Developer Driven Engineering for OT / IT Infrastructures

Technical Lifecycle Management and Implementation of Highly Available System Landscapes

The long-term availability of industrial IT infrastructures requires more than standardized maintenance—it demands in-depth technical engineering throughout the entire life cycle. We specialize in securing and modernizing critical OT systems to minimize the risk of failure and guarantee the technological future viability of your production. From reconstructing outdated system logic to implementing highly available backend architectures, we ensure that your IT and OT landscape remains stable even under the highest load requirements. Our approach combines system-oriented software development with proactive lifecycle management to secure the long-term value of your assets.

Developer Driven Engineering for OT / IT Infrastructures

Technical Lifecycle Management and Implementation of Highly Available System Landscapes

The long-term availability of industrial IT infrastructures requires more than standardized maintenance—it demands in-depth technical engineering throughout the entire life cycle. We specialize in securing and modernizing critical OT systems to minimize the risk of failure and guarantee the technological future viability of your production. From reconstructing outdated system logic to implementing highly available backend architectures, we ensure that your IT and OT landscape remains stable even under the highest load requirements. Our approach combines system-oriented software development with proactive lifecycle management to secure the long-term value of your assets.

Developer Driven Engineering for OT / IT Infrastructures

Technical Lifecycle Management and Implementation of Highly Available System Landscapes

The long-term availability of industrial IT infrastructures requires more than standardized maintenance—it demands in-depth technical engineering throughout the entire life cycle. We specialize in securing and modernizing critical OT systems to minimize the risk of failure and guarantee the technological future viability of your production. From reconstructing outdated system logic to implementing highly available backend architectures, we ensure that your IT and OT landscape remains stable even under the highest load requirements. Our approach combines system-oriented software development with proactive lifecycle management to secure the long-term value of your assets.

So differenzieren wir uns im Wettbewerb.

Das Smart Warehouse / SMT Reels ist kein adaptiertes Standardsystem, sondern eine spezialisierte Lösung, die konsequent für die komplexen Anforderungen der SMT-Hochgeschwindigkeitsfertigung entwickelt wurde.


Im direkten Vergleich zu konventionellen Lagerschränken, starren FIFO-Puffern oder Regalsystemen, kombiniert es als einzige Lösung: Vertikale Hochverdichtung, automatisiertes Präzisions-Handling, lückenlose Traceability auf Rollenebene und die tiefe Middleware-Anbindung in einem durchgängigen Materialfluss.


Wir setzen konsequent auf Systemoffenheit: Unsere modularen Lagerzellen vermeiden geschlossene Plattformen - unser WMS ist direkt an ERP/MES-Systeme anbindbar. Das System stellt nicht nur Bauteile bereit – es macht den gesamten Rüst- und Bereitstellungsprozess digital steuerbar und auditfähig.


Dadurch entsteht kein isoliertes Insellager, sondern eine aktive, steuerbare Komponente in Ihrem Fertigungsprozess – vom Auftragsstart bis zur fehlerfreien Rolle an der Linie.

Lifecycle-Management for discontinued OT Systems

Migration and System Maintenance for Critical OT Infrastructures

Lifecycle-Management for discontinued OT Systems

Migration and System Maintenance for Critical OT Infrastructures

Lifecycle-Management for discontinued OT Systems

Migration and System Maintenance for Critical OT Infrastructures

When manufacturers discontinue support or hardware components are no longer available, this poses a direct risk to production capabilities. We specialize in securing the long-term operation of your legacy systems (hardware and software). Through targeted modernization measures and technical migrations, we eliminate dependence on outdated hardware without compromising the functional safety of your systems.

When manufacturers discontinue support or hardware components are no longer available, this poses a direct risk to production capabilities. We specialize in securing the long-term operation of your legacy systems (hardware and software). Through targeted modernization measures and technical migrations, we eliminate dependence on outdated hardware without compromising the functional safety of your systems.

When manufacturers discontinue support or hardware components are no longer available, this poses a direct risk to production capabilities. We specialize in securing the long-term operation of your legacy systems (hardware and software). Through targeted modernization measures and technical migrations, we eliminate dependence on outdated hardware without compromising the functional safety of your systems.

Strategic Roadmap:

From Legacy to High Availability

To ensure the operation of critical legacy systems, we work according to a structured three-stage model. This minimizes the risk of production downtime during the transition phase and guarantees maximum data security.

  • Analysis & Encapsulation (Risk Mitigation)

    Before changing any hardware or software, we back up the current status. By using industrial gateways or sandboxing, we isolate outdated operating systems (e.g., Windows XP/7) from direct network access. This allows us to prevent cyber risks while the system continues to run without any code changes.

