TFP Technology GmbH

Enhance your product with pinpoint accuracy.

with textile preforms and Tailored Fiber Placement (TFP)

precisely where loads occur and stability is needed

with fiber orientation along their force paths.

Fiber preforms with Tailored Fiber Placement (TFP)

Textile dry preforms for stable, durable fiber composite products

If you Plastic or SMC components As a manufacturer, you are familiar with your customers' typical requirements: high stiffness and load-bearing capacity, long service life, while maintaining the lowest possible weight and stable unit costs in series production. For this, you need reinforcements that can be precisely positioned where forces actually act.

Textile preforms are designed precisely for this purpose. dry-finished fiber semi-finished products, in which continuous fibers are already present before forming or laminating component-oriented and near-net-shape They are arranged. We manufacture these preforms with Tailored Fiber Placement (TFP)This is achieved through precise fiber placement along defined load paths instead of using flat weaves. This allows you to implement even complex reinforcement zones economically and reproducibly. Because the fibers are laid close to the final contour, there is hardly any waste, saving material and reducing your costs per component.

Let's work together to determine which preform geometry and fiber placement will make your components more stable while simultaneously reducing material and costs.

NDA possible before data exchange.

Brief profile: Fiber preforms made from Tailored Fiber Placement (TFP)

Fewer work steps, more process reliability in your manufacturing

You can integrate the reinforcement using textile preforms. in one clear work step into your production. Shape, fiber arrangement and layer structure are already defined in the semi-finished product. This saves you time when cutting fabrics, reduces manual intermediate steps and lowers typical sources of error that lead to scrap or rework.

Less waste, lower material costs

We manufacture preforms by Tailored Fiber Placement (TFP) with CNC-assisted fiber placement onto flexible carrier materials. Through the Near-net-shape storage Significantly less waste is produced compared to pre-cut fabrics. Depending on the layout and fiber type, the amount of fiber waste can vary. very small fail (in suitable cases) by approximately 3%).

Advantages of textile dry preforms made from Tailored Fiber Placement (TFP)

Economically

Cost-effective production of complex reinforcements, even in series production

Complex structures

Defined patterns, layers, and fiber paths for pinpoint reinforcement

Light & stable

High stiffness due to load-path-oriented fiber alignment at low weight

Hybrid

Combination of lightweight fibers (carbon, glass, aramid, basalt, etc.) and metals possible

Multifunctional

Optional integration of heating wires or sensor threads into the preform

Reproducible

High repeatability for small and large production runs

Typical applications for textile preforms made from Tailored Fiber Placement (TFP)

You don't want to reinforce the entire surface, but rather precisely where forces actually act on your component? Textile preforms are ideal if you... Plastic or SMC components They want to stabilize the product in a targeted manner, reduce weight, and at the same time produce it reproducibly in series.

  • Local reinforcement zones instead of full-surface layup Reinforce specific areas such as edges, radii, ribs, openings or screw points without making the entire component unnecessarily heavy.
  • Greater stiffness at the same weight By using load-path-oriented fiber placement, you increase component stiffness where it is needed and save material in less stressed areas.
  • Economical implementation of complex reinforcement geometries When woven fabrics and non-woven fabrics reach their limits, preforms enable near-net-shape, defined fiber paths even with challenging contours.
  • Stabilize series quality and reduce variation Preforms ensure reproducible reinforcement, so that the properties and performance of your components remain constant across batches.
  • Reduce material costs through minimal waste Near-net-shape fiber placement means: less waste, less rejects, better material utilization, especially with high-quality fibers.
  • SMC molded parts are specifically reinforced Use preforms as defined reinforcement elements to, for example, stabilize local load points or to selectively build up functional areas in the molded part.

Our textile preforms are particularly suitable as reinforcement for plastic and SMC components when you need to combine defined stiffness, reproducible series quality, and cost-effective manufacturing. For selected applications, preforms are also available as reinforcement in concrete components usable. Depending on the requirements, we will agree. Fiber type, fiber placement and preform geometry so that your reinforcement takes effect exactly where it is constructively required.

