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ISI’s reporting solution, Infortel® Select, allows organizations that implement the Cisco platform a view into their business operations. Utilizing the metrics made available through call reporting and recording, you are given a mature picture of business development.
Cisco is a worldwide leader in networking that transforms the way that people connect, communicate, and collaborate. Corning Cable Systems, part of the Corning Incorporated telecommunications segment, is a leading manufacturer of fiber optic communications system solutions for voice, data, and video network applications worldwide. As data centers consolidate into more complex systems, they take advantage of new speed increases and technologies.
The new Cisco Nexus 6000 Series provides high 10 and 40 Gigabit Ethernet density in energy-efficient switches with a compact form factor. A structured cabling system provides a flexible cabling plan to address the commonly performed tasks of moving, adding, or changing the infrastructure as the network grows.
A good analogy in support of a structured cabling system is the electrical wiring in your home. Structured cabling requires additional initial investment to create the cabling infrastructure, but the recurring benefits more than outweigh the slight additional incremental cost. Structured cabling uses fiber termination connector panels that are connected through permanent links of optical cabling, typically configured in a star topology.
Unstructured cabling occurs when optical links are deployed in a point-to-point or device-to-device design. As a result of the emergence of high-data-rate systems such as 10, 40, and 100 Gigabit Ethernet, laser-optimized multimode fiber has become the dominant fiber choice.
The transceiver is an electronic device that receives an electrical signal, converts it into a light signal, and launches the signal into a fiber.
SFP+ is the dominant transceiver form factor used for 1 and 10 Gigabit Ethernet applications. The QSFP+ transceiver is the dominant transceiver form factor used for 40 Gigabit Ethernet applications.
These fiber trunk cables are typically 12-144 fibers and create the permanent fiber links between patch panels in a structured environment. The LC or MTP jumpers serve to create the connection between the device port sand the structured cabling via the connector panel.
This section presents a sample customer data center deployment and shows how the products and the structured cabling are deployed. In general, a data center has two points-of-presence (POP) rooms; this is where the campus or carrier demarcation occurs. These are the various physical areas of the data center space; next consider the placement of network equipment.
When cabling between the MDA and the HDA (Figure 4), some cabling considerations depend on the layout of the data center.
Another consideration is the flexibility associated with a cross-connect, also referred to as a patch-panel field.
Some links may not require the flexibility of having a cross-connect, and in this case, a direct interconnect would be deployed.
Figure 8 shows an alternative connectivity scheme for a 10-Gbps flow between the Cisco Nexus 7000 Series and the Cisco Nexus 6004. Table 4 shows a sample bill of materials for the MDA-to-HDA connectivity shown in Figures 5 through 8. Most network endpoints will be either 1- or 10-Gbps devices, so minor cabling changes are needed to support 10-Gbps devices such as the Cisco Nexus 5548. The Cisco Nexus 6004 has enormous deployment flexibility and can also be used as a fabric extender aggregator in EoR or MoR deployments or as an uplink aggregation device. In all these connections, the Cisco Nexus 6004 is used to connect to a 10-Gbps switch such as the Cisco Nexus 5500 platform or a fabric extender, and the ports on the Cisco Nexus 6004 will be configured in 10 Gigabit Ethernet mode to match those of the Cisco Nexus 5500 platform.
Table 5 shows a sample bill of materials for the HDA-to-EDA connectivity shown in Figures 9 through 14.
This provides access to reporting functions that shed light on traffic capacity and telecom usage patterns at the organizational level. This can then be used to leverage your company’s EcoSystem to dramatically lower costs, as well as improve training and the customer's experience. Although alternative cabling options are mentioned (Twinax and active optical assemblies), the main focus of the document is cabling for pluggable optical Enhanced Quad Small Form-Factor Pluggable (QSFP+) modules.

