SFP-10GZRLC-T-BCC | Moxa Compatible 10GB Single-Mode ZR - 80km (10GBASE-ZR)

Q: Will this work in place of the Moxa SFP-10GZRLC-T?
A: Yes. This transceiver is designed as a direct replacement for the Moxa SFP-10GZRLC-T. It shares the same SFP+ form factor, 10GBASE-ZR standard compliance, 1550nm wavelength, and 80km reach specification. The module is plug-and-play compatible with Moxa industrial switches that accept the original transceiver.

Q: Which Moxa switch platforms support this transceiver?
A: This module is compatible with Moxa switches that support 10 Gigabit SFP+ ports and accept the SFP-10G series transceivers. The -40 to 85°C wide temperature variant specifically supports harsh-environment switch families. Verify your switch model includes 10G SFP+ slots and supports single-mode 80km optics.

Q: What fiber type and link budget does this transceiver require?
A: This module requires G.652 standard single-mode fiber (9/125um). To achieve the full 80km reach, your fiber link budget must satisfy: link budget (dB) > dispersion penalty (dB) + total link loss (dB). For links under 20km, a 5dB fixed attenuator may be required to avoid receiver overload. Patch cords must use PC or UPC connectors, not APC.

Q: How do I access the digital diagnostic monitoring data?
A: DDM parameters are accessible via the SFF-8472 standard interface. Most managed switches expose these values through CLI commands, SNMP MIBs, or web interfaces. You can monitor TX/RX optical power (dBm), transceiver temperature, supply voltage, and laser bias current in real time to detect degrading fiber, dirty connectors, or component aging before link failure.

Q: Can this transceiver operate in outdoor or substation environments?
A: Yes. The -40 to 85°C operating range and industrial-grade design make this module suitable for outdoor cabinets, railway trackside installations, and electrical substation switchgear. The wide temperature tolerance eliminates the need for climate control in enclosed spaces. Ensure the host switch also supports the same temperature range for system-level reliability.