Airport solutions
Integrated solutions for modern airports
In a world that’s more connected than ever, airports need smart, secure and efficient technologies especially when it comes to their Baggage Handling Systems (BHS), a critical backbone of airport operations.
Integrated
systems
Integrated systems
BHS for
Smart airports
BHS Engineering at the Core of IESYS Airport Solutions
IESYS specializes in Baggage Handling System (BHS) engineering and integration. From greenfield terminals to live retrofits, IESYS delivers the full project scope: system engineering, civil coordination, installation, FAT/SAT testing and commissioning of conveyor networks, screening lines, sortation systems and SCADA control platforms.
With completed BHS projects across Europe, the Balkans and the Middle East, IESYS brings field-proven expertise in ECAC Standard 3 compliance, phased delivery in active terminals and seamless integration with airport platforms including AODB, DCS and BRS.
Our solutions
Our approach combines advanced systems developed by IESYS with certified technologies—seamlessly integrated for high-performance, scalable airport infrastructure.
Passenger flow control solutions
State of the art airport equipment and automation solutions implemented to enhance passenger processing capacity:
- Self Check-In & Self Bag-Drop Units
- E-gates for Security & Boarding Control
- Access Control Systems for Restricted Areas
- Automated Border Control Gates
Our projects
From baggage handling to passenger security, our automation solutions help airports operate smarter, faster and safer — keeping people and processes moving seamlessly.
A Strategic Guide to selecting BHS integrators in 2026
After delivering BHS projects across Europe and the Middle East, we’ve identified the 5 Integration Criteria that separate high-performing systems from costly operational disasters.
We’ve compiled them into a free guide: Engineering Certainty — A Strategic Guide to Selecting Systems Integrators in 2026.
Benefits
Our integrated baggage handling solutions are engineered to help airports meet today’s operational challenges while scaling confidently for future growth.
Smart engineering
Our baggage handling systems combine robust hardware with advanced automation and software intelligence—engineered to evolve with airport’s growth and complexity.
Sustainability
Sustainability drives our work.
We create energy-efficient, resource-smart solutions that extend equipment life through automation and predictive maintenance. Our modular systems avoid overengineering and support ESG and airport decarbonization goals.
Long-term partner
Why choose IESYS
We’re more than a vendor — we’re a partner in performance. With international experience and a proven track record, we deliver tailored solutions, cross-platform integration and full-service support to meet each airport’s unique operational needs.
Our dedicated engineers and technicians are committed to innovation and excellence, helping airports worldwide operate with maximum efficiency, security and long-term success.
End-to-end
professional services
From concept to operational readiness and beyond, IESYS provides full-lifecycle engineering and support for airport systems. Our services include custom technical design, system architecture, software development, delivery and installation, rigorous testing and commissioning, technical training, ongoing maintenance and retrofitting or modernization of existing systems.
Contact
Do you have questions or would you like to learn more about IESYS solutions? Our team is ready to help. Complete the form below to discuss your airport’s needs, request a consultation, or explore partnership opportunities.
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FAQ
Got questions about how IESYS optimizes airport operations or how to get your next project off the ground? We’ve gathered clear, direct answers to our most common partner questions right here—no runaround included.
What is a baggage handling system and what determines its long-term performance?
A baggage handling system (BHS) is an integrated system that automatically transports, sorts and routes baggage throughout the airport, connecting check-in, security screening, aircraft loading and reclaim into a single operational process.
Its long-term performance depends on how reliably the different systems continue to operate together throughout the life of the system. While conveyors, scanners and control systems can all be upgraded or replaced, the overall system design and integration approach are much more difficult to change once the BHS is in operation.
When is baggage handling system modernization more cost-effective than full replacement?
Baggage handling system modernization is usually more cost-effective when the existing mechanical infrastructure can still support the airport’s operational needs. In many cases, conveyors and structural elements remain in service much longer than controls, software and security screening technologies.
Not every ageing baggage handling system needs replacing, and not every newer system is easy to modernize If the original system allows it, new technologies can often be integrated without replacing infrastructure that is still performing reliably.
A full replacement becomes the better option when the system itself has become the limitation—whether because of its layout, capacity or ability to support future expansion. The decision should be based on the condition and capabilities of the complete system, not simply on the age of individual equipment.
How should airports prepare for a baggage handling modernization project?
Preparing a baggage handling modernization project starts with defining what the airport expects the system to achieve once the project is complete. Those objectives provide the basis for every engineering decision that follows.
