Taniq Reaches a 20-Year Milestone in Industrial Automation
Taniq, a Dutch engineering company based in Rotterdam, celebrates 20 years of engineering and automation development in 2026. The company focuses on robotic manufacturing for reinforced rubber and composite products.
Taniq started in 2006 as a spin-off from the Aerospace Faculty of Delft University of Technology. Its founders aimed to apply aerospace engineering methods to complex rubber product design and manufacturing.
Today, Taniq combines robotic systems with its TaniqWind CAD/CAM software. This platform supports rubber winding, filament winding, and automated fiber placement (AFP).
From Manual Fiber Application to Robotic Manufacturing
Reinforced rubber products traditionally relied on manual fabric placement. Products included dredging hoses, air springs, and pipe plugs.
According to co-founder and director Sören Blomaard, Taniq identified limitations in this approach. The company saw potential to optimize reinforcement structures through aerospace engineering principles.
Taniq then developed robotic winding technology for these applications. At that time, manufacturers already used CNC equipment in some production processes.
However, the company considered industrial robots more flexible for complex manufacturing tasks. Robots could provide greater freedom for tool movement and process integration.
This approach established the foundation for Taniq's robotic winding technology.
Multi-Material Automation Expands Production Capabilities
Taniq later worked closely with industrial customers to expand its winding technology. The company moved beyond fiber reinforcement and added several material types.
These materials include rubber, tape, and metal wire. As a result, manufacturers could automate more steps within composite product production.
This development also changed the role of factory automation. Instead of automating one isolated production task, manufacturers could integrate several material processes.
For industrial automation engineers, this approach reduces the separation between product design and manufacturing equipment. It also creates more opportunities for coordinated robot motion and process control.
Integrated Design and Factory Automation
Taniq now operates as a turnkey engineering and automation supplier. The company helps customers optimize product designs and develop automated production processes.
Its approach differs from simply converting an existing manual operation into a robotic cell. Instead, Taniq first considers the product design and manufacturing requirements.
The company then adapts the product for automated production. This design-for-automation approach can simplify robotic motion and reduce unnecessary process complexity.
In industrial automation projects, this distinction can affect development time and equipment costs. It also shows why mechanical design, software, robotics, and process engineering increasingly work together.
TaniqWind Connects CAD/CAM With Robotic Production
Taniq's software platform forms an important part of its automation strategy. TaniqWind Pro supports the design and manufacturing of filament-wound composite products.
The software became particularly relevant around 2017. At that time, demand increased for filament winding technology for hydrogen storage pressure vessels.
Filament winding requires controlled placement of reinforcement material around complex geometries. Therefore, software must translate product requirements into precise manufacturing paths.
This process connects CAD/CAM engineering with robotic production equipment. It also demonstrates how software has become an important layer within modern factory automation.
Composite Manufacturing Drives Multi-Process Automation
Taniq's expansion into composites introduced new manufacturing requirements. Products such as pressure vessels and rocket components can require multiple materials and processes.
A single production workflow may therefore need different reinforcement techniques. Taniq responded by combining filament winding and AFP within one software and robotic environment.
The system can switch between manufacturing processes automatically. This allows manufacturers to apply different reinforcement strategies to the same product.
From an automation perspective, this represents a move toward multi-process robotic cells. Such systems require coordinated motion, process sequencing, material handling, and software control.
Rubber Winding Adds Another Manufacturing Process
Taniq has more recently expanded its multi-process platform again. The company added rubber layer application through robotic rubber winding.
Customer requirements for rocket applications helped drive this development. Rocket components can combine composite reinforcement with rubber layers used for sealing and related functions.
The combination allows several manufacturing operations to share one robotic production environment. Therefore, manufacturers can reduce the need for separate process-specific equipment.
This direction reflects a broader trend in industrial automation. Manufacturers increasingly seek flexible systems that can handle several processes within one production workflow.
Scorpius Taurus Targets Large Rubber Products
Taniq also develops robotic production systems for large rubber products. Its Scorpius Taurus system represents this approach.