  • Virtualization & Hardware Abstraction

    We break the link between old software and dying hardware. Through virtualization (physical-to-virtual), your applications are moved to modern, redundant server clusters.


    The result: your legacy software “thinks” it is running on the old machine, but benefits from the reliability and backup strategies of a modern data center.

  • Functional Expansion & Data Opening

    Once the system is running stably in a modern environment, we make the “black box” transparent. We use reverse engineering to create interfaces that make legacy data usable for modern analysis tools (BI) or higher-level cloud systems—without affecting the validated core logic of the control system.

Strategic Roadmap:

From Legacy to High Availability

To ensure the operation of critical legacy systems, we work according to a structured three-stage model. This minimizes the risk of production downtime during the transition phase and guarantees maximum data security.

  • Analysis & Encapsulation (Risk Mitigation)

    Before changing any hardware or software, we back up the current status. By using industrial gateways or sandboxing, we isolate outdated operating systems (e.g., Windows XP/7) from direct network access. This allows us to prevent cyber risks while the system continues to run without any code changes.

  • Virtualization & Hardware Abstraction

    We break the link between old software and dying hardware. Through virtualization (physical-to-virtual), your applications are moved to modern, redundant server clusters.


    The result: your legacy software “thinks” it is running on the old machine, but benefits from the reliability and backup strategies of a modern data center.

  • Functional Expansion & Data Opening

    Once the system is running stably in a modern environment, we make the “black box” transparent. We use reverse engineering to create interfaces that make legacy data usable for modern analysis tools (BI) or higher-level cloud systems—without affecting the validated core logic of the control system.

Strategic Roadmap:

From Legacy to High Availability

To ensure the operation of critical legacy systems, we work according to a structured three-stage model. This minimizes the risk of production downtime during the transition phase and guarantees maximum data security.

  • Analysis & Encapsulation (Risk Mitigation)

    Before changing any hardware or software, we back up the current status. By using industrial gateways or sandboxing, we isolate outdated operating systems (e.g., Windows XP/7) from direct network access. This allows us to prevent cyber risks while the system continues to run without any code changes.

  • Virtualization & Hardware Abstraction

    We break the link between old software and dying hardware. Through virtualization (physical-to-virtual), your applications are moved to modern, redundant server clusters.


    The result: your legacy software “thinks” it is running on the old machine, but benefits from the reliability and backup strategies of a modern data center.

  • Functional Expansion & Data Opening

    Once the system is running stably in a modern environment, we make the “black box” transparent. We use reverse engineering to create interfaces that make legacy data usable for modern analysis tools (BI) or higher-level cloud systems—without affecting the validated core logic of the control system.

Highly Available Backends and Optimized Infrastructures for Industries

High-Performance Backend Architectures, Database Optimization, and Industrial Network Design

A stable industrial ecosystem requires a technical foundation that processes massive data streams in real time while guaranteeing maximum reliability. We design and implement the backends that make your production controllable. In doing so, we optimize database access for high-load scenarios and design network structures that meet the specific requirements of the field level, such as low latency, segmentation, and redundancy.

  • Industrial Backend Engineering & Service Architecture

    We develop the logic layer that orchestrates your data streams. By building modular and scalable backends, we ensure that information flows efficiently between edge devices, on-premise servers, and cloud interfaces—with minimal resource consumption and maximum stability.

  • Database Design & Performance Optimization (SQL & NoSQL)

    Industrial data volumes require specialized structures. We optimize your SQL databases for faster query times and implement high-performance NoSQL solutions (such as MongoDB) for massive data logging. Our goal is to create a database design that remains stable even with millions of data points per second.

  • Network Engineering & Industrial Segmentation

    We plan and implement resilient network architectures for OT. This includes the design of VLANs, segmentation in accordance with IEC 62443 to increase security, and the implementation of redundancy concepts (e.g., ring topologies) to eliminate single points of failure in production.

The Technical Interplay: From Management to Information

This matrix illustrates how our engineering disciplines interlock to form a highly available system landscape.

