The International Electrotechnical Commission
(IEC) has ratified a new standard - ISO/IEC 14543-3-10 - for
wireless applications with ultra-low power consumption. It is the
first and only wireless standard that is also optimized for energy
harvesting solutions and, therefore, for EnOcean's self-powered
wireless technology. Together with the EnOcean Equipment Profiles
(EEPs) drawn up by the EnOcean Alliance, this international
standard lays the foundation for fully interoperable, open wireless
technology comparable to standards such as Bluetooth and WiFi. The
standard can be downloaded from www.iso.org.
The new standard is geared to wireless sensors
and wireless sensor networks with ultra-low power consumption. It
also includes sensor networks that utilize energy harvesting
technology to draw energy from their surroundings - for example
from motion, light or temperature differences. This principle
enables electronic control systems to be used that work
independently of an external power supply. EnOcean, which develops
energy harvesting wireless technology, is a pioneer in this field.
The company has been producing and marketing maintenance-free
wireless sensor solutions for use in building and industrial
automation for more than ten years. EnOcean-based products are
currently installed in over 250,000 buildings around the world.
New market potential for energy harvesting
International standardization will accelerate
the development and implementation of energy-optimized wireless
sensors and wireless sensor networks. It will also open up new
markets and areas of application for energy harvesting solutions.
In addition to the already established markets for home and
building technology, there will be further uses ranging from the
smart home, smart metering and the smart grid to solutions for
industry, logistics and transport.
"EnOcean supported the development of the new
standard from day one. The ratification is a milestone in our
company history and validates the success and the potential of
energy harvesting technology. Standardization will boost the demand
for energy harvesting sensors and wireless modules and step up
their implementation. At the same time, we anticipate the
development of even more efficient energy harvesting solutions that
use a wide range of energy sources," says Laurent Giai-Miniet, CEO
of EnOcean.
Field proven standard for maximum interoperability
Members of the EnOcean Alliance have already
introduced more than 850 EnOcean-based, interoperable products, all
of which comply with the new standard. Developers and manufacturers
can therefore benefit from the Alliance's extensive practical
experience, huge product range and installed base, and many years
of user education. The EnOcean Alliance draws up the specifications
for the applications based on the standard. These EEPs (EnOcean
Equipment Profiles) ensure the interoperability of products from
different vendors. They are optimized for ultra-low energy
consumption and are therefore the ideal, tried and tested
complement to the new wireless standard. This means that smart,
energy-efficient automation solutions can be realized that are
non-proprietary and industry-neutral.
"EnOcean wireless technology is already a
firmly established technology for green, smart buildings and
applications. The EnOcean Alliance sees the ratification of the
international ISO/IEC 14543-3-10 standard as one of the key
prerequisites for expanding the already highly successful,
fast-growing EnOcean ecosystem. As an independent, open
organization, the Alliance is keen to inform potential product
manufacturers and users about the benefits of the standard and to
ensure the interoperability of EnOcean-based products," says Graham
Martin, Chairman of the EnOcean Alliance.
Technical specifications
The standard covers OSI (Open Systems
Interconnection) layers 1-3, being the physical, data link and
networking layers. The full title of the standard is: ISO/IEC
14543-3-10 Information technology -- Home Electronic Systems (HES)
-- Part 3-10: Wireless Short-Packet (WSP) protocol optimized for
energy harvesting -- Architecture and lower layer protocols.