Industrial Automation Safety for Modern Food Processing
Rockwell Automation has partnered with Beypiliç to strengthen industrial safety at a new poultry processing facility in Türkiye. The project combines factory automation, safety controls, and access monitoring across the production site.
Beypiliç ranks among Türkiye’s major poultry processing companies. Its new facility required a standardized safety strategy from the earliest engineering stages.
The project focuses on personnel protection, machine safety, and electrical panel access. Moreover, the approach supports maintenance activities while addressing changing regulatory expectations.
Safety Engineering Integrated Into Facility Design
Beypiliç incorporated safety requirements during the facility design phase. Therefore, engineers could establish consistent protection methods before production equipment entered operation.
The strategy covers electrical control panels throughout the processing facility. It helps restrict unauthorized access to areas containing energized or moving equipment.
This design philosophy reflects an important industrial automation trend. Safety functions increasingly form part of the control architecture rather than remaining separate engineering additions.
From an engineering perspective, early safety integration can simplify commissioning and maintenance. It can also reduce inconsistent safety practices between production areas.
Rockwell Automation Supports Industrial Safety Architecture
Rockwell Automation supplied its industrial safety technology for the Beypiliç installation. The solution forms part of the company’s Allen-Bradley safety product portfolio.
The implementation uses non-contact safety interlocks to monitor electrical panel access points. These devices can detect whether protected doors remain in their intended safe position.
The architecture supports machine protection while complementing broader PLC and control system strategies. Engineers can therefore integrate safety monitoring with wider factory automation functions.
However, safety devices should always match the machine risk assessment and required safety performance level. Product selection alone does not establish a complete machine safety system.
Allen-Bradley 440N Ferrogard GD2 Safety Interlocks
The Beypiliç facility uses Allen-Bradley 440N Ferrogard GD2 non-contact interlock switches. These devices provide contactless monitoring for protected access points.
The 440N Ferrogard GD2 uses a stainless steel construction suitable for demanding industrial environments. Its IP68 rating supports applications involving water exposure and regular cleaning.
This characteristic matters in poultry processing environments. Production areas often experience frequent washdown cycles and strict hygiene requirements.
The non-contact design also reduces mechanical interaction between the sensing components. Consequently, engineers can apply these devices to doors and guards where conventional mechanical switches may create additional maintenance considerations.
Approximately 2,000 Safety Devices Installed
The completed installation includes approximately 2,000 safety devices across the facility. This scale makes the project significant for large food processing applications.
A large safety device population creates additional engineering requirements. Teams must manage device identification, wiring, validation, commissioning, and maintenance systematically.
Therefore, documentation becomes as important as hardware selection. Accurate electrical drawings and device records can simplify troubleshooting during plant operation.
For large installations, standardized components can also reduce spare-parts complexity. Maintenance teams can apply consistent inspection procedures across multiple production zones.
Local Automation Support From AB Market Elektrik Otomasyon
AB Market Elektrik Otomasyon supported the project as a local Rockwell Automation PartnerNetwork ecosystem member. The company contributed to system design, execution, and project coordination.
Local engineering support can provide practical advantages for large industrial automation projects. Teams can respond more efficiently to installation requirements and site-specific engineering conditions.
The collaboration also connected Rockwell Automation’s technology expertise with local implementation capabilities. As a result, Beypiliç received coordinated support from design through deployment.
PLC and Control Systems in Safety Applications
Modern industrial facilities often combine standard PLC control with dedicated safety functions. These architectures separate ordinary machine control from safety-related operations where required.
A PLC can manage production sequences, process logic, and equipment coordination. A safety controller or safety-rated architecture handles defined protective functions according to the application design.
DCS platforms also support safety-related integration in suitable process industries. However, food processing facilities commonly rely heavily on PLC-based machine automation.
Engineers should therefore evaluate the complete control architecture before selecting safety components. The assessment should consider machine hazards, access points, stopping performance, diagnostics, and required safety integrity.
Food Processing Creates Special Safety Requirements
Poultry processing plants operate under demanding environmental and operational conditions. Equipment often encounters moisture, cleaning chemicals, temperature variations, and continuous production cycles.
Safety equipment must therefore tolerate the site’s physical environment. In addition, engineers must consider hygiene practices and access requirements during routine sanitation.
The IP68-rated stainless steel design addresses important environmental considerations for this application. However, installers must still verify compatibility with actual cleaning agents and installation conditions.
Regulatory Compliance and Machine Safety
Beypiliç designed the safety solution to support evolving regulatory requirements in Türkiye. The project also reflects broader international expectations for machinery and workplace safety.
Industrial safety engineering should begin with hazard identification and risk reduction. Engineers then select protective measures based on the identified risks.
Standards such as ISO 12100 provide a recognized framework for machinery risk assessment. Related safety standards can address control-system performance and functional safety requirements.
Compliance should not rely on individual devices alone. Instead, the complete safety system requires engineering validation, verification, documentation, and periodic inspection.
Author’s Industrial Automation Perspective
Large food processing projects demonstrate why safety engineering needs a systems approach. Installing thousands of safety devices creates more than a hardware procurement challenge.
In my experience, commissioning efficiency depends heavily on consistent device naming and documentation. Engineers should define these conventions before installation begins.
I also recommend separating safety validation from ordinary production commissioning. This approach makes functional testing more structured and helps identify unresolved safety issues earlier.
Furthermore, maintenance teams should receive clear procedures for testing interlocks and restoring equipment. A safety function provides value only when operators maintain it correctly throughout the machine lifecycle.
Practical Application Scenario
A typical application involves an electrical control cabinet located near automated processing equipment. The cabinet may contain motor starters, drives, PLC hardware, or other energized components.
A non-contact interlock monitors the cabinet door. When the defined safety condition changes, the safety system can initiate the appropriate protective response.
Engineers must determine the required response through the machine risk assessment. The resulting function may involve stopping motion, removing hazardous energy, or preventing machine restart.
This architecture can support safer maintenance access while preserving controlled production operation. However, the final safety function depends on the complete system design.
What This Project Means for Factory Automation
The Beypiliç project illustrates a broader shift toward integrated industrial safety. Manufacturers increasingly treat safety as part of facility architecture rather than an isolated equipment feature.
The approximately 2,000-device installation also highlights the importance of scalable engineering practices. Large plants need repeatable methods for design, commissioning, diagnostics, and maintenance.
Moreover, environmental durability becomes increasingly important in food and beverage automation. Safety components must operate within both production and sanitation requirements.
For automation engineers, this project provides a useful reference for large-scale safety implementation. It demonstrates how global technology providers and local engineering partners can combine their capabilities.