Levels Engineering Discipline Function in the Overall System Results for production
Transport Level Network Engineering Segmentation (VLANs) and prioritization of data packets (QoS). Guaranteed bandwidth for critical control commands without interference from office traffic.
Processing Level Backend Engineering Orchestration of services, protocol conversion, and logic checking. Data is validated, enriched, and distributed to the right target systems in real time.
Persistence Level Database Engineering Structured storage in optimized SQL or NoSQL clusters. Lightning-fast access to historical data for analysis, dashboards, and audits.
Safety Level Cyber Security Encryption, access control, and monitoring across all levels. Protection of the entire chain against manipulation and unauthorized data leakage.
Highly Available Backends and Optimized Infrastructures for Industries

High-Performance Backend Architectures, Database Optimization, and Industrial Network Design

A stable industrial ecosystem requires a technical foundation that processes massive data streams in real time while guaranteeing maximum reliability. We design and implement the backends that make your production controllable. In doing so, we optimize database access for high-load scenarios and design network structures that meet the specific requirements of the field level, such as low latency, segmentation, and redundancy.

  • Industrial Backend Engineering & Service Architecture

    We develop the logic layer that orchestrates your data streams. By building modular and scalable backends, we ensure that information flows efficiently between edge devices, on-premise servers, and cloud interfaces—with minimal resource consumption and maximum stability.

  • Database Design & Performance Optimization (SQL & NoSQL)

    Industrial data volumes require specialized structures. We optimize your SQL databases for faster query times and implement high-performance NoSQL solutions (such as MongoDB) for massive data logging. Our goal is to create a database design that remains stable even with millions of data points per second.

  • Network Engineering & Industrial Segmentation

    We plan and implement resilient network architectures for OT. This includes the design of VLANs, segmentation in accordance with IEC 62443 to increase security, and the implementation of redundancy concepts (e.g., ring topologies) to eliminate single points of failure in production.

The Technical Interplay: From Management to Information

This matrix illustrates how our engineering disciplines interlock to form a highly available system landscape.

Levels Engineering Discipline Function in the Overall System Results for production
Transport Level Network Engineering Segmentation (VLANs) and prioritization of data packets (QoS). Guaranteed bandwidth for critical control commands without interference from office traffic.
Processing Level Backend Engineering Orchestration of services, protocol conversion, and logic checking. Data is validated, enriched, and distributed to the right target systems in real time.
Persistence Level Database Engineering Structured storage in optimized SQL or NoSQL clusters. Lightning-fast access to historical data for analysis, dashboards, and audits.
Safety Level Cyber Security Encryption, access control, and monitoring across all levels. Protection of the entire chain against manipulation and unauthorized data leakage.
Highly Available Backends and Optimized Infrastructures for Industries

High-Performance Backend Architectures, Database Optimization, and Industrial Network Design

A stable industrial ecosystem requires a technical foundation that processes massive data streams in real time while guaranteeing maximum reliability. We design and implement the backends that make your production controllable. In doing so, we optimize database access for high-load scenarios and design network structures that meet the specific requirements of the field level, such as low latency, segmentation, and redundancy.

  • Industrial Backend Engineering & Service Architecture

    We develop the logic layer that orchestrates your data streams. By building modular and scalable backends, we ensure that information flows efficiently between edge devices, on-premise servers, and cloud interfaces—with minimal resource consumption and maximum stability.

  • Database Design & Performance Optimization (SQL & NoSQL)

    Industrial data volumes require specialized structures. We optimize your SQL databases for faster query times and implement high-performance NoSQL solutions (such as MongoDB) for massive data logging. Our goal is to create a database design that remains stable even with millions of data points per second.

  • Network Engineering & Industrial Segmentation

    We plan and implement resilient network architectures for OT. This includes the design of VLANs, segmentation in accordance with IEC 62443 to increase security, and the implementation of redundancy concepts (e.g., ring topologies) to eliminate single points of failure in production.

The Technical Interplay: From Management to Information

This matrix illustrates how our engineering disciplines interlock to form a highly available system landscape.

Levels Engineering Discipline Function in the Overall System Results for production
Transport Level Network Engineering Segmentation (VLANs) and prioritization of data packets (QoS). Guaranteed bandwidth for critical control commands without interference from office traffic.
Processing Level Backend Engineering Orchestration of services, protocol conversion, and logic checking. Data is validated, enriched, and distributed to the right target systems in real time.
Persistence Level Database Engineering Structured storage in optimized SQL or NoSQL clusters. Lightning-fast access to historical data for analysis, dashboards, and audits.
Safety Level Cyber Security Encryption, access control, and monitoring across all levels. Protection of the entire chain against manipulation and unauthorized data leakage.
Restoring Process Intelligence and Maintainability

Analysis and Reconstruction of Undocumented Legacy Systems and Protocols

Lost source codes, missing documentation, or the departure of experts should not mean the end of a productive system. We offer specialized reverse engineering to gain a deep understanding of how your legacy systems work and digitally reconstruct their logic. By decoding communication protocols and analyzing binary data, we make closed systems transparent again. This creates the necessary basis for future enhancements, bug fixes, or controlled migration to modern platforms.

