Transaction vs. switching costs-Comparison of three core mechanisms for mobile markets
Authored by Arturo Basaure, Henna Suomi, Heikki Hammainen
Date Published: 2016
DOI: 10.1016/j.telpol.2016.02.004
Sponsors:
Aalto University
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Model Documentation:
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Abstract
The fast growth in demand of mobile Internet urges mobile network
operators (MNOs) to rapidly increase the wireless network capacity. For
this purpose, governments are allocating large parts of the valuable low
frequency spectrum to MNOs. This expansion also adds pressure to better
optimize the intra-MNO and inter-MNO spectrum usage. Regulators are
concerned about problems such as network blackouts, coverage disparities
and congestion. Latest technology developments provide new mechanisms to
address these problems through two alternative evolution paths, operator-driven and user-driven. The operator-driven path permits
operators to trade network capacity and spectrum through, for instance, national roaming and dynamic spectrum access mechanisms, respectively.
On the other hand, the user-driven path enables users (and traffic) to
rapidly switch between networks through an end-user multihoming
mechanism which intensifies retail competition. MNOs are reluctant to
adopt these mechanisms if they involve risks. However, regulators can
facilitate the deployment of these mechanisms by guiding the level of
inter-MNO transaction costs and end-user switching costs. This paper
analyzes the market dynamics of these three core mechanisms by employing
agent-based modeling. Initial results indicate that each mechanism
improves allocative efficiency on a dynamic basis and that such
mechanisms become necessary if the current static market model based on
vertically integrated MNOs is not able to meet the requirements of
service quality, capacity and coverage. One promising use case of the
proposed mechanisms is the indoor femto-cellular deployment which
suffers from coverage disparity due to static single-MNO base stations.
Moreover, either end-user multihoming or national roaming may provide
MNOs a feasible business case for building indoor infrastructure by
solving coverage disparity problems, by means of competition or
cooperation, respectively. Dynamic spectrum access may work as an
extension of the previous mechanisms for solving congestion; however, it
requires higher technical and business coordination. (C) 2016 Elsevier
Ltd. All rights reserved.
Tags
Competition
Simulation
Internet
information
investment
Implementation
Industry
Carrier aggregation
Spectrum
Operators