MARKET
DYNAMICS OF SATELLITE-DELIVERED KA-BAND BROADBAND
SERVICE
2003
(courtesy of Frost & Sullivan)
By offering faster throughput,
smaller spot beams, dynamic bandwidth allocation and smaller antennas, Ka-band
promises better satellite broadband service, more convenience and lower cost.
Ka-band may reinvigorate satellite broadband service where Ku-band systems
failed. Each of the potential markets for satellite broadband service - the
consumer market, the enterprise market, and the military market - is unique.
The attractions and aversions to Ka-band are different in each market, and each
has unique barriers to entry.
The enterprise market for
Ka-band-delivered satellite broadband is more promising than the consumer
market. This is not because there is less latent demand in consumer market; on
the contrary, our research will demonstrate that consumer potential demand is
strong and more easily identified and measured than is enterprise demand.
Rather, the enterprise market is more promising because enterprise users can
benefit from Ka-bands features is ways that individual consumers cannot.
Moreover, though the consumer market is limited to areas not covered by
terrestrial broadband service, the enterprise market is not.
The
military market for Ka-band broadband communications also shows potential, but
military demand may not benefit all sectors of the industry. Though satellite
manufacturers are sure to benefit from military demand, operators
participation depends upon the outcomes of current debates within the US
military.
Consumer Market
There is tremendous, untapped
demand in the consumer market for satellite broadband. Using North America as a
case study, roughly 60 to 75 percent of United States residents live in regions
serviced by terrestrial broadband networks. In 2001, approximately eight
percent of residents subscribed to broadband service. That means that about
eight percent of Americans were willing to pay around $45 per month for
broadband service. Satellite broadband is more expensive than terrestrial
service, and the quality of service is not quite as high (and even with Ka-band
systems, some transmission latency is inevitable). Hence, satellite broadband
can only attract customers among the 25 to 40 percent who do not live in
regions services by terrestrial broadband. We call these un-serviced regions
the rural market (rural here means, strictly, "not covered by
terrestrial broadband," though this segment of the population actually is more
rural by the traditional definition). Rural Internet users will be less willing
to pay for broadband, for two reasons: first, they are likely to have somewhat
lower incomes. Second, they are not as likely to have been exposed to broadband
service as their "urban" counterparts who work in businesses that use
broadband, and are therefore not as likely to be aware of its benefits. We can
therefore safely assume that the percentage of "rural" users willing to pay $45
per month for broadband would be less than that of urban users. If we assume
that rural users have only one-tenth the interest in broadband, then 0.8
percent of rural users would be willing to pay $45 per month for broadband
service. This leaves over two million potential users in the United States
alone in 2001.
Despite what seems to be strong latent demand for
satellite broadband, subscriptions remain very low. As of mid-2002, the actual
percentage of satellite broadband users in the US was much lower than 0.8
percentDirecPC and DirecWay, the most successful satellite broadband
providers, had around 123,000 subscribers. That means that only .04 percent of
rural Internet users actually subscribe to satellite broadband, much lower than
the 0.8 percent who would want it for $45 per month, again assuming that
interest in broadband service in rural is only ten percent as
robust urban demand. DirecPC and DirecWay have less than five
percent of the estimated total available market (TAM) for satellite broadband
residential service (see Chart 1).
Chart 1: DirecWay and DirecPC share of the Total Available Market

Source: Frost & Sullivan World Ka-Band Satellite Broadband Services, © 2002
There are two reasons for the large discrepancy between seemingly strong demand and poor subscription levels for satellite broadband. First, the quality of service for satellite broadband has not been as high as hoped. Second, the price is too high. High prices are especially harmful to the residential satellite broadband providers because their target market has less disposable income. Demand for broadband service in urban areas probably follows a traditional demand curve where a few people with high incomes are willing to pay a lot for service, a few with low income willing to pay only a little for service, and demand is evenly distributed between these two extremes (see Chart 2).
Chart 2: Demand for Broadband Service in Urban Areas

Source: Frost & Sullivan World Ka-Band Satellite Broadband Services, © 2002
But incomes in rural areas are
less evenly distributed, with a large portion of the population earning a lower
income and only a few earning high incomes. This leads to a sharper demand
curve. Moreover, broadband service is a luxury good and consumers are therefore
price inelastic; if they can afford it, they will get it, but they will not
stretch their budgets for it.
This hypothesis suggests that very few
Internet users will pay the $60 to $90 per month for satellite broadband. Even
if operators lowered their price to $50 per month, few new subscribers would be
gained. But if operators can lower their prices past a certain "feather point,"
after which the market loosens, then many new subscribers can be gained (see
Chart 3).
