The 1x2 Mechanical Optical Switch is a compact, high‑performance fiber routing component designed for demanding optical test, sensing, and network monitoring applications. With a wide operating wavelength range from 1260–1620 nm for single‑mode fibers and 850 nm for multimode fibers, this switch supports common telecommunication bands as well as short‑wavelength datacom and sensor systems. Its small footprint (27.0 mm × 12.0 mm × 8.2 mm) allows easy integration into dense instrumentation, transceiver modules, and rack‑mount systems where space and optical performance are equally critical.

Insertion loss is kept extremely low, at ≤0.6 dB, which helps preserve system power budgets and extend reach without the need for additional amplification. The switch offers excellent wavelength, polarization, and temperature stability, with wavelength dependent loss ≤0.25 dB, polarization dependent loss ≤0.05 dB, and temperature dependent loss ≤0.20 dB. These characteristics make it suitable for precision measurement setups and high‑accuracy optical paths where even minor variations can impact overall performance. An epoxy‑free optical path further enhances long‑term reliability and minimizes outgassing and contamination in sensitive environments such as laboratories and clean‑room instrumentation.

For systems requiring strong signal fidelity, the 1x2 Mechanical Optical Switch delivers a high return loss of ≥50 dB for single‑mode and ≥30 dB for multimode configurations, reducing back‑reflections that can interfere with lasers, detectors, or interferometric setups. Crosstalk performance is equally robust, with ≥55 dB isolation in single‑mode and ≥35 dB in multimode operation, ensuring that optical channels remain cleanly separated. This combination of low loss, high isolation, and low back‑reflection supports applications such as coherent transmission, optical time‑domain reflectometry (OTDR), and precision end‑to‑end loss measurement.

The device supports both latching and non‑latching configurations with operating voltages of 3 V or 5 V, allowing designers to match drive requirements to their system electronics. Latching types maintain their state without continuous drive current, which is advantageous in power‑sensitive or battery‑operated equipment. Non‑latching options are ideal where frequent switching and straightforward control logic are priorities. Clearly defined pin configurations for the electric drive and state sensor pins simplify PCB layout and integration with microcontrollers, FPGAs, and dedicated switch drivers commonly used in optical modules.

With a switch time of ≤8 ms, the 1x2 mechanical design offers a good balance between speed and stability, making it appropriate for dynamic optical routing, automated test setups, and fiber‑based sensor multiplexing. Repeatability of ≤±0.02 dB ensures that repeated switching events do not introduce measurable deviations, which is essential for calibrated measurement systems and closed‑loop monitoring platforms. The switch is rated for at least 107 operations, providing a long service life even under frequent actuation cycles typical of automated test equipment and network surveillance applications.

The operating temperature range of −20 °C to +70 °C and storage range of −40 °C to +85 °C allow deployment in a wide variety of environments, from laboratory benches and production lines to controlled field enclosures. The maximum optical power handling of ≤500 mW supports most standard telecom and datacom‑class sources, including many laser diodes and fiber‑amplified links. Available fiber types include standard single‑mode (9/125 µm) and multimode (50/125 µm, 62.5/125 µm), with options for customized fibers on request, ensuring compatibility with existing network infrastructures and sensor platforms.

To streamline installation and system design, the 1x2 Mechanical Optical Switch can be configured with a range of fiber jacket types, cable lengths, and industry‑standard connectors. Typical options include bare 250 µm fibers or 900 µm buffered pigtails, with standard lengths such as 0.5 m, 1.0 m, and 1.5 m. Connector interfaces can be tailored to the target system, including FC/PC, FC/APC, SC/PC, SC/APC, LC/PC, LC/APC, or other connector types as needed. This flexibility makes the switch suitable for instrumentation front‑ends, optical distribution frames, test harnesses, and embedded OEM subsystems, enabling efficient deployment in both existing and new optical architectures.

Whether used in optical network monitoring, fiber‑based sensing arrays, laboratory instrumentation, or end‑to‑end link characterization, this 1x2 Mechanical Optical Switch offers a robust balance of low insertion loss, high isolation, fast and repeatable switching, and durable construction.