station requires attention. ICONICS GENESIS 11 can provide visualisation for a connected automation environment. It presents information from controllers, machines and devices through central dashboards.
  Hyper Historian can store historical process data. This helps teams investigate interruptions, review equipment behaviour and identify recurring problems.
  
  
• Networks and integration
  
  CC-Link and CC-Link IE support communication between automation equipment. They can connect controllers, robots, stations and other devices. 

Connections with MES and ERP systems link material movement with production requirements, resources and output. This creates a stronger foundation for data-driven warehouse management.

IoT in intralogistics begins with connected devices. Sensors, controllers, terminals, robots and transport systems provide information about the current state of the operation.
This information becomes useful when it supports a specific action. A sensor may confirm that a product has reached a station. The controller can then allow the next operation and send a command to the robot.
The Smart Carriage has onboard intelligence that allows it to store information about its route and product. It can determine destinations, collect product information and communicate with stations and databases.
This supports autonomous material handling in environments where products do not all follow the same sequence.
Data-driven warehouse management can also help operators understand recurring delays or interruptions. GENESIS 11 shows current conditions, while Hyper Historian provides historical information for further analysis.
AI in warehouse operations is often associated with route optimisation and automated decisions. However, advanced analysis requires a reliable data foundation.
Product identities, process states, routes and destinations must be clearly defined. Without consistent information from sensors and controllers, advanced analytics may not produce useful operational results.

For this reason, digitalisation should begin with reliable communication and clear process data. More advanced analysis can then be added where it supports a defined business or operational goal.

Smart intralogistics connects transport, processing and information. This can improve both the speed of material movement and the consistency of the complete process.

The main benefits include:

• shorter movement times between stations;
  
• support for smaller production batches;
  
• better use of horizontal and vertical space;
  
• improved positioning accuracy;
  
• fewer manual picking errors;
  
• clearer equipment status;
  
• safer human-machine cooperation.
  

Smart Carriages can move products at high speed while maintaining precise positioning. Several carriages can operate on one track, supporting a continuous flow of products.
The system can also support different processing routes. This is important when products require different operations or when production requirements change during the day.
Guided Operator Solutions improve manual activities. Instead of relying only on memory or paper instructions, operators receive direct guidance at the picking location.
Robots add repeatability to operations such as sorting, assembly, packaging and handling. When a robot works together with an automated transfer system, the product can move between operations without unnecessary manual transport.
Safety is another important part of the system. Safety Zone Scanners can detect an operator and reduce carriage speed. The Smart Carriage also supports STO and SLS functions.

These features can help create a fenceless working environment. However, safe operation still depends on correct layout planning, risk assessment, procedures and employee training.

Digital warehouse transformation involves more than installing robots or conveyors. The company must understand the existing material flow and define the problem that automation is meant to solve.
Legacy equipment can make integration difficult. Machines from different generations may offer different communication functions or use different control architectures.
A phased implementation can reduce this risk. The company can begin with one transport section, picking area or production cell before expanding the system.
It is also important to identify the actual bottleneck. If the main issue is kitting accuracy, faster transport will not solve the problem. If one production station is slower than the rest of the line, additional carriages may simply create a queue.
System complexity must also be controlled. Controllers, robots, sensors, safety equipment and supervisory software need clear interfaces and documentation.
The balance between flexibility and standardisation is equally important. The system should support future changes without becoming unnecessarily difficult to maintain.
Operators and maintenance teams need training in HMIs, alarms, visualisation and restart procedures. They should understand not only how the system operates normally, but also what to do when a sensor, station or safety function interrupts the flow.

Industry 4.0 intralogistics connects machines, products, transport systems and business information.
The transition usually takes place gradually. At first, an individual machine or station performs an automated task. Later, equipment begins to exchange information and operate as part of a connected process.
A more advanced system connects transport with MES and ERP platforms. The movement of a product can then be related to its processing steps, destination and production requirements.
Smart Carriages can store product information and communicate with stations and databases. GENESIS 11 can provide a visual overview, while Hyper Historian preserves historical process data.
This creates a foundation for intelligent warehouse operations. Products can follow different routes, parallel lines can support different processes and transport can respond to the current requirements of the facility.
People remain an important part of this model. Automated equipment performs repeatable movement, while operators and engineers supervise the system, respond to exceptions and improve the process.

The future of smart intralogistics will therefore depend on the connection between flexible transport, robotics, reliable control and useful information. The strongest system will not necessarily contain the most technologies. It will be the one in which every component solves a specific operational problem.