| Parameter | Value |
|---|---|
| Sensing distance | 0mm~60mm ±10% (with FF-403 amplifier) |
| Minimum detectable object | Φ0.5 |
| Optical axis diameter | Φ1.0 |
| Fiber cable outer diameter | Φ2.2 |
| Minimum bending radius | R25 |
| Fiber cable length | 2000mm ±2% |
| Operating temperature | -40°C ~ +60°C (no freezing/ice) |
| Housing material | SUS + PVC |
FFR-D15X 2M
F&C
| Availability: | |
|---|---|
| Quantity: | |
Parameter | Value |
|---|---|
Sensing distance | 0mm~60mm ±10% (with FF-403 amplifier) |
Minimum detectable object | Φ0.5 |
Optical axis diameter | Φ1.0 |
Fiber cable outer diameter | Φ2.2 |
Minimum bending radius | R25 |
Fiber cable length | 2000mm ±2% |
Operating temperature | -40°C ~ +60°C (no freezing/ice) |
Housing material | SUS + PVC |
The FFR-D15X 2M diffuse reflective fiber optic cable with an integrated mounting bracket represents a pivotal component for engineers facing the dual challenges of spatial constraints and the need for microscopic detection accuracy. Designed to integrate flawlessly into complex machinery, this sensor unit bridges the gap between mechanical resilience and optical precision. When handled, the industrial-grade construction is immediately apparent—the cold, unyielding rigidity of the SUS stainless steel sensing head contrasts with the smooth, flexible nature of the PVC cable jacket. This tactile combination signifies a design built for longevity in demanding environments. By utilizing advanced optical transmission technology, this component empowers automated systems to achieve consistent, error-free identification of miniature targets, ultimately reducing operational downtime and elevating overall production efficiency.
Achieving reliable detection of micro-objects requires an optical system that minimizes signal degradation while maximizing focus. When paired with the FF-403 amplifier, this diffuse reflective cable delivers a highly stable sensing distance ranging from 0mm to 60mm. The precision-engineered optical axis, measuring exactly Φ1.0mm, emits a concentrated beam capable of identifying targets as minute as Φ0.5mm. This level of granular detection is essential for identifying hairline defects, microscopic components, or ultra-thin materials that standard sensors routinely miss. Beyond its optical capabilities, the physical resilience of the unit is exceptional. The outer housing, crafted from a specialized blend of SUS stainless steel and premium PVC, offers a formidable defense against mechanical wear, accidental impacts, and exposure to industrial contaminants. Furthermore, the internal components are engineered to withstand extreme thermal fluctuations, operating flawlessly within a temperature spectrum of -40°C to +60°C. This broad thermal tolerance ensures that the sensor remains immune to freezing or ice formation in cold-storage applications, while also resisting degradation in high-heat manufacturing zones.
One of the most significant hurdles in modern machine design is routing cables through increasingly compact and dense equipment architectures. The FFR-D15X addresses this directly with its generous 2000mm cable length and an optimized Φ2.2mm outer diameter. More importantly, the cable boasts a minimum bending radius of R25. This flexibility allows technicians to weave the fiber optic line around sharp corners, through narrow conduits, and along moving robotic joints without risking micro-fractures in the core or experiencing a drop in light transmission efficiency. The inclusion of a dedicated, pre-aligned mounting bracket transforms the installation process. Instead of relying on improvised fixtures that may shift over time, engineers can secure the sensing head with a definitive, solid engagement. This rigid mounting eliminates vibration-induced misalignment, ensuring that the optical axis remains perfectly locked onto the target area even in heavy-duty, high-vibration manufacturing environments.
Integrating a new sensor into an existing control architecture requires more than just the physical hardware; it demands comprehensive engineering support and a reliable procurement network. To accelerate the design and validation phases, detailed 3D models, precise CAD drawings, and exhaustive technical specification sheets are readily available for download. These resources allow design engineers to digitally simulate the sensor's placement, verify clearances, and confirm optical paths before any physical assembly begins. Every unit undergoes rigorous industrial-grade quality control and testing protocols to certify its performance against strict international standards, guaranteeing long-term operational stability. From a procurement perspective, the supply chain is optimized for responsiveness. Whether the requirement is for a standard replacement or a specialized custom configuration, swift delivery schedules are maintained to minimize facility downtime. Furthermore, dedicated technical support teams are on standby to assist with alternative selection queries, troubleshooting, and post-integration optimization, ensuring that every deployment achieves its maximum potential.