2 3 Small Cells World Summit 2013 - viewer.zmags.com
Transcript of 2 3 Small Cells World Summit 2013 - viewer.zmags.com
AS WE REPORTED in the latest issue
of Mobile Europe, European operators are still very much in the early
stages of small cell deployments and the only thing that unites them
all is the different stages they are at and the different approaches they
are taking.
However, such disjointed progress does not stop analysts predicting
how the market will grow – Infonetics Research, for example, predicts
small cells will be a €2.1 billion market by 2017 given the current pace of
LTE rollouts worldwide.
The vendor community, meanwhile, continues to fine-tune its offerings
alongside a host of mergers and acquisitions – witness Cisco buying
Ubiquisys and JDSU acquiring Arieso – that point to the optimism it feels
about the technology.
In June, all three came together at the Small Cells World Summit, the
largest small cells event in the telecoms industry, and Mobile Europe was
there to gauge the mood.
This special digital issue features news, exclusive interviews and a range
of videos from the show that attempts to give a flavour of what went on.
We begin on this page with Gordon Mansfield, chairman of the Small
Cell Forum and AVP of small cell technology at AT&T, who discusses the
industry body’s upcoming Release Two plan to accelerate enterprise
small cell deployments.
“The enterprise segment represents a huge opportunity for the mobile
operator community, both in terms of increasing coverage but also with
enterprise IT architects who are seeking to move all personal
communications services on to mobile devices and “unwire” their
organisations. However, to date the enterprise has largely proven hard to
Gordon Mansfield, Chairman of the Small Cells Forumon Release 2
2 “Industry support critical tomaximising potential of smallcells”, say operators
3 Qualcomm debuts 3G, 4G,Wi-Fi small cells processorportfolio
Small Cells Industry Awards:Operators and vendors win bigon innovative designs
4 Q&A: Virgin Media Business’director of wireless
6 Have you done your RFplanning properly?
SMALL CELLS WORLD SUMMIT 2013 REV IEW ISSUE
Small Cells World Summit 2013
target effectively,” said Mansfield.
Elsewhere in this issue, we feature a digest of the keynotes, which
highlight how much further US and Asian operators are ahead of their
counterparts in Europe. China Mobile and Korea’s SK Telecom discuss
their respective nanocell and femto remote systems, for example.
In Europe, Virgin Media Business has one of the more interesting
small cells offering – a hosted services for other operators – and the
company’s head of wireless explains how that is developing in an
exclusive interview.
Our other feature concerns the importance of RF planning, with
InfoVista’s Juan Pablo Prieto Baez arguing how essential it is to know
the ins and outs of your network in order to deploy small cells.
Alongside new releases from Qualcomm and news of the winners
from the Small Cell Industry Awards, which coincided with the event,
we have videos from Airspan, Alcatel-Lucent, CBNL, Cisco, JDSU,
Qualcomm, Radisys and Radwin discussing their views on the market
and outlining their latest releases.
In short, the market continues to evolve but a big bang operator
announcement from Europe still seems a long way off. In the meantime,
the vacuum is filled by the vendors and the analysts – it can only be
hoped that the meticulous studies and planning that the operators are
doing will mean they can act with decisiveness when the moment for
large-scale deployments arrives.
Marc Smith
Group Editor
Mobile Europe and European Communications
The view from the summit floor
EUROPE STILL WAITING FORSMALL CELLS BIG BANG
Mike Schabel, VP, Wireless Division, Alcatel-Lucent
2 | Mobile Europe | mobileeurope.co.uk
Small Cells World Summit 2013
OVER THREE DAYS in early June, representatives from over 70
operators discussed commercial deployments at the Small Cells World
Summit in London.
AT&T, for example, announced that following successful trials of indoor
and outdoor 3G Metrocell small cells, it was now in a position to offer
“nearly 100 percent usable coverage” in the areas covered, with
combined metro/macro drop rates now equivalent to the macro network
and trending downwards.
The US incumbent operator intends to deploy an extensive network of
over 40,000 small cells across the United States between 2013-2015.
AT&T also mentioned that some of the biggest challenges it
encountered during deployments including site acquisition and zoning,
the impact of placing the small cells, as well as the availability of
backhaul and which type to use.
SK Telecom, which has led the way globally with the world’s first LTE
femtocell commercial deployment in June 2012, shared the lessons it
has learned and how its small cells
device needs have changed since
2010, as smartphone/tablet data usage
has exploded.
