Massage
devices

Graphene nanotubes for massagers: enhanced functionality and skin comfort

TUBALL™ graphene nanotubes provide electrical impulse massagers with stable and uniform electrical conductivity while preserving the original mechanical properties of silicone. Foot, head, and neck massage devices enhanced with nanotubes ensure no skin contamination or irritation, offering superior comfort and safety.
The healthcare industry demands highly conductive materials for pulse massagers to deliver electrical impulses to the human body effectively. At the same time, these materials must be soft and flexible for skin-contact applications, making silicone an ideal choice. By integrating graphene nanotubes, silicone-based massage devices achieve improved functionality, preserve skin cleanliness, and offer superior comfort.

Massage <br/>devices
Contact us to discuss your project specifications or to request a TUBALL™ MATRIX sample

Main properties

  • Stable electrical
    performance
    (R<100Ω)

    Stable electrical performance (R&lt;100Ω)
  • Softness
    & flexibility

    Softness & flexibility
  • No skin
    contamination

    No skin contamination
Massage devices for healthcare

Massage devices for healthcare

What is an electronic pulse massager?

What is an electronic pulse massager?

An electronic impulse massage device uses electrical signals to stimulate muscles, improve blood circulation, and relieve tension. These devices are commonly used in physical therapy, fitness recovery, and wellness routines to reduce pain, enhance muscle performance, and promote relaxation.

To perform effectively, these devices require stable electrical conductivity and skin-friendly properties. Originally insulative silicone, valued for its softness and flexibility, must be enhanced with a conductive additive to maintain these qualities while ensuring optimal performance.

Electrical conductivity at ultralow dosage

Electrical conductivity at ultralow dosage

With a dosage as low as 0.25 wt.%, graphene nanotubes replace up to 40 wt.% carbon black in a conductive high-consistency rubber (HCR) silicone compound, ensuring stable volume resistivity of <100 Ω•cm. This combination of functionality and comfort is crucial for materials used in healthcare devices.

Electrical conductivity at ultralow dosage
Preserved mechanical properties

Preserved mechanical properties

In contrast to conventionally used carbon black, TUBALL™ graphene nanotubes work effectively at ultralow dosages. This allows silicone to maintain softness, elasticity, low hardness, tensile parameters, viscosity, and rheological properties.

Preserved mechanical properties
Skin cleanliness

Skin cleanliness

The nanotubes are fully incorporated into the material, eliminating carbon release to the material’s surface and skin contamination or irritation. TUBALL™ in powder form has successfully passed toxicology risk assessments related to skin safety.

  • Skin corrosion test (OECD 431)
  • Skin irritation test (OECD 439)
  • Skin sensitization test (OECD 406)
  • Acute dermal toxicity test (OECD 402)
Additional benefits

Additional benefits

  • Non-dusty production

    Non-dusty production
  • Easy processability

    Easy processability
Industry-friendly forms of nanotubes for standard processing

Industry-friendly forms of nanotubes for standard processing

TUBALL™ MATRIX 605 is a concentrate based on reactive polymer and pre-dispersed graphene nanotubes. It is specifically designed for high consistency rubber (HCR) silicone systems to provide compatibility with standard mixing processes and equipment. It can be added during the silicone compounding stage and doesn’t affect the manufacturing process.

Contact us to discuss your project specifications or to request a TUBALL™ MATRIX sample

MATRIX sample
Application cases

Application cases


Related video

  • Conductive colored HCR: processing guide for TUBALL™ MATRIX 605

  • Graphene nanotubes for elastomers: consistent conductivity with high mechanical performance

Media on graphene nanotubes in massage devices


  • Scientific validation

    Silicone

    Electrostatic Dissipation in 3D-Printable Silicone

    Low loadings (<1 wt %) of TUBALL™ can be sufficiently dispersed into silicone resins that can be 3D printed, and the resulting material shows a significant improvement in electrostatic dissipation through the reduction in electrical resistivity with minimal effect on its mechanical properties.


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