XFP10GER192IR-RGD Cisco 10GBPS Fiber Transceiver Module

Cisco 10GBPS Fiber Transceiver Module

The Cisco XFP10GER192IR-RGD is a high‑efficiency optical fiber transceiver module engineered for long‑range data transmission. Designed for 10Gbps networking environments, this plug‑in XFP module supports OC‑192/STM‑64 IR‑2 and 10GBase‑ER/EW standards, offering dependable performance over single‑mode fiber with a duplex LC connector.

General Information

• Manufacturer: Cisco Systems
• Part Number: XFP10GER192IR-RGD
• Device Type: Optical Transceiver Module

Technical Information

• Compact plug‑in module design
• Connectivity Technology: Wired
• Cabling Type: 10GBASE‑ER, 10GBASE‑EW
• Data Link Protocols: SONET/SDH, 10 Gigabit Ethernet
• Data Transfer Rate: 10 Gbps
• Optical Wavelength: 1550 nm
• Line Rate: OC‑192 / STM‑64
• Maximum Transmission Distance: 24.9 miles
• Key Feature: POS (Packet Over SONET)
• Compliance Standards: IEEE 802.3ae

Expansion & Connectivity

• 1 x Ethernet 10GBASE‑ER / 10GBASE‑EW
• LC Single‑Mode Fiber (Duplex)

Power Specifications

• 3.5 Watts

Key Advantages

• Long‑distance optical transmission ideal for enterprise and telecom networks
• High‑speed 10Gbps throughput for demanding data environments
• Reliable single‑mode fiber performance with LC duplex connectors
• Efficient plug‑in form factor for seamless integration
• Compliant with industry‑standard IEEE 802.3ae specifications

Overview of Cisco 10GBPS XFP Transceiver Module Overview

The XFP10GER192IR-RGD optical transceiver module represents a high-performance 10Gbps networking component engineered for long-reach, high-capacity optical communication environments. Designed to support OC-192/STM-64 and 10G Ethernet standards, this XFP module operates over single-mode fiber with exceptional signal integrity and stability across extended distances up to 40 kilometers. Built for carrier-grade and enterprise backbone applications, it enables seamless integration into dense wavelength and metro optical systems where reliability, bandwidth efficiency, and optical precision are essential.

Developed under rigorous telecommunications standards, this module belongs to a class of optical transceivers widely deployed in service provider networks, data center interconnects, and large-scale metropolitan area networks. Its support for IR-2 and ER/EW optical specifications ensures compatibility with diverse network infrastructures that require flexible long-haul transmission capabilities without compromising performance or stability.

Advanced Optical Networking Technology Foundation

The 10GBase-ER and 10GBase-EW standards define Ethernet transmission over extended reach single-mode fiber using 1550nm wavelength lasers. These standards are essential for long-distance data transmission where intermediate signal regeneration must be minimized. The ER designation typically refers to Ethernet over extended reach, while EW aligns with WAN PHY compatibility for SONET/SDH networks.

In practical deployment, these standards ensure that the optical transceiver can maintain signal integrity across long fiber spans, reducing attenuation issues and maintaining low bit error rates. The XFP10GER192IR-RGD is optimized to operate efficiently in both Ethernet and SONET-based architectures, making it a versatile solution for hybrid network environments.

OC-192 and STM-64 Network Compatibility

OC-192 (Optical Carrier level 192) and STM-64 (Synchronous Transport Module level 64) are high-capacity transport protocols used in backbone optical networks. Supporting data rates close to 10Gbps, these standards are widely adopted by telecommunications providers for high-speed trunk lines.

The integration of OC-192/STM-64 support into this XFP module enables seamless interoperability with legacy and modern optical transport systems. This ensures that service providers can upgrade infrastructure without complete system overhauls, preserving investment while enhancing throughput capacity and transmission efficiency.

Physical Layer Design and Optical Characteristics

1550nm Wavelength Transmission Efficiency

Operating at a wavelength of 1550 nanometers, the XFP10GER192IR-RGD leverages one of the most efficient transmission windows in single-mode fiber technology. This wavelength range is known for its minimal attenuation characteristics, making it ideal for long-distance communication systems.

At 1550nm, optical signals experience reduced dispersion and lower signal degradation, which significantly improves transmission reliability over distances reaching up to 40 kilometers. This enables stable high-speed data transfer in metropolitan and regional backbone networks where consistent uptime is critical.