SKT reported that its subscribers now
user over 1 petabyte in data traffic a
day, leading the operator to come up
with innovations in order to manage its
ever-growing small cells network.
In 2012, it debuted the world’s first
femto remote system (FRS) commercial
deployment, using a cloud RAN
architecture to host a virtual base
station/digital unit (DU) that connects to
multiple small cell radio units (RU) via
ethernet cables.
According to the Korean operator,
commercialising FRS has enabled it to
offer a much wider indoor area coverage
as the FRS covers indoor areas as a single cell, meaning multiple
femtocells are not needed.
SKT also mentioned that it is currently developing multi-band
supported femtocells in 2013 to further reduce interference and boost
cost effectiveness.
China Mobile was also keen to talk about new technology in small
cells – primarily its nanocell invention and TD-LTE, the 4G standard
developed for use across China, which has seen 17 commercial
deployments so far globally.
In the last 12 months, China Mobile has carried out a TD-LTE trial
across 13 cities, using 20,000 base stations.
Key challenges that it has experienced while deploying TD-LTE include
site acquisition, as public awareness of electromagnetic radiation
protection has increased, meaning that more protests make it difficult to
obtain new sites or renew existing ones.
New base stations offering multi-systems and multi-bands are also
required in order to support GSM, TD-SCDMA and TD-LTE. However, the
biggest problem is the lack of efficient indoor coverage.
Unhappy with the high capex and increased penetration loss from the
macro network and the difficulties and high capex in installing DAS
antenna systems, the operator has invented its own form of small cells –
nanocells – which specialise in providing mobile coverage to a limited
area as well as integrating carrier grade WLAN/Wi-Fi services.
Deploying nanocells would do away with the site acquisition problems
for the macrocell network and be much cheaper to serve a rural
community, as the nanocell’s 2 kilometre range it brings the base station
closer to users, reducing the number of users per cell.
TD-LTE was also a talking point for Vodafone, which has extended its
small cells portfolio to embrace picocells, microcells and Wi-Fi.
Vodafone has been carrying out small cells deployments in urban
areas such as its “Smart City”
deployment in Barcelona,
where it used TD-LTE to solve
the non-line-of-sight (NLoS)
backhaul problem, as well as
for “enabling sustainable
improved capacity” for rural
villages in Portugal.
Vodafone is piloting
enterprise gateways that enable
the aggregation of local
services within an enterprise
environment, as well as
“beamforming” for small cells.
A 3D beamforming small cell
is made up of several antenna
elements and transceivers
arranged in a matrix, enabling
completely flexible vertical and
horizontal beamforming, including beam shaping independent in the
downlink (DL) and uplink (UL).
Beamforming can increase the average macrocell offloading by four
times, and also improve coverage, reduce the number of small cells and
backhaul connections needed, which then cuts down on intercell
interference.
Vodafone felt that in order for operators to be able to move forward,
the industry as a whole needs to accelerate standardisation in the
industry, including in provisioning, increase the availability of multi-
technology small cells in order to reduce site boxes, and build solutions
for small cells that have new service enablers.
“Industry support is critical to maximising the potential of small cells,”
said Vodafone’s Dr Alan Law, New Technologies and Innovation Manager
& Vodafone Distinguished Engineer.
Operators alight with new technologies galore to combat interference, site acquisition and indoor coverage challenges
“INDUSTRY SUPPORT CRITICAL TO MAXIMISINGPOTENTIAL OF SMALL CELLS”, SAY OPERATORS
Paul Gowans, Mobility Marketing Manager, JDSU
Click here to view JDSU's white paper: "Optimizing small cellsand the Heterogeneous Network (HetNets)"
mobileeurope.co.uk | Mobile Europe | 3
Small Cells World Summit 2013
QUALCOMM ATHEROS has announced an integrated 3G/4G LTE small
cells processor portfolio designed for pico, metro and enterprise small
cells, as part of a big push into the network infrastructure market.
The vendor’s new FSM99xx portfolio features 28 nanometre chipsets
and software designed to support operators’ concurrent 3G and 4G
networks, dual carrier 4G with
carrier aggregation, as well as
hosting advanced Wi-Fi
capabilities.
The chips use Qualcomm’s
implementation of the ARM quad
core Krait mobile processors to
half the power used by other
processors, while RF linearisation
techniques reduce power amplifier
power consumption.
Power amplifier power
consumption makes up a big part
of the current small cells “power
budget”, Stuart Strickland, director
of Qualcomm Atheros’ Product
Strategy Networking Business
Unit, told Mobile Europe.
