WiFi vs Ethernet Cable: Which One Should I Choose?

With the popularity of the mobile Internet in recent years, we’ve seen a large number of smart devices in our homes and offices connected to the Internet via WiFi. Then will WiFi outperform the capabilities of the traditional Ethernet cables? WiFi vs Ethernet cable, which one should I choose? What factors shall be taken into account before settling for one of these options? How does latency and interference affect the speed of WiFi and Ethernet? We’re gonna answer all these questions in this article.

What Is WiFi?

WiFi is a wireless technology that connects devices to the Internet without any physical wired connection. A WiFi connection is established using a wireless adapter to create hotspots in the vicinity of a wireless router that is connected to the network, allowing users to access Internet services. Once configured, WiFi provides wireless connectivity to your devices by emitting frequencies between 2.4GHz - 5GHz, based on the amount of data on the network.

What Is Ethernet Cable?

An Ethernet cable is a copper wire which connects devices like PCs, routers, and switches in wired networks. Given that these are physical cables, Ethernet cables have their limitations, both in the distance that they can stretch and in their durability over usage. There are different types of Ethernet cables such as Cat5e Ethernet cable, Cat6 Ethernet cable, Cat7 Ethernet cable or Cat8 Ethernet cable optimised to perform certain tasks in particular situations.

WiFi vs Ethernet Cable: Which One Is Better?

Both wired and wireless networks come with pros and cons in particular situations. When it comes to the WiFi vs Ethernet cable discussion, have you ever taken time to consider what sort of network best suits your needs? Let’s bring clarity through a comparison over WiFi vs Ethernet cable from the following aspects.

Speed & Reliability

WiFi vs Ethernet cable speed is the biggest concern that matters to network subscribers. Ethernet cabling connections tend to be faster and more robust than WiFi. If you have the right cabling solution with Cat5e Ethernet cable, Cat6 Ethernet cable or higher, it means you’ve had all the insulation you’ll need to prevent crosstalk, thus helping you to get more reliable signals. WiFi, on the other hand, is somewhat slower but has the convenience of being able to be used from your laptop or tablet anywhere within the range of a wireless access point. Therefore, WiFi is the first choice for anyone who intends to connect to the Internet and get online within reach. However, If you are someone who loves downloading torrents or watching online movies, then Ethernet is the technology you might want to consider.

Latency & Interference

Latency is the delay with which traffic travels from a device to its destination. Latency is vital when playing games, because the reaction time must be quick, and the same goes in the IoT (Internet of Things) data world. If you want to avoid irritating lags or delay while posting data, then an Ethernet connection is the right choice. Interference is another disadvantageous thing that WiFi faces. With the technology taking over the world, we have so much wireless interference in our house from WiFi router, TV, smart phone, setup box, game consoles, etc. The interference does not let your WiFi signal stay isolated from the other signals affecting your WiFi. However, there are no such effects in Ethernet cables. Thus, in the war of WiFi vs Ethernet cable, Ethernet connection offers the advantage of much lower latency and interference.

Cost

Using the Ethernet cable is much pricier than using WiFi because the wired network is often more expensive to install than a wireless network. The cost of wired networks comes in the form of installation charges and cabling. Since each workstation and device in the office that needs a connection requires a wire running to it, the size of your office space affects the cost of a wired network.

Conclusion

In the war of WiFi vs Ethernet cable, there are many plot elements which form the deciding factors in choosing one over the other. These factors mentioned above are perceived individually by the individual users. If you are someone who regularly download/upload large files and participate in gaming, then the Ethernet cable would be worth the connection. If you like to have mobility in your apartment and get online fast, then WiFi suits you better.

24AWG vs 26AWG vs 28AWG Ethernet Cable: What Is the Difference?

An Ethernet cable serves the basic purpose to connect devices to wired networks. However, not all Ethernet cables are created equal. When shopping for Cat5e, Cat6 or Cat6a Ethernet cable, you may notice an AWG specification printed on the cable jacket, like 24AWG, 26AWG, or 28AWG. What does the term AWG denote? 24AWG vs 26AWG vs 28AWG Ethernet cable: what is the difference?

What Does AWG Mean?

The AWG stands for American Wire Gauge, a standardized system for describing the diameter of the individual conductors of wires that make up a cable. The higher the wire gauge number, the smaller the diameter and the thinner the wire. Thicker wire carries more current because it has less electrical resistance over a given length, which makes it better for longer distances. For this reason, where extended distance is critical, a company installing a network might prefer Ethernet wires with the lower-gauge, thicker wire of AWG24 rather than AWG26 or AWG28.