Chart 3: Demand for Broadband Service in Rural Areas

Source: Frost & Sullivan World Ka-Band Satellite Broadband Services, © 2002
Where the actual feather point
is difficult to determine. It is certainly lower than $60 per month and a $500
up-front equipment fee that satellite broadband providers charge today. The
typical North American pays about $20 to $40 per month for cable television,
and the feather point is probably somewhere around that level.
However,
satellite broadband ventures will have difficulty meeting such a price.
Equipment costs alone are in the hundreds of dollars per terminal. Added to
this is the cost of the space segment, operations, and customer
service.
The consumer market for satellite-delivered Ka-band broadband
service is potentially huge, with millions of subscribers in North America
alone. But the barriers to entry are formidable.
Enterprise Market
The enterprise market for
Ka-band-delivered satellite broadband is much more promising than the consumer
market. This is not because the enterprise market is potentially larger in
terms of unserved demand (the section above shows that there is much unserved
demand in the consumer market), but because enterprise customers can benefit
from Kaband in ways that consumer customers cannot:
First, businesses
benefit from satellites ubiquitous coverage. Multi-site businesses using
satellite broadband networks are guaranteed broadband access, regardless of a
sites remoteness or inaccessibility (though rain attenuation is always a
consideration). Consumers benefit from omnipresent satellite coverage too, but
only a business, with more than one location spread over a country or a
continent (or several) will truly benefit from ubiquitous
coverage.
Second, businesses can benefit from the peer-to-peer
networking that Ka-band broadband systems will offer. If two satellite
broadband users are on the same system, and the satellite has an on-board
processor, then they can communicate directly, with out having the signal
travel through a hub (which would require two hops and would double
transmission time). Two users who work at the same company or organization are
likely to be on the same system. Two private users (in the consumer market) are
less likely to be on the same system, and would require a double
hop, hence slower communication. The full-mesh or peer-to-peer
communication that Ka-band facilitates is therefore more relevant to the
enterprise market. Because consumer users are less likely to be on the same
system when they communicate, they are less likely to be able to benefit from
onboard processing. It is therefore more appropriate consumer-targeted
broadband systems to use a bent pipe (which is what WildBlue and Miraxis are
proposing).
Curiously, the value of a peer-to-peer network is
proportional to the number of subscribers on a network. That is, if there are
many such systems available and the market is fragmented, then businesses will
be less likely to be able to communicate directly with other businesses on a
one-hop link. If business A is on one network, and business B is on another,
then they may as well be using a bent pipe. In other words, the ideal
situation, from the perspective of efficient telecommunications networks, is
for one company to have a monopoly on Ka-band satellite broadband, and for as
many businesses (and individual consumers) as possible to be on that network.
If many businesses offer the service, and each is on a different system (a
different satellite), then the value of the networks is diminished.
The
third benefit of satellite broadband unique to businesses is billing
consolidation. If a business uses terrestrial broadband data service, it
receives a bill from as many local providers as the business has sites. With
satellite broadband, the business would have only one bill. If telephony,
videoconferencing, business TV and other communication services were bundled
with satellite broadband, then bills would be consolidated even further.
Billing consolidation is not only a convenience for businesses, but allows them
to track use and spending on telecommunications, and saves time and money. It
is a real added value, and there is a precedent for companies paying a premium
for consolidated billing.
Only businesses can truly benefit from these
features of Ka-band-delivered broadband service, which is one reason that the
business market will demonstrate greater actual demand than the consumer market
will.
Military Market
Ka-bands higher
throughput, point-to-point connectivity and dynamic bandwidth allocation are
just as attractive to the military as they are to the civilian market, and the
military can benefit from Ka-band satellite technology in ways that neither
individual consumers nor even businesses can. The smaller ground station dishes
that are possible with Ka-band are especially attractive to the highly mobile
units in the armed forces. Additionally, Ka-band is resistant to jamming.
C-band transponders are easier to jam because their beams are broad - as long
as a saboteur is within the coverage zone, he can jam the signal. Ka-band beams
are much smaller, and the would-be saboteurs zone of opportunity is thus
smaller with Ka.
On the other hand, military users suffer Kas
disadvantages more acutely as well. Kabands susceptibility to rain
attenuation is more problematic for the military, whose operations are time
critical. Though an employee of a commercial organization might stand to wait
longer to download a file during a thunderstorm, a Marine commander in the
field during a battle cannot as patiently wait for a storm to pass before he
uploads instructions. However, the US military has used K-band (near to Ka-band
in frequency) and has found it to be appropriate for military use.
