Multi-conductor cables are engineered to carry multiple signals or power paths within a single jacketed assembly. Effective design balances electrical performance, mechanical durability, flexibility, and overall cable size.

Conductor Configuration

Conductor arrangement influences electrical performance and mechanical behavior.

  • Twisted pairs for noise reduction
  • Grouped or isolated conductors based on signal type
  • High strand-count or alloy conductors for flexibility and fatigue life
  • Mixed conductor types for hybrid signal and power designs

Shielding Architecture

Shielding strategy is selected based on signal sensitivity and noise environment.

  • Individual conductor shielding
  • Group shielding for related signals
  • Overall shielding for external EMI/RFI protection
  • Spiral, braided, foil, or conductive PVC shield types

Shielding choice affects cable diameter, flexibility, and durability.

Insulation and Jacket Selection

Material selection protects conductors and supports mechanical performance.

  • PVC, TPR, polyurethane, or fluoropolymer insulations
  • Jackets selected for abrasion, flex life, and environment
  • Thin wall designs to reduce overall diameter when required

Mechanical Considerations

Multi-conductor designs must account for motion and handling.

  • Bend radius and flex frequency
  • Cable routing and strain relief
  • Diameter and weight constraints
  • Long-term fatigue and service life

Balanced construction helps ensure consistent performance across all conductors.

Typical Applications

Multi-conductor cables are commonly used in:

  • Industrial controls and automation
  • Medical and diagnostic equipment
  • Communications and audio systems
  • Instrumentation and sensor assemblies

Design Support

Multi-conductor cable design requires coordination of electrical and mechanical requirements. Gavitt works with customers to evaluate application demands and develop constructions tailored to each use case.