Let's talk briefly about your component.

Discuss suitable use cases

Textile preforms for further processing in thermosetting and thermoplastic processes

To ensure that your reinforcement in the component achieves precisely the desired effect, we adjust Carrier material, fiber or fiber mix, fiber orientation and contour of the preform We tailor our approach specifically to your process. From the very beginning, we take the following into account: economical production Your textile semi-finished products, from small series to scalable production.

Thermosetting processes

  • SMC Hot Pressing (Sheet Molding Compound)
  • RTM (Resin Transfer Molding)
  • Vacuum injection process
  • Vacuum expansion process

View preforms for thermosetting processes

Thermoplastic processes

  • Thermoform
  • Injection molding
  • Laminating and hot pressing

View preforms for thermoplastic processes

Choose the appropriate fiber or fiber combination

To ensure that your textile preform delivers precisely the desired properties in the component, we will work with you to select the appropriate one. Fiber structureYour requirements are crucial in this regard. Stiffness, impact strength, temperature resistance, weight and costDepending on the application, we combine individual fiber types or develop new ones. hybrid structures, for example, made of lightweight fibers among themselves or in combination with metal fibers.

Tell us what properties your component should achieve, and we will translate that into a suitable material and preform design.

Coordinate material composition

Fiber preforms for thermoset processing methods

Suitable if you intend to further process your preform using methods such as SMC pressing, RTM or injection molding.

✓ Carbon fibers
✓ Aramid fibers / Kevlar
✓ Fiber optics
✓ Natural fibers
✓ High-performance fibers

More about thermoset fiber preforms

Fiber preforms for thermoplastic processing methods

For processes such as thermoforming or injection molding, we rely on commingling, i.e. the combination of fibers with thermoplastic polymers, to enable reliable further processing.

Comingling with thermoplastic matrix materials, e.g.:
✓ Polypropylene (PP)
✓ Polyamide 6 (PA6)
✓ Polyetheretherketone (PEEK)

More about thermoplastic fiber preforms

Reinforcement structures on substrate materials

We apply the fibers to the carrier material that best suits your component and process, for example, flexible carriers for handling, positioning, or automated processes. If you require pure reinforcement structures without a carrier, we use removable nonwovens or films that can be removed without residue using water, heat, or mechanical peeling.

Clarify carrier material and handling

Fiber preforms for thermoset processing methods

Suitable if you intend to further process your preform using methods such as SMC pressing, RTM or injection molding.

✓ Carbon fibers
✓ Aramid fibers / Kevlar
✓ Fiber optics
✓ Natural fibers
✓ High-performance fibers

More about thermoset fiber preforms

Fiber preforms for thermoplastic processing methods

For processes such as thermoforming or injection molding, we rely on commingling, i.e. the combination of fibers with thermoplastic polymers, to enable reliable further processing.

Comingling with thermoplastic matrix materials, e.g.:
✓ Polypropylene (PP)
✓ Polyamide 6 (PA6)
✓ Polyetheretherketone (PEEK)

More about thermoplastic fiber preforms

Reinforcement structures on substrate materials

We apply the fibers to the carrier material that best suits your component and process, for example, flexible carriers for handling, positioning, or automated processes. If you require pure reinforcement structures without a carrier, we use removable nonwovens or films that can be removed without residue using water, heat, or mechanical peeling.

Clarify carrier material and handling

Textile preforms from the manufacturer TFP Technology

You want your plastic or SMC component Do you want to make your project more stable, lighter, and more efficient? Then we will develop a textile preform with you that... Specifically reinforced where loads are applied, tailored to geometry, quantity and your further processing process.

Confidentiality is standard: We will close upon request An NDA is required before exchanging data. .

Send us a sketch or CAD data and briefly describe your process (e.g., SMC, RTM, thermoforming, or injection molding). We will get back to you with an initial assessment.

Request a feasibility study now

This is how your dry preforms are created.