24AWG vs 26AWG vs 28AWG Ethernet Cable: What Is the Difference?

To understand the differences among 24AWG vs 26AWG vs 28AWG Ethernet cable with different AWG sizes, let’s take a look at how the wire gauge affects the wire conductor size, the transmission speed & distance as well as the resistance & attenuation.

Wire Diameter of Conductors

AWG is used as a standard method denoting wire diameter, measuring the diameter of the conductor (the bare wire) with the insulation removed. The smaller the gauge, the larger the diameter of the wire as listed in the chart below. The larger diameter of 24AWG network cable makes for a stronger conductor which is a benefit when being pulled on during installation or when routed through machines and other equipment.

AWG	Wire Diameter
24 Gauge	0.0201 inches
26 Gauge	0.0159 inches
28 Gauge	0.0126 inches

Transmission Speed & Distance

The wire gauge of the Ethernet cable has no relationship with the transmission speed of the cables. So there are 24AWG, 26AWG and even 28AWG Cat5e Ethernet cable and Cat6 Ethernet cable on the market. Copper network cables with a smaller gauge (larger diameter) are typically available in longer lengths because they offer less resistance, allowing signals to travel farther. Therefore, the 24AWG Ethernet cable is the way to go especially for those longer runs, while the 26AWG and 28AWG Ethernet cable are more preferred for relatively shorter distances.

Resistance & Attenuation

The larger the diameter of a wire, the less electrical resistance there is for the signals it carries. A 24AWG network cable will offer less resistance than a 26AWG or 28AWG network cable. Since the 24AWG conductor is larger than 26AWG cable, it has lower attenuation over length properties. Thus when selecting between 24AWG vs 26AWG Ethernet cable, 24AWG would be preferable to 26AWG, because 24AWG Ethernet cable is more durable with lower attenuation than 26AWG Ethernet cable. All shielded (STP, FTP, SSTP) cables on the market are 26AWG and all unshielded cables are 24AWG or 28AWG.

However, you may also noticed that the thinner versions of Cat5e, Cat6 and Cat6a slim patch cables constructed of 28AWG wire have sprung up on the market. These slim Ethernet cables can be more than 25% smaller in diameter than their full-size counterparts. The 28AWG slim Ethernet cables with thinner wires improve airflow in high-density racks and can be more easily installed in crowded space compared to 24AWG or 26AWG Ethernet cables.

24AWG vs 26AWG vs 28AWG Ethernet Cable: Which Is Best?

24AWG vs 26AWG vs 28AWG Ethernet cable, which one is the best option for your network? The smaller the gauge, the larger the diameter of the wire. The larger the diameter of a wire, the less electrical resistance there is for the signals it carries. For long runs with more potential damage, the 24AWG Ethernet cable is the best, because it comes with stronger conductors with lower attenuation. If you’re considering to save more space, the 28AWG slim Ethernet cable would be more suitable to enable higher density layouts and simplify cable management.

Ethernet Cable Types Explained: All You Need To Know

An Ethernet cable or network cable is the medium for wired networks to connect the networking systems and servers together. It plays an integral role in cabling for both residential and commercial purposes. When it comes to using Ethernet cables for setting up network connections, choosing a perfect cable is always a daunting task since there are various Ethernet cables types available for different purposes. According to the bundling types of the twisted pairs, the wiring forms, and the cable speeds or bandwidths, Ethernet cable types on the market can be classified into shielded or unshielded, straight-through or crossover, Cat5/Cat5e/Cat6/Cat7/Cat8 Etherent cables respectively. How to identify the most suitable one for your needs among the diversified Ethernet cable types? This post will give you the answer.

Bundling Types in the Jacket: Shielded vs Unshielded Ethernet Cable

Shielded (STP) Ethernet cables are wrapped in a conductive shield for additional electrical isolation, then bundled in the jacket. The shielding material is used to reduce external interference and the emission at any point in the path of the cable. Unshielded (UTP) Ethernet cables without the shielding material provide much less protection against such interference and the performance is often degraded when interference or disturbance is present. STP cables are more expensive due to the shielding, which is an additional material that goes into every meter of the cable. Compared with the unshielded Ethernet cable, the shielded Ethernet cable is heavier and stiffer, making it more difficult to handle.

