Page 10 - Annual-Report-201704
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Other Aspects of M2M                                semantic interoperability. We made good progress with a TR
              Following the closure of the Home Gateway Initiative (HGI)   on data representation and transfer, service and application
              in June, TC SmartM2M handled the conversion of three   and we began revising our TS on low complexity MAC and
              HGI specifications into ETSI TSs, using the Publicly Available   routing for Smart BANs, addressing relay and hub-hub
              Specification (PAS) procedure. Published in November, these   communications. Other ongoing work included a new TR to
              three TSs cover the requirements specifications for linking   provide a system description for Smart BANs. We verified
              SmartM2M devices with Home Gateways.                the performance of the Smart BAN communication system,
                                                                  publishing a new TR on measurements and modelling of the
              We also completed a gap analysis, publishing the results   Smart BAN RF environment.
              in two Technical Reports (TRs). One TR identifies where
              new standards are needed to support the IoT standards   Medical Devices
              landscape, covering requirements, architecture, protocols,   Our Electromagnetic Compatibility and Radio Spectrum
              tests and relevant Open Source projects. The other describes   Matters committee (TC ERM) made good progress revising
              use cases and standardisation gaps in relation to European   our Harmonised Standards for wireless medical devices
              Large Scale Pilots (LSPs).                          (including ultra low power active implants and medical
                                                                  BAN systems) to address the changes required by the Radio
              In November we published a new TR on smart grid systems   Equipment Directive. Five out of seven of the required
              suitable for utility operations and spectrum requirements,   Harmonised Standards were published in 2016; the other
              which forms the basis for the development of a System   two were expected to be available early in 2017.
              Reference document (SRdoc) on critical infrastructure utility
              operations.                                         We also began work on a new SRdoc on wideband Ultra Low
                                                                  Power wireless medical capsule endoscopy in the UHF band,
              We joined two new EC-funded projects as a partner when   finalising the document in November.
              they kicked off in January 2016: UNIFY-IoT, aimed at
              developing a healthy IoT eco-system, and the ESPRESSO
              (systEmic Standardisation apPRoach to Empower Smart citieS
              and cOmmunities) project, where we support standardised
              integrated communication and data processing for a sector-
              independent ICT platform in a smart city.


              Wireless Industrial Automation
              As part of work to exploit the 5 GHz band, we continued
              with the development of a Harmonised Standard for radio
              equipment to be used in the 5,8 GHz band for Wireless
              Industrial Automation (WIA). We published a new TS on the
              methods and concepts for a WIA system approach in June.


              eHealth
              eHealth offers numerous potential benefits but the success
              of its implementation relies on the widespread digitalisation
              of all sectors of society. By ensuring interoperability,
              standards can assist the development of new eHealth
              products and the growth of Telemedicine.

              In 2016 our eHealth Project (EP eHEALTH) continued to
              work on a TR describing typical use cases in the eHealth
              domain and identifying gaps in standardisation. We are also
              compiling a glossary of terms to clarify the vocabulary used
              for eHealth issues.                                 Enabling the IoT
                                                                  Low Throughput Networks (LTN) is an ultra narrowband radio
              Body Area Networks                                  technology for very low data rates for ultra long autonomy
              Body Area Networks (BAN) technology uses small, low power   devices. This makes it ideal for connecting objects in M2M
              devices for health and wellness monitoring, sports training,   and the IoT which need only low throughput connectivity.
              personalised medicine (e.g. heart monitors) and personal   In 2016 we made good progress with a TR on LTN use cases
              safety (e.g. fall detection). Our Smart BAN committee (TC   and system requirements, along with two TSs for the LTN
              SmartBAN) is addressing the need for a dedicated technology   architecture and the protocols for LTN interfaces.
              optimised for BAN.
                                                                  We also continued to enhance the Digital Enhanced
              Work began in May on the updating of our TS on Smart BAN   Cordless Telecommunications (DECT™) Ultra Low Energy
              unified data representation formats, a semantic open data   specification, which has been developed specifically for M2M
              model and corresponding ontology, by adding extensions for   communications.




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