| Parameter | Value |
|---|---|
| Fiber head diameter | M3 |
| Fiber cable outer/core | Φ1.3 / Φ0.25*9 |
| Cable length | 1M |
| Conduit tube | Not required |
| Sensing distance | 500MM (LONG: 600MM) |
| Fiber type | Coaxial, through-beam |
| Head material | Stainless steel |
| Bending radius | R5 |
| Light exit | Front exit |
| Cuttable | Yes |
| Weight | 5.97g |
| Temp. range | -20°C ~ +70°C |
FFTC9-310
F&C
| Availability: | |
|---|---|
| Quantity: | |
Parameter | Value |
|---|---|
Fiber head diameter | M3 |
Fiber cable outer/core | Φ1.3 / Φ0.25*9 |
Cable length | 1M |
Conduit tube | Not required |
Sensing distance | 500MM (LONG: 600MM) |
Fiber type | Coaxial, through-beam |
Head material | Stainless steel |
Bending radius | R5 |
Light exit | Front exit |
Cuttable | Yes |
Weight | 5.97g |
Temp. range | -20°C ~ +70°C |
The FFTC9-310 coaxial through-beam fiber optic cable is engineered for demanding industrial environments where space is limited and precision is non-negotiable. Utilizing a specialized coaxial optical arrangement, this sensor component delivers highly focused light transmission, enabling reliable detection of micro-objects even in complex mechanical setups. The unit achieves a standard sensing distance of 500mm, extendable up to 600mm under optimal conditions, ensuring consistent signal integrity across wider operational gaps. By maintaining strict optical alignment, the coaxial configuration minimizes false triggers caused by ambient light interference or reflective surfaces. The front exit light path ensures that the beam is directed exactly where intended, eliminating scatter and focusing energy strictly on the target area. This focused intensity is crucial when identifying microscopic flaws or confirming the position of hair-thin wires. Engineers tasked with designing compact automation modules will find the M3 threaded head particularly advantageous, as the precision-machined threads provide firm tactile feedback during installation, securely anchoring into tight mounting brackets while resisting vibrational loosening during continuous machine operation.
Constructed with a premium stainless steel sensing head, the device offers a cool, rigid metallic feel and exceptional resistance to physical impact and corrosive airborne particulates common in factory settings. The weight of just 5.97g is barely noticeable in the hand, yet the stainless steel housing feels incredibly solid, bridging the gap between lightweight agility and industrial endurance. The internal fiber core, measuring Φ0.25mm across nine individual strands, is protected by a flexible Φ1.3mm outer jacket. This specific construction permits an R5 minimum bending radius. Such extreme flexibility means the cable can be routed around sharp corners, woven through dense wiring harnesses, and integrated into moving robotic arms without risking micro-fractures in the internal glass or plastic fibers. Furthermore, the cable is fully cuttable. This allows installation technicians to tailor the 1-meter length exactly to the machine's dimensions, ensuring a clean, straight cut for maximum light exit efficiency and eliminating excess loops that could catch on moving parts. Operating reliably within a temperature span of -20°C to +70°C, the sensor maintains its structural integrity and optical clarity whether exposed to cold storage environments or the localized heat generated by continuously running motors.
This fiber optic solution is specifically tailored for sectors requiring meticulous object verification in confined operational footprints:
In each scenario, the ultra-lightweight profile adds negligible mass to moving actuator heads, preserving the kinetic efficiency and speed of rapid-cycle equipment.
To accelerate the design and integration phases, comprehensive technical documentation accompanies this product. Automation engineers can access detailed 3D models and precise CAD drawings, facilitating exact spatial planning within complex virtual machine assemblies long before physical prototyping begins. Engineering teams can rely on these exact dimensional files to avoid costly rework, ensuring that mounting brackets and conduit pathways are perfectly sized on the first iteration. Complete product specification sheets are available for download, providing necessary electrical and optical parameters for system programming. For projects requiring empirical validation, sample requests and on-site demonstration tests can be arranged. This hands-on approach allows technical teams to observe the sensor's response times and accuracy within their specific operational context, significantly reducing the friction typically associated with adopting new sensory components.
Every unit undergoes rigorous industrial testing protocols, including leakage current evaluations and residual voltage assessments, to guarantee long-term operational safety and reliability. Backed by national safety certifications and proprietary technological patents, the design prioritizes consistent performance over thousands of operational hours. By maintaining strict manufacturing tolerances, each fiber optic cable performs identically to the last, ensuring that multi-sensor arrays operate in perfect harmony without requiring individual calibration adjustments. For procurement teams looking to optimize supply chains, this sensor serves as an exact drop-in replacement for many mainstream brands, effectively lowering overall acquisition costs without compromising detection accuracy. Should a specialized application demand unique cable lengths, alternative threading, or specific environmental shielding, dedicated customization services are available. With a focus on stable production lead times and rapid technical response, project managers can confidently schedule large-scale equipment rollouts.