Wiring Forms: Crossover Cable vs Straight-through Ethernet Cable

Straight-through cable refers to an Ethernet cable with the pin assignments on each end of the cable. In other words Pin 1 connector A goes to Pin 1 on connector B, Pin 2 to Pin 2 and so on. Straight-through wired cables are most commonly used to connect a host to client.

In contrast, the crossover cables are very much like straight-through cables with the exception that TX and RX lines are crossed (they are at opposite positions on either end of the cable. Using the 568-B standard as an example below you will see that Pin 1 on connector A goes to Pin 3 on connector B. Pin 2 on connector A goes to Pin 6 on connector B and so on. Crossover cables are most commonly used to connect two hosts directly.

Speeds & Bandwidths: Cat5/Cat5e/Cat6/Cat6a/Cat7/Cat8 Ethernet Cable

Defined by the Electronic Industries Association, the standard Ethernet cable types can be divided into Cat5/Cat5e/Cat6/Cat6a/Cat7/Cat8 categories to support current and future network speed and bandwidth requirements.

Cat5 Ethernet Cable

Cat5 Ethernet cable introduced the 10/100 Mbps speed to the Ethernet, which means that the cables can support either 10 Mbps or 100 Mbps speeds. A 100 Mbps speed is also known as Fast Ethernet, and Cat5 cables were the first Fast Ethernet-capable cables to be introduced. Cat5 Ethernet cable can also be used for telephone signals and video, in addition to Ethernet data.

Cat5e Ethernet Cable

Cat5e Ethernet cable is an enhanced version of Cat5 cable to handle a maximum bandwidth of 100 MHz. Cat5e Ethernet cable is optimized to reduce crosstalk, or the unwanted transmission of signals between data channels. Although both Cat5 and Cat5e Ethernet cable types contain four twisted pairs of wires, Cat5 only utilizes two of these pairs for Fast Ethernet, while Cat5e uses all four, enabling Gigabit Ethernet speeds. Cat5e cables are backward-compatible with Cat5 cables, and have completely replaced Cat5 cables in new installations.

Cat6 Ethernet Cable

Cat6 Ethernet cable is certified to handle Gigabit Ethernet with a bandwidth of up to 250 MHz. It has better insulation and thinner wires, providing a higher signal-to-noise ratio. Cat6 Ethernet cables are better suited for environments in which there may be higher electromagnetic interference. Cat6 Ethernet cables can be available in both UTP and STP forms, and they are backward-compatible with both Cat5 and and Cat5e cables.

Cat6a Ethernet Cable

Cat6a Ethernet cable improves upon the basic Cat6 Ethernet cable by allowing 10 Gbps (10,000 Mbps) data transmission rates and effectively doubling the maximum bandwidth to 500 MHz. Category 6a cables are usually available in STP form, therefore they must have specialized connectors to ground the cables.

Cat7 Ethernet Cable

Cat7 Ethernet cable is a fully shielded cable that supports speeds of up to 10,000 Mbps and bandwidths of up to 600 MHz. Cat7 cables consist of a screened, shielded twisted pair (SSTP) of wires, and the layers of insulation and shielding contained within them are even more extensive than that of Cat6 cables.

Cat8 Ethernet Cable

The newly upgraded Cat8 Ethernet cable supports up to 2000MHz and speeds up to 40Gbps over 20 meters. It is fully backward compatible with all the previous categories. With inner aluminum foil wrapped around pairs and outer CCAM braid shielding, the Cat8 Ethernet cable can prevent from electromagnetic and radio frequency interference very well.

Conclusion

When setting up a wired connection in your home or office, you need to obtain the proper Ethernet cable types which can work with your equipment. If you are looking to connect two different devices such as computer to switch or router to hub, the straight-through cable may be the best solution. If you connect two computers together, you will need a crossover cable. The decision over UTP and STP Ethernet cable types depends on how much extent of electrical isolation is needed. When choosing among Cat5/Cat5e/Cat6/Cat7/Cat8 Ethernet cable types, it is undoubted that the more upgraded version can deliver better performance and functionality. It mainly depends on your speed and bandwidth requirement that would suit your equipment best.

Originally published at http://www.fiber-optic-equipment.com/ethernet-cable-types.html

Hub vs Switch vs Router: Which One Is Right for You?