There
are two issues that are currently being debated in the military that will
determine how Ka-band will change the market for military communications for
the near-term and medium-term future. First, the military is trying to decide
whether it will consolidate its satellite communications over only one
(predominant) frequency band, or communicate over many frequency bands, as it
does today. Each has its advantages. Consolidating frequencies makes it easier
for different units to communicate as well as to exchange and repair one
anothers RF equipment. The main disadvantage is that it increases the
risk of interference. Naval vessels, for example, are notorious for causing and
receiving satellite communications interference to and from nearby units. If
the Navy were on its own frequency, the chances of interference would be
minimized. (The Navy is considering moving entirely off C-band by 2006.) If the
military consolidates transmission frequencies, then even if Ka-band becomes
the frequency of choice it may only displace the other frequencies. The affect
on market growth for satellite communications would then be net neutral. If
many frequencies are used, then each would be used for only certain
applications or for certain services, rather than having one
commodity frequency. In this case, military demand for Ka-band and
for satellite broadband would boost the market.
The second major
satellite communications decision that the military is debating is whether to
lease satellite capacity from commercial operators, or to acquire its own,
dedicated military communications satellites. The advantages of the former are
lower upfront investment and more flexibility, because communications assets
would be distributed among many operators each operating satellites at
different locations. The advantage of the latter is more security. Dedicated
satellites do not provide more information security than leased transponders,
because military signals are always encrypted anyway. But when leasing capacity
the military runs the risk of being denied use of a satellite operated by an
entity based outside the US, or based in a country hostile to the US at the
time of whatever conflict would prompt the military to lease the capacity. The
military is currently investing in Ka-band on both dedicated systems (such as
the Kaband Wideband Gapfiller System) and leased capacity (the US government
intends to lease come of Spaceways Ka-band capacity). One indication that
leasing commercial capacity will become the more attractive option is that the
US military is dispersing its troops. Since the Second World War, the
Pentagons policy was to have concentrations of troops in key outposts in
each theatre - Germany, Korea, and Okinawa, Japan, for example. Today, the
military wants a greater dispersion of troops in more locations. This makes it
more difficult to provide satellite communications through a few satellites,
and makes more attractive the ability to choose communications assets from many
different orbital locations.
The consequence of the leased versus
dedicated capacity debate is that it will determine the extent to which
satellite operators will have a role in military communications. Kaband
technology may boost military demand for satcom, but if the military chooses
only dedicated satellites, then only the satellite manufacturers will reap the
rewards, and operators may even stand to lose business.
Neither decision
will be absolute - that is the US military will always make use of more than
one frequency, even if Ka-band or X-band become the standard, and the military
will always have need for some commercial capacity, even if it decides to rely
primarily on dedicated satellites. But the degree to which the military chooses
one policy over the other will directly affect the degree to which the US
military drives the future markets for satellite communications in general and
for Ka-band in particular.
Currently, only the US military (and to a
lesser extent, the Spanish military) has demonstrated real interest in Ka-band
satellite communications. Militaries from other countries may gain interest if
the US shows that Ka can be effective for military use.
Conclusions
Even though it demonstrates
strong latent demand, the consumer market for Ka-band satellite broadband
service is price inelastic, and therefore difficult for service providers to
penetrate. The enterprise market is more price elastic because businesses can
benefit from Ka-band broadband service in ways that individual consumers
cannot. The enterprise market offers lower barriers to entry and will yield
higher returns to those that pursue it. A service providers choice of
whether to pursue the consumer or enterprise market must be made early because
it affects major design decisions such as whether to use a bent-pipe relay
system (better for consumer markets) or on-board processing (better suited for
institutional customers). Providers that try to make this decision in the later
phases, such as the marketing phase, run the risk of trying to sell services
inappropriate for their audience. Market entrants that are in the process of
making this choice ought to pursue the enterprise and institutional markets.
The consumer market will become profitable a few years after the enterprise
market has been served, once prices fall to the feather point that
makes satellite broadband service attractive to individual users.
The US
military market will be a sure source of satellite broadband demand, and much
of that demand is likely to be for Ka-band communications. If the military
consolidates its satellite communications on one dominant frequency, then
satellite communications will become commoditized - even if Ka-band becomes the
standard frequency, the militarys overall demand for satellite
communications will not necessarily increase. The decision on whether to lease
capacity or to acquire dedicated satellites will determine the extent to which
satellite operators will benefit from the militarys demand for broadband
communications, though satellite manufacturers will benefit in either
case.
The Ka-band market will develop over the next several years.
Growth will be incremental, as customers and operators gradually migrate to
Ka-band systems. Only in North America will the introduction of Ka-band be
sudden - Spaceway will flood the North American market with Ka-band in late
2003 and early 2004 with two large Ka-band satellites for its broadband
service. The following chart shows the regional distribution of Ka-band
capacity from 1992 to 2005.
Chart 4: Ka-band Commercial Capacity by Region, 1992 to 2005

Source: Frost & Sullivan World Ka-Band Satellite Broadband Services, © 2002
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