  • Decoding Proprietary Communication Protocols

    Many older systems communicate using manufacturer-specific protocols that are no longer supported today. We analyze the data traffic on the line, identify the underlying structures, and develop modern “interpreter” interfaces to make this data usable for your current IT environment.

  • Reconstruction of Program Logic and Algorithms

    If the source code for a control system or industrial PC is no longer available, we reconstruct the functional processes through targeted system analysis. This enables us to transfer the original intelligence of the system into modern programming languages or to add functional enhancements to the existing hardware.

  • Documentation Recovery (System Audits)

    We create detailed technical documentation of your existing systems based on their actual system status. This is particularly crucial in regulated industries (GxP) to ensure the compliance and auditability of your systems even after decades of operation.

Restoring Process Intelligence and Maintainability

Analysis and Reconstruction of Undocumented Legacy Systems and Protocols

Lost source codes, missing documentation, or the departure of experts should not mean the end of a productive system. We offer specialized reverse engineering to gain a deep understanding of how your legacy systems work and digitally reconstruct their logic. By decoding communication protocols and analyzing binary data, we make closed systems transparent again. This creates the necessary basis for future enhancements, bug fixes, or controlled migration to modern platforms.

  • Decoding Proprietary Communication Protocols

    Many older systems communicate using manufacturer-specific protocols that are no longer supported today. We analyze the data traffic on the line, identify the underlying structures, and develop modern “interpreter” interfaces to make this data usable for your current IT environment.

  • Reconstruction of Program Logic and Algorithms

    If the source code for a control system or industrial PC is no longer available, we reconstruct the functional processes through targeted system analysis. This enables us to transfer the original intelligence of the system into modern programming languages or to add functional enhancements to the existing hardware.

  • Documentation Recovery (System Audits)

    We create detailed technical documentation of your existing systems based on their actual system status. This is particularly crucial in regulated industries (GxP) to ensure the compliance and auditability of your systems even after decades of operation.

Restoring Process Intelligence and Maintainability

Analysis and Reconstruction of Undocumented Legacy Systems and Protocols

Lost source codes, missing documentation, or the departure of experts should not mean the end of a productive system. We offer specialized reverse engineering to gain a deep understanding of how your legacy systems work and digitally reconstruct their logic. By decoding communication protocols and analyzing binary data, we make closed systems transparent again. This creates the necessary basis for future enhancements, bug fixes, or controlled migration to modern platforms.

  • Decoding Proprietary Communication Protocols

    Many older systems communicate using manufacturer-specific protocols that are no longer supported today. We analyze the data traffic on the line, identify the underlying structures, and develop modern “interpreter” interfaces to make this data usable for your current IT environment.

  • Reconstruction of Program Logic and Algorithms

    If the source code for a control system or industrial PC is no longer available, we reconstruct the functional processes through targeted system analysis. This enables us to transfer the original intelligence of the system into modern programming languages or to add functional enhancements to the existing hardware.

  • Documentation Recovery (System Audits)

    We create detailed technical documentation of your existing systems based on their actual system status. This is particularly crucial in regulated industries (GxP) to ensure the compliance and auditability of your systems even after decades of operation.

The Reverse Engineering Process:

From Risk to Transparency

The path out of dependence on undocumented systems requires a structured approach that protects system availability. Our phase model shows how we can regain full control over your legacy software through passive data analysis and step-by-step logic reconstruction – without jeopardizing ongoing operations.

  • Signal & Data Tracing

    We “listen in” on the systems during operation to record communication patterns and logic sequences without interfering with the process.

  • Pattern Analysis

    We use specialized tools to identify data structures, variables, and dependencies within the legacy software.

  • Logic Mapping

    The findings are translated into a readable format (e.g., pseudocode or function plans), which serves as a new basis for documentation.

  • Future Proofing

    Based on the reconstruction, we implement modern interfaces (APIs) or prepare for migration to a new generation of hardware.

The Reverse Engineering Process:

From Risk to Transparency

The path out of dependence on undocumented systems requires a structured approach that protects system availability. Our phase model shows how we can regain full control over your legacy software through passive data analysis and step-by-step logic reconstruction – without jeopardizing ongoing operations.

  • Signal & Data Tracing

    We “listen in” on the systems during operation to record communication patterns and logic sequences without interfering with the process.

  • Pattern Analysis

    We use specialized tools to identify data structures, variables, and dependencies within the legacy software.

  • Logic Mapping

    The findings are translated into a readable format (e.g., pseudocode or function plans), which serves as a new basis for documentation.