“Power is a big concern as small cells will be powered by Ethernet, so
we're designing chipsets that support that,” he said.
Moreover, the director said the company had “laid the groundwork” for
the new solution to host multiple radio technologies.
“The chip has LTE and 3G capabilities, but it also has a modular
approach that can add wireless backhaul capability and Wi-Fi capability,
which can be plugged down to the host processor,” Strickland commented.
This modularity approach enables Qualcomm Atheros to offer
techniques for advanced HetNet and self-organising networks (SON) as
part of the FSM99xx portfolio, such as the Qualcomm UltraSON suite.
Small cells are meant to be intelligent, autonomous devices that can
sense and adapt to changes in its user environment, whether it’s an
increase in traffic or detecting that
another small cell nearby has
stopped working.
“A lot of these networks will be rolled
out in an unplanned, dynamic way,
where you have a gradual saturation of
an area. We need to be able to provide
organisational algorithms that are
predictable,” said Strickland.
“Not only do we need to make sure
that small cells don't interfere with the
macro network or with each other, but
also if the carrier decides to roll out
one small cell for every 10 houses, and
then five years later decides to roll out
one small cell in every single house,
we want to know what to do.”
According to Strickland, the
eventual aim is to enable operators to have “mix and match” small cells,
with different chips supporting LTE with Wi-Fi for a data-focused
approach or LTE and 3G connecting to the host processor.
“In the longer term, we're going to make the host more robust, capable
of supporting higher throughputs, supporting multiple Wi-Fi radio
frequencies. Right now, carrier devices host four, six or eight Wi-Fi chips
and a single host,” he said.
QUALCOMM DEBUTS 3G, 4G, WI-FI SMALL CELLS PROCESSOR PORTFOLIO
THE SMALL CELL FORUM held its Small Cell Industry Awards at the Hilton
London Metropole Hotel on 5 June, coinciding with Small Cells World
Summit 2013.
Alcatel-Lucent, Cisco and NEC were nominated in the Residential
femtocell access point design and technology innovation category, and the
award was won by Cisco for its Scaling Network Vision for Small Cells:
Cisco Management Heartbeat Server solution.
Huawei, Quotus and SpiderCloud were nominated for the Non-residential
(enterprise and public access small cell) design and technology innovation
award, which SpiderCloud won for its small cell system deployed by
Vodafone - ‘Transforming the Cellular Service Offering in Enterprises’.
Korean operator SK Telecom was one of the big winners, beating
Cisco and the Raidsys-Airspan joint venture in the Small cell network
element design and technology innovation category with its commercial
deployment of LTE Femtocell with five innovative technologies and
roadmap for outdoor small cell.
It also won the award for most innovative operator in a commercial
deployment.
When it came to the best small cell service of application, Vodafone
Greece beat Alcatel-Lucent and the ip.access-SiRRAN JV with its “Free 3G
Hotspot” service.
Innovation in a commercial deployment was won by Vodafone and
Huawei, who worked together on the MetroZone Small Cells Solution to
enable ‘Smart Cities’, while Vodafone won for the award for best progress
in deploying a commercial deployment.
The small cell forum’s chairman Gordon Mansfield also selected two
individuals for the Chairman’s award, which acknowledges outstanding
contributions in assisting the small cell forum with its work.
ip.access’ Nick Johnson won for leading the Release Steering
Committee and establishing the roadmap for Release Two and beyond,
while CBNL’s Julius Robson was recognised for his work in delivering the
Backhaul Whitepaper and supporting the release steering committee.
Puneet Sethi, Product Manager, Business Development, Qualcomm
Cloud-based storage and HD sports coverage present new opportunities
SMALL CELLS INDUSTRY AWARDS: OPERATORSAND VENDORS WIN BIG ON INNOVATIVE DESIGNS
4 | Mobile Europe | mobileeurope.co.uk
Small Cells World Summit 2013
Mobile Europe: What was your presentation at the Summit about?
Kevin Baughan: It was a summary of our work putting together the smallcells hosting service, bringing a city’s assets, such as street columns,
together with our fibre backhaul in order to create this rich environment to
enable small cells deployments.
We looked at what we'd learnt so far, focusing on an innovation layer,
where we've used Wi-Fi very effectively in cities like Leeds and Bradford
and a capacity layer from the small cells which complements the coverage
layer with more traditional macro cell.