Among many of today’s optical networking devices, some of the terminologies like the switch, hub and router can be quite confusing. Are they the same thing or can they be used interchangeably? Actually, each term above refers to a single device that performs a single function. In this article, we’re gonna explain the concept behind each of these terms, and give a comparison over hub vs switch vs router.

What Are Hub, Switch and Router?

A hub is a networking device that can work in conjunction with a switch or router for the whole network. A hub is a “dumb” device to broadcast whatever it hears on the input port to all the output ports. The good thing about “dumb” devices is that they don’t need a lot of configurations or maintenance. But this leads to collisions between data packets and a general degrading of network quality. If you have a hub set up between your router and the rest of your network, you’re setting yourself up for a huge headache.

A network switch is charged with the job of connecting smaller segments of a single network into a connected whole. It transfers data across a network segment using MAC addresses for reference. Data switches are extensively used in Ethernet local area networks. A data switch operates on the Data Link Layer of the OSI (Open Systems Interconnection) model. This means that data switches are fairly smarter than hubs, as they can route data on a dynamic level. If information is destined for a certain computer, the data switch will only send the data to this computer.

The router is the most complex network connection device among hub vs switch vs router. A router can direct network traffic between components on a local network and a separate network such as a wide area network or the Internet. A router also contains circuitry to determine the quickest paths for routing data. Routers use Ethernet cables to transmit and receive data and in some cases also has the capability for wireless connection to components.

Hub vs Switch

A hub looks just like a switch, but works differently. The hub is connected to other devices using Ethernet cables and any signal sent from a device to the hub is simply repeated out on all other ports connected to the hub. The method in which frames are being delivered differs between hub vs switch. For a hub, a frame is passed along or “broadcast” to every port of it. By contrast, a switch keeps a record of the MAC (Media Access Control) addresses of all the devices connected to it. Therefore, a switch can identify which system is sitting on which port. So when a frame is received, it knows exactly which port to send it to, without significantly increasing network response time.

Switch vs Router

A switch works at Layer 2 of the OSI model (there are also some Layer 3 switches that have routing capacities), which connects one point to another in a network temporarily by turning it on and off as necessary. However, a router works at Layer 3 of the OSI model, thereby it allows you to connect multiple computers to each other and also allows them to share a single Internet connection. Note that a switch only allows you to connect multiple computers into a local network.

Hub vs Router

Hubs are classified as Layer 1 devices per the OSI model, while a router is defined as Layer 3 device. The data that a hub transmits is electrical signal or bits, while a router is designed to receive data packets and determine the network point to which they should be sent in order to arrive at their appropriate destination. A hub has only one broadcast domain, while in router, every port has its own broadcast domain.

Hub vs Switch vs Router: Which One Is Right for You?

In one word, a hub glues together an Ethernet network segment; a switch connects multiple Ethernet segments more efficiently and a router can do those functions plus route TCP/IP (Transmission Control Protocol/Internet Protocol) packets between multiple LANs and/or WANs as well as much more of course.

Hub vs switch vs router: which one is right for You? For small networks where there are fewer users or devices, a hub can easily cope with the network traffic and is a cheaper option for connecting devices on a network. If more users need to be connected to a network, switches can be used in such situations to extend the number of hubs. If two or more logical subnets need to be connect together, a router would be the first option.

Source: https://community.fs.com/blog/do-you-know-the-differences-between-hubs-switches-and-routers.html

How to Mount a Network Switch to a Rack?

A network switch has been recognized as one of the most important devices for today’s networking technology. It allows simultaneous transmission of multiple packets and partition a network more efficiently than bridges or routers. The rack mount switch can be installed in a standard 19-inch equipment rack or on a desktop or shelf. So how do you mount a network switch to a rack to establish network wiring connections? Here’s a step-by-step guide to teach you how to mount a network switch to a rack.

Preparations Before Mounting the Network Switch

Before rack mounting the switch, please pay attention to the following factors:

• Location: The site should be at the center of all the devices you want to link and near a power outlet, so that it is accessible for installing, cabling and maintaining the devices in the rack.
• Temperature: Since the temperature within a rack assembly may be higher than the ambient room temperature, check that the rack-environment temperature is within the specified operating temperature range (0 to 40 °C).
• Mechanical Loading: Do not place any equipment on top of a rack-mounted unit.
• Circuit Overloading: Be sure that the supply circuit to the rack assembly is not overloaded.
• Grounding: The switch rack should be properly grounded.

