One Cable Automation Boosts Power and Data

Binder's B23 connector packs power and data into one cable at 100 Mbit/s. The hybrid unit, introduced for industrial automation, combines a power supply and shielded data transmission in a single, compact connector and is designed to underpin One Cable Automation concepts. In practice, that means fewer cables, simpler panel layouts, and the potential for higher data throughput without adding wiring complexity.

The B23 series is positioned to address two persistent pain points in automation builds: the clutter of multi-c cable runs and the need for reliable, EMI-resilient data paths alongside power. By marrying power and Ethernet-ready data within one connector, Binder aims to streamline the install, reduce assembly time, and improve the predictability of signal integrity across the control stack. Deployment data shows manufacturers moving toward integrated, single-cable solutions as they seek to cut install time on new lines and retrofits alike. The case study reports that engineers envision faster commissioning and easier fault tracing when a single fault source can be traced along one harness rather than multiple, disparate cables.

From an operational perspective, the most tangible metric shared by early adopters is data throughput. With Ethernet transmission rates up to 100 Mbit/s, the B23 supports control loops and telemetry streams that rely on responsive feedback, status reporting, and remote monitoring. That throughput, paired with power in the same conduit, can shorten cycle times for installation and changeovers, especially in mid-sized assembly lines where panel space and cable runs are at a premium. The case study notes that the reduction in cabling effort translates into more compact control cabinets and easier field service, both of which contribute to overall equipment effectiveness.

Industry observers emphasize that integrating power and data under a single connector does not remove the need for robust integration planning. The B23 is best wired into a controlled topology that preserves shielding integrity and keeps the data path clean from EMI sources. Deployment data shows the importance of aligning the hybrid connector with existing network architecture and fieldbus expectations, so users should verify connector compatibility with their PLCs, IOs, and remote I/O schemes before procurement. The case study reports that teams should map out the signal integrity budget early, and ensure proper gasketing, IP rating, and environmental suitability for the intended industrial environment.

Skilled trades involvement will shift in automation-heavy projects. The single-cable approach augments electricians and automation technicians by letting them route power and data together rather than juggling separate harnesses, but it also raises the bar for connector handling, panel layout discipline, and harness testing. In the near term, integration teams will need updated tooling and test fixtures to verify the integrity of a combined power/data chain under real-world vibration, humidity, and thermal cycles. The tradeoffs are real: fewer cables reduce complexity, but they also centralize a potential single point of failure if the harness is damaged and not replaced promptly. Proactive maintenance planning and standardized spare-part kits will help keep lines running.

Looking ahead, the real value will come from broader vendor support and cross-vendor interoperability. The deployment narrative points to a world where One Cable Automation is less of a novelty and more of a standard practice in modular line design. Expect more connectors that fuse power and data, plus clearer guidelines for reconfigurability, cabling density, and serviceability as factories push toward swifter line changes and smarter asset telemetry.