Moving forward, we're looking to explore the wireless backhaul
component of our portfolio. We have fibre that serves a small group of
street columns. Fibre goes into what we call the "root column" and then it's
extended by wireless to a couple of columns in each direction around it.
We also announced a trial we're kicking off to validate the architecture
and see how well it works with the millimetre wireless links, typically in the
60MHz band, and the microwave arena.
Tell us more about your hosting service and why it will appeal tooperators...
Our starting point is to make sure that we can leverage our fibre network to
good advantage for mobile operators. We’re seeing an opportunity to solve
the key problems they've got with backhaul, sites and power, by bringing
two things together – the rich fibre networks we're blessed with in major
cities and the availability of columns from the cities together.
Together we can tackle the really difficult challenges of, 'Where do I put
it?', 'How do I get great backhaul?' and 'Where do I get electricity from?' so
that deployments can be flexible and cost-efficient.
These have been identified in many surveys as some of the key blockers
for small cells deployments. We think that by putting out the small cells
hosting service, which really tackles those difficult environmental challenges,
we're creating an environment where it's much easier for mobile operators.
I guess we don't see the point in building a capacity layer with no
capacity. If you're going to go for this, you need the confidence that it works
on 3G cells at 45 Mbps, but would go all the way to a group of LTE cells at
100s of Mbps each. For us, looking ahead of the next 10 years, it's all about
dealing with that explosive demand and allowing the radios to work as well
as they can.
If you go back eight years, I was working on the same step change in
fixed broadband. At that stage, we sat around wondering if anyone would
even want a high-speed service above 1Mbps.
That whole world still sits ahead of the mobile operators, and really, we're
designing it to deal with a 50-100 percent compound growth rate every
year for the next 10 years.
How do you make small cells deployments more cost-effective foroperators?
For us, it's getting a great total cost of ownership. It about looking at all the
things that have to happen to support a large number of small cell
deployments and working on those so that the total cost is right. That
doesn't mean using cheap components, but using great components very
smartly in order to tackle that cost of ownership.
If you tried to deploy a hundred small cells in a city, a big chunk of that
complexity would be having a hundred lead discussions with building
owners in order to mount them. That is a big administrative cost,
uncertainty, time delays and all that is solved by having a single permission
by the city to use their columns.
A city can help by providing a single consent from all its street columns.
Planning permission is still required, but at the end of the day you can
reach a partnership with the city that takes a big chunk of the cost out of
the deployment.
The second problem is the backhaul capacity. If you're going to build a
capacity layer, make sure it's a great one. It's about us understanding how
to extend the fibre network. If you look at work we've done in Leeds and
Bradford, the lengths we dug, which is a key component of the cost of
bringing in the fibre, it's about 10-20 metres. So if we can find locations that
operators need to use, that are within 10-20 metres of where the fibre is, we
can get the fibre to those locations. Fibre is the number one choice for
operators provided it's at the right price point and it's available.
What about interference issues?
We've chosen two backhaul technologies to trial. What we're doing in the
millimetre "V Band", which works at 60GHz, is turning a previous weakness
into a great strength.
The 60GHz band suffers from oxygen absorption and so it doesn't go as
far as other bands. In the past it hasn't been used that heavily as it doesn't
go the kind of distances people wanted for a wireless backhaul link. In a
city you don't need to go kilometres in your small cell architecture, you just
need to go a couple hundred metres. So then what you've got is a band
very capable of working at that kind of distance, with great capacity and a
nice narrow beam. Dr Partho Mishra, VP & General Manager, Service Provider Access Group, Cisco
Q&A: VIRGIN MEDIA BUSINESS’ DIRECTOR OF WIRELESSKevin Baughan, director of wireless at Virgin Media Business, discusses its new, hosted small cells proposition
mobileeurope.co.uk | Mobile Europe | 5
The key test at 60GHz will be making sure that any movement of the
pole doesn't cause a problem with the alignment. But at the same time, it's
great for whizzing it across a busy road where you have buses and lorries
going up and down, to make sure that you've got a strong connection.
Then there are microwave systems, which work in their own spectrum.
We work in combination with the operators who own those bands of
spectrum for the microwave links.
Microwaves have got a broader beam and very clever designs that make
sure they stay connected to their neighbouring units, so they quite often
have multiple antennas and little motorised units to make sure they stay
perfectly aligned.
The interesting test is to make sure they perform well with very large metal
reflectors called buses zooming up and down the road beneath them. We're
expecting them to perform well but we’ll validate that in the tests.
What other key challenges do operators still have to face?
