APP1119226 | 26 Core 1.0mm² High Flex Control Cable

In automated production environments, every unplanned cable fracture adds up — a dropped signal on a 26-channel control circuit stops the line, triggers diagnostics, forces a maintenance crew to pull and re-route a replacement, and eats into shift throughput. What you need isn’t more inventory. It’s a cable that holds its electrical and mechanical integrity across the entire installed flex cycle life.

The APP1119226 packs 26 conductors, each 1.0 mm², into a high-flex configuration engineered for continuous movement. The result is a single cable run that replaces multiple smaller signal lines, speeds up panel-to-actuator wiring, and cuts the labour hours tied to cable chain rework. Read the full specification below to see how the construction supports your reliability targets.

How the cable build translates to less plant-floor intervention

Extra-fine stranded copper conductor

Stranding the bare copper to a class 6 fine-wire lay gives the conductor a resistance to work hardening that coarser stranding simply cannot match during constant bending. This means the cable withstands millions of flex cycles inside energy chains or on robotic axes without developing the micro-cracks that cause intermittent signal failure. For the project lead, that translates directly into fewer unexplained automation stoppages and a measurable drop in replacement cable spend per year.

26-core integration in a single sheath

Routing twenty-six discrete control wires across a moving gantry or through a tight drag chain becomes a routing headache and a reliability liability — every tie-down point is a potential pinch point. By consolidating those circuits into one protected bundle with a sequenced core lay length, you simplify cable carrier layout, reduce installation man-hours, and eliminate the cross-talk variables that arise from paralleling loose wires. Short term: faster commissioning. Long term: fewer single-wire breaks.

Formulated jacket that resists mechanical abrasion

The outer jacket compound is selected to balance oil resistance and low-temp flexibility without becoming brittle after repeated flexing. That property matters when lube mist builds up inside a CNC enclosure or when a cable carrier runs through a washdown-adjacent area. A tougher jacket means you aren’t replacing black rubber powder conveyor-side every quarter, and you aren’t gambling on jacket cracks that expose the cores to conductive fluids.

Manufactured with controlled outer diameter tolerance

For cables running in pre-sized drag chains or gland plates, a loose OD tolerance forces technicians to force-fit, shim, or over-tighten — all pre-loads that accelerate jacket wear. APP1119226 is produced with a tight concentricity spec and a consistent outer diameter. Fitting it into a cable carrier stay or routing it through a cable entry system becomes a repeatable task, not a field improvisation. That repeatability keeps installation quality high and warranty claims low.

Technical specification summary

For full electrical and physical data under your specific load and motion parameters, request the detailed engineering datasheet. Custom core colour coding, screen variants, and twisted-pair configurations within the 26-core set can be discussed directly with our application engineers.

Where the APP1119226 earns its place on the BOM

• CNC machine tools and machining centres — Cable carriers on 3-axis mills subject control cables to continuous torsion and oil mist. The high-flex conductor stranding and oil-resistant jacket prevent crack-and-short failures in a zone where unplanned downtime costs run well above the cable price.
• Industrial robotics and pick-and-place cells — On a 6-axis robot wrist, the cable bundle twists and bends simultaneously. A 26-core integrated solution reduces the profile of the cabling, lowers inertia at the end-effector, and stands up to the torsion cycles that kill standard control cables within months.
• Automated material handling and logistics hubs — Shuttle systems and cross-belt sorters use long festoon or dynamic cable runs. The flat-like core lay strategy and consistent OD keep the cable tracking reliably through the carrier guides, eliminating cable bunching that triggers e-stop events.
• Wind turbine pitch and nacelle control — Inside the nacelle, vibration and temperature swings are the enemy. A high-flex cable with reliable spark-test integrity across all 26 cores supports pitch motor feedback and sensor loops without the on-tower cable rework that drives O&M costs.
• Packaging and converting machinery — High-speed bagging and wrapping lines demand rapid reciprocating motion. Using a single multi-core control cable shortens commissioning and eliminates the spaghetti of individual signal wires, making fault-finding faster when production targets are on the line.

Conformance and quality assurance framework

• ✅ Manufactured within an ISO 9001:2015 audited production system
• ✅ Conductor and insulation requirements traceable to IEC 60228 (conductor class) and EN 50525 series where applicable
• ✅ CE marking — cable conforms to relevant Low Voltage Directive and RoHS directive requirements
• ✅ RoHS (Restriction of Hazardous Substances) compliant material set, with compliance documentation available for your sustainability reporting
• ✅ 100% spark test on finished cable per relevant acceptance standard before reeling
• ✅ Bending and flex cycle endurance test data available on request for the specific jacket variant you select
• ✅ UL / CSA double-listing options can be quoted for North American panel builds — mention early at inquiry stage so the right compound and wire marking are factored into the production planning

Frequently asked questions from engineering and procurement teams

Q: What bending radius should I use when designing the cable carrier for this 26-core cable?
A: For a flexible installation, plan the carrier bend radius at no less than 7.5 times the cable’s outer diameter. For fixed installations, you can go down to around 4 × OD. Keep in mind that tight radii combined with high acceleration shorten service life exponentially — our engineers can run a flex life estimation if you share the stroke length, speed, and acceleration from your carrier layout.

Q: Can the APP1119226 handle occasional outdoor exposure or wet-bay environments?
A: The standard PVC jacket handles light moisture and oil mist. For permanent outdoor UV exposure or wet-bay conditions, specify the PUR jacket variant at the RFQ stage. PUR brings better hydrolysis resistance and remains flexible at sub-zero temperatures, which makes it the right call for unheated logistics areas or nacelle outdoor cable runs.

Q: How do we confirm the cable fits our existing cable glands and terminal blocks on a retrofit project?
A: Request the as-built outer diameter drawing for the jacket option you are considering. Cross-check that diameter against the clamping range of your selected metric or PG gland. On the connection side, 1.0 mm² conductors terminate cleanly in standard 2.5 mm²-rated push-in or screw-clamp terminals — no ferrules needed if the terminal is approved for fine-stranded wire, though ferrules are recommended on screw connections where vibration is high.

Ready to validate a sample for your next project?

Every cable carrier design looks good on a data sheet. The difference shows up after two million cycles in the field. Get the dimensional drawing, the flex-life test report for your motion profile, and a 5-metre sample of the APP1119226 26 Core 1.0mm² High Flex Control Cable on your bench.

Contact our technical sales desk with your motion parameters — stroke, bend radius, speed, and environment — and we’ll return a build-up recommendation within 48 hours. [Request a specification pack →]