Page 34 - ITU Journal Future and evolving technologies Volume 2 (2021), Issue 5 – Internet of Everything
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ITU Journal on Future and Evolving Technologies, Volume 2 (2021), Issue 5





                                      Table 3 – Possible technologies for some IoE application scenarios
             Application                    Application Requirements                  Possible Technologies
             Structural Health (Smart City)  Tolerable delay:  30 min, update frequency:     LoRaWAN, SigFox, LTE, NB‑
                                            10 min, data rate: low                    IoT, ZigBee
             Waste Management (Smart City)  Tolerable  delay:  30  min,  update  frequency:     LoRaWAN, SigFox, LTE, NB‑
                                            1 hour, data rate: low                    IoT
             Video Surveillance (Smart City)  Tolerable delay: seconds, update frequency:  LTE, NB‑IoT, WiFi
                                            real‑time, data rate: high, netwaork coverage:
                                            large/small
             Air Quality Monitoring (Smart  Tolerable  delay:  5  min,  update  frequency:     Wi‑Fi, Bluetooth, NB‑IoT
             Home)                          30 min, data rate: low
             Patients Healthcare Delivery and  Tolerable delay:  seconds, update frequency:  Bluetooth, LTE, NB‑IoT
             Monitoring (Healthcare)        1 report  per  hour/day,  data  rate:  high
                                            security: high, reliability: high
             Real‑time Emergency Response   Tolerable delay: seconds, update frequency:  Bluetooth, LTE, NB‑IoT
             and Remote Diagnostics (Health‑  ad‑hoc emergency communication, data rate:
             care)                          high security: high, reliability: high
             Smart Grids (Industrial)       Tolerable delay: 3 to 20 ms, update frequency:  WiFi, ZigBee, LTE, WiMAX,
                                            10 to 100 ms, reliability: 10 −6  PLR, network cov‑  NB‑IoT
                                            erage: a few meter to kilometers
             Road Safety Highway (Smart City)  Tolerable delay: 10 to 100 ms, update fre‑  LTE, NB‑IoT
                                            quency: 100 ms, reliability: 10 −3  to 10 −5  PLR,
                                            network coverage: 2000 m
             Factory Automation (Industrial)  Tolerable delay: 0.25 to 10 ms, update fre‑  LTE, NB‑IoT, WiFi
                                            quency: 0.5 to 50 ms, reliability: 10 −9  PLR, net‑
                                            work coverage: 50 to 100 m
             Manufacturing Cell (Industrial)  Tolerable delay: 5 ms, update frequency: 50 ms,  LTE, NB‑IoT, WiFi
                                            reliability: 10 −9  PLR, network coverage: 50 to
                                            100 m
             Process Automation (Industrial)  Tolerable delay: 50 to 100 ms, update fre‑  LTE, NB‑IoT
                                            quency: 100 to 5000 ms, reliability: 10 −3  to 10 −4
                                            PLR, network coverage: 100 to 500 m



          coverage range. High user mobility and extended bat‑  of IoE through the analysis and application of big data.
          tery life of mobile terminals can be achieved using LTE.  Also, IoE has the prospect of on‑time medical assistance
          WiMAX supports broadband applications as well as pro‑  by connecting the network to traf ic and hospital adminis‑
          viding large coverage, and deployment of a WiMAX net‑  tration in case of an accident. Moreover, IoE also supports
          work is much cheaper than the deployment of an LTE net‑  the electronic reporting of patients’ mobility (i.e. contact
          work for last‑mile connectivity. Cognitive radio technolo‑  tracing) to ensure homecare. IoE‑coupled smart wear‑
          gies can achieve large coverage with non‑LoS links in last‑  able devices/systems have been reported for monitoring
          mile connectivity in rural areas utilizing unused licensed  cardiovascular disease, Chronic Obstructive Pulmonary
          spectrum.                                            Disease (COPD), Parkinson’s disease, pregnancy and cog‑
                                                               nitive disorder. Usually, the acquired data (biomarkers
          The application of IoE promises smart, innovative and  such as ECG, respiratory rate, body temperature, EMG
          comfortable medical services to the patients and/or in‑  muscle activity, gait and others) using sensory devices are
          dividuals needing healthcare, and furnishes their class  transmitted to the Healthcare Organization (HCO) using
          of life through easing emergency medical support, secu‑  the intermediate concentrators and platforms connected
          rity and continuous care [57]. The prospective applica‑  with short‑range radio such as Zigbee or low‑power Blue‑
          tions of IoE in medical sectors include health monitoring  tooth under the governance of a smartphone’s WiFi or cel‑
          using wearable devices that measure the physical activ‑  lular data connection [60].
          ities/behaviour [58], supporting health‑related informa‑
          tion for regular patient care, and networking through de‑  Some IoE applications, typical requirements and possible
          vices for clinical care with issues of an unvarying electro‑  technologies are shown in Table 3. Wearables and smart
          cardiogram, blood oxygen and blood pressure [59]. IoE  metering are two potential IoE application areas. The net‑
          can lead to constructing big data on a particular health  working technologies used in these technologies are dis‑
          issue and can play a pivotal role in the further progress  cussed in the following subsections.





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