How to Mount a Network Switch to a Rack?

Step1. Attaching the Brackets to the Switch

Attach the brackets to the network switch using the screws provided in the mounting accessory.

Step2. Installing the Switch in the Rack

Mount the switch in the rack with the optional rack mount kit, usually using the rack-mounting screws. Be sure to secure the lower rack-mounting screws first to prevent the brackets being bent by the weight of the switch.

Step3. Adding Other Switches into the Rack

If there is only one data switch to be installed in the rack, then you can make the connection to a power source now. If there are multiple switches to be mounted, you need to install the another switch on the top of the first one in the rack, and then attach the power cords.

Step4. Attaching the Power Cords

After you complete mounting all of the switches in the rack, it’s time to connect the switch rack to the power source. Remember to verify that you have the correct power supply (AC-input or DC-input and the correct wattage) for your configuration.

Caution: To prevent bodily injury when mounting or servicing the switches in a rack, you must take special precautions to ensure that the system remains stable. The following guidelines are provided to ensure your safety:

• This network switch should be mounted at the bottom of the rack if it is the only unit in the rack.
• When mounting the switch in a partially filled rack, load the rack from the bottom to the top with the heaviest component at the bottom of the rack.
• If the rack is provided with stabilizing devices, install the stabilizers before mounting or servicing the switches in the rack.

Establishing Network Wiring Connections

After mounting your network switches to a rack, you can establish the network wiring connections according to your requirements now. If you’re using a Gigabit Ethernet switch, it can be connected to 10, 100 or 1000Mbps network interface cards in PCs and servers, as well as to other switches and hubs. It may also be connected to remote devices using optional SFP transceivers. No matter which type of network switches you are using, make sure that they are securely mounted in the rack and connected to the corresponding networking wiring systems.

Source: http://www.fiber-optic-tutorial.com/mount-network-switch-to-rack.html

Proper Horizontal Cable Management for Rack

Cable management is a critical part of network cabling systems that require a large number of moves, adds and changes. The improper cable management may result in cable damage or cause transmission errors and performance issues as well as system downtime. In a horizontal manager system, the cable management for rack is important in telecommunications rooms for leased office space, brokerages and trading houses where the workstations will move or add additional ports frequently. This post will analyze why the horizontal rack cable management is important and offers FS horizontal cable management solutions for rack.

Why Is Proper Horizontal Rack Cable Management Important?

• Poorly routed cables can lead to an assortment of problems over time. Jumbled cables would increase the risk of cables to be tangled up, and a possibility of interruption when reconnecting the cables.
• The rack cable management is directly related to hardware safety. All equipment running on the server rack is going to generate heat, so organizing a rack with a conception involving space will help promote the airflow and hardware management.
• Cable labels in a proper horizontal rack cable management can save a lot of time on troubleshooting. Just imagine how difficult it would be to trace a cable through that mess.
• If rack cables were unorganized, a technician would spend hours tracing wires when something goes wrong. In most circumstances, we can’t afford to stay offline while a technician unravels a tangled nest of cables. Thus a proper horizontal cable management makes it easy for the technician to identify and access where goes wrong and fix it in far less time.

Horizontal Cable Management for Rack: Where to Start with?

Horizontal cable management system is often installed within racks or cabinets to manage cables on front racks and draw cables away from equipment neatly. The rack space of a horizontal cable management infrastructure is typically 1U or 2U high. The following part gives the FS plastic & metal horizontal fiber patch panel, cable managers, lacer panels to promote a proper cable management in your horizontal network cabling systems.

Horizontal Rackmount Fiber Patch Panel

Horizontal rackmount fiber patch panels help to organize cables and eliminate cable stress for your rack enclosure cabinet. FS offers 1U 19’’ blank rackmount fiber patch panels with plastic D-rings on the cable management panel and lacing bar. These rackmount fiber patch panels can be used to organize cables for fiber optic adapters, fiber enclosures, Ethernet switches, WDM chassis, etc.

Horizontal Cable Managers with Finger Duct & Brush Strip

Horizontal cable managers with finger duct and brush strip allow neat and proper routing of the patch cables from equipment in racks and protect cables from damage. Fixed inset fingers on the front and back allow easier access to the ports for moves, adds, and changes. And the brush strip horizontal cable manager is constructed of high-quality steel with high-density nylon bristles, which can promote proper airflow through the rack and meet the demand for front-to-back cable runs.