The next step is assessing the existing infrastructure, identifying operational constraints and understanding how the modernized system will integrate with airport operations and connected technologies. The implementation strategy is equally important, particularly if the airport needs to remain fully operational during the modernization.
Once these elements are understood technology selection becomes the outcome of the engineering process rather than its starting point.
How do you modernize a baggage handling system without disrupting airport operations?
Maintaining airport operations during a BHS modernization depends on engineering planning long before installation begins. The modernization should be phased to minimize operational impact, with temporary operating modes, commissioning windows and fallback procedures defined as part of the project design.
Successful projects also depend on understanding the existing system, identifying critical operational interfaces and validating each stage before the next one is implemented. A well-planned implementation strategy allows airports to modernize essential infrastructure while maintaining operational continuity throughout the project.
Which engineering decisions have the greatest impact on baggage handling performance?
The engineering decisions that have the greatest impact are usually made early in the project. System architecture, capacity planning, redundancy and integration with the rest of the airport will influence how the baggage handling system performs for years, often more than the choice of individual technologies.
These decisions determine how the system will operate under normal conditions, adapt to future expansion and maintain operational continuity. Once these fundamentals are defined, selecting the appropriate technologies becomes a much more straightforward engineering decision.
How is EDS integrated into a baggage handling system?
EDS is integrated into a baggage handling system by connecting the screening equipment with the BHS control system, allowing screening results to automatically determine how each bag is routed through the system.
The engineering challenge is making sure the BHS, EDS and control system exchange information reliably under every operating condition. When those interfaces are properly designed and tested, baggage screening becomes part of the normal baggage flow rather than a separate operational process. For a more detailed look at the engineering factors that influenceEDS performance, see our article: The Critical 5: Five Reasons EDS Integration Makes or Breaks a Baggage Handling System
How does Automatic Tag Reading influence baggage handling performance?
Automatic Tag Reading (ATR) influences baggage handling performance by ensuring each bag is correctly identified and routed throughout the system. High read rates reduce manual intervention, minimize recirculation and help maintain a consistent baggage flow, particularly during peak operating periods.
ATR performance depends not only on the reader itself but also on tag quality, system layout and the overall system design. For a more detailed look at the engineering factors that influence ATR performance, see our article: The Critical 5: Five Reasons Baggage Identification Is Where BHS Performance Begins
How should baggage handling systems be designed for future terminal expansion?
A baggage handling system should be designed not only for today’s operational needs, but also for the operational requirements the airport will face over the next ten to fifteen years. This is necessary because passenger volumes change, terminals are expanded, security requirements evolve and new airport systems are introduced throughout the operational life of a BHS. If these changes are not considered during the initial engineering phase, future expansion often becomes more complex and significantly more expensive than necessary.
Designing for future expansion is not simply about leaving physical space for additional equipment. It also means selecting an architecture that makes it possible to integrate new conveyors, screening lines, software functions and airport systems without disrupting the existing operation.
Many of these decisions are made long before installation begins. Network architecture, control systems, equipment layout and reserved capacity all influence how easily the system can adapt to future operational requirements.
A well-designed BHS should support the airport’s growth instead of becoming the reason why future expansion becomes more complex than it needs to be.
How should airports evaluate a baggage handling system integrator beyond price?
The initial investment is only one part of the total cost. For most airports, the bigger question is how much the system will cost to operate, maintain, modify and support over the next twenty years.
That is why evaluating a system integrator goes far beyond comparing equipment or project cost. Engineering capability, integration experience and long-term technical support all influence how reliably the system will perform.
Most airport projects involve multiple suppliers, systems and interfaces that all need to work together from day one. Managing those interfaces, identifying integration risks early and coordinating commissioning activities are often just as important as selecting the equipment itself.
In practice, the long-term performance of a BHS is influenced as much by the quality of its engineering as by the equipment installed. Choosing an integrator should therefore be based on lifecycle value, not only on the initial project cost.
Which mistakes increase the lifecycle cost of a baggage handling system?
The lifecycle cost of a baggage handling system is influenced by decisions made long before the system becomes operational. While the initial investment is important, many of the costs airports face over the following years are determined during the engineering phase.
In many projects, higher lifecycle costs are not caused by the equipment itself, but by engineering decisions that make future expansion, integration or maintenance unnecessarily difficult. Closed architectures, limited access for maintenance and insufficient allowance for future upgrades often become expensive long after the project has been completed.
Experience has shown that lifecycle cost is influenced as much by engineering decisions as by the equipment itself. Systems engineered with future maintenance, integration and expansion in mind are generally easier to operate, modify and support over the long term.