Extended Reach up to 40 Kilometers

One of the defining characteristics of this transceiver module is its ability to transmit data over distances up to 40km without requiring signal regeneration. This extended reach capability is essential for metropolitan area networks, campus interconnects, and service provider aggregation networks.

By maintaining strong optical signal strength across long fiber runs, the module reduces the need for intermediate repeaters, thereby lowering infrastructure complexity and operational costs. This makes it an efficient solution for organizations aiming to scale network coverage without significantly increasing hardware dependencies.

Duplex LC Connector Architecture

The module uses a duplex LC connector interface, which is widely adopted in high-speed optical networking due to its compact form factor and reliable alignment mechanism. The duplex configuration allows simultaneous transmission and reception of optical signals, enabling full-duplex communication over a single fiber pair.

The LC connector design enhances fiber alignment precision, reducing insertion loss and improving overall signal integrity. This is particularly important in 10Gbps environments where even minor signal degradation can impact network performance and data reliability.

Engineering Design and Structural Reliability

Compact XFP Form Factor Integration

The XFP form factor is a standardized hot-pluggable module design that supports high-speed optical communication without requiring internal host system modifications. The compact size allows for higher port density in networking equipment, enabling efficient use of physical space in switches, routers, and optical transport platforms.

The XFP10GER192IR-RGD leverages this form factor to ensure compatibility across a wide range of networking devices, simplifying deployment and reducing integration complexity in large-scale infrastructures.

Thermal Stability and Power Efficiency

Thermal performance is a critical aspect of optical transceiver design. This module incorporates advanced thermal regulation mechanisms that maintain stable performance even under continuous high-load operation. Efficient power consumption ensures minimal heat generation, which enhances device longevity and reduces cooling requirements within network hardware environments.

By optimizing electrical-to-optical conversion efficiency, the module minimizes energy waste while maintaining consistent signal output quality across varying operational conditions.

Network Applications and Deployment Scenarios

Metropolitan Area Network Connectivity

Metropolitan Area Networks rely heavily on high-capacity optical links to interconnect geographically distributed nodes within urban regions. The XFP10GER192IR-RGD is well-suited for such environments due to its extended reach and stable long-distance transmission capabilities.

It enables service providers to connect central offices, aggregation points, and edge nodes with high bandwidth consistency, ensuring smooth data flow across dense metropolitan infrastructures.

Carrier-Grade Backbone Infrastructure

In carrier backbone systems, reliability and scalability are critical requirements. This transceiver module supports the high-throughput demands of backbone networks that handle large volumes of aggregated internet traffic, voice communication, and enterprise data services.

Its compatibility with OC-192/STM-64 transport systems makes it suitable for integration into global telecommunications infrastructure, where uninterrupted service delivery is essential.

Enterprise Wide Area Network Deployment

Large enterprises with distributed branch offices rely on secure and high-speed WAN connectivity. This XFP module enables long-distance interconnection between corporate data centers and remote offices, ensuring seamless access to centralized applications and cloud services.

Its ability to maintain stable transmission over long distances ensures that enterprise communication systems remain efficient, secure, and highly responsive.

Compatibility with Networking Equipment Ecosystems

Router and Switch Integration

The XFP10GER192IR-RGD is designed for compatibility with a wide range of optical networking equipment, including carrier-grade routers and high-performance switches. This ensures flexible deployment across multiple vendor environments and reduces interoperability concerns.

Its standardized XFP interface allows for plug-and-play installation in supported ports, enabling rapid network scaling and simplified maintenance operations.

Interoperability Across Optical Networks

Interoperability is a critical factor in modern optical networking environments where multiple transmission standards coexist. This module is engineered to support seamless interaction between Ethernet-based and SONET/SDH-based systems, ensuring smooth data exchange across heterogeneous infrastructures.

Such compatibility is essential for organizations transitioning from legacy optical systems to modern high-speed Ethernet networks.

Performance Optimization and Signal Integrity

Low Bit Error Rate Operation

Maintaining a low bit error rate is essential for high-speed optical communication systems. The XFP10GER192IR-RGD is engineered to deliver consistent signal integrity even under challenging network conditions, ensuring accurate data transmission over long distances.

Advanced laser modulation techniques and signal conditioning mechanisms contribute to reducing transmission errors and enhancing overall network reliability.

Signal Amplification and Loss Management

Optical signal loss is a natural phenomenon in fiber transmission systems. This module is optimized to manage attenuation effectively through high-quality optical components and precise signal amplification strategies.

By maintaining balanced optical output power, the transceiver ensures that signals remain within acceptable thresholds across extended fiber runs, preserving data integrity.