Cisco Nexus 6000 Series-based architecture can adapt to increasing bandwidth demands with low power and a compact space profile, providing savings in capital expenditures (CapEx) and operating expenses (OpEx). When connecting appliances and devices, you require only a 5-foot connection to the closest electrical outlet. Imagine the cost of deploying a two-fiber optical jumper each time a new server is placed in the data center. All cabling in the data center server areas is consolidated in a central location near the core switch in the network (the core switch is analogous to the breaker or power panel in the home electrical system analogy). In this situation, cabling pathways become congested with an entangled mess of two-fiber optical patch cords (Figure 2).
These 50-micron fibers are optimized for the 850-nanometer (nm) transmission of vertical-cavity surface-emitting laser (VCSEL)-based transceivers. They are pre-terminated from the manufacturer with MTP Connectors at a specified length and have a pulling grip for easy installation.
They breakout the MTP connections from the trunk cables, into LC connections for 1 and 10G applications. They offer a connection point between the MTP trunk and MTP jumper for 40 and 100G applications. This example examines some typical optical connectivity links in a large-scale fabric and looks specifically at the data center environment, but the same connectivity can apply to a consolidated campus and data center core or commercial fabric.
This structured cabling trunk typically is a high-fiber-count (>48 fibers) MTP trunk cable. This port-level patching location (outlined with a dotted line in Figure 5) allows connectivity between any port and any other port in an organized way. A typical network core may be composed of Cisco Nexus 7000 Series devices, and the aggregation layer may consist of a Cisco Nexus 6004 Switch. Permanent structured cabling links would be deployed using these MTP-based trunks to create connector patching fields at each end.
The rest of the infrastructure from the Cisco Nexus 6000 Series Switch through the patch-panel field would remain the same for 40-Gbps flows.
In this situation, the structured cabling (MTP trunk) would still be terminated in rack-mounted patching panels at the network devices; then there is an interconnect using a jumper from the patch field directly to the device. This scheme uses an MTP module with LC jumpers, instead of the eight-fiber harness assembly shown in Figure 7.
Figure 9 shows a Cisco Nexus 6004 that is connected to the base ports of a Cisco Nexus 5500 platform switch. Deployments of this type could be used in places in which the Cisco Nexus 5500 platform is a ToR switch or a fabric extender aggregator. In these deployments, the ports on the Cisco Nexus 6004 simplify cabling through the use of MTP optic cabling end to end, and the switch supports 40-Gbps flows for the future (Figure 11). The other end of the cable will be an MTP cable that connects to an MTP adapter panel that is installed in an adapter panel carrier. Here a structured cabling trunk is used to connect these devices which could be hundreds of feet apart in separate rows of cabinets. This solution is designed to pay for itself by lowering total cost of ownership and positioning company communications for future growth.
With speeds in the data center now increasing from 10 Gbps to 40 Gbps and eventually to 100 Gbps, different optical technologies and cabling infrastructures are required.
However, without an electrical outlet, all appliances would have to connect directly to the breaker or panel, requiring a cable of 200 feet or more. Further, regardless of whether the data center has a raised floor or uses overhead cabling, both result in time-consuming and inefficient deployment in an unstructured environment. The permanent preterminated trunk cables branch to the zones in the data center, which contain servers, storage, or network devices. The TIA-492AAAC OM3 detailed fiber standard was released in March 2002, and the TIA-492AAAD OM4 detailed fiber standard was released in August 2009. Thus, the trunk cables would plug into the rear MTP of the module, while the LC jumpers would plug into the front of the module. Thus, the trunk cables would plug into the rear of the panel, while the MTP jumpers would plug into the front of the panel.
The MDA is cabled to the horizontal distribution area (HDA) in each data hall (or point of distribution [POD]). If the cable runs in high-traffic areas with pathways shared with other mechanical support systems, an interlocking armored cable often is selected.

The flexibility created by this central patching field guarantees the ability to achieve any desired link configuration. When the Cisco Nexus 6004 is used as an aggregation device with connectivity to a core such a Cisco Nexus 7000 Series Switch through a structured cabling infrastructure, the device may be part of either a 10- or 40-Gbps fabric.
Then short MTP or LC jumper patch cables would be used to make the connection from the patch field to the QSFP+ or SFP+ optics at the switch port.
Figure 7 shows a 10-Gbps interconnect link between a Cisco Nexus 7000 Series Switch and a Cisco Nexus 6000 Series Switch. This approach provides more flexibility when patching at the SFP+ connections, especially when patching between port groups or across blades. These endpoint connections will be MTP and LC, respectively, and the structured cabling infrastructure maintains MTP trunks and panels. In both cases, the Cisco Nexus 6004 is used as an aggregation point for the network edge, as shown in Figure 10. Connectivity between the two adapter panels is achieved with high-fiber-count MTP trunk cables (D). The essential business deployment functions can accommodate the collaboration of up to 1,000 users, while remaining scalable for future transition to a more advanced Cisco platform. This approach would be inefficient and would become unmanageable as you add multiple appliances or devices throughout the home. Likewise, management of such an environment is cumbersome, increasing the risk of outages caused by human errors. Note that with structured cabling, you still need some device-to-device connections at the access layer.
Corning suggests installing either OM3 or OM4 cabling in the data center space based on length requirements. The 850-nm VCSEL transceiver provides the optimum technical and economic solution for high-bit-rate (=>1 Gbps) operation that makes 50-micron multimode fiber the most deployed optical fibers in the data center today. For example, connecting a TOR switch with (4) 10G uplinks into a single 40G port on the aggregation switch.
The HDA, also known as the aggregation point, then fans out to each equipment distribution area (EDA) for direct server or storage connectivity.
The MTP patch-panel field allows the end device to be connected to any port across multiple Cisco Nexus 6004 devices because the devices terminate at the patch-panel field. This approach will require a MTP-to-LC harness assembly to make the connection from the termination patch field to the Cisco Nexus 5500 platform. These trunks allow fast connection of large fiber counts quickly and effortlessly (Figure 12). This configuration takes advantage of the MTP cabling and also allows full support of 40-Gbps flows between the devices. The same concept applies to data centers, in which structured cabling becomes a necessity as the infrastructure grows and as constant moves and changes reinforce the need for a reliable network that is also easy to troubleshoot. As you can see in Figure 1, when making these short connections within the same cabinet or even a few cabinets away, the use of patch panels may not be required. The two fibers have different bandwidths (information carrying capacity), which results in different achievable lengths for the same transceivers.
In addition, depending on the size of the data center, the distance may require single-mode cabling for the additional distance support. A MPO jumper can be used to make the connection from the termination patch field to the Cisco Nexus 6004. Table 1 shows the achievable distances based on the OM3 and OM4 fibers at various data rates. The EDA typically is the ToR patch panel or a ToR networking device such as a Cisco Nexus 5500 switching platform or Cisco Nexus 2000 Series Fabric Extender.
The pathway from the MDA to the HDA typically is the longest internal data center link in the system.
TIA 942-A Telecommunication Infrastructure Standards for Data Centers only recognizes OM3 and OM4 multimode fiber type (it removed OM1, which was 62.5, and OM2, which was standard 50 micron).

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