Can advertising make free-to-air broadcasting more profitable than pay-TV?
Kesenne, Stefan
Introduction
The general belief is that pay-TV is more profitable than free-TV
for a private broadcaster to air sports events, because the former
provides two major revenue sources: subscription fees and advertising
revenue, whereas the latter can only rely on advertising revenue (see
also Hoehn & Lancefield, 2003).
On the one hand, FIFA and UEFA, the International and the European
Football Federation, are protesting against the restrictions imposed by
the European Commission on selling football broadcast rights. The
European Commission does not allow some major national and international
sports events, considered as crown jewels, to be hidden behind decoders
and high subscription fees. A national pastime should be open to the
public, free of charge.
On the other hand, the organizers of the Primavera, the classic
cycling race in Italy, Milan-San Remo have always sold the broadcast
rights to open-air TV channels with the exception of only one year in
the mid-1990s when the rights were sold to a paychannel, but this turned
out to be a big mistake.
Back in the early '90s, the Dutch public boycotted the private
TV channel of the Dutch Football Union (KNVB), called 'Sport
7,' which was claiming the exclusive right to broadcast Dutch
professional football, charging high fees (see Van der Burg, 1996). The
Dutch simply refused to turn to the 'Sport 7' channel to watch
the championship games, and 'Sport 7' lived a very short life.
In the US major leagues--NBA, MLB, and NFL--all games are broadcast
free-to-air or on (low-fee) cable TV, while the majority of European
networks do not show the national football matches free-to-air, but
rather on subscription or pay-per-view TV.
So, the question rises if free-TV can be more profitable than
pay-TV, and if free-TV channels are willing to pay a higher price for
the broadcast rights than pay-TV channels.
Holden (1993) argued that technological progress, which is usually
associated with the introduction of new or better products, may also
mean new methods of paying for old products. So is also pay-per view, it
does not change the production function; the TV programs that can be
made are no different from what could be made before; the innovation is
that the new technology makes it possible to let only the people who pay
to view a specific program such as a sports game receive access. Holden
(1993) compares pay-per-view with advertising-supported networks and
shows pay-per-view has reduced welfare.
Anderson and Coate (2005) present a theory of the market provision
of broadcasting and use it to address the nature of market failure in
the industry. Market provision may allocate too few or too many
resources to programming. Monopoly ownership may produce higher social
surplus than competitive ownership. Armstrong (2005), however, argues
that the advent of subscription television overcomes many of the market
failures which once existed. He discusses the merits of public
intervention in the provision of television broadcasting services and
argues that intervention was justified in the past when there were just
a few channels and when advertising was the only source of commercial
funds.
Anderson and Gabszewicz (2006) observe that many advertising
expenditures are incurred for television, which is also mainly supported
by advertising revenue. In the past, this might have caused market
failures in program duplication and a lack of cultural diversity and
quality, due to the competition for viewers of the demographics most
desired by advertisers, implying that programming choices were biased
towards the tastes of those with such demographics. The ability to use
subscription pricing can help improve performance by catering to the
tastes of those otherwise under-represented, though higher full prices
tend to favor broadcasters at the expense of viewers and advertisers.
Peitz and Valletti (2008) compare the advertising intensity and
content of programming in a market with competing media platforms. With
pay-TV, media platforms have two sources of revenues, advertising
revenues and revenues from viewers. With free-to-air, media platforms
receive all revenues from advertising. They show that if viewers
strongly dislike advertising, the advertising intensity is greater under
free-to-air television. They also show that free-to-air television tends
to provide more similar content whereas pay-TV stations differentiate
their content. They also discuss the welfare properties of the two
different schemes.
The model in this paper is closely related to the analytical model
of Dietl and Hasan (2007). They show that the probability of free-TV
airing of major sports increases, among other parameters, with a higher
sensitivity of sponsoring fees to viewer ratings and a higher price
sensitivity of consumer demand. In our model the price sensitivity does
not affect the broadcaster's choice between pay-TV and free-TV, but
the level of consumer demand does, as also indicated by Szymanski
(2003). Furthermore, in our model, it is not the absolute level of
consumer demand, nor the absolute value of the sponsoring fees per
viewer, that are affecting the choice, but it is the ratio between the
level of demand and the sponsors' sensitivity that is crucial for
the decision of a profit-maximizing sport broadcaster. In our opinion,
there are reasons to believe that this ratio tends to be lower in the US
than in Europe, which might explain why in the US, free-TV, rather than
pay-TV, dominates.
In analyzing sports and the media, it is important to realize that
two markets are at play, which, though interdependent, should be clearly
distinguished. The first one is the market of TV rights, with the sports
clubs and the league on the supply side and the broadcasters on the
demand side. The second market is the down-stream market of televised
sports, with the broadcasters on the supply side and the TV spectators
on the demand side. If the TV rights are monopolized and sold to just
one (highest bidding) broadcaster, another monopoly is created in the
market of televised sports. If pay-TV is an option, the price charged to
the TV spectators will then be too high and the number of games that are
broadcast will be too low. Moreover, in deciding about either free-TV or
pay-TV, the broadcaster also has to take into account the interests of
the sports organizer, which prefers more TV viewers to less TV viewers.