  • Future Proofing

    Based on the reconstruction, we implement modern interfaces (APIs) or prepare for migration to a new generation of hardware.

The Reverse Engineering Process:

From Risk to Transparency

The path out of dependence on undocumented systems requires a structured approach that protects system availability. Our phase model shows how we can regain full control over your legacy software through passive data analysis and step-by-step logic reconstruction – without jeopardizing ongoing operations.

  • Signal & Data Tracing

    We “listen in” on the systems during operation to record communication patterns and logic sequences without interfering with the process.

  • Pattern Analysis

    We use specialized tools to identify data structures, variables, and dependencies within the legacy software.

  • Logic Mapping

    The findings are translated into a readable format (e.g., pseudocode or function plans), which serves as a new basis for documentation.

  • Future Proofing

    Based on the reconstruction, we implement modern interfaces (APIs) or prepare for migration to a new generation of hardware.







Ein Schraubenschlüssel neben einem Schild mit einem Häkchen symbolisiert Wartung und Schutz.

Maintaining maintainability, even if support for the system has long since been discontinued.

Dokumentenstapel mit Checkliste und Gütesiegel.

Protection of the process know-how that has been developed over many years and is embedded in the system's software.

Prüfdokumente mit einer Lupe und einem Häkchen markieren.

Restoring transparency as a prerequisite for modern security patches and compliance audits.

Ein Schraubenschlüssel neben einem Schild mit einem Häkchen symbolisiert Wartung und Schutz.

Maintaining maintainability, even if support for the system has long since been discontinued.

Dokumentenstapel mit Checkliste und Gütesiegel.

Protection of the process know-how that has been developed over many years and is embedded in the system's software.

Prüfdokumente mit einer Lupe und einem Häkchen markieren.

Restoring transparency as a prerequisite for modern security patches and compliance audits.

Ein Schraubenschlüssel neben einem Schild mit einem Häkchen symbolisiert Wartung und Schutz.

Maintaining maintainability, even if support for the system has long since been discontinued.

Dokumentenstapel mit Checkliste und Gütesiegel.

Protection of the process know-how that has been developed over many years and is embedded in the system's software.

Prüfdokumente mit einer Lupe und einem Häkchen markieren.

Restoring transparency as a prerequisite for modern security patches and compliance audits.

Performance-Critical Solutions in C++, C#, and Python

Customized Application Development for the Interface between Hardware and IT

When standard software fails due to latency, proprietary protocols, or massive data streams, we develop customized solutions with maximum performance. We master the entire spectrum of system-oriented programming – from hardware-oriented real-time drivers in C++ to robust backend services in C# to flexible data orchestration with Python. Our code is optimized to efficiently utilize the resources of your OT infrastructure and guarantee seamless communication between the shop floor and the enterprise level.

Development Scenarios

This overview shows examples of how we solve specific technological challenges through customized software development.

Challenges Technical Solution Approach Programming Language (example)
Real-time connection of high-frequency sensors or special hardware. Development of dedicated low-level drivers and protocol stacks. C++
Data overload on the shop floor that overloads the network or backend. Implementation of edge services for preprocessing and filtering. Python / C#
Complex data exchange between ERP, SQL DB, and PLC control. Development of robust middleware as an asynchronous data interpreter. C# / .NET
Proprietary “black box” systems without modern interfaces. Programming of custom API wrappers for data extraction. C++ / Python
Error-prone manual inspection processes in regulated environments (GxP). Automation of validation tools and health monitoring suites. C# / Python
Performance-Critical Solutions in C++, C#, and Python

Customized Application Development for the Interface between Hardware and IT

When standard software fails due to latency, proprietary protocols, or massive data streams, we develop customized solutions with maximum performance. We master the entire spectrum of system-oriented programming – from hardware-oriented real-time drivers in C++ to robust backend services in C# to flexible data orchestration with Python. Our code is optimized to efficiently utilize the resources of your OT infrastructure and guarantee seamless communication between the shop floor and the enterprise level.

Development Scenarios

This overview shows examples of how we solve specific technological challenges through customized software development.

