Ther­mo­form­ing

We shape plas­tics to per­fec­tion.

Ther­mo­form­ing is pri­mar­i­ly used for pro­to­types and small pro­duc­tion runs be­cause it is cost-ef­fi­cient, flex­i­ble, and fast com­pared to oth­er plas­tic form­ing process­es. It is par­tic­u­lar­ly suit­able for com­plex geome­tries or large-area com­po­nents and serves as a proven al­ter­na­tive to in­jec­tion mold­ing or CNC milling.

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35 years of experience

Resilient prototypes for your projects

Efficiency

Combination of versatility and material diversity

For every industry

From automotive to dentistry

Well advised

Reach your goal quickly with our experts

Maximum data protection

Your data is in safe hands with us

35 years of experience

Resilient prototypes for your projects

Efficiency

Combination of versatility and material diversity

For every industry

From automotive to dentistry

Well advised

Reach your goal quickly with our experts

Func­tion­al­i­ty of the Ther­mo­form­ing Process.

The thermoforming process is based on the controlled heating of a plastic sheet, which is then drawn over a shaping contour. The material precisely adapts to the mold and is subsequently fixed by cooling.

Heating

The plastic sheet is clamped into a holder and heated to the optimal processing temperature. This is done using infrared heaters, convection ovens, or contact heating systems. Uniform temperature distribution is crucial to avoid stress or material defects. Depending on the material, the temperature varies to ensure ideal formability.

The clamped plastic sheet is heated by infrared heaters.

Forming

The heated plastic sheet is formed over or into a mold using vacuum or mechanical pressure. The forming process is fast and highly precise. Two methods can be used: Vacuum forming, where the material is drawn over the mold by negative pressure, or pressure forming, which combines vacuum with compressed air to achieve better material distribution and greater detail accuracy.

Positive thermoformed parts.

Cooling

The formed part is carefully cooled to stabilize its final shape. Cooling is typically done using air or water. Once solidified, the component is removed from the mold.

Formed plastic part in the forming tool

Demolding

The finished part is removed from the mold and may undergo post-processing. To achieve precise contours and the desired surface finish, the thermoformed parts undergo post-processing steps such as milling, cutting, painting, printing, or the application of protective coatings. These finishing processes ensure that the components are tailored to their specific application and optimized for use in prototypes and small production runs.

Surface detail of a painted thermoformed piece.

Typ­i­cal Ap­pli­ca­tion Ar­eas

Thermoforming is used in various industries, particularly where complex, lightweight, and stable components are required.

Me­chan­i­cal En­gi­neer­ing

Housings, covers, and technical components that require high stability with minimal weight.

Au­to­mo­tive

Interior trims, trunk components, load compartment covers, air ducts, and functional parts

Med­ical Tech­nol­o­gy

Protective covers and packaging for sensitive devices and instruments.

Elec­tron­ics In­dus­try

Precisely fitting housings for electrical components and assemblies.

Pack­ag­ing Tech­nol­o­gy

Thermoformed plastic packaging for products requiring special protection or a specific shape.

Ad­van­tages of ther­mo­form­ing for pro­to­types and small se­ries

Thermoforming offers significant advantages, particularly for the production of prototypes and small series. Compared to other forming processes, it is cost-effective, flexible, and quick to implement.

Our case studies

MOD­­EL­L­TECH­NIK IN AC­­TION

Automotive

A body with class: We produced the master model for the body of the cult Evetta light electric vehicle on a 1:1 scale – with perfect milling and the finest surface finishing. Find out how.

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Industry

The socket for the forest: We developed the prototypes for a type of powerbank for Stihl, which was put through its paces by forestry workers. A truly powerful project.

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Aerospace

"Jena, we have no problem": Jena-Optronik commissioned MODELLTECHNIK to produce a 1:1 model of the Gateway Docking Port, which is needed for sensor tests in space applications.

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Design

Timeless and dignified: Working with Samosa and our expertise in 3D printing, MODELLTECHNIK creates beautiful templates and design samples for individually designed funeral urns.

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Herr Sven Oldach Senior Design Manager Technical Design | Industrial Design