In this contribution, we try to analyze under what conditions
free-TV is more profitable than pay-TV, based on a simple theoretical
model of a profit-maximizing TV company that holds a monopoly position
in the market of televised games.
A Simplified Model
Assume that the demand for TV sports, supplied by a monopolist
broadcaster is given by
p = [alpha] - [[beta].sub.q] (1)
where p is the price per view (or the subscription fee) and q is
the number of spectators or the number of subscribers.
The smaller [beta], the more price-elastic is the demand for TV
sports. However, pay-TV is not the broadcaster's only source of
revenue. Besides the payments by TV spectators, a broadcaster can also
receive income from TV advertising before, during, or after the games.
Assume that advertisers are willing to pay an amount as large as
[lambda] per TV viewer. It follows that the broadcaster's total
revenue can be written as:
R = pq + [[lambda].sub.q] = ([alpha] + [lambda])q-[beta][q.sup.2]
(2)
The average revenue per spectator AR is then: R/q = p + [lambda] =
([alpha] + [lambda])-[[beta].sub.q], which is parallel to the demand
curve D. The marginal revenue MR is: [partial derivative]R / [partial
derivative]q = ([alpha] + [lambda] - 2[[beta].sub.q]
On the cost side, we consider two cost categories: the broadcast
rights the TV company has to pay, and the operational cost to broadcast
the games, including transportation, equipment, and personnel. These
costs are all independent of the number of spectators that watch the
games on TV. So the total cost C=[C.sub.0] is fixed and the marginal
cost is zero (see Kesenne, 2007). In Figure 1, this model is graphically
presented.
On the horizontal axis, the number of spectators is measured and,
on the vertical axis, the pay-per-view price or the subscription fee.
The demand for TV sport is presented by the linear curve D. Given the
constant average revenue ([lambda]) from TV advertising, the average
revenue and marginal revenue curves of the broadcaster are given by the
AR and MR. Because the total cost is constant, the marginal cost is zero
and the average cost is the downward sloping hyperbolic curve AC.
Pay-TV versus Free-TV
If the pay-TV broadcaster is a profit maximizer, he will set a
price that maximizes profits [[pi].sub.v] = R - C = ([alpha] +
[lambda])q - [beta][q.sup.2] - [C.sub.0]. From the first-order condition
([alpha] + [lambda]) - 2[beta]q = 0 the optimal number of spectators can
be found as:
[FIGURE 1 OMITTED]
q* = [alpha] + [lambda] / 2[beta] = (3)
The optimal price is then:
p* = [alpha] - [lambda] / 2 (4)
From this result, it can be seen that the optimal price can be
negative if [alpha] < [lambda], although this outcome is not very
realistic. It would imply that broadcasters are willing to pay their TV
viewers, because sponsors are very sensitive to viewer ratings.
Substituting the optimal values in the profit function, the
broadcaster's profit in the pay-TV scenario is then:
[MATHEMATICAL EXPRESSION NOT REPRODUCIBLE IN ASCII] (5)
In the free-TV scenario with zero price, p' = 0, the demand
for games or the number of spectators would be q1 = [alpha]/[beta]. So,
profit would then be equal to:
[MATHEMATICAL EXPRESSION NOT REPRODUCIBLE IN ASCII] (6)
The difference between the profits in both cases can then be
calculated as:
[MATHEMATICAL EXPRESSION NOT REPRODUCIBLE IN ASCII] (7)
Because the difference is always positive, we can conclude that,
for whatever values of the parameters [alpha], [beta], and [lambda],
pay-TV is more profitable, which confirms the general belief.
In Figure 2, the profit maximizing number of spectators is found at
the point of intersection of the MR and the zero MC, which is q*, and
the optimal price is p*. Profits can be found as the product of the
number of spectators (q*) and the difference between the average revenue
(ar) and the average cost (ac).
[FIGURE 2 OMITTED]
In the free-to-air scenario with the price equal to zero, the
number of spectators can be seen to equal q' The average revenue
(ar') which now only consists of advertising receipts, is equal to
[lambda]. Profits are now indicated by the product of the number of
spectators (q') and the difference between [lambda] and the average
cost (ac'). The difference in profits will be larger, the higher
the demand level ([alpha]) and the more elastic the demand curve
(1/[beta]). The more advertisers are willing to pay for TV adds
([lambda]), the lower will be the difference in profits.