Apart from getting the right site, the power and the backhaul, operators
have two big areas to focus on. First, is the availability of small cells. We're
seeing the right products coming out with right form factors and
characteristics, for example Huawei's Atom Cell, and we did trials in the
past with Alcatel-Lucent units. The operators need to get on with finding
and selecting small cells, and the vendors need to get on with making them
available.
Second, is thinking through the coordination, [such as] the radio
planning aspect, to make sure that, if needed, the small cell can talk to the
macrocell, and intercell interference coordination is running and active.
That's why a lot of operators want small cells from the same vendors who
provided the macrocell, so that they can ensure really good intercell
interference coordination.
In my mind, an easier way to do this is that if you've got the 2.6GHz
spectrum, you could almost deploy it as a kind of "small cells layer". The
idea is that if you don't deploy 2.6GHz (which doesn't exist for small cells at
the moment) and you deploy 800 MHz, you can deploy 2.6GHz. This
means you wouldn't need to coordinate with the macrocell, you'd only have
to organise within the small cells architecture, which is an easier problem
than coordinating with the macrocell.
There are other challenges too, particularly around partnership. London
Underground [is a good example of] a strong partnership as is those we
have with cities such as Leeds.
In order to really make use of another organisation's assets, like
underground stations or street columns in a city, it's about a really good
partnership between two groups and an ability to work together to make
the assets available.
Without the help of the London Underground, for example, the Wi-Fi
network wouldn't have succeeded in time for last year’s Olympics and
wouldn't have continued to grow.
Without the help of the cities, it makes it much harder to mount the small
cells. In a city, columns in busy areas tend to be "busy". It's not just about a
light, it's about advertising banners, festive lights. Columns in popular areas
are themselves quite busy, so sometimes councils need to make decisions
about what can go on a column.
In Leeds, the council had to decide to take down additional lights in
order to make space for the small cells unit. Other constrictions are getting
space in the base of the column to put an electrical isolator for your unit.
Paul Senior, CTO, Airspan
Adi Nativ, VP, Global Business Development, Radwin
Small Cells World Summit 2013
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INFOVISTA HAS A FEAR – a fear that backhaul will be increasingly more
difficult for operators as they move towards full-scale 4G LTE and LTE-A
deployments, especially if small cells are involved.
“When it comes to small cells, we’ve already surpassed macrocells, and
we're only at the beginning. This is a bit frightening to me. From a macro
perspective, i.e. 3G, 3.5G, 4G, the transition to IP in the backhaul has been
very difficult for operators,” says Juan Pablo Prieto Baez, Product
Marketing Manager, Mobile Services, InfoVista.
“Operators need to start managing each new technology they deploy
properly, straight away from the beginning. The problem with LTE is that
there is so much to gain at the moment, that the last thing they're worried
about right now is performance.”
Baez feels that operators aren’t
considering performance on LTE
networks as there are not too many
handsets on LTE right now, but
once subscribers complete their
contracts and more people have
LTE handsets, there will be a great
spike in traffic.
“Some operators are very
proactive in spotting potential
trouble spots in the future and
avoiding them, but if you have
100,000 small cells plus 20,000
macrocells, that's 120,000 trouble
spots. If something goes wrong,
you could end up with more than
120,000 backhaul connection
problems,” he said.
InfoVista feels that the first step
an operator should take towards
deploying small cells should be to optimise its frequency spectrum.
“You would be surprised how many operators are not 100 percent sure
on their frequency spectrums. The newer the technology, the better the
efficiency, but one technology is not good enough for every single cell. To
get the most out of your network, some self-optimising network (SON)
features should be deployed as soon as possible,” he says.
“If your network starts changing dynamically and operating on its own,
and you haven't optimised your macrocell network, how can you even
plan for small cells? First you need to know where you have spikes of
traffic and lack of capacity on your current 3G network.”
According to Baez, since small cells are much simpler in construction,
Dr John Naylon, CTO, CBNL
6 | Mobile Europe | mobileeurope.co.uk
Small Cells World Summit 2013
HAVE YOU DONE YOUR RF PLANNING PROPERLY?
Click here to view CBNL's white paper "Small cell backhaul:The big Picture"
InfoVista’s Juan Pablo Prieto Baez tells Mary-Ann Russon about the challenges and pitfalls associatedwith rushing through a small cells deployment without analysing and optimising the network first
Image courtesy of Infovista
operators need to take special
care when balancing traffic loads,
and the best way to do that is
with SON.