Challenges Technical Solution Approach Programming Language (example)
Real-time connection of high-frequency sensors or special hardware. Development of dedicated low-level drivers and protocol stacks. C++
Data overload on the shop floor that overloads the network or backend. Implementation of edge services for preprocessing and filtering. Python / C#
Complex data exchange between ERP, SQL DB, and PLC control. Development of robust middleware as an asynchronous data interpreter. C# / .NET
Proprietary “black box” systems without modern interfaces. Programming of custom API wrappers for data extraction. C++ / Python
Error-prone manual inspection processes in regulated environments (GxP). Automation of validation tools and health monitoring suites. C# / Python
Performance-Critical Solutions in C++, C#, and Python

Customized Application Development for the Interface between Hardware and IT

When standard software fails due to latency, proprietary protocols, or massive data streams, we develop customized solutions with maximum performance. We master the entire spectrum of system-oriented programming – from hardware-oriented real-time drivers in C++ to robust backend services in C# to flexible data orchestration with Python. Our code is optimized to efficiently utilize the resources of your OT infrastructure and guarantee seamless communication between the shop floor and the enterprise level.

Development Scenarios

This overview shows examples of how we solve specific technological challenges through customized software development.

Challenges Technical Solution Approach Programming Language (example)
Real-time connection of high-frequency sensors or special hardware. Development of dedicated low-level drivers and protocol stacks. C++
Data overload on the shop floor that overloads the network or backend. Implementation of edge services for preprocessing and filtering. Python / C#
Complex data exchange between ERP, SQL DB, and PLC control. Development of robust middleware as an asynchronous data interpreter. C# / .NET
Proprietary “black box” systems without modern interfaces. Programming of custom API wrappers for data extraction. C++ / Python
Error-prone manual inspection processes in regulated environments (GxP). Automation of validation tools and health monitoring suites. C# / Python
Comprehensive Protection of the Production Level Against Modern Cyber Risks

Cyber Security and Resilient Security Architectures for Networked Manufacturing

The increasing networking of shop floor and office IT (OT/IT convergence) opens up new potential, but also increases the vulnerability to malware and unauthorized access. We protect your production systems with in-depth security engineering that is specifically tailored to the requirements of automation technology. Our focus is on implementing robust security mechanisms that ensure the protection of your data without compromising the real-time capability or stability of your systems.

Comprehensive Protection of the Production Level Against Modern Cyber Risks

Cyber Security and Resilient Security Architectures for Networked Manufacturing

The increasing networking of shop floor and office IT (OT/IT convergence) opens up new potential, but also increases the vulnerability to malware and unauthorized access. We protect your production systems with in-depth security engineering that is specifically tailored to the requirements of automation technology. Our focus is on implementing robust security mechanisms that ensure the protection of your data without compromising the real-time capability or stability of your systems.

Comprehensive Protection of the Production Level Against Modern Cyber Risks

Cyber Security and Resilient Security Architectures for Networked Manufacturing

The increasing networking of shop floor and office IT (OT/IT convergence) opens up new potential, but also increases the vulnerability to malware and unauthorized access. We protect your production systems with in-depth security engineering that is specifically tailored to the requirements of automation technology. Our focus is on implementing robust security mechanisms that ensure the protection of your data without compromising the real-time capability or stability of your systems.

OT Security Strategy: Protection without Production Risk

We deliberately rely on methods that preserve the integrity of your control processes.

  • Network Segmentation & Zone Models (IEC 62443)

    We design and implement secure network architectures based on the “defense-in-depth” principle. By physically and logically segmenting your OT landscape into security zones, we prevent threats from spreading uncontrollably within your network (lateral movement).

  • Secure Remote Maintenance Concepts & Access Management

    We establish controlled access routes for internal employees and external service providers. By using encrypted VPN tunnels, multi-factor authentication (MFA), and granular authorization management, we ensure that only authorized persons have access to critical control systems.

  • Endpoint Hardening & System Security

    We harden your industrial PCs, servers, and gateways against attacks. This includes deactivating unnecessary services, managing USB interfaces, and implementing specialized monitoring solutions that detect anomalies in field-level data traffic at an early stage.

OT Security Strategy: Protection without Production Risk

We deliberately rely on methods that preserve the integrity of your control processes.

  • Network Segmentation & Zone Models (IEC 62443)

    We design and implement secure network architectures based on the “defense-in-depth” principle. By physically and logically segmenting your OT landscape into security zones, we prevent threats from spreading uncontrollably within your network (lateral movement).

  • Secure Remote Maintenance Concepts & Access Management

    We establish controlled access routes for internal employees and external service providers. By using encrypted VPN tunnels, multi-factor authentication (MFA), and granular authorization management, we ensure that only authorized persons have access to critical control systems.

  • Endpoint Hardening & System Security

    We harden your industrial PCs, servers, and gateways against attacks. This includes deactivating unnecessary services, managing USB interfaces, and implementing specialized monitoring solutions that detect anomalies in field-level data traffic at an early stage.

OT Security Strategy: Protection without Production Risk

We deliberately rely on methods that preserve the integrity of your control processes.

