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09 Sep.,2024

 

5 Reasons Why IT Professionals Choose Fiber Optic ...

When you are building a network that requires long distances, high speeds, and/or heavy bandwidth connections, there is no question: fiber optic cables win the day.

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To understand why, and where copper cables may still be the best solution, it&#;s important to understand the differences between the two.

Both cable types transmit data, but in very different ways. Copper carries electrical pulses along its metal strands. Fiber optics, on the other hand, carry pulses of light along flexible glass threads. This difference often equates to fiber being the best solution for a new or upgraded network, and therefore being worth the heavier up-front investment.

5 Reasons IT Pros Choose Fiber Optic Cables

1. Fiber optic transmission is faster

The standard way to measure data transmission rates is via bandwidth. These days, it is measured in gigabits of data per second (Gbps), or even terabits per second (Tbps).

Copper-based transmissions currently max out at 40 Gbps, whereas fiber optics can carry data at close to the speed of light. In fact, the bandwidth limits imposed on fiber are primarily theoretical, but have been tested to be measurable in hundreds of terabits per second.

2. Fiber optic transmission can cover greater distances

Both copper and fiber-based signaling suffers from attenuation, or a weakening of the waveform signal over distance. However, fiber optic cables can transmit data over much longer distances. In fact,the differences are vast.

Copper cables are limited to lengths of 100 meters (~330 ft.), per governing standards. Longer distances are theoretically possible, but may introduce other problems, preventing copper from being a reliable transmission method at greater distances. Fiber optic cabling, depending on signaling and type of cable, can transmit up to well over 24 miles!

3. Fiber optic cables are impervious to electromagnetic interference (EMI)

By its very nature, the electrical signaling in a copper network connection generates a field of interference around the cables. When you have multiple cables running near one another this interference can bleed into the nearby cables, hindering the desired messaging. This is referred to as crosstalk, and can force expensive retransmission of the message, or even pose security risks.

The light transmission in fiber optics does not generate any EMI, so fiber winds up being more secure, and requires less retransmission, ultimately leading toward a stronger ROI.

4. Save spaceand enhance cable management

Fiber optic strands are extremely narrow. In fact, they&#;re measured in microns, or millionths of a meter. The most common fiber optic strand is the same diameter as a human hair. Yet as we&#;ve seen, they can transmit incredible amounts of data, at much higher speeds, over much longer distances than their less narrow copper counterpart. Fiber optic cables do require protective sheathing, which &#;fattens&#; them up to a least two millimeters in width.

A single standard category 6 copper cable is roughly four times that width, and carries a fraction of the data. When you use fiber, it takes up much less space and is more flexible (and therefore easier to manage).

There are additional bonuses to this size reduction in cabling mass: the freed-up space enables better circulation of a data center&#;s cooled air, makes it easier to access the equipment it&#;s plugged into, and generally just looks much more aesthetically pleasing.

5. Fiber optics are future-proof

Every year the amount of data we consume increases, as do bandwidth requirements. Investing in a modern fiber optic cabling infrastructure will allow your network to operate at future speeds without replacing the cabling.

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A solid multifiber backbone in a structured environment will last for years, if not decades, and likely continue to support increasing bandwidth needs. The average lifespan of a copper category specification, on the other hand, is a little over five years.

Also bear in mind that the technologies and equipment that use cabling (switches, signaling optics, servers, etc.) generally tend to decrease in cost as time goes by. It is therefore probable that higher-end connectivity will become even more affordable in the future.

Bonus: Copper CableCounterpoint

Fiber cables arenot a &#;silver bullet&#; solution. It is more expensive than copper, and so should be used in the appropriate places. It&#;s often best suited when interconnecting equipment, in between buildings, and in between floors of a building.

Copper&#;s lower cost makes it better suited for smaller need applications, like desktops and appliances. Smaller networks, wiring closets, and lower priority traffic all make for good copper applications. Also consider that there may be significant copper already in place for some of these instances, further reducing overall cost.

The Takeaway for IT Pros Choosing Fiber or Copper Cables

The right medium for your network really depends on needs. However, if you have significant bandwidth needs, investing in a robust, scalable infrastructure will pay for itself.

As we&#;ve seen, fiber optic cabling allows for greater ROI via its faster speeds, increased durability, cleaner signaling, and smaller physical footprint. Copper cables has its applications, and will help reduce upfront cost. A combination approach, with an eye toward future growth will suit you well.

7 Advantages of Fiber Optic Cables Over Copper Cables

Network fiber cables have some definite advantages over copper cables.

1. Greater Bandwidth

Copper cables were originally designed for voice transmission and have a limited bandwidth. Fiber optic cables provide more bandwidth for carrying more data than copper cables of the same diameter. Within the fiber cable family, singlemode fiber delivers up to twice the throughput of multimode fiber.

2. Faster Speeds

Fiber optic cables have a core that carries light to transmit data. This allows fiber optic cables to carry signals at speeds that are only about 31 percent slower than the speed of light&#;faster than Cat5 or Cat6 copper cables. There is also less signal degradation with fiber cables.

3. Longer Distances

Fiber optic cables can carry signals much farther than the typical 328-foot limitation for copper cables. For example, some 10 Gbps singlemode fiber cables can carry signals almost 25 miles. The actual distance depends on the type of cable, the wavelength and the network.

4. Better Reliability

Fiber is immune to temperature changes, severe weather and moisture, all of which can hamper the connectivity of copper cable. Plus, fiber does not carry electric current, so it&#;s not bothered by electromagnetic interference (EMI) that can interrupt data transmission. It also does not present a fire hazard like old or worn copper cables can.

5. Thinner and Sturdier

Compared to copper cables, fiber optic cables are thinner and lighter in weight. Fiber can withstand more pull pressure than copper and is less prone to damage and breakage.

6. More Flexibility for the Future

Media converters make it possible to incorporate fiber into existing networks. The converters extend UTP Ethernet connections over fiber optic cable. Modular patch panel solutions integrate equipment with 10 Gb, 40 Gb and 100/120 Gb speeds to meet current needs and provide flexibility for future needs. The panels in these solutions accommodate a variety of cassettes for different types of fiber patch cables.

7. Lower Total Cost of Ownership

Although some fiber optic cables may have a higher initial cost than copper, the durability and reliability of fiber can make the total cost of ownership (TCO) lower. And, costs continue to decrease for fiber optic cables and related components as technology advances.

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