Why 2014 is a Key Year for the Internet of Things
Due to a fortunate combination of technological, economic and physical factors, 2014 will be an important year for the consumer and industrial Internet of Things.
By Sandeep Kishore
It seems strange to say, but we live in a very unconnected world today. While this statement might seem counterintuitive given the ever-increasing digital connectedness of our lives, most of the objects that we use on a daily basis are not connected—not to each other, not to us, and not to the Internet. Everyday examples include household appliances ranging from alarm clocks to air conditioning units; bicycles, cars, and other vehicles; and all manner of industrial equipment, large and small. According to Cisco, more than 99 percent of the things that will be connected to the Internet in the future are not connected today. Put another way, this means only 12 billion of 1.5 trillion things are now connected.
This connectivity is posed to drive one of the largest technology transformations in the coming decade, introducing a shift from the Internet of People to the Internet of Things (IoT). According to IDC, the IoT will gain so much momentum by 2020 that more than 212 billion devices around the world will be connected. That’s the equivalent of 27 devices for each person on the planet. And 30 billion of these 212 billion devices are expected to be completely autonomous, requiring no human involvement.
Four emerging technological capabilities will enable the increased pervasiveness of the IoT. These capabilities include the ability to measure environment variables through advanced sensors; communicate these measurements via Wi-Fi, 4G and Bluetooth technologies; analyze this data using powerful, tiny microprocessors; and collaborate with other devices and infrastructure through machine-to-machine connectivity and produce the desired output.
Consider the hypothetical example of a CIO whose early morning flight is delayed by 30 minutes. The CIO's phone tracks the flight delay through the airline's Website and communicates the data to her alarm clock, car and beloved coffee machine. While the CIO is sleeping, her car analyzes the area's traffic patterns to see if any extra driving time is required and transmits the information to the alarm clock and still-idle coffee machine. The car also adjusts the time of the CIO's parking reservation at the airport. Without any effort, the CIO gains 20 minutes of extra sleep—and the coffee pot is brimming with French Roast when she rises from bed.
Once airborne, the CIO can, if need be, adjust the temperature of her home or double-check whether her car is locked via the in-flight Wi-Fi. Before arriving at her destination, the CIO's rental car pick-up time has already been adjusted based on the flight's late arrival, and the CIO's phone informs everyone that she is scheduled to meet at her business destination of the delay in her flight (and provides an estimate of her arrival). During the return flight that evening, the CIO's phone informs her that back home the refrigerator has ordered orange juice, a favorite snack and various other food items, as needed. And two shopping bags of groceries are waiting by the CIO's front door when she pulls into the driveway.
Why the Internet of Things Is Happening Now
Now this scenario sounds both happily convenient and efficient, but an interesting question to ask is, Why is this happening now, as the underlying technologies have been available for some years now? The answer lies in the inflection point of three key laws, making the hyper-connected of the IoT simultaneously possible within technical, economic and physical realms. First, according to Moore’s Law, as stated by Gordon Moore in 1965, processors will double their capacity every 18 months, driving down costs and allowing us to put powerful yet inexpensive sensors and microprocessors in a lot of places. Accelerometers, for example, cost about $2 in 2005 and are expected to cost 20 cents in 2015. Second, Koomey’s law states that the energy efficiency of computation doubles roughly every one-and-a-half years, enabling sensors and processors to function for many hours with minimal energy requirements. For example, a fully charged Macbook Air that performs for 8 or more hours today, if operated at the energy efficiency of 1992, would last only one-and-a-half seconds. Finally, Metcalfe’s law states that the value of a network grows exponentially with the increase in the number of nodes. No wonder the IoT is growing wildly today; the number of connected sensors was just 10 million in 2007, but it increased to 3.5 billion in 2010, and a few optimistic estimates have it reaching 1 trillion by 2020.
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