  • Network Segmentation & Zone Models (IEC 62443)

    We design and implement secure network architectures based on the “defense-in-depth” principle. By physically and logically segmenting your OT landscape into security zones, we prevent threats from spreading uncontrollably within your network (lateral movement).

  • Secure Remote Maintenance Concepts & Access Management

    We establish controlled access routes for internal employees and external service providers. By using encrypted VPN tunnels, multi-factor authentication (MFA), and granular authorization management, we ensure that only authorized persons have access to critical control systems.

  • Endpoint Hardening & System Security

    We harden your industrial PCs, servers, and gateways against attacks. This includes deactivating unnecessary services, managing USB interfaces, and implementing specialized monitoring solutions that detect anomalies in field-level data traffic at an early stage.

The Operational Implementation of your Digital Transformation

Technical Implementation of Complex System Conversions and Data Transfers

In this step, we translate strategic planning into operational reality. We assume full technical responsibility for migrating your existing data and modernizing your system landscape. We use specialized ETL (Extract, Transform, Load) tools and migration frameworks to ensure a smooth transition from legacy infrastructures to modern target architectures such as MongoDB or the Industrial Data Fabric. Our focus is on absolute data integrity and minimizing downtime during go-live.

The Operational Implementation of your Digital Transformation

Technical Implementation of Complex System Conversions and Data Transfers

In this step, we translate strategic planning into operational reality. We assume full technical responsibility for migrating your existing data and modernizing your system landscape. We use specialized ETL (Extract, Transform, Load) tools and migration frameworks to ensure a smooth transition from legacy infrastructures to modern target architectures such as MongoDB or the Industrial Data Fabric. Our focus is on absolute data integrity and minimizing downtime during go-live.

The Operational Implementation of your Digital Transformation

Technical Implementation of Complex System Conversions and Data Transfers

In this step, we translate strategic planning into operational reality. We assume full technical responsibility for migrating your existing data and modernizing your system landscape. We use specialized ETL (Extract, Transform, Load) tools and migration frameworks to ensure a smooth transition from legacy infrastructures to modern target architectures such as MongoDB or the Industrial Data Fabric. Our focus is on absolute data integrity and minimizing downtime during go-live.

  • Operational Data Migration & ETL Processes

    We handle the physical transfer of your historical and current process data. To do this, we develop automated migration pipelines that extract data from old SQL databases, proprietary historians, or flat file structures, clean it up, and transfer it in a structured way to the new target environment.

  • System Cutover & Parallel Operation

    We manage the critical moment of transition. By setting up parallel infrastructures, we ensure that the new system receives validated data while the legacy system is still controlling production. This enables low-risk “shadow operation” before the final cutover.

  • Re-Validation & Functional Acceptance

    After migration, we perform comprehensive integrity checks. We ensure that all data points have been mapped correctly and that the new system environment meets the functional requirements of your production (and any regulatory requirements such as GxP) 100%.

  • Operational Data Migration & ETL Processes

    We handle the physical transfer of your historical and current process data. To do this, we develop automated migration pipelines that extract data from old SQL databases, proprietary historians, or flat file structures, clean it up, and transfer it in a structured way to the new target environment.

  • System Cutover & Parallel Operation

    We manage the critical moment of transition. By setting up parallel infrastructures, we ensure that the new system receives validated data while the legacy system is still controlling production. This enables low-risk “shadow operation” before the final cutover.

  • Re-Validation & Functional Acceptance

    After migration, we perform comprehensive integrity checks. We ensure that all data points have been mapped correctly and that the new system environment meets the functional requirements of your production (and any regulatory requirements such as GxP) 100%.

  • Operational Data Migration & ETL Processes

    We handle the physical transfer of your historical and current process data. To do this, we develop automated migration pipelines that extract data from old SQL databases, proprietary historians, or flat file structures, clean it up, and transfer it in a structured way to the new target environment.

  • System Cutover & Parallel Operation

    We manage the critical moment of transition. By setting up parallel infrastructures, we ensure that the new system receives validated data while the legacy system is still controlling production. This enables low-risk “shadow operation” before the final cutover.

  • Re-Validation & Functional Acceptance

    After migration, we perform comprehensive integrity checks. We ensure that all data points have been mapped correctly and that the new system environment meets the functional requirements of your production (and any regulatory requirements such as GxP) 100%.

How we differentiate ourselves from the competition: Engineering DNA meets software affinity

There are many providers in industrial IT – we see ourselves as data engineers with engineering roots. Our approach is developer-driven, but deeply rooted in the day-to-day operations of our customers' plants. We understand not only the code, but also the physical and process engineering behind it.