Quality that works in your series

To ensure that your components consistently achieve the same properties during manufacturing, we place particular emphasis on the following in our textile preforms: reproducible fiber deposition and a clean process management. You receive a reinforcement structure that Process and position securely and reliably allows, tailored to your process and quality requirements.

Typical topics we will discuss with you:

  • Dimensional accuracy and positioning of the preform in the component
  • Reproducibility across batches and serial production runs
  • Handling and carrier material (including releasable carrier, if required)
  • Scope of testing and documentation according to your specifications
  • Scaling from sample to small and large series

 

Tell us your quality criteria and quantities, and we'll show you how we can secure sample approval and series production.

NDA possible before data exchange.

Integrate function: Preforms with heating or sensors

Tailored Fiber Placement (TFP) allows you to not only reinforce textile structures, but also functional elements Integrate components such as heating elements or sensor filaments. This reduces the number of separate components and simplifies integration into your series production.

Electric heating elements

Integrate a heating function close to the material within your component or surface. Ideal for thermal management, de-icing, or heated systems.

Our textile heating elements

Sensor mats and textile sensors

Add functions such as condition monitoring, pressure or temperature sensing directly into the textile structure, without additional wiring steps.

Our sensor mats

Applications for textile preforms

Textile preforms are used wherever components specifically reinforcedThe goal is to reduce weight and stabilize series production quality.

Typical areas of application include:

Automotive & Motorsport

✓ Underbody and structural components
✓ Rims
✓ Rear wing
✓ Reinforcement structures for bodywork and attachments
✓ Components for your product

Aviation

✓ Window frames and structural frames
✓ Components for flap and mechanical areas, e.g. landing flaps, lifters
✓ Ribs and reinforcing elements
✓ Components for your product

Sports & Freetime

✓ Inlays and reinforcements for boards and sports equipment
✓ Bicycle components
✓ Protective equipment and helmets
✓ Components for your product

Medicine

✓ Orthoses and prostheses
✓ Components for couches, support structures and equipment
✓ Components with high requirements for weight and stiffness
✓ Components for your product

Automotive & Motorsport

✓ Underbody and structural components
✓ Rims
✓ Rear wing
✓ Reinforcement structures for bodywork and attachments
✓ Components for your product

Sports & Freetime

✓ Inlays and reinforcements for boards and sports equipment
✓ Bicycle components
✓ Protective equipment and helmets
✓ Components for your product

Aviation

✓ Window frames and structural frames
✓ Components for flap and mechanical areas, e.g. landing flaps, lifters
✓ Ribs and reinforcing elements
✓ Components for your product

Medicine

✓ Orthoses and prostheses
✓ Components for couches, support structures and equipment
✓ Components with high requirements for weight and stiffness
✓ Components for your product

Complex reinforcements instead of standard fabrics: Preforms as an alternative

If you are still working with braided, woven or knitted reinforcement textiles today, you know the limitations: cutting, overlaps, wrinkling and unnecessary material areas cost time, weight and money. Textile preforms made from tailored fiber placement (TFP) replace classic fabrics where you targeted reinforcement, Reduce waste and reproducible for series production. The fibers are laid down in a load-path-oriented manner and close to the final contour, instead of being cut flat.

Fiber preforms as an alternative to carbon fiber fabrics from manufacturer TFP Technology

Light & stable:

Carbon fiber fabric / Carbon fabric

When stiffness at low weight is crucial, offer Fiber preforms clear advantages over carbon fabrics, carbon weaves, grids or mats:

  • Defined fiber paths for targeted stiffness instead of planar layers.
  • Near-net-shape storage for less waste and lower material costs
  • Better adaptation to complex geometries, without folds and overlaps
  • Stable repeatability for small and large production runs
Fiber preforms as an alternative to Kevlar and aramid fabrics from manufacturer TFP Technology

Heat-resistant and abrasion-resistant:

Aramid fabric / Kevlar fabric

When impact resistance, abrasion or temperature play a role, can be Fiber preforms More precise and component-oriented construction than classic aramid fabric:

