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16-Core 22AWG 0.34mm² Double Shielded Cable | Specs

Cable failure in a data chain doesn’t announce itself politely. It shows up as intermittent signal loss on a vibration monitoring sensor. It mimics a failed I/O card on a packaging line. Your team swaps hardware for hours, only to find the conductor screen was compromised by EMI from a nearby VFD. This is wasted maintenance budget and unplanned downtime. The 16-Core 22AWG 0.34mm² Double Shielded Cable is engineered to eliminate this variable. By combining a high-density core count with a dual-layer shield structure, it ensures signal integrity in electrically noisy environments, directly reducing commissioning callbacks and long-term lifecycle costs.

High-Density 16-Core Architecture

16 stranded bare copper cores, 22AWG (0.34mm²)
A single routing path replaces eight discrete pair runs. This means fewer cable trays, less termination labor, and a cleaner control panel layout. For procurement teams, this cuts per-meter acquisition cost versus purchasing multiple single-pair cables. For field engineers, it simplifies routing through confined trunking in retrofit projects. You don’t buy more clips, you don’t waste routing space, and you normalize a single SKU for multi-channel analog signals.

Dual-Layer Shielding Against Harsh EMI

Aluminum/Polyester foil tape (100% coverage) plus a tinned copper braid (≥85% coverage)
Individual foil wraps might handle electrostatic interference. They fail fast in environments saturated by low-frequency magnetic fields from motors and transformers. The braid layer absorbs that magnetic noise. The foil blocks the high-frequency switching noise. Together, they form a shunt that redirects interference to the drain wire before it penetrates the core. Benefit: your 4-20mA and RS-485 signals remain flat, your readings are repeatable, and your active devices don’t drift due to corrupted reference signals.

Durable Yet Flexible Mechanical Ruggedness

Engineered PVC jacket with optimized outer diameter and bend radius
Installation teams pull cables through sharp bends and narrow conduits. If the jacket tears, the shield gap becomes an EMI entry point. A jacket that meets flexibility standards while resisting abrasion and mineral oil exposure means no nicked jackets at the pull-box. For the project owner, this translates to passing the initial megger test on the first attempt, keeping the construction schedule on track.

Low Attenuation Across Functional Distances

Stable capacitance and impedance characteristics
Long control runs reduce signal strength. Cable that exceeds acceptable attenuation limits forces you to add signal boosters or upsize conductors. This design maintains signal voltage within specification across common factory floor distances. Result: you avoid the cost of additional repeaters. Your analog sensor signals hit the PLC input module with expected values, eliminating software offset corrections.


Technical Specifications & Dimensions

ParameterSpecification
Conductor Count16 Cores
Conductor Size (AWG)22 AWG
Conductor Cross-Section0.34 mm² (Nominal)
Conductor MaterialStranded Bare Copper
Insulation MaterialSemi-Rigid PVC (SR-PVC) or Polyolefin (PO), dependent on temperature rating version
Core IdentificationNumbered cores per DIN 47100
Shielding TypeDouble Shielded
Shield 1 (Individual/Tape)Aluminum/Polyester Foil (100% Coverage)
Shield 2 (Overall/Braid)Tinned Copper Braid (Coverage ≥ 85%)
Drain WireTinned Copper (Stranded, in contact with foil)
Sheath (Jacket) MaterialPVC (Polyvinyl Chloride) or PUR (Polyurethane) for specialized applications
Rated Voltage (Uo/U)300/500 V
Temperature Range (Fixed)-30°C to +80°C
Temperature Range (Flexible)-5°C to +70°C
Flammability RatingIEC 60332-1-2 (Flame Retardant)
Approximate Outer DiameterDependent on jacket variant (Standard PVC approx. 10.5 mm ± 0.3 mm)

Industry Applications & Scenario Validation

  • Industrial Automation & Process Control
    Connects PLC I/O modules to remote sensors, actuators, and valve manifolds. Solves the problem of cross-talk between signal pairs in high-density marshalling cabinets, preventing false triggers on emergency stop loops.
  • Commercial Building Management Systems (BMS)
    Centralized monitoring of HVAC dampers, VAV boxes, and chiller sensors. Meets the plenum or riser flame spread resistance requirements when enclosed in conduit, ensuring compliance with facility fire codes.
  • Live Event & Broadcast Engineering
    Audio/video patching and DMX lighting control arrays. High flexibility and double shielding prevent the 60Hz hum from power distros leaking into mic-level signals. Critical for broadcast trucks where space is tight.
  • Electrical Substation Instrumentation
    Data transmission from CT and PT metering circuits to protection relays. High EMI tolerance ensures that switching surges in adjacent high-voltage bays do not distort the low-voltage measurement data used for billing or fault recording.
  • Wind Turbine & Outdoor Machinery
    Transmission of pitch control and vibration data from the nacelle. Jacket durability and shield integrity withstand constant flexing at hinge points and block stray currents induced by lightning protection systems.

International Compliance & QA Standards

Certification and testing is the core of supply chain trust.

  • Conductor Compliance: IEC 60228 (Class 5 Flexible Stranded Conductors)
  • Flame Retardancy: IEC 60332-1-2 (Single Cable Vertical Flame Propagation)
  • Electromagnetic Compatibility (EMC): Transfer impedance testing procedures compliant with IEC 62153-4-3
  • Low Smoke Zero Halogen (Optional): IEC 60754-1 & IEC 61034-2 (Available upon request for indoor public spaces)
  • Material Quality: RoHS II (2011/65/EU) and REACH compliant components
  • Factory Audit: ISO 9001:2015 Certified Quality Management System

FAQ

Does the 0.34mm² cross-section handle Power-over-Ethernet or high-current actuators?
No. This is a signal and instrumentation cable, not a power feeder. The 0.34mm² (22AWG) supports low-current sensor signals and data. Pushing high amperage through these cores causes I²R heating, risking insulation softening and jacket failure. For actuator power, look at our 14AWG or 0.75mm² hybrids. This cable protects data. It isn’t optimized for motor loads.

Can you supply this with a sequential footage marking on the jacket?
Yes. Printing meter or foot markings ascending from 0 on the outer jacket is standard for most oil/gas and MRO requests. It simplifies inventory tracking during installation. Specify whether you need metric or imperial marking and the preferred interval (usually 1-meter marks) when submitting the RFQ.

We test 1MHz impedance. Can we get a batch-specific Transfer Impedance report?
We provide production lot-specific test data for Z_T (Surface Transfer Impedance). The dual carbon-layer design keeps these values low across the critical 1-30 MHz range. Include the requirement for Clause 9 testing documentation in your purchase order. We supply the raw data log, not just a pass/fail summary, for your engineering records.


Discuss Your Control System Architecture

Signal interference is a design problem. You need a physical layer that validates the integrity of your control logic.

Standard stock sizes and custom hybrid constructions are available based on lead time requirements. To review the full bend radius calculation or request a 3-meter sample for panel mock-up testing, contact our application engineering group at info@example.com.

Engineering submittals, Z_T graphs, and IEC test certificates are prepared immediately upon request.