  • Hands-on Approach

    We don't just design, we log in, analyze the code, and solve the problem.

  • Technological Depth

    Whether C++, Python, SQL, or complex network topologies – we have mastered the tools needed to build highly available systems.

  • Industry Knowledge

    We are familiar with the requirements of the pharmaceutical, chemical, gas, oil, and other regulated industries, and we know that “availability” in OT is not an option but a requirement.

  • Legacy Understanding

    We are not afraid of old systems. We see them as valuable assets that we are preserving for the future.

How we differentiate ourselves from the competition: Engineering DNA meets software affinity

There are many providers in industrial IT – we see ourselves as data engineers with engineering roots. Our approach is developer-driven, but deeply rooted in the day-to-day operations of our customers' plants. We understand not only the code, but also the physical and process engineering behind it.

  • Hands-on Approach

    We don't just design, we log in, analyze the code, and solve the problem.

  • Technological Depth

    Whether C++, Python, SQL, or complex network topologies – we have mastered the tools needed to build highly available systems.

  • Industry Knowledge

    We are familiar with the requirements of the pharmaceutical, chemical, gas, oil, and other regulated industries, and we know that “availability” in OT is not an option but a requirement.

  • Legacy Understanding

    We are not afraid of old systems. We see them as valuable assets that we are preserving for the future.

How we differentiate ourselves from the competition: Engineering DNA meets software affinity

There are many providers in industrial IT – we see ourselves as data engineers with engineering roots. Our approach is developer-driven, but deeply rooted in the day-to-day operations of our customers' plants. We understand not only the code, but also the physical and process engineering behind it.

  • Hands-on Approach

    We don't just design, we log in, analyze the code, and solve the problem.

  • Technological Depth

    Whether C++, Python, SQL, or complex network topologies – we have mastered the tools needed to build highly available systems.

  • Industry Knowledge

    We are familiar with the requirements of the pharmaceutical, chemical, gas, oil, and other regulated industries, and we know that “availability” in OT is not an option but a requirement.

  • Legacy Understanding

    We are not afraid of old systems. We see them as valuable assets that we are preserving for the future.

Eine Hand hält eine Schachtel mit blauen Pfeilen, die nach unten zeigen und auf Empfang oder Lieferung hinweisen.

Sichere Handhabung verschiedenster Lasten ohne manuelle Eingriffe.

Blaue Pfeile, die auf ein Quadrat innerhalb eines größeren Quadrats zeigen; ein Fokussierungssymbol.

Ein System für PCB-Magazine, Boxen, Trays und kundenspezifische Behälter.

Ein blau-weißer autonomer Lieferroboter trägt eine Kiste und sendet Schallwellen aus.

Automatisierte Ein- und Auslagerung für maximalen Durchsatz.

  • Full Project Accountability

    Als Automatisierungsexperte übernimmt cts die volle Verantwortung – von der Konzeptvalidierung über die mechanische Integration bis hin zur fertigen ERP/MES-Anbindung.

  • Keine Insellösung

    Durch die Middleware cts AXES und offene Schnittstellen (REST/MQTT) wird das Lager zum voll integrierten Knotenpunkt Ihres digitalen Materialflusses.

  • Bewährte Skalierbarkeit

    Mit Kapazitäten von 400 bis über 2.000 Lagerplätzen und einer Bauhöhe von bis zu 8 Metern bieten wir Lösungen, die mit Ihren Produktionsanforderungen mitwachsen.

  • Seamless Intralogistics

    Das System ist nativ für das Zusammenspiel mit AMRs und Fördertechnik ausgelegt, um einen unterbrechungsfreien Materialtransport ohne manuelle Eingriffe zu garantieren.

  • Full Project Accountability

    Als Automatisierungsexperte übernimmt cts die volle Verantwortung – von der Konzeptvalidierung über die mechanische Integration bis hin zur fertigen ERP/MES-Anbindung.

  • Keine Insellösung

    Durch die Middleware cts AXES und offene Schnittstellen (REST/MQTT) wird das Lager zum voll integrierten Knotenpunkt Ihres digitalen Materialflusses.

  • Bewährte Skalierbarkeit

    Mit Kapazitäten von 400 bis über 2.000 Lagerplätzen und einer Bauhöhe von bis zu 8 Metern bieten wir Lösungen, die mit Ihren Produktionsanforderungen mitwachsen.

  • Seamless Intralogistics

    Das System ist nativ für das Zusammenspiel mit AMRs und Fördertechnik ausgelegt, um einen unterbrechungsfreien Materialtransport ohne manuelle Eingriffe zu garantieren.