The Impact of Board and Shirt Advertising
However, the result in the previous section is not the end of
story. If the games are broadcast free-to-air, more spectators are
watching, which makes it also more interesting for businesses to
advertise on player shirts and field boards, which is an additional
revenue to the organizer, the league, or the club. Under these
circumstances, the organizer would be willing to sell the broadcast
rights at a lower price. The price reduction the organizer is willing to
grant to a free-to-air broadcaster will depend on the extra TV
spectators that can be expected on free-TV compared with pay-TV, which
is in our model:
[DELTA]q = [alpha] / [beta] - [alpha] + [lambda] / 2 [beta] =
[alpha] - [lambda] / 2[beta] (8)
If these shirt and board advertisers are willing to pay the same
amount of [lambda] per viewer as done by the TV advertiser, the reduced
cost of the broadcaster will be:
C = [C.sub.0] - [lambda] [alpha] - [lambda] / 2[beta] (9)
With this new cost function, with again a zero marginal cost, the
difference between profits in the pay-TV and the free-TV case becomes:
[MATHEMATICAL EXPRESSION NOT REPRODUCIBLE IN ASCII] (10)
As can be seen now: [[pi].sub.p] < [[pi].sub.f] if
[alpha]/[lambda]<3. So, it is not generally true that pay-TV is more
profitable than free-TV. Free-to-air broadcasting can be more profitable
than pay-TV, depending on the ratio [alpha]/[lambda], that is: depending
on the level of demand and the price that advertisers are willing to pay
per TV viewer. The lower the demand for televised sport and the more
advertisers are willing to pay, the more profitable free-TV will be. As
distinct from the result in Dietl and Hasan (2007), the elasticty of the
spectators' demand does not affect the choice for free-TV.
In Figures 1 and 2, the impact of shirt and board advertising can
be introduced by a downward shift of the average cost curve in the case
of free-TV, so that it is possible that free-TV profits can be higher
than pay-TV profits.
What happened to the broadcasting of the classic bike race
Milano-San Remo offers a good illustration of this effect. When the TV
rights were sold to a pay-TV network, the number of TV spectators
dropped dramatically due to the pay-per-view price. So, the sponsors of
the racing teams and the board advertisers threatened to reduce their
sponsorship money. The next year and ever since, the organizer decided
to sell the rights of the Primavera again to a free-to-air network,
although pay-TV channels were willing to pay a higher price for the
broadcast rights.
One can take the analysis one step further by assuming that the
marketing effect of a direct TV add, which can show a video with a story
or a clear message, is more effective than the effect of just a brand
name on a board or a shirt. So, the money that advertisers are willing
to pay per viewer is lower for board and shirt advertising. Assume that
the price which advertisers are willing to pay per spectator for board
and shirt advertising is y with y<1. In that case on can derive for
the difference in profits:
[MATHEMATICAL EXPRESSION NOT REPRODUCIBLE IN ASCII] (11)
This implies that free-TV is more profitable than pay-TV if [alpha]
- [lambda] / [gamma] <2 which is less likely than the previous
condition [alpha]/[lambda]<3. One might also consider including in
the analysis the fact that many spectators do not like interruptions for
TV adds. If TV adds reduce the demand for televised sports, this implies
a lower value of a, which makes it more likely that free-TV is more
profitable than pay-TV.
Discussion and Conclusion
In this contribution we have tried to show, using a simple
theoretical model, that payTV is not always more profitable than free-TV
for a profit-maximizing broadcaster. The main reason is that one also
has to take into account the interests of the board and shirt
advertisers and the spectators' aversion for TV adds.
Can this result also shed some light as to why in the US major
league sports, free-TV prevails, while in European soccer, pay-TV is
more dominant? In other words, are there reasons to believe that the
ratio between demand level and sponsor's sensitivity
([alpha]/[lambda]) tend to be lower in the US and higher in Europe?
Apart from historical, structural, and institutional differences on both
side of the Atlantic (see Hoehn & Lancefield, 2003; Szymanski,
2003), an important factor is the scale effect in the US, with its large
market compared to the smaller national markets in European soccer.
However, in the US, four major leagues, with partly overlapping seasons,
have to compete for the TV spectator's interest, whereas in most
European countries, soccer is so dominant that there is hardly any
competition from other televised sports. Moreover, as argued by Dietl
and Hasan (2007), the average season appeal for games in Europe might be
higher because of the promotion and relegation system, forcing the
weaker teams to fight in order not to be relegated to a lower division,
and because of the fight to qualify for the European competitions (UEFA
Champions League and Europa League), which provide an additional contest
in the national championships, possibly leading to a high demand for
televised soccer in Europe. In our model above, the demand level is
given by the size of the parameter a. We can only think of one reason
why the value of [lambda], that is the price advertisers are willing to
pay per TV viewer, should be higher in the US than in Europe. Soccer in
Europe goes on uninterrupted for two times 45 minutes. The major league
sports in the US, such as basketball, football, and baseball are
interrupted more often, by time-outs and by their segmentation into
thirds, quarters, or ninths, which allows networks to run more
commercials. So, the relative size of these parameters might be part of
the explanation why the major league sports in the US are broadcasted
free-to-air and Europe has to pay to watch soccer on TV.
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Stefan Kesenne
University of Antwerp
Stefan Kesenne, PhD, is a professor in the Economics Department.
His research interests include sport economics and labor economics.