Horizontal Lacer Panel with D-rings

Horizontal lacer panels are efficient tools for rack or enclosure cabling. These D-rings on the lacer panel are essential to avoid cable strain and prevent damage to the ports on your rack-mount equipment. The five rotating D-rings can be easily assembled or disassembled manually according to your needs.

Conclusion

This post provides users with a horizontal cable management solution that simplifies cable routing in a finished professional appearance. With proper and efficient horizontal cable management tools, cable spaghetti is not a problem anymore. You can just have a peace of mind and reap the great benefits of sound cable management. FS horizontal cable management tools provide an efficient way to manage high performance copper, fiber optic, or coaxial cables on any 1U or 2U rack. For more details, please kindly visit www.fs.com.

Originally published at http://www.fiber-optic-tutorial.com/proper-horizontal-cable-management-rack.html

Cloud Computing vs Big Data: What Is the Relationship?

Cloud computing and big data are two of the most trending terms in the ever-lasting IT sector nowadays. You may think that they both do the same thing but actually, both of them have their own ways to work to perform. Cloud computing vs big data, what are they? What is the relationship between them?

Cloud Computing Tutorial

Cloud computing is a technology used to store data and information on a remote server rather than on a physical hard drive. It uses the servers hosted on the Internet to store, manage, and process data, rather than a local server or a personal computer. It means accessing resources of organization from any remote location in the world. In simple term accessing RAM, HDD, Processor of organization’s server from laptop, desktop from any of the location where Internet is available.

As shown in the figure above, cloud computing is collection of different services, providing services to end user via the Internet. Services like storage, virtual desktop applications, Web/App hosting process power from servers. In the following architecture, the infrastructure built to provide services is called cloud computing. This infrastructure from where the services gets accessible is front end.

Big Data Wiki

The term big data is very popular nowadays, representing huge sets of data that can be further processed to extract information. Big data carries hidden patterns and algorithms which are unlocked by using various tools available in the market. These data sets are further analyzed to provide business insights. Big data is all about storing and processing of data that is exponentially growing these days. Giants like Google, Facebook are having their own data centers to keep track and to secure their users’ data. That’s also why many big companies are equipped with reliable network equipment (including the server, router or fiber switch) for data storage or traffic forwarding in their data centers. For high performance and cost-effective enterprise routers, Gigabit Ethernet switch and 10gbe switch, FS is a case in point.

Big data requires a large amount of storage space. While the price of storage continued to decline, the resources required to leverage big data can still pose financial difficulties for SMBs (small to medium sized businesses). A typical big data storage and analysis infrastructure will be based on clustered network-attached storage (NAS). Clustered NAS infrastructure requires configuration of several NAS pods with each NAS pod comprised of several storage devices connected to an NAS device. The series of NAS devices are then interconnected to allow massive sharing and searching of data.

Key Comparisons Over Cloud Computing vs Big Data

The cloud computing works in a consolidated manner, while the big data comes under the technology of cloud computing. The crucial difference between cloud computing vs big data is that cloud computing is used to handle the huge storage capacity to provide various flexible and techniques to tackle a magnificent amount of the data. While big data is the information processed with cloud computing platform. The following chart gives a more detailed comparison over cloud computing vs big data.

	Cloud Computing	Big Data
Basic	On-demand services are provided by using integrated computer resources and systems.	Extensive set of structured, unstructured, complex data forbidding the traditional processing technique to work on it.
Purpose	Enable the data to be stored and processed on the remote server and accessed from any place.	Organization of the large volume of data and information to the extract hidden valuable knowledge.
Working Mode	Distributed computing is used to analyse the data and produce more useful data.	Internet is used to provide the cloud-based services.
Benefits	Low maintenance expense, centralized platform, provision for backup and recovery.	Cost effective parallelism, scalable, robust.
Challenges	Availability, transformation, security, charging model.	Data variety, data storage, data integration, data processing, and resource management.

Cloud Computing vs Big Data: They Work Hand in Hand

Both cloud computing and big data are good at their marks. Cloud computing vs big data: they differ from each other but work hand in hand. They are the perfect combination for data storage and processing. The cloud computing has been a precursor and facilitator to the emergence of big data. If big data is the content, then cloud computing is the infrastructure.

Originally published at http://www.fiber-optic-tutorial.com/cloud-computing-vs-big-data-relationship.html