IoT consists of meters, sensors and other machines connected to a network to generate efficiency and value across numerous applications. These machine to machine (M2M) connections will add network data loads that will create power, latency and capacity issues. Our M2M cellular boosters merely boost those mobile connections between machines that are inter-connected.
Sensors can for example be deployed through a building to report on lighting, heating and other ambient conditions. A more complex example would be a surgeon performing a remote operation getting a precise location for the incision from sensors in the body, and also using a robotic arm. Connected offices, homes, cars and cities could also benefit from IoT technology.
A question that has not yet been answered is how much latency and capacity these connected things in an IoT network will need. Connected parking meters will likely use less bandwidth than a person streaming video wirelessly and simple devices will only send the equivalent of a few text messages.
On other hand, systems such as collision avoidance systems in connected vehicles will have significant latency requirements. These systems typically need a latency of one millisecond to be effective. There are bound to be other applications that will drive additional bandwidth requirements.
Apart from latency and capacity issues, IoT will also have to deal with a power challenge. Any IoT sensor or device needs power from batteries or the electric grid. Having enough cost-effective energy that is reliable is another challenge that needs to be overcome.
As IoT is still emerging, different network requirements will appear based on different applications. IoT's exact uses will eventually evolve and will be integrated into the architectural requirements of 5G. It is however highly likely that networks of the future will have to offer access to numerous objects besides laptops, tablets and smartphones.
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