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Showing posts with label 3G. Show all posts
Showing posts with label 3G. Show all posts

Monday, 7 October 2019

3 Reasons Why Fiber is the First Choice to Support 5G Networks

It’s no secret that 5G will bring us faster speeds, better performance and more reliable service for our mobile devices. (For example, 5G will enable users to download a high-def film in under one second as opposed to the 10+ minutes it currently takes on 4G/LTE.)
But it will also place huge demands on wired infrastructure. Before 5G networks become prevalent, your network infrastructure needs to be able to reliably and continuously support thousands of devices (or more) – as well as the data collected and transmitted by these devices.
A good example involves the concept of autonomous vehicles. With 5G networks, connected cars will be able to communicate with each other to decrease safety hazards and anticipate potential problems, as well as read live map and traffic data to make route adjustments for time efficiency. To make this a reality, lots of real-time data will need to be collected and shared over a network so that autonomous, immediate adjustments can be made.
Every version of mobile phone networks has been created with a specific purpose in mind:
  • 1G was introduced in 1982 to support analog voice
  • 2G was introduced in 1991 to support digital voice and messaging
  • 3G was introduced in 1998 to support data and multimedia service (like email)
  • 4G/LTE was introduced in 2008 to support IP voice and data, as well as video and mobile internet service
  • 5G – the latest generation – is designed to support IoT and Big Data (like connected/autonomous cars, factory robotics, smart cities, etc.)
When you compare these five generations, it’s easy to see why 5G will need so much more from a wired network than its predecessors. To be considered “5G compatible,” a mobile device must stay connected and able to stream 4K-quality video seamlessly – no matter the traffic density.
Key 5G Requirements Infographic
Why is Fiber Necessary for 5G Networks?
According to a 5G Operator Survey released by the Telecommunications Industry Association (TIA) in 2017, 5G operators consider fiber important for the backhaul portion of 5G networks (in fact, 83% say fiber is “very important”). By the end of 2020, 33% expect their companies to be offering commercial 5G services.
Although every network is different, one thing will remain true for each one that supports 5G: lots of fiber will be needed. Why? There are a few reasons …

1. Creation and Transfer of Real-Time Data

5G supports IoT and Big Data, which rely heavily on real-time data collection and transfer. Because decisions are being made instantaneously (and automatically, in many cases) based on this data, lower latency and higher bandwidth levels are needed to ensure that the data gets to where it needs to go quickly.
Because of its unlimited bandwidth potential, fiber is the cable of choice to support these bandwidth levels.

2. Increasing Network Demands

Because of this 24/7 data collection and transfer, there are many more demands made on networks: higher network availability levels, full wireless network coverage (no dead spots), lower latency and higher bandwidth capabilities (as mentioned earlier) – all caused by an influx of connected devices.
In part, this is thanks to the growing numbers of people and the devices they carry, which connect their users to unlimited data. But there’s another layer of connectivity at play today, too: Devices that aren’t controlled or managed by people (PoE LED lighting fixtures, surveillance cameras, and digital displays, for example). Instead, these devices connect directly to the network and operate independently.
By bringing fiber closer to the edge of the network, stadiums and arenas can take advantage of 5G’s improved bandwidth and capacity levels.

3. Higher Radio Frequencies and Small Cells

To achieve expected performance levels for 5G networks, more small cells (or nodes) and mobile edge computing will be needed to eliminate network bottlenecks. These small-cell deployments often utilize the millimeter wave spectrum, relying heavily on fiber cabled connections for the backhaul portion of the network.
To handle larger amounts of data, 5G uses much higher radio frequencies than existing mobile networks. These higher frequencies, however, have very short ranges. For 5G to work as expected and provide multi-gigabit service to users and devices, many additional “cells” covering small areas must be installed throughout a venue (spaced as close together as 200 feet apart, according to some experts).
To provide multi-gigabit service to the users and applications that want access to 5G networks, the cells redistribute signals from cellular carriers through the air or via direct line, bringing them inside and/or dispersing them across a vast area. Without them, carriers struggle to get their signals indoors. Based on application size, they may take the form of femto-cells, small cells, enterprise radio access networks (RAN), distributed antenna systems (DAS) or Cloud RAN (CRAN).
Fiber is the preferred option for 5G because of its scalability, security and ability to handle the vast amount of backhaul traffic being generated.
In addition to being the No. 1 option for network backhauls, fiber is also preferred for the fronthaul portion of the network as well (the portion that connects the small cells).
It can handle 5G’s increased speeds with lower attenuation, is immune to electromagnetic interference and offers practically unlimited bandwidth potential.

