| Parameter | Value |
|---|---|
| SKU Attributes | |
| Protective device | NA |
| Fiber head diameter | M3 |
| Fiber cable outer / core diameter | Φ1.0+Φ1.3 / Φ0.5*1+Φ0.25*9 |
| Fiber cable length | 1M |
| Conduit tube diameter | Φ1.5 |
| Conduit tube length | 40mm |
| Conduit tube required | Yes |
| Sensing distance | 80MM |
| Integrated tail bracket | NA |
| Product Description | Sensing distance: 80MM / Fiber cable outer/core: Φ1.0+Φ1.3 / Φ0.5*1+Φ0.25*9 / Fiber head diameter: M3 |
| Mechanical Parameters | |
| Protective device | NA |
| Fiber head material | Stainless steel |
| Fiber head diameter | M3 |
| Fiber type | Coaxial |
| Fiber cable outer / inner diameter | Φ1.0+Φ1.3 / Φ0.5*1+Φ0.25*9 |
| Fiber cable bending radius | R15 |
| Fiber cable length | 1M |
| Conduit tube bendable | No |
| Conduit tube diameter | Φ1.5 |
| Conduit tube length | 40mm |
| Light exit direction | Front exit |
| Tail connector material | Plastic |
| Detection method | Diffuse reflective |
| Cuttable | Yes |
| Weight | 3.95g |
| Integrated tail bracket | NA |
| Environmental Parameters | |
| Ambient temperature (max) | 70°C |
| Ambient temperature (min) | -20°C |
| Electrical Parameters | |
| Sensing distance (LONG mode) | 85MM |
| Sensing distance (SEND mode) | 80MM |
| Minimum detectable object | φ0.25 |
| Optical axis diameter | φ0.25*2 + φ0.5*1 |
| Optical axis pitch | / |
| Fiber optic cable outer diameter | φ1.0 + φ1.3 |
| Minimum bending radius | R10 + R15 |
| Fiber optic cable length | 1000mm ±2% |
| Operating environment temperature | -40~+60°C (no freezing/ice) |
| Outer dimensions | φ3*13mm |
| Housing material | SUS + PVC |
| Weight | Approx. 39g |
FFRC-310-M
F&C
| Availability: | |
|---|---|
| Quantity: | |
Parameter | Value |
|---|---|
SKU Attributes | |
Protective device | NA |
Fiber head diameter | M3 |
Fiber cable outer / core diameter | Φ1.0+Φ1.3 / Φ0.5*1+Φ0.25*9 |
Fiber cable length | 1M |
Conduit tube diameter | Φ1.5 |
Conduit tube length | 40mm |
Conduit tube required | Yes |
Sensing distance | 80MM |
Integrated tail bracket | NA |
Product Description | Sensing distance: 80MM / Fiber cable outer/core: Φ1.0+Φ1.3 / Φ0.5*1+Φ0.25*9 / Fiber head diameter: M3 |
Mechanical Parameters |
The FFRC-310-M optical fiber sensor utilizes a specialized coaxial diffuse reflection architecture, engineered to completely eliminate near-field blind spots. Traditional sensors often struggle when targets are positioned extremely close to the probe, but this coaxial design aligns the emitting and receiving fibers along the same optical axis. The internal configuration, featuring a central Φ0.5 emitting core surrounded by nine Φ0.25 receiving cores, maximizes light gathering efficiency. This specific multi-core arrangement captures scattered light from irregular surfaces, ensuring that even microscopic components passing within millimeters of the lens are registered with absolute clarity. The core technology incorporates advanced background suppression capabilities, filtering out ambient light and reflective glare from surrounding machinery. When deployed in complex operational environments, the sensor maintains a steady, uninterrupted signal, isolating the target object from distracting background elements. Operators will notice the immediate, responsive switching action as the sensor detects minute variations in surface texture or presence. By stabilizing the detection threshold against external interference, this optical fiber provides consistent, repeatable performance, directly reducing false triggers and minimizing unplanned line stoppages.
Industrial equipment is becoming increasingly compact, demanding sensing solutions that can fit into severely restricted spaces. The FFRC-310-M addresses this physical constraint with its meticulously dimensioned M3 miniature probe. The threaded M3 head allows for secure, flush mounting inside narrow brackets or directly onto moving robotic appendages. Accompanying the miniature head is a specialized 40mm protective conduit tube. This rigid metallic sleeve acts as a physical barrier, shielding the transition point where the delicate internal fiber cores meet the external environment. Handling the 1-meter fiber cable reveals a pliable yet resilient outer jacket, measuring Φ1.0 and Φ1.3 respectively, designed to withstand repetitive flexing. The tactile rigidity of the 40mm conduit contrasts with the flexibility of the main cable, offering targeted mechanical protection exactly where the fiber is most vulnerable to crushing or abrasion. This thoughtful structural layout ensures the sensor can be routed through complex machine chassis without compromising signal integrity.
This coaxial diffuse reflection fiber is engineered for integration across a wide spectrum of demanding industrial applications, specifically where standard sensors fail to fit or function. With an optimal sensing distance of 80mm, the unit provides ample standoff range, keeping the delicate optical face safely away from moving mechanical parts while maintaining pinpoint accuracy. The structural and optical characteristics make it an essential component for precision positioning tasks.
By integrating this sensor into these workflows, facility managers can achieve tighter operational tolerances and improve overall throughput. The consistent detection capability directly translates to fewer rejected parts and a more streamlined manufacturing process.
Procurement professionals require components that deliver long-term reliability and predictable availability. The FFRC-310-M is manufactured under strict quality control protocols, backed by multiple core technology patents and rigorous safety certifications. Each unit undergoes extensive optical testing to ensure the fiber cores transmit light efficiently over the entire operational lifespan, resisting degradation even in harsh industrial conditions. Beyond basic functionality, the sensors are subjected to demanding environmental assessments, including thermal cycling and continuous vibration simulations, replicating the exact stresses found in heavy manufacturing facilities. This meticulous approach to quality assurance means the sensor will perform consistently from the first day of installation through years of continuous operation. For supply chain stability, this model is supported by a direct-from-manufacturer distribution model. This structure guarantees rapid order fulfillment, significantly reducing lead times for critical replacement parts or large-scale facility upgrades. Facilities planning new automation projects can request sample units for rigorous on-site testing, allowing engineering teams to verify the sensor's performance against specific material targets before committing to full-scale deployment. By maintaining a highly efficient production and distribution network, the supplier provides exceptional cost efficiency, helping operational managers optimize their procurement budgets while securing dependable, industrial-grade sensing components.