Large reinforced rubber products can create difficult requirements for material handling and robotic movement. Product geometry can also require precise control across long winding paths.
Robotic systems provide programmable motion for these applications. Combined with dedicated CAD/CAM software, they can connect digital product definitions with physical production.
This model differs from conventional fixed-purpose machinery. It gives manufacturers greater flexibility when product geometries or reinforcement patterns change.
Industrial Robots Expand Beyond Traditional PLC Applications
Traditional factory automation often centers on PLC systems, motion controllers, and dedicated machines. These technologies remain important across discrete and process industries.
However, complex composite manufacturing can require more flexible robotic motion. Robot controllers, industrial networks, safety systems, and supervisory software can therefore work alongside PLC-based control systems.
Taniq's approach illustrates this convergence between robotics and industrial automation. The focus shifts from individual machines toward integrated manufacturing processes.
For automation engineers, the key challenge becomes coordination. Mechanical design, robot programming, CAD/CAM data, material behavior, and production control must work together.
Experience Across Rubber and Composite Manufacturing
Taniq's history also highlights the value of application-specific engineering experience. The company first developed robotic winding for reinforced rubber products.
It later transferred this knowledge into composite manufacturing. This included filament winding, AFP, and multi-material production.
Such experience can help engineers identify practical limitations earlier in a project. It can also support better decisions about product geometry, reinforcement methods, and robotic process design.
In my view, this experience-based approach is particularly relevant for specialized automation. Standard factory automation platforms provide control functions, but application knowledge often determines process performance.
What Taniq's Development Means for Industrial Automation
Taniq's 20-year development reflects a broader shift toward software-driven manufacturing. Industrial robots increasingly perform tasks that once depended on manual production skills.
At the same time, software plays a larger role in defining robotic manufacturing processes. CAD/CAM systems can generate production paths instead of simply documenting product geometry.
Moreover, multi-process automation can reduce the boundaries between separate manufacturing operations. This approach may become more important as manufacturers seek flexible production for low-volume and complex products.
The trend does not replace PLC, DCS, or conventional control systems. Instead, robotic manufacturing adds another automation layer for applications that require flexible physical movement.
Application Scenario: Hydrogen Pressure Vessel Manufacturing
Hydrogen storage vessels provide one example of advanced composite automation. Filament winding can place reinforcement around pressure vessel structures according to defined winding patterns.
A digital manufacturing workflow can connect the vessel design with winding parameters and robotic motion. This creates a direct relationship between engineering data and production execution.
For high-value composite products, consistent process execution matters because material placement directly affects product characteristics.
Application Scenario: Aerospace and Rocket Components
Aerospace and rocket components can require several reinforcement and sealing operations. These requirements make multi-process manufacturing attractive.
A robotic cell can potentially combine filament winding, AFP, and rubber layer application. The software can coordinate different process strategies within the same production environment.
This approach can simplify production planning when one component requires multiple material technologies.
Application Scenario: Large Reinforced Rubber Products
Large rubber products such as industrial hoses require controlled reinforcement placement. Manual production can involve extensive handling of fabric or reinforcement materials.
Robotic winding provides programmable motion and repeatable process paths. A dedicated CAD/CAM environment can further support product-specific manufacturing instructions.
This combination can help manufacturers address complex geometries while maintaining a digital production workflow.
The Next Stage of Robotic Factory Automation
Taniq enters its third decade with experience spanning rubber, composites, robotics, and manufacturing software.
Its development demonstrates how specialized automation companies can connect engineering design with physical production. The combination becomes especially useful when products require complex geometries and multiple materials.
For manufacturers, the main lesson is straightforward. Automation should not always begin with the existing manual process.
Instead, engineers should examine the product, materials, manufacturing sequence, and automation architecture together. This approach can reveal opportunities that conventional machine automation may overlook.
Taniq's 20-year history provides one example of this engineering-led model. Its continued development will be worth watching as robotics, CAD/CAM, and digital manufacturing become increasingly interconnected