Getting Ready for 5G

The launch of 5G will bring enhanced capacity and lower latency straight to networks. The legacy copper-based infrastructures that have supported connectivity so well for so long won’t be able to keep up with 5G bandwidth demands.
Belden can help ensure that you have the right fiber optic cable system in place to support enhanced 5G capabilities when they arrive. For more information, download our android app

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Saturday, 5 October 2019

Qualcomm may launch two variants of the upcoming Snapdragon 865 processor: Report


“According to industry expectations, the Snapdragon 865 platform will offer both integrated and non-integrated 5G solutions for better cost-effective solutions”

Despite being only a few months into the life cycle of the Qualcomm Snapdragon 855 platform, Qualcomm is at a seemingly advanced stage with its next-generation platform, the Snapdragon 865. Codenamed Snapdragon 8250, the new processing platform from the world’s leading mobile chipset manufacturer will presumably bring with itself a host of new features, upgrades, and improvements. Moreover, given that it will power a major chunk of devices in 2020, 5G will play a big role in deciding what the new processor (and phones that it powers) will bring to the table. Now, according to recent reports, the Snapdragon 865 mobile platform may be officially made available in two variants.


According to Roland Quandt of WinFuture.de reports across the internet, the Qualcomm Snapdragon 865 may be made available in two variants – one with the standard platform and an optional Snapdragon X55 5G modem, and the other with integrated 5G solution. With the new generation connectivity standard set to become mainstream next year, offering an integrating flagship processing platform with the latest connectivity chip and antennae will be crucial, as this would allow smartphone manufacturers to free up the space that an additional modem would take up. In turn, this could be used to fit in any extra feature, such as an audio DAC, a larger battery or any additional module as OEMs deem fit.

However, 5G connectivity is unlikely to be rolled out worldwide even by 2020, and the initial plans would certainly be at steeper pricing than the mobile plans that users are expected to. A mainstream 5G rollout is only expected to happen in a select few nations such as the US and South Korea, which have been early adopters of the technology. As a result, a two-variant strategy makes sense for Qualcomm, since this would allow them to even price their product better.


For instance, in a Korea-centric flagship smartphone, the integrated Snapdragon 865 platform can be used, hence making space for additional modules such as neural processing engines. However, for the India variant of the same device, the OEM may choose the second variant that comes with the optional 5G module, thereby providing some cost-benefit to OEMs, which in turn would allow them to price their products better in a value-sensitive market such as India.
The information comes courtesy of early leaks, so the validation of these reports remain to be proven in the long run. However, it does make a lot of sense commercially, to produce a two-variant commercial availability of the processor. The next-generation Snapdragon 5G platform is expected to present compliance with both sub-6.0GHz and millimeter-wave 5G connectivity, thereby bringing versatility to a smartphone’s connectivity. It may also lay precedent for upcoming processors from other manufacturers to follow suit, all of which shall be revealed in days and months to come.


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Thursday, 25 September 2014

Know Ur Network...



The first thing you check in the morning the last label you look every night . A few bars representing your signal strength and a letter along  the uppermost right corner of your device... Sometimes saying G sometimes 3G , and their are times when its H or H+..
So what they actually are.. We all know G and 3G but H+ ??  Is it a Hydrogen willing to make  bond ??

Okey it was a silly joke and I know u dint laugh... But at times we actually get confused about what these labels truly represent, well it's not just alphabet soup - each term indicates what kind of data network you're connected to, and these different networks will provide very different internet connection speeds.

So here in this article we'll be having a look at each of the networks currently operating around us... How fast they are and what can you do on them...






Before advancing, it should be known that 1G, 2G, 3G, 4G, 5G etc refers to the different generations of wireless communication technology characterized by having a defined range of speed.


GPRS(General Packet Radio Service) 


GPRS is a packet-based* wireless communication service. It is a 2G technology network that support a download speed of up to 114Kbps.
Limitation of GPRS is that GPRS data cannot be sent while a voice call is in progress.



EDGE(Enhanced Data GSM Evolution) 


GPRS and EDGE are both 2G technology but EDGE is significantly faster with a download speed of up to 384Kbps. EDGE is sometimes called a 2.5G network as it also has some characteristics of a 3G network but it doesn't satisfy the specification.



3G


Introduction of 3G network made video calling and seamless streaming of video possible, with download speed of up to 3.1Mbps. 



HSDPA(High-Speed Down-link Packet Access)


It is based on the 3G network and an enhancement to 3G. Thus has a faster speed, download speed can be up to 14Mbps. HSDPA is sometimes called 3.5G.



HSPA+(Evolved High-Speed Packet Access)


HSPA+ is an evolution HSPA(HSDPA&HSUPA). It is a 4G technology that allows download at a rate of up to 168Mbps.



4G LTE(Long Term Evolution)


LTE is a 4G communication standard that supports HD video streaming, download speed as high as 299.6Mbps.



Summary


GPRS(114Kbps) < EGDE(368Kbps) < 3G(3.1Mbps) < HSDPA(14Mbps) < HSPA+(168Mbps) < 4G/LTE(299.6Mbps)

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