The figures also include project experience from activities prior to the founding of SOLBEIT GmbH.
Clear project roles instead of blanket reference claims.
SOLBEIT GmbH was founded in 2026. The examples shown therefore include both current project work and the personal project experience of the managing director from earlier self-employment, previous companies and employment.
Services were in part provided via project partners, within larger engineering teams or as part of a more comprehensive plant project. The presentation describes solely the respective own technical role and not automatically the full project scope.
Customer and installation designations are anonymised where confidentiality, contractual relationships or missing publication approvals require this.
Current technical activity in the SOLBEIT service environment.
Provision of services within a project of a commissioning engineering or automation partner.
Personal project experience of the managing director prior to the founding of SOLBEIT GmbH.
Technical responsibility in different project environments.
The examples focus on the inspection task, system environment, own technical service and technologies used. Quantitative results are only stated if they are robustly documented and approved for publication.
3D profile inspection with PLC and robot interface
A 3D laser profile sensor was to be integrated into an automated plant sequence. Capture, trigger, robot positions, measurement data, result transfer and acknowledgement had to be clearly coordinated between sensor, control and robot system.
- Design of the communication and sequence structure
- Development of an SCL-based function block
- Profinet data assignment
- Trigger and release logic
- Robot position and handshake processing
- Capture and preparation of measurement results
- Overall assessment and result acknowledgement
- Support with integration and commissioning
The focus was on a structured, traceable and diagnosable sequence and data chain between measurement system, PLC and robot.
Systematic fault analysis of a camera-robot cell
In an automated camera and robot application, recurring position deviations occurred. Several possible causes in mechanics, image capture, value transfer and offset processing had to be checked in a structured way.
- Verification of the Tool Center Point
- Check of angle and sign directions
- Repeated check of the camera values
- Comparison of the values between camera, PLC and robot
- Check of identical components and load carriers
- Assessment of possible tilt and position influences
- Trials on lighting and image background
- Technical coordination with robotics and plant experts
- Documentation of the results and next measures
The data transfer and several mechanical and optical influencing factors could be systematically checked or narrowed down. A revision of the camera inspection concept and a clearly defined offset handling were assessed as further technical measures.
Commissioning of a laser welding cell for stator production
An automated manufacturing cell for the machining and laser welding of stator components had to be programmed, integrated and commissioned on the control side.
- Offline programming
- PLC and sequence adjustments
- Integration of drive and laser peripherals
- Integration of inspection and vision sensor technology
- Interface and function tests
- Support with commissioning and plant start-up
- Technical fault analysis
The own role lay in the control and integration-related implementation within a larger plant project.
Robot-supported assembly of power electronics
In an automated assembly line for power electronics, robots, control, handling sequences and plant peripherals had to be combined into a coordinated production process.
- PLC and sequence control
- Integration of robot-supported handling sequences
- Communication and release logic
- Program and position selection
- Fault and restart handling
- Commissioning and technical production support
- Coordination within the project team
The focus was on the interplay of control, robotics, handling and plant sequence.
Automation and production support in engine plants
Automated manufacturing systems had to be analysed, adjusted, commissioned and supported in the event of technical faults in the running production environment.
- Troubleshooting in SIMATIC S7 systems
- Analysis of plant sequences and interfaces
- Adjustment of PLC programs
- ABB and KUKA robot programming
- Commissioning of automation functions
- Technical production support
- Coordination with production, maintenance and project teams
The activity was carried out as a control and automation technician within the respective operator and project organisation.
Technical project management and international project organisation
Automation and robotics projects required, in addition to technical implementation, personnel planning, customer coordination, deployment coordination and structured project handovers.
- Technical and organisational project management
- Coordination of automation and robotics teams
- Coordination with customers and project partners
- Resource and deployment planning
- Support with commissioning
- Technical escalation handling
- Documentation and project handover
- Setting up and leading internationally deployed engineering structures
The experience stems, among other things, from earlier managing-director and project-management roles prior to the founding of SOLBEIT GmbH.
What runs through the projects.
PLC ENGINEERING
Structured sequence, state and interface logic.
ROBOTICS
Integration of robot, control, process and plant peripherals.
INDUSTRIAL VISION
2D/3D inspection, camera integration, image formation and result processing.
COMMISSIONING
Function tests, troubleshooting, interface checks and plant start-up.
PRODUCTION SUPPORT
Technical support under real plant and production conditions.
SYSTEM INTEGRATION
Connecting machine, control, robotics, vision and data level.
DIAGNOSIS
Traceable states, fault causes and technical measures.
PROJECT MANAGEMENT
Coordination of technology, personnel, partners and project requirements.
Experience in industrial project environments.
The listing describes technologies used and personal project experience. It does not represent a manufacturer partnership, certification or unrestricted competence for all product variants.
Showing technical experience, protecting sensitive project data.
In industrial projects, plant setup, processes, customer data and technical results are often subject to contractual confidentiality. That is why clients and specific locations are partly anonymised on this page.
The examples described focus on technical tasks, the own project role and methods used. Published content is not intended to allow conclusions about confidential production data, internal installation designations or protected customer information.
More specific project insights can be discussed within the framework of a confidential technical conversation and taking existing obligations into account.
Experience only becomes valuable through clean implementation.
Understand the task
Capture process, plant, interfaces, objective and existing framework conditions.
Define the technical approach
Structure tasks, responsibilities, data flows and required engineering steps.
Implement and integrate
Implement control, robotics, vision, software or interfaces within the defined project scope.
Test and hand over
Check functions under real conditions, document them and hand them over technically.
Which technical challenge should we solve together?
Describe your plant, the systems involved and the current task. We clarify which information is needed for a robust technical assessment and the next sensible steps.
Services from SOLBEIT.
Automation & Integration
Control, operating and communication solutions for machines, production cells and connected systems.
ANSEHEN →Industrial Vision Systems
Camera-based inspection, measurement and assistance systems for industrial production processes.
ANSEHEN →Software & Digital Solutions
Custom software, digital workflows, portals and interfaces for technical processes.
ANSEHEN →OT Security & Cyber Resilience
Technical protection, segmentation and cyber resilience for production and OT systems.
ANSEHEN →