ma: Add country overview

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jaseg 2020-05-18 14:48:02 +02:00
parent a2ac379013
commit ac8c748802
2 changed files with 94 additions and 9 deletions

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@ -1164,4 +1164,66 @@
urldate = {2020-05-14},
}
@InBook{brown01,
author = {Marilyn A. Brown and Shan Zhou},
booktitle = {Advances in Energy Systems: The Large-scale Renewable Energy Integration Challenge},
date = {2019},
title = {SmartGrid Policies: An International Review},
doi = {10.1002/9781119508311},
edition = {First Ed.},
publisher = {Wiley},
subtitle = {The Large-scale Renewable Energy Integration Challenge},
comment = {Extremely obvious industry pandering.},
year = {2019},
}
@WWW{kamstrup01,
author = {Kamstrup A/S},
date = {2018},
title = {STS prepayment meter},
url = {https://www.kamstrup.com/en-en/electricity-solutions/smart-electricity-meters/sts-prepayment-meter},
urldate = {2020-05-18},
}
@Book{sato01,
author = {Takuro Sato and Daniel M. Kammen and Bin Duan and Martin Macuha and Zhenyu Zhou and Jun Wu and Muhammad Tariq and Solomon Abebe Asfaw},
date = {2015},
title = {Smart Grid Standards},
publisher = {Wiley},
subtitle = {Specifications, Requirements and Technologies},
}
@Report{ec03,
date = {2014},
institution = {European Commission},
title = {Single Market Progress Report: Country Profiles Italy},
type = {resreport},
url = {https://ec.europa.eu/energy/sites/ener/files/documents/2014_countryreports_italy.pdf},
urldate = {2020-05-18},
}
@Report{usitc01,
author = {Lisa Alejandro and Caitlin Blair and Laura Bloodgood and Mahnaz Khan and Martha Lawless and Daniel Meehan and Patrick Schneider and Karl Tsuji},
date = {2014},
institution = {U.S. International Trade Commission},
title = {Global Market for Smart Electricity Meters},
type = {resreport},
subtitle = {Government Policies Driving Strong Growth},
url = {https://www.usitc.gov/publications/332/id-037smart_meters_final.pdf},
urldate = {2020-05-18},
}
@TechReport{toshiba01,
author = {Mitsuhide Ishima and Kiyoyuki Terai and Yoshihiro Ogita},
date = {2018},
institution = {Toshiba Energy Systems and Solutions},
title = {Construction and Operation of Communication System for Smart Meter System of TEPCO Power Grid, Inc.},
pages = {46-50},
url = {https://www.toshiba.co.jp/tech/review/2018/04/73_04pdf/f02.pdf},
urldate = {2020-05-18},
issue = {4},
journaltitle = {Toshiba Review},
volume = {73},
}
@Comment{jabref-meta: databaseType:biblatex;}

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@ -422,10 +422,11 @@ top of the regular mains voltage. These systems require high-power transmitters
bridge regional distances\cite{dzung01}.
Another important additional function is that in some countries some smart meters can be used to remotely disconnect
consumer households with outstanding bills. Using euphemisms such as \emph{Utility Revenue Protection} or the more
cynical \emph{Consumer Empowerment}\cite{kamstrup01} these systems allow an utility company to remotely disconnect a
customer at any time. Whereas before smart metering this required either additional hardware or an expensive site visit
by a qualified technician smart meters have ushered in an era of frictionless control\footnote{
consumer households with outstanding bills. Using euphemisms such as \emph{utility revenue protection}\cite{kamstrup01}
or \emph{reducing nontechnical losses}\cite{brown01} while cynically claiming \emph{Consumer
Empowerment}\cite{kamstrup01} these systems allow an utility company to remotely disconnect a customer at any time.
Whereas before smart metering this required either additional hardware or an expensive site visit by a qualified
technician smart meters have ushered in an era of frictionless control\footnote{
Note that in some countries such as the UK non-networked mechanical prepayment meters did exist. In such systems the
user inserts coins into a coin slot that activates a load switch at the household's main electricity connection.
These systems were non-networked and did not allow for remote control. A disadvantage of such systems compared to
@ -466,22 +467,44 @@ transport encryption and other cryptographic services\cite{bsi-tr-03109-2,bsi-tr
\subsubsection{France}
% FIXME
\subsubsection{the UK}
\subsubsection{The UK}
% FIXME
\subsubsection{Italy}
% FIXME
\subsubsection{Northern America}
% FIXME
Italy was among the first countries to legally mandate the widespread installation of smart meters in households. Italy
in 2006 and 2007 by law set a starting date for the rollout in 2008\cite{brown01}. The Italian electricity market was
recently privatized. While the wholesale market and transmission network privatization has advanced the vast majority of
retail customers continued to use the incumbent distribution system operator ENEL as their supplier\cite{ec03}. This
dominant position allowed ENEL to orchestrate the large-scale rollout of smart meters in Italy. An unique feature of the
Italian smart metering infrastructure is that it relies on Powerline Communication (PLC) to bridge distances between
meters and cellular radio gateways\cite{gungor01}.
\subsubsection{Japan}
% FIXME
Japan is currently rolling out smart metering infrastructure. Compared to other countries in Japan significant
standardization effort has been spent on smart home integration.\cite{usitc01,sato01,brown01}. Japan has domestic
standards (JIS) for metrology and physical dimensions. The TEPCO deployment currently being rolled out is based on the
IEC DLMS/COSEM standards suite for remote meter reading in conjuction with the Japanese ECHONET protocol for the
home-area network. Smart meters are connected to TEPCO's backend systems through the customer's internet connection,
sub-gigahertz radio based on 802.15.4 framing, regular landline internet or PLC\cite{toshiba01}.
\subsubsection{The USA}
In the USA the rollout of smart meters has been promoted by law as early as 2005. The US electricity market is highly
complex with states having significant authority to decide on their own policies\cite{brown01}. Different from the IEC
standards used in large fraction of the rest of the world, the USA have their own domestic set of standards for smart
meters developed by ANSI\cite{sato01}. The main difference between IEC and ANSI-standard meters is that ANSI-standard
meters are round devices that plug into a wall-mounted socket while IEC devices are usually rectangular and connected
directly to the mains wiring through large screw terminals\cite{ifixit01}.
\subsection{Common themes}
% FIXME
% FIXME overall thing: here or somewhere else mention the ongoing confusion of smart metering and smart home, e.g.
% sato01
\section{Security in smart grids}
The smart grid in practice is nothing more or less than an aggregation of embedded control and measurement devices that