Last week I posted a blog about what is driving the adoption of high density fiber enclosures. High density fiber enclosures can help reduce the high cost of real estate. Possibly, one might find themselves with a data center where space is constrained so a high density fiber enclosure can help ease those space constraints. I also said that high density fiber enclosures are used in data centers that are revenue generators because they make it possible to include more revenue-generating active equipment.
So a high density fiber enclosure helps add more equipment to a finite amount of space, but, as they say, there is no free lunch.
Real estate is one of the primary reasons that high density fiber enclosures are deployed in the data center. In some parts of the world, real estate is very expensive. One way to save cap ex is to try to use the smallest data center possible. The smaller the data center, the less square area required, and therefore, lower cap ex. This would certainly be the case if one is using a co-lo facility. Of course, a smaller data center also means lower op ex, e.g., less cooling, etc.
Another reason, also driven by real estate, is that the data center’s size is fixed. The data center cannot be enlarged. This might be the situation in dense urban areas where a larger space does not exist. The only way to add more functionality to the data center is to try and find a way to cram in more equipment. Hence, using a high density fiber enclosure.
Another less obvious reason for using a high density fiber enclosure is the trend towards data centers becoming profit centers. Historically, data centers were perceived as a cost of doing business. Depending on the business you are in, that may no longer be the case.
This question is not asked enough by data center designers, owners or managers as they build-out new whitespace. Cabinets are the foundation of the data center’s physical infrastructure, used throughout the life cycle of the facility. IT equipment that runs the applications are contained within them, the cabling that connects the equipment to the users and the LAN/SANs are terminated and managed in them, power is distributed within them, and cooling is channeled through them. They are also the most visible infrastructure element, and how they look and fit together is often an indicator of how a data center is run and managed.
Why then are they frequently taken for granted, simply considered “big metal boxes”? Why isn’t there more emphasis on cabinets being considered an asset that helps reduce operational costs?
You are ready to deploy 10 gigabit Ethernet, but what media type should you use? As you might suspect, that is not a straightforward question to answer. There are several things you need to consider before making the right choice, and some of the choices may be contradictory.
Does you data center require using a structured cabling solution? If so, then you will most like stay away from Direct Attach Cable (DAC) assemblies used for 10GBASE-CR because that is a point-to-point solution, and lean toward 10GBASE-T.
In Part 1 of “Adding New Physical Infrastructure” I reviewed three typical approaches taken by managers of small and mid-sized data centers to add new physical infrastructure: (1) build-it-yourself using in-house resources to design and integrate all elements of the infrastructure, (2) rely on a single supplier for design and integration, or (3) entrust multiple best-of-breed vendors to get it done.
We have a different take. As discussed in Part 1, you are likely to face significant risks and expense as you attempt to manage a wide range of technical details, complex project management issues, and multiple vendor relationships. Leveraging physical infrastructure expertise and partnerships with best of breed power and cooling suppliers, Panduit offers an Integrated Infrastructureapproach that combines the benefits of both the single-source and best-of-breed approaches with the ease of managing a single supplier.
How do you build out a new data center physical infrastructure?
Under the best of circumstances, building out new data center capacity is complex, expensive, time consuming and fraught with risk. Experts, engineers and consultants are needed for everything from designing the building shell, planning power and cooling systems, to commissioning. These are just the major categories. Think about the expertise needed to manage all the details that cascade from them!
If you are responsible for a small to mid-sized data center you may be faced with doing more of this yourself given the available resources. Increased complexity makes it difficult to find and retain people who possess all the essential skills needed to design and integrate the power, cooling, racks, cabling and other components necessary to complete the build correctly, and on-time. Taking on the coordination of the build-out in addition to normal responsibilities can be overwhelming.
The other day I was participating in a conversation with a customer about LAN and SAN speeds greater than 10G. It was a good conversation and the customer had numerous questions about migrating to 40G Ethernet; what is happening with 100G Ethernet, using multiple fibers for Fibre Channel, etc.
Toward the end of the conversation I asked them about their plans regarding deploying 40G Ethernet. They replied that they had no immediate plans for deploying 40G and that the reason they wanted to talk about it was to make sure that their LAN infrastructure could support it in the future. They plan on deploying 10G Ethernet in the new data center.
That revelation hit me with the same impact as participating in an ice bucket challenge.
A concern has been growing in recent years over the potential for a technical skills shortage in the U.S., Canada, and elsewhere around the globe, particularly in science, and engineering-related occupations.
It is generally predicted that, by 2018, a mass wave of retirements by members of the Baby Boom generation will result in 1.2 million U.S. job openings in science, technology, engineering, and math (STEM) fields, and there will likely be a significant shortage of qualified applicants to fill them. The full depth of the STEM skills shortage may be even greater than this, as 50 percent of jobs that require STEM skills do not require a bachelor’s degree or better, according to Plant Services.
I recently had the opportunity to discuss an application for a retrofit containment systeminstalled into an existing data center with a sales person. Not an uncommon story, given the effectiveness of separating cold and hot air streams in the data center to reduce cooling energy consumption. The part of the story that stood out for me was that the sales person enthusiastically related how the end user realized an instant payback on the containment system and had money left over. It sounded too good to be true. My first thought was just how badly is this data center being operated that the retrofitting of a containment system would yield an instant payback and still have money left over???