Ultrafine Bus: Stretchable Electronics

$28.00

The Ultrafine Serpentine Bus is engineered for applications that require compact, stretchable electronics without sacrificing performance. Built on feedback from our 4-wire bus and 4-wire serpentine designs, this new version offers:

  • Four conductive traces, each carrying up to 250 mA (1 A total capacity)

  • Two-layer stacked design for a slimmer cross-section

  • Enhanced stretchability and durability in tight or dynamic configurations

It is built for applications that demand flexibility, compact form factors, and reliable current delivery—even in challenging layouts.

The Ultrafine Serpentine Bus is engineered for applications that require compact, stretchable electronics without sacrificing performance. Built on feedback from our 4-wire bus and 4-wire serpentine designs, this new version offers:

  • Four conductive traces, each carrying up to 250 mA (1 A total capacity)

  • Two-layer stacked design for a slimmer cross-section

  • Enhanced stretchability and durability in tight or dynamic configurations

It is built for applications that demand flexibility, compact form factors, and reliable current delivery—even in challenging layouts.

What are stretchable electronics?
Stretchable electronics are electronic systems built on highly compliant (elastic or elastomeric) substrates and patterned with conductive architectures that allow the circuit to sustain significant tensile, compressive, or bending deformation while maintaining electrical functionality.

Flexible and Stretchable Electronics Application
The advanced technology behind Loomia’s LEL  enables integration into wearables, medical tech, and robotics as it can turn electronics from a rigid board into a “skin” or layer that wrinkles, stretches, and moves with the host material.

Loomia stretchable electronics

Loomia’s Stretchable Electronic Technology

Loomia’s LEL technology uses a mesh conductor laminated to a soft substrate (e.g., TPU) so that when the substrate deforms, the conductor geometry (the mesh loops, serpentine shapes) accommodates the motion without excessive strain on the metal traces. Because the conductor is ultrafine and follows a serpentine pattern, it can maintain low resistance and stable performance even during stretching or draping across fabrics or curved surfaces.

Loomia stretchable systems

Loomia’s LEL Technology in the Stretchable Electronics Market

The stretchable electronics market is filled with promising concepts, but few systems are industrially robust, high-performance, and manufacturable at scale. Loomia’s LEL technology fills that gap.

Unlike printed or liquid-metal circuits that often fail under strain, the LEL uses a unique mesh conductor on a soft, heat-bondable substrate, creating circuits that can be stretched, bent, and draped. With its manufacturing capabilities, Loomia bridges the space between flexible R&D prototypes and production-ready electronic layers that withstand mechanical stress and connect seamlessly to traditional electronics.

Read our blog on stretchable electronics here

Frequently Asked Questions

  • Stretchable electronics are circuits built on soft, elastic materials and patterned with flexible geometries—such as Loomia’s ultrafine serpentine and mesh conductors—that allow them to bend, twist, and stretch while maintaining full electrical functionality.

  • Unlike printed or liquid-metal circuits, Loomia’s Ultrafine Serpentine Bus uses a multi-metal mesh conductor on a soft, heat-bondable substrate. This geometry-driven design maintains stable performance even under motion, strain, or tight layouts.

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  • The Ultrafine Serpentine Bus is ideal for wearables, medical devices, robotics, and automotive interiors, where flexible, compact, and durable electronic interconnects are required.

  •  Yes. The LEL architecture is designed for seamless connection to rigid components and standard connectors, bridging soft, flexible layers with conventional electronic systems.

  • Loomia’s circuits feature a unique mesh conductor laminated onto soft, thermoplastic polyurethane (TPU) or similar elastomeric substrates that provide both flexibility and durability.