Once you’ve got SON
functionality on board, operators
next need to look closely at
where the traffic in their networks
comes from.
InfoVista analyses various
forms of traffic, such as macro
traffic, geo-location traffic and
even dynamic social media
traffic, to produce high-definition
3D maps showing peak traffic
spots over time.
“You might even realise, based on this map, that deploying a macrocell
would make more sense, even if it's more expensive, compared to
installing 10 small cells and the complexity of [figuring out] the backhaul
connections,” Baez adds.
Another mistake operators are making is that they don’t always know
how much capacity and coverage they actually have in their networks, so
when they decide to deploy a new macrocell or small cell, they’re working
based on a simulation, which means costly mistakes are possible.
“Operators are spending a tremendous amount of money tweaking
their macro networks. If they don't get the small cells right, they could
end up spending three to four times that amount – you don't have the
flexibility of changing antenna tilts with small cells, you'd need to
physically climb up there to adjust them,” says Baez.
“You don't want to be wasting money putting in new poles and installing
the small cell, and then discovering that
you should have put the pole somewhere
else and then have to move the backhaul
there.”
One of the key issues mentioned by
operators at the Small Cells World Summit
is the difficulty in managing interference
between small cells and the macro network,
as well as interference between different
types of small cells from different vendors.
“If you're an operator and you have a
SON interference algorithm from your
small cells vendor, and your macrocells
vendor has another SON interference
algorithm, how will you stop interference
between both vendors?” asks Baez.
InfoVista believes that operators need to move away from the traditional
method of “working in silos”, as networks are “way more dynamic than
they used to be”.
“On the IP side of things, it's important to plan the networks across the
technology. Operators need to get their engineers to plan the backhaul
connection regardless of what technology is being used, be it millimetre
wave or fibre. Get the same people to plan the networks, as in the end of
the day all you're doing is connecting all the different bits together,”
comments Baez.
“This is the best way to ensure cost efficiency and good performance as
IP backhaul, namely microwave and millimetre wave, has caused a lot of
headaches. New things like millimetre wave or Wi-Fi backhaul – if you pair
it with a TDM connection of the past, in terms of reliability, they're on two
different sides of the spectrum.”
mobileeurope.co.uk | Mobile Europe | 7
Todd Mersch, Senior Director, Software & Solutions, Radisys
Small Cells World Summit 2013
WIRELESS NETWORK SOLUTIONS provider Altobridge has launched a
platform at the Small Cells World Summit that enables multi-layered
caching both at the base station and on subscribers’ mobile devices, to aid
operators in freeing up their core macrocell radio access networks.
Altobridge’s Data-at-the-edge software enables operators to provide
content at the edge of their networks together with help from Intel’s low-
power single and multi-core Atom processors, which can be placed in small
cells as well as in the Management Gateway located in the core network.
Altobridge has already deployed its software commercially with
Southeast Asian operator Maxis in Malaysia in November 2012, but today’s
announcement extends the caching capability all the way to the
subscriber’s handset.
“Before this, the content server was located outside the packet core, and
it doesn’t make sense to have a popular YouTube stream using up the
RAN,” Mike Fitzgerald, CEO of Altobridge told Mobile Europe.
“What we’ve seen here at the Small Cells World Summit is that in some
countries, the bottom line is that operators will have to pay more tax for
small cells.
“There's no question that coverage and capacity remain top priorities to
operators, but if you're going to go to the trouble of deploying millions of
small cells, you should at least have something in it to generate revenue.”
The concept is that content can be pushed through to the subscribers’
handsets before they awaken, for example, the latest news in their news
apps or the latest car brochure from a brand app, for example.
In addition, the content can also be hosted at the edge of the network in
the base station, thus freeing up the network for operators looking to offer
premium services.
While the solution sounds a lot like Liquid Applications, touted by Nokia
Siemens Networks recently at Mobile World Congress in February,
Fitzgerald says that Altobridge’s platform is meant to complement
infrastructure providers’ equipment.
“What we did that was quite different was that we went ahead and rolled
it out by ourselves as we knew we had to prove ourselves, prove that it
worked and show operators the benefits, in order for the OEMs to come
out to play,” he said.
“3G and 4G networks can now deliver the same experiences. We're
balancing the network out so that the device experience can be the same
as a laptop on a wired fibre connection or Wi-Fi access point.”
ALTOBRIDGE DEBUTS INTEL-BASED NETWORKEDGE SMALL CELLS CACHING SOLUTION