Our extensively customisable machine-made coil solutions stand out with their highest level of precision. They are found in valve technology, medicine, aviation and mechanical engineering, as well as other uses.

Our products comply with the highest international standards in terms of design, materials and manufacture and offer the following extra advantages:

Our extensively customisable machine-made coil solutions stand out with their highest level of precision. They are found in valve technology, medicine, aviation and mechanical engineering, as well as other uses.

Our products comply with the highest international standards in terms of design, materials and manufacture and offer the following extra advantages:

Our extensively customisable machine-made coil solutions stand out with their highest level of precision. They are found in valve technology, medicine, aviation and mechanical engineering, as well as other uses.

Our products comply with the highest international standards in terms of design, materials and manufacture and offer the following extra advantages:

Precision and minimal force tolerances
through machining

• The spring rate of a coiled spring has a tolerance range of +/- 10%, while machine-made springs are in the range of +/- 5%. We can also manufacture customised precision springs with a tolerance of +/- 1%.

• Machining manufacturing processes do not generate any internal stresses to be overcome before applying the force.

Precision and minimal force tolerances
through machining

• The spring rate of a coiled spring has a tolerance range of +/- 10%, while machine-made springs are in the range of +/- 5%. We can also manufacture customised precision springs with a tolerance of +/- 1%.

• Machining manufacturing processes do not generate any internal stresses to be overcome before applying the force.

Precision and minimal force tolerances
through machining

• The spring rate of a coiled spring has a tolerance range of +/- 10%, while machine-made springs are in the range of +/- 5%. We can also manufacture customised precision springs with a tolerance of +/- 1%.
• Machining manufacturing processes do not generate any internal stresses to be overcome before applying the force.

Maximum customisation thanks to a free
choice of materials and CNC technology

• CNC manufacturing allows maximum customisation in terms of dimensions, spring rate and geometry.

• Since all machined materials can be used, there is a wide selection to choose from. In addition to conventional materials, we can manufacture lightweight aluminium springs, electrically insulated springs made of plastic, or even high-strength titanium springs, for example.

Maximum customisation thanks to a free
choice of materials and CNC technology

• CNC manufacturing allows maximum customisation in terms of dimensions, spring rate and geometry.
• Since all machined materials can be used, there is a wide selection to choose from. In addition to conventional materials, we can manufacture lightweight aluminium springs, electrically insulated springs made of plastic, or even high-strength titanium springs, for example.

Improved dynamics, for example
through multi-start coil

• We can produce components with a multi-start spring that can absorb pressure, tensile and torsional forces all at the same time.

• In multi-start springs, the extension pressure is distributed across multiple points, which results in an even, parallel distribution of force. Since there is no unwanted lateral buckling of the spring, there is no need for additional guidance of the spring.

Improved dynamics, for example
through multi-start coil

• We can produce components with a multi-start spring that can absorb pressure, tensile and torsional forces all at the same time.

• In multi-start springs, the extension pressure is distributed across multiple points, which results in an even, parallel distribution of force. Since there is no unwanted lateral buckling of the spring, there is no need for additional guidance of the spring.

Improved dynamics, for example
through multi-start coil

• We can produce components with a multi-start spring that can absorb pressure, tensile and torsional forces all at the same time.
• In multi-start springs, the extension pressure is distributed across multiple points, which results in an even, parallel distribution of force. Since there is no unwanted lateral buckling of the spring, there is no need for additional guidance of the spring.

Reduced installation work thanks to
functional integration in the component

• The integration of additional functions (e.g. bore, thread, flange or grooves) optimises the installation space and massively simplifies assemblies.

• Integrated connections (e.g. flange end, grooves, threaded holes / threaded pins, etc.) increase the spring’s stability.

Reduced installation work thanks to
functional integration in the component

• The integration of additional functions (e.g. bore, thread, flange or grooves) optimises the installation space and massively simplifies assemblies.

• Integrated connections (e.g. flange end, grooves, threaded holes / threaded pins, etc.) increase the spring’s stability.

Increased service life by optimising the spiral
geometry at the start and end areas

• By “thickening” the coil outlet, the strength of the spring can be increased in its critical range.

• We can make precise forecasts using the finite element method (FEM) about the predicted strength and service life.

Increased service life by optimising the spiral
geometry at the start and end areas

• By “thickening” the coil outlet, the strength of the spring can be increased in its critical range.

• We can make precise forecasts using the finite element method (FEM) about the predicted strength and service life.

Increased service life by optimising the spiral
geometry at the start and end areas

• By “thickening” the coil outlet, the strength of the spring can be increased in its critical range.

• We can make precise forecasts using the finite element method (FEM) about the predicted strength and service life.