  • Reinforcement precisely at the stressed zones instead of across the entire component
  • Improved contour adaptation in complex reinforcement areas
  • Reproducible properties through defined fiber placement
  • fewer manual intermediate steps in manufacturing
Fiber preforms as an alternative to fiberglass fabrics and glass fleece from the manufacturer TFP Technology

Affordable & available:

Fiberglass fabric / glass fleece

When efficiency and availability count, combine Fiber preforms combining the cost advantages of fiber optics with the process advantages of TFP:

  • precise fiber placement and defined reinforcement zones
  • more complex shapes without unnecessary material surfaces
  • better material utilization compared to mats, fleece and drapes
  • Reproducibility suitable for series production with constant component properties

If you would like to replace fabric or create more targeted reinforcement zones, we will gladly review your geometry and process.

Have tissue replacement checked

Secure your initial feasibility assessment

Send us a sketch or CAD data and briefly describe your process and quantities. If desired, we will sign a non-disclosure agreement (NDA) before exchanging data. You will receive an initial assessment of the preform design, feasibility, and the next logical step (sample or series production).

NDA possible before data exchange.

Use cases: Textile preforms made from tailored fiber placement (TFP) in practice

Specific application examples, design approaches and guidance on process integration, NDA-compliant and without customer details.

Questions and answers about Tailored Fiber Placement (TFP) and textile preforms

Here you will find answers to frequently asked questions about textile preforms and fiber preforms made from Tailored Fiber Placement (TFP)The FAQs will help you quickly assess whether preforms are suitable for your component, your process (e.g., SMC, RTM, thermoforming, or injection molding), and your series production quality requirements. If you already have CAD data or a sketch, we can also check the feasibility together directly.

What are textile preforms made from Tailored Fiber Placement (TFP)?

Textile preforms made from Tailored Fiber Placement (TFP) are dry-manufactured fiber semi-finished products in which continuous fibers are laid close to the final shape and in a load-path-oriented manner. The preform is then further processed in your manufacturing process and forms the defined reinforcement in the component, e.g., in plastic or SMC applications.

Fiber preforms are particularly useful when you need reinforcement not across the entire surface, but specifically at load points, such as edges, radii, ribs, openings, or screw points. Compared to carbon fiber fabrics, fiberglass fabrics, or non-woven fabrics, preforms often reduce waste and manual cutting steps, and facilitate reproducible component properties.

Textile preforms can be designed for thermoset and thermoplastic processes. Typical thermoset processes include SMC hot pressing and RTM, while thermoplastic processes often involve thermoforming or injection molding. Crucially, the preform structure, substrate material, and handling must be tailored to your specific process.

Depending on the target requirements, carbon fibers, glass fibers, or aramid fibers are used, and hybrid structures are also employed if necessary. The appropriate fiber mix depends on the stiffness, impact strength, temperature requirements, weight, and cost of your component.

Commingling describes the combination of reinforcing fibers with thermoplastic matrix materials in a single structure. This is useful when you want to design a preform for thermoplastic processes such as thermoforming or injection molding and aim for reliable further processing, depending on the material and component requirements.

Carrier materials facilitate handling, positioning, and process stability, especially in automated processing. If you require pure reinforcement structures without a carrier, removable nonwovens or films can be used, which, depending on the design, can be removed by water, heat, or mechanical peeling.

For a feasibility study, CAD data or a sketch, the installation situation and available space, target requirements (e.g., stiffness/weight), the downstream processing method (e.g., SMC, RTM, thermoforming, injection molding), and production quantities are helpful. This allows for concrete proposals regarding fiber placement, material structure, and preform geometry.

Series production capability is ensured through defined fiber placement, coordinated handling, and appropriate testing and documentation. Typical aspects include dimensional accuracy and positioning of the preform within the component, reproducibility across batches, and scaling from prototypes through approval to small or large production runs.

Yes, upon request, we will conclude an NDA before exchanging data to ensure that CAD data, component requirements and process information remain confidential.